/******************************************************************************* * Copyright (C), 2000-2014, Sunsky Electronic Technology Co., Ltd. * 文件名: CCxx00_New.C * 作 者: 梁新平 * 版 本: * 日 期: 2014-5-26 * 说 明: * * * 修订历史: * * 1. 时间: 2014-5-26 * 修订者: 梁新平 * 修订内容: 创建 * 2. * 其它: *******************************************************************************/ #include "cc2500_1101.h" #include "platform.h" #include "function.h" #include "base_core_user.h" #include "function_interface.h" #if defined(CC1101) || defined(CC2500) //注意CC2500的CRC效验问题－－CRCL=00时会指示CrcErr //PKTCTRL1=04，即WOR_AUTOSYNC=0,CRC_AUTOFLUSH=0,APPEND_STATUS=1,ADR_CHK=0 //PKTCTRL0=05,即WHITE_DATA=0,PKT_FORMAT=0 used fifo,CRC_EN=1,LENTH=variable //MCSM1=复位值0x30，即RXOFF_MODE和TXOFF_MODE均为IDLE, //但CCA_Mode=3 RSSI低而且没有在接收时才能从RX到TX状态，这是测试中1/10概率没有切换到TX状态的原因？改为0 //MDMCFG2从3改为0x13是由FSK转为GFSK模式，相对更好: //测试出现 按6.6版本76.8K设置时，近距离效果都不行，把FSK改为GFSK就好了 //MCSM0=0x18，即FS_AUTOCAL=Mode1 IDLE->TX,RX时校正 //2010.2.24屏蔽了接收时候直接bRcvOk=1 //2010.2.24可OEM定制无线同步码 //2010.4.8 //CC_PackStatus()读取CCA //MCSM1=复位值0x30 不再修改为0，使能CCA done //PKTLEN可以写少于64(原0xFF)避免FIFO溢出，虽然采用不定长包 done //使用CCA或CS必须要先RXON在接收状态？是的 CCA还必须使能CCA才能检测，CS不需要使能CCA //IOCFG2 设置为09可在GDO2脚看CCA信号输出 done //2010.4.16 //测试出CCA比接收完成慢1.7ms，CS载波检测能很快结束 //2010.4.24 //测试RX死机时候，状态还是1接收的，并不是RX溢出，但RXBUF为65字节，刚好比物理BUF多1字节 //重新IDLE再RXON可以退出死机状态，把PKTLEN限定为0x20可以提前结束错误包！！能避免RX死机的情况？ //猜测是长度字节错误导致接收死机，因为GDO0脚一直为高（已经开始接收但没有结束） //CCA考虑检测时间，要计算发送时间，最末一个CCA后也能发送完整数据包 //因为Calibartion就要720us，及1ms后才能检测到CCA，或考虑去掉自动Calibration? //CCA的信号强度还可以设置AGCCTRL0-2 //存在能发射，但不能接收到情况？？ //2010.5.12 433M增加修改了BAND2010配置高速无线通信 //2010.5.18 移植到M52时候，修正433M下的原文件，2.4G的配置并不对 --注意:CC_Init()中不同的无线中断打开不同 //5.19 加2.4G下新配置250K-Baud,MSK //2011.3 肖雪琦移植到STC平台下 //2011.4.9 pei修正sync0,sync1前面漏u8定义导致cc_init()中引导码不对 //2011.5.1 pei不使用SPI操作进行了测试，少许修改SPI1_ReadWriteByte() //注意：pei STC平台下，SPI操作，必须P1.6保持输出为高，MISO读入才能正确，或者通过P1M1干脆设置为输入 #if 0 #define PAMAX 0xFE #define PAMAX2 0xA9 //-4dBm #define PAMAX3 0x6E //-8dBm //#define PAMAX4 0xC6 //-12dBm #define PAMAX4 0x44 //-28dBm 配对时功率降低，最终使用了-28db的参数 #endif #define RSSI0 72 //Rssi Offset //#define FCCCE #ifdef CC2500 #ifdef FCCCE #define PAMAX 0xE0 //0xFF //1.5 #define PAMAX2 0xE0 //0xEE //0dBm #define PAMAX3 0xE0 //0x6E //-8dBm #else #define PAMAX 0xFF //1.5 #define PAMAX2 0xEE //0dBm #define PAMAX3 0xE0 //0x6E //-8dBm #endif #else //cc1101 433M #define PAMAX 0xC0 //9.9 #define PAMAX2 0x60 //0dBm #define PAMAX3 0x35 //-8dBm #define PAMAX4 0x1B //-16dBm #endif //CC2500 BAND2010 // Chipcon // Product = CC2500 // Chip version = E (VERSION = 0x03) // Crystal accuracy = 10 ppm // X-tal frequency = 26 MHz // RF output power = 0 dBm // RX filterbandwidth = 541.666667 kHz // Phase = 0 // Datarate = 249.938965 kBaud // Modulation = (7) MSK // Manchester enable = (0) Manchester disabled // RF Frequency = 2401.999939 MHz // Channel spacing = 333.251953 kHz // Channel number = 0 // Optimization = Sensitivity // Sync mode = (3) 30/32 sync word bits detected // Format of RX/TX data = (0) Normal mode, use FIFOs for RX and TX // CRC operation = (1) CRC calculation in TX and CRC check in RX enabled // Forward Error Correction = (0) FEC disabled // Length configuration = (1) Variable length packets, packet length configured by the first received byte after sync word. // Packetlength = 255 // Preamble count = (2) 4 bytes // Append status = 1 // Address check = (0) No address check // FIFO autoflush = 0 // Device address = 0 // GDO0 signal selection = ( 6) Asserts when sync word has been sent / received, and de-asserts at the end of the packet // GDO2 signal selection = (41) CHIP_RDY //#include "hw_config.h" #include "stm32f4xx_hal.h" //rf //#define RF_PORT GPIOA //#define RF_CS GPIO_PIN_4 //#define RF_PAPORT GPIOA //#define RF_PA GPIO_PIN_2 //#define RF_LNA GPIO_PIN_1 //#define RF_CS0(rf_id) HAL_GPIO_WritePin(RF_PORT,RF_CS, GPIO_PIN_RESET)//GPIO_ResetBits(RF_PORT,RF_CS) //#define RF_CS1(rf_id) HAL_GPIO_WritePin(RF_PORT,RF_CS, GPIO_PIN_SET)//GPIO_SetBits(RF_PORT,RF_CS) //#define PA_EN0 HAL_GPIO_WritePin(RF_PAPORT,RF_PA, GPIO_PIN_RESET)//GPIO_ResetBits(RF_PAPORT,RF_PA) //#define PA_EN1 HAL_GPIO_WritePin(RF_PAPORT,RF_PA, GPIO_PIN_SET)//GPIO_SetBits(RF_PAPORT,RF_PA) //#define LNA_EN0 HAL_GPIO_WritePin(RF_PAPORT,RF_LNA, GPIO_PIN_RESET)// GPIO_ResetBits(RF_PAPORT,RF_LNA) //#define LNA_EN1 HAL_GPIO_WritePin(RF_PAPORT,RF_LNA, GPIO_PIN_SET)//GPIO_SetBits(RF_PAPORT,RF_LNA) //#define RF_READ HAL_GPIO_ReadPin(RF_PORT,GPIO_PIN_6) //hardware 200s RF modual silk screen:J2-J3-J1-J4 GPIO_TypeDef* const rf_cs_port[4]={GPIOD,GPIOB,GPIOD,GPIOC}; uint16_t const rf_cs_pin[4] ={GPIO_PIN_13,GPIO_PIN_4,GPIO_PIN_3,GPIO_PIN_6}; //isr GPIO_TypeDef* const rf_it_port[4]={GPIOD,GPIOD,GPIOD,GPIOC}; uint16_t const rf_it_pin[4] ={GPIO_PIN_14,GPIO_PIN_5,GPIO_PIN_4,GPIO_PIN_7}; //用于设置开关中断 const unsigned char rf_it_pin_nbr[]={14,5,4,7}; //TX PA 5.8G //cc2500 RF_LNA GPIO_TypeDef* const rf_paTX_port[4]={GPIOD,GPIOD,GPIOD,GPIOC}; uint16_t const rf_paTX_pin[4] ={GPIO_PIN_11,GPIO_PIN_6,GPIO_PIN_1,GPIO_PIN_4}; //RX PA 5.8G //cc2500-RF_PA_EN GPIO_TypeDef* const rf_ce_port[4]={GPIOD,GPIOD,GPIOD,GPIOC}; uint16_t