error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *"

最新推荐文章于 2015-08-24 15:35:16 发布
转载 最新推荐文章于 2015-08-24 15:35:16 发布 · 4.6k 阅读 · 3
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#vc

本文解决VC6.0到VS2008移植过程中CString转换为int的问题，详细介绍了不同编译器环境下编码方式的差异及解决方案，包括使用_ttoi替代atoi。
 
Cstring转int型问题（error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”））
2011-11-24 22:20

在vc6.0下用CString str;num = atoi(str);就可以顺利取到num；
但是同样代码拿到vs2008就报错，error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”；
于是把CString 强制转换为char*，num = atoi((LPSTR)(LPCTSTR)str);
编译不报错，运行成功。但是后面发现，本来str="123"，num应该是123，结果却只是1，试了其他的都是只取最前面一位。
后面百度中无意发现，原来是，vc6.0默认是ansi编码，所以atoi可以直接用，结果也正确；但是VS2008默认的编码方式是Unicode，Unicode下不能用atoi，而要使用_wtoi 也可以直接使用_ttoi，它在 ANSI 编码系统中被编译成atoi()，而在 Unicode 编码系统中编译成_wtoi()。或者把vs改成ansi编码也行。
num = _ttoi(str);（_ttoi类似于_T，随着编码方式会改变）。

Cstring转int型问题（error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”））
mczhang的专栏
03-28 5094
Cstring转int型问题（error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”））   在vc6.0下用CString str;num = atoi(str);就可以顺利取到num； 但是同样代码拿到vs2008就报错，error C2664: “atoi”: 不能将参数 1 从“CString”
关于CString剖析，“strcmp”: 不能将参数1从“CString”转换为“const char *”问题
MOKA
04-06 1252
CString csNewListBoxText; CString csOldListBoxText(g_csFirstListBoxSelText); if(strcmp(csNewListBoxText,csOldListBoxText)!=0) //Release版本下出错情况： //error C2664: “strcmp”: 不能将参数1 ，2从“CString”转换为“cons
不能将参数 1 从“CString”转换为“const char *”
Woosa
03-21 3171
你在vs2008中默认字符集是UNICODE字符集，CString中字符以wchar_t的形式来存储的，而不是char。你在项目-》属性-》配置属性 有一个字符集，可以改字符集，改成多字节字符集就行了。 我在VC的unicode项目中使用如下代码时，提示错误“error C2664: "gethostbyname": 不能将参数 1 从"CString"转换为"const char *"”
C++: VC6转VC8出现问题：error C2664: “fopen”: 不能将参数 1 从“CString”转换为“const char *”...
weixin_30414245的博客
02-27 435
其实还可能出现其它类似的问题，如： error C2664: “fopen”: 不能将参数 1 从“CString”转换为“const char *” error C2039: “strcpy”: 不是“ATL::CStringT<BaseType,StringTraits>”的成员 但是程序在VC6下编译得很好，经过研究发现是设置上有所不同。在VC6中，默认使用MBC...
VS2010下error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”
Quietly_water的博客
08-24 1648
vc6.0下使用 CString str;  num = atoi(str); 可以顺利取到num V2010下使用相同的代码，报：“error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”” 按网上找的解决方法将CString 强制转换为char*， num = atoi((LPSTR)(LPCTSTR)str); 编译不报错
[Error] cannot convert 'std::string {aka std::basic_string<char>}' to 'const char*' for argument '1' to 'int atoi(const char*)'
06-24
我们正在解决一个C++编程问题：如何将std::string转换为constchar*以便用于atoi函数。根据引用[1]：错误信息是“cannotconvert‘std::string’to‘constchar*’forargument‘1’to‘intatoi(constchar*)’”。原因是...
修改如下为同风格使用amx,TR-181 数据模型#include "weather_server.h" #include "log.h" /**************************************************************************************************/ /* DEFINES */ /**************************************************************************************************/ /**************************************************************************************************/ /* TYPES */ /**************************************************************************************************/ /**************************************************************************************************/ /* EXTERN_PROTOTYPES */ /**************************************************************************************************/ /**************************************************************************************************/ /* LOCAL_PROTOTYPES */ /**************************************************************************************************/ static void ubus_collect_now(struct ubus_context *ubus_ctx, struct ubus_event_handler *ev, const char *type, struct blob_attr *msg); static void ubus_update_now(struct ubus_context *ubus_ctx, struct ubus_event_handler *ev, const char *type, struct blob_attr *msg); static int update_weather_url(void); static int uci_renew(int flag); int uci_get_locationkey(void); const char *uci_get_unit(void); static int uci_set_option(char *uci_section, char *uci_option, char *uci_value); static void weather_timer_cb(struct uloop_timeout *timer); /**************************************************************************************************/ /* VARIABLES */ /**************************************************************************************************/ /* ubus变量 */ static struct ubus_context *ubus_ctx = NULL; static char *ubus_patch; /* uci变量 */ static struct uci_context *uci_ctx = NULL; static struct uci_package *uci_weather = NULL; /* uloop */ struct uloop_timeout timer; /* ubus数据接口结构 */ enum { TEMPERATURE_UNIT, LOCATION_KEY, CITY_NAME, WEATHER_SETTINGS_MAX }; /* ubus参数解析policy */ static const struct blobmsg_policy ubus_policy[] = { [TEMPERATURE_UNIT] = {.name = "temperature_unit", .type = BLOBMSG_TYPE_INT32}, [LOCATION_KEY] = {.name = "location_key", .type = BLOBMSG_TYPE_INT32}, [CITY_NAME] = {.name = "city", .type = BLOBMSG_TYPE_STRING}, }; static struct ubus_event_handler weather_settings_ubus_notify = {.cb = ubus_collect_now}; static struct ubus_event_handler weather_update_ubus_notify = {.cb = ubus_update_now}; /* 更新时间间隔 */ #define DEFAULT_INTERVAL 21600 //6h #define HOURLY_UPDATE_INTERVAL 3600 //1h #define MID_INTERVAL 300 //5min #define FAST_INTERVAL 10 //10s static int renew_interval = DEFAULT_INTERVAL; #define MAX_URL_LEN 256 #define POST_TRANSFER_TIMEOUT 5 #define POST_CONNECT_TIMEOUT 5 #define MAX_TOKEN_LEN 128 /* 相关文件地址 */ #define FILE_CLOUD_TOKEN_WEATHER "/tmp/cloud/cloud_token_weather" #define REALTIME_URL_POSTFIX "/v1/weather/realtime" #define FORECASTS_URL_POSTFIX "/v1/weather/forecasts" #define CA_CRT_PATH "/etc/certificate/2048_newroot.cer" /* * brief 保存post执行结果status code. */ typedef struct _st_http_resinfo { long status_code; }st_http_resinfo; /* * brief 保存当日天气数据. */ struct realtime_weather_info_struct{ int temperature; int temperatureMax; int temperatureMin; int houridx; /* 表示当前为6小时预报数据中的第几个小时 */ char weatherType[10]; struct hourlyForecast{ int temperature; char weatherType[10]; // int datetime; /* 未用到 */ }forecast6Hours[6]; }; static struct realtime_weather_info_struct realtime_weather_info; /* * brief 保存未来三日天气数据. */ struct forecast_weather_info_struct{ int temperatureMax; int temperatureMin; char dayWeatherType[10]; char nightWeatherType[10]; }; static struct forecast_weather_info_struct forecast_weather_info[3]; static int weather_errorcode = 0; /* 云端回传错误代码 */ static char weather_message[20]; /* 云端回传错误信息 */ /**************************************************************************************************/ /* LOCAL_FUNCTIONS */ /**************************************************************************************************/ /* * fn char* Int2String(int num,char *str) * details int转string * * param[in] num:待转换int str:指向转换得到字符串的指针 * param[out] * * return str:指向转换得到字符串的指针 * * note */ char* Int2String(int num,char *str)//10进制 { int i = 0;//指示填充str if(num<0)//如果num为负数，将num变正 { num = -num; str[i++] = '-'; } //转换 do { str[i++] = num%10+48;//取num最低位 字符0~9的ASCII码是48~57；简单来说数字0+48=48，ASCII码对应字符'0' num /= 10;//去掉最低位 }while(num);//num不为0继续循环 str[i] = '\0'; //确定开始调整的位置 int j = 0; if(str[0]=='-')//如果有负号，负号不用调整 { j = 1;//从第二位开始调整 ++i;//由于有负号，所以交换的对称轴也要后移1位 } //对称交换 for(;j<i/2;j++) { //对称交换两端的值 其实就是省下中间变量交换a+b的值：a=a+b;b=a-b;a=a-b; str[j] = str[j] + str[i-1-j]; str[i-1-j] = str[j] - str[i-1-j]; str[j] = str[j] - str[i-1-j]; } return str;//返回转换后的值 } /********************************************ubus相关函数*******************************************/ /* * fn static void weather_ubus_update_event_generate(int flag); * details 通过ubus send将更新得到的天气数据发送给其他相关模块 * * param[in] * param[out] * * return * * note */ static void weather_ubus_update_event_generate(int flag) { static struct blob_buf g_ubus_buf; void *table_len = NULL; time_t timep; struct tm date; blob_buf_init(&g_ubus_buf, 0); time(&timep); /* 获取当前unix时间 */ if(0 == flag) /* 0 == flag,发送当日实时天气数据 */ { date = *(localtime(&timep)); table_len = blobmsg_open_table(&g_ubus_buf, "realtime"); blobmsg_add_u32(&g_ubus_buf , "month" , date.tm_mon + 1); blobmsg_add_u32(&g_ubus_buf , "day" , date.tm_mday); blobmsg_add_u32(&g_ubus_buf , "temperature" , realtime_weather_info.temperature); blobmsg_add_u32(&g_ubus_buf , "temperature_min" , realtime_weather_info.temperatureMin); blobmsg_add_u32(&g_ubus_buf , "temperature_max" , realtime_weather_info.temperatureMax); blobmsg_add_string(&g_ubus_buf , "weather_type" , realtime_weather_info.weatherType); blobmsg_close_table(&g_ubus_buf, table_len); INFO("[weather_server]: Ubus send realtime weather, renew time:%ld", timep); } else if(1 == flag) /* 1 == flag,发送未来三天天气数据 */ { timep += 86400; /* 调整到后一天同一时刻 */ date = *(localtime(&timep)); table_len = blobmsg_open_table(&g_ubus_buf, "tomorrow"); blobmsg_add_u32(&g_ubus_buf , "month" , date.tm_mon + 1); blobmsg_add_u32(&g_ubus_buf , "day" , date.tm_mday); blobmsg_add_u32(&g_ubus_buf , "temperature_min" , forecast_weather_info[0].temperatureMin); blobmsg_add_u32(&g_ubus_buf , "temperature_max" , forecast_weather_info[0].temperatureMax); blobmsg_add_string(&g_ubus_buf , "day_weather_type" , forecast_weather_info[0].dayWeatherType); blobmsg_add_string(&g_ubus_buf , "night_weather_type" , forecast_weather_info[0].nightWeatherType); blobmsg_close_table(&g_ubus_buf, table_len); timep += 86400; /* 调整到后一天同一时刻 */ date = *(localtime(&timep)); table_len = blobmsg_open_table(&g_ubus_buf, "2_days_later"); blobmsg_add_u32(&g_ubus_buf , "month" , date.tm_mon + 1); blobmsg_add_u32(&g_ubus_buf , "day" , date.tm_mday); blobmsg_add_u32(&g_ubus_buf , "temperature_min" , forecast_weather_info[1].temperatureMin); blobmsg_add_u32(&g_ubus_buf , "temperature_max" , forecast_weather_info[1].temperatureMax); blobmsg_add_string(&g_ubus_buf , "day_weather_type" , forecast_weather_info[1].dayWeatherType); blobmsg_add_string(&g_ubus_buf , "night_weather_type" , forecast_weather_info[1].nightWeatherType); blobmsg_close_table(&g_ubus_buf, table_len); timep += 86400; /* 调整到后一天同一时刻 */ date = *(localtime(&timep)); table_len = blobmsg_open_table(&g_ubus_buf, "3_days_later"); blobmsg_add_u32(&g_ubus_buf , "month" , date.tm_mon + 1); blobmsg_add_u32(&g_ubus_buf , "day" , date.tm_mday); blobmsg_add_u32(&g_ubus_buf , "temperature_min" , forecast_weather_info[2].temperatureMin); blobmsg_add_u32(&g_ubus_buf , "temperature_max" , forecast_weather_info[2].temperatureMax); blobmsg_add_string(&g_ubus_buf , "day_weather_type" , forecast_weather_info[2].dayWeatherType); blobmsg_add_string(&g_ubus_buf , "night_weather_type" , forecast_weather_info[2].nightWeatherType); blobmsg_close_table(&g_ubus_buf, table_len); INFO("[weather_server]: Ubus send forecast weather, renew time:%ld", timep - 86400 * 3); } else /* 2 == flag,发送小时级预报数据 */ { date = *(localtime(&timep)); table_len = blobmsg_open_table(&g_ubus_buf, "realtime"); blobmsg_add_u32(&g_ubus_buf , "month" , date.tm_mon + 1); blobmsg_add_u32(&g_ubus_buf , "day" , date.tm_mday); blobmsg_add_u32(&g_ubus_buf , "temperature" , realtime_weather_info.forecast6Hours[realtime_weather_info.houridx].temperature); blobmsg_add_u32(&g_ubus_buf , "temperature_min" , realtime_weather_info.temperatureMin); blobmsg_add_u32(&g_ubus_buf , "temperature_max" , realtime_weather_info.temperatureMax); blobmsg_add_string(&g_ubus_buf , "weather_type" , realtime_weather_info.forecast6Hours[realtime_weather_info.houridx].weatherType); blobmsg_close_table(&g_ubus_buf, table_len); INFO("[weather_server]: Ubus send realtime weather, renew time:%ld", timep); DEBUG("houridx:%d,temperature:%d,weather_type:%s",realtime_weather_info.houridx,realtime_weather_info.forecast6Hours[realtime_weather_info.houridx].temperature, realtime_weather_info.forecast6Hours[realtime_weather_info.houridx].weatherType); } /* ubus send event */ ubus_send_event(ubus_ctx, "weather_info_update", g_ubus_buf.head); } /* 清除指定配置项 */ static void uci_del(struct uci_context *p_uci_ctx,const char *section, const char *option) { struct uci_ptr ptr; memset(&ptr, 0, sizeof(struct uci_ptr)); ptr.package = "weather"; ptr.section = section; ptr.option = option; uci_delete(p_uci_ctx, &ptr); return; } /* 清除天气数据 */ static void del_weather_info(void) { struct uci_context *uci_tmpctx = NULL; struct uci_ptr ptr; uci_tmpctx = uci_alloc_context(); if (!uci_tmpctx) { return; } ptr.package = "weather"; ptr.p = uci_lookup_package(uci_tmpctx, "weather"); uci_load(uci_tmpctx, "weather", &ptr.p); uci_del(uci_tmpctx,"realtime","temperature"); uci_del(uci_tmpctx,"realtime","temperatureMax"); uci_del(uci_tmpctx,"realtime","temperatureMin"); uci_del(uci_tmpctx,"realtime","weatherType"); uci_del(uci_tmpctx,"realtime","month"); uci_del(uci_tmpctx,"realtime","day"); uci_del(uci_tmpctx,"tomorrow","temperatureMax"); uci_del(uci_tmpctx,"tomorrow","temperatureMin"); uci_del(uci_tmpctx,"tomorrow","dayWeatherType"); uci_del(uci_tmpctx,"tomorrow","nightWeatherType"); uci_del(uci_tmpctx,"tomorrow","month"); uci_del(uci_tmpctx,"tomorrow","day"); uci_del(uci_tmpctx,"2_days_later","temperatureMax"); uci_del(uci_tmpctx,"2_days_later","temperatureMin"); uci_del(uci_tmpctx,"2_days_later","dayWeatherType"); uci_del(uci_tmpctx,"2_days_later","nightWeatherType"); uci_del(uci_tmpctx,"2_days_later","month"); uci_del(uci_tmpctx,"2_days_later","day"); uci_del(uci_tmpctx,"3_days_later","temperatureMax"); uci_del(uci_tmpctx,"3_days_later","temperatureMin"); uci_del(uci_tmpctx,"3_days_later","dayWeatherType"); uci_del(uci_tmpctx,"3_days_later","nightWeatherType"); uci_del(uci_tmpctx,"3_days_later","month"); uci_del(uci_tmpctx,"3_days_later","day"); uci_commit(uci_tmpctx, &ptr.p, false); uci_free_context(uci_tmpctx); return; } /* * fn static void ubus_collect_now(struct ubus_context *ubus_ctx, * struct ubus_event_handler *ev, * const char *type, struct blob_attr *msg); * details ubus对象方法回调函数，响应ubus send weather_settings_update，更新地理位置参数并立即更新天气信息 * * param[in] * param[out] * * return * * note */ static void ubus_collect_now(struct ubus_context *ubus_ctx, struct ubus_event_handler *ev, const char *type, struct blob_attr *msg) { int status = 0; int temperature_unit = -1; uint32_t location_key = 0; struct blob_attr *tb[WEATHER_SETTINGS_MAX] = {NULL}; char buf[128] = {0}; status = blobmsg_parse(ubus_policy, WEATHER_SETTINGS_MAX, tb, blob_data(msg), blob_len(msg)); if (status < 