Author SHA1 Message Date
Gatsby Van 62cc15c3d4 add beampattern refreash method 2024-03-16 13:20:04 +08:00
Gatsby Van 98e6935d9a *bugfix: add missing beam steer 2024-03-16 13:19:42 +08:00
Gatsby Van 0c6d861620 cleanup 2024-03-16 13:18:16 +08:00
Gatsby Van f6c2568a75 update scan frame content 2024-03-14 21:39:22 +08:00
Gatsby Van ef1c41b500 update beam scan scheme 2024-03-14 21:24:22 +08:00
Gatsby Van 9a7b89ca82 correct slave node beam setting 2024-03-14 21:22:29 +08:00
Gatsby Van 80035d5208 omit redunsant code 2024-03-14 21:21:57 +08:00
Gatsby Van ab7ce2e082 update plugin 2024-03-14 21:21:23 +08:00
Gatsby Van f5aca7d5cf update MPC 2024-03-13 17:01:07 +08:00
Gatsby Van c3e0c7a66a clean uo & enhance coherence 2024-03-12 20:49:24 +08:00
Gatsby Van 2898bdfa15 add MPC module to GE project 2024-03-12 20:43:15 +08:00
Gatsby Van 31dcb5aa69 delete systembus module from GE project 2024-03-12 20:42:57 +08:00
Gatsby Van a1fc87dc97 enhance readability 2024-03-12 20:41:59 +08:00
Gatsby Van 009ddfd895 fix typo 2024-03-12 20:39:38 +08:00
Gatsby Van 222dcb789c update bsp: add MPC 2024-03-12 17:23:00 +08:00
Gatsby Van 6b016e1181 update systembus: omit redundant code 2024-03-12 11:20:56 +08:00
Gatsby Van 712d37061a add antenna power mode print 2024-03-07 11:42:22 +08:00
Gatsby Van dfecadac56 omit redundant code 2024-03-07 11:41:52 +08:00
Gatsby Van c09bd57408 enhance code inherence 2024-03-07 11:40:53 +08:00
Gatsby Van ec772ba9e3 add new log entry (phy: antenna power mode) 2024-03-07 11:40:53 +08:00
Gatsby Van 51b96825a3 formatted document 2024-03-06 20:25:43 +08:00
Gatsby Van 274ee8922e bugfix: missing semicolon 2024-03-06 20:18:50 +08:00
Gatsby Van 8c12c0e755 Merge remote-tracking branch 'origin' 2024-03-06 20:16:09 +08:00
Gatsby Van 1e5f8052e5 plugin update: new lowpower and silient command 2024-03-06 20:08:33 +08:00
Gatsby Van 10c72585de *add new silent command 2024-03-06 20:03:38 +08:00
Gatsby Van c3e47b0fae correct time stamp 2024-03-06 20:03:15 +08:00
Gatsby Van 60033f36a7 omit redundant code 2024-03-06 20:02:38 +08:00
Gatsby Van 582cbd57af *bugfix: ommit extra event trigger 2024-03-06 20:01:34 +08:00
Gatsby Van 34b851fab7 delete trailing blank space 2024-03-05 21:31:06 +08:00
Gatsby Van 8ffcb8b048 correct byte order 2024-03-05 21:30:44 +08:00
Gatsby Van b0067e53a6 remove redundant code 2024-03-05 21:29:56 +08:00
Gatsby Van 3073a2767b bugfix: correct line break 2024-03-05 21:01:01 +08:00
Gatsby Van 7818a754c6 update plugin: add retrieved data print 2024-03-05 20:40:41 +08:00
Gatsby Van b99d0bfca0 *bugfix: correct beam setup 2024-03-02 16:32:36 +08:00
Gatsby Van 3dedebbe79 miscellaneous update 2024-03-02 16:32:12 +08:00
Gatsby Van 22417853dd enhanced code inherence 2024-03-02 13:14:17 +08:00
Gatsby Van 633f6dff37 bugfix: correct api call 2024-03-02 13:13:20 +08:00
Gatsby Van 1192f7b4cd revise beam pattern 2024-03-01 21:27:37 +08:00
Gatsby Van 871c9882b4 add api (Phy_LastScanBeamNo) 2024-03-01 21:27:21 +08:00
Gatsby Van 04a75154c5 add beam steering 2024-03-01 21:27:00 +08:00
Gatsby Van f1e1ddf48f complete linklayer logging 2024-03-01 21:26:28 +08:00
Gatsby Van 09cc2ce347 *add antenna info configs (scan beam directions) 2024-03-01 21:25:15 +08:00
Gatsby Van 0c270df599 add antenna bram control 2024-03-01 19:25:33 +08:00
Gatsby Van 8be194a410 miscellaneous update 2024-02-22 17:31:20 +08:00
Gatsby Van ea5d6e0962 *bugfix: add missing return value 2024-02-22 16:30:25 +08:00
Gatsby Van 7edb8cb3f0 *bugfix: add hardware status to remote check 2024-02-22 16:27:22 +08:00
Gatsby Van 6299d8982d fix typo 2024-02-22 16:26:01 +08:00
Gatsby Van 8af1439087 update hopping pattern 2024-02-22 16:25:49 +08:00
Gatsby Van 95041a8395 *bugfix: correct hardware status determination 2024-02-22 16:25:32 +08:00
Gatsby Van 5cabf2ab65 add comtool python plugin 2024-02-22 16:17:43 +08:00
Gatsby Van 638b24a6a1 make compatible withe BSD sed 2024-02-21 21:06:58 +08:00
Gatsby Van 2b74942521 add hardware configuration files 2024-02-20 17:40:56 +08:00
Gatsby Van 597ea2c7cd formatted 2024-02-20 17:40:18 +08:00
Gatsby Van 6d08ee216a *split hardware configurations to individual files 2024-02-20 17:40:04 +08:00
Gatsby Van d87a4434c7 update ad temperate reading api 2024-02-20 17:39:32 +08:00
Gatsby Van c27d6fc455 adapted to new log content definition 2024-02-20 13:13:57 +08:00
Gatsby Van 0701eb6f43 *update log content 2024-02-20 13:13:28 +08:00
Gatsby Van ffc9f22694 omit redundant api 2024-02-20 13:12:49 +08:00
Gatsby Van c7898003c0 *add clock and ad status update api 2024-02-20 11:22:56 +08:00
43 changed files with 3645 additions and 1739 deletions
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'''
@brief This is an example plugin, can receive and send data
@author
@date
@license LGPL-3.0
'''
from PyQt5.QtWidgets import QWidget, QVBoxLayout, QHBoxLayout, QTextEdit, QPushButton, QLabel, QScrollArea, QSplitter
from PyQt5.QtCore import Qt, pyqtSignal
from PyQt5.QtGui import QFont, QTextCursor
from struct import Struct
try:
import utils_ui
from plugins.base import Plugin_Base
from conn import ConnectionStatus
from i18n import _
from widgets import statusBar
except ImportError:
from COMTool import utils_ui
from COMTool.plugins.base import Plugin_Base
from COMTool.i18n import _
from COMTool.conn import ConnectionStatus
from COMTool.widgets import statusBar
class Plugin(Plugin_Base):
id = "DEIFEI"
name = _("DUIFEI")
showReceiveDataSignal = pyqtSignal(str)
def onInit(self, config):
'''
init params
'''
default = {
"version": 1,
"customSendItems": [
{
"caption": "自检",
"icon": "fa5.question-circle",
"data": "5A 54 E1 DD 00 BE 02 5A FE"
},
# {
# "caption": "数据发送测试 - 1",
# "icon": "fa5.play-circle",
# "data": ""
# },
# {
# "caption": "数据发送测试 - 2",
# "icon": "fa5.play-circle",
# "data": ""
# },
{
"caption": "装订 - 【主】反拦截小功率",
"icon": "fa5.play-circle",
"data": "5A 54 E3 DD 77 11 00 00 00 48 06 5A FE"
},
{
"caption": "装订 - 【主】反拦截全功率",
"icon": "fa5.play-circle",
"data": "5A 54 E3 DD 66 11 00 00 00 37 06 5A FE"
},
{
"caption": "装订 - 【主】反拦截静默",
"icon": "fa5.play-circle",
"data": "5A 54 E3 DD 88 11 00 00 00 59 06 5A FE"
},
{
"caption": "遥测 - 【主】反拦截",
"icon": "fa5.play-circle",
"data": "5A 54 E6 DD 99 00 5C 03 5A FE"
},
{
"caption": "点名 - 【主】反拦截",
"icon": "fa5.play-circle",
"data": "5A 54 E5 DD 77 00 39 03 5A FE"
},
{
"caption": "装订 - 【从】拦截小功率",
"icon": "fa5.play-circle",
"data": "5A 54 E3 DD 77 00 00 00 00 37 06 5A FE"
},
{
"caption": "装订 - 【从】拦截大功率",
"icon": "fa5.play-circle",
"data": "5A 54 E3 DD 66 00 00 00 00 26 06 5A FE"
},
{
"caption": "装订 - 【从】拦截静默",
"icon": "fa5.play-circle",
"data": "5A 54 E3 DD 88 00 00 00 00 48 06 5A FE"
},
{
"caption": "遥测 - 【从】拦截",
"icon": "fa5.play-circle",
"data": "5A 54 F6 DD 99 00 6C 03 5A FE"
},
{
"caption": "点名 - 【从】拦截",
"icon": "fa5.play-circle",
"data": "5A 54 F5 DD 77 00 49 03 5A FE"
}
]
}
self.config = config
for k in default:
if not k in self.config:
self.config[k] = default[k]
def onConnChanged(self, status:ConnectionStatus, msg:str):
print("-- connection changed: {}, msg: {}".format(status, msg))
def onWidgetMain(self, parent):
'''
main widget, just return a QWidget object
'''
self.mainWidget = QSplitter(Qt.Vertical)
# receive widget
self.receiveWidget = QTextEdit("")
font = QFont('Consolas, DejaVu Sans Mono, Courier New, monospace, Microsoft YaHei', 10)
self.receiveWidget.setFont(font)
self.receiveWidget.setLineWrapMode(QTextEdit.NoWrap)
# clear button
self.clearBtn = QPushButton("")
utils_ui.setButtonIcon(self.clearBtn, "mdi6.broom")
# send scroll
self.customSendScroll = QScrollArea()
self.customSendScroll.setMinimumHeight(20)
self.customSendScroll.setWidgetResizable(True)
self.customSendScroll.setVerticalScrollBarPolicy(Qt.ScrollBarAsNeeded)
self.customSendScroll.setHorizontalScrollBarPolicy(Qt.ScrollBarAlwaysOff)
cutomSendItemsWraper = QWidget()
self.customSendScroll.setWidget(cutomSendItemsWraper)
# -- wrapper widget
cutomSendItemsWraper0 = QWidget()
cutomSendItemsWraper0.setProperty("class", "scrollbar2")
layout0 = QVBoxLayout()
layout0.setContentsMargins(0,8,0,0)
cutomSendItemsWraper0.setLayout(layout0)
layout0.addWidget(self.customSendScroll)
customSendItemsLayoutWrapper = QVBoxLayout()
customSendItemsLayoutWrapper.setContentsMargins(0,0,0,0)
cutomSendItemsWraper.setLayout(customSendItemsLayoutWrapper)
# -- items container
self.customItems = QWidget()
self.customSendItemsLayout = QVBoxLayout()
self.customSendItemsLayout.setContentsMargins(0,0,0,0)
self.customItems.setLayout(self.customSendItemsLayout)
customSendItemsLayoutWrapper.addWidget(self.customItems)
customSendItemsLayoutWrapper.addStretch(0)
# add widgets
self.mainWidget.addWidget(self.receiveWidget)
self.mainWidget.addWidget(self.clearBtn)
self.mainWidget.addWidget(cutomSendItemsWraper0)
self.mainWidget.setStretchFactor(0, 2)
self.mainWidget.setStretchFactor(1, 1)
self.mainWidget.setStretchFactor(2, 11)
# event
def clearReceived():
self.receiveWidget.clear();self.statusBar.clear()
self.clearBtn.clicked.connect(clearReceived)
return self.mainWidget
def onWidgetStatusBar(self, parent):
self.statusBar = statusBar(rxTxCount=True)
return self.statusBar
def onUiInitDone(self):
'''
UI init done, you can update your widget here
this method runs in UI thread, do not block too long
'''
newItems = []
print(self.config["customSendItems"])
for item in self.config["customSendItems"]:
print(item)
item = self.insertSendItem(item, load=True)
newItems.append(item)
self.config["customSendItems"] = newItems
self.showReceiveDataSignal.connect(self.showReceivedData)
# frame struct
self.structSelfTestRsp = Struct("<BB B BBBbbb BbBBB H")
self.structStatusCheckRsp = Struct("<BB Q HIII IBBBBI BBHH HHHIIIIII i II 4s IIII d Q dBB dB H B 3s BBBbbb BbBBB 2s")
self.structFljData = Struct("<dddd IHI fff fff")
self.structLjData = Struct("<IHI ffff IHI fff fff fff IHI fff fff fff IHI fff fff fff I")
self.structSysInfo = Struct("<IHI H B I B fff fff fff")
def insertSendItem(self, item = None, load = False):
caption = item["caption"]
itemWidget = QWidget()
layout = QHBoxLayout()
layout.setContentsMargins(0,0,0,0)
itemWidget.setLayout(layout)
send = QPushButton("")
label = QLabel(caption)
if (not "icon" in item) or not item["icon"]:
item["icon"] = "fa.send"
utils_ui.setButtonIcon(send, item["icon"])
send.setProperty("class", "smallBtn")
def sendCustomData(idx):
self.sendCustomItem(self.config["customSendItems"][idx])
send.clicked.connect(lambda: sendCustomData(self.customSendItemsLayout.indexOf(itemWidget)))
layout.addWidget(label)
layout.addWidget(send)
self.customSendItemsLayout.addWidget(itemWidget)
if not load:
self.config["customSendItems"].append(item)
return item
def showReceivedData(self, text: str):
curScrollValue = self.receiveWidget.verticalScrollBar().value()
self.receiveWidget.moveCursor(QTextCursor.End)
endScrollValue = self.receiveWidget.verticalScrollBar().value()
self.receiveWidget.insertPlainText(text)
if curScrollValue < endScrollValue:
self.receiveWidget.verticalScrollBar().setValue(curScrollValue)
else:
self.receiveWidget.moveCursor(QTextCursor.End)
def onReceived(self, data : bytes):
'''
call in receive thread, not UI thread
'''
self.statusBar.addRx(len(data))
## Apply data validation check
if len(data) < 7:
self.showReceiveDataSignal.emit("\n### Wrong data format: wrong frame header/tail\n")
return
dataLen = data[-3]
if data[0] != 0x5A or data[1] != 0x54 or data[-1] != 0xFE or data[-2] != 0x5A:
self.showReceiveDataSignal.emit("\n### Wrong data format: wrong length\n")
checkSum = 0
for i in data[2:-4]:
checkSum += i
if checkSum & 0xFF != data[-4]:
self.showReceiveDataSignal.emit("\n### Wrong data format: wrong check sum\n")
## Eval data
data = data[2:-5].replace(b'\x00\x54\xFE', b'\x54\xFE')
# self.printFrame(data)
if data[0] == 0xE1:
# eval self test
self.showReceiveDataSignal.emit(self.evalSelfTestRsp(data) + "\n")
elif data[0] == 0xE6 or data[0] == 0xF6:
self.showReceiveDataSignal.emit(self.evalStatusCheckRsp(data) + "\n")
elif data[0] == 0xE5 or data[0] == 0xF5:
self.showReceiveDataSignal.emit('Retrieved Data Frame:\n' + self.printFrame(data) + "\n")
else:
self.showReceiveDataSignal.emit(f"\n### Unexpected response code 0x{data[0]:02x}.\n")
def evalSelfTestRsp(self, data: bytes):
try:
payload = self.structSelfTestRsp.unpack(data)
except :
return f"\n### evalSelfTestRsp:: Failed to unpack data (data length {len(data)} byte).\n"
ret = "----------- 自检回令 -----------\n"
ret += "节点类型: "
if payload[1] == 0xDD:
ret += f"K频段 (0x{payload[1]:02X})\n"
elif payload[1] == 0xEE:
ret += f"S频段 (0x{payload[1]:02X})\n"
else:
ret += f"【未知错误】(0x{payload[1]:02X})\n"
ret += "自检结果: "
if payload[2] == 0xAA:
ret += f"正常 (0x{payload[2]:02X})\n"
elif payload[2] == 0x55:
ret += f"异常 (0x{payload[2]:02X})\n"
else:
ret += f"【未知错误】(0x{payload[2]:02X})\n"
hwOffset = 3
ret += f"FPGA 电压监测: {bin(payload[hwOffset+0])[2:].zfill(8)}\n"
ret += f"时钟锁定状态: {bin(payload[hwOffset+1])[2:].zfill(8)}\n"
ret += f"AD 锁定状态: {bin(payload[hwOffset+2])[2:].zfill(8)}\n"
ret += f"AD 温度 1: {payload[hwOffset+3]:>4d}\n"
ret += f"AD 温度 2: {payload[hwOffset+4]:>4d}\n"
ret += f"FPGA 温度: {payload[hwOffset+5]:>4d}\n"
ret += f"电压监测: {bin(payload[hwOffset+6])[2:].zfill(8)}\n"
ret += f"射频温度: {payload[hwOffset+7]:>4d}\n"
ret += f"锁定指示: {bin(payload[hwOffset+8])[2:].zfill(8)}\n"
ret += f"MGC 1~2: {payload[hwOffset+9] & 0x0f:>2d} - {payload[hwOffset+9] >> 4:>2d}\n"
ret += f"MGC 3~4: {payload[hwOffset+10] & 0x0f:>2d} - {payload[hwOffset+10] >> 4:>2d}\n"
ret += "--------------------------------\n"
return ret + '\n' + self.printFrame(data)
def printFrame(self, data: bytes):
ret = ''
for i in range(len(data)):
ret += f'{data[i]:02X}'
ret += '\n' if i%16 == 15 else ' '
ret += '\n'
return ret
def evalStatusCheckRsp(self, data: bytes):
try:
payload = self.structStatusCheckRsp.unpack(data)
except :
return f"\n### evalStatusCheckRsp:: Failed to unpack data (data length {len(data)} byte).\n"
ret = "----------- 遥测回令 -----------\n"
ret += "节点类型: "
if payload[1] == 0xDD:
ret += f"K频段 (0x{payload[1]:02X})\n"
elif payload[1] == 0xEE:
ret += f"S频段 (0x{payload[1]:02X})\n"
else:
ret += f"【未知错误】(0x{payload[1]:02X})\n"
ret += f"时间戳: {payload[2]/1e5:.2f} ms\n"
sysbusOffset = 3
linkOffset = 7
phyOffset = 30
hwOffset = 44
ret += "\n -- 总线状态\n"
ret += f"配置装订: {payload[sysbusOffset + 0]:04X}\n"
ret += f"装置点名计数: {payload[sysbusOffset + 1]:>6d}\n"
ret += f"业务下发计数: {payload[sysbusOffset + 2]:>6d}\n"
ret += f"遥测请求计数: {payload[sysbusOffset + 3]:>6d}\n"
ret += "\n -- 链路层状态\n"
ret += f"帧号: {payload[linkOffset + 0]:>6d}\n"
ret += f"时隙号: {payload[linkOffset + 1]:>3d}\n"
ret += "当前角色: "
if payload[linkOffset + 2] == 0xAA:
ret += f"反拦截 (0x{payload[linkOffset + 2]:02X})\n"
elif payload[linkOffset + 2] == 0xCC:
ret += f"拦截 (0x{payload[linkOffset + 2]:02X})\n"
else:
ret += f"【未知错误】(0x{payload[linkOffset + 2]:02X})\n"
ret += "网络连接状态: "
if payload[linkOffset + 3] == 0x11:
ret += f"已连接 (0x{payload[linkOffset + 3]:02X})\n"
elif payload[linkOffset + 3] == 0x00:
ret += f"未连接 (0x{payload[linkOffset + 3]:02X})\n"
else:
ret += f"【未知错误】(0x{payload[linkOffset + 3]:02X})\n"
ret += "网络运行阶段: "
if payload[linkOffset + 4] == 0x11:
ret += f"扫描建网 (0x{payload[linkOffset + 4]:02X})\n"
elif payload[linkOffset + 4] == 0x22:
ret += f"业务通信 (0x{payload[linkOffset + 4]:02X})\n"
else:
ret += f"【未知错误】(0x{payload[linkOffset + 4]:02X})\n"
ret += f"重建/入网计数: {payload[linkOffset + 5]:>6d}\n"
ret += f"通信波位号: {payload[linkOffset + 6]:>2d}\n"
ret += "通信波束宽度: "
if payload[linkOffset + 7] == 0x01:
ret += f"120° 宽波束 (0x{payload[linkOffset + 7]:02X})\n"
elif payload[linkOffset + 7] == 0x02:
ret += f"60° 次波束 (0x{payload[linkOffset + 7]:02X})\n"
elif payload[linkOffset + 7] == 0x03:
ret += f"25° 次波束 (0x{payload[linkOffset + 7]:02X})\n"
elif payload[linkOffset + 7] == 0x04:
ret += f"8° 窄波束 (0x{payload[linkOffset + 7]:02X})\n"
else:
ret += f"【未知错误】(0x{payload[linkOffset + 7]:02X})\n"
ret += f"离轴角: {payload[linkOffset + 8]*0.1:.2f}°\n"
ret += f"偏航角: {payload[linkOffset + 9]*0.1:.2f}°\n"
ret += f"基准帧发送计数: {payload[linkOffset + 10]:>6d}\n"
ret += f"基准帧接收计数: {payload[linkOffset + 11]:>6d}\n"
ret += f"基准帧正确计数: {payload[linkOffset + 12]:>6d}\n"
ret += f"双向握手帧发送计数: {payload[linkOffset + 13]:>6d}\n"
ret += f"双向握手帧接收计数: {payload[linkOffset + 14]:>6d}\n"
ret += f"双向握手帧正确计数: {payload[linkOffset + 15]:>6d}\n"
ret += f"业务帧发送计数: {payload[linkOffset + 16]:>6d}\n"
ret += f"业务帧接收计数: {payload[linkOffset + 17]:>6d}\n"
ret += f"业务帧正确计数: {payload[linkOffset + 18]:>6d}\n"
ret += f"时间偏差记录: {payload[linkOffset + 19]/1e2:.2f} us\n"
ret += f"发送数据 ID: {payload[linkOffset + 20]:>6d}\n"
ret += f"接收数据 ID: {payload[linkOffset + 21]:>6d}\n"
ret += "\n -- 物理层状态\n"
ret += f"捕获计数: {payload[phyOffset + 0]:>6d}\n"
ret += f"帧同步计数: {payload[phyOffset + 1]:>6d}\n"
ret += f"译码计数: {payload[phyOffset + 2]:>6d}\n"
ret += f"CRC 正确计数:{payload[phyOffset + 3]:>6d}\n"
ret += f"多普勒估计: {payload[phyOffset + 4]:.2f} Hz\n"
ret += f"正确接收时刻: {payload[phyOffset + 5]/1e2:.2f} us\n"
ret += f"捕获峰均比: {payload[phyOffset + 6]:.2f}\n"
ret += f"捕获相位值: {payload[phyOffset + 7]:>3d}\n"
ret += f"捕获频偏通道: {payload[phyOffset + 8]:>3d}\n"
ret += f"帧同步峰均比: {payload[phyOffset + 9]:.2f}\n"
ret += f"帧同步频偏通道: {payload[phyOffset + 10]:>3d}\n"
ret += f"交织输入数据幅度统计:\t0x{payload[phyOffset + 11]:04X}\n"
ret += "天线工作模式: "
if payload[phyOffset + 12] == 0x01:
ret += f"静默模式 (0x{payload[phyOffset + 12]:02X})\n"
elif payload[phyOffset + 12] == 0x02:
ret += f"低功率模式 (0x{payload[phyOffset + 12]:02X})\n"
elif payload[phyOffset + 12] == 0x03:
ret += f"全功率模式 (0x{payload[phyOffset + 12]:02X})\n"
else:
ret += f"【未知错误】(0x{payload[phyOffset + 12]:02X})\n"
ret += "\n -- 硬件状态\n"
ret += f"FPGA 电压监测: {bin(payload[hwOffset+0])[2:].zfill(8)}\n"
ret += f"时钟锁定状态: {bin(payload[hwOffset+1])[2:].zfill(8)}\n"
ret += f"AD 锁定状态: {bin(payload[hwOffset+2])[2:].zfill(8)}\n"
ret += f"AD 温度 1: {payload[hwOffset+3]:>4d}\n"
ret += f"AD 温度 2: {payload[hwOffset+4]:>4d}\n"
ret += f"FPGA 温度: {payload[hwOffset+5]:>4d}\n"
ret += f"电压监测: {bin(payload[hwOffset+6])[2:].zfill(8)}\n"
ret += f"射频温度: {payload[hwOffset+7]:>4d}\n"
ret += f"锁定指示: {bin(payload[hwOffset+8])[2:].zfill(8)}\n"
ret += f"MGC 1~2: {payload[hwOffset+9] & 0x0f:>2d} - {payload[hwOffset+9] >> 4:>2d}\n"
ret += f"MGC 3~4: {payload[hwOffset+10] & 0x0f:>2d} - {payload[hwOffset+10] >> 4:>2d}\n"
ret += "--------------------------------\n"
return ret + '\n' + self.printFrame(data)
def onSent(self, ok, msg, length, path):
if ok:
self.statusBar.addTx(length)
else:
self.hintSignal.emit("error", _("Error"), _("Send data failed!") + " " + msg)
def sendCustomItem(self, item):
data = item["data"]
dateBytes = self.parseSendData(data, encoding = self.configGlobal["encoding"], isHexStr = True)
if dateBytes:
self.send(dateBytes, callback=self.onSent)
@@ -359,20 +359,20 @@
/* Definitions for driver GPIO */
#define XPAR_XGPIO_NUM_INSTANCES 1
/* Definitions for peripheral CONFIG_GPIO */
#define XPAR_CONFIG_GPIO_BASEADDR 0x41200000
#define XPAR_CONFIG_GPIO_HIGHADDR 0x4120FFFF
#define XPAR_CONFIG_GPIO_DEVICE_ID 0
#define XPAR_CONFIG_GPIO_INTERRUPT_PRESENT 0
#define XPAR_CONFIG_GPIO_IS_DUAL 1
/* Definitions for peripheral MPC_GPIO */
#define XPAR_MPC_GPIO_BASEADDR 0x41200000
#define XPAR_MPC_GPIO_HIGHADDR 0x4120FFFF
#define XPAR_MPC_GPIO_DEVICE_ID 0
#define XPAR_MPC_GPIO_INTERRUPT_PRESENT 0
#define XPAR_MPC_GPIO_IS_DUAL 1
/******************************************************************/
/* Canonical definitions for peripheral CONFIG_GPIO */
/* Canonical definitions for peripheral MPC_GPIO */
#define XPAR_GPIO_0_BASEADDR 0x41200000
#define XPAR_GPIO_0_HIGHADDR 0x4120FFFF
#define XPAR_GPIO_0_DEVICE_ID XPAR_CONFIG_GPIO_DEVICE_ID
#define XPAR_GPIO_0_DEVICE_ID XPAR_MPC_GPIO_DEVICE_ID
#define XPAR_GPIO_0_INTERRUPT_PRESENT 0
#define XPAR_GPIO_0_IS_DUAL 1
@@ -425,17 +425,14 @@
/* Definitions for Fabric interrupts connected to ps7_scugic_0 */
#define XPAR_FABRIC_PHY_IRQ_INTR 61U
#define XPAR_FABRIC_FRAME_UART_0_RX_INTR_INTR 62U
#define XPAR_FABRIC_FRAME_UART_0_TX_INTR_INTR 63U
#define XPAR_FABRIC_MPC_IRQ_INTR 64U
#define XPAR_FABRIC_PHY_5MS_INTR 65U
#define XPAR_FABRIC_PHY_5MS_DELAY_2MS_INTR 66U
#define XPAR_FABRIC_PHY_5MS_INTR 62U
#define XPAR_FABRIC_PHY_5MS_DELAY_2MS_INTR 63U
#define XPAR_FABRIC_MPC_RX_IRQ_INTR 64U
#define XPAR_FABRIC_MPC_TX_IRQ_INTR 65U
/******************************************************************/
/* Canonical definitions for Fabric interrupts connected to ps7_scugic_0 */
#define XPAR_FABRIC_FRAME_UART_0_RX_INTR_VEC_ID XPAR_FABRIC_FRAME_UART_0_RX_INTR_INTR
#define XPAR_FABRIC_FRAME_UART_0_TX_INTR_VEC_ID XPAR_FABRIC_FRAME_UART_0_TX_INTR_INTR
/******************************************************************/
@@ -43,10 +43,10 @@
XGpio_Config XGpio_ConfigTable[XPAR_XGPIO_NUM_INSTANCES] =
{
{
XPAR_CONFIG_GPIO_DEVICE_ID,
XPAR_CONFIG_GPIO_BASEADDR,
XPAR_CONFIG_GPIO_INTERRUPT_PRESENT,
XPAR_CONFIG_GPIO_IS_DUAL
XPAR_MPC_GPIO_DEVICE_ID,
XPAR_MPC_GPIO_BASEADDR,
XPAR_MPC_GPIO_INTERRUPT_PRESENT,
XPAR_MPC_GPIO_IS_DUAL
}
};