const rf_ce_pin[4] ={GPIO_PIN_12,GPIO_PIN_7,GPIO_PIN_2,GPIO_PIN_5}; #define RF_CS1(id) HAL_GPIO_WritePin(rf_cs_port[id],rf_cs_pin[id], GPIO_PIN_SET) #define RF_CS0(id) HAL_GPIO_WritePin(rf_cs_port[id],rf_cs_pin[id], GPIO_PIN_RESET) #define PA_EN1(id) HAL_GPIO_WritePin(rf_ce_port[id],rf_ce_pin[id], GPIO_PIN_SET) #define PA_EN0(id) HAL_GPIO_WritePin(rf_ce_port[id],rf_ce_pin[id],GPIO_PIN_RESET) #define LNA_EN1(id) HAL_GPIO_WritePin(rf_paTX_port[id],rf_paTX_pin[id],GPIO_PIN_SET) #define LNA_EN0(id) HAL_GPIO_WritePin(rf_paTX_port[id],rf_paTX_pin[id],GPIO_PIN_RESET) //#define RF_READ(id) HAL_GPIO_ReadPin(rf_it_port[id],rf_it_pin[id]) #define RF_READ(id) HAL_GPIO_ReadPin(GPIOA,GPIO_PIN_6) // miso control GPIO_TypeDef* const miso_ctrl_port[4]={GPIOE,GPIOB,GPIOE,GPIOE}; uint16_t const miso_ctrl_pin[4] ={GPIO_PIN_8,GPIO_PIN_7,GPIO_PIN_9,GPIO_PIN_10}; #define OPEN_MISO(id) HAL_GPIO_WritePin(miso_ctrl_port[id],miso_ctrl_pin[id], GPIO_PIN_SET) #define CLOSE_MISO(id) HAL_GPIO_WritePin(miso_ctrl_port[id],miso_ctrl_pin[id], GPIO_PIN_RESET) /* 2019.12.04 实测 delay(500) =500us; 环境：主频168MHz,关闭中断,IO取反用示波器测试!! 由于GPIO无法响应 delayus(1)，所以实际测试delay(500) =500us */ void ccxx_delay_us( unsigned short time ) { unsigned short i = 0; while( time-- ){ i = 30; while( i-- ) ; } } //等待芯片ready static void CC_Rdy(unsigned char rf_id) { unsigned char i; for (i=0;i<10;i++){ if( RF_READ(rf_id) ==0) return; ccxx_delay_us(10);// //DelayUs(20);// } } //#define SIM_SPI //2020.06.03测试寄存器操作方式ok。 #define SPI1_BREAK 200 extern SPI_HandleTypeDef hspi1; static unsigned char SPI1_ReadWriteByte(unsigned char TxData,unsigned char rf_id) { #ifdef SIM_SPI unsigned short retry=0; if((SPI1->CR1 &SPI_CR1_SPE) != SPI_CR1_SPE){ /* Enable SPI peripheral */ SPI1->CR1 |= SPI_CR1_SPE; //__HAL_SPI_ENABLE(hspi); } while((SPI1->SR&1<<1)==0){// 等待发送空闲 if(retry++>SPI1_BREAK)return 0; } SPI1->DR=TxData; //发送 retry=0; while((SPI1->SR&1<<0)==0){ //等待接收完成 if(retry++>SPI1_BREAK)return 0; } return SPI1->DR; //返回接收到的数据 #else HAL_StatusTypeDef rlst; unsigned char rx_data; // OPEN_MISO(rf_id); rlst =HAL_SPI_TransmitReceive(&hspi1,&TxData,&rx_data,1, 5); // CLOSE_MISO(rf_id); if(rlst == HAL_OK) return rx_data; else return 0; #endif } //写命令 static unsigned char CC_Cmd(unsigned char Cmd,unsigned char rf_id) { unsigned char Status; RF_CS0(rf_id); CC_Rdy(rf_id); Status=SPI1_ReadWriteByte(Cmd,rf_id); RF_CS1(rf_id); return Status; } //指定地址，写配置字 static unsigned char CC_WrReg(unsigned char Addr,unsigned char Data,unsigned char rf_id) { unsigned char