/** * @file: $RCSfile: IEC60870DEF.h,v $ * @brief: $60870相关定义 * * @version: $Revision: 1.1 $ * @date: $Date: 2018/11/24 06:54:49 $ * @author: $Author: lizhongming $ * @state: $State: Exp $ * * @latest: $Id: IEC60870DEF.h,v 1.1 2018/11/24 06:54:49 lizhongming Exp $ */ /****************************************************************************** * * Module: $ IEC60870-5-101 Library. * Filename: $ IEC60870DEF.h * Copyright: $ Copyright(C) 2004 SNAC Ltd. All rights reserved. * Author: $ DGY,YXF * Release: $ * Create: $ 2004/08/07 * Modify: $ ver 0.1 - 2004/09/07 * $ * $ * Language: $ C * Environment: $ VC6/VC7 - WIN32 - I386 (support) * $ GCC - LINUX - I386 (support) * Description: $ Base data type of the IEC60870-5-101 protocol. * ******************************************************************************/ #ifndef _INC_IEC60870_5_101_TYPE_H #define _INC_IEC60870_5_101_TYPE_H /** * @defgroup S_IEC60870_5_PROTOCOL IEC60870-5 serial protocols type identification * @{ */ #define INVALID_0 0 /**< Invalid data type */ /* Process information in monitor direction (station-specific parameter) */ #define M_SP_NA_1 1 /**< Single-point information */ #define M_SP_TA_1 2 /**< Single-point information with time tag */ #define M_DP_NA_1 3 /**< Double-point information */ #define M_DP_TA_1 4 /**< Double-point information with time tag */ #define M_ST_NA_1 5 /**< Step position information */ #define M_ST_TA_1 6 /**< Step position information with time tag */ #define M_BO_NA_1 7 /**< Bitstring of 32 bit */ #define M_BO_TA_1 8 /**< Bitstring of 32 bit with time tag */ #define M_ME_NA_1 9 /**< Measured value, normalised value */ #define M_ME_TA_1 10 /**< Measured value, normalised value with time tag */ #define M_ME_NB_1 11 /**< Measured value, scaled value */ #define M_ME_TB_1 12 /**< Measured value, scaled value with time tag */ #define M_ME_NC_1 13 /**< Measured value, short floating point value */ #define M_ME_TC_1 14 /**< Measured value, short floating point value with time tag */ #define M_IT_NA_1 15 /**< Integrated totals */ #define M_IT_TA_1 16 /**< Integrated totals with time tag */ #define M_EP_TA_1 17 /**< Event of protection equipment with time tag */ #define M_EP_TB_1 18 /**< Packed start events of protection equipment with time tag */ #define M_EP_TC_1 19 /**< Packed output circuit information of protection equipment with time tag */ #define M_PS_NA_1 20 /**< Packed single point information with time tag */ #define M_ME_ND_1 21 /**< Measured value, normalised value without quality descriptor */ #define M_SP_TB_1 30 /**< Single point information with time tag CP56Time2a */ #define M_DP_TB_1 31 /**< Double point information with time tag CP56Time2a */ #define M_ST_TB_1 32 /**< Step position information with time tag CP56Time2a */ #define M_BO_TB_1 33 /**< Bitstring of 32 bit with time tag CP56Time2a */ #define M_ME_TD_1 34 /**< Measured value, normalised value with time tag CP56Time2a */ #define M_ME_TE_1 35 /**< Measured value, scaled value with time tag CP56Time2a */ #define M_ME_TF_1 36 /**< Measured value, short floating point value with time tag CP56Time2a */ #define M_IT_TB_1 37 /**< Integrated totals with time tag CP56Time2a */ #define M_EP_TD_1 38 /**< Event of protection equipment with time tag CP56Time2a */ #define M_EP_TE_1 39 /**< Packed start events of protection equipment with time tag CP56Time2a */ #define M_EP_TF_1 40 /**< Packed tripping events of protection equipment with time tag CP56Time2a */ /* Process information in control direction (station-specific parameter) */ #define C_SC_NA_1 45 /**< Single command */ #define C_DC_NA_1 46 /**< Double command */ #define C_RC_NA_1 47 /**< Regulating step command */ #define C_SE_NA_1 48 /**< Set point command, normalised value */ #define C_SE_NB_1 49 /**< Set point command, scaled value */ #define C_SE_NC_1 50 /**< Set point command, short floating point value */ #define C_BO_NA_1 51 /**< Bitstring of 32 bit */ #define C_SC_TA_1 58 /**< Single command with time tag CP56Time2a */ #define C_DC_TA_1 59 /**< Double command with time tag CP56Time2a */ #define C_RC_TA_1 60 /**< Regulating step command with time tag CP56Time2a */ #define C_SE_TA_1 61 /**< Set point command, normalised value with time tag CP56Time2a */ #define C_SE_TB_1 62 /**< Set point command, scaled value with time tag CP56Time2a */ #define C_SE_TC_1 63 /**< Set point command, short floating point value with time tag CP56Time2a */ #define C_BO_TA_1 64 /**< Bitstring of 32 bit with time tag CP56Time2a */ /* System information in monitor direction (station-specific parameter) */ #define M_EI_NA_1 70 /**< End of initialisation */ /* System information in control direction (station-specific parameter) */ #define C_IC_NA_1 100 /**< Interrogation command 定值召唤 */ #define C_CI_NA_1 101 /**< Counter interrogation command */ #define C_RD_NA_1 102 /**< Read command */ #define C_CS_NA_1 103 /**< Clock synchronisation command */ #define C_TS_NA_1 104 /**< Test command */ #define C_RP_NA_1 105 /**< Reset process command */ #define C_CD_NA_1 106 /**< Delay acquisition command */ #define C_TS_TA_1 107 /**< Test command with time tag CP56Time2a */ /* Parameter in control direction (station-specific parameter) */ #define P_ME_NA_1 110 /**< Parameter of measured value, normalised value */ #define P_ME_NB_1 111 /**< Parameter of measured value, scaled value */ #define P_ME_NC_1 112 /**< Parameter of measured value, short floating point value */ #define P_AC_NA_1 113 /**< Active parameter */ /* File Transfer (station-specific parameter) */ #define F_FR_NA_1 120 /**< File ready */ #define F_SR_NA_1 121 /**< Section ready */ #define F_SC_NA_1 122 /**< Call directory, select file, call file, call section */ #define F_LS_NA_1 123 /**< Last section, last segment */ #define F_AF_NA_1 124 /**< Ack file, ack section */ #define F_SG_NA_1 125 /**< Segment */ #define F_DR_TA_1 126 /**< Directory */ /* Special type for AGC */ #define C_SE_ND_1 136 /**< Set multi-point command, normalised value */ /* EYE-LINUX系统顺控特殊定义 */ #define M_ES_NA_1 41 /**< 顺控执行信息上送的数据类型 */ #define C_GS_NA_1 114 /**< */ #define C_SS_NA_1 115 /**< */ /* EYE-LINUX系统特殊定义 */ #define C_MT_ND_1 152 /**< Multi-point transmit command, normalised value (用于下定值) */ #define M_EX_TA_1 153 /**< 带SOE参数的扩展提出报文 */ #define C_SE_EX_1 154 /**< Set Point Command,设点命令，无选择过程，直接执行 */ #define M_GD_NA_1 160 /**< IEC60870-5-103 GDD type monitor direction data [字符串] */ #define C_GD_NA_1 168 /**< IEC60870-5-103 GDD type control direction data */ /* EYE-LINUX系统特殊定义 */ #define D_RE_DT_1 180 /**< 招录波列表命令 */ #define D_FA_SE_1 181 /**< 招录波命令 */ #define D_ACC_ACK_1 182 /**< 录波规约响应 */ #define M_IT_S1_1 185 /** Signed int 1 */ #define M_IT_U1_1 186 /** Unsigned int 1 */ #define M_IT_S2_1 187 /** Signed int 2 */ #define M_IT_U2_1 188 /** Unsigned int 2 */ #define M_IT_S4_1 189 /** Signed int 4 */ #define M_IT_U4_1 190 /** Unsigned int 4 */ #define M_IT_F4_1 191 /** float 4 */ #define M_IT_F8_1 192 /** float 8 */ /* ------------------------------------------------------------------------------------ * IEC60870-5-101 cause of transmission possibilities for each ASDU * Cause := UI6[1..6] <0..63> * <14..19> := reserved for further compatible definitions * <42..47> := reserved for further compatible definitions */ #define COT0_NOTUSED_1 0 /**< not used */ #define COT1_PERCYC_1 1 /**< periodic, cyclic */ #define COT2_BACK_1 2 /**< background scan */ #define COT3_SPONT_1 3 /**< spontaneous */ #define COT4_INIT_1 4 /**< initialised */ #define COT5_REQ_1 5 /**< request or requested */ #define COT6_ACT_1 6 /**< activation */ #define COT7_ACTCON_1 7 /**< activation confirmation */ #define COT8_DEACT_1 8 /**< deactivation */ #define COT9_DEACTCON_1 9 /**< deactivation confirmation */ #define COT10_ACTTERM_1 10 /**< activation termination */ #define COT11_RETREM_1 11 /**< return information caused by a remote command */ #define COT12_RETLOC_1 12 /**< return information caused by a local command */ #define COT13_FILE_1 13 /**< file transfer */ #define COT20_INROGEN_1 20 /**< interrogated by general interrogation */ #define COT21_INRO1_1 21 /**< interrogated by group 1 interrogation */ #define COT22_INRO2_1 22 /**< interrogated by group 2 interrogation */ #define COT23_INRO3_1 23 /**< interrogated by group 3 interrogation */ #define COT24_INRO4_1 24 /**< interrogated by group 4 interrogation */ #define COT25_INRO5_1 25 /**< interrogated by group 5 interrogation */ #define COT26_INRO6_1 26 /**< interrogated by group 6 interrogation */ #define COT27_INRO7_1 27 /**< interrogated by group 7 interrogation */ #define COT28_INRO8_1 28 /**< interrogated by group 8 interrogation */ #define COT29_INRO9_1 29 /**< interrogated by group 9 interrogation */ #define COT30_INRO10_1 30 /**< interrogated by group 10 interrogation */ #define COT31_INRO11_1 31 /**< interrogated by group 11 interrogation */ #define COT32_INRO12_1 32 /**< interrogated by group 12 interrogation */ #define COT33_INRO13_1 33 /**< interrogated by group 13 interrogation */ #define COT34_INRO14_1 34 /**< interrogated by group 14 interrogation */ #define COT35_INRO15_1 35 /**< interrogated by group 15 interrogation */ #define COT36_INRO16_1 36 /**< interrogated by group 16 interrogation */ #define COT37_REQCOGEN_1 37 /**< reques ted by general counter request */ #define COT38_REQCO1_1 38 /**< reques ted by group 1 counter request */ #define COT39_REQCO1_1 39 /**< reques ted by group 2 counter request */ #define COT40_REQCO1_1 40 /**< reques ted by group 3 counter request */ #define COT41_REQCO1_1 41 /**< reques ted by group 4 counter request */ /**< 动作参数 */ #ifdef _OS_WIN32_ #pragma pack(push,1) #endif typedef struct I_STRUCT I_STRUCT; /** I_STRUCT */ struct I_STRUCT { uint32_t flag:1; /**< I format flag = 0 */ uint32_t SNO:15; /**< Send number */ uint32_t RES:1; /**< Reserved = 0 */ uint32_t RNO:15; /**< Recieve number */ }ALIGNPACKED; /**< I format */ typedef struct S_STRUCT S_STRUCT; /** S_STRUCT */ struct S_STRUCT { uint32_t flag:2; /**< S format flag = 01 */ uint32_t RES:15; /**< Reserved = 0 */ uint32_t RNO:15; /**< Recieve number */ }ALIGNPACKED; /**< S format */ typedef struct U_STRUCT U_STRUCT; /** U_STRUCT */ struct U_STRUCT { uint32_t flag:2; /**< U format flag = 11 */ uint32_t STARTDT:2; /**< STARTDT */ uint32_t STOPDT:2; /**< STOPDT */ uint32_t TESTFR:2; /**< TESTFR */ uint32_t RES:24; /**< Reserved = 0 */ }ALIGNPACKED; /**< U format */ typedef union ctrlarea_t ctrlarea_t; /** Control field */ union ctrlarea_t { byte_t byte[4]; I_STRUCT I; S_STRUCT S; U_STRUCT U; }ALIGNPACKED; typedef struct apci_t apci_t; /** apci_t */ struct apci_t { /* IEC60870-5-104 special */ byte_t startC1; /* Start character = 68H */ byte_t length1; /* length */ ctrlarea_t ctrl_field; /* Control field */ }ALIGNPACKED; /* FRAME_TYPE()/IS_I_FRAME()/IS_S_FRAME()/IS_U_FRAME()*/ typedef struct asdustd_t asdustd_t; struct asdustd_t { byte_t typid; /* Type identification */ byte_t vsq; /* Variable structure qualifier */ uint16_t cot; /* Cause of transmission */ uint16_t addr; /* Common address of ASDUs */ byte_t data[256]; /* Variable structure qualifier */ }ALIGNPACKED; // =============================================================================== /** 品质描述字的含义 * BL=封锁/未被封锁 * 信息体的值被闭锁后，为了传输需要，传输被封锁前的值，封锁和解锁可以由当地联锁 * 机构或当地其他原因来启动。 * SB=取代/未被取代 * 信息体的值被值班员的输入值或由一个自动装置的输入所取代。 * NT=当前值/非当前值 * 若最近的刷新成功则值就称为当前值。若在一个指定的时间间隔内刷新不成功或者值不 * 可用就称为非当前值。 * IV=有效/无效 * 若值被正确采集就是有效，在采集功能确认信息源的反常状态(丧失或非工作刷新)则值 * 就是无效，信息体值在这些条件下没有被定义。标上无效用以提醒使用者，此值不正确 * 而不能被使用。 * OV=溢出/未溢出 * EI=事件状态 * 若动作时间值被正确采集就为有效，在采集功能确认它为反常状态时，则动作时间值为 * 无效，信息体动作时间值在这些条件下未被定义。标上无效用以提醒使用者，此值不正 * 确而不能被使用。 */ typedef struct siq_t siq_t; /** 带品质描述的单点信息 * SPI∶=BS1［１］＜0～1＞ * ＜0＞∶=OFF 开 * ＜1＞∶=ON 合 */ #ifdef PPC_LINUX struct siq_t { byte_t IV:1; byte_t NT:1; byte_t SB:1; byte_t BL:1; byte_t RES:3; byte_t SPI:1; }ALIGNPACKED; #else struct siq_t { byte_t SPI:1; byte_t RES:3; byte_t BL:1; byte_t SB:1; byte_t NT:1; byte_t IV:1; }ALIGNPACKED; #endif typedef union SIQ SIQ; union SIQ { byte_t bits; siq_t parts; }ALIGNPACKED; typedef struct diq_t diq_t; /** 带品质描述的双点信息 * DPI∶=UI2［1～2］＜0～3＞ * ＜0＞∶=中间状态或不确定 * ＜1＞∶=确定状态开(OFF) * ＜2＞∶=确定状态合(ON) * ＜3＞∶=中间状态或不确定 */ #ifdef PPC_LINUX struct diq_t { byte_t IV:1; byte_t NT:1; byte_t SB:1; byte_t BL:1; byte_t RES:2; byte_t DPI:2; }ALIGNPACKED; #else struct diq_t { byte_t DPI:2; byte_t RES:2; byte_t BL:1; byte_t SB:1; byte_t NT:1; byte_t IV:1; }ALIGNPACKED; #endif typedef union DIQ DIQ; union DIQ { byte_t bits; diq_t parts; }ALIGNPACKED; typedef struct qdp_t qdp_t; /** 继电保护装置事件的品质描述词 */ #ifdef PPC_LINUX struct qdp_t { byte_t IV:1; byte_t NT:1; byte_t SB:1; byte_t BL:1; byte_t EI:1; byte_t RES:3; }ALIGNPACKED; #else struct qdp_t { byte_t RES:3; byte_t EI:1; byte_t BL:1; byte_t SB:1; byte_t NT:1; byte_t IV:1; }ALIGNPACKED; #endif typedef union QDP QDP; union QDP { byte_t bits; qdp_t parts; }ALIGNPACKED; typedef struct qds_t qds_t; /** 品质描述词 */ #ifdef PPC_LINUX struct qds_t { byte_t IV:1; byte_t NT:1; byte_t SB:1; byte_t BL:1; byte_t RES:3; byte_t OV:1; }ALIGNPACKED; #else struct qds_t { byte_t OV:1; byte_t RES:3; byte_t BL:1; byte_t SB:1; byte_t NT:1; byte_t IV:1; }ALIGNPACKED; #endif typedef union QDS QDS; union QDS { byte_t bits; qds_t parts; }ALIGNPACKED; typedef struct vti_t vti_t; /** 带瞬变状态指示的值 */ #ifdef PPC_LINUX struct vti_t { byte_t transient:1; byte_t value:7; }ALIGNPACKED; #else struct vti_t { byte_t value:7; byte_t transient:1; }ALIGNPACKED; #endif typedef union VTI VTI; union VTI { byte_t bits; vti_t parts; }ALIGNPACKED; typedef struct NVA NVA; /** 测量量，归一化值 */ struct NVA { int16_t value; }ALIGNPACKED; typedef union VA VA; union VA { uint16_t ui; int16_t i; }ALIGNPACKED; typedef struct sva_t sva_t; /** 测量量，标度化值 */ #ifdef PPC_LINUX struct sva_t { uint16_t sign:1; uint16_t value:15; }ALIGNPACKED; #else struct sva_t { uint16_t value:15; uint16_t sign:1; }ALIGNPACKED; #endif typedef union SVA SVA; union SVA { int16_t bits; sva_t parts; }ALIGNPACKED; typedef struct ieee754dp_t ieee754dp_t; /** 测量量，IEEE STD754 R64.52浮点数 */ #ifdef PPC_LINUX struct ieee754dp_t { uint64_t sign:1; uint64_t bexp:11; uint64_t mant:52; }ALIGNPACKED; #else struct ieee754dp_t { uint64_t mant:52; uint64_t bexp:11; uint64_t sign:1; }ALIGNPACKED; #endif typedef union IEEE754DP IEEE754DP; union IEEE754DP { uint64_t bits; ieee754dp_t parts; double d; }ALIGNPACKED; typedef struct ieee754sp_t ieee754sp_t; /** 测量量，IEEE STD754 R32.23短浮点数 */ #ifdef PPC_LINUX struct ieee754sp_t { uint32_t sign:1; uint32_t bexp:8; uint32_t mant:23; }ALIGNPACKED; #else struct ieee754sp_t { uint32_t mant:23; uint32_t bexp:8; uint32_t sign:1; }ALIGNPACKED; #endif typedef union IEEE754SP IEEE754SP; union IEEE754SP { uint32_t bits; ieee754sp_t parts; float f; }ALIGNPACKED; typedef struct scd_t scd_t; /** 状态和状态变化检出 */ struct scd_t { uint16_t ST; uint16_t CD; }ALIGNPACKED; typedef union SCD SCD; union SCD { uint32_t bits; scd_t parts; }ALIGNPACKED; typedef struct bcr_t bcr_t; /** 二进制计数器读数 */ #ifdef PPC_LINUX struct bcr_t { uint32_t counter; byte_t IV:1; byte_t CA:1; byte_t CY:1; byte_t SQ:5; }ALIGNPACKED; #else struct