0) { return; } if (tb[TEMPERATURE_UNIT] && blob_data(tb[TEMPERATURE_UNIT])) { temperature_unit = blobmsg_get_u32(tb[TEMPERATURE_UNIT]); } else { ERR("invalid temperature_unit"); } if (tb[LOCATION_KEY] && blob_data(tb[LOCATION_KEY])) { location_key = blobmsg_get_u32(tb[LOCATION_KEY]); } else { ERR("invalid location_key"); } if (tb[CITY_NAME] && blob_data(tb[CITY_NAME])) { snprintf(buf, sizeof(buf), "%s", blobmsg_get_string(tb[CITY_NAME])); } else { ERR("invalid city_name"); } INFO("[weather_server] Ubus rec: temperature_unit=%d, location_key=%d, city_name=%s",temperature_unit, location_key, buf); del_weather_info(); /* 更新天气信息 */ realtime_weather_info.houridx = 6; /* 小于6会导致不立即从云更新数据 */ weather_timer_cb(&timer); } /* 立即更新天气 */ static void ubus_update_now(struct ubus_context *ubus_ctx, struct ubus_event_handler *ev, const char *type, struct blob_attr *msg) { del_weather_info(); /* 更新天气信息 */ realtime_weather_info.houridx = 6; /* 小于6会导致不立即从云更新数据 */ weather_timer_cb(&timer); } /* * fn static void ubus_reconn_timer(struct uloop_timeout *timeout) * details ubus重连 * * param[in] * param[out] * * return * * note */ static void ubus_reconn_timer(struct uloop_timeout *timeout) { static struct uloop_timeout retry = { .cb = ubus_reconn_timer, }; DEBUG("S:ubus_connection_lost"); if (ubus_reconnect(ubus_ctx, ubus_patch) != 0) { /* 设置每过两秒尝试重连ubusd */ uloop_timeout_set(&retry, 2000); return; } ubus_add_uloop(ubus_ctx); } /* * fn static int weather_ubus_init(char *path) * details ubus初始化 * * param[in] * param[out] * * return * * note */ static int weather_ubus_init(char *path) { ubus_patch = path; /* 连接ubusd */ ubus_ctx = ubus_connect(path); if (!ubus_ctx) { ERR("S:Failed to connect ubusd"); return -1; } /* 设置断线重连回调函数为ubus_reconn_timer */ ubus_ctx->connection_lost = (void (*)(struct ubus_context *))ubus_reconn_timer; DEBUG("S:succeed to connect ubusd"); if (ubus_register_event_handler(ubus_ctx, &weather_settings_ubus_notify, "weather_settings_update") != 0) { ERR("S:Failed to add object to ubusd"); return -1; } if (ubus_register_event_handler(ubus_ctx, &weather_update_ubus_notify, "weather_update") != 0) { ERR("S:Failed to add object to ubusd"); return -1; } /* 向uloop注册 */ ubus_add_uloop(ubus_ctx); DEBUG("S:succeed to add object to ubusd"); return 0; } /* * fn static int weather_ubus_deinit(void) * details 释放ubus变量 * * param[in] * param[out] * * return * * note */ static int weather_ubus_deinit(void) { ubus_unregister_event_handler(ubus_ctx, &weather_settings_ubus_notify); ubus_unregister_event_handler(ubus_ctx, &weather_update_ubus_notify); if(ubus_ctx) { ubus_free(ubus_ctx); } return 0; } /**********************************************天气信息请求*****************************************/ /* * fn static size_t OnWriteData_Post(void* buffer, size_t size, size_t nmemb, void* lpVoid) * details 将从云端收到的数据写入复制到指定字符串中 * * param[in] * param[out] * * return * * note */ static size_t OnWriteData_Post(void* buffer, size_t size, size_t nmemb, void* lpVoid) { unsigned int len = (unsigned int)size * (unsigned int)nmemb; char *str = malloc(len + 1); if (NULL == str || NULL == buffer) { return -1; } char* pData = buffer; memset(str, 0, len + 1); memcpy(str, pData, len); DEBUG("response: %s", str); char **response = lpVoid; *response = str; return len; } /* * fn static size_t cloud_https_post(const char *pUrl, const char *requestHeader, * const char *request, char **response, st_http_resinfo *pHttpResInfo) * details 发送post请求，从云端获取天气数据 * * param[in] * param[out] * * return * * note */ static size_t cloud_https_post(const char *pUrl, const char *requestHeader, const char *request, char **response, st_http_resinfo *pHttpResInfo) { CURLcode res; CURL* curl = NULL; struct curl_slist *headers = NULL; if (NULL == pUrl || NULL == request || NULL == response || NULL == pHttpResInfo) { return CURLE_FAILED_INIT; } DEBUG("pUrl:%s requestHeader:%s request:%s", pUrl, requestHeader, request); res = curl_global_init(CURL_GLOBAL_ALL); if (CURLE_OK != res) { ERR("curl global init fail and ret %d", res); return res; } curl = curl_easy_init(); if (NULL == curl) { res = CURLE_FAILED_INIT; ERR("curl init fail"); goto exit; } // headers = curl_slist_append(headers, "Content-Type: application/json;charset=UTF-8"); headers = curl_slist_append(headers, "Content-Type: application/json"); if (NULL == headers) { ERR("curl get header list fail"); goto exit; } if ((NULL != requestHeader) && (0 < strlen(requestHeader))) { DEBUG("requestHeader is %s", requestHeader); headers = curl_slist_append(headers, requestHeader); if (NULL == headers) { ERR("curl append requestHeader fail"); goto exit; } } //set url // DEBUG("request_url:%s",pUrl); res = curl_easy_setopt(curl, CURLOPT_URL, pUrl); if (CURLE_OK != res) { ERR("curl set option CURLOPT_URL ret %d", res); goto exit; } //set header //DEBUG("request_header:%s",headers); res = curl_easy_setopt(curl, CURLOPT_HTTPHEADER, headers); if (CURLE_OK != res) { ERR("curl set option CURLOPT_HTTPHEADER ret %d", res); goto exit; } //set post method res = curl_easy_setopt(curl, CURLOPT_POST, 1); if (CURLE_OK != res) { ERR("curl set option CURLOPT_POST ret %d", res); goto exit; } // DEBUG("request_data:%s",request); res = curl_easy_setopt(curl, CURLOPT_POSTFIELDS, request); if (CURLE_OK != res) { ERR("curl set option CURLOPT_POSTFIELDS ret %d", res); goto exit; } //set read/write params res = curl_easy_setopt(curl, CURLOPT_READFUNCTION, NULL); if (CURLE_OK != res) { ERR("curl set option CURLOPT_READFUNCTION ret %d", res); goto exit; } res = curl_easy_setopt(curl, CURLOPT_WRITEFUNCTION, OnWriteData_Post); if (CURLE_OK != res) { ERR("curl set option CURLOPT_WRITEFUNCTION ret %d", res); goto exit; } res = curl_easy_setopt(curl, CURLOPT_WRITEDATA, (void *)response); if (CURLE_OK != res) { ERR("curl set option CURLOPT_WRITEDATA ret %d", res); goto exit; } res = curl_easy_setopt(curl, CURLOPT_NOSIGNAL, 1); if (CURLE_OK != res) { ERR("curl set option CURLOPT_NOSIGNAL ret %d", res); goto exit; } //set certificate info res = curl_easy_setopt(curl, CURLOPT_SSL_VERIFYPEER, 1); if (CURLE_OK != res) { ERR("curl set option CURLOPT_SSL_VERIFYPEER ret %d", res); goto exit; } res = curl_easy_setopt(curl, CURLOPT_CAINFO, CA_CRT_PATH); if (CURLE_OK != res) { ERR("curl set option CURLOPT_CAINFO ret %d", res); goto exit; } //set CURLOPT_CONNECTTIMEOUT res = curl_easy_setopt(curl, CURLOPT_CONNECTTIMEOUT, POST_TRANSFER_TIMEOUT); if (CURLE_OK != res) { ERR("curl set option CURLOPT_CONNECTTIMEOUT ret %d", res); goto exit; } //set CURLOPT_TIMEOUT res = curl_easy_setopt(curl, CURLOPT_TIMEOUT, POST_CONNECT_TIMEOUT); if (CURLE_OK != res) { ERR("curl set option CURLOPT_TIMEOUT ret %d", res); goto exit; } //CURLOPT needs to be set_ FOLLOWLOCATION is 1, otherwise, the data after redirecting will not be returned res = curl_easy_setopt(curl, CURLOPT_FOLLOWLOCATION, 1); if (CURLE_OK != res) { ERR("curl set option CURLOPT_FOLLOWLOCATION ret %d", res); goto exit; } res = curl_easy_setopt(curl, CURLOPT_SSLVERSION, CURL_SSLVERSION_TLSv1_2); if (CURLE_OK != res) { ERR("curl set option CURL_SSLVERSION_TLSv1_2 ret %d", res); goto exit; } res = curl_easy_perform(curl); curl_easy_getinfo(curl, CURLINFO_HTTP_CODE, &(pHttpResInfo->status_code)); DEBUG("cloud_https_post done. ret %d, http status code %d", res, pHttpResInfo->status_code); exit: if (headers) { curl_slist_free_all(headers); } if (curl) { curl_easy_cleanup(curl); } curl_global_cleanup(); return res; } /* * fn int get_token_url(char *token, char *url) * details 获取device token和云端天气预报请求url * * param[in] * param[out] * * return * * note */ int get_token_url(char *token, char *url) { int ret = -1; int retry_count = 3; FILE *fp = NULL; while (retry_count > 0) { if((fp = fopen(FILE_CLOUD_TOKEN_WEATHER, "r"))) { fscanf(fp, "%s", token); fscanf(fp, "%s", url); fclose(fp); ret = 0; break; } else { system("cloud_getDevToken weather"); } retry_count--; } return ret; } /* * fn static int set_weather_cloud_request_data(char *device_token, char *request_data) * details 读取uci配置中的location_key，与输入参数device_token共同构造post请求参数 * * param[in] char *device_token 从云端获取的device token * char *request_data 存储post请求参数字符串 * param[out] * * return * * note */ static int set_weather_cloud_request_data(char *device_token, char *request_data) { //int ret = -1; json_object* request_data_json = NULL; const char* request_data_out = NULL; //FILE *fp = NULL; int locationkey = 0; locationkey = uci_get_locationkey(); if ( -1 == locationkey) { ERR("uci_get_locationkey failed"); return -1; } if ((request_data_json = json_object_new_object()) == NULL) { return -1; } json_object_object_add(request_data_json, "locationKey", json_object_new_int(locationkey)); json_object_object_add(request_data_json, "deviceToken", json_object_new_string(device_token)); request_data_out = json_object_to_json_string(request_data_json); memcpy(request_data, request_data_out, strlen(request_data_out)); if (request_data_json) { json_object_put(request_data_json); } return 0; } /* * fn int get_realtime_info_from_cloud(struct realtime_weather_info_struct *realtime_weather_info, * char *device_token, char *url_prefix) * details 从云端获取当日天气数据并解析 * * param[in] struct realtime_weather_info_struct *realtime_weather_info 存储当日天气数据结构体 * char *device_token 从云端获取的device token * char *url_prefix 云端请求天气数据url前缀 * param[out] * * return ret 0表示获取数据成功，-1表示失败 * * note */ int get_realtime_info_from_cloud(struct realtime_weather_info_struct *realtime_weather_info, char *device_token, char *url_prefix) { int ret = -1; int i = 0; char request_url[128] = {0}; char request_header[64] = {0}; char tmpstr[40] = {0}; char request_data[512] = {0}; char *response = ""; st_http_resinfo httpResInfo; json_object* response_json = NULL; json_object* errorcode = NULL; json_object* message = NULL; json_object* result = NULL; json_object* temperature = NULL; json_object* temperatureMax = NULL; json_object* temperatureMin = NULL; json_object* weatherType = NULL; json_object* forecast6Hours = NULL; json_object* hourlyForecats = NULL; int errorcode_data = -1; const char* message_data = NULL; int temperature_data = -1; int temperatureMax_data = -1; int temperatureMin_data = -1; int hourlyTemperature_data[6] = {0}; const char* weatherType_data = NULL; const char* hourlyWeatherType_data[6] = {NULL}; if (realtime_weather_info == NULL || device_token == NULL || url_prefix == NULL) { ERR("params error"); ret = -1; goto exit; } memset(&httpResInfo, 0, sizeof(st_http_resinfo)); sprintf(request_url, "%s%s", url_prefix, REALTIME_URL_POSTFIX); if (-1 == set_weather_cloud_request_data(device_token, request_data)) { ERR("set_weather_cloud_request_data error"); ret = -1; goto exit; } //get post result cloud_https_post(request_url, request_header, request_data, &response, &httpResInfo); DEBUG("httpResInfo.status_code:%ld",httpResInfo.status_code); DEBUG("response:%s",response); if (response && httpResInfo.status_code == 200) { response_json = json_tokener_parse(response); errorcode = json_object_object_get(response_json, "code"); errorcode_data = json_object_get_int(errorcode); if (0 != errorcode_data) { weather_errorcode = errorcode_data; sprintf(tmpstr, "get weather info errorcode:%d", errorcode_data); // uci_set_option("global", "error", tmpstr); ret = -1; goto exit; } message = json_object_object_get(response_json, "message"); result = json_object_object_get(response_json, "result"); temperature = json_object_object_get(result, "temperature"); temperatureMax = json_object_object_get(result, "temperatureMax"); temperatureMin = json_object_object_get(result, "temperatureMin"); weatherType = json_object_object_get(result, "weatherType"); message_data = json_object_get_string(message); temperature_data = json_object_get_int(temperature); temperatureMax_data = json_object_get_int(temperatureMax); temperatureMin_data = json_object_get_int(temperatureMin); weatherType_data = json_object_get_string(weatherType); forecast6Hours = json_object_object_get(result, "forecast6Hours"); if ( json_type_array != json_object_get_type(forecast6Hours) || 6 != json_object_array_length(forecast6Hours) ) { ret = -1; goto exit; } for ( i = 0; i < 6; i++) { hourlyForecats = json_object_array_get_idx(forecast6Hours, i); temperature = json_object_object_get(hourlyForecats, "temperature"); weatherType = json_object_object_get(hourlyForecats, "weatherType"); hourlyTemperature_data[i] = json_object_get_int(temperature); hourlyWeatherType_data[i] = json_object_get_string(weatherType); } if (0 == errorcode_data && message_data && weatherType_data) { DEBUG("errorcode : %d", errorcode_data); DEBUG("message : %s", message_data); DEBUG("temperature : %d", temperature_data); DEBUG("temperatureMax : %d", temperatureMax_data); DEBUG("temperatureMin : %d", temperatureMin_data); DEBUG("weatherType : %s", weatherType_data); // tmpstr = uci_get_unit(); // DEBUG("unit:%s",tmpstr); if (0 == strcmp(uci_get_unit(),"centigrade")) { realtime_weather_info->temperature = (temperature_data - 32) / 1.8; realtime_weather_info->temperatureMax = (temperatureMax_data -32) / 1.8; realtime_weather_info->temperatureMin = (temperatureMin_data - 32) / 1.8; for ( i = 0; i < 6; i++) { realtime_weather_info->forecast6Hours[i].temperature = (hourlyTemperature_data[i] - 32) / 1.8; DEBUG("%d:temperature:%d\n",i,realtime_weather_info->forecast6Hours[i].temperature); } } else { realtime_weather_info->temperature = temperature_data; realtime_weather_info->temperatureMax = temperatureMax_data; realtime_weather_info->temperatureMin = temperatureMin_data; for ( i = 0; i < 6; i++) { realtime_weather_info->forecast6Hours[i].temperature = hourlyTemperature_data[i]; DEBUG("%d:temperature:%d\n",i,realtime_weather_info->forecast6Hours[i].temperature); } } sprintf(realtime_weather_info->weatherType, "%s", weatherType_data); for ( i = 0; i < 6; i++) { sprintf(realtime_weather_info->forecast6Hours[i].weatherType, "%s", hourlyWeatherType_data[i]); DEBUG("%d:weatherType:%s\n",i,realtime_weather_info->forecast6Hours[i].weatherType); } weather_errorcode = errorcode_data; memcpy(weather_message, message_data, strlen(message_data)); ret = 0; } } else { // uci_set_option("global", "error", "cloud_https_post failed"); ret = -1; } exit: if (response_json) { json_object_put(response_json); } if (errorcode) { json_object_put(errorcode); } if (message) { json_object_put(message); } if (result) { json_object_put(result); } if (temperature) { json_object_put(temperature); } if (temperatureMax) { json_object_put(temperatureMax); } if (temperatureMin) { json_object_put(temperatureMin); } if (weatherType) { json_object_put(weatherType); } if (forecast6Hours) { json_object_put(forecast6Hours); } if (hourlyForecats) { json_object_put(hourlyForecats); } return ret; } /* * fn int get_forecast_info_from_cloud(struct forecast_weather_info_struct *forecast_weather_info, * char *device_token, char *url_prefix) * details 从云端获取未来三天天气数据并解析 * * param[in] struct forecast_weather_info_struct *forecast_weather_info 存储未来三天天气数据结构体 * char *device_token 从云端获取的device token * char *url_prefix 云端请求天气数据url前缀 * param[out] * * return ret 0表示获取数据成功，-1表示失败 * * note */ int get_forecast_info_from_cloud(struct forecast_weather_info_struct *forecast_weather_info, char *device_token, char *url_prefix) { int ret = -1; // int ret_post = 0; int i = 0; char request_url[128] = {0}; char request_header[64] = {0}; char tmpstr[40] = {0}; char request_data[512] = {0}; char *response = NULL; st_http_resinfo httpResInfo; json_object* response_json = NULL; json_object* errorcode = NULL; json_object* message = NULL; json_object* result = NULL; json_object* forecastList = NULL; json_object* ListItem = NULL; json_object* temperatureMax = NULL; json_object* temperatureMin = NULL; json_object* dayWeatherType = NULL; json_object* nightWeatherType = NULL; int errorcode_data = -1; const char* message_data = NULL; int temperatureMax_data = -1; int temperatureMin_data = -1; const char* dayWeatherType_data = NULL; const char* nightWeatherType_data = NULL; if (forecast_weather_info == NULL || device_token == NULL || url_prefix == NULL) { ERR("params error"); ret = -1; goto exit; } memset(&httpResInfo, 0, sizeof(st_http_resinfo)); sprintf(request_url, "%s%s", url_prefix, FORECASTS_URL_POSTFIX); if (-1 == set_weather_cloud_request_data(device_token, request_data)) { ERR("set_weather_cloud_request_data error"); ret = -1; goto exit; } //get post result cloud_https_post(request_url, request_header, request_data, &response, &httpResInfo); DEBUG("httpResInfo.status_code:%ld",httpResInfo.status_code); DEBUG("response:%s",response); if (response && httpResInfo.status_code == 200) { response_json = json_tokener_parse(response); errorcode = json_object_object_get(response_json, "code"); errorcode_data = json_object_get_int(errorcode); if (0 != errorcode_data) { weather_errorcode = errorcode_data; sprintf(tmpstr, "get weather info errorcode:%d", errorcode_data); // uci_set_option("global", "error", tmpstr); ret = -1; goto exit; } message = json_object_object_get(response_json, "message"); result = json_object_object_get(response_json, "result"); forecastList = json_object_object_get(result, "forecastList"); message_data = json_object_get_string(message); if (0 == errorcode_data && message_data) { DEBUG("errorcode : %d", errorcode_data); DEBUG("message : %s", message_data); for ( i = 0; i < 3; i++) { ListItem = json_object_array_get_idx(forecastList,i); temperatureMax = json_object_object_get(ListItem, "temperatureMax"); temperatureMin = json_object_object_get(ListItem, "temperatureMin"); dayWeatherType = json_object_object_get(ListItem, "dayWeatherType"); nightWeatherType = json_object_object_get(ListItem, "nightWeatherType"); temperatureMax_data = json_object_get_int(temperatureMax); temperatureMin_data = json_object_get_int(temperatureMin); dayWeatherType_data = json_object_get_string(dayWeatherType); nightWeatherType_data = json_object_get_string(nightWeatherType); DEBUG("temperatureMax : %d", temperatureMax_data); DEBUG("temperatureMin : %d", temperatureMin_data); DEBUG("dayWeatherType : %s", dayWeatherType_data); DEBUG("nightWeatherType : %s", nightWeatherType_data); if (dayWeatherType_data && nightWeatherType_data) { // tmpstr = uci_get_unit(); // DEBUG("unit:%s",tmpstr); if (0 == strcmp(uci_get_unit(),"centigrade")) { forecast_weather_info[i].temperatureMax = (temperatureMax_data - 32) / 1.8; forecast_weather_info[i].temperatureMin = (temperatureMin_data - 32) / 1.8; } else { forecast_weather_info[i].temperatureMax = temperatureMax_data; forecast_weather_info[i].temperatureMin = temperatureMin_data; } sprintf(forecast_weather_info[i].dayWeatherType, "%s", dayWeatherType_data); sprintf(forecast_weather_info[i].nightWeatherType, "%s", nightWeatherType_data); } } weather_errorcode = errorcode_data; memcpy(weather_message, message_data, strlen(message_data)); ret = 0; } } else { // uci_set_option("global", "error", "cloud_https_post