Status; RF_CS0(rf_id); CC_Rdy(rf_id); Status=SPI1_ReadWriteByte(Addr,rf_id); SPI1_ReadWriteByte(Data,rf_id); RF_CS1(rf_id); return Status; } //指定地址，连续写配置 static unsigned char CC_WrRegs(unsigned char Addr,unsigned char *Buf,unsigned char Count,unsigned char rf_id) { unsigned char Status,i; RF_CS0(rf_id); CC_Rdy(rf_id); Status=SPI1_ReadWriteByte(Addr|0x40,rf_id); for (i=0;iFSCTRL1,rf_id); CC_WrReg(CCxxx0_FSCTRL0, pRfSettings->FSCTRL0,rf_id); CC_WrReg(CCxxx0_FREQ2, pRfSettings->FREQ2,rf_id); CC_WrReg(CCxxx0_FREQ1, pRfSettings->FREQ1,rf_id); CC_WrReg(CCxxx0_FREQ0, pRfSettings->FREQ0,rf_id); CC_WrReg(CCxxx0_MDMCFG4, pRfSettings->MDMCFG4,rf_id); CC_WrReg(CCxxx0_MDMCFG3, pRfSettings->MDMCFG3,rf_id); CC_WrReg(CCxxx0_MDMCFG2, pRfSettings->MDMCFG2,rf_id); CC_WrReg(CCxxx0_MDMCFG1, pRfSettings->MDMCFG1,rf_id); CC_WrReg(CCxxx0_MDMCFG0, pRfSettings->MDMCFG0,rf_id); CC_WrReg(CCxxx0_CHANNR, pRfSettings->CHANNR,rf_id); CC_WrReg(CCxxx0_DEVIATN, pRfSettings->DEVIATN,rf_id); CC_WrReg(CCxxx0_FREND1, pRfSettings->FREND1,rf_id); CC_WrReg(CCxxx0_FREND0, pRfSettings->FREND0,rf_id); CC_WrReg(CCxxx0_MCSM0 , pRfSettings->MCSM0 ,rf_id); CC_WrReg(CCxxx0_FOCCFG, pRfSettings->FOCCFG,rf_id); CC_WrReg(CCxxx0_BSCFG, pRfSettings->BSCFG,rf_id); CC_WrReg(CCxxx0_AGCCTRL2, pRfSettings->AGCCTRL2,rf_id); CC_WrReg(CCxxx0_AGCCTRL1, pRfSettings->AGCCTRL1,rf_id); CC_WrReg(CCxxx0_AGCCTRL0, pRfSettings->AGCCTRL0,rf_id); CC_WrReg(CCxxx0_FSCAL3, pRfSettings->FSCAL3,rf_id); CC_WrReg(CCxxx0_FSCAL2, pRfSettings->FSCAL2,rf_id); CC_WrReg(CCxxx0_FSCAL1, pRfSettings->FSCAL1,rf_id); CC_WrReg(CCxxx0_FSCAL0, pRfSettings->FSCAL0,rf_id); CC_WrReg(CCxxx0_FSTEST, pRfSettings->FSTEST,rf_id); CC_WrReg(CCxxx0_TEST2, pRfSettings->TEST2,rf_id); CC_WrReg(CCxxx0_TEST1, pRfSettings->TEST1,rf_id); CC_WrReg(CCxxx0_TEST0, pRfSettings->TEST0,rf_id); CC_WrReg(CCxxx0_IOCFG2, pRfSettings->IOCFG2,rf_id); CC_WrReg(CCxxx0_IOCFG0, pRfSettings->IOCFG0,rf_id); CC_WrReg(CCxxx0_PKTCTRL1, pRfSettings->PKTCTRL1,rf_id); CC_WrReg(CCxxx0_PKTCTRL0, pRfSettings->PKTCTRL0,rf_id); CC_WrReg(CCxxx0_ADDR, pRfSettings->ADDR,rf_id); CC_WrReg(CCxxx0_PKTLEN, pRfSettings->PKTLEN,rf_id); CC_WrReg(CCxxx0_FIFOTHR, pRfSettings->FIFOTHR,rf_id); } #endif //================================================== #ifdef CC1101 //M433M RF_SETTINGS rfSettings76800 = { 0x08, // FSCTRL1 Frequency synthesizer control. 0x00, // FSCTRL0 Frequency synthesizer control. 0x10, // FREQ2 Frequency control word, high byte. 0xA9, // FREQ1 Frequency control word, middle byte. 0x5A, // FREQ0 Frequency control word, low byte. 0xAB, // MDMCFG4 Modem configuration. 