bcr_t { uint32_t counter; byte_t SQ:5; byte_t CY:1; byte_t CA:1; byte_t IV:1; }ALIGNPACKED; #endif typedef union BCR BCR; union BCR { byte_t bits[5]; bcr_t parts; }ALIGNPACKED; typedef struct sep_t sep_t; /** 继电保护装置的单个事件 */ #ifdef PPC_LINUX struct sep_t { byte_t IV:1; byte_t NT:1; byte_t SB:1; byte_t BL:1; byte_t EI:1; byte_t RES:1; byte_t ES:2; }ALIGNPACKED; #else struct sep_t { byte_t ES:2; byte_t RES:1; byte_t EI:1; byte_t BL:1; byte_t SB:1; byte_t NT:1; byte_t IV:1; }ALIGNPACKED; #endif typedef union SEP SEP; union SEP { byte_t bits; sep_t parts; }ALIGNPACKED; typedef struct spe_t spe_t; /** 继电保护装置启动事件 */ #ifdef PPC_LINUX struct spe_t { byte_t RES:2; byte_t SRD:1; byte_t SIE:1; byte_t SL3:1; byte_t SL2:1; byte_t SL1:1; byte_t GS:1; }ALIGNPACKED; #else struct spe_t { byte_t GS:1; byte_t SL1:1; byte_t SL2:1; byte_t SL3:1; byte_t SIE:1; byte_t SRD:1; byte_t RES:2; }ALIGNPACKED; #endif typedef union SPE SPE; union SPE { byte_t bits; spe_t parts; }ALIGNPACKED; typedef struct oci_t oci_t; /** 保护装置输出电路信息 */ #ifdef PPC_LINUX struct oci_t { byte_t RES:4; byte_t CL3:1; byte_t CL2:1; byte_t CL1:1; byte_t GC:1; }ALIGNPACKED; #else struct oci_t { byte_t GC:1; byte_t CL1:1; byte_t CL2:1; byte_t CL3:1; byte_t RES:4; }ALIGNPACKED; #endif typedef union OCI OCI; union OCI { byte_t bits; oci_t parts; }ALIGNPACKED; typedef union BSI BSI; /** 二进状态信息 */ union BSI { uint32_t bits; byte_t parts[4]; }ALIGNPACKED; typedef struct sco_t sco_t; /** 单命令 */ #ifdef PPC_LINUX struct sco_t { byte_t SE:1; byte_t QU:5; byte_t RES:1; byte_t SCS:1; }ALIGNPACKED; #else struct sco_t { byte_t SCS:1; byte_t RES:1; byte_t QU:5; byte_t SE:1; }ALIGNPACKED; #endif typedef union SCO SCO; union SCO { byte_t bits; sco_t parts; }ALIGNPACKED; typedef struct dco_t dco_t; /** 双命令 */ #ifdef PPC_LINUX struct dco_t { byte_t SE:1; byte_t QU:5; byte_t DCS:2; }ALIGNPACKED; #else struct dco_t { byte_t DCS:2; byte_t QU:5; byte_t SE:1; }ALIGNPACKED; #endif typedef union DCO DCO; union DCO { byte_t bits; dco_t parts; }ALIGNPACKED; typedef struct rco_t rco_t; /** 步调节命令 */ #ifdef PPC_LINUX struct rco_t { byte_t SE:1; byte_t QU:5; byte_t RCS:2; }ALIGNPACKED; #else struct rco_t { byte_t RCS:2; byte_t QU:5; byte_t SE:1; }ALIGNPACKED; #endif typedef union RCO RCO; union RCO { byte_t bits; rco_t parts; }ALIGNPACKED; typedef struct qos_t qos_t; /** 设点命令限定词 */ #ifdef PPC_LINUX struct qos_t { byte_t SE:1; byte_t QL:7; }ALIGNPACKED; #else struct qos_t { byte_t QL:7; byte_t SE:1; }ALIGNPACKED; #endif typedef union QOSP QOSP; union QOSP { byte_t bits; qos_t parts; }ALIGNPACKED; typedef struct coi_t coi_t; /** 初始化原因 */ #ifdef PPC_LINUX struct coi_t { byte_t state:1; byte_t cause:7; }ALIGNPACKED; #else struct coi_t { byte_t cause:7; byte_t state:1; }ALIGNPACKED; #endif typedef union COI COI; union COI { byte_t bits; coi_t parts; }ALIGNPACKED; typedef struct QOI QOI; /** 召唤命令的限定词 */ struct QOI { byte_t qoi; }ALIGNPACKED; typedef struct qcc_t qcc_t; /** 电能计数量召唤命令的限定词 */ #ifdef PPC_LINUX struct qcc_t { byte_t FRZ:2; byte_t RQT:6; }ALIGNPACKED; #else struct qcc_t { byte_t RQT:6; byte_t FRZ:2; }ALIGNPACKED; #endif typedef union QCC QCC; union QCC { byte_t bits; qcc_t parts; }ALIGNPACKED; typedef struct FBP FBP; /** 固定测试字 */ struct FBP { uint16_t HEX; }ALIGNPACKED; //#define FBP (uint16_t)(0x55aa) typedef struct QRP QRP; /** 复位进程命令的限定词 */ struct QRP { byte_t qrp; }ALIGNPACKED; typedef struct qpm_t qpm_t; /** 测量值参数限定词 */ #ifdef PPC_LINUX struct qpm_t { byte_t POP:1; byte_t LPC:1; byte_t KPA:6; }ALIGNPACKED; #else struct qpm_t { byte_t KPA:6; byte_t LPC:1; byte_t POP:1; }ALIGNPACKED; #endif typedef union QPM QPM; union QPM { byte_t bits; qpm_t parts; }ALIGNPACKED; #define QPM_NOTUSED 0 /** not used */ #define QPM_THRESHOLD 1 /** threshold value */ #define QPM_SMOOTHING 2 /** smoothing factor (filter time constant) */ #define QPM_LOWLIMIT 3 /** high limits */ #define QPM_HIGHLIMIT 4 /** low limits */ typedef struct QPA QPA; /** 参数激活限定词 */ struct QPA { byte_t qpa; }ALIGNPACKED; /* File Transfer (station-specific parameter) */ /* 文件名定义，其中文件名第2个8位组为将来应用保留 */ #define FILE_TRANSPARENT (1) /**< 透明文件 */ #define FILE_EQUIP (2) /**< 继电保护设备的扰动数据 */ #define FILE_EVENT_SEQ (3) /**< 事件序列 */ #define FILE_ANALOG_SEQ (4) /**< 被记录的模拟量系列 */ /* 传输原因 */ #define FILE_TRAN_DEFAULT (0) /**< 缺省 */ #define FILE_TRAN_SEL (1) /**< 选择文件 */ #define FILE_TRAN_REQ (2) /**< 请求文件 */ #define FILE_TRAN_INACTIVE (3) /**< 停止激活文件 */ #define FILE_TRAN_DELETE (4) /**< 删除文件 */ //.... #define FILE_ERR_MEM (0) /**< 无所请求的空间 */ #define FILE_ERR_CHKSUM (1) /**< 校验和错 */ //.... #define FILE_ERR_FILENAME (4) /**< 非所期望文件名称 */ /** Name Of File */ typedef uint16_t NOF; /** Name Of Session */ typedef byte_t NOS; typedef struct LOF LOF; /** Length Of File */ struct LOF { byte_t lof[3]; }ALIGNPACKED; /** Length Of Session */ typedef byte_t LOS; /** CHeckSum */ typedef byte_t CHS; typedef struct sof_t sof_t; /** State Of File */ #ifdef PPC_LINUX struct sof_t { byte_t FA:1; byte_t FOR:1; byte_t LFD:1; byte_t STATUS:5; }ALIGNPACKED; #else struct sof_t { byte_t