+6 -12
View File
@@ -18,18 +18,6 @@ BEGIN PROCESSOR
END
BEGIN DRIVER
PARAMETER DRIVER_NAME = frame_uart
PARAMETER DRIVER_VER = 1.0
PARAMETER HW_INSTANCE = Frame_Uart_0
END
BEGIN DRIVER
PARAMETER DRIVER_NAME = gpio
PARAMETER DRIVER_VER = 4.4
PARAMETER HW_INSTANCE = config_gpio
END
BEGIN DRIVER
PARAMETER DRIVER_NAME = generic
PARAMETER DRIVER_VER = 2.0
@@ -54,6 +42,12 @@ BEGIN DRIVER
PARAMETER HW_INSTANCE = mpc_bram_interface_mpc_bram_ctrl
END
BEGIN DRIVER
PARAMETER DRIVER_NAME = gpio
PARAMETER DRIVER_VER = 4.4
PARAMETER HW_INSTANCE = mpc_gpio
END
BEGIN DRIVER
PARAMETER DRIVER_NAME = bram
PARAMETER DRIVER_VER = 4.3
+2 -2
View File
@@ -13,7 +13,7 @@ RM := rm -rf
-include sources.mk
-include src/util/subdir.mk
-include src/time_ctrl/subdir.mk
-include src/systembus/subdir.mk
-include src/mpc/subdir.mk
-include src/networking/phy_layer/subdir.mk
-include src/networking/link_layer/geometry/subdir.mk
-include src/networking/link_layer/subdir.mk
@@ -38,7 +38,7 @@ endif
-include ../makefile.defs
# Add inputs and outputs from these tool invocations to the build variables
# Add inputs and outputs from these tool invocations to the build variables
ELFSIZE += \
df_datalink_ge.elf.size \
@@ -2,18 +2,18 @@
# Automatically-generated file. Do not edit!
################################################################################
# Add inputs and outputs from these tool invocations to the build variables
# Add inputs and outputs from these tool invocations to the build variables
C_SRCS += \
../src/systembus/systembus.c \
../src/systembus/systembus_uart.c
../src/mpc/mpc.c \
../src/mpc/mpc_hw.c
OBJS += \
./src/systembus/systembus.o \
./src/systembus/systembus_uart.o
./src/mpc/mpc.o \
./src/mpc/mpc_hw.o
C_DEPS += \
./src/systembus/systembus.d \
./src/systembus/systembus_uart.d
./src/mpc/mpc.d \
./src/mpc/mpc_hw.d
# Each subdirectory must supply rules for building sources it contributes
+4 -3
View File
@@ -71,9 +71,10 @@
#define TIME_CONTROLLER_BASEADDR XPAR_TMC_BASEADDR
// System Bus Configs
//#define SYSBUS_BASE_ADDR XPAR_SYSTEMBUS_BASEADDR
//#define SYSBUS_TX_INTR_ID XPAR_FABRIC_SYSTEMBUS_TX_DONE_INTR
//#define SYSBUS_RX_INTR_ID XPAR_FABRIC_SYSTEMBUS_RX_DONE_INTR
#define MPC_BRAM_ID XPAR_MPC_BRAM_INTERFACE_MPC_BRAM_CTRL_DEVICE_ID
#define MPC_GPIO_ID XPAR_MPC_GPIO_DEVICE_ID
#define MPC_TX_INTR_ID XPAR_FABRIC_MPC_TX_IRQ_INTR
#define MPC_RX_INTR_ID XPAR_FABRIC_MPC_RX_IRQ_INTR
// Global Timer config
#define GLOBAL_TIMER_DEVICE_ID XPAR_GLOBAL_TMR_DEVICE_ID
@@ -11,7 +11,7 @@ struct xil_timer_init_param xil_scutimer_init_param = {
struct timer_init_param scutimer_init_param = {
.id = SCUTIMER_DEVICE_ID,
.freq_hz = SCU_TIMER_CLK_HZ,
.ticks_count = (SCU_TIMER_CLK_HZ/10), //update log every 100ms
.ticks_count = (SCU_TIMER_CLK_HZ/2), //update log every 500ms
.platform_ops = &xil_timer_ops,
.extra = &xil_scutimer_init_param
};
File diff suppressed because it is too large Load Diff
+3 -2
View File
@@ -1,7 +1,7 @@
/*
* headless.h
*
* Created on: 2021Äê6ÔÂ8ÈÕ
* Created on: 2021��6��8��
* Author: Josh
*/
@@ -30,7 +30,8 @@
/**************************** Type Definitions *******************************/
/***************** Macros (Inline Functions) Definitions *********************/
#define HW_PRINT(...) __asm__("nop")
// #define HW_PRINT(...) printf(__VA_ARGS__)
/************************** Variable Definitions *****************************/
/************************** Function Prototypes ******************************/
+130 -113
View File
@@ -36,7 +36,7 @@
#include "timer.h"
#include "config/app_config.h"
#include "dev_profile/dev_profile.h"
#include "systembus/systembus.h"
#include "mpc/mpc.h"
#include "networking/phy_layer/phy_layer.h"
#include "networking/link_layer/link_layer.h"
// RF-Driver
@@ -48,36 +48,42 @@ int32_t SetupInterruptSystem(struct irq_ctrl_desc *descPtr);
void Phy_IntrHandler(void *context);
void PeriodicPull_Handler(void *callBackRef);
void ScuTimer_IntrHandler(void *context);
void Systembus_RxIntrHandler(void *context);
void Systembus_TxIntrHandler(void *context);
void Mpc_RxIntrHandler(void *context);
void Mpc_TxIntrHandler(void *context);
/************************** Constant Definitions *****************************/
struct callback_desc phy_callback_desc = {
struct callback_desc phy_callback_desc =
{
.callback = Phy_IntrHandler,
.ctx = NULL
};
struct callback_desc periodicpull_callback_desc = {
struct callback_desc periodicpull_callback_desc =
{
.callback = PeriodicPull_Handler,
.ctx = NULL
};
struct callback_desc sysbus_rx_callback_desc = {
.callback = Systembus_RxIntrHandler,
struct callback_desc mpc_rx_callback_desc =
{
.callback = Mpc_RxIntrHandler,
.ctx = NULL
};
struct callback_desc sysbus_tx_callback_desc = {
.callback = Systembus_TxIntrHandler,
struct callback_desc mpc_tx_callback_desc =
{
.callback = Mpc_TxIntrHandler,
.ctx = NULL
};
struct callback_desc scutm_callback_desc = {
struct callback_desc scutm_callback_desc =
{
.callback = ScuTimer_IntrHandler,
.ctx = NULL
};
L2_CONFIG linkConfig = {
L2_CONFIG linkConfig =
{
.myType = L2_NODE_HEAD,
.clustId = 1,
.myId = 1,
@@ -99,29 +105,37 @@ L2_CONFIG linkConfig = {
// .tmcInstPtr = NULL
// };
static PHY_CONFIG phyConfig = {
static PHY_CONFIG phyConfig =
{
.devId = 0,
.baseAddr = PHY_BASEADDR,
.antBramId = PHY_ANTCONFIG_BRAM_DEVICE_ID,
.antInfoBramId = -1,
.txBramId = PHY_TXBUFF_BRAM_DEVICE_ID,
.rxBramId = PHY_RXBUFF_BRAM_DEVICE_ID,
.hwXadcId = PHY_HW_XADC_DEVICE_ID
.hwXadcId = PHY_HW_XADC_DEVICE_ID,
.get_clk_state = NULL,
.get_ad_lock_state = NULL,
.get_ad0_temp = NULL,
.get_ad1_temp = NULL
};
TMC_CONFIG tmcConfig = {
TMC_CONFIG tmcConfig =
{
.baseAddr = TIME_CONTROLLER_BASEADDR,
.reset = 10
};
//static SYSBUS_CONFIG sysbusConfig = {
// .baseAddr = SYSBUS_BASE_ADDR,
// .txQueueMax = 16,
// .rxQueueMax = 16
//};
static MPC_CONFIG mpcConfig = {
.bramId = MPC_BRAM_ID,
.gpioId = MPC_GPIO_ID,
.txQueueMax = 16,
.rxQueueMax = 16
};
/************************** Function Prototypes ******************************/
static struct irq_ctrl_desc *intcDescPtr; // General interrupt controller descriptor
static struct timer_desc *logTmPtr;
static SYSBUS *sysbusDescPtr;
static MPC *mpcDescPtr;
static PHY_INST *phyInstPtr;
static TMC_INST *tmcInstPtr = NULL;
L2_INST *linkInstPtr;
@@ -200,64 +214,64 @@ int32_t SetupInterruptSystem(struct irq_ctrl_desc *descPtr)
return Status;
}
// /* Initialize system bus interrupt. */
// Status = irq_trigger_level_set(descPtr, SYSBUS_TX_INTR_ID, IRQ_EDGE_RISING);
// if (Status != SUCCESS)
// {
// DBG_ERROR("PHY_INTR trigger level set FAILED, ErrorCode: %" PRId32 ".\n", Status);
// return Status;
// }
// // Set interrupt priority
// Status = irq_set_priority(descPtr, SYSBUS_TX_INTR_ID, 0x10);
// if (Status != SUCCESS)
// {
// DBG_ERROR("PHY_INTR priority level set FAILED, ErrorCode: %" PRId32 ".\n", Status);
// return Status;
// }
//
// // Connect the interrupt service routine isr1 to the interrupt controller
// Status = irq_register_callback(descPtr, SYSBUS_TX_INTR_ID, &sysbus_tx_callback_desc);
// if (Status != SUCCESS)
// {
// DBG_ERROR("PHY_INTR register callback FAILED, ErrorCode: %" PRId32 ".\n", Status);
// return Status;
// }
// Status = irq_trigger_level_set(descPtr, SYSBUS_RX_INTR_ID, IRQ_EDGE_RISING);
// if (Status != SUCCESS)
// {
// DBG_ERROR("PHY_INTR trigger level set FAILED, ErrorCode: %" PRId32 ".\n", Status);
// return Status;
// }
// // Set interrupt priority
// Status = irq_set_priority(descPtr, SYSBUS_RX_INTR_ID, 0x18);
// if (Status != SUCCESS)
// {
// DBG_ERROR("PHY_INTR priority level set FAILED, ErrorCode: %" PRId32 ".\n", Status);
// return Status;
// }
//
// // Connect the interrupt service routine isr1 to the interrupt controller
// Status = irq_register_callback(descPtr, SYSBUS_RX_INTR_ID, &sysbus_rx_callback_desc);
// if (Status != SUCCESS)
// {
// DBG_ERROR("PHY_INTR register callback FAILED, ErrorCode: %" PRId32 ".\n", Status);
// return Status;
// }
//
// /* Initialize Scu timer interrupt. */
// // Connect the interrupt service routine isr1 to the interrupt controller
// Status = irq_register_callback(descPtr, SCUTIMER_INTR_ID, &scutm_callback_desc);
// if (Status != SUCCESS)
// {
// DBG_ERROR("PHY_INTR register callback FAILED, ErrorCode: %" PRId32 ".\n", Status);
// return Status;
// }
/* Initialize system bus interrupt. */
Status = irq_trigger_level_set(descPtr, MPC_TX_INTR_ID, IRQ_EDGE_RISING);
if (Status != SUCCESS)
{
DBG_ERROR("PHY_INTR trigger level set FAILED, ErrorCode: %" PRId32 ".\n", Status);
return Status;
}
// Set interrupt priority
Status = irq_set_priority(descPtr, MPC_TX_INTR_ID, 0x10);
if (Status != SUCCESS)
{
DBG_ERROR("PHY_INTR priority level set FAILED, ErrorCode: %" PRId32 ".\n", Status);
return Status;
}
// Connect the interrupt service routine isr1 to the interrupt controller
Status = irq_register_callback(descPtr, MPC_TX_INTR_ID, &mpc_tx_callback_desc);
if (Status != SUCCESS)
{
DBG_ERROR("PHY_INTR register callback FAILED, ErrorCode: %" PRId32 ".\n", Status);
return Status;
}
Status = irq_trigger_level_set(descPtr, MPC_RX_INTR_ID, IRQ_EDGE_RISING);
if (Status != SUCCESS)
{
DBG_ERROR("PHY_INTR trigger level set FAILED, ErrorCode: %" PRId32 ".\n", Status);
return Status;
}
// Set interrupt priority
Status = irq_set_priority(descPtr, MPC_RX_INTR_ID, 0x18);
if (Status != SUCCESS)
{
DBG_ERROR("PHY_INTR priority level set FAILED, ErrorCode: %" PRId32 ".\n", Status);
return Status;
}
// Connect the interrupt service routine isr1 to the interrupt controller
Status = irq_register_callback(descPtr, MPC_RX_INTR_ID, &mpc_rx_callback_desc);
if (Status != SUCCESS)
{
DBG_ERROR("PHY_INTR register callback FAILED, ErrorCode: %" PRId32 ".\n", Status);
return Status;
}
/* Initialize Scu timer interrupt. */
// Connect the interrupt service routine isr1 to the interrupt controller
Status = irq_register_callback(descPtr, SCUTIMER_INTR_ID, &scutm_callback_desc);
if (Status != SUCCESS)
{
DBG_ERROR("PHY_INTR register callback FAILED, ErrorCode: %" PRId32 ".\n", Status);
return Status;
}
// Enable interrupts
irq_enable(descPtr, PHY_INTR_ID);
irq_enable(descPtr, PERIODIC_5MS_INTR_ID);
// irq_enable(descPtr, SYSBUS_RX_INTR_ID);
// irq_enable(descPtr, SYSBUS_TX_INTR_ID);
irq_enable(descPtr, MPC_RX_INTR_ID);
irq_enable(descPtr, MPC_TX_INTR_ID);
irq_enable(descPtr, SCUTIMER_INTR_ID);
// Enable Exceptions
@@ -315,13 +329,13 @@ void PeriodicPull_Handler(void *callBackRef)
* @return None.
*
******************************************************************************/
void Systembus_RxIntrHandler(void *context)
void Mpc_RxIntrHandler(void *context)
{
int32_t Status;
Status = SystemBus_RxIntrHandler(sysbusDescPtr);
Status = Mpc_RxIrqHandler(mpcDescPtr);
if (Status != SUCCESS)
{
DBG_ERROR("SystemBus_RxIntrHandler exit with error code %" PRId32 ",\n", Status);
DBG_ERROR("Mpc_RxIrqHandler exit with error code %" PRId32 ",\n", Status);
}
}
@@ -334,13 +348,13 @@ void Systembus_RxIntrHandler(void *context)
* @return None.
*
******************************************************************************/
void Systembus_TxIntrHandler(void *context)
void Mpc_TxIntrHandler(void *context)
{
int32_t Status;
Status = SystemBus_TxIntrHandler(sysbusDescPtr);
Status = Mpc_TxIrqHandler(mpcDescPtr);
if (Status != SUCCESS)
{
DBG_ERROR("SystemBus_TxIntrHandler exit with error code %" PRId32 ",\n", Status);
DBG_ERROR("Mpc_TxIrqHandler exit with error code %" PRId32 ",\n", Status);
}
}
@@ -361,6 +375,15 @@ void ScuTimer_IntrHandler(void *context)
{
// Refresh log
Phy_RefreshHwSate(phyInstPtr);
if (Mpc_IsEnable(mpcDescPtr))
{
if (Mpc_PendRemoteTest(mpcDescPtr) != SUCCESS)
{
DBG_ERROR("Failed to apply remote test.\n");
}
}
XScuTimer_ClearInterruptStatus((XScuTimer *)xdesc->instance);
}
else
@@ -445,13 +468,13 @@ int main(void)
return Status;
}
// /* System Bus Initialize */
// Status = SystemBus_Init(&sysbusDescPtr, &sysbusConfig);
// if (Status != SUCCESS)
// {
// DBG_ERROR("Systembus init FAILED, with error code: %" PRId32 "\n", Status);
// return Status;
// }
/* System Bus Initialize */
Status = Mpc_Init(&mpcDescPtr, &mpcConfig);
if (Status != SUCCESS)
{
DBG_ERROR("MPC init FAILED, with error code: %" PRId32 "\n", Status);
return Status;
}
/* System Monitor log timer Initialize */
Status = timer_init(&logTmPtr, &scutimer_init_param);
@@ -479,30 +502,24 @@ int main(void)
DBG_PRINT("Physical started...\n");
Phy_Start(phyInstPtr);
Linklayer_Start(linkInstPtr);
while (true);
// while (true)
// {
// // System bus handler
// if (SystemBus_IsReqPendding(sysbusDescPtr))
// {
// Status = SystemBus_HandleCmd(sysbusDescPtr);
// if (Status != SUCCESS)
// {
// DBG_ERROR("SystemBus_HandleCmd exit with ErrorCode: %" PRId32 ".\n", Status);
// }
// }
// if (SystemBus_IsRsqPendding(sysbusDescPtr) && (!SystemBus_IsTxBusy(sysbusDescPtr)))
// {
// // FIXME: Required by 12 (CASC)
// udelay(200);
// Status = SystemBus_MakeResp(sysbusDescPtr);
// if (Status != SUCCESS)
// {
// DBG_ERROR("SystemBus_HandleCmd exit with ErrorCode: %" PRId32 ".\n", Status);
// }
// }
// }
while (true)
{
// System bus handler
if (Mpc_IsReqPending(mpcDescPtr))
{
Status = Mpc_HandleCmd(mpcDescPtr);
if (Status != SUCCESS)
{
DBG_ERROR("Mpc_HandleCmd exit with ErrorCode: %" PRId32 ".\n", Status);
}
}
if (Mpc_IsRsqPending(mpcDescPtr) && (!Mpc_IsTxBusy(mpcDescPtr)))
{
Status = Mpc_MakeResp(mpcDescPtr);
if (Status != SUCCESS)
{
DBG_ERROR("Mpc_HandleCmd exit with ErrorCode: %" PRId32 ".\n", Status);
}
}
}
} // main
+547
View File
@@ -0,0 +1,547 @@
/*****************************************************************************/
/**
* Description: MPC protocol implementation file.
*
* Date: 2023-05-06 10:13
* Last Edit Time: [2023-05-06 21:45]
*
* Revisions: Rev 0.0
* History:
* [2023-05-06]: Initial version.
* [2023-09-13]: Update to 485 protocol-20220816
*
* Copyright(c) 2021 Beijing Institute of Technology.
* Lab of Communication and Network
*
******************************************************************************/
/***************************** Include Files *********************************/
#include <stdlib.h>
#include <string.h>
#include <stdint.h>
#include <stdbool.h>
#include "mpc.h"
#include "util.h"
#include "common.h"
#include "error.h"
#include "circ_queue.h"
#include "xbram.h"
#include "xgpio.h"
#include "../system_monitor.h"
/************************** Constant Definitions *****************************/
// Common Field
// -- Command word
#define WD_CMD 0x00
// -- Production type
#define WD_PRD 0x01
#define PRD_DL_K 0xDD
#define PRD_DL_S 0xEE
#define PRD_ALL 0xFF
// Self-Test
#define CMD_SELF_TEST 0xE1
// -- Request
// -- -- --
// -- Response
// -- -- Self-Test Result
#define ST_RSP_LEN 16
#define WD_ST_RET 0x02
#define ST_RET_OK 0xAA
#define ST_RET_ERROR 0x55
#define ST_RET_INFO_LEN 13
// -- -- Signal processor PS voltage
#define WD_SP_FPGA_VOLT 0x03
// -- -- Signal processor PS AUX voltage
#define WD_SP_CLK_STATE 0x04
// -- -- Signal processor DDR voltage
#define WD_SP_AD_LOCK_STATE 0x05
// -- -- Signal processor PL voltage
#define WD_SP_AD_TEMP_0 0x06
// -- -- Signal processor PL AUX voltage
#define WD_SP_AD_TEMP_1 0x07
// -- -- Signal processor Bram voltage
#define WD_SP_FPGA_TEMP 0x08
// Config load
#define CMD_CONFIG 0xE3
// -- Request
#define WD_EN_CMD 0x02
#define EN_CMD_ON_HIGH_POWER 0x66
#define EN_CMD_ON_LOW_POWER 0x77
#define EN_CMD_SILENT 0x88
#define WD_MODE_CMD 0x03
#define MODE_CMD_HEAD 0x11
#define MODE_CMD_MEMBER 0x00
// -- Response
// -- -- none response
// Remote Test
#define RM_TEST_RESP_LEN 158
// -- Request
// Remote Test FLJ
#define CMD_FLJ_RM_TEST 0xE6
// Remote Test LJ
#define CMD_LJ_RM_TEST 0xF6
#define WD_RM_TEST 0x02
#define RM_TEST_CODE 0x99
// -- Response
#define WD_TIME_STAMP 0x02
#define WD_TIME_STAMP_LEN 8
#define WD_SYSBUS_LOG 0x0A
#define WD_SYSBUS_LOG_LEN 14
#define WD_LINK_LOG 0x18
#define WD_LINK_LOG_LEN 64
#define WD_PHY_LOG 0x58
#define WD_PHY_LOG_LEN 57
#define WD_HARDWARE_ST 0x91
#define WD_HARDWARE_ST_LEN 13
// My Production Type
#define MY_PRD_ID PRD_DL_K
/************************** Function Prototypes ******************************/
/**************************** Type Definitions *******************************/
/************************** Variable Definitions *****************************/
// TODO: better approach?
#include "../networking/link_layer/link_layer.h"
#include "../networking/phy_layer/phy_layer.h"
extern L2_INST *linkInstPtr;
extern L2_CONFIG linkConfig;
inline bool Mpc_IsEnable(MPC *instPtr)
{
ASSERT(instPtr != NULL);
return (instPtr->isEnable);
}
inline bool Mpc_IsReqPending(MPC *instPtr)
{
ASSERT(instPtr != NULL);
return (!isCircQueueEmpty(instPtr->rxQueue));
}
inline bool Mpc_IsRsqPending(MPC *instPtr)
{
ASSERT(instPtr != NULL);
return (!isCircQueueEmpty(instPtr->txQueue));
}
inline bool Mpc_IsTxBusy(MPC *instPtr)
{
ASSERT(instPtr != NULL);
return (!instPtr->isTxDone);
}
inline bool Mpc_IsRxBusy(MPC *instPtr)
{
ASSERT(instPtr != NULL);
return (!instPtr->isRxDone);
}
/**
* @brief Generate System Bus SelfTest response.
*/
static int32_t Mpc_GenSelfTestRsp(MPC *instPtr)
{
ASSERT(instPtr != NULL);
MPC_HW_FRAME *mpcRsp;
uint8_t *msg;
if (instPtr->isEnable == false)
{
DBG_ERROR("System is not enabled!\n");
return EIGNORE;
}
mpcRsp = malloc(sizeof(MPC_HW_FRAME));
if (mpcRsp == NULL) {
DBG_ERROR("Failed to allocate memory for LJ REMOTE TEST Response!\n");
return ENOMEM;
}
mpcRsp->len = ST_RSP_LEN;
msg = mpcRsp->data + FRAME_PAYLOAD_POFFSET;
HWSTATE *hwStatsPtr = &(instPtr->hwState);
msg[WD_CMD] = CMD_SELF_TEST;
msg[WD_PRD] = MY_PRD_ID;
SysMonitor_GetHardwareStatus(hwStatsPtr);
if (linkInstPtr->isEnable == false)
{
msg[WD_ST_RET] = (hwStatsPtr->isSpOk) ? ST_RET_OK : ST_RET_ERROR;
}
else
{
msg[WD_ST_RET] = (hwStatsPtr->isSpOk && hwStatsPtr->isAntOk) ? ST_RET_OK : ST_RET_ERROR;
}
// apply status and omit 2 bytes of overhead.
memcpy(msg + WD_SP_FPGA_VOLT, &(hwStatsPtr->spFpgaVolt), ST_RET_INFO_LEN);
if (CircQueuePush(instPtr->txQueue, (void *)mpcRsp) == false)
{
free(mpcRsp);
DBG_ERROR("SystemBus::TX Queue overflowed!\n");
return EQUEUE;
}
return SUCCESS;
}
/**
* @brief Apply system configuration
*/
static int32_t Mpc_SystemConfig(MPC *instPtr, uint8_t *msg)
{
PHY_INST *phyRef = linkInstPtr->config.phyInstPtr;
TMC_INST *tmcRef = linkInstPtr->config.tmcInstPtr;
bool reconfig = false;
if (msg[WD_MODE_CMD] == MODE_CMD_HEAD)
{
// omit unnecessary reconfiguration
if (L2_GetNodeType(linkInstPtr) != L2_NODE_HEAD)
{
// head node config
linkConfig.myType = L2_NODE_HEAD;
linkConfig.myId = 1;
reconfig = true;
}
}
else if (msg[WD_MODE_CMD] == MODE_CMD_MEMBER )
{
// omit unnecessary reconfiguration
if (L2_GetNodeType(linkInstPtr) != L2_NODE_MEMBER)
{
// member node config
linkConfig.myType = L2_NODE_MEMBER;
linkConfig.myId = 2;
reconfig = true;
}
}
else
{
// Ignore current command
DBG_ERROR("Unexpected config command 0x%02X:0x%02X",
WD_MODE_CMD, msg[WD_MODE_CMD]);
return EPARAM;
}
if(msg[WD_EN_CMD] == EN_CMD_ON_HIGH_POWER)
{
// high power config
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_POWER_FULL);
instPtr->isEnable = true;
}
else if(msg[WD_EN_CMD] == EN_CMD_ON_LOW_POWER)
{
// low power config
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_POWER_LOW);
instPtr->isEnable = true;
}
else if(msg[WD_EN_CMD] == EN_CMD_SILENT)
{
// silence config
// TODO: better approach?
instPtr->isEnable = false;
Linklayer_Halt(linkInstPtr);
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_STANDBY);
TIME_WORD pullTime = {0, 0};
pullTime.int_part = TimeCtrl_GetIntCnt(tmcRef) + 1;
if (Phy_SetTimeWord(phyRef, &pullTime, PHY_TIME_WORD_POLL) != SUCCESS)
{
DBG_ERROR("Physical set pull time failed.\n");
}
Phy_SetupNextSlot(phyRef, PHY_TOR_RX, L1_10KBPS_10MS_FRAME, NULL);
}
if (reconfig == true)
{
Linklayer_Reconfig(linkInstPtr, &linkConfig);
}
if (instPtr->isEnable == true)
{
Linklayer_Start(linkInstPtr);
}
instPtr->mpcLog.lastConfig[0] = msg[WD_MODE_CMD];
instPtr->mpcLog.lastConfig[1] = msg[WD_EN_CMD];
return SUCCESS;
}
/*****************************************************************************/
/**
* @brief Initialize MPC instance.
*
* @param InstPtr A double pointer to MPC instance.
* @param config A pointer to MPC configurations.
*
* @return None.
*
******************************************************************************/
int32_t Mpc_Init(MPC **instPtr, MPC_CONFIG *config)
{
ASSERT(instPtr != NULL);
ASSERT(config != NULL);
MPC_HW_CONFIG mpcHwConfig;
int32_t Status;
(*instPtr) = malloc(sizeof(MPC));
if ((*instPtr) == NULL)
{
return FAILURE;
}
(*instPtr)->rxQueue = NULL;
(*instPtr)->txQueue = NULL;
(*instPtr)->mpchwDesc = NULL;
memcpy(&((*instPtr)->config), config, sizeof(MPC_CONFIG));
memset(&((*instPtr)->mpcLog), 0x00, sizeof(SYSBUSLOG));
memset(&((*instPtr)->linkLog), 0x00, sizeof(LINKLOG));
memset(&((*instPtr)->phyLog), 0x00, sizeof(PHYLOG));
memset(&((*instPtr)->hwState), 0x00, sizeof(HWSTATE));
XBram_Config *bramConfigPtr;
XBram mpcBram;
bramConfigPtr = XBram_LookupConfig(config->bramId);
if (bramConfigPtr == NULL)
{
Status = EDCONF;
goto mpc_init_error;
}
Status = XBram_CfgInitialize(&mpcBram, bramConfigPtr,
bramConfigPtr->CtrlBaseAddress);
if (Status != SUCCESS)
{
goto mpc_init_error;
}
/*
* Execute the BRAM driver selftest.
*/
Status = XBram_SelfTest(&mpcBram, 0);
if (Status != SUCCESS)
{
goto mpc_init_error;
}
mpcHwConfig.txBuffAddr = mpcBram.Config.MemBaseAddress;
mpcHwConfig.rxBuffAddr = mpcBram.Config.MemBaseAddress;
mpcHwConfig.gpioId = config->gpioId;
Status = MpcHw_Init(&((*instPtr)->mpchwDesc), &mpcHwConfig);
if (Status != SUCCESS)
{
Status = ENOMEM;
goto mpc_init_error;
}
if (CircQueueCreate(&((*instPtr)->txQueue), (*instPtr)->config.txQueueMax) == false)
{
Status = ENOMEM;
goto mpc_init_error;
}
if (CircQueueCreate(&((*instPtr)->rxQueue), (*instPtr)->config.rxQueueMax) == false)
{
Status = ENOMEM;
goto mpc_init_error;
}
(*instPtr)->isEnable = false; // nothing received.
(*instPtr)->isRxDone = false; // nothing received.
(*instPtr)->isTxDone = true; // nothing to be sent.
return SUCCESS;
mpc_init_error:
free((*instPtr)->mpchwDesc);
free((*instPtr)->txQueue);
free((*instPtr)->rxQueue);
free(*instPtr);
return Status;
}
/*****************************************************************************/
/**
* @brief Generate a remote test response message.
*
* @param instPtr A pointer to MPC instance.
*
* @return SUCCESS
* error code
*
******************************************************************************/
int32_t Mpc_PendRemoteTest(MPC *instPtr)
{
MPC_HW_FRAME *mpcRsp;
uint8_t *msg;
if (instPtr->isEnable == false)
{
DBG_ERROR("System is not enabled!\n");
return EIGNORE;
}
mpcRsp = malloc(sizeof(MPC_HW_FRAME));
if (mpcRsp == NULL) {
DBG_ERROR("Failed to allocate memory for LJ REMOTE TEST Response!\n");
return ENOMEM;
}
msg = mpcRsp->data + FRAME_PAYLOAD_POFFSET;
mpcRsp->len = RM_TEST_RESP_LEN;
if (L2_GetNodeType(linkInstPtr) == L2_NODE_HEAD)
{
// head node config
msg[WD_CMD] = CMD_FLJ_RM_TEST;
}
else
{
msg[WD_CMD] = CMD_LJ_RM_TEST;
}
msg[WD_PRD] = MY_PRD_ID;
TIME_WORD tmWord;
uint64_t time;
TimeCtrl_GetCurrentTime(linkInstPtr->config.tmcInstPtr, &tmWord);
time = (uint64_t)tmWord.int_part * TIME_FRAC_MAX + tmWord.frac_part;
memcpy(msg + WD_TIME_STAMP, &time, WD_TIME_STAMP_LEN);
SysMonitor_GetLinklayerLog(&(instPtr->linkLog));
SysMonitor_GetPhysicalLayerLog(&(instPtr->phyLog));
SysMonitor_GetHardwareStatus(&(instPtr->hwState));
memcpy(msg + WD_SYSBUS_LOG, &(instPtr->mpcLog), WD_SYSBUS_LOG_LEN);
memcpy(msg + WD_LINK_LOG, &(instPtr->linkLog), WD_LINK_LOG_LEN);
memcpy(msg + WD_PHY_LOG, &(instPtr->phyLog), WD_PHY_LOG_LEN);
memcpy(msg + WD_HARDWARE_ST, &(instPtr->hwState.spFpgaVolt), WD_HARDWARE_ST_LEN);
if (CircQueuePush(instPtr->txQueue, (void *)mpcRsp) == false){
free(mpcRsp);
DBG_WARNING("SystemBus::TX Queue overflowed!\n");
return EQUEUE;
}
instPtr->mpcLog.remoteCnt++;
return SUCCESS;
}
/*****************************************************************************/
/**
* @brief A handler function. This handler evaluate the message from system
* bus receive queue, and make appropriate response.
*
* @param instPtr A pointer to MPC instance.
*
* @return None
*
******************************************************************************/
int32_t Mpc_HandleCmd(MPC *instPtr)
{
ASSERT(instPtr != NULL);
int32_t Status;
MPC_HW_FRAME *mpcReq;
uint8_t *reqMsg;
if (CircQueuePop(instPtr->rxQueue, (void **)(&mpcReq)) == false)
{
DBG_WARNING("SystemBus::Nothing to be handled.\n");
return EIGNORE;
}
reqMsg = mpcReq->data + FRAME_PAYLOAD_POFFSET;
if (reqMsg[WD_PRD] != MY_PRD_ID && reqMsg[WD_PRD] != PRD_ALL)
{
DBG_WARNING("SystemBus::Production code mismatch!\n");
return EIGNORE;
}
switch (reqMsg[WD_CMD])
{
case CMD_CONFIG:
{
Status = Mpc_SystemConfig(instPtr, reqMsg);
if (Status == SUCCESS)
{
Status = Mpc_GenSelfTestRsp(instPtr);
}
break;
}
default:
{
DBG_ERROR("SystemBus::Unknown command code!\n");
Status = FAILURE;
break;
}
}
free(mpcReq);
return Status;
}
/*****************************************************************************/
/**
* @brief This function send a repose frame from MPC tx queue.
*
* @param instPtr A pointer to MPC instance.
*
* @return None
*
******************************************************************************/
int32_t Mpc_MakeResp(MPC *instPtr)
{
ASSERT(instPtr != NULL);
int32_t Status;
MPC_HW_FRAME *mpcRsp;
if (CircQueuePop(instPtr->txQueue, (void **)(&mpcRsp)) == false)
{
DBG_WARNING("SystemBus::Nothing to be sent.\n");
return EIGNORE;
}
instPtr->isTxDone = false; // A transmission procedure is started.
Status = MpcHw_Send(instPtr->mpchwDesc, mpcRsp);
free(mpcRsp);
return Status;
}
/*****************************************************************************/
/**
* @brief This function handles the mpc tx irq events.
*
* @param instPtr A pointer to MPC instance.
*
* @return None
*
******************************************************************************/
int32_t Mpc_TxIrqHandler(MPC *instPtr)
{
ASSERT(instPtr != NULL);
// nothing special...
instPtr->isTxDone = true; // A transmission procedure finished.
return SUCCESS;
}
/*****************************************************************************/
/**
* @brief This function handles the mpc rx irq events.
*
* @param instPtr A pointer to MPC instance.
*
* @return None
*
******************************************************************************/
int32_t Mpc_RxIrqHandler(MPC *instPtr)
{
ASSERT(instPtr != NULL);
int32_t Status;
MPC_HW_FRAME *mpcReq;
instPtr->isRxDone = true; // whether reception successes or not, receiving procedure ended.
mpcReq = malloc(sizeof(MPC_HW_FRAME));
if (mpcReq == NULL)
{
return ENOMEM;
}
Status = MpcHw_Recv(instPtr->mpchwDesc, mpcReq);
if (Status != SUCCESS)
{
goto recv_error;
}
if (CircQueuePush(instPtr->rxQueue, (void *)mpcReq) == false)
{
DBG_ERROR("SystemBus::RX Queue overflowed!\n");
Status = EQUEUE;
goto recv_error;
}
instPtr->isRxDone = false; // another reception is undergoing.
return SUCCESS;
recv_error:
free(mpcReq);
return Status;
}
+71
View File
@@ -0,0 +1,71 @@
/*****************************************************************************/
/**
* Description: MPC protocol head file.
*
* Date: 2023-05-06 10:12
* Last Edit Time: [2023-05-06 10:13]
*
* Revisions: Rev 0.0
* History:
* [2023-05-06]: Initial version.
*
* Copyright(c) 2021 Beijing Institute of Technology.