0x83, // MDMCFG3 Modem configuration. 0x13, // MDMCFG2 Modem configuration. 0x20, // MDMCFG1 Modem configuration. 0xCF, // MDMCFG0 Modem configuration. CHANSPC_M 0x00, // CHANNR Channel number. 0x42, // DEVIATN Modem deviation setting (when FSK modulation is enabled). 0xB6, // FREND1 Front end RX configuration. 0x10, // FREND0 Front end RX configuration. 0x18, // MCSM0 Main Radio Control State Machine configuration. 0x1D, // FOCCFG Frequency Offset Compensation Configuration. 0x1C, // BSCFG Bit synchronization Configuration. 0xC7, // AGCCTRL2 AGC control. 0x00, // AGCCTRL1 AGC control. 0xB2, // AGCCTRL0 AGC control. 0xEA, // FSCAL3 Frequency synthesizer calibration. 0x2A, // FSCAL2 Frequency synthesizer calibration. 0x00, // FSCAL1 Frequency synthesizer calibration. 0x1F, // FSCAL0 Frequency synthesizer calibration. 0x59, // FSTEST Frequency synthesizer calibration. 0x81, // TEST2 Various test settings. 0x35, // TEST1 Various test settings. 0x09, // TEST0 Various test settings. 0x07, // FIFOTHR RXFIFO and TXFIFO thresholds. //add by Gavin 0x0E,//0x09,//0x29, // IOCFG2 GDO2 output pin configuration. 0x09=CCA输出 0x0E=CS输出 0x06, // IOCFG0D GDO0 output pin configuration. Refer to SmartRF� Studio User Manual for detailed pseudo register explanation. 0x04, // PKTCTRL1 Packet automation control. 0x05, // PKTCTRL0 Packet automation control. 0x00, // ADDR Device address. 0x25,//0x20 // PKTLEN Packet length. }; //*------------------------------------------ //* 函数名称 : cc_rf_config //* 功能描述 : 无线模块配置 //* 入口参数 : 无 //* 出口参数 : 无 //*--------------------------------------------- static void cc_rf_config(RF_SETTINGS *rf_settings,unsigned char rf_id) { // Write register settings CC_WrReg(CCxxx0_FSCTRL1, rf_settings->FSCTRL1,rf_id); CC_WrReg(CCxxx0_FSCTRL0, rf_settings->FSCTRL0,rf_id); CC_WrReg(CCxxx0_FREQ2, rf_settings->FREQ2,rf_id); CC_WrReg(CCxxx0_FREQ1, rf_settings->FREQ1,rf_id); CC_WrReg(CCxxx0_FREQ0, rf_settings->FREQ0,rf_id); CC_WrReg(CCxxx0_MDMCFG4, rf_settings->MDMCFG4,rf_id); CC_WrReg(CCxxx0_MDMCFG3, rf_settings->MDMCFG3,rf_id); CC_WrReg(CCxxx0_MDMCFG2, rf_settings->MDMCFG2,rf_id); CC_WrReg(CCxxx0_MDMCFG1, rf_settings->MDMCFG1,rf_id); CC_WrReg(CCxxx0_MDMCFG0, rf_settings->MDMCFG0,rf_id); CC_WrReg(CCxxx0_CHANNR, rf_settings->CHANNR,rf_id); CC_WrReg(CCxxx0_DEVIATN, rf_settings->DEVIATN,rf_id); CC_WrReg(CCxxx0_FREND1, rf_settings->FREND1,rf_id); CC_WrReg(CCxxx0_FREND0, rf_settings->FREND0,rf_id); CC_WrReg(CCxxx0_MCSM0 , rf_settings->MCSM0 ,rf_id); CC_WrReg(CCxxx0_FOCCFG, rf_settings->FOCCFG,rf_id); CC_WrReg(CCxxx0_BSCFG, rf_settings->BSCFG,rf_id); CC_WrReg(CCxxx0_AGCCTRL2, rf_settings->AGCCTRL2,rf_id); CC_WrReg(CCxxx0_AGCCTRL1, rf_settings->AGCCTRL1,rf_id); CC_WrReg(CCxxx0_AGCCTRL0, rf_settings->AGCCTRL0,rf_id); CC_WrReg(CCxxx0_FSCAL3, rf_settings->FSCAL3,rf_id); CC_WrReg(CCxxx0_FSCAL2, rf_settings->FSCAL2,rf_id); CC_WrReg(CCxxx0_FSCAL1, rf_settings->FSCAL1,rf_id); CC_WrReg(CCxxx0_FSCAL0, rf_settings->FSCAL0,rf_id); CC_WrReg(CCxxx0_FSTEST, rf_settings->FSTEST,rf_id); CC_WrReg(CCxxx0_TEST2, rf_settings->TEST2,rf_id); CC_WrReg(CCxxx0_TEST1, rf_settings->TEST1,rf_id); CC_WrReg(CCxxx0_TEST0, rf_settings->TEST0,rf_id); CC_WrReg(CCxxx0_IOCFG2, rf_settings->IOCFG2,rf_id); CC_WrReg(CCxxx0_IOCFG0, rf_settings->IOCFG0,rf_id); CC_WrReg(CCxxx0_PKTCTRL1, rf_settings->PKTCTRL1,rf_id); CC_WrReg(CCxxx0_PKTCTRL0, rf_settings->PKTCTRL0,rf_id); CC_WrReg(CCxxx0_ADDR, rf_settings->ADDR,rf_id); CC_WrReg(CCxxx0_PKTLEN, rf_settings->PKTLEN,rf_id); //#ifdef BAND2010 CC_WrReg(CCxxx0_FIFOTHR, rf_settings->FIFOTHR,rf_id); //#endif } #endif //#ifdef CC1101 //==================================================================== //u8 CC_RssiCh(u8 rssi) //{//输出值是正值，但都是负的dBm，例如返回值是55是-55dBm // if (rssi>=128) // { return (128+RSSI0-(rssi>>1)); // }else // { return (RSSI0-(rssi>>1)); // } //} /* */ unsigned char cc2500_get_rssi(unsigned char rf_id) { unsigned char rssi =CC_RdStatus(CCxxx0_RSSI,rf_id); if (rssi>=128) return (128+RSSI0-(rssi>>1)); else return (RSSI0-(rssi>>1)); } //u8 CC_PackStatus(void) //{ // return CC_RdStatus(CCxxx0_PKTSTATUS); // //bit0-bit7 GDO0,GDO1,GDO2,SYNC, CCA,PQT,CS,CRCOK // //如果MCSM1.CCA＝0没有使用CCA的话，CCA指示位总为1， // //如果使用CCA，CCA和CS位就相反 //} void rf_set_PA_Mode(unsigned char mode,unsigned char rf_id) { switch (mode) { case 2: CC_PaTable(PAMAX2,rf_id); break; case 3: CC_PaTable(PAMAX3,rf_id); break; // case 4: // CC_PaTable(PAMAX4,rf_id); // break; default: CC_PaTable(PAMAX,rf_id); break; } } unsigned char test_only; void rf_SendPacket(unsigned char *txBuffer, unsigned char size,unsigned char rf_id) { LNA_EN0(rf_id); PA_EN1(rf_id); CC_ClrTx(rf_id);//v1.1保证TxBYTES无以前字节 CC_WrReg(CCxxx0_TXFIFO, size,rf_id);//len CC_WrRegs(CCxxx0_TXFIFO, txBuffer, size,rf_id); CC_Cmd(CCxxx0_STX,rf_id); } //static void cc_freq(unsigned char freq, unsigned char rfpwr) //{ //// //换片选... ////#ifndef CHAN80 //// #ifdef CC1101 //// CC_Chan(freq-1); //add by Gavin //// #else //// CC_Chan(freq*6); //// #endif ////#else //// if (freq<41){ //// CC_Chan(freq*6);// 1-40是双数频点 2402-2480 //// } //// else{ //// freq=3+(freq-41)*6; // 