STATUS:5; byte_t LFD:1; byte_t FOR:1; byte_t FA:1; }ALIGNPACKED; #endif typedef union SOF SOF; /** State Of File */ union SOF { byte_t bits; sof_t parts; }ALIGNPACKED; typedef struct frq_t frq_t; /** File Ready Qualifier */ #ifdef PPC_LINUX struct frq_t { byte_t ACK:1; /**< =0 ack; =1 deny */ byte_t FILES:7; }ALIGNPACKED; #else struct frq_t { byte_t FILES:7; byte_t ACK:1; /**< =0 ack; =1 deny */ }ALIGNPACKED; #endif typedef union FRQ FRQ; /** File Ready Qualifier */ union FRQ { byte_t bits; frq_t parts; }ALIGNPACKED; typedef struct srq_t srq_t; /** Session Ready Qualifier */ #ifdef PPC_LINUX struct srq_t { byte_t READY:1; byte_t SESSION:7; }ALIGNPACKED; #else struct srq_t { byte_t SESSION:7; byte_t READY:1; }ALIGNPACKED; #endif typedef union SRQ SRQ; /** Session Ready Qualifier */ union SRQ { byte_t bits; srq_t parts; }ALIGNPACKED; typedef struct scq_t scq_t; /** Select/Call Qualifier */ #ifdef PPC_LINUX struct scq_t { byte_t RESPONSE:4; byte_t REQUEST:4; }ALIGNPACKED; #else struct scq_t { byte_t REQUEST:4; byte_t RESPONSE:4; }ALIGNPACKED; #endif typedef union SCQ SCQ; /** Select/Call Qualifier */ union SCQ { byte_t bits; scq_t parts; }ALIGNPACKED; /** Lasted Session Qualifier */ typedef byte_t LSQ; typedef struct afq_t afq_t; /** Ack File/Session Qualifier */ #ifdef PPC_LINUX struct afq_t { byte_t STATUS:4; byte_t ACK:4; }ALIGNPACKED; #else struct afq_t { byte_t ACK:4; byte_t STATUS:4; }ALIGNPACKED; #endif typedef union AFQ AFQ; /** Ack File/Session Qualifier */ union AFQ { byte_t bits; afq_t parts; }ALIGNPACKED; /** ===========================信息对象结构定义区================================= */ /** Process information in monitor direction (station-specific parameter) */ typedef struct M_SP_NA_1_t M_SP_NA_1_t; /** Single-point information */ struct M_SP_NA_1_t { SIQ siq; }ALIGNPACKED; typedef struct M_SP_TA_1_t M_SP_TA_1_t; /** Single-point information with time tag */ struct M_SP_TA_1_t { SIQ siq; CP24Time2a tm; }ALIGNPACKED; typedef struct M_DP_NA_1_t M_DP_NA_1_t; /** Double-point information */ struct M_DP_NA_1_t { DIQ diq; }ALIGNPACKED; typedef struct M_DP_TA_1_t M_DP_TA_1_t; /** Double-point information with time tag */ struct M_DP_TA_1_t { DIQ diq; CP24Time2a tm; }ALIGNPACKED; typedef struct M_ST_NA_1_t M_ST_NA_1_t; /** Step position information */ struct M_ST_NA_1_t { VTI vti; QDS qds; }ALIGNPACKED; typedef struct M_ST_TA_1_t M_ST_TA_1_t; /** Step position information with time tag */ struct M_ST_TA_1_t { VTI vti; QDS qds; CP24Time2a tm; }ALIGNPACKED; typedef struct M_BO_NA_1_t M_BO_NA_1_t; /** Bitstring of 32 bit */ struct M_BO_NA_1_t { BSI bsi; QDS qds; }ALIGNPACKED; typedef struct M_SA_NA_1_t M_SA_NA_1_t; /** String of ASCII */ struct M_SA_NA_1_t { byte_t length; char str[1]; }ALIGNPACKED; typedef struct M_BO_TA_1_t M_BO_TA_1_t; /** Bitstring of 32 bit with time tag */ struct M_BO_TA_1_t { BSI bsi; QDS qds; CP24Time2a tm; }ALIGNPACKED; typedef struct M_ME_NA_1_t M_ME_NA_1_t; /** Measured value, normalised value */ struct M_ME_NA_1_t { NVA nva; QDS qds; }ALIGNPACKED; typedef struct M_ME_TA_1_t M_ME_TA_1_t; /** Measured value, normalised value with time tag */ struct M_ME_TA_1_t { NVA nva; QDS qds; CP24Time2a tm; }ALIGNPACKED; typedef struct M_ME_NB_1_t M_ME_NB_1_t; /** Measured value, scaled value */ struct M_ME_NB_1_t { SVA sva; QDS qds; }ALIGNPACKED; typedef struct M_ME_TB_1_t M_ME_TB_1_t; /** Measured value, scaled value with time tag */ struct M_ME_TB_1_t { SVA sva; QDS qds; CP24Time2a tm; }ALIGNPACKED; typedef struct M_ME_NC_1_t M_ME_NC_1_t; /** Measured value, short floating point value */ struct M_ME_NC_1_t { IEEE754SP std; QDS qds; }ALIGNPACKED; typedef struct M_ME_TC_1_t M_ME_TC_1_t; /** Measured value, short floating point value with time tag */ struct M_ME_TC_1_t { IEEE754SP std; QDS qds; CP24Time2a tm; }ALIGNPACKED; typedef struct M_IT_NA_1_t M_IT_NA_1_t; /** Integrated totals */ struct M_IT_NA_1_t { BCR bcr; }ALIGNPACKED; typedef struct M_IT_TA_1_t M_IT_TA_1_t; /** Integrated totals with time tag */ struct M_IT_TA_1_t { BCR bcr; CP24Time2a tm; }ALIGNPACKED; typedef struct M_EP_TA_1_t M_EP_TA_1_t; /** Event of protection equipment with time tag */ struct M_EP_TA_1_t { SEP sep; CP16Time2a tm16; CP24Time2a tm24; }ALIGNPACKED; typedef struct M_EP_TB_1_t M_EP_TB_1_t; /** Packed start events of protection equipment with time tag */ struct M_EP_TB_1_t { SPE spe; QDP qdp; CP16Time2a tm16; CP24Time2a tm24; }ALIGNPACKED; typedef struct M_EP_TC_1_t M_EP_TC_1_t; /** Packed output circuit information of protection equipment with time tag */ struct M_EP_TC_1_t { OCI oci; QDP qdp; CP16Time2a tm16; CP24Time2a tm24; }ALIGNPACKED; typedef struct M_PS_NA_1_t M_PS_NA_1_t; /** Packed single point information with time tag */ struct M_PS_NA_1_t { SCD scd; QDS qds; }ALIGNPACKED; typedef struct M_ME_ND_1_t M_ME_ND_1_t; /** Measured value, normalised value without quality descriptor */ struct M_ME_ND_1_t { NVA nva; }ALIGNPACKED; typedef struct M_SP_TB_1_t M_SP_TB_1_t; /** Single point information with time tag CP56Time2a */ struct M_SP_TB_1_t { SIQ siq; CP56Time2a tm; }ALIGNPACKED; typedef struct M_DP_TB_1_t M_DP_TB_1_t; /** Double point information with time tag CP56Time2a */ struct M_DP_TB_1_t { DIQ diq; CP56Time2a tm; }ALIGNPACKED; typedef struct M_ST_TB_1_t M_ST_TB_1_t; /** Step position information with time tag CP56Time2a */ struct M_ST_TB_1_t { VTI vti; QDS qds; CP56Time2a tm; }ALIGNPACKED; typedef struct M_BO_TB_1_t M_BO_TB_1_t; /** Bitstring of 32 bit with time tag CP56Time2a */ struct M_BO_TB_1_t { BSI bsi; CP56Time2a tm; }ALIGNPACKED; typedef struct M_ME_TD_1_t M_ME_TD_1_t; /** Measured value, normalised value with time tag CP56Time2a */ struct M_ME_TD_1_t { NVA nva; QDS qds; CP56Time2a tm; }ALIGNPACKED; typedef struct M_ME_TE_1_t M_ME_TE_1_t; /** Measured value, scaled value with time tag CP56Time2a */ struct M_ME_TE_1_t { SVA sva; QDS qds; CP56Time2a tm; }ALIGNPACKED; typedef struct M_ME_TF_1_t M_ME_TF_1_t; /** Measured value, short floating point value with time tag CP56Time2a */ struct M_ME_TF_1_t { IEEE754SP std; QDS qds; CP56Time2a tm; }ALIGNPACKED; typedef struct M_IT_TB_1_t M_IT_TB_1_t; /** Integrated totals with time tag CP56Time2a */ struct M_IT_TB_1_t { BCR bcr; CP56Time2a tm; }ALIGNPACKED; typedef struct M_EP_TD_1_t M_EP_TD_1_t; /** Event of protection equipment with time tag CP56Time2a */ struct M_EP_TD_1_t { SEP sep; CP16Time2a tm16; CP56Time2a tm56; }ALIGNPACKED; typedef struct M_EP_TE_1_t M_EP_TE_1_t; /** Packed start events of protection equipment with time tag CP56Time2a */ struct M_EP_TE_1_t { SPE spe; QDP qdp; CP16Time2a tm16; CP56Time2a tm56; }ALIGNPACKED; typedef struct M_EP_TF_1_t M_EP_TF_1_t; /** Packed tripping events of protection equipment with time tag CP56Time2a */ struct M_EP_TF_1_t { OCI oci; QDP qdp; CP16Time2a tm16; CP56Time2a tm56; }ALIGNPACKED; /** 顺控执行信息上送的数据类型结构 */ typedef struct es_nva_t es_nva_t; struct es_nva_t { byte_t step; byte_t flag; byte_t no; byte_t pause_time; byte_t rsv2; byte_t rsv3; byte_t rsv4; byte_t rsv5; byte_t rsv6; byte_t rsv7; byte_t rsv8; }ALIGNPACKED; typedef struct es_str_t es_str_t; struct es_str_t { byte_t strlen; byte_t string[255]; }ALIGNPACKED; typedef struct M_ES_NA_1_t M_ES_NA_1_t; struct M_ES_NA_1_t { es_nva_t esn; es_str_t ess; }ALIGNPACKED; /** Process information in control direction (station-specific parameter) */ typedef struct C_SC_NA_1_t C_SC_NA_1_t; /** Single command */ struct C_SC_NA_1_t { SCO sco; }ALIGNPACKED; typedef struct C_DC_NA_1_t C_DC_NA_1_t; /** Double command */ struct C_DC_NA_1_t { DCO dco; }ALIGNPACKED; typedef struct C_RC_NA_1_t C_RC_NA_1_t; /** Regulating step command */ struct C_RC_NA_1_t { RCO rco; }ALIGNPACKED; typedef struct C_SE_NA_1_t C_SE_NA_1_t; /** Set point command, normalised value */ struct C_SE_NA_1_t { NVA nva; QOSP qos; }ALIGNPACKED; typedef struct C_SE_EX_1_t C_SE_EX_1_t; /** Set point command, normalised value ,直接执行，无需反校 S/E 位无效，置为 0 */ struct C_SE_EX_1_t { NVA nva; QOSP qos; }ALIGNPACKED; typedef struct C_SE_NB_1_t C_SE_NB_1_t; /** Set point command, scaled value */ struct C_SE_NB_1_t { SVA sva; QOSP qos; }ALIGNPACKED; typedef struct C_SE_NC_1_t C_SE_NC_1_t; /** Set point command, short floating point value */ struct C_SE_NC_1_t { IEEE754SP std; QOSP qos; }ALIGNPACKED; typedef struct C_BO_NA_1_t C_BO_NA_1_t; /** Bitstring of 32 bit */ struct C_BO_NA_1_t { BSI bsi; }ALIGNPACKED; typedef struct C_SC_TA_1_t C_SC_TA_1_t; /** Single command with time tag CP56Time2a */ struct C_SC_TA_1_t { SCO sco; CP56Time2a tm; }ALIGNPACKED; typedef struct C_DC_TA_1_t C_DC_TA_1_t; /** Double command with time tag CP56Time2a */ struct C_DC_TA_1_t { DCO dco; CP56Time2a tm; }ALIGNPACKED; typedef struct C_RC_TA_1_t C_RC_TA_1_t; /** Regulating step command with time tag CP56Time2a */ struct C_RC_TA_1_t { RCO rco; CP56Time2a tm; }ALIGNPACKED; typedef struct C_SE_TA_1_t C_SE_TA_1_t; /** Set point command, normalised value with time tag CP56Time2a */ struct C_SE_TA_1_t { NVA nva; QOSP qos; CP56Time2a tm; }ALIGNPACKED; typedef struct C_SE_TB_1_t C_SE_TB_1_t; /** Set point command, scaled value with time tag CP56Time2a */ struct C_SE_TB_1_t { SVA sva; QOSP qos; CP56Time2a tm; }ALIGNPACKED; typedef struct C_SE_TC_1_t C_SE_TC_1_t; /** Set point command, short floating point value with time tag CP56Time2a */ struct C_SE_TC_1_t { IEEE754SP std; QOSP qos; CP56Time2a tm; }ALIGNPACKED; typedef struct C_BO_TA_1_t C_BO_TA_1_t; /** Bitstring of 32 bit with time tag CP56Time2a */ struct C_BO_TA_1_t { BSI bsi; CP56Time2a tm; }ALIGNPACKED; /** System information in monitor direction (station-specific parameter) */ typedef struct M_EI_NA_1_t M_EI_NA_1_t; /** End of initialisation */ struct M_EI_NA_1_t { COI coi; }ALIGNPACKED; /** System information in control direction (station-specific parameter) */ typedef struct C_IC_NA_1_t C_IC_NA_1_t; /** Interrogation command */ struct C_IC_NA_1_t { QOI qoi; }ALIGNPACKED; typedef struct C_CI_NA_1_t C_CI_NA_1_t; /** Counter interrogation command */ struct C_CI_NA_1_t { QCC qcc; }ALIGNPACKED; /* Read command = C_RD_NA_1 no structure body */ typedef struct