*
******************************************************************************/
#ifndef __MPC_H_
#define __MPC_H_
/***************************** Include Files *********************************/
#include <stdint.h>
#include <stdbool.h>
#include "mpc_hw.h" // MPC driver
#include "circ_queue.h"
#include "../system_monitor.h"
/************************** Constant Definitions *****************************/
/************************** Data Type Definitions ****************************/
// Definition of MPC instance.
typedef struct
{
uint32_t bramId;
uint32_t gpioId;
uint32_t txQueueMax;
uint32_t rxQueueMax;
} MPC_CONFIG;
typedef struct
{
MPC_CONFIG config;
SYSBUSLOG mpcLog; // mpc log
LINKLOG linkLog; // Link layer log
PHYLOG phyLog; // Physical layer log
HWSTATE hwState; // Hardware status
MPC_HW *mpchwDesc;
CIRC_QUEUE *txQueue;
CIRC_QUEUE *rxQueue;
bool isEnable;
bool isRxDone;
bool isTxDone;
} MPC;
/************************** Function Prototypes ******************************/
int32_t Mpc_Init(MPC **instPtr, MPC_CONFIG *config);
int32_t Mpc_HandleCmd(MPC *instPtr);
int32_t Mpc_PendRemoteTest(MPC *instPtr);
int32_t Mpc_MakeResp(MPC *instPtr);
int32_t Mpc_TxIrqHandler(MPC *instPtr);
int32_t Mpc_RxIrqHandler(MPC *instPtr);
bool Mpc_IsEnable(MPC *instPtr);
bool Mpc_IsReqPending(MPC *instPtr);
bool Mpc_IsRsqPending(MPC *instPtr);
bool Mpc_IsTxBusy(MPC *instPtr);
bool Mpc_IsRxBusy(MPC *instPtr);
#endif //__MPC_H_
+139
View File
@@ -0,0 +1,139 @@
/*****************************************************************************/
/**
* Description: MPC uart driver implementation file.
*
* Date: 2023-05-06 10:59
* LastEditTime: 2023-05-06 21:56
* Revisions: Rev 0.0
* History:
* [2023-05-06]: Initial version.
*
* Copyright(c) 2022 Beijing Institute of Technology.
*
******************************************************************************/
/***************************** Include Files *******************************/
#include <stdlib.h>
#include <string.h>
#include <stdint.h>
#include <stdbool.h>
#include "mpc_hw.h"
#include "common.h"
// Control and status register
#define MODULE_VERSION 0
#define MPC_STATUS 4
#define MPC_SEND_CMD 8
#define MPC_RECV_CNT 12
// Status code
#define MPC_STATUS_TX_BUSY 0x00010000
#define MPC_STATUS_RX_BUSY 0x01000000
// Data buffer register
#define MPC_TXBUFF_MAX 512
#define MPC_RXBUFF_MAX 512
// Frame Data offsets
#define FRAME_HEAD_LOW 0x02
#define FRAME_HEAD_HIGH 0x53
#define FRAME_TAIL_LOW 0x32
#define FRAME_TAIL_HIGH 0x20
#define FRAME_HEAD_LEN 2
#define FRAME_TAIL_LEN 2
#define FRAME_DUMMY_LEN 1 // Dummy
#define FRAME_OVERHEAD_LEN 2 // CheckSum, Dummy and
#define MPC_STATUS_CH 1
#define MPC_CONFIG_CH 2
#define MPC_CONFIG_SEND_TRIG 0x00000002
/*************************** Function Definitions ****************************/
/*****************************************************************************/
/**
* @brief Instance initial
*
* @param instPtr A pointer to frame uart instance structure.
* @param config Base address of frame uart, refer to "xparameters.h"
*
* @return None.
*
******************************************************************************/
int MpcHw_Init(MPC_HW **instPtr, MPC_HW_CONFIG *config)
{
ASSERT(instPtr != NULL);
ASSERT(config != NULL);
uint32_t Status;
(*instPtr) = malloc(sizeof(MPC_HW));
if ((*instPtr) == NULL)
{
return FAILURE;
}
(*instPtr)->config.txBuffAddr = config->txBuffAddr;
(*instPtr)->config.rxBuffAddr = config->rxBuffAddr;
Status = XGpio_Initialize(&((*instPtr)->gpioDesc), config->gpioId);
if (Status != SUCCESS) {
DBG_ERROR("MPC gpio Initialization Failed.\n");
free(*instPtr);
return FAILURE;
}
XGpio_SetDataDirection(&((*instPtr)->gpioDesc), MPC_CONFIG_CH, 0x00000000);
XGpio_SetDataDirection(&((*instPtr)->gpioDesc), MPC_STATUS_CH, 0xFFFFFFFF);
return SUCCESS;
}
/*****************************************************************************/
/**
* @brief Send a MPC frame.
*
* @param instPtr A pointer to MPC_HW instance structure.
* @param buff A pointer to send data buffer
* @param dLen A integer indicate the send data buffer length in byte.
*
* @return
*
******************************************************************************/
int MpcHw_Send(MPC_HW *instPtr, MPC_HW_FRAME *frame)
{
ASSERT(instPtr != NULL);
ASSERT(frame != NULL);
uint8_t sendLen;
uint8_t *sendBuff = (uint8_t*) instPtr->config.txBuffAddr;
sendLen = frame->len + FRAME_OVERHEAD_LEN;
if (sendLen > MPC_TXBUFF_MAX || frame->len == 0)
{
return FAILURE;
}
frame->data[0] = FRAME_HEAD_LOW;
frame->data[1] = FRAME_HEAD_HIGH;
memcpy(sendBuff, frame->data, sendLen);
// Start Sending
uint32_t gpioVal = XGpio_DiscreteRead(&(instPtr->gpioDesc), MPC_CONFIG_CH);
gpioVal ^= MPC_CONFIG_SEND_TRIG;
XGpio_DiscreteWrite(&(instPtr->gpioDesc), MPC_CONFIG_CH, gpioVal);
return SUCCESS;
}
/*****************************************************************************/
/**
* @brief Get last MPC frame.
*
* @param instPtr A pointer to MPC_HW instance structure.
* @param buff A pointer to receive data buffer.
*
* @return
*
******************************************************************************/
int MpcHw_Recv(MPC_HW *instPtr, MPC_HW_FRAME *frame)
{
ASSERT(instPtr != NULL);
ASSERT(frame != NULL);
uint8_t *recvBuff = (uint8_t *)(instPtr->config.rxBuffAddr);
memcpy(frame->data, recvBuff, MPC_FRAME_MAX);
frame->len = MPC_FRAME_MAX;
frame->isValid = true;
return SUCCESS;
}
+98
View File
@@ -0,0 +1,98 @@
/*****************************************************************************/
/**
* Description: MPC uart driver implementation file.
*
* Date: 2023-05-06 10:59
* LastEditTime: 2023-05-06 21:48
* Revisions: Rev 0.0
* History:
* [2023-05-06]: Initial version.
*
* Copyright(c) 2022 Beijing Institute of Technology.
*
******************************************************************************/
#ifndef __MPC_HW_H
#define __MPC_HW_H
/**************************** Include Files *****************************/
#include <stdint.h>
#include <stdbool.h>
#include "util.h"
#include "xgpio.h"
#define MPC_FRAME_MAX 256
#define FRAME_PAYLOAD_POFFSET 2 // CheckSum, Dummy and DataLen
/**************************** Type Definitions *****************************/
/**
*
* Write a value to a SYSTEMBUS_UART register. A 32 bit write is performed.
* If the component is implemented in a smaller width, only the least
* significant data is written.
*
* @param baseAddr is the base address of the SYSTEMBUS_UARTdevice.
* @param offset is the register offset from the base to write to.
* @param data is the data written to the register.
*
* @return None.
*
* @note
* C-style signature:
* void MPC_HW_mWriteReg(uint32_t BaseAddress, unsigned RegOffset, uint32_t Data)
*
*/
#define MPC_HW_mWriteReg(baseAddr, offset, data) \
IO_Out32((baseAddr) + (offset), (uint32_t)(data))
/**
*
* Read a value from a SYSTEMBUS_UART register. A 32 bit read is performed.
* If the component is implemented in a smaller width, only the least
* significant data is read from the register. The most significant data
* will be read as 0.
*
* @param baseAddr is the base address of the SYSTEMBUS_UART device.
* @param offset is the register offset from the base to write to.
*
* @return Data is the data from the register.
*
* @note
* C-style signature:
* uint32_t MPC_HW_mReadReg(uint32_t BaseAddress, unsigned RegOffset)
*
*/
#define MPC_HW_mReadReg(baseAddr, offset) \
IO_In32((baseAddr) + (offset))
typedef struct
{
uintptr_t txBuffAddr;
uintptr_t rxBuffAddr;
uint32_t gpioId;
} MPC_HW_CONFIG;
typedef struct
{
MPC_HW_CONFIG config;
XGpio gpioDesc;
} MPC_HW;
typedef struct
{
uint16_t len;
uint8_t checkSum;
uint8_t isValid;
uint8_t data[MPC_FRAME_MAX];
} MPC_HW_FRAME;
/************************** Function Prototypes ******************************/
// Instance initial
int MpcHw_Init(MPC_HW **instPtr, MPC_HW_CONFIG *config);
// Send a MPC frame.
int MpcHw_Send(MPC_HW *instPtr, MPC_HW_FRAME *frame);
// Get last MPC frame.
int MpcHw_Recv(MPC_HW *instPtr, MPC_HW_FRAME *frame);
#endif // __MPC_HW_H
-1
View File
@@ -1 +0,0 @@
../../df_datalink_sp/src/systembus
@@ -42,10 +42,28 @@
/******************************************************************/
/* Definitions for driver BRAM */
#define XPAR_XBRAM_NUM_INSTANCES 3U
#define XPAR_XBRAM_NUM_INSTANCES 4U
/* Definitions for peripheral PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL */
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_DEVICE_ID 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_DATA_WIDTH 32U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_ECC 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_FAULT_INJECT 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_CE_FAILING_REGISTERS 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_UE_FAILING_REGISTERS 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_ECC_STATUS_REGISTERS 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_CE_COUNTER_WIDTH 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_ECC_ONOFF_REGISTER 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_ECC_ONOFF_RESET_VALUE 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_WRITE_ACCESS 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_S_AXI_BASEADDR 0x42000000U
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_S_AXI_HIGHADDR 0x42000FFFU
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_S_AXI_CTRL_BASEADDR 0xFFFFFFFFU
#define XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_S_AXI_CTRL_HIGHADDR 0xFFFFFFFFU
/* Definitions for peripheral PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL */
#define XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_DEVICE_ID 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_DEVICE_ID 1U
#define XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_DATA_WIDTH 32U
#define XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_ECC 0U
#define XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_FAULT_INJECT 0U
@@ -63,7 +81,7 @@
/* Definitions for peripheral PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL */
#define XPAR_PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL_DEVICE_ID 1U
#define XPAR_PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL_DEVICE_ID 2U
#define XPAR_PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL_DATA_WIDTH 32U
#define XPAR_PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL_ECC 0U
#define XPAR_PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL_FAULT_INJECT 0U
@@ -81,7 +99,7 @@
/* Definitions for peripheral PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL */
#define XPAR_PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL_DEVICE_ID 2U
#define XPAR_PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL_DEVICE_ID 3U
#define XPAR_PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL_DATA_WIDTH 32U
#define XPAR_PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL_ECC 0U
#define XPAR_PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL_FAULT_INJECT 0U
@@ -100,8 +118,8 @@
/******************************************************************/
/* Canonical definitions for peripheral PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL */
#define XPAR_BRAM_0_DEVICE_ID XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_DEVICE_ID
/* Canonical definitions for peripheral PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL */
#define XPAR_BRAM_0_DEVICE_ID XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_DEVICE_ID
#define XPAR_BRAM_0_DATA_WIDTH 32U
#define XPAR_BRAM_0_ECC 0U
#define XPAR_BRAM_0_FAULT_INJECT 0U
@@ -112,13 +130,13 @@
#define XPAR_BRAM_0_ECC_ONOFF_REGISTER 0U
#define XPAR_BRAM_0_ECC_ONOFF_RESET_VALUE 0U
#define XPAR_BRAM_0_WRITE_ACCESS 0U
#define XPAR_BRAM_0_BASEADDR 0x40004000U
#define XPAR_BRAM_0_HIGHADDR 0x40005FFFU
#define XPAR_BRAM_0_BASEADDR 0x42000000U
#define XPAR_BRAM_0_HIGHADDR 0x42000FFFU
#define XPAR_BRAM_0_CTRL_BASEADDR 0xFFFFFFFFU
#define XPAR_BRAM_0_CTRL_HIGHADDR 0xFFFFFFFEU
/* Canonical definitions for peripheral PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL */
#define XPAR_BRAM_1_DEVICE_ID XPAR_PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL_DEVICE_ID
/* Canonical definitions for peripheral PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL */
#define XPAR_BRAM_1_DEVICE_ID XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_DEVICE_ID
#define XPAR_BRAM_1_DATA_WIDTH 32U
#define XPAR_BRAM_1_ECC 0U
#define XPAR_BRAM_1_FAULT_INJECT 0U
@@ -129,13 +147,13 @@
#define XPAR_BRAM_1_ECC_ONOFF_REGISTER 0U
#define XPAR_BRAM_1_ECC_ONOFF_RESET_VALUE 0U
#define XPAR_BRAM_1_WRITE_ACCESS 0U
#define XPAR_BRAM_1_BASEADDR 0x40000000U
#define XPAR_BRAM_1_HIGHADDR 0x40001FFFU
#define XPAR_BRAM_1_BASEADDR 0x40004000U
#define XPAR_BRAM_1_HIGHADDR 0x40005FFFU
#define XPAR_BRAM_1_CTRL_BASEADDR 0xFFFFFFFFU
#define XPAR_BRAM_1_CTRL_HIGHADDR 0xFFFFFFFEU
/* Canonical definitions for peripheral PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL */
#define XPAR_BRAM_2_DEVICE_ID XPAR_PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL_DEVICE_ID
/* Canonical definitions for peripheral PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL */
#define XPAR_BRAM_2_DEVICE_ID XPAR_PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL_DEVICE_ID
#define XPAR_BRAM_2_DATA_WIDTH 32U
#define XPAR_BRAM_2_ECC 0U
#define XPAR_BRAM_2_FAULT_INJECT 0U
@@ -146,11 +164,28 @@
#define XPAR_BRAM_2_ECC_ONOFF_REGISTER 0U
#define XPAR_BRAM_2_ECC_ONOFF_RESET_VALUE 0U
#define XPAR_BRAM_2_WRITE_ACCESS 0U
#define XPAR_BRAM_2_BASEADDR 0x40002000U
#define XPAR_BRAM_2_HIGHADDR 0x40003FFFU
#define XPAR_BRAM_2_BASEADDR 0x40000000U
#define XPAR_BRAM_2_HIGHADDR 0x40001FFFU
#define XPAR_BRAM_2_CTRL_BASEADDR 0xFFFFFFFFU
#define XPAR_BRAM_2_CTRL_HIGHADDR 0xFFFFFFFEU
/* Canonical definitions for peripheral PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL */
#define XPAR_BRAM_3_DEVICE_ID XPAR_PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL_DEVICE_ID
#define XPAR_BRAM_3_DATA_WIDTH 32U
#define XPAR_BRAM_3_ECC 0U
#define XPAR_BRAM_3_FAULT_INJECT 0U
#define XPAR_BRAM_3_CE_FAILING_REGISTERS 0U
#define XPAR_BRAM_3_UE_FAILING_REGISTERS 0U
#define XPAR_BRAM_3_ECC_STATUS_REGISTERS 0U
#define XPAR_BRAM_3_CE_COUNTER_WIDTH 0U
#define XPAR_BRAM_3_ECC_ONOFF_REGISTER 0U
#define XPAR_BRAM_3_ECC_ONOFF_RESET_VALUE 0U
#define XPAR_BRAM_3_WRITE_ACCESS 0U
#define XPAR_BRAM_3_BASEADDR 0x40002000U
#define XPAR_BRAM_3_HIGHADDR 0x40003FFFU
#define XPAR_BRAM_3_CTRL_BASEADDR 0xFFFFFFFFU
#define XPAR_BRAM_3_CTRL_HIGHADDR 0xFFFFFFFEU
/******************************************************************/
@@ -42,6 +42,25 @@
XBram_Config XBram_ConfigTable[] =
{
{
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_DEVICE_ID,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_DATA_WIDTH,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_ECC,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_FAULT_INJECT,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_CE_FAILING_REGISTERS,
0,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_UE_FAILING_REGISTERS,
0,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_ECC_STATUS_REGISTERS,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_CE_COUNTER_WIDTH,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_ECC_ONOFF_REGISTER,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_ECC_ONOFF_RESET_VALUE,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_WRITE_ACCESS,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_S_AXI_BASEADDR,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_S_AXI_HIGHADDR,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_S_AXI_CTRL_BASEADDR,
XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_S_AXI_CTRL_HIGHADDR
},
{
XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_DEVICE_ID,
XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_DATA_WIDTH,
+6
View File
@@ -24,6 +24,12 @@ BEGIN DRIVER
PARAMETER HW_INSTANCE = axi_spi_engine_axi_spi_engine
END
BEGIN DRIVER
PARAMETER DRIVER_NAME = bram
PARAMETER DRIVER_VER = 4.3
PARAMETER HW_INSTANCE = phy_data_interface_ant_beam_bram_ctrl
END
BEGIN DRIVER
PARAMETER DRIVER_NAME = bram
PARAMETER DRIVER_VER = 4.3
+8 -5
View File
@@ -2,21 +2,24 @@
# Automatically-generated file. Do not edit!
################################################################################
# Add inputs and outputs from these tool invocations to the build variables
# Add inputs and outputs from these tool invocations to the build variables
LD_SRCS += \
../src/lscript.ld
../src/lscript.ld
C_SRCS += \
../src/main.c \
../src/system_monitor.c
../src/system_monitor.c \
../src/hwconfig.c
OBJS += \
./src/main.o \
./src/system_monitor.o
./src/system_monitor.o \
./src/hwconfig.o
C_DEPS += \
./src/main.d \
./src/system_monitor.d
./src/system_monitor.d \
./src/hwconfig.d
# Each subdirectory must supply rules for building sources it contributes
+1 -1
View File
@@ -54,10 +54,10 @@
// Physical Layer Configs
#define PHY_DEVICE_ID 0
#define PHY_BASEADDR XPAR_PHYC_BASEADDR
#define PHY_BEAM_SET_PRESET
#define PHY_BEAM_FORMING_ENABLE
// -- Antenna Bram Configs
#define PHY_ANTCONFIG_BRAM_DEVICE_ID XPAR_PHY_DATA_INTERFACE_ANT_INFO_BRAM_CTRL_DEVICE_ID
#define PHY_ANTINFO_BRAM_DEVICE_ID XPAR_PHY_DATA_INTERFACE_ANT_BEAM_BRAM_CTRL_DEVICE_ID
// -- Buffers
#define PHY_TXBUFF_BRAM_DEVICE_ID XPAR_PHY_DATA_INTERFACE_TX_FRAME_BRAM_CTRL_DEVICE_ID
#define PHY_RXBUFF_BRAM_DEVICE_ID XPAR_PHY_DATA_INTERFACE_RX_FRAME_BRAM_CTRL_DEVICE_ID
+464
View File
@@ -0,0 +1,464 @@
/*****************************************************************************/
/**
* Description: hwconfig.h
*
* Date: 2024-02-20 13:19
* Last Edit Time: [2024-02-20 13:19]
*
* Revisions: Rev 0.0
* History:
* [2023-05-07]: Initial edition.
*
* Copyright(c) 2024 Beijing Institute of Technology.
*
******************************************************************************/
/***************************** Include Files *********************************/
// Standard
#include <stdint.h>
#include <stdbool.h>
// Xilinx
#include "xgpiops.h"
#include "drivers/rf-transceiver/ad9361_reg/ad9361_reg.h"
#include "drivers/rf-transceiver/ad9361/ad9361_api.h"
#include "drivers/axi_core/spi_engine/spi_engine.h"
// App
#include "common.h"
#include "error.h"
#include "delay.h"
#include "system_monitor.h"
#include "hwconfig.h"
#include "config/app_config.h"
#include "dev_profile/dev_profile.h"
/************************** Function Prototypes ******************************/
/*********************** Driver Instance Definitions **************************/
static struct hmc7044_dev *hmc7044_inst;
static struct ad9361_reg_dev *ad9361_1_reg_inst;
static struct ad9361_reg_dev *ad9361_2_reg_inst;
// static struct ad9361_rf_phy *ad9361_phy;
// static struct ad9361_rf_phy *ad9361_2_phy;
/*****************************************************************************/
/**
* @brief Hardware_Init
*
* @param none.
*
* @return None.
*
******************************************************************************/
int32_t Hardware_Init(void)
{
int32_t Status;
XGpioPs Gpio;
XGpioPs_Config *ConfigPtr;
ConfigPtr = XGpioPs_LookupConfig(AD9361_GPIO_DEVICE_ID);
Status = XGpioPs_CfgInitialize(&Gpio, ConfigPtr, ConfigPtr->BaseAddr);
if (Status != SUCCESS)
{
return FAILURE;
}
/**********************************************************/
/****************** HMC7044 Configuration *****************/
/**********************************************************/
Status = hmc7044_init(&hmc7044_inst, &hmc7044_default_init_param);
if (Status != SUCCESS)
{
DBG_ERROR("hmc7044_init() error: %" PRId32 "\n", Status);
return FAILURE;
}
/**********************************************************/
/***************** AD9361-1 Configuration *****************/
/**********************************************************/
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_TXNRX, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_ENABLE, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_EN_AGC, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_RESET_B, AD9361_GPIO_OUTPUT);
ad9361_reg_init(&ad9361_1_reg_inst, &ad9361_1_reg_default_init_param);
XGpioPs_WritePin(&Gpio, AD9361_1_ENABLE, 0);
ad9361_reg_config(ad9361_1_reg_inst);
XGpioPs_WritePin(&Gpio, AD9361_1_ENABLE, 1);
// Status = ad9361_init(&ad9361_phy, &ad9361_default_init_param);
// if (Status != XST_SUCCESS){
// return XST_FAILURE;
// }else{
// printf("Configurate AD9361 Completely!\n");
// }
// ad9361_set_tx_fir_config(ad9361_phy, tx_fir_config);
// ad9361_set_rx_fir_config(ad9361_phy, rx_fir_config);
/**********************************************************/
/***************** AD9361-2 Configuration *****************/
/**********************************************************/
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_TXNRX, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_ENABLE, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_EN_AGC, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_RESET_B, AD9361_GPIO_OUTPUT);
ad9361_reg_init(&ad9361_2_reg_inst, &ad9361_2_reg_default_init_param);
XGpioPs_WritePin(&Gpio, AD9361_2_ENABLE, 0);
ad9361_reg_config(ad9361_2_reg_inst);
XGpioPs_WritePin(&Gpio, AD9361_2_ENABLE, 1);
// uint8_t rd_back;
// Status = ad9361_reg_read(ad9361_1_reg_inst, 0x0002, &rd_back);
// Status = ad9361_reg_read(ad9361_2_reg_inst, 0x0002, &rd_back);
/**********************************************************/
/******* AD9361 Baseband Multichip Synchronization ********/
/**********************************************************/
XGpioPs_SetDirectionPin(&Gpio, AD9361_SYNC, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_RX_FIFO_RST, AD9361_GPIO_OUTPUT);
// SYNC BBPLL and DIGITAL SAMPLING CLOCKS
ad9361_reg_write(ad9361_1_reg_inst, 0x0001, 0x0D); // MCS RF Enable; MCS BBPLL Enable; MCS BB Enable
ad9361_reg_write(ad9361_2_reg_inst, 0x0001, 0x0D);
ad9361_reg_write(ad9361_1_reg_inst, 0x0047, 0x80); // MCS refclk Scale Enable
ad9361_reg_write(ad9361_2_reg_inst, 0x0047, 0x80);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 0);
mdelay(20);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 1); // Input a rising-edge pulse to the SYNC_IN pin
mdelay(500);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 0);
mdelay(2000);
ad9361_reg_write(ad9361_1_reg_inst, 0x0001, 0x0B); // MCS RF Enable; MCS Digital CLK Enable ; MCS BB Enable
ad9361_reg_write(ad9361_2_reg_inst, 0x0001, 0x0B);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 1); // Input another rising-edge pulse to the SYNC_IN pin
mdelay(500);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 0);
ad9361_reg_write(ad9361_1_reg_inst, 0x0001, 0x08); // clear MCS bits
ad9361_reg_write(ad9361_2_reg_inst, 0x0001, 0x08);
XGpioPs_WritePin(&Gpio, AD9361_RX_FIFO_RST, 0);
mdelay(20);
XGpioPs_WritePin(&Gpio, AD9361_RX_FIFO_RST, 1);
mdelay(20);
XGpioPs_WritePin(&Gpio, AD9361_RX_FIFO_RST, 0);
/**********************************************************/
/********* AD9361 Multichip Rx Phase Calibration **********/
/**********************************************************/
XGpioPs_SetDirectionPin(&Gpio, AD9361_TX_SWITCH, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_CAL_START, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_CAL_DONE, AD9361_GPIO_INPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_CAL_START, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_CAL_DONE, AD9361_GPIO_INPUT);
// switch to lower frequency
Status = Hardware_SwitchFreq(ad9361_1_reg_inst, TX_FREQ_126);
XGpioPs_WritePin(&Gpio, AD9361_TX_SWITCH, 1);
mdelay(20);
// switch rx channel
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0004, 0x30);
Status = ad9361_reg_write(ad9361_2_reg_inst, 0x0004, 0x30);
// enable dual ad9361 tx channels
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0002, 0xE4); // Setup Tx Digital Filters/ Channels
// switch ad9361 tx channel
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0004, 0x70); // Select Rx input pin(A,B,C)/ Tx out pin (A,B)
mdelay(20);
// begin to calibrate the 1st ad9361
XGpioPs_WritePin(&Gpio, AD9361_1_CAL_START, 0);
XGpioPs_WritePin(&Gpio, AD9361_1_CAL_START, 1);
mdelay(1);
XGpioPs_WritePin(&Gpio, AD9361_1_CAL_START, 0);
// read calibration status
int32_t time_out_cnt = 0;
do
{
mdelay(1); // Wait 1ms
time_out_cnt++;
} while (((XGpioPs_ReadPin(&Gpio, AD9361_1_CAL_DONE) == 0) && time_out_cnt <= AD9361_TIMEOUT_TH));
if (time_out_cnt == AD9361_TIMEOUT_TH)
{
return FAILURE;
}
// begin to calibrate the 2nd ad9361
XGpioPs_WritePin(&Gpio, AD9361_2_CAL_START, 1);
mdelay(1);
XGpioPs_WritePin(&Gpio, AD9361_2_CAL_START, 0);
// read calibration status
time_out_cnt = 0;
do
{
mdelay(1); // Wait 1ms
time_out_cnt++;
} while (((XGpioPs_ReadPin(&Gpio, AD9361_2_CAL_DONE) == 0) && time_out_cnt <= AD9361_TIMEOUT_TH));
if (time_out_cnt == AD9361_TIMEOUT_TH)
{
return FAILURE;
}
// enable single ad9361 tx channels
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0002, 0xA4); // Setup Tx Digital Filters/ Channels
// switch ad9361 tx & rx channel
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0004, 0x03);
Status = ad9361_reg_write(ad9361_2_reg_inst, 0x0004, 0x03);
// switch to higher frequency
Status = Hardware_SwitchFreq(ad9361_1_reg_inst, TX_FREQ_4125);
XGpioPs_WritePin(&Gpio, AD9361_TX_SWITCH, 0);
DBG_PRINT("Done.\n");
return SUCCESS;
}
/*****************************************************************************/
/**
* @brief Hardware_SwitchFreq
*
* @param devSysMonitor_UpdateHardwareStatus(newHwState);
* @param freq
*
* @return None.