41-80是奇数频点 2401-2479 //// CC_Chan(freq); //// } ////#endif //} void rf_setfreq(unsigned char freq,unsigned char rf_id) { #ifdef CC2500 if (freq<41){ CC_Chan(freq*6,rf_id);// 1-40是双数频点 2402-2480 } else{ freq=3+(freq-41)*6; // 41-80是奇数频点 2401-2479 CC_Chan(freq,rf_id); } #elif defined(CC1101) CC_Chan(freq-1,rf_id); //add by Gavin #endif //cc_set_pa(rfpwr);//基站功率 CC_XCal(rf_id); } #define MAX_LEN 40 //从无线模块读取数据包 static unsigned char cc_rd_packet(unsigned char *buf,unsigned char rf_id) { volatile unsigned char crc_ok=0; // Read length byte buf[0]= CC_RdReg(CCxxx0_RXFIFO,rf_id);//第一字节是Len if( (buf[0]==0)||(buf[0]>MAX_LEN) ) goto RXERR; // Read data from RX FIFO and store in rxBuffer CC_RdRegs(CCxxx0_RXFIFO, buf+1, buf[0],rf_id); // Read the 2 appended status bytes (status[0] = RSSI, status[1] = LQI) //rssi= CC_RdReg(CCxxx0_RXFIFO,rf_id); //lqi=CC_RdReg(CCxxx0_RXFIFO); //if (lqi>0x80) if(CC_RdReg(CCxxx0_RXFIFO,rf_id)>0x80) { crc_ok=1; // MSB of LQI is the CRC_OK bit } else crc_ok=0; // lqi=lqi&0x7F; //len= //CC_RdStatus(CCxxx0_RXBYTES) & 0x7f;//mask by Gavin // if (len==0) // return ; RXERR: //应该为0，不为0就不对，要清除RxFiFo CC_ClrRx(rf_id); return crc_ok; } extern void rf_modual__tx_interrupt_counter(unsigned char id); //-------------------------------------------------------- //无线模块中断服务程序 void rf_Irq(unsigned char rf_id) { volatile unsigned char i; unsigned char tmp[64+1]; PA_EN0(rf_id); LNA_EN1(rf_id); //先处理模块错误情况 i=CC_RdStatus(0x35,rf_id)&0x7f;//CCxxx0_MARCSTATE if (i==17) {CC_ClrRx(rf_id);goto TRXRET;}//Rx_OverFlow错误 if (i==22) {CC_ClrTx(rf_id);goto TRXRET;}//Tx_UnderFlow错误 //根据是否接收到数据，判断是发送完成中断还是接收中断 i=CC_RdStatus(0x3B,rf_id)&0x7f;//CCxxx0_RXBYTES if(i==0){ //发送中断 rf_modual__tx_interrupt_counter(rf_id); } else{ tmp[32]=0; tmp[33]=0; if( cc_rd_packet(tmp+1,rf_id) ){ tmp[0] = rf_id; //record INT id base_core.rf_data_fifo_in(tmp); //keypad_rf_data_save(tmp); }//if } TRXRET: CC_RxOn(rf_id); //rx } /* 设置同步码 */ void rf_set_syncode(unsigned short sync,unsigned char rf_id) { // uint8_t addr[5] = {INIT_ADDR}; //#define INIT_ADDR 0x19,0x98,0xA4,0x25,0x01 // addr[2] = sync>>8; // addr[3] = sync; //修改无线地址码，缺省A425 // NRF24L01_Set_TxAddr( addr, 4 ); //设置TX地址 // NRF24L01_Set_RxAddr( 0,addr, 4 ); //设置RX地址 通道0 CC_WrReg(CCxxx0_SYNC1,sync,rf_id); CC_WrReg(CCxxx0_SYNC0,sync>>8,rf_id); } unsigned char CC_Test(unsigned char rf_id) { return CC_RdStatus(CCxxx0_VERSION,rf_id);//0x03 } unsigned char ver_val; //************************ void rf_initial(unsigned char rf_id) { //打开无线模块spi miso控制开关!