C_CS_NA_1_t C_CS_NA_1_t; /** Clock synchronisation command */ struct C_CS_NA_1_t { CP56Time2a tm; }ALIGNPACKED; typedef struct C_TS_NA_1_t C_TS_NA_1_t; /** Test command */ struct C_TS_NA_1_t { FBP fbp; }ALIGNPACKED; typedef struct C_RP_NA_1_t C_RP_NA_1_t; /** Reset process command */ struct C_RP_NA_1_t { QRP qrp; }ALIGNPACKED; typedef struct C_CD_NA_1_t C_CD_NA_1_t; /** Delay acquisition command */ struct C_CD_NA_1_t { CP16Time2a tm; }ALIGNPACKED; typedef struct C_TS_TA_1_t C_TS_TA_1_t; /** Test command with time tag CP56Time2a */ struct C_TS_TA_1_t { FBP fbp; CP56Time2a tm; }ALIGNPACKED; /** Parameter in control direction (station-specific parameter) */ typedef struct P_ME_NA_1_t P_ME_NA_1_t; /** Parameter of measured value, normalised value */ struct P_ME_NA_1_t { NVA nva; QPM qpm; }ALIGNPACKED; typedef struct P_ME_NB_1_t P_ME_NB_1_t; /** Parameter of measured value, scaled value */ struct P_ME_NB_1_t { SVA sva; QPM qpm; }ALIGNPACKED; typedef struct P_ME_NC_1_t P_ME_NC_1_t; /** Parameter of measured value, short floating point value */ struct P_ME_NC_1_t { IEEE754SP std; QPM qpm; }ALIGNPACKED; typedef struct P_AC_NA_1_t P_AC_NA_1_t; /** Active parameter */ struct P_AC_NA_1_t { QPA qpa; }ALIGNPACKED; typedef struct F_FR_NA_1_t F_FR_NA_1_t; /** File Transfer (station-specific parameter) */ struct F_FR_NA_1_t { NOF nof; LOF lof; FRQ frq; }ALIGNPACKED; typedef struct F_SR_NA_1_t F_SR_NA_1_t; /** Section ready */ struct F_SR_NA_1_t { NOF nof; NOS nos; LOF lof; }ALIGNPACKED; typedef struct F_SC_NA_1_t F_SC_NA_1_t; /** Call directory, select file, call file, call section */ struct F_SC_NA_1_t { NOF nof; NOS nos; SCQ scq; }ALIGNPACKED; typedef struct F_LS_NA_1_t F_LS_NA_1_t; /** Last section, last segment */ struct F_LS_NA_1_t { NOF nof; NOS nos; LSQ lsq; CHS chs; }ALIGNPACKED; typedef struct F_AF_NA_1_t F_AF_NA_1_t; /** Ack file, ack section */ struct F_AF_NA_1_t { NOF nof; NOS nos; AFQ afq; }ALIGNPACKED; typedef struct F_SG_NA_1_t F_SG_NA_1_t; /** Segment */ struct F_SG_NA_1_t { NOF nof; NOS nos; LOS los; byte_t seg[1]; }ALIGNPACKED; typedef struct F_DR_TA_1_t F_DR_TA_1_t; /** Directory */ struct F_DR_TA_1_t { NOF nof; LOF lof; SOF nos; CP56Time2a tm; }ALIGNPACKED; /** Special type for AGC */ typedef struct C_SE_ND_1_t C_SE_ND_1_t; /** Set multi-point command, normalised value */ struct C_SE_ND_1_t { uint16_t num; /** 设定值数目 */ }ALIGNPACKED; /** ===========================故障信息结构定义================================= */ typedef struct ACC_PARAM_RELTIME_t ACC_PARAM_RELTIME_t; struct ACC_PARAM_RELTIME_t{ uint16_t relativetime; }ALIGNPACKED; typedef struct ACC_PARAM_FAN_t ACC_PARAM_FAN_t; struct ACC_PARAM_FAN_t{ uint16_t fan; }ALIGNPACKED; typedef struct ACC_PARAM_NOF_t ACC_PARAM_NOF_t; struct ACC_PARAM_NOF_t{ uint16_t nof; }ALIGNPACKED; #ifdef PPC_LINUX struct PHASE_t{ byte_t phaseA :1; //A相故障 byte_t phaseB :1; //B相故障 byte_t phaseC :1; //C相故障 byte_t phaseI :1; //接地故障 byte_t phaseO :1; //区外故障 byte_t res :2; //备用 byte_t valid :1; //有效位 }ALIGNPACKED; #else struct PHASE_t{ byte_t phaseA :1; //A相故障 byte_t phaseB :1; //B相故障 byte_t phaseC :1; //C相故障 byte_t phaseI :1; //接地故障 byte_t phaseO :1; //区外故障 byte_t res :2; //备用 byte_t valid :1; //有效位 }ALIGNPACKED; #endif typedef union ACC_PARAM_PHASE_t ACC_PARAM_PHASE_t; union ACC_PARAM_PHASE_t{ byte_t bit; struct PHASE_t phase; }ALIGNPACKED; typedef struct ACC_PARAM_DISTANCE_t ACC_PARAM_DISTANCE_t; struct ACC_PARAM_DISTANCE_t{ float distance; }ALIGNPACKED; typedef struct ACC_PARAM_MAXI_t ACC_PARAM_MAXI_t; struct ACC_PARAM_MAXI_t{ float max_i; }ALIGNPACKED; typedef struct ACC_PARAM_MINI_t ACC_PARAM_MINI_t; struct ACC_PARAM_MINI_t{ float min_i; }ALIGNPACKED; /** ===========================EYE-LINUX系统特殊结构================================= */ typedef struct C_MT_ND_1_t C_MT_ND_1_t; /** Multi-point transmit command, normalised value */ struct C_MT_ND_1_t { uint16_t num; /** 设定值数目 */ dco_t dco; /** 选择/执行 */ byte_t desc; /** 定值描述 */ uint16_t start; /** 定值起始点号 */ uint16_t end; /** 定值结束点号 */ }ALIGNPACKED; typedef struct gd_t gd_t; struct gd_t { byte_t size; //首字节表示后续字符串的长度 ，c字符串的需包含 结尾 \0所占的长度 byte_t gid[255]; }ALIGNPACKED; /** 字符串类型定义 */ /* 字符串类型使用示例 byte_t value[256]; value_t val; val.data = &value; val.typid = M_GD_NA_1; value[0] = strlen(str)+1 ; //val.data部分，首字节表示后续字符串的长度 ，加上1 是c字符串的结尾 \0所占的长度 val.size = value[0] +1; //value_t的size 应该是： 字符本身长度 + 长度域一字节 strcpy(value+1,str); */ /** Special type for eye-linux */ typedef union M_GD_NA_1_t M_GD_NA_1_t; /** IEC60870-5-103 GDD structure, eye-linux special */ union M_GD_NA_1_t { byte_t bits[256]; gd_t parts; }; typedef union C_GD_NA_1_t C_GD_NA_1_t; /** IEC60870-5-103 GDD structure, eye-linux special */ union C_GD_NA_1_t { byte_t bits[256]; gd_t parts; }ALIGNPACKED; typedef struct value_t value_t; /** 描述存储特定类型数据的缓冲区结构 */ struct value_t { byte_t typid; /**< 数据类型，使用IEC60870-5-101的ASDU TYP定义 */ uint16_t size; /**< = sizeof(typid类型的数据) */ void* data; /**< 指向size大小的内存缓冲区(存储着typid类型的数据) */ }ALIGNPACKED; #define REQ_TD_2 2 //选择录波 #define STA_TD_4 4 //启动录波 #define ACC_ACK_OK 