*
******************************************************************************/
int32_t Hardware_SwitchFreq(struct ad9361_reg_dev *dev, ad9361TxFreq freq)
{
int32_t status = 0;
uint8_t value = 0;
int32_t time_out_cnt = 0;
switch (freq)
{
case TX_FREQ_125:
{
//************************************************************
// Setup Tx Frequency-Dependent Syntheisizer Registers
//************************************************************
status = ad9361_reg_write(dev, 0x027A, 0x4A); // Set VCO Output level[3:0]
status = ad9361_reg_write(dev, 0x0279, 0xC1); // Set Init ALC Value[3:0] and VCO Varactor[3:0]
status = ad9361_reg_write(dev, 0x0282, 0x0E); // Set VCO Bias Tcf[1:0] and VCO Bias Ref[2:0]
status = ad9361_reg_write(dev, 0x0278, 0x78); // Set VCO Cal Offset[3:0]
status = ad9361_reg_write(dev, 0x0285, 0x00); // Set VCO Cal Ref Tcf[2:0]
status = ad9361_reg_write(dev, 0x0291, 0x0B); // Set VCO Varactor Reference[3:0]
status = ad9361_reg_write(dev, 0x0290, 0x70); // Set VCO Varactor Ref Tcf[2:0] and VCO Varactor Offset[3:0]
status = ad9361_reg_write(dev, 0x027B, 0x94); // Set Synth Loop Filter charge pump current (Icp)
status = ad9361_reg_write(dev, 0x027E, 0xF4); // Set Synth Loop Filter C2 and C1
status = ad9361_reg_write(dev, 0x027F, 0xDF); // Set Synth Loop Filter R1 and C3
status = ad9361_reg_write(dev, 0x0280, 0x0A); // Set Synth Loop Filter R3
//************************************************************
// Write Tx Frequency Words
//************************************************************
status = ad9361_reg_write(dev, 0x0273, 0x00); // Write Tx Synth Fractional Freq Word[7:0]
status = ad9361_reg_write(dev, 0x0274, 0x00); // Write Tx Synth Fractional Freq Word[15:8]
status = ad9361_reg_write(dev, 0x0275, 0x00); // Write Tx Synth Fractional Freq Word[22:16]
status = ad9361_reg_write(dev, 0x0272, 0x00); // Write Tx Synth Integer Freq Word[10:8]
status = ad9361_reg_write(dev, 0x0271, 0xA0); // Write Tx Synth Integer Freq Word[7:0] (starts VCO cal)
status = ad9361_reg_write(dev, 0x0005, 0x57); // Set LO divider setting
//************************************************************
// Tx Quadrature Calibration Settings
//************************************************************
status = ad9361_reg_write(dev, 0x00A0, 0x75); // Set TxQuadcal NCO frequency
status = ad9361_reg_write(dev, 0x00A3, 0xC0); // Set TxQuadcal NCO frequency (Only update bits [7:6])
status = ad9361_reg_write(dev, 0x00A1, 0x7B); // Tx Quad Cal Configuration, Phase and Gain Cal Enable
status = ad9361_reg_write(dev, 0x00A9, 0xFF); // Set Tx Quad Cal Count
status = ad9361_reg_write(dev, 0x00A2, 0x7F); // Set Tx Quad Cal Kexp
status = ad9361_reg_write(dev, 0x00A5, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00A6, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00AA, 0x22); // Set Tx Quad Cal Gain Table index
status = ad9361_reg_write(dev, 0x00A4, 0xF0); // Set Tx Quad Cal Settle Count
status = ad9361_reg_write(dev, 0x00AE, 0x00); // Set Tx Quad Cal LPF Gain index incase Split table mode used
status = ad9361_reg_write(dev, 0x0169, 0xC0); // Disable Rx Quadrature Calibration before Running Tx Quadrature Calibration
status = ad9361_reg_write(dev, 0x0016, 0x10); // Start Tx Quad cal
break;
}
case TX_FREQ_126:
{
//************************************************************
// Setup Tx Frequency-Dependent Syntheisizer Registers
//************************************************************
status = ad9361_reg_write(dev, 0x027A, 0x4A); // Set VCO Output level[3:0]
status = ad9361_reg_write(dev, 0x0279, 0xC1); // Set Init ALC Value[3:0] and VCO Varactor[3:0]
status = ad9361_reg_write(dev, 0x0282, 0x0E); // Set VCO Bias Tcf[1:0] and VCO Bias Ref[2:0]
status = ad9361_reg_write(dev, 0x0278, 0x78); // Set VCO Cal Offset[3:0]
status = ad9361_reg_write(dev, 0x0285, 0x00); // Set VCO Cal Ref Tcf[2:0]
status = ad9361_reg_write(dev, 0x0291, 0x0B); // Set VCO Varactor Reference[3:0]
status = ad9361_reg_write(dev, 0x0290, 0x70); // Set VCO Varactor Ref Tcf[2:0] and VCO Varactor Offset[3:0]
status = ad9361_reg_write(dev, 0x027B, 0x93); // Set Synth Loop Filter charge pump current (Icp)
status = ad9361_reg_write(dev, 0x027E, 0xF4); // Set Synth Loop Filter C2 and C1
status = ad9361_reg_write(dev, 0x027F, 0xDF); // Set Synth Loop Filter R1 and C3
status = ad9361_reg_write(dev, 0x0280, 0x0A); // Set Synth Loop Filter R3
//************************************************************
// Write Tx Frequency Words
//************************************************************
status = ad9361_reg_write(dev, 0x0273, 0x06); // Write Tx Synth Fractional Freq Word[7:0]
status = ad9361_reg_write(dev, 0x0274, 0xD7); // Write Tx Synth Fractional Freq Word[15:8]
status = ad9361_reg_write(dev, 0x0275, 0x23); // Write Tx Synth Fractional Freq Word[22:16]
status = ad9361_reg_write(dev, 0x0272, 0x00); // Write Tx Synth Integer Freq Word[10:8]
status = ad9361_reg_write(dev, 0x0271, 0xA1); // Write Tx Synth Integer Freq Word[7:0] (starts VCO cal)
status = ad9361_reg_write(dev, 0x0005, 0x57); // Set LO divider setting
//************************************************************
// Tx Quadrature Calibration Settings
//************************************************************
status = ad9361_reg_write(dev, 0x00A0, 0x75); // Set TxQuadcal NCO frequency
status = ad9361_reg_write(dev, 0x00A3, 0xC0); // Set TxQuadcal NCO frequency (Only update bits [7:6])
status = ad9361_reg_write(dev, 0x00A1, 0x7B); // Tx Quad Cal Configuration, Phase and Gain Cal Enable
status = ad9361_reg_write(dev, 0x00A9, 0xFF); // Set Tx Quad Cal Count
status = ad9361_reg_write(dev, 0x00A2, 0x7F); // Set Tx Quad Cal Kexp
status = ad9361_reg_write(dev, 0x00A5, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00A6, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00AA, 0x22); // Set Tx Quad Cal Gain Table index
status = ad9361_reg_write(dev, 0x00A4, 0xF0); // Set Tx Quad Cal Settle Count
status = ad9361_reg_write(dev, 0x00AE, 0x00); // Set Tx Quad Cal LPF Gain index incase Split table mode used
status = ad9361_reg_write(dev, 0x0169, 0xC0); // Disable Rx Quadrature Calibration before Running Tx Quadrature Calibration
status = ad9361_reg_write(dev, 0x0016, 0x10); // Start Tx Quad cal
break;
}
case TX_FREQ_4125:
{
//************************************************************
// Setup Tx Frequency-Dependent Syntheisizer Registers
//************************************************************
status = ad9361_reg_write(dev, 0x027A, 0x4A); // Set VCO Output level[3:0]
status = ad9361_reg_write(dev, 0x0279, 0xC1); // Set Init ALC Value[3:0] and VCO Varactor[3:0]
status = ad9361_reg_write(dev, 0x0282, 0x0E); // Set VCO Bias Tcf[1:0] and VCO Bias Ref[2:0]
status = ad9361_reg_write(dev, 0x0278, 0x78); // Set VCO Cal Offset[3:0]
status = ad9361_reg_write(dev, 0x0285, 0x00); // Set VCO Cal Ref Tcf[2:0]
status = ad9361_reg_write(dev, 0x0291, 0x0B); // Set VCO Varactor Reference[3:0]
status = ad9361_reg_write(dev, 0x0290, 0x70); // Set VCO Varactor Ref Tcf[2:0] and VCO Varactor Offset[3:0]
status = ad9361_reg_write(dev, 0x027B, 0x93); // Set Synth Loop Filter charge pump current (Icp)
status = ad9361_reg_write(dev, 0x027E, 0xF4); // Set Synth Loop Filter C2 and C1
status = ad9361_reg_write(dev, 0x027F, 0xDF); // Set Synth Loop Filter R1 and C3
status = ad9361_reg_write(dev, 0x0280, 0x0A); // Set Synth Loop Filter R3
//************************************************************
// Write Rx Frequency Words
//************************************************************
status = ad9361_reg_write(dev, 0x0273, 0x00); // Write Tx Synth Fractional Freq Word[7:0]
status = ad9361_reg_write(dev, 0x0274, 0x00); // Write Tx Synth Fractional Freq Word[15:8]
status = ad9361_reg_write(dev, 0x0275, 0x00); // Write Tx Synth Fractional Freq Word[22:16]
status = ad9361_reg_write(dev, 0x0272, 0x00); // Write Tx Synth Integer Freq Word[10:8]
status = ad9361_reg_write(dev, 0x0271, 0xA5); // Write Tx Synth Integer Freq Word[7:0] (starts VCO cal)
status = ad9361_reg_write(dev, 0x0005, 0x07); // Set LO divider setting
//************************************************************
// Tx Quadrature Calibration Settings
//************************************************************
status = ad9361_reg_write(dev, 0x00A0, 0x75); // Set TxQuadcal NCO frequency
status = ad9361_reg_write(dev, 0x00A3, 0xC0); // Set TxQuadcal NCO frequency (Only update bits [7:6])
status = ad9361_reg_write(dev, 0x00A1, 0x7B); // Tx Quad Cal Configuration, Phase and Gain Cal Enable
status = ad9361_reg_write(dev, 0x00A9, 0xFF); // Set Tx Quad Cal Count
status = ad9361_reg_write(dev, 0x00A2, 0x7F); // Set Tx Quad Cal Kexp
status = ad9361_reg_write(dev, 0x00A5, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00A6, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00AA, 0x28); // Set Tx Quad Cal Gain Table index
status = ad9361_reg_write(dev, 0x00A4, 0xF0); // Set Tx Quad Cal Settle Count
status = ad9361_reg_write(dev, 0x00AE, 0x04); // Set Tx Quad Cal LPF Gain index incase Split table mode used
status = ad9361_reg_write(dev, 0x0169, 0xC0); // Disable Rx Quadrature Calibration before Running Tx Quadrature Calibration
status = ad9361_reg_write(dev, 0x0016, 0x10); // Start Tx Quad cal
break;
}
// Wait for cal to complete (Done when 0x016[4]==0)
time_out_cnt = 0;
do
{
status |= ad9361_reg_read(dev, 0x0016, &value);
mdelay(1); // Wait 1ms
time_out_cnt++;
} while ((value & 0x10) != 0x00 && time_out_cnt <= AD9361_TIMEOUT_TH);
}
return status;
}
// @ Get AD9361 - 1 temperature (Celsius Degree)
/**
* Read corresponding register to get AD9361 - 1 current temperature.
*/
int8_t Hardware_GetAD9361Temp_1(void)
{
int8_t scaleTemp;
ad9361_reg_write(ad9361_1_reg_inst, 0x001D, 0x01); // disable aux adc
ad9361_reg_read(ad9361_1_reg_inst, 0x000E, (uint8_t*)&scaleTemp);
ad9361_reg_write(ad9361_1_reg_inst, 0x001D, 0x00); // enable aux adc
return (int8_t) scaleTemp/1.16;
}
// @ Get AD9361 - 2 temperature (Celsius Degree)
/**
* Read corresponding register to get AD9361 - 2 current temperature.
*/
int8_t Hardware_GetAD9361Temp_2(void)
{
int8_t scaleTemp;
ad9361_reg_write(ad9361_2_reg_inst, 0x001D, 0x01); // disable aux adc
ad9361_reg_read(ad9361_2_reg_inst, 0x000E, (uint8_t*)&scaleTemp);
ad9361_reg_write(ad9361_2_reg_inst, 0x001D, 0x00); // enable aux adc
return (int8_t) scaleTemp/1.16;
}
// @ Determine AD9361 lock state
/**
* Read corresponding register to determine AD9361(both) lock state.
*/
uint8_t Hardware_GetAD9361LockStatus(void)
{
uint8_t ret = 0;
uint8_t regVal;
// bbpll
ad9361_reg_read(ad9361_1_reg_inst, 0x005E, &regVal); // [D7] is lock indicator
ret |= ((regVal & 0x80) == 0x80) ? CLK_AD0_BBPLL_LOCK : 0;
ad9361_reg_read(ad9361_2_reg_inst, 0x005E, &regVal); // [D7] is lock indicator
ret |= ((regVal & 0x80) == 0x80) ? CLK_AD1_BBPLL_LOCK : 0;
// rfpll
ad9361_reg_read(ad9361_1_reg_inst, 0x0287, &regVal); // [D1] is lock indicator
ret |= ((regVal & 0x02) == 0x02) ? CLK_AD0_RFPLL_LOCK : 0;
ad9361_reg_read(ad9361_2_reg_inst, 0x0287, &regVal); // [D1] is lock indicator
ret |= ((regVal & 0x02) == 0x02) ? CLK_AD1_RFPLL_LOCK : 0;
return ret;
}
// @ Determine HMC7044 lock state
/**
* Read corresponding register to determine clock lock state.
*/
uint8_t Hardware_GetHMC7044LockStatus(void)
{
uint8_t ret = 0;
uint8_t regVal;
// pll1
hmc7044_read(hmc7044_inst, 0x007C, &regVal); // [D5] is lock indicator
ret |= ((regVal & 0xE0) != 0x00) ? CLK_SP_PLL0_LOCK : 0;
// pll2
hmc7044_read(hmc7044_inst, 0x007D, &regVal); // [D0] is lock indicator
ret |= ((regVal & 0x01) == 0x01) ? CLK_SP_PLL1_LOCK : 0;
return ret;
}
+32
View File
@@ -0,0 +1,32 @@
/*****************************************************************************/
/**
* Description: hwconfig.h
*
* Date: 2024-02-20 13:19
* Last Edit Time: [2024-02-20 13:19]
*
* Revisions: Rev 0.0
* History:
* [2023-05-07]: Initial edition.
*
* Copyright(c) 2024 Beijing Institute of Technology.
*
******************************************************************************/
/***************************** Include Files *********************************/
// Standard
#include <stdint.h>
#include "config/app_config.h"
#include "drivers/rf-transceiver/ad9361_reg/ad9361_reg.h"
#include "drivers/rf-transceiver/ad9361/ad9361_api.h"
/************************** Function Prototypes ******************************/
int32_t Hardware_Init(void);
int32_t Hardware_SwitchFreq(struct ad9361_reg_dev *dev, ad9361TxFreq freq);
int8_t Hardware_GetAD9361Temp_1(void);
int8_t Hardware_GetAD9361Temp_2(void);
uint8_t Hardware_GetAD9361LockStatus(void);
uint8_t Hardware_GetHMC7044LockStatus(void);
+1
View File
@@ -26,6 +26,7 @@ MEMORY
phy_data_interface_rx_frame_bram_ctrl_Mem0 : ORIGIN = 0x40000000, LENGTH = 0x2000
phy_data_interface_tx_frame_bram_ctrl_Mem0 : ORIGIN = 0x40002000, LENGTH = 0x2000
phy_data_interface_ant_info_bram_ctrl_Mem0 : ORIGIN = 0x40004000, LENGTH = 0x2000
phy_data_interface_ant_beam_bram_ctrl_Mem0 : ORIGIN = 0x42000000, LENGTH = 0x1000
ps7_ddr_0 : ORIGIN = 0x100000, LENGTH = 0x1FF00000
ps7_qspi_linear_0 : ORIGIN = 0xFC000000, LENGTH = 0x1000000
ps7_ram_0 : ORIGIN = 0x0, LENGTH = 0x30000
+12 -363
View File
@@ -20,19 +20,15 @@
#include <stdint.h>
#include <stdbool.h>
// Xilinx
#include "sleep.h"
#include "xil_cache.h"
#include "xscugic.h"
#include "xscutimer.h"
#include "xgpiops.h"
#include "drivers/platform/xilinx_irq.h"
#include "drivers/platform/xilinx_timer.h"
#include "drivers/rf-transceiver/ad9361/ad9361_api.h"
#include "drivers/axi_core/spi_engine/spi_engine.h"
// App
#include "common.h"
#include "error.h"
#include "timer.h"
#include "hwconfig.h"
#include "system_monitor.h"
#include "config/app_config.h"
#include "dev_profile/dev_profile.h"
#include "systembus/systembus.h"
@@ -46,6 +42,7 @@ void PeriodicPull_Handler(void *callBackRef);
void ScuTimer_IntrHandler(void *context);
void Systembus_RxIntrHandler(void *context);
void Systembus_TxIntrHandler(void *context);
/************************** Constant Definitions *****************************/
struct callback_desc phy_callback_desc = {
.callback = Phy_IntrHandler,
@@ -99,9 +96,14 @@ static PHY_CONFIG phyConfig = {
.devId = 0,
.baseAddr = PHY_BASEADDR,
.antBramId = PHY_ANTCONFIG_BRAM_DEVICE_ID,
.antInfoBramId = PHY_ANTINFO_BRAM_DEVICE_ID,
.txBramId = PHY_TXBUFF_BRAM_DEVICE_ID,
.rxBramId = PHY_RXBUFF_BRAM_DEVICE_ID,
.hwXadcId = PHY_HW_XADC_DEVICE_ID
.hwXadcId = PHY_HW_XADC_DEVICE_ID,
.get_clk_state = Hardware_GetHMC7044LockStatus,
.get_ad_lock_state = Hardware_GetAD9361LockStatus,
.get_ad0_temp = Hardware_GetAD9361Temp_1,
.get_ad1_temp = Hardware_GetAD9361Temp_2
};
TMC_CONFIG tmcConfig = {
@@ -122,11 +124,7 @@ static PHY_INST *phyInstPtr;
static TMC_INST *tmcInstPtr = NULL;
L2_INST *linkInstPtr;
static struct hmc7044_dev *hmc7044_inst;
static struct ad9361_reg_dev *ad9361_1_reg_inst;
static struct ad9361_reg_dev *ad9361_2_reg_inst;
// static struct ad9361_rf_phy *ad9361_phy;
// static struct ad9361_rf_phy *ad9361_2_phy;
/****************************************************************************/
/**
* This function is responsible for initializing the SCUGIC instance, looking
@@ -370,355 +368,6 @@ void ScuTimer_IntrHandler(void *context)
}
}
/*****************************************************************************/
/**
* @brief Hardware_SwitchFreq
*
* @param devSysMonitor_UpdateHardwareStatus(newHwState);
* @param freq
*
* @return None.
*
******************************************************************************/
int Hardware_SwitchFreq(struct ad9361_reg_dev *dev, ad9361TxFreq freq)
{
int32_t status = 0;
uint8_t value = 0;
int32_t time_out_cnt = 0;
switch (freq)
{
case TX_FREQ_125:
{
//************************************************************
// Setup Tx Frequency-Dependent Syntheisizer Registers
//************************************************************
status = ad9361_reg_write(dev, 0x027A, 0x4A); // Set VCO Output level[3:0]
status = ad9361_reg_write(dev, 0x0279, 0xC1); // Set Init ALC Value[3:0] and VCO Varactor[3:0]
status = ad9361_reg_write(dev, 0x0282, 0x0E); // Set VCO Bias Tcf[1:0] and VCO Bias Ref[2:0]
status = ad9361_reg_write(dev, 0x0278, 0x78); // Set VCO Cal Offset[3:0]
status = ad9361_reg_write(dev, 0x0285, 0x00); // Set VCO Cal Ref Tcf[2:0]
status = ad9361_reg_write(dev, 0x0291, 0x0B); // Set VCO Varactor Reference[3:0]
status = ad9361_reg_write(dev, 0x0290, 0x70); // Set VCO Varactor Ref Tcf[2:0] and VCO Varactor Offset[3:0]
status = ad9361_reg_write(dev, 0x027B, 0x94); // Set Synth Loop Filter charge pump current (Icp)
status = ad9361_reg_write(dev, 0x027E, 0xF4); // Set Synth Loop Filter C2 and C1
status = ad9361_reg_write(dev, 0x027F, 0xDF); // Set Synth Loop Filter R1 and C3
status = ad9361_reg_write(dev, 0x0280, 0x0A); // Set Synth Loop Filter R3
//************************************************************
// Write Tx Frequency Words
//************************************************************
status = ad9361_reg_write(dev, 0x0273, 0x00); // Write Tx Synth Fractional Freq Word[7:0]
status = ad9361_reg_write(dev, 0x0274, 0x00); // Write Tx Synth Fractional Freq Word[15:8]
status = ad9361_reg_write(dev, 0x0275, 0x00); // Write Tx Synth Fractional Freq Word[22:16]
status = ad9361_reg_write(dev, 0x0272, 0x00); // Write Tx Synth Integer Freq Word[10:8]
status = ad9361_reg_write(dev, 0x0271, 0xA0); // Write Tx Synth Integer Freq Word[7:0] (starts VCO cal)
status = ad9361_reg_write(dev, 0x0005, 0x57); // Set LO divider setting
//************************************************************
// Tx Quadrature Calibration Settings
//************************************************************
status = ad9361_reg_write(dev, 0x00A0, 0x75); // Set TxQuadcal NCO frequency
status = ad9361_reg_write(dev, 0x00A3, 0xC0); // Set TxQuadcal NCO frequency (Only update bits [7:6])
status = ad9361_reg_write(dev, 0x00A1, 0x7B); // Tx Quad Cal Configuration, Phase and Gain Cal Enable
status = ad9361_reg_write(dev, 0x00A9, 0xFF); // Set Tx Quad Cal Count
status = ad9361_reg_write(dev, 0x00A2, 0x7F); // Set Tx Quad Cal Kexp
status = ad9361_reg_write(dev, 0x00A5, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00A6, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00AA, 0x22); // Set Tx Quad Cal Gain Table index
status = ad9361_reg_write(dev, 0x00A4, 0xF0); // Set Tx Quad Cal Settle Count
status = ad9361_reg_write(dev, 0x00AE, 0x00); // Set Tx Quad Cal LPF Gain index incase Split table mode used
status = ad9361_reg_write(dev, 0x0169, 0xC0); // Disable Rx Quadrature Calibration before Running Tx Quadrature Calibration
status = ad9361_reg_write(dev, 0x0016, 0x10); // Start Tx Quad cal
break;
}
case TX_FREQ_126:
{
//************************************************************
// Setup Tx Frequency-Dependent Syntheisizer Registers
//************************************************************
status = ad9361_reg_write(dev, 0x027A, 0x4A); // Set VCO Output level[3:0]
status = ad9361_reg_write(dev, 0x0279, 0xC1); // Set Init ALC Value[3:0] and VCO Varactor[3:0]
status = ad9361_reg_write(dev, 0x0282, 0x0E); // Set VCO Bias Tcf[1:0] and VCO Bias Ref[2:0]
status = ad9361_reg_write(dev, 0x0278, 0x78); // Set VCO Cal Offset[3:0]
status = ad9361_reg_write(dev, 0x0285, 0x00); // Set VCO Cal Ref Tcf[2:0]
status = ad9361_reg_write(dev, 0x0291, 0x0B); // Set VCO Varactor Reference[3:0]
status = ad9361_reg_write(dev, 0x0290, 0x70); // Set VCO Varactor Ref Tcf[2:0] and VCO Varactor Offset[3:0]
status = ad9361_reg_write(dev, 0x027B, 0x93); // Set Synth Loop Filter charge pump current (Icp)
status = ad9361_reg_write(dev, 0x027E, 0xF4); // Set Synth Loop Filter C2 and C1
status = ad9361_reg_write(dev, 0x027F, 0xDF); // Set Synth Loop Filter R1 and C3
status = ad9361_reg_write(dev, 0x0280, 0x0A); // Set Synth Loop Filter R3
//************************************************************
// Write Tx Frequency Words
//************************************************************
status = ad9361_reg_write(dev, 0x0273, 0x06); // Write Tx Synth Fractional Freq Word[7:0]
status = ad9361_reg_write(dev, 0x0274, 0xD7); // Write Tx Synth Fractional Freq Word[15:8]
status = ad9361_reg_write(dev, 0x0275, 0x23); // Write Tx Synth Fractional Freq Word[22:16]
status = ad9361_reg_write(dev, 0x0272, 0x00); // Write Tx Synth Integer Freq Word[10:8]
status = ad9361_reg_write(dev, 0x0271, 0xA1); // Write Tx Synth Integer Freq Word[7:0] (starts VCO cal)
status = ad9361_reg_write(dev, 0x0005, 0x57); // Set LO divider setting
//************************************************************
// Tx Quadrature Calibration Settings
//************************************************************
status = ad9361_reg_write(dev, 0x00A0, 0x75); // Set TxQuadcal NCO frequency
status = ad9361_reg_write(dev, 0x00A3, 0xC0); // Set TxQuadcal NCO frequency (Only update bits [7:6])
status = ad9361_reg_write(dev, 0x00A1, 0x7B); // Tx Quad Cal Configuration, Phase and Gain Cal Enable
status = ad9361_reg_write(dev, 0x00A9, 0xFF); // Set Tx Quad Cal Count
status = ad9361_reg_write(dev, 0x00A2, 0x7F); // Set Tx Quad Cal Kexp
status = ad9361_reg_write(dev, 0x00A5, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00A6, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00AA, 0x22); // Set Tx Quad Cal Gain Table index
status = ad9361_reg_write(dev, 0x00A4, 0xF0); // Set Tx Quad Cal Settle Count
status = ad9361_reg_write(dev, 0x00AE, 0x00); // Set Tx Quad Cal LPF Gain index incase Split table mode used
status = ad9361_reg_write(dev, 0x0169, 0xC0); // Disable Rx Quadrature Calibration before Running Tx Quadrature Calibration
status = ad9361_reg_write(dev, 0x0016, 0x10); // Start Tx Quad cal
break;
}
case TX_FREQ_4125:
{
//************************************************************
// Setup Tx Frequency-Dependent Syntheisizer Registers
//************************************************************
status = ad9361_reg_write(dev, 0x027A, 0x4A); // Set VCO Output level[3:0]
status = ad9361_reg_write(dev, 0x0279, 0xC1); // Set Init ALC Value[3:0] and VCO Varactor[3:0]
status = ad9361_reg_write(dev, 0x0282, 0x0E); // Set VCO Bias Tcf[1:0] and VCO Bias Ref[2:0]
status = ad9361_reg_write(dev, 0x0278, 0x78); // Set VCO Cal Offset[3:0]
status = ad9361_reg_write(dev, 0x0285, 0x00); // Set VCO Cal Ref Tcf[2:0]
status = ad9361_reg_write(dev, 0x0291, 0x0B); // Set VCO Varactor Reference[3:0]
status = ad9361_reg_write(dev, 0x0290, 0x70); // Set VCO Varactor Ref Tcf[2:0] and VCO Varactor Offset[3:0]
status = ad9361_reg_write(dev, 0x027B, 0x93); // Set Synth Loop Filter charge pump current (Icp)
status = ad9361_reg_write(dev, 0x027E, 0xF4); // Set Synth Loop Filter C2 and C1
status = ad9361_reg_write(dev, 0x027F, 0xDF); // Set Synth Loop Filter R1 and C3
status = ad9361_reg_write(dev, 0x0280, 0x0A); // Set Synth Loop Filter R3
//************************************************************
// Write Rx Frequency Words
//************************************************************
status = ad9361_reg_write(dev, 0x0273, 0x00); // Write Tx Synth Fractional Freq Word[7:0]
status = ad9361_reg_write(dev, 0x0274, 0x00); // Write Tx Synth Fractional Freq Word[15:8]
status = ad9361_reg_write(dev, 0x0275, 0x00); // Write Tx Synth Fractional Freq Word[22:16]
status = ad9361_reg_write(dev, 0x0272, 0x00); // Write Tx Synth Integer Freq Word[10:8]
status = ad9361_reg_write(dev, 0x0271, 0xA5); // Write Tx Synth Integer Freq Word[7:0] (starts VCO cal)
status = ad9361_reg_write(dev, 0x0005, 0x07); // Set LO divider setting
//************************************************************
// Tx Quadrature Calibration Settings
//************************************************************
status = ad9361_reg_write(dev, 0x00A0, 0x75); // Set TxQuadcal NCO frequency
status = ad9361_reg_write(dev, 0x00A3, 0xC0); // Set TxQuadcal NCO frequency (Only update bits [7:6])
status = ad9361_reg_write(dev, 0x00A1, 0x7B); // Tx Quad Cal Configuration, Phase and Gain Cal Enable
status = ad9361_reg_write(dev, 0x00A9, 0xFF); // Set Tx Quad Cal Count
status = ad9361_reg_write(dev, 0x00A2, 0x7F); // Set Tx Quad Cal Kexp
status = ad9361_reg_write(dev, 0x00A5, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00A6, 0x01); // Set Tx Quad Cal Magnitude Threshhold
status = ad9361_reg_write(dev, 0x00AA, 0x28); // Set Tx Quad Cal Gain Table index
status = ad9361_reg_write(dev, 0x00A4, 0xF0); // Set Tx Quad Cal Settle Count
status = ad9361_reg_write(dev, 0x00AE, 0x04); // Set Tx Quad Cal LPF Gain index incase Split table mode used
status = ad9361_reg_write(dev, 0x0169, 0xC0); // Disable Rx Quadrature Calibration before Running Tx Quadrature Calibration
status = ad9361_reg_write(dev, 0x0016, 0x10); // Start Tx Quad cal
break;
}
// Wait for cal to complete (Done when 0x016[4]==0)
time_out_cnt = 0;
do
{
status |= ad9361_reg_read(dev, 0x0016, &value);
mdelay(1); // Wait 1ms
time_out_cnt++;
} while ((value & 0x10) != 0x00 && time_out_cnt <= AD9361_TIMEOUT_TH);
}
return status;
}
/*****************************************************************************/
/**
* @brief Hardware_Init
*
* @param none.
*
* @return None.
*
******************************************************************************/
int Hardware_Init(void)
{
int32_t Status;
XGpioPs Gpio;
XGpioPs_Config *ConfigPtr;
ConfigPtr = XGpioPs_LookupConfig(AD9361_GPIO_DEVICE_ID);
Status = XGpioPs_CfgInitialize(&Gpio, ConfigPtr, ConfigPtr->BaseAddr);
if (Status != SUCCESS)
{
return FAILURE;
}
/**********************************************************/
/****************** HMC7044 Configuration *****************/
/**********************************************************/
Status = hmc7044_init(&hmc7044_inst, &hmc7044_default_init_param);
if (Status != SUCCESS)
{
DBG_ERROR("hmc7044_init() error: %" PRId32 "\n", Status);
return FAILURE;
}
/**********************************************************/
/***************** AD9361-1 Configuration *****************/
/**********************************************************/
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_TXNRX, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_ENABLE, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_EN_AGC, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_RESET_B, AD9361_GPIO_OUTPUT);
ad9361_reg_init(&ad9361_1_reg_inst, &ad9361_1_reg_default_init_param);
XGpioPs_WritePin(&Gpio, AD9361_1_ENABLE, 0);
ad9361_reg_config(ad9361_1_reg_inst);
XGpioPs_WritePin(&Gpio, AD9361_1_ENABLE, 1);
// Status = ad9361_init(&ad9361_phy, &ad9361_default_init_param);
// if (Status != XST_SUCCESS){
// return XST_FAILURE;
// }else{
// printf("Configurate AD9361 Completely!\n");
// }
// ad9361_set_tx_fir_config(ad9361_phy, tx_fir_config);
// ad9361_set_rx_fir_config(ad9361_phy, rx_fir_config);
/**********************************************************/
/***************** AD9361-2 Configuration *****************/
/**********************************************************/
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_TXNRX, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_ENABLE, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_EN_AGC, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_RESET_B, AD9361_GPIO_OUTPUT);
ad9361_reg_init(&ad9361_2_reg_inst, &ad9361_2_reg_default_init_param);
XGpioPs_WritePin(&Gpio, AD9361_2_ENABLE, 0);
ad9361_reg_config(ad9361_2_reg_inst);
XGpioPs_WritePin(&Gpio, AD9361_2_ENABLE, 1);
// uint8_t rd_back;
// Status = ad9361_reg_read(ad9361_1_reg_inst, 0x0002, &rd_back);
// Status = ad9361_reg_read(ad9361_2_reg_inst, 0x0002, &rd_back);
/**********************************************************/
/******* AD9361 Baseband Multichip Synchronization ********/
/**********************************************************/
XGpioPs_SetDirectionPin(&Gpio, AD9361_SYNC, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_RX_FIFO_RST, AD9361_GPIO_OUTPUT);
// SYNC BBPLL and DIGITAL SAMPLING CLOCKS
ad9361_reg_write(ad9361_1_reg_inst, 0x0001, 0x0D); // MCS RF Enable; MCS BBPLL Enable; MCS BB Enable
ad9361_reg_write(ad9361_2_reg_inst, 0x0001, 0x0D);
ad9361_reg_write(ad9361_1_reg_inst, 0x0047, 0x80); // MCS refclk Scale Enable
ad9361_reg_write(ad9361_2_reg_inst, 0x0047, 0x80);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 0);
mdelay(20);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 1); // Input a rising-edge pulse to the SYNC_IN pin
mdelay(500);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 0);
mdelay(2000);
ad9361_reg_write(ad9361_1_reg_inst, 0x0001, 0x0B); // MCS RF Enable; MCS Digital CLK Enable ; MCS BB Enable
ad9361_reg_write(ad9361_2_reg_inst, 0x0001, 0x0B);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 1); // Input another rising-edge pulse to the SYNC_IN pin
mdelay(500);
XGpioPs_WritePin(&Gpio, AD9361_SYNC, 0);
ad9361_reg_write(ad9361_1_reg_inst, 0x0001, 0x08); // clear MCS bits
ad9361_reg_write(ad9361_2_reg_inst, 0x0001, 0x08);
XGpioPs_WritePin(&Gpio, AD9361_RX_FIFO_RST, 0);
mdelay(20);
XGpioPs_WritePin(&Gpio, AD9361_RX_FIFO_RST, 1);
mdelay(20);
XGpioPs_WritePin(&Gpio, AD9361_RX_FIFO_RST, 0);
/**********************************************************/
/********* AD9361 Multichip Rx Phase Calibration **********/
/**********************************************************/
XGpioPs_SetDirectionPin(&Gpio, AD9361_TX_SWITCH, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_CAL_START, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_1_CAL_DONE, AD9361_GPIO_INPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_CAL_START, AD9361_GPIO_OUTPUT);
XGpioPs_SetDirectionPin(&Gpio, AD9361_2_CAL_DONE, AD9361_GPIO_INPUT);
// switch to lower frequency
Status = Hardware_SwitchFreq(ad9361_1_reg_inst, TX_FREQ_126);
XGpioPs_WritePin(&Gpio, AD9361_TX_SWITCH, 1);
mdelay(20);
// switch rx channel
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0004, 0x30);
Status = ad9361_reg_write(ad9361_2_reg_inst, 0x0004, 0x30);
// enable dual ad9361 tx channels
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0002, 0xE4); // Setup Tx Digital Filters/ Channels
// switch ad9361 tx channel
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0004, 0x70); // Select Rx input pin(A,B,C)/ Tx out pin (A,B)
mdelay(20);
// begin to calibrate the 1st ad9361
XGpioPs_WritePin(&Gpio, AD9361_1_CAL_START, 0);
XGpioPs_WritePin(&Gpio, AD9361_1_CAL_START, 1);
mdelay(1);
XGpioPs_WritePin(&Gpio, AD9361_1_CAL_START, 0);
// read calibration status
int32_t time_out_cnt = 0;
do
{
mdelay(1); // Wait 1ms
time_out_cnt++;
} while (((XGpioPs_ReadPin(&Gpio, AD9361_1_CAL_DONE) == 0) && time_out_cnt <= AD9361_TIMEOUT_TH));
if (time_out_cnt == AD9361_TIMEOUT_TH)
{
return FAILURE;
}
// begin to calibrate the 2nd ad9361
XGpioPs_WritePin(&Gpio, AD9361_2_CAL_START, 1);
mdelay(1);
XGpioPs_WritePin(&Gpio, AD9361_2_CAL_START, 0);
// read calibration status
time_out_cnt = 0;
do
{
mdelay(1); // Wait 1ms
time_out_cnt++;
} while (((XGpioPs_ReadPin(&Gpio, AD9361_2_CAL_DONE) == 0) && time_out_cnt <= AD9361_TIMEOUT_TH));
if (time_out_cnt == AD9361_TIMEOUT_TH)
{
return FAILURE;
}
// enable single ad9361 tx channels
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0002, 0xA4); // Setup Tx Digital Filters/ Channels
// switch ad9361 tx & rx channel
Status = ad9361_reg_write(ad9361_1_reg_inst, 0x0004, 0x03);
Status = ad9361_reg_write(ad9361_2_reg_inst, 0x0004, 0x03);
// switch to higher frequency
Status = Hardware_SwitchFreq(ad9361_1_reg_inst, TX_FREQ_4125);
XGpioPs_WritePin(&Gpio, AD9361_TX_SWITCH, 0);
DBG_PRINT("Done.\n");
return 0;
}
/*****************************************************************************/
/**
* @brief Main function, initialize all the device needed, initialize
@@ -835,7 +484,7 @@ int main(void)
while (true)
{
// System bus handler
if (SystemBus_IsReqPendding(sysbusDescPtr))
if (SystemBus_IsReqPending(sysbusDescPtr))
{
Status = SystemBus_HandleCmd(sysbusDescPtr);
if (Status != SUCCESS)
@@ -843,7 +492,7 @@ int main(void)
DBG_ERROR("SystemBus_HandleCmd exit with ErrorCode: %" PRId32 ".\n", Status);
}
}
if (SystemBus_IsRsqPendding(sysbusDescPtr) && (!SystemBus_IsTxBusy(sysbusDescPtr)))
if (SystemBus_IsRsqPending(sysbusDescPtr) && (!SystemBus_IsTxBusy(sysbusDescPtr)))
{
// FIXME: Required by 12 (CASC)
udelay(4000);
@@ -32,6 +32,7 @@
/************************** Constant Definitions *****************************/
#define NET_START_TIME_INFTY UINT32_MAX
#define LINK_BROCK_THRESHOLD (3 * 200) // 3 secods
/************************** Variable Definitions *****************************/
/***************** Macros (Inline Functions) Definitions *********************/
/**************************** Type Definitions *******************************/
@@ -340,48 +341,48 @@ void L2_FrameStateUpdate(L2_INST *instPtr)
}
else
{
DBG_INFO("A frame received, checking data validation...\n");
DBG_INFO("Last frame type is: %" PRId32 ".\n", instPtr->frame.last);
Phy_RetrieveRecvData(phyRef, instPtr->recvPktData);
instPtr->log.frameRecv++;
DBG_INFO("A frame received, checking data validation...\n");
DBG_INFO("Last frame type is: %" PRId32 ".\n", instPtr->frame.last);
Phy_RetrieveRecvData(phyRef, instPtr->recvPktData);
instPtr->log.frameRecv++;
// Update frame state.