以后都不关闭!! OPEN_MISO(rf_id); CC_RESET(rf_id); #ifdef CC1101 //add by Gavin cc_rf_config(&rfSettings76800,rf_id); #else CC_RfConfig(&rfSettings250K,rf_id); #endif ver_val =CC_Test(rf_id); rf_set_syncode(0x25A4,rf_id);//actual test OK! CC_PaTable(PAMAX,rf_id); CC_WrReg(CCxxx0_MCSM1,0x00,rf_id );//0x0f取消CCA，收发总回到RX 不能，否则不能自动校正频率 CC_WrReg(CCxxx0_MCSM0,0x38,rf_id );//MCSM).FS_AUTOCAL 0x18总Calibatre，0x28 IDLE时候，0x38 4次IDLE校正一次 CC_WHITE(1,rf_id); #ifdef CC1101 CC_FEC(1,rf_id); //add by Gavin #endif CC_RxOn(rf_id); //PA控制 LNA_EN1(rf_id); PA_EN0(rf_id); } //-------- FCC CE start -------------------------------------------- #ifdef FCCCE /* */ static void FCC_Init(void ) { extern TIM_HandleTypeDef htim2; extern TIM_HandleTypeDef htim5; HAL_TIM_Base_MspDeInit(&htim2); HAL_TIM_Base_MspDeInit(&htim5); } extern unsigned char base_test_chan; //认证需要的特殊测试模式 //1 连续发射模式（带调制） //2 连续收信模式（带调制） //3 无调制 连续发信模式 //4 无调制 连续收信模式 void FCC_test_enter(unsigned char mode,unsigned char rf_id) { FCC_Init(); CC_Cmd(CCxxx0_SIDLE,0); CC_Cmd(CCxxx0_SIDLE,1); CC_Cmd(CCxxx0_SIDLE,2); CC_Cmd(CCxxx0_SIDLE,3); rf_setfreq(base_test_chan,rf_id); switch (mode){ case 1://连续MSK输出 CLI();//关中断 CC_Cmd(CCxxx0_SIDLE,rf_id); //cc_write_reg(0x08,0x02 );//CCxxx0_PKTCTRL0 持续发射测试功率 CC_WrReg(0x08,0x22,rf_id); //使用随机数据发送，保证有数据出去 //写回标准MSK CC_WrReg(0x12,0x73,rf_id );//CCxxx0_MDMCFG2 CC_WrReg(0x22,0x10,rf_id );//CCxxx0_FREND0 //cc_write_reg(0x11,0x7A ); //MDMCFG3 baud调高可以过500KHz LNA_EN0(rf_id); PA_EN1(rf_id); CC_Cmd(CCxxx0_STX,rf_id); SEI(); //开中断 break; case 2://连续MSK接收 CLI(); //关中断 CC_Cmd(CCxxx0_SIDLE,rf_id); CC_WrReg(0x08,0x02,rf_id );//CCxxx0_PKTCTRL0 持续发射测试功率 //写回标准MSK CC_WrReg(0x12,0x73,rf_id );//CCxxx0_MDMCFG2 CC_WrReg(0x22,0x10,rf_id );//CCxxx0_FREND0 PA_EN0(rf_id); LNA_EN1(rf_id); CC_Cmd(CCxxx0_SRX,rf_id); SEI(); //开中断 break; case 3://连续载波输出，无调制 CLI(); //关中断 CC_Cmd(CCxxx0_SIDLE,rf_id); //以下2行用于KCC测试，只出载波，未调制的---注意：SPAN设1M，VBW1M，但RBW设10K才能看到分开的2个波峰 CC_WrReg(0x12,0x33,rf_id );//CCxxx0_MDMCFG2 CC_WrReg(0x22,0x00,rf_id );//CCxxx0_FREND0 CC_WrReg(0x08,0x02,rf_id );//CCxxx0_PKTCTRL0 持续发射测试功率 LNA_EN0(rf_id); PA_EN1(rf_id); CC_Cmd(CCxxx0_STX,rf_id); SEI(); //开中断 break; case 4://连续载波模式接收，无调制 CLI(); //关中断 CC_Cmd(CCxxx0_SIDLE,rf_id); //以下2行用于KCC测试，只出载波，未调制的---注意：SPAN设1M，VBW1M，但RBW设10K才能看到分开的2个波峰 CC_WrReg(0x12,0x33,rf_id );//CCxxx0_MDMCFG2 CC_WrReg(0x22,0x00,rf_id );//CCxxx0_FREND0 CC_WrReg(0x08,0x02,rf_id );//CCxxx0_PKTCTRL0 持续发射测试功率 PA_EN0(rf_id); LNA_EN1(rf_id); CC_Cmd(CCxxx0_SRX,rf_id); SEI(); //开中断 break; }//sw } #endif //-------- FCC CE stop -------------------------------------------- #endif //CCxxxx