1 //招录波(列表)命令下发成功 #define ACC_ACK_FALUT 2 //招录波(列表)命令下发失败 #define ACC_ACK_BUZY 3 //装置忙，命令未下发 #define ACC_ACK_NOSUPPORT 4 //装置不支持招录波(手动录波） typedef struct dist_record_t dist_record_t; /** Disurbance record */ struct dist_record_t { uint16_t fan; byte_t sof; CP56Time2a glb_tm; }ALIGNPACKED; typedef struct dist_table_t dist_table_t; /** Recorded disturbance table */ struct dist_table_t { uint32_t ied; uint16_t cpu; byte_t nor; /**< Number of disturbance recorded */ dist_record_t *rec; }; typedef struct sfa_t sfa_t; /** Status of Fault */ #ifdef PPC_LINUX struct sfa_t { byte_t RES:4; byte_t OTEV:1; /**< Other event (disturbance data recording initiated by) */ byte_t TEST:1; /**< Type of disturbance values */ byte_t TM:1; /**< Transmit (disturbance data) */ byte_t TP:1; /**< Trip (Recorded fault) */ }ALIGNPACKED; #else struct sfa_t { byte_t TP:1; /**< Trip (Recorded fault) */ byte_t TM:1; /**< Transmit (disturbance data) */ byte_t TEST:1; /**< Type of disturbance values */ byte_t OTEV:1; /**< Other event (disturbance data recording initiated by) */ byte_t RES:4; }ALIGNPACKED; #endif typedef union SFA SFA; /** Status of Fault */ union SFA { byte_t bits; sfa_t parts; }ALIGNPACKED; typedef struct accs_t accs_t; /** Actual channel data */ struct accs_t { byte_t tov; /**< Type of disturbance values */ byte_t acc; /**< Actual channel */ char name[32]; /**< channel name */ char szPhase[8]; /**< channel Phase */ char szUnit[8]; /**< Unit */ IEEE754SP rpv; /**< Rated primary value */ IEEE754SP rsv; /**< Rated secondary value */ IEEE754SP rfa; /**< Reference factor */ byte_t maxframe; /**< max frame number */ uint16_t *ndv; /**< Number of disturbance value */ uint16_t *nfe; /**< The order of firsr disturbance value*/ int16_t **sdv; /**< Single disturbance value buffer */ }ALIGNPACKED; typedef struct tap_t tap_t; /** Tag postion */ struct tap_t { uint16_t tap; /**< Tag postion */ DIQ dpi; /**< Double point information */ }ALIGNPACKED; typedef struct tags_t tags_t; /** Tag postion data */ struct tags_t { byte_t fun; /**< Function type */ byte_t inf; /**< Information number */ byte_t noe; /**< number of tag */ char name[32]; /**< tag Name */ tap_t *tag;/**< Tag postion buffer */ }ALIGNPACKED; typedef struct timespan_t timespan_t; struct timespan_t { int flag; // (0=召非故障录波和故障录波) （1=只召故障录波） CP56Time2a lowbound; //low bound of acc time CP56Time2a highbound; //high bound of acc time }ALIGNPACKED; typedef struct M_EX_TA_1_t M_EX_TA_1_t; #define EXT_SOE_PARAMETER (100) /**< SOE参数扩展 */ struct M_EX_TA_1_t { byte_t typid; /**< 普通SOE报文类型 */ byte_t res_flag1; /**< 备用标志，目前填0 */ byte_t data_1[16]; /**< 填写入普通SOE报文 (Cp56+FLOAT+QOS=7+4+1=13 16 should enough) */ byte_t ext_typid; /**< 扩展报文类型 */ uint16_t len; /**< 扩展部分报文长度 */ byte_t res_flag2; /**< 备用 */ char data_2[256]; /**< 扩展部分内容 */ }ALIGNPACKED; typedef struct EXT_SOE_PARAMETER_HEADER_t EXT_SOE_PARAMETER_HEADER_t; struct EXT_SOE_PARAMETER_HEADER_t { byte_t param_id; /**< 参数ID号 */ byte_t param_type; /**< 参数TYPE */ byte_t param_len; /**< 参数长度 */ /*...参数内容 */ }ALIGNPACKED; //招指定装置录波列表 typedef struct D_RE_DT_1_t D_RE_DT_1_t; struct D_RE_DT_1_t { timespan_t timespan; }ALIGNPACKED; //根据列表招录波 typedef struct D_FA_SE_1_t D_FA_SE_1_t; struct D_FA_SE_1_t { dist_record_t dist_record; }ALIGNPACKED; typedef struct D_ACC_ACK_1_t D_ACC_ACK_1_t; struct D_ACC_ACK_1_t{ byte_t response; //规约响应(ACC_ACK_OK等) }ALIGNPACKED; typedef struct M_IT_S1_1_t M_IT_S1_1_t; struct M_IT_S1_1_t { int8_t s_int1; QDS qds; }ALIGNPACKED; typedef struct M_IT_U1_1_t M_IT_U1_1_t; struct M_IT_U1_1_t { byte_t u_int1; QDS qds; }ALIGNPACKED; typedef struct M_IT_S2_1_t M_IT_S2_1_t; struct M_IT_S2_1_t { int16_t s_int2; QDS qds; }ALIGNPACKED; typedef struct M_IT_U2_1_t M_IT_U2_1_t; struct M_IT_U2_1_t { uint16_t u_int2; QDS qds; }ALIGNPACKED; typedef struct M_IT_S4_1_t M_IT_S4_1_t; struct M_IT_S4_1_t { int32_t s_int4; QDS qds; }ALIGNPACKED; typedef struct M_IT_U4_1_t M_IT_U4_1_t; struct M_IT_U4_1_t { uint32_t u_int4; QDS qds; }ALIGNPACKED; typedef struct M_IT_F4_1_t M_IT_F4_1_t; struct M_IT_F4_1_t { float32_t f_4; QDS qds; }ALIGNPACKED; typedef struct M_IT_F8_1_t M_IT_F8_1_t; struct M_IT_F8_1_t { float64_t f_8; QDS qds; }ALIGNPACKED; #ifdef _OS_WIN32_ #pragma pack(pop) #endif /** @} */ #ifdef __cplusplus extern "C" { #endif /** 复制基于IEC60870标准定义的vlaue_t结构的值，含格式转换 */ APR_DECLARE(int) copy_iec_data(value_t *dstval,value_t *srcval,uint32_t flags); /** 求出某一具体IEC60870-5-101标准信息对象结构的字节长度 */ APR_DECLARE(size_t) sizeof_typid_data(byte_t typid); /** 求出某一具体IEC60870-5-101标准信息对象缓冲区的字节长度 */ APR_DECLARE(size_t) sizeof_typid_buf(byte_t typid, byte_t *buf); /** 将value_t表示的值转换成表示该值实际意义的字符串 */ APR_DECLARE(int) data_value2string(value_t *val,char *szvalue); APR_DECLARE(int) data_actual_val(value_t *val,void *actval); /** 得到EX_TA_1 的实际扩展部分长度字节的偏移量 */ APR_DECLARE(size_t) RDB_Get_EX_TA_Len_offset(byte_t *buf); /** 大小端转换基于IEC60870标准定义的vlaue_t结构的值 */ APR_DECLARE(int) htolval_iec_data(value_t *dstval,value_t *srcval); #ifdef __cplusplus } #endif #endif /*_INC_IEC60870_5_101_TYPE_H */