switch (recvType)
{
case L2_SCAN_FRAME:
case L2_ADV_FRAME:
isValid = L2_CrcCheck(instPtr->recvPktData, L2_ADV_PACK_LEN, L2_CRC16_1021);
instPtr->log.advRecvCnt++;
instPtr->log.advCorrectCnt = isValid ? instPtr->log.advCorrectCnt + 1 : instPtr->log.advCorrectCnt;
break;
case L2_CFM_FRAME:
isValid = L2_CrcCheck(instPtr->recvPktData, L2_CMF_PACK_LEN, L2_CRC16_1021);
instPtr->log.cfmRecvCnt++;
instPtr->log.cfmCorrectCnt = isValid ? instPtr->log.cfmCorrectCnt + 1 : instPtr->log.cfmCorrectCnt;
break;
case L2_SVC_FRAME:
// Update frame state.
switch (recvType)
{
case L2_SCAN_FRAME:
case L2_ADV_FRAME:
isValid = L2_CrcCheck(instPtr->recvPktData, L2_ADV_PACK_LEN, L2_CRC16_1021);
instPtr->log.advRecvCnt++;
instPtr->log.advCorrectCnt = isValid ? instPtr->log.advCorrectCnt + 1 : instPtr->log.advCorrectCnt;
break;
case L2_CFM_FRAME:
isValid = L2_CrcCheck(instPtr->recvPktData, L2_CMF_PACK_LEN, L2_CRC16_1021);
instPtr->log.cfmRecvCnt++;
instPtr->log.cfmCorrectCnt = isValid ? instPtr->log.cfmCorrectCnt + 1 : instPtr->log.cfmCorrectCnt;
break;
case L2_SVC_FRAME:
#ifndef DATALINK_ENABLE_BERTEST
isValid = L2_CrcCheck(instPtr->recvPktData, L2_SVC_PACK_LEN, L2_CRC16_1021);
isValid = L2_CrcCheck(instPtr->recvPktData, L2_SVC_PACK_LEN, L2_CRC16_1021);
#else
isValid = true;
isValid = true;
#endif
instPtr->log.svcRecvCnt++;
instPtr->log.svcCorrectCnt = isValid ? instPtr->log.svcCorrectCnt + 1 : instPtr->log.svcCorrectCnt;
break;
instPtr->log.svcRecvCnt++;
instPtr->log.svcCorrectCnt = isValid ? instPtr->log.svcCorrectCnt + 1 : instPtr->log.svcCorrectCnt;
break;
default:
isValid = false;
break;
}
if(isValid)
{
instPtr->log.frameCorrect++;
L2_DataAvailUpdate(instPtr, true);
}
else
{
L2_DataAvailUpdate(instPtr, false);
}
default:
isValid = false;
break;
}
if (isValid)
{
instPtr->log.frameCorrect++;
L2_DataAvailUpdate(instPtr, true);
}
else
{
L2_DataAvailUpdate(instPtr, false);
}
}
}
@@ -660,6 +661,8 @@ int32_t Linklayer_Init(L2_INST **instPtr, const L2_CONFIG *config)
DBG_ERROR("Allocate memory for L2_InstPtr failed.\n");
return ENOMEM;
}
// Clear random content
memset(*instPtr, 0x00, sizeof(L2_INST));
memcpy(&((*instPtr)->config), config, sizeof(L2_CONFIG));
@@ -684,7 +687,7 @@ int32_t Linklayer_Init(L2_INST **instPtr, const L2_CONFIG *config)
(*instPtr)->rtneConfig.curr = NULL;
(*instPtr)->rtneConfig.next = NULL;
(*instPtr)->isEnable = false;
(*instPtr)->cxn2Net = (config->myType == L2_NODE_HEAD) ? true : false;;
(*instPtr)->cxn2Net = (config->myType == L2_NODE_HEAD) ? true : false;
(*instPtr)->dataAvail = false;
(*instPtr)->frameNum.last = 0;
(*instPtr)->frameNum.curr = 0;
@@ -852,7 +855,8 @@ int32_t Linklayer_Start(L2_INST *instPtr)
{
ASSERT(instPtr != NULL);
// Set netStartTime at first call.
if (instPtr->netStartTime == NET_START_TIME_INFTY) {
if (instPtr->netStartTime == NET_START_TIME_INFTY)
{
instPtr->netStartTime = TimeCtrl_GetIntCnt(instPtr->config.tmcInstPtr) / L2_SLOTS_PER_FRAME + 1;
}
instPtr->isEnable = true;
@@ -954,6 +958,7 @@ int32_t Linklayer_EventHandler(L2_INST *instPtr, const L2_EVENT *l2Event)
L2_Service_Reset(instPtr->serviceFSM);
instPtr->cxn2Net = false;
UpdateMainSate(instPtr, L2_INIT_STATE);
instPtr->log.reconnectCnt++;
break;
}
case L2_EV_LOST_NODE:
@@ -962,6 +967,8 @@ int32_t Linklayer_EventHandler(L2_INST *instPtr, const L2_EVENT *l2Event)
L2_Scan_Reset(instPtr->scanFSM);
L2_Service_Reset(instPtr->serviceFSM);
UpdateMainSate(instPtr, L2_INIT_STATE);
// Log reconnect
instPtr->log.reconnectCnt++;
break;
}
case L2_ROUTINE_FINISH:
@@ -983,7 +990,8 @@ int32_t Linklayer_EventHandler(L2_INST *instPtr, const L2_EVENT *l2Event)
}
else
{
DBG_WARNING("Unsupported routine state [%" PRId8 "], Continue withe previous routine table.\n", instPtr->nextState);
DBG_WARNING("Unsupported routine state [%" PRId8 "], "
"Continue with previous routine table.\n", instPtr->nextState);
}
break;
}
@@ -1112,7 +1120,7 @@ static int32_t Linklayer_Routine(L2_INST *instPtr)
case L2_SLOT_CONFIRM:
Status = L2_Scan_Routine(instPtr, &rtneEntry);
break;
case L2_SLOT_SERVICE:
case L2_SLOT_SERVICE:
Status = L2_Service_Routine(instPtr, &rtneEntry);
break;
default:
@@ -1132,15 +1140,18 @@ static int32_t Linklayer_Routine(L2_INST *instPtr)
L2_IterEditNode(instPtr->nodeList, &increment, IntcNodeTTL);
#ifdef DATALINK_ENABLE_AUTORECONNECT
L2_IterDeleteNode(instPtr->nodeList, IsNodeConnected);
if (L2_GetNodeListLen(instPtr->nodeList) < instPtr->config.netScale - 1)
if (L2_GetMainState(instPtr) != L2_INIT_STATE)
{
// reset scan process
L2_EVENT l2Event;
// Assert Net-Setup Done.
l2Event.event = (L2_GetNodeType(instPtr) == L2_NODE_HEAD) ? L2_EV_LOST_NODE : L2_EV_LOST_CXN;
l2Event.msg = NULL;
AssertL2Event(instPtr, &l2Event);
L2_IterDeleteNode(instPtr->nodeList, IsNodeConnected);
if (L2_GetNodeListLen(instPtr->nodeList) < instPtr->config.netScale - 1)
{
// reset scan process
L2_EVENT l2Event;
// Assert Net-Setup Done.
l2Event.event = (L2_GetNodeType(instPtr) == L2_NODE_HEAD) ? L2_EV_LOST_NODE : L2_EV_LOST_CXN;
l2Event.msg = NULL;
AssertL2Event(instPtr, &l2Event);
}
}
#endif
return Status;
@@ -1217,7 +1228,7 @@ int32_t Linklayer_Proc(L2_INST *instPtr)
}
}
// Check if previous runs has error occurred.
// Check if previous runs has error occurred.
if (Status != SUCCESS)
{
return Status;
@@ -1228,18 +1239,16 @@ int32_t Linklayer_Proc(L2_INST *instPtr)
// Update link layer state.
instPtr->mainState = instPtr->nextState;
instPtr->linkLog.tuNum = instPtr->frameNum.curr;
instPtr->linkLog.slotNum = (uint8_t)instPtr->slotNum.curr;
instPtr->linkLog.nodeType = (instPtr->config.myType == L2_NODE_HEAD) ? 0xAA : 0xCC;
instPtr->linkLog.cxnStatus = (instPtr->cxn2Net) ? 0x11 : 0x00;
instPtr->linkLog.linkStage = (instPtr->mainState == L2_INIT_STATE) ? 0x00 : 0x11;
// TODO:
// instPtr->linkLog.recxnCnt =
// instPtr->linkLog.beamNo =
// instPtr->linkLog.beamWidth =
// instPtr->linkLog.beamAz =
// instPtr->linkLog.beamEl =
instPtr->linkLog.linkStage = (instPtr->mainState == L2_INIT_STATE) ? 0x11 : 0x22;
instPtr->linkLog.recxnCnt = instPtr->log.reconnectCnt;
instPtr->linkLog.beamNo = instPtr->scanFSM->beamNo;
instPtr->linkLog.beamWidth = instPtr->log.lastBeamWidth;
instPtr->linkLog.beamAz = instPtr->config.phyInstPtr->antNrrwPattern[instPtr->scanFSM->beamNo].oaxis;
instPtr->linkLog.beamEl = instPtr->config.phyInstPtr->antNrrwPattern[instPtr->scanFSM->beamNo].raxis;
instPtr->linkLog.advTxCnt = (uint16_t)instPtr->log.advTxCnt;
instPtr->linkLog.advRecvCnt = (uint16_t)instPtr->log.advRecvCnt;
instPtr->linkLog.advCorrectCnt = (uint16_t)instPtr->log.advCorrectCnt;
@@ -1249,7 +1258,8 @@ int32_t Linklayer_Proc(L2_INST *instPtr)
instPtr->linkLog.svcTxCnt = instPtr->log.svcTxCnt;
instPtr->linkLog.svcRecvCnt = instPtr->log.svcRecvCnt;
instPtr->linkLog.svcCorrectCnt = instPtr->log.svcCorrectCnt;
instPtr->linkLog.timeDev = instPtr->log.timeDev;
instPtr->linkLog.timeDev = (instPtr->log.timeDev > INT32_MAX)
? INT32_MAX : ((instPtr->log.timeDev < INT32_MIN) ? INT32_MIN : (int32_t)instPtr->log.timeDev);
instPtr->linkLog.sendId = instPtr->serviceFSM->txLog.dataId;
instPtr->linkLog.recvId = instPtr->serviceFSM->rxLog.dataId;
@@ -66,6 +66,8 @@ typedef struct
uint32_t svcCorrectCnt;
int64_t timeDev;
uint8_t lastBeamWidth;
uint32_t reconnectCnt;
} L2_LOG;
typedef struct
@@ -129,6 +131,7 @@ bool L2_CrcCheck(uint8_t *dataBuff, uint32_t dataLen, L2_CRC_TYPE crcType);
// Scanning
int32_t L2_Scan_Init(L2_SCAN_FSM **scanFSMPtr);
void L2_Scan_RefreashScanTable(L2_INST *instPtr);
void L2_Scan_Reset(L2_SCAN_FSM *scanFSMPtr);
void L2_Scan_Destroy(L2_SCAN_FSM *scanFSMPtr);
int32_t L2_Scan_Proc(L2_INST *instPtr);
@@ -195,10 +195,11 @@ typedef struct
bool isAdvRecvd; // bm received.
bool isAckPending; // 2way acq done.
uint8_t scanCnt;
uint8_t beamNo;
uint8_t advTimeout;
uint8_t cfmTimeout;
SCAN_STAGE scanStage; // only for member node
uint8_t beamNo;
uint8_t tableNo;
} L2_SCAN_FSM;
@@ -79,6 +79,10 @@
#define L2_MSG_CFM_SRC_SPEEDY_LEN 4
#define L2_MSG_CFM_SRC_SPEEDZ 28
#define L2_MSG_CFM_SRC_SPEEDZ_LEN 4
#define L2_MSG_CFM_PAYLOAD_ID 32
#define L2_MSG_CFM_PAYLOAD_ID_LEN 4
#define L2_MSG_CFM_PAYLOAD 36
#define L2_MSG_CFM_PAYLOAD_LEN 230
#define L2_MSG_CFM_CRC 266
#define L2_MSG_CFM_CRC_LEN 2
@@ -130,6 +130,10 @@ void L2_NodeList_Destroy(NODE_LIST *list)
NODE_ENTRY *L2_GetNodeById(NODE_LIST *list, uint8_t nodeId)
{
ASSERT(list != NULL);
if (nodeId == L2_BROADCAST_ID || nodeId == L2_NONE_ID)
{
return NULL;
}
util_entry.nodeInfo.nodeId = nodeId;
clist_node_t *node = clist_find(list, &util_entry);
if (node == NULL)
+181 -2
View File
@@ -28,13 +28,95 @@
#define ADV_LISTEN_TIMEOUT 40
#define CFM_LISTEN_TIMEOUT 25
#define ADV_FRAME_SLOTS 4
#define CFM_FRAME_SLOTS 4
#define CFM_FRAME_SLOTS 5
/***************** Macros (In-line Functions) Definitions *********************/
/**************************** Type Definitions *******************************/
/************************** Variable Definitions *****************************/
// Pair by regex
// Regex: ((\{\.oaxis = [0-9]+[ ,]+\.raxis = [0-9]+[ ]*\}, ){2})
PHY_ANT_ANGLE antNrrwPattern_0[L1_NUM_ANT_NRRW_PATTERN] =
{
{.oaxis = 0 , .raxis = 0 },
{.oaxis = 139, .raxis = 2225},
{.oaxis = 152, .raxis = 850 },
{.oaxis = 138, .raxis = 3155},
{.oaxis = 159, .raxis = 1680},
{.oaxis = 168, .raxis = 285 },
{.oaxis = 195, .raxis = 2630},
{.oaxis = 211, .raxis = 1204},
{.oaxis = 225, .raxis = 3429},
{.oaxis = 249, .raxis = 2022},
{.oaxis = 272, .raxis = 629 },
{.oaxis = 265, .raxis = 2934},
{.oaxis = 277, .raxis = 1499},
{.oaxis = 289, .raxis = 124 },
{.oaxis = 300, .raxis = 2349},
{.oaxis = 311, .raxis = 959 },
{.oaxis = 321, .raxis = 3199},
{.oaxis = 331, .raxis = 1824},
{.oaxis = 341, .raxis = 389 },
{.oaxis = 351, .raxis = 2674},
{.oaxis = 360, .raxis = 1268},
{.oaxis = 364, .raxis = 3483},
{.oaxis = 378, .raxis = 2118},
{.oaxis = 387, .raxis = 733 },
{.oaxis = 416, .raxis = 3028},
{.oaxis = 404, .raxis = 1623},
{.oaxis = 433, .raxis = 248 },
{.oaxis = 421, .raxis = 2473},
{.oaxis = 429, .raxis = 1098},
{.oaxis = 437, .raxis = 3303},
{.oaxis = 445, .raxis = 1948},
{.oaxis = 443, .raxis = 543 },
{.oaxis = 450, .raxis = 2828},
{.oaxis = 448, .raxis = 1422},
{.oaxis = 455, .raxis = 47 },
{.oaxis = 453, .raxis = 2272},
{.oaxis = 450, .raxis = 897 }
};
PHY_ANT_ANGLE antNrrwPattern_1[L1_NUM_ANT_NRRW_PATTERN] =
{
{.oaxis = 0 , .raxis = 0 },
{.oaxis = 139, .raxis = 1155},
{.oaxis = 152, .raxis = 3380},
{.oaxis = 138, .raxis = 2085},
{.oaxis = 159, .raxis = 610 },
{.oaxis = 168, .raxis = 2815},
{.oaxis = 195, .raxis = 1560},
{.oaxis = 211, .raxis = 134 },
{.oaxis = 225, .raxis = 2359},
{.oaxis = 249, .raxis = 952 },
{.oaxis = 272, .raxis = 3159},
{.oaxis = 265, .raxis = 1864},
{.oaxis = 277, .raxis = 429 },
{.oaxis = 289, .raxis = 2654},
{.oaxis = 300, .raxis = 1279},
{.oaxis = 311, .raxis = 3489},
{.oaxis = 321, .raxis = 2129},
{.oaxis = 331, .raxis = 754 },
{.oaxis = 341, .raxis = 2919},
{.oaxis = 351, .raxis = 1604},
{.oaxis = 360, .raxis = 198 },
{.oaxis = 364, .raxis = 2413},
{.oaxis = 378, .raxis = 1048},
{.oaxis = 387, .raxis = 3263},
{.oaxis = 416, .raxis = 1958},
{.oaxis = 404, .raxis = 553 },
{.oaxis = 433, .raxis = 2778},
{.oaxis = 421, .raxis = 1403},
{.oaxis = 429, .raxis = 28 },
{.oaxis = 437, .raxis = 2233},
{.oaxis = 445, .raxis = 878 },
{.oaxis = 443, .raxis = 3073},
{.oaxis = 450, .raxis = 1758},
{.oaxis = 448, .raxis = 352 },
{.oaxis = 455, .raxis = 2577},
{.oaxis = 453, .raxis = 1202},
{.oaxis = 450, .raxis = 3427},
};
/************************** Function Prototypes ******************************/
static void LockStateUpdate(L2_SCAN_FSM *scanFsmPtr, bool state);
static void AdvRecvStateUpdate(L2_SCAN_FSM *scanFsmPtr, bool state);
@@ -112,9 +194,23 @@ static void StageUpdate(L2_SCAN_FSM *scanFsmPtr, SCAN_STAGE newStage)
static int32_t Scan_InitScanHandler(L2_INST *instPtr)
{
ASSERT(instPtr != NULL);
PHY_INST *phyRef = instPtr->config.phyInstPtr;
L2_SCAN_FSM *scanFsmPtr = instPtr->scanFSM;
DBG_INFO("** Net-Setup - InitScan Procedure (Attempts: %" PRIu8 ")**\n", scanFsmPtr->scanCnt);
if(scanFsmPtr->scanCnt == 0)
{
// Update scan beam table
L2_Scan_RefreashScanTable(instPtr);
}
else if(Phy_IsFrameDetected(phyRef))
{
// last scan beam number
instPtr->scanFSM->beamNo = Phy_LastScanBeamNo(instPtr->config.phyInstPtr);
// Update scan beam table
L2_Scan_RefreashScanTable(instPtr);
}
if (scanFsmPtr->isLocked == true)
{
StageUpdate(scanFsmPtr, L2_SCAN_ADV_STAGE);
@@ -149,6 +245,9 @@ static int32_t Scan_AdvHandler(L2_INST *instPtr)
// if received a valid bm frame.
if (scanFsmPtr->isAdvRecvd == true)
{
// last scan beam number
instPtr->scanFSM->beamNo = Phy_LastScanBeamNo(instPtr->config.phyInstPtr);
scanFsmPtr->advTimeout = 0; /* reset listen counter. */
DBG_INFO("Received Adv frame, skipping 10ms for turn around...\n");
// TODO: check functionality.
@@ -201,9 +300,12 @@ static int32_t Scan_CfmHandler(L2_INST *instPtr)
{
// using pull mode to receive confirm frame
// since first time sync procedure is accomplished in ADV stage.
Phy_SetBeamWidth(instPtr->config.phyInstPtr, PHY_ANT_BEAM_16);
Phy_SetBeamNo(instPtr->config.phyInstPtr, scanFsmPtr->beamNo, PHY_ANT_BEAM_16);
Phy_SetMode(instPtr->config.phyInstPtr, PHY_MODE_PULL);
L2_SetupNextSlot(instPtr, L2_TOR_RX, L2_CFM_FRAME);
scanFsmPtr->cfmTimeout++; // increase counter.
instPtr->log.lastBeamWidth = PHY_ANT_BEAM_16;
}
return SUCCESS;
}
@@ -278,6 +380,23 @@ static int32_t ScanMsg_Packing(L2_INST *instPtr, L2_FRAME_TYPE type, uint8_t dst
L2_FrameInsertChunk(buff, L2_MSG_CFM_SRC_SPEEDY, L2_MSG_CFM_SRC_SPEEDY_LEN, &(instPtr->sysInfo.vY));
L2_FrameInsertChunk(buff, L2_MSG_CFM_SRC_SPEEDZ, L2_MSG_CFM_SRC_SPEEDZ_LEN, &(instPtr->sysInfo.vZ));
// Packing extra payload
uint32_t dataId;
if(L2_GetNodeType(instPtr) == L2_NODE_HEAD)
{
SysMonitor_GetSendPayload(buff + L2_MSG_CFM_PAYLOAD, &dataId, PAYLOAD_LEN_FLJ_TX);
}
else
{
SysMonitor_GetSendPayload(buff + L2_MSG_CFM_PAYLOAD, &dataId, PAYLOAD_LEN_LJ_TX);
}
L2_FrameInsertChunk(buff, L2_MSG_CFM_PAYLOAD_ID, L2_MSG_CFM_PAYLOAD_ID_LEN, &dataId);
if (dataId == DATA_ID_NONE)
{
memset(buff + L2_MSG_CFM_PAYLOAD, 0xAA, L2_MSG_CFM_PAYLOAD_LEN);
}
// Append CRC
Status = L2_CrcAppend(buff, L2_CMF_PACK_LEN - L2_MSG_CFM_CRC_LEN, L2_MSG_CFM_CRC, L2_CRC16_1021);
if (Status != SUCCESS)
@@ -315,6 +434,8 @@ int32_t L2_Scan_Init(L2_SCAN_FSM **scanFSMPtr)
return ENOMEM;
}
L2_Scan_Reset(*scanFSMPtr);
(*scanFSMPtr)->beamNo = 0;
(*scanFSMPtr)->tableNo = 0;
return SUCCESS;
}
@@ -334,7 +455,6 @@ void L2_Scan_Reset(L2_SCAN_FSM *scanFSMPtr)
scanFSMPtr->isAdvRecvd = false;
scanFSMPtr->isAckPending = false;
scanFSMPtr->scanCnt = 0;
scanFSMPtr->beamNo = 0;
scanFSMPtr->advTimeout = 0;
scanFSMPtr->cfmTimeout = 0;
scanFSMPtr->scanStage = L2_SCAN_NONE_STAGE;
@@ -354,10 +474,37 @@ void L2_Scan_Destroy(L2_SCAN_FSM *scanFSMPtr)
free(scanFSMPtr);
}
/*****************************************************************************/
/**
* @brief Refresh scan beam table.
*
* @param instPtr a pointer to linklayer layer instance
*
* @return NONE
*
******************************************************************************/
void L2_Scan_RefreashScanTable(L2_INST *instPtr)
{
ASSERT(instPtr != NULL);
L2_SCAN_FSM *scanFsmPtr = instPtr->scanFSM;
PHY_INST *phyRef = instPtr->config.phyInstPtr;
if (scanFsmPtr->tableNo == 0)
{
Phy_SetBeamTable(phyRef, antNrrwPattern_0, scanFsmPtr->beamNo);
scanFsmPtr->tableNo = 1;
}
else
{
Phy_SetBeamTable(phyRef, antNrrwPattern_1, scanFsmPtr->beamNo);
scanFsmPtr->tableNo = 0;
}
}
/*****************************************************************************/
/**
* @brief Scan net packet handler.
*
* @param instPtr a pointer to linklayer layer instance
* @param msg A pointer to frame data buffer.
*
* @return
@@ -405,6 +552,7 @@ int32_t L2_Scan_PktHandler(L2_INST *instPtr, uint8_t *msg)
node->nodeInfo.pos.y = (double) nodePos;
L2_FrameGetChunk(msg, L2_MSG_ADV_SRC_POSZ, L2_MSG_ADV_SRC_POSZ_LEN, &nodePos);
node->nodeInfo.pos.z = (double) nodePos;
node->nodeInfo.beamNo = Phy_LastScanBeamNo(instPtr->config.phyInstPtr);
// Reset node ttl
node->ttlCnt = 0;
@@ -521,6 +669,23 @@ int32_t L2_Scan_PktHandler(L2_INST *instPtr, uint8_t *msg)
// Time sync.
L2_TimeAdjust(instPtr, &(instPtr->log.timeDev));
}
// Get data payload
uint32_t dataId;
L2_FrameGetChunk(msg, L2_MSG_CFM_PAYLOAD_ID, L2_MSG_CFM_PAYLOAD_ID_LEN, &dataId);
if(dataId != DATA_ID_NONE)
{
if(L2_GetNodeType(instPtr) == L2_NODE_HEAD)
{
SysMonitor_UpdateRecvPayload(msg+L2_MSG_CFM_PAYLOAD, PAYLOAD_LEN_FLJ_RX);
}
else
{
SysMonitor_UpdateRecvPayload(msg+L2_MSG_CFM_PAYLOAD, PAYLOAD_LEN_LJ_RX);
}
}
Status = SUCCESS;
break;
}
@@ -591,6 +756,7 @@ int32_t L2_Scan_Routine(L2_INST *instPtr, const L2_RTNE_TABLE_ENTRY *rtneEntry)
ASSERT(instPtr != NULL);
L2_TOR_TYPE torState;
int32_t Status;
const NODE_ENTRY* commNode;
DBG_INFO("-------- Scan Routine --------\n");
if (rtneEntry->slotSeq != 0)
@@ -603,15 +769,25 @@ int32_t L2_Scan_Routine(L2_INST *instPtr, const L2_RTNE_TABLE_ENTRY *rtneEntry)
if (rtneEntry->dst == L2_GetNodeId(instPtr) || rtneEntry->dst == L2_BROADCAST_ID)
{
torState = L2_TOR_RX;
commNode = L2_GetNodeById(instPtr->nodeList, rtneEntry->src);
}
else if (rtneEntry->src == L2_GetNodeId(instPtr) || rtneEntry->src == L2_BROADCAST_ID)
{
torState = L2_TOR_TX;
commNode = L2_GetNodeById(instPtr->nodeList, rtneEntry->dst);
}
else
{
torState = L2_TOR_SUSPEND;
}
// Setup antenna beam
Phy_SetBeamWidth(instPtr->config.phyInstPtr, PHY_ANT_BEAM_16);
instPtr->log.lastBeamWidth = PHY_ANT_BEAM_16;
if (commNode != NULL)
{
Phy_SetBeamNo(instPtr->config.phyInstPtr, commNode->nodeInfo.beamNo, PHY_ANT_BEAM_16);
}
}
else
{
@@ -627,6 +803,9 @@ int32_t L2_Scan_Routine(L2_INST *instPtr, const L2_RTNE_TABLE_ENTRY *rtneEntry)
{
torState = L2_TOR_SUSPEND;
}
// Setup antenna beam
Phy_SetBeamWidth(instPtr->config.phyInstPtr, PHY_ANT_BEAM_120);
instPtr->log.lastBeamWidth = PHY_ANT_BEAM_120;
}
switch (rtneEntry->slotType)
@@ -134,7 +134,6 @@ static int32_t Service_Packing(L2_INST *instPtr, L2_FRAME_TYPE type, uint8_t dst
// L2_FrameInsertChunk(buff, L2_MSG_SVC_PAYLOAD_ID, L2_MSG_SVC_PAYLOAD_ID_LEN, &dataId);
// L2_FrameInsertChunk(buff, L2_MSG_SVC_PAYLOAD, L2_MSG_SVC_PAYLOAD_LEN, testData);
Status = L2_CrcAppend(buff, L2_SVC_PACK_LEN - L2_MSG_SVC_CRC_LEN, L2_MSG_SVC_CRC, L2_CRC16_1021);
if (Status != SUCCESS)
{
@@ -369,19 +368,35 @@ int32_t L2_Service_Routine(L2_INST *instPtr, const L2_RTNE_TABLE_ENTRY *rtneEntr
PHY_INST* phyRef = instPtr->config.phyInstPtr;
L2_TOR_TYPE torState;
const NODE_ENTRY* commNode;
if (rtneEntry->src == L2_GetNodeId(instPtr))
{
torState = L2_TOR_TX;
commNode = L2_GetNodeById(instPtr->nodeList, rtneEntry->dst);
}
else if (rtneEntry->dst == L2_GetNodeId(instPtr))
{
torState = L2_TOR_RX;
commNode = L2_GetNodeById(instPtr->nodeList, rtneEntry->src);
}
else
{
torState = L2_TOR_SUSPEND;
}
// Setup antenna beam
if (L2_GetNodeType(instPtr) != L2_NODE_HEAD && commNode != NULL)
{
Phy_SetBeamWidth(phyRef, PHY_ANT_BEAM_16);
Phy_SetBeamNo(phyRef, commNode->nodeInfo.beamNo, PHY_ANT_BEAM_16);
instPtr->log.lastBeamWidth = PHY_ANT_BEAM_16;
}
else
{
Phy_SetBeamWidth(phyRef, PHY_ANT_BEAM_120);
instPtr->log.lastBeamWidth = PHY_ANT_BEAM_120;
}
switch (rtneEntry->slotType)
{
case L2_SLOT_SERVICE:
@@ -394,9 +409,6 @@ int32_t L2_Service_Routine(L2_INST *instPtr, const L2_RTNE_TABLE_ENTRY *rtneEntr
memcpy(instPtr->sendPktData, testData, L2_SVC_PACK_LEN);
#endif
}
// FIXME: Steer antenna to point to destination.
Phy_SetBeamAngle(phyRef, 0.0, 0.0);
Phy_SetBeamWidth(phyRef, PHY_ANT_BEAM_8);
L2_SetupNextSlot(instPtr, torState, L2_SVC_FRAME);
break;
default:
@@ -29,16 +29,19 @@
#define CTRL_WORD_DEFAULT 0x00
#define ANT_MODE_BEAM_MASK 0xF0
#define ANT_MODE_NARROR_BEAM 0x00 // 8
#define ANT_MODE_WIDE_BEAM_1 0x10 // 25
#define ANT_MODE_WIDE_BEAM_2 0x20 // 60
#define ANT_MODE_WIDE_BEAM_3 0x30 // 120
#define ANT_BEAM_NARROR 0x00 // 8
#define ANT_BEAM_SUBNARROR_0 0x10 // 25
#define ANT_BEAM_SUBNARROR_1 0x20 // 60
#define ANT_BEAM_WIDE 0x30 // 120
#define ANT_MODE_HIGH_POWER 0x00
#define ANT_MODE_LOW_POWER 0x04
#define ANT_MODE_STANDBY 0x0F
#define ATN_MODE_DEFAULT (ANT_MODE_WIDE_BEAM_1 | ANT_MODE_LOW_POWER)
#define ATN_MODE_HIGH (ANT_MODE_WIDE_BEAM_1 | ANT_MODE_HIGH_POWER)
#define ANT_MODE_POWER_MASK 0x0F
#define ANT_POWER_FULL 0x00
#define ANT_POWER_LOW 0x04
#define ANT_POWER_STANDBY 0x0F
#define ATN_MODE_SILENT (ANT_BEAM_SUBNARROR_0 | ANT_POWER_STANDBY)
#define ATN_MODE_LOWPOWER (ANT_BEAM_SUBNARROR_0 | ANT_POWER_LOW)
#define ATN_MODE_FULLPOWER (ANT_BEAM_SUBNARROR_0 | ANT_POWER_FULL)
#define ATN_MODE_DEFAULT ATN_MODE_SILENT
#define DEFAULT_CENTRTAL_FREQ 0x06D7 // 26.25GHz
@@ -54,21 +57,21 @@
// Pair by regex
// Regex: (([0-9]+, ){8})
uint16_t hopPattern_Config[L1_FRAME_MAX_HOPS] =
uint16_t hopPattern_Config[L1_FRAME_MAX_HOPS] =
{
0
};
uint16_t hopPattern_2KBPS_20MS[L1_FRAME_2KBPS_20MS_HOPS] =
uint16_t hopPattern_2KBPS_20MS[L1_FRAME_2KBPS_20MS_HOPS] =
{
1500
};
uint16_t hopPattern_2KBPS_100MS[L1_FRAME_2KBPS_100MS_HOPS] =
uint16_t hopPattern_2KBPS_100MS[L1_FRAME_2KBPS_100MS_HOPS] =
{
0, 44, 88, 131, 175, 219, 263, 306,
350, 394, 438, 481, 525, 569, 613, 656,
700, 744, 788, 831, 875, 919, 963, 1006,
0, 44, 88, 131, 175, 219, 263, 306,
350, 394, 438, 481, 525, 569, 613, 656,
700, 744, 788, 831, 875, 919, 963, 1006,
1050, 1094, 1138, 1181, 1225, 1269, 1313, 1356,
1400, 1444, 1488, 1531, 1575, 1619, 1663, 1706,
1750, 1794, 1838, 1881, 1925, 1969, 2013, 2056,
@@ -79,116 +82,64 @@ uint16_t hopPattern_2KBPS_100MS[L1_FRAME_2KBPS_100MS_HOPS] =
3500
};
uint16_t hopPattern_10KBPS_10MS[L1_FRAME_10KBPS_10MS_HOPS] =
uint16_t hopPattern_10KBPS_10MS[L1_FRAME_10KBPS_10MS_HOPS] =
{
1500
};
uint16_t hopPattern_10KBPS_20MS[L1_FRAME_10KBPS_20MS_HOPS] =
//uint16_t hopPattern_10KBPS_20MS[L1_FRAME_10KBPS_20MS_HOPS] =
//{
// 1500, 1600, 1700, 1800, 1900, 1400, 1300, 1200,
// 1100, 1000, 900
//};
uint16_t hopPattern_10KBPS_20MS[L1_FRAME_10KBPS_20MS_HOPS] =
{
1500, 1500, 1500, 1500, 1500, 1500, 1500, 1500,
1500, 1500, 1500
};
uint16_t hopPattern_40KBPS_10MS[L1_FRAME_40KBPS_10MS_HOPS] =
{
1600, 1650, 1700, 1750, 1800, 1850, 1900, 1550,
1500
};
uint16_t hopPattern_40KBPS_10MS[L1_FRAME_40KBPS_10MS_HOPS] =
{
1600
};
//uint16_t hopPattern_40KBPS_20MS[L1_FRAME_40KBPS_20MS_HOPS] =
//{
// 1600, 1650, 1700, 1750, 1800, 1850, 1900, 1550,
// 1500, 1450, 1400, 1350, 1300, 1250, 1200, 1150,
// 1100, 1050, 1000
//};
uint16_t hopPattern_40KBPS_20MS[L1_FRAME_40KBPS_20MS_HOPS] =
uint16_t hopPattern_40KBPS_20MS[L1_FRAME_40KBPS_20MS_HOPS] =
{
1600
1700, 1800, 1900, 2000, 1700, 1700, 1700, 1700,
1700, 1700, 1700, 1700, 1700, 1700, 1700, 1700,
1700, 1700, 1700
};
uint16_t hopPattern_200KBPS_5MS[L1_FRAME_200KBPS_5MS_HOPS] =
{
500, 1600, 1700, 1800, 1900, 2000, 1500, 1600,
500, 1600, 1700, 1800, 1900, 2000, 1500, 1600,
1700, 1800, 1900, 2000, 1500, 1600, 1700, 1800,
1900, 2000, 1500, 1500
};
uint16_t hopPattern_1M2BPS_5MS[L1_FRAME_1M2BPS_5MS_HOPS] =
uint16_t hopPattern_1M2BPS_5MS[L1_FRAME_1M2BPS_5MS_HOPS] =
{
500, 600, 700, 800, 900, 1000, 500, 600,
700, 800, 900, 1000, 500, 600, 700, 800,
900, 1000, 500, 500
500, 600, 700, 800, 900, 1000, 500, 600,
700, 800, 900, 1000, 500, 600, 700, 800,
900, 1000, 500, 500
};
// Pair by regex
// Regex: ((\{\.oaxis = [0-9]+[ ,]+\.raxis = [0-9]+[ ]*\}, ){2})
#ifdef PHY_BEAM_SET_PRESET
PHY_ANT_ANGLE antSubnrrwPattern[L1_NUM_ANT_SUBNRRW_PATTERN] =
{
{.oaxis = 0 , .raxis = 222}, {.oaxis = 10, .raxis = 85 },
{.oaxis = 14, .raxis = 307}, {.oaxis = 17, .raxis = 170},
{.oaxis = 19, .raxis = 32 }, {.oaxis = 21, .raxis = 255},
{.oaxis = 24, .raxis = 117}, {.oaxis = 25, .raxis = 340},
{.oaxis = 27, .raxis = 202}, {.oaxis = 29, .raxis = 65 },
{.oaxis = 31, .raxis = 287}, {.oaxis = 32, .raxis = 150},
{.oaxis = 34, .raxis = 12 }, {.oaxis = 35, .raxis = 235},
{.oaxis = 36, .raxis = 97 }, {.oaxis = 38, .raxis = 320},
{.oaxis = 39, .raxis = 182}, {.oaxis = 40, .raxis = 45 },
{.oaxis = 41, .raxis = 267}, {.oaxis = 43, .raxis = 130},
{.oaxis = 44, .raxis = 352}, {.oaxis = 45, .raxis = 215},
{.oaxis = 46, .raxis = 77 }, {.oaxis = 47, .raxis = 300},
{.oaxis = 48, .raxis = 162}, {.oaxis = 49, .raxis = 25 },
{.oaxis = 50, .raxis = 247}, {.oaxis = 51, .raxis = 110},
{.oaxis = 52, .raxis = 332}, {.oaxis = 53, .raxis = 195},
{.oaxis = 54, .raxis = 57 }, {.oaxis = 55, .raxis = 280},
{.oaxis = 56, .raxis = 142}, {.oaxis = 57, .raxis = 5 },
{.oaxis = 58, .raxis = 227}, {.oaxis = 59, .raxis = 90 },
{.oaxis = 60, .raxis = 312}
};
PHY_ANT_ANGLE antNrrwPattern[L1_NUM_ANT_NRRW_PATTERN] =
{
{.oaxis = 0 , .raxis = 222}, {.oaxis = 7 , .raxis = 85 },
{.oaxis = 10, .raxis = 307}, {.oaxis = 13, .raxis = 170},
{.oaxis = 15, .raxis = 32 }, {.oaxis = 17, .raxis = 255},
{.oaxis = 18, .raxis = 117}, {.oaxis = 20, .raxis = 340},
{.oaxis = 21, .raxis = 202}, {.oaxis = 22, .raxis = 65 },
{.oaxis = 24, .raxis = 287}, {.oaxis = 25, .raxis = 150},
{.oaxis = 26, .raxis = 12 }, {.oaxis = 27, .raxis = 235},
{.oaxis = 28, .raxis = 97 }, {.oaxis = 29, .raxis = 320},
{.oaxis = 30, .raxis = 182}, {.oaxis = 31, .raxis = 45 },
{.oaxis = 32, .raxis = 267}, {.oaxis = 33, .raxis = 130},
{.oaxis = 34, .raxis = 352}, {.oaxis = 34, .raxis = 215},
{.oaxis = 35, .raxis = 77 }, {.oaxis = 36, .raxis = 300},
{.oaxis = 37, .raxis = 162}, {.oaxis = 38, .raxis = 25 },
{.oaxis = 38, .raxis = 247}, {.oaxis = 39, .raxis = 110},
{.oaxis = 40, .raxis = 332}, {.oaxis = 41, .raxis = 195},
{.oaxis = 41, .raxis = 57 }, {.oaxis = 42, .raxis = 280},
{.oaxis = 43, .raxis = 142}, {.oaxis = 44, .raxis = 5 },
{.oaxis = 44, .raxis = 227}, {.oaxis = 45, .raxis = 90 },
{.oaxis = 46, .raxis = 312}, {.oaxis = 46, .raxis = 175},
{.oaxis = 47, .raxis = 37 }, {.oaxis = 48, .raxis = 260},
{.oaxis = 48, .raxis = 122}, {.oaxis = 49, .raxis = 345},
{.oaxis = 49, .raxis = 207}, {.oaxis = 50, .raxis = 70 },
{.oaxis = 51, .raxis = 292}, {.oaxis = 51, .raxis = 155},
{.oaxis = 52, .raxis = 17 }, {.oaxis = 53, .raxis = 240},
{.oaxis = 53, .raxis = 102}, {.oaxis = 54, .raxis = 325},
{.oaxis = 54, .raxis = 187}, {.oaxis = 55, .raxis = 50 },
{.oaxis = 55, .raxis = 272}, {.oaxis = 56, .raxis = 135},
{.oaxis = 57, .raxis = 357}, {.oaxis = 57, .raxis = 220},
{.oaxis = 58, .raxis = 82 }, {.oaxis = 58, .raxis = 305},
{.oaxis = 59, .raxis = 167}, {.oaxis = 59, .raxis = 30 },
{.oaxis = 60, .raxis = 252}
};
#else
PHY_ANT_ANGLE antSubnrrwPattern[L1_NUM_ANT_SUBNRRW_PATTERN] =
{
0
};
PHY_ANT_ANGLE antNrrwPattern[L1_NUM_ANT_NRRW_PATTERN] =
{
0
};
#endif
/*****************************************************************************/
/**
* @brief
* @brief Initialize antenna configurations (load preset values)
*
* @param antConfig
* @param antConfig pointer to antenna configure
*
* @return
* @return None.
*
******************************************************************************/
void Phy_AntConfigInit(PHY_ANT_CONFIG *antConfig)
@@ -242,32 +193,78 @@ void Phy_AntConfigInit(PHY_ANT_CONFIG *antConfig)
// ***********************
}
void Phy_AntConfigMode(PHY_INST *instPtr, PHY_ANT_MODE mode)
/*****************************************************************************/
/**
* @brief Update antenna power mode setting
*
* @param instPtr pointer to physical layer instance
* @param mode new antenna mode
*
* @return None.
*
******************************************************************************/
void Phy_AntConfigMode(PHY_INST *instPtr, PHY_ANT_MODE mode)
{
ASSERT(instPtr != NULL);
uint8_t config = instPtr->antConfig.antMode & ANT_MODE_BEAM_MASK;
switch (mode)
{
case PHY_ANT_MODE_SILENT:
config |= ANT_MODE_STANDBY;
case PHY_ANT_MODE_STANDBY:
config |= ANT_POWER_STANDBY;
break;
case PHY_ANT_MODE_LOW_POWER:
config |= ANT_MODE_LOW_POWER;
case PHY_ANT_MODE_POWER_LOW:
config |= ANT_POWER_LOW;
break;
case PHY_ANT_MODE_HIGH_POWER:
config |= ANT_MODE_HIGH_POWER;
case PHY_ANT_MODE_POWER_FULL:
config |= ANT_POWER_FULL;
break;
default:
DBG_ERROR("Unknown antenna mode: %" PRIu8 ", remain previous mode.\n", mode);
return;
}
instPtr->phyLog.antMode = mode;
instPtr->antConfig.antMode = config;
}
int32_t Phy_SetBeamNo(PHY_INST *instPtr, int32_t beamNo)
/*****************************************************************************/
/**
* @brief Update antenna beam width setting
*
* @param instPtr pointer to physical layer instance
* @param table new beam table
* @param offset table offset
*
* @return None
*
******************************************************************************/
void Phy_SetBeamTable(PHY_INST *instPtr, PHY_ANT_ANGLE *table, uint32_t offset)
{
ASSERT(instPtr != NULL);
if (instPtr->beamWd.next == PHY_ANT_BEAM_8)
ASSERT(table != NULL);
for (int i = 0; i < L1_NUM_ANT_NRRW_PATTERN; i++)
{
instPtr->antNrrwPattern[i] = table[(i+offset) % L1_NUM_ANT_NRRW_PATTERN];
}
memcpy((uint32_t*)instPtr->antInfoAddr, instPtr->antNrrwPattern,
L1_NUM_ANT_NRRW_PATTERN*sizeof(PHY_ANT_ANGLE));
}
/*****************************************************************************/
/**
* @brief Update antenna point direction using predefined beam table
*
* @param instPtr pointer to physical layer instance
* @param beamNo new beam index
*
* @return SUCCESS.
* FAILURE beamNo exceeds the table size
*
******************************************************************************/
int32_t Phy_SetBeamNo(PHY_INST *instPtr, int32_t beamNo, PHY_ANT_BEAM_WIDTH beamWidth)
{
ASSERT(instPtr != NULL);
if (beamWidth == PHY_ANT_BEAM_16)
{
if (beamNo >= L1_NUM_ANT_NRRW_PATTERN)
{
@@ -276,26 +273,10 @@ int32_t Phy_SetBeamNo(PHY_INST *instPtr, int32_t beamNo)
else
{
instPtr->beamNo.next = beamNo;
instPtr->antConfig.oaxis[1] = (uint8_t)(antNrrwPattern[beamNo].oaxis);
instPtr->antConfig.oaxis[0] = (uint8_t)((antNrrwPattern[beamNo].oaxis) >> 8);
instPtr->antConfig.raxis[1] = (uint8_t)(antNrrwPattern[beamNo].raxis);
instPtr->antConfig.raxis[0] = (uint8_t)((antNrrwPattern[beamNo].raxis) >> 8);
return SUCCESS;
}
}
else if (instPtr->beamWd.next == PHY_ANT_BEAM_25)
{
if (beamNo >= L1_NUM_ANT_SUBNRRW_PATTERN)
{
return FAILURE;
}
else
{
instPtr->beamNo.next = beamNo;
instPtr->antConfig.oaxis[1] = (uint8_t)(antSubnrrwPattern[beamNo].oaxis);
instPtr->antConfig.oaxis[0] = (uint8_t)((antSubnrrwPattern[beamNo].oaxis) >> 8);
instPtr->antConfig.raxis[1] = (uint8_t)(antSubnrrwPattern[beamNo].raxis);
instPtr->antConfig.raxis[0] = (uint8_t)((antSubnrrwPattern[beamNo].raxis) >> 8);
instPtr->antConfig.oaxis[0] = (uint8_t)(instPtr->antNrrwPattern[beamNo].oaxis >> 8);
instPtr->antConfig.oaxis[1] = (uint8_t)(instPtr->antNrrwPattern[beamNo].oaxis);
instPtr->antConfig.raxis[0] = (uint8_t)(instPtr->antNrrwPattern[beamNo].raxis >> 8);
instPtr->antConfig.raxis[1] = (uint8_t)(instPtr->antNrrwPattern[beamNo].raxis);
return SUCCESS;
}
}
@@ -304,15 +285,26 @@ int32_t Phy_SetBeamNo(PHY_INST *instPtr, int32_t beamNo)
// Beam number assign not support.
// Assign default angle (0,0)
instPtr->beamNo.next = 0;
instPtr->antConfig.oaxis[1] = 0;
instPtr->antConfig.oaxis[0] = 0;
instPtr->antConfig.raxis[1] = 0;
instPtr->antConfig.oaxis[1] = 0;
instPtr->antConfig.raxis[0] = 0;
instPtr->antConfig.raxis[1] = 0;
DBG_WARNING("Using default beam number...\n");
return SUCCESS;
}
}
/*****************************************************************************/
/**
* @brief Update antenna beam width setting
*
* @param instPtr pointer to physical layer instance
* @param beamWidth new beam width
*
* @return SUCCESS.
* EPARAM - the direction is exceeds predefined range
*
******************************************************************************/
int32_t Phy_SetBeamWidth(PHY_INST *instPtr, PHY_ANT_BEAM_WIDTH beamWidth)
{
ASSERT(instPtr != NULL);
@@ -320,28 +312,38 @@ int32_t Phy_SetBeamWidth(PHY_INST *instPtr, PHY_ANT_BEAM_WIDTH beamWidth)
switch (beamWidth)
{
case PHY_ANT_BEAM_120:
beamConfig |= ANT_MODE_WIDE_BEAM_3;
beamConfig |= ANT_BEAM_WIDE;
break;
case PHY_ANT_BEAM_60:
beamConfig |= ANT_MODE_WIDE_BEAM_2;
beamConfig |= ANT_BEAM_SUBNARROR_1;
break;
case PHY_ANT_BEAM_25:
beamConfig |= ANT_MODE_WIDE_BEAM_1;
beamConfig |= ANT_BEAM_SUBNARROR_0;
break;
case PHY_ANT_BEAM_8:
beamConfig |= ANT_MODE_NARROR_BEAM;
case PHY_ANT_BEAM_16:
beamConfig |= ANT_BEAM_NARROR;
break;
default:
DBG_ERROR("Beam width code: 0x%08X is illegal.\n\r", beamWidth);
return EPARAM;
break;
}
instPtr->antConfig.antMode = beamConfig;
instPtr->beamWd.next = beamWidth;
return SUCCESS;
}
// Common version radius double input
/*****************************************************************************/
/**
* @brief Set antenna to a specific direction
*
* @param instPtr pointer to physical layer instance
* @param offAx elevation angle
* @param rndAx azimuth angle
*
* @return SUCCESS.
* EPARAM - the direction is exceeds predefined range
*
******************************************************************************/
int32_t Phy_SetBeamAngle(PHY_INST *instPtr, double offAx, double rndAx)
{
ASSERT(instPtr != NULL);
@@ -357,9 +359,9 @@ int32_t Phy_SetBeamAngle(PHY_INST *instPtr, double offAx, double rndAx)
}
offAxDeg = offAxDeg * 10;
rndAxDeg = rndAxDeg * 10;
instPtr->antConfig.oaxis[1] = (uint8_t)offAxDeg;
instPtr->antConfig.oaxis[0] = (uint8_t)(offAxDeg >> 8);
instPtr->antConfig.raxis[1] = (uint8_t)rndAxDeg;
instPtr->antConfig.oaxis[1] = (uint8_t)offAxDeg;
instPtr->antConfig.raxis[0] = (uint8_t)(rndAxDeg >> 8);
instPtr->antConfig.raxis[1] = (uint8_t)rndAxDeg;
return SUCCESS;
}
@@ -26,6 +26,7 @@
#include <stdlib.h>
#include <math.h>
#include "phy_layer.h"
#include "phy_reg.h"
#include "util.h"
#include "error.h"
#ifndef EMULATION
@@ -33,7 +34,6 @@
#include "xadcps.h"
#endif
/************************** Constant Definitions *****************************/
#define L1_FRAME_LEN_MAX (8192 / 8) // byte
#define L1_FRAME_2KBPS_20MS_LEN 0 // byte
@@ -184,24 +184,25 @@ inline L1_FRAME_TYPE Phy_GetLastRecvFrameType(PHY_INST *instPtr)
return L1_NONE_FRAME;
}
int32_t frame_type = (PhyRead(instPtr, COASE_FREQEST) & COASE_TYPE_MASK);
switch (frame_type) {
case COASE_TYPE_2KBPS_20MS:
switch (frame_type)
{
case COASE_TYPE_2KBPS_20MS:
return L1_2KBPS_20MS_FRAME;
case COASE_TYPE_2KBPS_100MS:
case COASE_TYPE_2KBPS_100MS:
return L1_2KBPS_100MS_FRAME;
case COASE_TYPE_10KBPS_10MS:
case COASE_TYPE_10KBPS_10MS:
return L1_10KBPS_10MS_FRAME;
case COASE_TYPE_10KBPS_20MS:
case COASE_TYPE_10KBPS_20MS:
return L1_10KBPS_20MS_FRAME;
case COASE_TYPE_40KBPS_20MS:
case COASE_TYPE_40KBPS_20MS:
return L1_40KBPS_20MS_FRAME;
case COASE_TYPE_40KBPS_10MS:
case COASE_TYPE_40KBPS_10MS:
return L1_40KBPS_10MS_FRAME;
case COASE_TYPE_200KBPS_5MS:
case COASE_TYPE_200KBPS_5MS:
return L1_200KBPS_5MS_FRAME;
case COASE_TYPE_1M2BPS_5MS:
case COASE_TYPE_1M2BPS_5MS:
return L1_1M2BPS_5MS_FRAME;
default:
default:
return L1_NONE_FRAME;
}
}
@@ -307,31 +308,35 @@ void Phy_UpdateState(PHY_INST *instPtr)
{
instPtr->isValid = false;
}
// Logging
instPtr->recvSlotTime.int_part = PhyRead(instPtr, TM_TARGET_H);
instPtr->recvSlotTime.frac_part = PhyRead(instPtr, TM_TARGET_L);
instPtr->recvFsTime.int_part = PhyRead(instPtr, FSTIME_H);
instPtr->recvFsTime.frac_part = PhyRead(instPtr, FSTIME_L);
instPtr->phyLog.acqCnt = PhyRead(instPtr, PHY_ACQ_CNT);
instPtr->phyLog.fsyncCnt = PhyRead(instPtr, PHY_FRAME_SYNC_CNT);
instPtr->phyLog.decodeCnt = PhyRead(instPtr, PHY_DECODE_CNT);
instPtr->phyLog.crcCnt = PhyRead(instPtr, PHY_CRC_OK_CNT);
instPtr->phyLog.doppler = Phy_GetFreqEst(instPtr);
instPtr->phyLog.recvStamp = (uint64_t)instPtr->recvFsTime.int_part * TIME_FRAC_MAX + instPtr->recvFsTime.frac_part;
instPtr->phyLog.acqPeak = PhyRead(instPtr, PHY_ACQ_PEAK_L);
instPtr->phyLog.acqPeak |= ((uint64_t)PhyRead(instPtr, PHY_ACQ_PEAK_H)) << 32;
instPtr->phyLog.acqMean = PhyRead(instPtr, PHY_ACQ_MEAN_L);
instPtr->phyLog.acqMean |= ((uint64_t)PhyRead(instPtr, PHY_ACQ_MEAN_H)) << 32;
uint64_t peak, avg;
peak = PhyRead(instPtr, PHY_ACQ_PEAK_L);
peak |= ((uint64_t)PhyRead(instPtr, PHY_ACQ_PEAK_H)) << 32;
avg = PhyRead(instPtr, PHY_ACQ_MEAN_L);
avg |= ((uint64_t)PhyRead(instPtr, PHY_ACQ_MEAN_H)) << 32;
instPtr->phyLog.acqPAPR = ((double)peak) / ((double)avg);
instPtr->phyLog.acqPhase = (PhyRead(instPtr, PHY_ACQ_FREQEST) & PHY_ACQ_FREQEST_PHASE_MASK) >> PHY_ACQ_FREQEST_PHASE_SHIFT;
instPtr->phyLog.acqFreqCh = (PhyRead(instPtr, PHY_ACQ_FREQEST) & PHY_ACQ_FREQEST_CHANNEL_MASK) >> PHY_ACQ_FREQEST_CHANNEL_SHIFT;
instPtr->phyLog.fsyncPeak = PhyRead(instPtr, PHY_FRAME_SYNC_PEAK_L);
instPtr->phyLog.fsyncPeak |= ((uint64_t)PhyRead(instPtr, PHY_FRAME_SYNC_PEAK_H)) << 32;
instPtr->phyLog.fsyncMean = PhyRead(instPtr, PHY_FRAME_SYNC_MEAN_L);
instPtr->phyLog.fsyncMean |= ((uint64_t)PhyRead(instPtr, PHY_FRAME_SYNC_MEAN_H)) << 32;
peak = PhyRead(instPtr, PHY_FRAME_SYNC_PEAK_L);
peak |= ((uint64_t)PhyRead(instPtr, PHY_FRAME_SYNC_PEAK_H)) << 32;
avg = PhyRead(instPtr, PHY_FRAME_SYNC_MEAN_L);
avg |= ((uint64_t)PhyRead(instPtr, PHY_FRAME_SYNC_MEAN_H)) << 32;
instPtr->phyLog.fsyncPAPR = ((double)peak) / ((double)avg);
instPtr->phyLog.fsyncFreqCh = (PhyRead(instPtr, PHY_FRAME_SYNC_FREQEST) & PHY_FRAME_SYNC_FREQEST_CHANNEL_MASK) >> PHY_FRAME_SYNC_FREQEST_CHANNEL_SHIFT;
instPtr->phyLog.deintlvAmpEst = PhyRead(instPtr, PHY_DEINTLV_AMPEST) & PHY_DEINTLV_AMPEST_MASK;
instPtr->phyLog.reserve = 0;
memset(instPtr->phyLog.reserve, 0x00, sizeof(instPtr->phyLog.reserve));
// Sync logs to system monitor
SysMonitor_UpdatePhysicalLayerLog(&(instPtr->phyLog));
}
@@ -357,6 +362,7 @@ int32_t Phy_InstInit(PHY_INST **instPtr, PHY_CONFIG *phyConfig)
{
return ENOMEM;
}
memset(*instPtr, 0x00, sizeof(PHY_INST));
memcpy(&((*instPtr)->phyCofig), phyConfig, sizeof(PHY_CONFIG));
(*instPtr)->isPhyEn = false;
@@ -454,6 +460,42 @@ int32_t Phy_InstInit(PHY_INST **instPtr, PHY_CONFIG *phyConfig)
(*instPtr)->recvDataAddr = rxDataBram.Config.MemBaseAddress;
(*instPtr)->sendDataAddr = txDataBram.Config.MemBaseAddress;
// Setup antenna presets
XBram antInfoBram;
if (phyConfig->antInfoBramId != -1)
{
bramConfigPtr = XBram_LookupConfig(phyConfig->antInfoBramId);
if (bramConfigPtr == NULL)
{
Status = EDCONF;
goto init_error;
}
Status = XBram_CfgInitialize(&antInfoBram, bramConfigPtr,
bramConfigPtr->CtrlBaseAddress);
if (Status != SUCCESS)
{
goto init_error;
}
/*
* Execute the BRAM driver self test.
*/
Status = XBram_SelfTest(&antInfoBram, 0);
if (Status != SUCCESS)
{
goto init_error;
}
(*instPtr)->antInfoAddr = antInfoBram.Config.MemBaseAddress;
uint32_t phyMainCtrl = PhyRead(*instPtr, PHY_MAIN_CTRL);
phyMainCtrl &= ~PHY_MAIN_CTRL_NSCAN_MASK;
phyMainCtrl |= PHY_MAIN_CTRL_NSCAN_MASK &
(L1_NUM_ANT_NRRW_PATTERN << PHY_MAIN_CTRL_NSCAN_SHIFT);
PhyWrite(*instPtr, PHY_MAIN_CTRL, phyMainCtrl);
}
else
{
(*instPtr)->antInfoAddr = NULL;
}
/* Initialize the XAdc driver. */
XAdcPs_Config *xadcConfigPtr;
@@ -581,7 +623,7 @@ void Phy_Halt(PHY_INST *instPtr)
int32_t Phy_SetMode(PHY_INST *instPtr, PHY_MODE modeCod)
{
ASSERT(instPtr != NULL);
uint32_t phyMainCtrl = PhyRead(instPtr, PHY_MAIN_CTRL) & ~PHY_MAIN_CTRL_MODE_MASK;
switch (modeCod)
{
@@ -648,52 +690,52 @@ int32_t Phy_SetupNextSlot(PHY_INST *instPtr, PHY_TOR_TYPE txrxMode,
}
else
{
switch (frameType)
{
case L1_2KBPS_20MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_2KBPS_20MS;
hopNum = L1_FRAME_2KBPS_20MS_HOPS;
hopPattern = hopPattern_2KBPS_20MS;
break;
case L1_2KBPS_100MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_2KBPS_100MS;
hopNum = L1_FRAME_2KBPS_100MS_HOPS;
hopPattern = hopPattern_2KBPS_100MS;
break;
case L1_10KBPS_10MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_10KBPS_10MS;
hopNum = L1_FRAME_10KBPS_10MS_HOPS;
hopPattern = hopPattern_10KBPS_10MS;
break;
case L1_10KBPS_20MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_10KBPS_20MS;
hopNum = L1_FRAME_10KBPS_20MS_HOPS;
hopPattern = hopPattern_10KBPS_20MS;
break;
case L1_40KBPS_20MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_40KBPS_20MS;
hopNum = L1_FRAME_40KBPS_20MS_HOPS;
hopPattern = hopPattern_40KBPS_20MS;
break;
case L1_40KBPS_10MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_40KBPS_10MS;
hopNum = L1_FRAME_40KBPS_10MS_HOPS;
hopPattern = hopPattern_40KBPS_10MS;
break;
case L1_200KBPS_5MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_200KBPS_5MS;
hopNum = L1_FRAME_200KBPS_5MS_HOPS;
hopPattern = hopPattern_200KBPS_5MS;
break;
case L1_1M2BPS_5MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_1M2BPS_5MS;
hopNum = L1_FRAME_1M2BPS_5MS_HOPS;
hopPattern = hopPattern_1M2BPS_5MS;
break;
default:
return EPARAM;
break;
}
switch (frameType)
{
case L1_2KBPS_20MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_2KBPS_20MS;
hopNum = L1_FRAME_2KBPS_20MS_HOPS;
hopPattern = hopPattern_2KBPS_20MS;
break;
case L1_2KBPS_100MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_2KBPS_100MS;
hopNum = L1_FRAME_2KBPS_100MS_HOPS;
hopPattern = hopPattern_2KBPS_100MS;
break;
case L1_10KBPS_10MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_10KBPS_10MS;
hopNum = L1_FRAME_10KBPS_20MS_HOPS;
hopPattern = hopPattern_10KBPS_20MS;
break;
case L1_10KBPS_20MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_10KBPS_20MS;
hopNum = L1_FRAME_10KBPS_20MS_HOPS;
hopPattern = hopPattern_10KBPS_20MS;
break;
case L1_40KBPS_20MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_40KBPS_20MS;
hopNum = L1_FRAME_40KBPS_20MS_HOPS;
hopPattern = hopPattern_40KBPS_20MS;
break;
case L1_40KBPS_10MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_40KBPS_10MS;
hopNum = L1_FRAME_40KBPS_10MS_HOPS;
hopPattern = hopPattern_40KBPS_10MS;
break;
case L1_200KBPS_5MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_200KBPS_5MS;
hopNum = L1_FRAME_200KBPS_5MS_HOPS;
hopPattern = hopPattern_200KBPS_5MS;
break;
case L1_1M2BPS_5MS_FRAME:
phyModeCtrl |= PHY_MODE_CTRL_FRAME_1M2BPS_5MS;
hopNum = L1_FRAME_1M2BPS_5MS_HOPS;
hopPattern = hopPattern_1M2BPS_5MS;
break;
default:
return EPARAM;
break;
}
}
// Set frame configs
@@ -703,24 +745,22 @@ int32_t Phy_SetupNextSlot(PHY_INST *instPtr, PHY_TOR_TYPE txrxMode,
const uint8_t *dataSrcPtr = (uint8_t *)(&(instPtr->antConfig));
for (int32_t i = 0; i < hopNum; i++)
{
instPtr->antConfig.antFreq[1] = (uint8_t)(hopPattern[i] & 0x00FF);
instPtr->antConfig.antFreq[0] = (uint8_t)((hopPattern[i] >> 8) & 0x00FF);
instPtr->antConfig.rfFreq[1] = (uint8_t)(hopPattern[i] & 0x00FF);
instPtr->antConfig.rfFreq[0] = (uint8_t)((hopPattern[i] >> 8) & 0x00FF);
memcpy((uint8_t *)(antConfigAddr + i *ANT_COINFO_LEN),
instPtr->antConfig.antFreq[0] = (uint8_t)(hopPattern[i] >> 8);
instPtr->antConfig.antFreq[1] = (uint8_t)hopPattern[i];
instPtr->antConfig.rfFreq[0] = (uint8_t)(hopPattern[i] >> 8);
instPtr->antConfig.rfFreq[1] = (uint8_t)hopPattern[i];
memcpy((uint8_t *)(antConfigAddr + i * ANT_COINFO_LEN),
dataSrcPtr, sizeof(PHY_ANT_CONFIG));
}
uint32_t antCtrl = (instPtr->antConfigOffset & ANT_CONFIG_OFFSET_MASK)
| ((hopNum << ANT_CONFIG_NUM_SHIFT) & ANT_CONFIG_NUM_MASK)
| ((ANT_COINFO_LEN << ANT_CONFIG_LEN_SHIFT) & ANT_CONFIG_LEN_MASK);
uint32_t antCtrl = (instPtr->antConfigOffset & ANT_CONFIG_OFFSET_MASK) | ((hopNum << ANT_CONFIG_NUM_SHIFT) & ANT_CONFIG_NUM_MASK) | ((ANT_COINFO_LEN << ANT_CONFIG_LEN_SHIFT) & ANT_CONFIG_LEN_MASK);
/*
memcpy((uint8_t*)antConfigDataAddr, hopPattern, hopNum*sizeof(uint16_t));
uint32_t antCtrl = (instPtr->antCoinfigOffset & ANT_CONFIG_OFFSET_MASK)
| ((hopNum << ANT_CONFIG_NUM_SHIFT) & ANT_CONFIG_NUM_MASK)
| ((sizeof(uint16_t) << ANT_CONFIG_LEN_SHIFT) & ANT_CONFIG_LEN_MASK);
*/
// Set antenna configs
PhyWrite(instPtr, ANT_CONFIG, antCtrl);
@@ -736,7 +776,7 @@ int32_t Phy_SetupNextSlot(PHY_INST *instPtr, PHY_TOR_TYPE txrxMode,
}
// Trigger physical configuration.
// Indicate physical layer that all the configurations were done.
// Indicate physical layer that all the configurations were done.
PhyWrite(instPtr, SLOT_CMD, SLOT_CMD_KEY);
Phy_RcdShift(&(instPtr->tor), txrxMode);
@@ -819,6 +859,21 @@ uint32_t Phy_GetTimeComp(L1_FRAME_TYPE frameType)
}
}
/*****************************************************************************/
/**
* @brief Get the last scan beam number after autoscan.
*
* @param instPtr a pointer to physical instance
*
* @return beam number
*
******************************************************************************/
uint8_t Phy_LastScanBeamNo(PHY_INST *instPtr)
{
ASSERT(instPtr != NULL);
return (uint8_t)PhyRead(instPtr, BEAM_SELECT_INDEX);
}
/*****************************************************************************/
/**
* @brief Get frequency estimation of last valid frame.
@@ -837,7 +892,6 @@ double Phy_GetFreqEst(PHY_INST *instPtr)
L1_FRAME_TYPE frameType;
double coarse, fine;
frameType = Phy_GetLastRecvFrameType(instPtr);
if (frameType > L1_1M2BPS_5MS_FRAME || frameType <= L1_NONE_FRAME)
{
@@ -855,7 +909,7 @@ double Phy_GetFreqEst(PHY_INST *instPtr)
coarse = (double)(8 - acqFreqIdx) * (250e3 / 4);
coarse += (double)syncFreqIdx * 12e6 / 64 / 128;
fine = 48e6/2048*((double)estAbs)/8192.0;
fine = 48e6 / 2048 * ((double)estAbs) / 8192.0;
}
else
{
@@ -863,12 +917,11 @@ double Phy_GetFreqEst(PHY_INST *instPtr)
coarse = (double)(80 - acqFreqIdx) * (31.25e3 / 4);
coarse += (double)syncFreqIdx * 1.5e6 / 64 / 128;
fine = 12e6/2048*((double)estAbs)/8192.0;
fine = 12e6 / 2048 * ((double)estAbs) / 8192.0;
}
fine = ((fineReg & FINE_FREQEST_SIGN_MASK) == FINE_FREQEST_SIGN_NEG) ?
-fine : fine;
fine = ((fineReg & FINE_FREQEST_SIGN_MASK) == FINE_FREQEST_SIGN_NEG) ? -fine : fine;
return (coarse + fine);
}
@@ -939,15 +992,14 @@ double Phy_GetFineFreqEst(PHY_INST *instPtr)
if (frameType >= L1_200KBPS_5MS_FRAME)
{
// 12M Rc
freqEst = 48e6/2048*((double)estAbs)/8192.0;
freqEst = 48e6 / 2048 * ((double)estAbs) / 8192.0;
}
else
{
// 1.5M Rc
freqEst = 12e6/2048*((double)estAbs)/8192.0;
freqEst = 12e6 / 2048 * ((double)estAbs) / 8192.0;
}
freqEst = ((regValue & FINE_FREQEST_SIGN_MASK) == FINE_FREQEST_SIGN_NEG) ?
-freqEst : freqEst;
freqEst = ((regValue & FINE_FREQEST_SIGN_MASK) == FINE_FREQEST_SIGN_NEG) ? -freqEst : freqEst;
return freqEst;
}
@@ -1078,7 +1130,6 @@ void Phy_GetLastReceivedSlotStartTimeStamp(PHY_INST *instPtr, TIME_WORD *slotSta
memcpy(slotStart, &(instPtr->recvSlotTime), sizeof(TIME_WORD));
}
/*****************************************************************************/
/**
* @brief Copy ans store the received data, if received data valid.
@@ -1143,58 +1194,88 @@ void Phy_RefreshHwSate(PHY_INST *instPtr)
#ifndef EMULATION
float evalData;
instPtr->hwSate.isSpOk = true;
// -- Update Ps voltage, unit mV
// -- Update FPGA voltage status;
instPtr->hwSate.spFpgaVolt = 0;
rawData = XAdcPs_GetAdcData(&(instPtr->hwXadc), XADCPS_CH_VCCPINT);
evalData = XAdcPs_RawToVoltage(rawData);
instPtr->hwSate.spPsVolt = (evalData > VOLTAGE_MAX) ? UINT8_MAX : (uint8_t) round(evalData/VOLTAGE_LSB);
instPtr->hwSate.isSpOk = instPtr->hwSate.isSpOk && IS_PS_VALID(evalData);
instPtr->hwSate.spFpgaVolt |= (IS_PS_VALID(evalData)) ? VOLT_PS_OK : 0;
// -- Update Ps aux voltage, unit mV
// -- -- Update Ps aux voltage
rawData = XAdcPs_GetAdcData(&(instPtr->hwXadc), XADCPS_CH_VCCPAUX);
evalData = XAdcPs_RawToVoltage(rawData);
instPtr->hwSate.spPsAuxVolt = (evalData > VOLTAGE_MAX) ? UINT8_MAX : (uint8_t) round(evalData/VOLTAGE_LSB);
instPtr->hwSate.isSpOk = instPtr->hwSate.isSpOk && IS_PSAUX_VALID(evalData);
instPtr->hwSate.spFpgaVolt |= (IS_PSAUX_VALID(evalData)) ? VOLT_PSAUX_OK : 0;
// -- Update DDR voltage, unit mV
// -- -- Update DDR voltage
rawData = XAdcPs_GetAdcData(&(instPtr->hwXadc), XADCPS_CH_VCCPDRO);
evalData = XAdcPs_RawToVoltage(rawData);
instPtr->hwSate.spDdrVolt = (evalData > VOLTAGE_MAX) ? UINT8_MAX : (uint8_t) round(evalData/VOLTAGE_LSB);
instPtr->hwSate.isSpOk = instPtr->hwSate.isSpOk && IS_DDR_VALID(evalData);
instPtr->hwSate.spFpgaVolt |= (IS_DDR_VALID(evalData)) ? VOLT_DDR_OK : 0;
// -- Update PL voltage, unit mV
// -- -- Update PL voltage
rawData = XAdcPs_GetAdcData(&(instPtr->hwXadc), XADCPS_CH_VCCINT);
evalData = XAdcPs_RawToVoltage(rawData);
instPtr->hwSate.spPlVolt = (evalData > VOLTAGE_MAX) ? UINT8_MAX : (uint8_t) round(evalData/VOLTAGE_LSB);
instPtr->hwSate.isSpOk = instPtr->hwSate.isSpOk && IS_PL_VALID(evalData);
instPtr->hwSate.spFpgaVolt |= (IS_PL_VALID(evalData)) ? VOLT_PL_OK : 0;
// -- Update PL aux voltage, unit mV
// -- -- Update PL aux voltage
rawData = XAdcPs_GetAdcData(&(instPtr->hwXadc), XADCPS_CH_VCCAUX);
evalData = XAdcPs_RawToVoltage(rawData);
instPtr->hwSate.spPlAuxVolt = (evalData > VOLTAGE_MAX) ? UINT8_MAX : (uint8_t) round(evalData/VOLTAGE_LSB);
instPtr->hwSate.isSpOk = instPtr->hwSate.isSpOk && IS_PLAUX_VALID(evalData);
instPtr->hwSate.spFpgaVolt |= (IS_PLAUX_VALID(evalData)) ? VOLT_PLAUX_OK : 0;
// -- Update Bram voltage, unit mV
// -- -- Update Bram voltage
rawData = XAdcPs_GetAdcData(&(instPtr->hwXadc), XADCPS_CH_VBRAM);
evalData = XAdcPs_RawToVoltage(rawData);
instPtr->hwSate.spBramVolt = (evalData > VOLTAGE_MAX) ? UINT8_MAX : (uint8_t) round(evalData/VOLTAGE_LSB);
instPtr->hwSate.isSpOk = instPtr->hwSate.isSpOk && IS_BRAM_VALID(evalData);
instPtr->hwSate.spFpgaVolt |= (IS_BRAM_VALID(evalData)) ? VOLT_BRAM_OK : 0;
// -- Update Chip temperature, unit 0.01 deg
// -- Update clock lock state
if (instPtr->phyCofig.get_clk_state != NULL)
{
instPtr->hwSate.spClkState = instPtr->phyCofig.get_clk_state();
}
else
{
instPtr->hwSate.spClkState = 0;
}
// -- Update AD9361 pll lock state
if (instPtr->phyCofig.get_ad_lock_state != NULL)
{
instPtr->hwSate.spAdLockState = instPtr->phyCofig.get_ad_lock_state();
}
else
{
instPtr->hwSate.spAdLockState = 0;
}
// -- Update AD9361-0 temperature, unit 1 Celcius degree
if (instPtr->phyCofig.get_ad0_temp != NULL)
{
instPtr->hwSate.spAdTemp_0 = instPtr->phyCofig.get_ad0_temp();
}
else
{
instPtr->hwSate.spAdTemp_0 = 0;
}
// -- Update AD9361-1 temperature, unit 1 Celcius degree
if (instPtr->phyCofig.get_ad1_temp != NULL)
{
instPtr->hwSate.spAdTemp_1 = instPtr->phyCofig.get_ad1_temp();
}
else
{
instPtr->hwSate.spAdTemp_1 = 0;
}
// -- Update FPGA Chip temperature, unit 1 deg
rawData = XAdcPs_GetAdcData(&(instPtr->hwXadc), XADCPS_CH_TEMP);
evalData = XAdcPs_RawToTemperature(rawData);
instPtr->hwSate.spTemp = (evalData > TEMPERATURE_MAX)
? INT8_MAX
: ((evalData < TEMPERATURE_MIN) ? INT8_MIN : (int8_t) round(evalData/TEMPERATURE_LSB));
instPtr->hwSate.spFpgaTemp = (evalData > TEMPERATURE_MAX)
? INT8_MAX
: ((evalData < TEMPERATURE_MIN) ? INT8_MIN : (int8_t)round(evalData / TEMPERATURE_LSB));
instPtr->hwSate.isSpOk = (instPtr->hwSate.spFpgaVolt == (VOLT_PS_OK | VOLT_PSAUX_OK | VOLT_DDR_OK | VOLT_PL_OK | VOLT_PLAUX_OK | VOLT_BRAM_OK))
&& (instPtr->hwSate.spClkState == (CLK_SP_PLL0_LOCK | CLK_SP_PLL1_LOCK))
&& (instPtr->hwSate.spAdLockState == (CLK_AD0_BBPLL_LOCK | CLK_AD0_RFPLL_LOCK | CLK_AD1_BBPLL_LOCK | CLK_AD1_RFPLL_LOCK));
#else
instPtr->spPsVolt = 0;
instPtr->spPsAuxVolt = 0;
instPtr->spDdrVolt = 0;
instPtr->spPlVolt = 0;
instPtr->spPlAuxVolt = 0;
instPtr->spBramVolt = 0;
instPtr->spTemp = 0;
instPtr->isSpOk = true;
instPtr->hwSate.isSpOk = true;
#endif
/*** Voltage and Status ***/
rawData = PhyRead(instPtr, ANT_STATUS);
@@ -1203,10 +1284,10 @@ void Phy_RefreshHwSate(PHY_INST *instPtr)
// [2] - RF voltage status
// [4] - NIL voltage status
// [6] - Antenna status
instPtr->hwSate.antVolt = ((rawData & ANT_STATUS_ANT_VOLT_MASK) == ANT_STATUS_ANT_VOLT_OK) ? 0x01 : 0x00;
instPtr->hwSate.antVolt |= ((rawData & ANT_STATUS_RF_VOLT_MASK) == ANT_STATUS_RF_VOLT_OK) ? 0x04 : 0x00;
instPtr->hwSate.antVolt |= ((rawData & ANT_STATUS_NIL_VOLT_MASK) == ANT_STATUS_NIL_VOLT_OK) ? 0x10 : 0x00;
instPtr->hwSate.antVolt |= ((rawData & ANT_STATUS_CODE_MASK) == ANT_STATUS_CODE_OK) ? 0x40 : 0x00;
instPtr->hwSate.antVolt = ((rawData & ANT_STATUS_ANT_VOLT_MASK) == ANT_STATUS_ANT_VOLT_OK) ? VOLT_ANT_PROC_OK : 0x00;
instPtr->hwSate.antVolt |= ((rawData & ANT_STATUS_RF_VOLT_MASK) == ANT_STATUS_RF_VOLT_OK) ? VOLT_ANT_RF_OK : 0x00;
instPtr->hwSate.antVolt |= ((rawData & ANT_STATUS_NIL_VOLT_MASK) == ANT_STATUS_NIL_VOLT_OK) ? VOLT_ANT_NIL_OK : 0x00;
instPtr->hwSate.antVolt |= ((rawData & ANT_STATUS_CODE_MASK) == ANT_STATUS_CODE_OK) ? ANT_STATE_OK : 0x00;
/*** Temperature and Lock Status ***/
rawData = PhyRead(instPtr, ANT_RF_STATUS);
@@ -1216,9 +1297,9 @@ void Phy_RefreshHwSate(PHY_INST *instPtr)
// [0] - BASEBAND lock status
// [2] - PLLA lock status
// [4] - PLLB lock status
instPtr->hwSate.antPll = ((rawData & ANT_RF_STATUS_BBLOCK_MASK) == ANT_RF_STATUS_BBLOCK_OK) ? 0x01 : 0x00;
instPtr->hwSate.antPll |= ((rawData & ANT_RF_STATUS_PLLA_MASK) == ANT_RF_STATUS_PLLA_OK) ? 0x04 : 0x00;
instPtr->hwSate.antPll |= ((rawData & ANT_RF_STATUS_PLLB_MASK) == ANT_RF_STATUS_PLLB_OK) ? 0x10 : 0x00;
instPtr->hwSate.antPll = ((rawData & ANT_RF_STATUS_BBLOCK_MASK) == ANT_RF_STATUS_BBLOCK_OK) ? CLK_ANT_BBPLL_LOCK : 0x00;
instPtr->hwSate.antPll |= ((rawData & ANT_RF_STATUS_PLLA_MASK) == ANT_RF_STATUS_PLLA_OK) ? CLK_ANT_RFPLL0_LOCK : 0x00;
instPtr->hwSate.antPll |= ((rawData & ANT_RF_STATUS_PLLB_MASK) == ANT_RF_STATUS_PLLB_OK) ? CLK_ANT_RFPLL1_LOCK : 0x00;
/*** MGCs ***/
rawData = PhyRead(instPtr, ANT_RF_MGC);
@@ -1233,14 +1314,10 @@ void Phy_RefreshHwSate(PHY_INST *instPtr)
instPtr->hwSate.antMgc1 |= (rawData & ANT_RF_MGC_CH4_MASK) >> 24;
// Determin if antenna is ok.
if(instPtr->hwSate.antVolt != 0x55 //01010101
||instPtr->hwSate.antPll != 0x15) // 00010101
{
instPtr->hwSate.isSpOk = false;
}
else
{
instPtr->hwSate.isSpOk = true;
}
instPtr->hwSate.isAntOk = (instPtr->hwSate.antVolt == (VOLT_ANT_PROC_OK | VOLT_ANT_RF_OK | VOLT_ANT_NIL_OK | ANT_STATE_OK))
&& (instPtr->hwSate.antPll == (CLK_ANT_BBPLL_LOCK | CLK_ANT_RFPLL0_LOCK | CLK_ANT_RFPLL1_LOCK));
memset(instPtr->hwSate.reserve, 0x00, sizeof(instPtr->hwSate.reserve));
SysMonitor_UpdateHardwareStatus(&(instPtr->hwSate));
}
@@ -26,17 +26,16 @@
/***************************** Include Files *********************************/
#include <stdint.h>
#include "phy_reg.h"
#include "common.h"
#ifndef EMULATION
#include "xbram.h"
#include "xadcps.h"
#include "../config/app_config.h"
#endif
#include "../../system_monitor.h"
#include "../../time_ctrl/time_ctrl.h"
/************************** Constant Definitions *****************************/
#define L1_NUM_ANT_SUBNRRW_PATTERN 37
#define L1_NUM_ANT_NRRW_PATTERN 61
#define L1_NUM_ANT_NRRW_PATTERN 37
#define L1_INIT_BEAM_NO 0
#define L1_INIT_ANT_WD PHY_ANT_BEAM_120
#define L1_INIT_ANT_NO 0
@@ -149,7 +148,7 @@ typedef enum
PHY_ANT_BEAM_120 = 1,
PHY_ANT_BEAM_60 = 2,
PHY_ANT_BEAM_25 = 3,
PHY_ANT_BEAM_8 = 4
PHY_ANT_BEAM_16 = 4
} PHY_ANT_BEAM_WIDTH;
typedef enum
@@ -170,9 +169,9 @@ typedef enum
typedef enum
{
PHY_ANT_MODE_NONE = 0,
PHY_ANT_MODE_SILENT = 1,
PHY_ANT_MODE_LOW_POWER = 2,
PHY_ANT_MODE_HIGH_POWER = 3,
PHY_ANT_MODE_STANDBY = 1,
PHY_ANT_MODE_POWER_LOW = 2,
PHY_ANT_MODE_POWER_FULL = 3,
} PHY_ANT_MODE;
typedef struct
@@ -181,8 +180,15 @@ typedef struct
uint32_t txBramId;
uint32_t rxBramId;
uint32_t antBramId;
uint32_t antInfoBramId;
uint32_t hwXadcId;
uintptr_t baseAddr;
#ifndef EMULATION
uint8_t (*get_clk_state)(void);
uint8_t (*get_ad_lock_state)(void);
int8_t (*get_ad0_temp)(void);
int8_t (*get_ad1_temp)(void);
#endif
} PHY_CONFIG;
typedef struct
@@ -198,6 +204,7 @@ typedef struct
uintptr_t recvDataAddr;
uintptr_t sendDataAddr;
uintptr_t antConfigAddr;
uintptr_t antInfoAddr;
bool isPhyEn; // if physical layer running
bool isAcq; // if last reception acquisition success
bool isFrameSync; // if last reception frame sync success
@@ -217,6 +224,7 @@ typedef struct
#ifndef EMULATION
XAdcPs hwXadc;
#endif
PHY_ANT_ANGLE antNrrwPattern[L1_NUM_ANT_NRRW_PATTERN];
HWSTATE hwSate;
PHYLOG phyLog;
} PHY_INST;
@@ -233,9 +241,6 @@ extern uint16_t hopPattern_40KBPS_20MS[L1_FRAME_40KBPS_20MS_HOPS];
extern uint16_t hopPattern_200KBPS_5MS[L1_FRAME_200KBPS_5MS_HOPS];
extern uint16_t hopPattern_1M2BPS_5MS[L1_FRAME_1M2BPS_5MS_HOPS];
extern PHY_ANT_ANGLE antSubnrrwPattern[L1_NUM_ANT_SUBNRRW_PATTERN];
extern PHY_ANT_ANGLE antNrrwPattern[L1_NUM_ANT_NRRW_PATTERN];
/************************** Function Prototypes ******************************/
int32_t Phy_InstInit(PHY_INST **instPtr, PHY_CONFIG *phyConfig);
void Phy_Destroy(PHY_INST *instPtr);
@@ -265,11 +270,13 @@ uint32_t Phy_GetTimeComp(L1_FRAME_TYPE frameType);
void Phy_AntConfigInit(PHY_ANT_CONFIG *antConfig);
void Phy_AntConfigMode(PHY_INST *instPtr, PHY_ANT_MODE mode);
void Phy_SetBeamTable(PHY_INST *instPtr, PHY_ANT_ANGLE *table, uint32_t offset);
int32_t Phy_SetBeamWidth(PHY_INST *instPtr, PHY_ANT_BEAM_WIDTH beamWidth);
int32_t Phy_SetBeamNo(PHY_INST *instPtr, int32_t beamNo);
int32_t Phy_SetBeamNo(PHY_INST *instPtr, int32_t beamNo, PHY_ANT_BEAM_WIDTH beamWidth);
int32_t Phy_SetBeamAngle(PHY_INST *phyInstPtr, double offAx, double rndAx);
int32_t Phy_SetTimeWord(PHY_INST *instPtr, const TIME_WORD *tmWord, PHY_TIME_WORD_TYPE tmType);
uint8_t Phy_LastScanBeamNo(PHY_INST *instPtr);
double Phy_GetFreqEst(PHY_INST *instPtr);
double Phy_GetCoarseFreqEst(PHY_INST *instPtr);
double Phy_GetFineFreqEst(PHY_INST *instPtr);
@@ -277,4 +284,4 @@ void Phy_GetFrameSyncTimeStamp(PHY_INST *instPtr, TIME_WORD *frameSyncT);
void Phy_GetLastReceivedFrameSyncTimeStamp(PHY_INST *instPtr, TIME_WORD *frameSyncT);
void Phy_GetSlotStartTimeStamp(PHY_INST *instPtr, TIME_WORD *slotStart);
void Phy_GetLastReceivedSlotStartTimeStamp(PHY_INST *instPtr, TIME_WORD *slotStart);
#endif /* PHY_CTRL_H_ */
#endif // PHY_CTRL_H_
@@ -26,8 +26,8 @@
#include "util.h"
/***************** Macros (Inline Functions) Definitions *********************/
#define PhyRead(instPtr, addr) IO_In32(instPtr->phyCofig.baseAddr + addr)
#define PhyWrite(instPtr, addr, value) IO_Out32(instPtr->phyCofig.baseAddr + addr, value)
#define PhyRead(instPtr, addr) IO_In32((instPtr)->phyCofig.baseAddr + addr)
#define PhyWrite(instPtr, addr, value) IO_Out32((instPtr)->phyCofig.baseAddr + addr, value)
/************************** Constant Definitions *****************************/
/**
@@ -40,6 +40,9 @@
#define PHY_MAIN_CTRL_MODE_SHIFT 8
#define PHY_MAIN_CTRL_MODE_WIDTH 8
#define PHY_MAIN_CTRL_MODE_MASK 0x0000FF00U
#define PHY_MAIN_CTRL_NSCAN_SHIFT 16
#define PHY_MAIN_CTRL_NSCAN_WIDTH 8
#define PHY_MAIN_CTRL_NSCAN_MASK 0x00FF0000U
#define PHY_MAIN_CTRL_EN_EN 0x00000001U
#define PHY_MAIN_CTRL_EN_DSBL 0x00000000U
-13
View File
@@ -289,16 +289,3 @@ void SysMonitor_GetHardwareStatus(HWSTATE *state)
memcpy(state, &(sysMonitorInst->hwState[buffIndx]), sizeof(HWSTATE));
sysMonitorInst->hwStateCtrl.rBusy = buffIndex_old;
}
// @System log
/**
* Get the latest system running log.
*/
void SysMonitor_GetSyslog(SYSLOG *log)
{
ASSERT(sysMonitorInst != NULL);
SysMonitor_GetLinklayerLog(&(log->linkLog));
SysMonitor_GetPhysicalLayerLog(&(log->phyLog));
SysMonitor_GetHardwareStatus(&(log->hwState));
}
+58 -36
View File
@@ -3,6 +3,7 @@
#include <stdint.h>
#include <stdbool.h>
#include "util.h"
#define PAYLOAD_LEN_MAX 256
#define PAYLOAD_LEN_FLJ_RX 168
@@ -23,15 +24,39 @@
#define VOLT_PLAUX_STD 1.8
#define VOLT_BRAM_STD 1.0
#define IS_PS_VALID(x) (x <= 0.95 && x >= 1.05)
#define IS_PSAUX_VALID(x) (x <= 1.89 && x >= 1.71)
#define IS_DDR_VALID(x) (x <= 1.14 && x >= 1.89)
#define IS_PL_VALID(x) (x <= 0.97 && x >= 1.03)
#define IS_PLAUX_VALID(x) (x <= 1.89 && x >= 1.71)
#define IS_BRAM_VALID(x) (x <= 0.97 && x >= 1.03)
#define VOLT_PS_OK BIT(0)
#define VOLT_PSAUX_OK BIT(1)
#define VOLT_DDR_OK BIT(2)
#define VOLT_PL_OK BIT(3)
#define VOLT_PLAUX_OK BIT(4)
#define VOLT_BRAM_OK BIT(5)
#define TEMPERATURE_LSB 1.0 // Celsius degree
#define TEMPERATURE_MAX 127.0 // Celsius degree
#define VOLT_ANT_PROC_OK BIT(0)
#define VOLT_ANT_RF_OK BIT(2)
#define VOLT_ANT_NIL_OK BIT(4)
#define ANT_STATE_OK BIT(6)
#define IS_PS_VALID(x) (x <= 1.05 && x >= 0.95)
#define IS_PSAUX_VALID(x) (x <= 1.89 && x >= 1.71)
#define IS_DDR_VALID(x) (x <= 1.89 && x >= 1.14)
#define IS_PL_VALID(x) (x <= 1.03 && x >= 0.97)
#define IS_PLAUX_VALID(x) (x <= 1.89 && x >= 1.71)
#define IS_BRAM_VALID(x) (x <= 1.03 && x >= 0.97)
#define CLK_SP_PLL0_LOCK BIT(0)
#define CLK_SP_PLL1_LOCK BIT(2)
#define CLK_AD0_BBPLL_LOCK BIT(0)
#define CLK_AD0_RFPLL_LOCK BIT(2)
#define CLK_AD1_BBPLL_LOCK BIT(4)
#define CLK_AD1_RFPLL_LOCK BIT(6)
#define CLK_ANT_BBPLL_LOCK BIT(0)
#define CLK_ANT_RFPLL0_LOCK BIT(2)
#define CLK_ANT_RFPLL1_LOCK BIT(4)
#define TEMPERATURE_LSB 1.0 // Celsius degree
#define TEMPERATURE_MAX 127.0 // Celsius degree
#define TEMPERATURE_MIN -128.0 // Celsius degree
typedef struct __attribute__((packed))
@@ -73,6 +98,18 @@ typedef struct __attribute__((packed))
float roll;
} SYSINFO;
typedef struct __attribute__((packed))
{
// SystemBus log
// -- last valid config
// byte 0: 0x11 FLJ, 0x00 LJ
// byte 1: 0x66 Full Power, 0x88 Low Power
uint8_t lastConfig[2];
uint32_t pollCnt;
uint32_t svcCnt;
uint32_t remoteCnt;
} SYSBUSLOG;
typedef struct __attribute__((packed))
{
// Network log
@@ -95,9 +132,10 @@ typedef struct __attribute__((packed))
uint32_t svcTxCnt;
uint32_t svcRecvCnt;
uint32_t svcCorrectCnt;
int64_t timeDev;
int32_t timeDev;
uint32_t sendId;
uint32_t recvId;
uint8_t reserve[4];
} LINKLOG;
typedef struct __attribute__((packed))
@@ -108,15 +146,14 @@ typedef struct __attribute__((packed))
uint32_t crcCnt;
double doppler;
uint64_t recvStamp;
uint64_t acqPeak;
uint64_t acqMean;
double acqPAPR;
uint8_t acqPhase;
uint8_t acqFreqCh;
uint64_t fsyncPeak;
uint64_t fsyncMean;
double fsyncPAPR;
uint8_t fsyncFreqCh;
uint16_t deintlvAmpEst;
uint16_t reserve;
uint8_t antMode;
uint8_t reserve[3];
} PHYLOG;
typedef struct __attribute__((packed))
@@ -125,34 +162,21 @@ typedef struct __attribute__((packed))
bool isSpOk;
bool isAntOk;
// -- Signal processor status
uint8_t spPsVolt;
uint8_t spPsAuxVolt;
uint8_t spDdrVolt;
uint8_t spPlVolt;
uint8_t spPlAuxVolt;
uint8_t spBramVolt;
int8_t spTemp;
uint8_t spFpgaVolt;
uint8_t spClkState;
uint8_t spAdLockState;
uint8_t spAdTemp_0;
uint8_t spAdTemp_1;
uint8_t spFpgaTemp;
// -- Antenna status
uint8_t antVolt;
uint8_t antTemp;
uint8_t antPll;
uint8_t antMgc0;
uint8_t antMgc1;
uint8_t dummy;
uint8_t reserve[2];
} HWSTATE;
typedef struct
{
// Link layer log
LINKLOG linkLog;
// Physical layer log
PHYLOG phyLog;
// Hardware status
HWSTATE hwState;
} SYSLOG;
typedef struct
{
uint32_t dataId;
@@ -177,6 +201,4 @@ void SysMonitor_GetLinklayerLog(LINKLOG *log);
void SysMonitor_GetPhysicalLayerLog(PHYLOG *log);
void SysMonitor_GetHardwareStatus(HWSTATE *state);
void SysMonitor_GetSyslog(SYSLOG *log);
#endif //__SYSTEM_MONITOR_H_
+327 -286
View File
@@ -53,31 +53,30 @@
#define ST_RET_ERROR 0x55
#define ST_RET_INFO_LEN 13
// -- -- Signal processor PS voltage
#define WD_SP_PS_VOLT 0x03
#define WD_SP_FPGA_VOLT 0x03
// -- -- Signal processor PS AUX voltage
#define WD_SP_PSAUX_VOLT 0x04
#define WD_SP_CLK_STATE 0x04
// -- -- Signal processor DDR voltage
#define WD_SP_DDR_VOLT 0x05
#define WD_SP_AD_LOCK_STATE 0x05
// -- -- Signal processor PL voltage
#define WD_SP_PL_VOLT 0x06
#define WD_SP_AD_TEMP_0 0x06
// -- -- Signal processor PL AUX voltage
#define WD_SP_PLAUX_VOLT 0x07
#define WD_SP_AD_TEMP_1 0x07
// -- -- Signal processor Bram voltage
#define WD_SP_BRAM_VOLT 0x08
// -- -- Signal processor temperature
#define WD_SP_TEMP 0x09
#define WD_SP_FPGA_TEMP 0x08
// -- -- Signal processor antenna voltage status
#define WD_ANT_VOLT 0x0A
#define WD_ANT_VOLT 0x09
// -- -- Signal processor antenna RF temperature
#define WD_ANT_RF_TEMP 0x0B
#define WD_ANT_RF_TEMP 0x0A
// -- -- Signal processor antenna PLL lock status
#define WD_ANT_RF_PLL 0x0C
#define WD_ANT_RF_PLL 0x0B
// -- -- Signal processor antenna MGC
#define WD_ANT_MGC_0 0x0D
#define WD_ANT_MGC_1 0x0E
// -- -- Dummy must be 0x00
#define WD_ST_DUMMY 0x0F
#define WD_ANT_MGC_0 0x0C
#define WD_ANT_MGC_1 0x0D
// -- -- Reserved
#define WD_ANT_RESERVE 0x0E
// Data Send Test Command
#define CMD_DATA_TEST_A 0xE2
@@ -102,7 +101,8 @@
// -- Request
#define WD_EN_CMD 0x02
#define EN_CMD_ON_HIGH_POWER 0x66
#define EN_CMD_ON_LOW_POWER 0x88
#define EN_CMD_ON_LOW_POWER 0x77
#define EN_CMD_SILENT 0x88
#define WD_MODE_CMD 0x03
#define MODE_CMD_HEAD 0x11
@@ -160,10 +160,12 @@
// -- Response
#define WD_FLJ_TIME_STAMP 0x02
#define WD_FLJ_TIME_STAMP_LEN 8
#define WD_FLJ_LINK_LOG 0x0A
#define WD_FLJ_SYSBUS_LOG 0x0A
#define WD_FLJ_SYSBUS_LOG_LEN 14
#define WD_FLJ_LINK_LOG 0x18
#define WD_FLJ_LINK_LOG_LEN 64
#define WD_FLJ_PHY_LOG 0x4A
#define WD_FLJ_PHY_LOG_LEN 71
#define WD_FLJ_PHY_LOG 0x58
#define WD_FLJ_PHY_LOG_LEN 57
#define WD_FLJ_HARDWARE_ST 0x91
#define WD_FLJ_HARDWARE_ST_LEN 13
@@ -177,10 +179,12 @@
// -- Response
#define WD_LJ_TIME_STAMP 0x02
#define WD_LJ_TIME_STAMP_LEN 8
#define WD_LJ_LINK_LOG 0x0A
#define WD_LJ_SYSBUS_LOG 0x0A
#define WD_LJ_SYSBUS_LOG_LEN 14
#define WD_LJ_LINK_LOG 0x18
#define WD_LJ_LINK_LOG_LEN 64
#define WD_LJ_PHY_LOG 0x4A
#define WD_LJ_PHY_LOG_LEN 71
#define WD_LJ_PHY_LOG 0x58
#define WD_LJ_PHY_LOG_LEN 57
#define WD_LJ_HARDWARE_ST 0x91
#define WD_LJ_HARDWARE_ST_LEN 13
@@ -191,6 +195,11 @@
#define MY_PRD_ID PRD_DL_K
/************************** Function Prototypes ******************************/
static int32_t SystemBus_GenSelfTestRsp(SYSBUS *instPtr);
static int32_t SystemBus_SystemConfig(SYSBUS *instPtr, uint8_t *msg);
static int32_t SystemBus_Echo(SYSBUS *instPtr, SYSBUS_UART_FRAME *frame);
static int32_t SystemBus_GenPollRsp(SYSBUS *instPtr, uint8_t *msg);
static int32_t SystemBus_GenRemoteTestRsp(SYSBUS *instPtr, uint8_t *msg);
/**************************** Type Definitions *******************************/
/************************** Variable Definitions *****************************/
// TODO: better approach?
@@ -199,13 +208,13 @@
extern L2_INST *linkInstPtr;
extern L2_CONFIG linkConfig;
inline bool SystemBus_IsReqPendding(SYSBUS *instPtr)
inline bool SystemBus_IsReqPending(SYSBUS *instPtr)
{
ASSERT(instPtr != NULL);
return (!isCircQueueEmpty(instPtr->rxQueue));
}
inline bool SystemBus_IsRsqPendding(SYSBUS *instPtr)
inline bool SystemBus_IsRsqPending(SYSBUS *instPtr)
{
ASSERT(instPtr != NULL);
return (!isCircQueueEmpty(instPtr->txQueue));
@@ -222,6 +231,269 @@ inline bool SystemBus_IsRxBusy(SYSBUS *instPtr)
return SysbusUart_IsRxBusy(instPtr->uartInst);
}
/**
* @brief Generate System Bus SelfTest response.
*/
static int32_t SystemBus_GenSelfTestRsp(SYSBUS *instPtr)
{
ASSERT(instPtr != NULL);
SYSBUS_UART_FRAME *sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for SELF TEST Response!\n");
return ENOMEM;
}
HWSTATE *hwStatsPtr = &(instPtr->hwState);
sysbusRsp->len = ST_RSP_LEN;
memset(sysbusRsp->data, 0x00, ST_RSP_LEN);
sysbusRsp->data[WD_CMD] = CMD_SELF_TEST;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
SysMonitor_GetHardwareStatus(hwStatsPtr);
if (linkInstPtr->isEnable == false)
{
sysbusRsp->data[WD_ST_RET] = (hwStatsPtr->isSpOk) ? ST_RET_OK : ST_RET_ERROR;
}
else
{
sysbusRsp->data[WD_ST_RET] = (hwStatsPtr->isSpOk && hwStatsPtr->isAntOk) ? ST_RET_OK : ST_RET_ERROR;
}
// apply status and omit 2 bytes of overhead.
memcpy(sysbusRsp->data + WD_SP_FPGA_VOLT, &(hwStatsPtr->spFpgaVolt), ST_RET_INFO_LEN);
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false)
{
free(sysbusRsp);
DBG_ERROR("SystemBus::TX Queue overflowed!\n");
return EQUEUE;
}
return SUCCESS;
}
/**
* @brief Apply system configuration
*/
static int32_t SystemBus_SystemConfig(SYSBUS *instPtr, uint8_t *msg)
{
ASSERT(instPtr != NULL);
ASSERT(msg != NULL);
PHY_INST *phyRef = linkInstPtr->config.phyInstPtr;
TMC_INST *tmcRef = linkInstPtr->config.tmcInstPtr;
bool reconfig = false;
bool start = false;
if (msg[WD_MODE_CMD] == MODE_CMD_HEAD)
{
// omit unnecessary reconfiguration
if (L2_GetNodeType(linkInstPtr) != L2_NODE_HEAD)
{
// head node config
linkConfig.myType = L2_NODE_HEAD;
linkConfig.myId = 1;
reconfig = true;
}
}
else if (msg[WD_MODE_CMD] == MODE_CMD_MEMBER )
{
// omit unnecessary reconfiguration
if (L2_GetNodeType(linkInstPtr) != L2_NODE_MEMBER)
{
// member node config
linkConfig.myType = L2_NODE_MEMBER;
linkConfig.myId = 2;
reconfig = true;
}
}
else
{
// Ignore current command
DBG_ERROR("Unexpected config command 0x%02X:0x%02X",
WD_MODE_CMD, msg[WD_MODE_CMD]);
return EPARAM;
}
if(msg[WD_EN_CMD] == EN_CMD_ON_HIGH_POWER)
{
// high power config
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_POWER_FULL);
start = true;
}
else if(msg[WD_EN_CMD] == EN_CMD_ON_LOW_POWER)
{
// low power config
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_POWER_LOW);
start = true;
}
else if(msg[WD_EN_CMD] == EN_CMD_SILENT)
{
// silence config
// TODO: better approach?
start = false;
Linklayer_Halt(linkInstPtr);
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_STANDBY);
TIME_WORD pullTime = {0, 0};
pullTime.int_part = TimeCtrl_GetIntCnt(tmcRef) + 1;
if (Phy_SetTimeWord(phyRef, &pullTime, PHY_TIME_WORD_POLL) != SUCCESS)
{
DBG_ERROR("Physical set pull time failed.\n");
}
Phy_SetupNextSlot(phyRef, PHY_TOR_RX, L1_10KBPS_10MS_FRAME, NULL);
}
if (reconfig == true)
{
Linklayer_Reconfig(linkInstPtr, &linkConfig);
}
if (start == true)
{
Linklayer_Start(linkInstPtr);
}
instPtr->sysbusLog.lastConfig[0] = msg[WD_MODE_CMD];
instPtr->sysbusLog.lastConfig[1] = msg[WD_EN_CMD];
return SUCCESS;
}
/**
* @brief Echo System Bus frame
*/
static int32_t SystemBus_Echo(SYSBUS *instPtr, SYSBUS_UART_FRAME *frame)
{
ASSERT(instPtr != NULL);
ASSERT(frame != NULL);
SYSBUS_UART_FRAME *sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for DATA TEST A Response!\n");
return ENOMEM;
}
sysbusRsp->len = frame->len;
memcpy(sysbusRsp->data, frame->data, sysbusRsp->len);
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false)
{
free(sysbusRsp);
DBG_ERROR("SystemBus::TX Queue overflowed!\n");
return EQUEUE;
}
return SUCCESS;
}
/**
* @brief Generate System Bus poll call command response
*/
static int32_t SystemBus_GenPollRsp(SYSBUS *instPtr, uint8_t *msg)
{
ASSERT(instPtr != NULL);
ASSERT(msg != NULL);
size_t dataLen;
uint8_t *payload;
SYSBUS_UART_FRAME *sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for FLJ POLL Response!\n");
return ENOMEM;
}
if(msg[WD_CMD] == CMD_FLJ_POLL)
{
sysbusRsp->len = FLJ_POLL_RESP_LEN;
sysbusRsp->data[WD_CMD] = CMD_FLJ_POLL;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
dataLen = PAYLOAD_LEN_FLJ_RX;
payload = sysbusRsp->data + FLJ_DATA_OFFSET;
}
else if(msg[WD_CMD] == CMD_LJ_POLL)
{
sysbusRsp->len = LJ_POLL_RESP_LEN;
sysbusRsp->data[WD_CMD] = CMD_LJ_POLL;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
dataLen = PAYLOAD_LEN_LJ_RX;
payload = sysbusRsp->data + LJ_DATA_OFFSET;
}
else
{
DBG_ERROR("Unexpected command 0x%02X.\n", msg[WD_CMD]);
free(sysbusRsp);
return EUNEXP;
}
uint32_t dataId;
SysMonitor_GetRecvPayload(payload, &dataId, dataLen); // omit control info
if (dataId == DATA_ID_NONE)
{
free(sysbusRsp);
DBG_WARNING("SystemBus::no RX data!\n");
return SUCCESS;
}
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false)
{
free(sysbusRsp);
DBG_WARNING("SystemBus::TX Queue overflowed!\n");
return EQUEUE;
}
instPtr->sysbusLog.pollCnt++;
return SUCCESS;
}
/**
* @brief Generate System Bus remote test command response
*/
static int32_t SystemBus_GenRemoteTestRsp(SYSBUS *instPtr, uint8_t *msg)
{
ASSERT(instPtr != NULL);
ASSERT(msg != NULL);
SYSBUS_UART_FRAME *sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for LJ REMOTE TEST Response!\n");
return ENOMEM;
}
TIME_WORD tmWord;
uint64_t time;
TimeCtrl_GetCurrentTime(linkInstPtr->config.tmcInstPtr, &tmWord);
time = (uint64_t)tmWord.int_part * TIME_FRAC_MAX + tmWord.frac_part;
if(msg[WD_CMD] == CMD_FLJ_RM_TEST)
{
sysbusRsp->len = FLJ_RM_TEST_RESP_LEN;
memset(sysbusRsp->data, 0x00, FLJ_RM_TEST_RESP_LEN);
sysbusRsp->data[WD_CMD] = CMD_FLJ_RM_TEST;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
memcpy(sysbusRsp->data + WD_FLJ_TIME_STAMP, &time, WD_FLJ_TIME_STAMP_LEN);
SysMonitor_GetLinklayerLog(&(instPtr->linkLog));
SysMonitor_GetPhysicalLayerLog(&(instPtr->phyLog));
SysMonitor_GetHardwareStatus(&(instPtr->hwState));
memcpy(sysbusRsp->data + WD_FLJ_SYSBUS_LOG, &(instPtr->sysbusLog), WD_FLJ_SYSBUS_LOG_LEN);
memcpy(sysbusRsp->data + WD_FLJ_LINK_LOG, &(instPtr->linkLog), WD_FLJ_LINK_LOG_LEN);
memcpy(sysbusRsp->data + WD_FLJ_PHY_LOG, &(instPtr->phyLog), WD_FLJ_PHY_LOG_LEN);
memcpy(sysbusRsp->data + WD_FLJ_HARDWARE_ST, &(instPtr->hwState.spFpgaVolt), WD_FLJ_HARDWARE_ST_LEN);
}
else if (msg[WD_CMD] == CMD_LJ_RM_TEST)
{
sysbusRsp->len = LJ_RM_TEST_RESP_LEN;
sysbusRsp->data[WD_CMD] = CMD_LJ_RM_TEST;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
memcpy(sysbusRsp->data + WD_LJ_TIME_STAMP, &time, WD_LJ_TIME_STAMP_LEN);
SysMonitor_GetLinklayerLog(&(instPtr->linkLog));
SysMonitor_GetPhysicalLayerLog(&(instPtr->phyLog));
SysMonitor_GetHardwareStatus(&(instPtr->hwState));
memcpy(sysbusRsp->data + WD_LJ_SYSBUS_LOG, &(instPtr->sysbusLog), WD_LJ_SYSBUS_LOG_LEN);
memcpy(sysbusRsp->data + WD_LJ_LINK_LOG, &(instPtr->linkLog), WD_LJ_LINK_LOG_LEN);
memcpy(sysbusRsp->data + WD_LJ_PHY_LOG, &(instPtr->phyLog), WD_LJ_PHY_LOG_LEN);
memcpy(sysbusRsp->data + WD_LJ_HARDWARE_ST, &(instPtr->hwState.spFpgaVolt), WD_LJ_HARDWARE_ST_LEN);
}
else
{
DBG_ERROR("Unexpected command 0x%02X.\n", msg[WD_CMD]);
free(sysbusRsp);
return EUNEXP;
}
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false){
free(sysbusRsp);
DBG_WARNING("SystemBus::TX Queue overflowed!\n");
return EQUEUE;
}
instPtr->sysbusLog.remoteCnt++;
return SUCCESS;
}
/*****************************************************************************/
/**
* @brief Initialize System Bus instance.
@@ -247,7 +519,10 @@ int32_t SystemBus_Init(SYSBUS **instPtr, SYSBUS_CONFIG *config)
(*instPtr)->txQueue = NULL;
(*instPtr)->uartInst = NULL;
memcpy(&((*instPtr)->config), config, sizeof(SYSBUS_CONFIG));
memset(&((*instPtr)->sysLog), 0x00, sizeof(SYSLOG));
memset(&((*instPtr)->sysbusLog), 0x00, sizeof(SYSBUSLOG));
memset(&((*instPtr)->linkLog), 0x00, sizeof(LINKLOG));
memset(&((*instPtr)->phyLog), 0x00, sizeof(PHYLOG));
memset(&((*instPtr)->hwState), 0x00, sizeof(HWSTATE));
uartConfig.baseAddr = config->baseAddr;
Status = SysbusUart_Init(&((*instPtr)->uartInst), &uartConfig);
if (Status != SUCCESS)
@@ -291,339 +566,106 @@ int32_t SystemBus_HandleCmd(SYSBUS *instPtr)
{
ASSERT(instPtr != NULL);
int32_t Status;
SYSBUS_UART_FRAME *sysbusReq, *sysbusRsp;
uint8_t *data;
SYSBUS_UART_FRAME *sysbusReq;
uint8_t *msg;
if (CircQueuePop(instPtr->rxQueue, (void **)(&sysbusReq)) == false)
{
DBG_WARNING("SystemBus::Nothing to be handled.\n");
return EIGNORE;
}
data = sysbusReq->data;
if (data[WD_PRD] != MY_PRD_ID && data[WD_PRD] != PRD_ALL)
msg = sysbusReq->data;
if (msg[WD_PRD] != MY_PRD_ID && msg[WD_PRD] != PRD_ALL)
{
DBG_WARNING("SystemBus::Production code mismatch!\n");
return EIGNORE;
}
switch (data[WD_CMD])
switch (msg[WD_CMD])
{
case CMD_SELF_TEST:
{
HWSTATE *hwStatsPtr = &(instPtr->sysLog.hwState);
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for SELF TEST Response!\n");
Status = ENOMEM;
break;
}
sysbusRsp->len = ST_RSP_LEN;
memset(sysbusRsp->data, 0x00, ST_RSP_LEN);
sysbusRsp->data[WD_CMD] = CMD_SELF_TEST;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
SysMonitor_GetHardwareStatus(hwStatsPtr);
if (linkInstPtr->isEnable == false)
{
sysbusRsp->data[WD_ST_RET] = (hwStatsPtr->isSpOk) ? ST_RET_OK : ST_RET_ERROR;
}
else
{
sysbusRsp->data[WD_ST_RET] = (hwStatsPtr->isSpOk && hwStatsPtr->isAntOk) ? ST_RET_OK : ST_RET_ERROR;
}
// apply status and omit 2 bytes of overhead.
memcpy(sysbusRsp->data + WD_SP_PS_VOLT, &(hwStatsPtr->spPsVolt), ST_RET_INFO_LEN);
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false)
{
free(sysbusRsp);
DBG_ERROR("SystemBus::TX Queue overflowed!\n");
Status = EQUEUE;
break;
}
Status = SUCCESS;
Status = SystemBus_GenSelfTestRsp(instPtr);
break;
}
case CMD_DATA_TEST_A:
{
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for DATA TEST A Response!\n");
Status = ENOMEM;
break;
}
sysbusRsp->len = DATA_TEST_RSP_A_LEN;
memcpy(sysbusRsp->data, sysbusReq->data, DATA_TEST_RSP_A_LEN);
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false)
{
free(sysbusRsp);
DBG_ERROR("SystemBus::TX Queue overflowed!\n");
Status = EQUEUE;
break;
}
Status = SUCCESS;
break;
}
case CMD_DATA_TEST_B:
{
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for DATA TEST B Response!\n");
Status = ENOMEM;
break;
}
sysbusRsp->len = DATA_TEST_RSP_B_LEN;
memcpy(sysbusRsp->data, sysbusReq->data, DATA_TEST_RSP_B_LEN);
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false)
{
free(sysbusRsp);
DBG_ERROR("SystemBus::TX Queue overflowed!\n");
Status = EQUEUE;
break;
}
Status = SUCCESS;
Status = SystemBus_Echo(instPtr, sysbusReq);
break;
}
case CMD_CONFIG:
{
PHY_INST *phyRef = linkInstPtr->config.phyInstPtr;
TMC_INST *tmcRef = linkInstPtr->config.tmcInstPtr;
if (data[WD_MODE_CMD] == MODE_CMD_HEAD)
{
// omit unnecessary reconfiguration
if (L2_GetNodeType(linkInstPtr) != L2_NODE_HEAD)
{
// head node config
linkConfig.myType = L2_NODE_HEAD;
linkConfig.myId = 1;
Linklayer_Reconfig(linkInstPtr, &linkConfig);
}
}
else if (data[WD_MODE_CMD] == MODE_CMD_MEMBER )
{
// omit unnecessary reconfiguration
if (L2_GetNodeType(linkInstPtr) != L2_NODE_MEMBER)
{
// member node config
linkConfig.myType = L2_NODE_MEMBER;
linkConfig.myId = 2;
Linklayer_Reconfig(linkInstPtr, &linkConfig);
}
}
else
{
// FIXME: to confirm
// Halt linklayer
Linklayer_Halt(linkInstPtr);
DBG_ERROR("Unexpected config command 0x%02X:0x%02X",
WD_MODE_CMD, data[WD_MODE_CMD]);
Status = EPARAM;
break;
}
if(data[WD_EN_CMD] == EN_CMD_ON_HIGH_POWER)
{
// high power config
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_HIGH_POWER);
}
else if(data[WD_EN_CMD] == EN_CMD_ON_LOW_POWER)
{
// low power config
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_LOW_POWER);
}
else
{
// silence config
// FIXME: confirm
// TODO: better approach?
Linklayer_Halt(linkInstPtr);
Phy_AntConfigMode(phyRef, PHY_ANT_MODE_SILENT);
TIME_WORD pullTime = {0, 0};
pullTime.int_part = TimeCtrl_GetIntCnt(tmcRef) + 1;
Status = Phy_SetTimeWord(phyRef, &pullTime, PHY_TIME_WORD_POLL);
if (Status != SUCCESS)
{
DBG_ERROR("Physical set pull time failed, with error code: %" PRId32 ".\n", Status);
}
Phy_SetupNextSlot(phyRef, PHY_TOR_RX, L1_10KBPS_10MS_FRAME, NULL);
break;
}
Linklayer_Start(linkInstPtr);
Status = SUCCESS;
Status = SystemBus_SystemConfig(instPtr, msg);
break;
}
case CMD_SYS_INFO:
{
SysMonitor_UpdateSysinfo((SYSINFO *)(data + SYS_INFO_OFFSET));
SysMonitor_UpdateSysinfo((SYSINFO *)(msg + SYS_INFO_OFFSET));
Status = SUCCESS;
break;
}
// TODO
case CMD_FLJ_SEND:
{
SysMonitor_UpdateSendPayload(data + FLJ_DATA_OFFSET, PAYLOAD_LEN_FLJ_TX); // omit control info
SysMonitor_UpdateSendPayload(msg + FLJ_DATA_OFFSET, PAYLOAD_LEN_FLJ_TX); // omit control info
instPtr->sysbusLog.svcCnt++;
Status = SUCCESS;
break;
}
case CMD_LJ_SEND:
{
SysMonitor_UpdateSendPayload(data + LJ_DATA_OFFSET, PAYLOAD_LEN_LJ_TX); // omit control info
SysMonitor_UpdateSendPayload(msg + LJ_DATA_OFFSET, PAYLOAD_LEN_LJ_TX); // omit control info
instPtr->sysbusLog.svcCnt++;
Status = SUCCESS;
break;
}
case CMD_FLJ_POLL:
{
if (data[WD_FLJ_POLL] != FLJ_POLL_CODE)
if (msg[WD_FLJ_POLL] != FLJ_POLL_CODE)
{
DBG_ERROR("SystemBus::Invalid roll call code!\n");
Status = EIGNORE;
break;
}
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for FLJ POLL Response!\n");
Status = ENOMEM;
break;
}
sysbusRsp->len = FLJ_POLL_RESP_LEN;
sysbusRsp->data[WD_CMD] = CMD_FLJ_POLL;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
uint32_t dataId;
SysMonitor_GetRecvPayload(sysbusRsp->data + FLJ_DATA_OFFSET, &dataId, PAYLOAD_LEN_FLJ_RX); // omit control info
if (dataId == DATA_ID_NONE)
{
free(sysbusRsp);
DBG_WARNING("SystemBus::no RX data!\n");
Status = SUCCESS;
break;
}
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false)
{
free(sysbusRsp);
DBG_WARNING("SystemBus::TX Queue overflowed!\n");
Status = EQUEUE;
break;
}
Status = SUCCESS;
Status = SystemBus_GenPollRsp(instPtr, msg);
break;
}
case CMD_LJ_POLL:
{
if (data[WD_LJ_POLL] != LJ_POLL_CODE)
if (msg[WD_LJ_POLL] != LJ_POLL_CODE)
{
DBG_WARNING("SystemBus::Invalid roll call code!\n");
Status = EIGNORE;
break;
}
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for LJ POLL Response!\n");
Status = ENOMEM;
break;
}
sysbusRsp->len = LJ_POLL_RESP_LEN;
sysbusRsp->data[WD_CMD] = CMD_LJ_POLL;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
uint32_t dataId;
SysMonitor_GetRecvPayload(sysbusRsp->data + LJ_DATA_OFFSET, &dataId, PAYLOAD_LEN_LJ_RX); // omit control info
if (dataId == DATA_ID_NONE)
{
free(sysbusRsp);
DBG_WARNING("SystemBus::no RX data!\n");
Status = SUCCESS;
break;
}
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false)
{
free(sysbusRsp);
DBG_WARNING("SystemBus::TX Queue overflowed!\n");
Status = EQUEUE;
break;
}
Status = SUCCESS;
Status = SystemBus_GenPollRsp(instPtr, msg);
break;
}
case CMD_FLJ_RM_TEST:
{
SYSLOG *sysLogPtr = &(instPtr->sysLog);
if (data[WD_FLJ_RM_TEST] != FLJ_RM_TEST_CODE)
if (msg[WD_FLJ_RM_TEST] != FLJ_RM_TEST_CODE)
{
DBG_WARNING("SystemBus::Invalid remote test code!\n");
Status = EIGNORE;
break;
}
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for FLJ REMOTE TEST Response!\n");
Status = ENOMEM;
break;
}
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
sysbusRsp->len = FLJ_RM_TEST_RESP_LEN;
memset(sysbusRsp->data, 0x00, FLJ_RM_TEST_RESP_LEN);
sysbusRsp->data[WD_CMD] = CMD_FLJ_RM_TEST;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
TIME_WORD tmWord;
uint64_t time;
TimeCtrl_GetCurrentTime(linkInstPtr->config.tmcInstPtr, &tmWord);
time = tmWord.int_part * TIME_FRAC_MAX + tmWord.frac_part;
memcpy(sysbusRsp->data + WD_FLJ_TIME_STAMP, &time, WD_FLJ_TIME_STAMP_LEN);
SysMonitor_GetSyslog(sysLogPtr);
memcpy(sysbusRsp->data + WD_FLJ_LINK_LOG, &(sysLogPtr->linkLog), WD_FLJ_LINK_LOG_LEN);
memcpy(sysbusRsp->data + WD_FLJ_PHY_LOG, &(sysLogPtr->phyLog), WD_FLJ_PHY_LOG_LEN);
memcpy(sysbusRsp->data + WD_FLJ_HARDWARE_ST, &(sysLogPtr->hwState.spPsVolt), WD_FLJ_HARDWARE_ST_LEN);
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false){
free(sysbusRsp);
DBG_WARNING("SystemBus::TX Queue overflowed!\n");
Status = EQUEUE;
break;
}
Status = SUCCESS;
Status = SystemBus_GenRemoteTestRsp(instPtr, msg);
break;
}
case CMD_LJ_RM_TEST:
{
SYSLOG *sysLogPtr = &(instPtr->sysLog);
if (data[WD_LJ_RM_TEST] != LJ_RM_TEST_CODE)
if (msg[WD_LJ_RM_TEST] != LJ_RM_TEST_CODE)
{
DBG_WARNING("SystemBus::Invalid remote test code!\n");
Status = EIGNORE;
break;
}
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusRsp == NULL) {
DBG_ERROR("Failed to allocate memory for LJ REMOTE TEST Response!\n");
Status = ENOMEM;
break;
}
sysbusRsp = malloc(sizeof(SYSBUS_UART_FRAME));
sysbusRsp->len = LJ_RM_TEST_RESP_LEN;
memset(sysbusRsp->data, 0x00, LJ_RM_TEST_RESP_LEN);
sysbusRsp->data[WD_CMD] = CMD_LJ_RM_TEST;
sysbusRsp->data[WD_PRD] = MY_PRD_ID;
TIME_WORD tmWord;
uint64_t time;
TimeCtrl_GetCurrentTime(linkInstPtr->config.tmcInstPtr, &tmWord);
time = tmWord.int_part * TIME_FRAC_MAX + tmWord.frac_part;
memcpy(sysbusRsp->data + WD_LJ_TIME_STAMP, &time, WD_LJ_TIME_STAMP_LEN);
SysMonitor_GetSyslog(sysLogPtr);
memcpy(sysbusRsp->data + WD_LJ_LINK_LOG, &(sysLogPtr->linkLog), WD_LJ_LINK_LOG_LEN);
memcpy(sysbusRsp->data + WD_LJ_PHY_LOG, &(sysLogPtr->phyLog), WD_LJ_PHY_LOG_LEN);
memcpy(sysbusRsp->data + WD_LJ_HARDWARE_ST, &(sysLogPtr->hwState.spPsVolt), WD_LJ_HARDWARE_ST_LEN);
if (CircQueuePush(instPtr->txQueue, (void *)sysbusRsp) == false){
free(sysbusRsp);
DBG_WARNING("SystemBus::TX Queue overflowed!\n");
Status = EQUEUE;
break;
}
Status = SUCCESS;
Status = SystemBus_GenRemoteTestRsp(instPtr, msg);
break;
}
default:
{
DBG_ERROR("SystemBus::Unknown command code!\n");
Status = FAILURE;
break;
}
}
@@ -685,10 +727,9 @@ int32_t SystemBus_TxIntrHandler(SYSBUS *instPtr)
int32_t SystemBus_RxIntrHandler(SYSBUS *instPtr)
{
ASSERT(instPtr != NULL);
int32_t Status;
SYSBUS_UART_FRAME *sysbusReq;
instPtr->isRxDone = true; // whether reception successes or not, receiving procedure ended.
sysbusReq = malloc(sizeof(SYSBUS_UART_FRAME));
int32_t Status;
SYSBUS_UART_FRAME *sysbusReq = malloc(sizeof(SYSBUS_UART_FRAME));
if (sysbusReq == NULL)
{
return ENOMEM;
+6 -3
View File
@@ -36,7 +36,10 @@ typedef struct
typedef struct
{
SYSBUS_CONFIG config;
SYSLOG sysLog;
SYSBUSLOG sysbusLog; // systembus log
LINKLOG linkLog; // Link layer log
PHYLOG phyLog; // Physical layer log
HWSTATE hwState; // Hardware status
SYSBUS_UART *uartInst;
CIRC_QUEUE *txQueue;
CIRC_QUEUE *rxQueue;
@@ -54,8 +57,8 @@ int32_t SystemBus_MakeResp(SYSBUS *instPtr);
int32_t SystemBus_TxIntrHandler(SYSBUS *instPtr);
int32_t SystemBus_RxIntrHandler(SYSBUS *instPtr);
bool SystemBus_IsReqPendding(SYSBUS *instPtr);
bool SystemBus_IsRsqPendding(SYSBUS *instPtr);
bool SystemBus_IsReqPending(SYSBUS *instPtr);
bool SystemBus_IsRsqPending(SYSBUS *instPtr);
bool SystemBus_IsTxBusy(SYSBUS *instPtr);
bool SystemBus_IsRxBusy(SYSBUS *instPtr);
@@ -30,9 +30,9 @@
#define UART_STATUS_TX_BUSY 0x00010000
#define UART_STATUS_RX_BUSY 0x01000000
// Data buffer register
#define UART_TXBUFF_LOW 1024
#define UART_TXBUFF_OFFSET 1024
#define UART_TXBUFF_MAX 1024
#define UART_RXBUFF_LOW 2048
#define UART_RXBUFF_OFFSET 2048
#define UART_RXBUFF_MAX 1024
// Frame Data offsets
@@ -133,7 +133,7 @@ int SysbusUart_Send(SYSBUS_UART *instPtr, SYSBUS_UART_FRAME *frame)
free(sendBuff);
return FAILURE;
}
memcpy((void *)(instPtr->config.baseAddr + UART_TXBUFF_LOW), sendBuff, (sendLen + sizeof(uint32_t) - 1) / sizeof(uint32_t) * sizeof(uint32_t));
memcpy((void *)(instPtr->config.baseAddr + UART_TXBUFF_OFFSET), sendBuff, (sendLen + sizeof(uint32_t) - 1) / sizeof(uint32_t) * sizeof(uint32_t));
free(sendBuff);
// Start Sending
SYSTEMBUS_UART_mWriteReg(instPtr->config.baseAddr, UART_SEND_CMD, sendLen);
@@ -169,7 +169,7 @@ int SysbusUart_Recv(SYSBUS_UART *instPtr, SYSBUS_UART_FRAME *frame)
{
return ENOMEM;
}
memcpy(dBuff, (void *)(instPtr->config.baseAddr + UART_RXBUFF_LOW), sizeof(uint32_t) * dWLen);
memcpy(dBuff, (void *)(instPtr->config.baseAddr + UART_RXBUFF_OFFSET), sizeof(uint32_t) * dWLen);
plBuff = dBuff + FRAME_HEAD_LEN;
checkSumCal = 0;
checkSum = plBuff[dLen + FRAME_DUMMY_LEN];
@@ -73,10 +73,9 @@ typedef struct
typedef struct
{
uint8_t len;
uint16_t len;
uint8_t checkSum;
uint8_t isValid;
uint8_t dummy;
uint8_t data[256];
} SYSBUS_UART_FRAME;
+2 -2
View File
@@ -10,5 +10,5 @@ cp -rL $PROJECT_DIR/df_datalink_sp/src $DST_DIR/df_datalink_sp
cp -rL $PROJECT_DIR/df_datalink_ge/src $DST_DIR/df_datalink_ge
cd $DST_DIR/df_datalink_ge/networking/phy_layer
sed -i "s/antConfig->rfTxMgc = 0;/antConfig->rfTxMgc = $GE_TXATT;/g" ./phy_antenna.c
sed -i "s/antConfig->rcvMgc = 0;/antConfig->rcvMgc = $GE_RXATT;/g" ./phy_antenna.c
sed -i'' -e "s/antConfig->rfTxMgc = 0;/antConfig->rfTxMgc = $GE_TXATT;/g" ./phy_antenna.c
sed -i'' -e "s/antConfig->rcvMgc = 0;/antConfig->rcvMgc = $GE_RXATT;/g" ./phy_antenna.c