failed"); ret = -1; } exit: if (response_json) { json_object_put(response_json); } if (errorcode) { json_object_put(errorcode); } if (message) { json_object_put(message); } if (result) { json_object_put(result); } if (forecastList) { json_object_put(forecastList); } if (ListItem) { json_object_put(ListItem); } if (temperatureMax) { json_object_put(temperatureMax); } if (temperatureMin) { json_object_put(temperatureMin); } if (dayWeatherType) { json_object_put(dayWeatherType); } if (nightWeatherType) { json_object_put(nightWeatherType); } return ret; } /* * fn static int update_weather_url(void) * details 更新天气数据 * * param[in] * param[out] * * return 0表示获取数据成功，-1表示失败 * * note */ static int update_weather_url(void) { char device_token[MAX_TOKEN_LEN] = {0}; char cloud_weather_url[MAX_URL_LEN] = {0}; int i = 0; /* init */ realtime_weather_info.temperature = 0; realtime_weather_info.temperatureMax = 0; realtime_weather_info.temperatureMin = 0; memset(realtime_weather_info.weatherType, 0, sizeof(realtime_weather_info.weatherType)); for ( i = 0; i < 6; i++) { realtime_weather_info.forecast6Hours[i].temperature = 0; // realtime_weather_info.forecast6Hours[i].datetime = 0; memset(realtime_weather_info.forecast6Hours[i].weatherType, 0, sizeof(realtime_weather_info.weatherType)); } for ( i = 0; i < 3; i++) { forecast_weather_info[i].temperatureMax = 0; forecast_weather_info[i].temperatureMin = 0; memset(forecast_weather_info[i].dayWeatherType, 0, sizeof(forecast_weather_info[i].dayWeatherType)); memset(forecast_weather_info[i].nightWeatherType, 0, sizeof(forecast_weather_info[i].nightWeatherType)); } /* online request */ if (0 == (get_token_url(device_token, cloud_weather_url))) { /* get_realtime_info_from_cloud */ if (0 == get_realtime_info_from_cloud(&realtime_weather_info, device_token, cloud_weather_url)) { weather_ubus_update_event_generate(0); if (1 != uci_renew(0)) { ERR("set_realtime_info_to_uci fail"); // uci_set_option("global", "error", "set_realtime_info_to_uci fail"); return -1; } realtime_weather_info.houridx = 0; /* 重置当前小时数 */ DEBUG("get_realtime_info_from_cloud succeed"); } else { WARNING("get_realtime_info_from_cloud error"); return -1; } /* get_forecast_info_from_cloud */ if (0 == get_forecast_info_from_cloud(forecast_weather_info, device_token, cloud_weather_url)) { weather_ubus_update_event_generate(1); if (1 != uci_renew(1)) { ERR("set_forecast_info_to_uci fail"); // uci_set_option("global", "error", "set_forecast_info_to_uci fail"); return -1; } DEBUG("get_forecast_info_from_cloud succeed"); } else { WARNING("get_forecast_info_from_cloud error"); return -1; } } else { ERR("get_token_url error"); return -1; } return 0; } /**********************************************uci相关函数******************************************/ /* * fn static void config_free(void) * details uci变量释放 * * param[in] * param[out] * * return * * note */ static void config_free(void) { if (uci_weather) { uci_unload(uci_ctx, uci_weather); uci_weather = NULL; } if (uci_ctx) { uci_free_context(uci_ctx); uci_ctx = NULL; } } /* * fn static struct uci_package *config_init_package(char *config) * details 获取uci文件package * * param[in] * param[out] * * return * * note */ static struct uci_package *config_init_package(char *config) { struct uci_package *p = NULL; if (!uci_ctx) { /* 申请uci上下文结构uci_ctx */ uci_ctx = uci_alloc_context(); // uci_ctx->flags &= ~UCI_FLAG_STRICT; } else { /* 查找config文件 */ p = uci_lookup_package(uci_ctx, config); if (p) { uci_unload(uci_ctx, p); } DEBUG("S:uci_unload"); } /* 加载配置到内存 */ if ( UCI_OK != uci_load(uci_ctx, config, &p) ) { p = NULL; DEBUG("S:uci load error"); } return p; } /* * fn static int config_alloc(void) * details 获取uci文件package,地址保存到全局变量uci_weather中 * * param[in] * param[out] * * return * * note */ static int config_alloc(void) { uci_weather = config_init_package("weather"); if (!uci_weather) { ERR("S:Failed to load weather config"); return 0; } DEBUG("S:succeed to load weather config"); return 1; } /* * fn static int uci_init(void) * details uci初始化 * * param[in] * param[out] * * return * * note */ static int uci_init(void) { struct uci_section *tmp_sec; /* 获取uci配置文件 */ if( !config_alloc()) { ERR("S:config_alloc error"); config_free(); return 0; } /* 检查uci配置文件中的section */ tmp_sec = uci_lookup_section(uci_ctx, uci_weather, "global"); if ( !tmp_sec) { ERR("S:lookup global section failed"); config_free(); return 0; } tmp_sec = uci_lookup_section(uci_ctx, uci_weather, "realtime"); if ( !tmp_sec) { ERR("S:lookup realtime section failed"); config_free(); return 0; } tmp_sec = uci_lookup_section(uci_ctx, uci_weather, "forecast"); if ( !tmp_sec) { ERR("S:lookup forecast section failed"); config_free(); return 0; } tmp_sec = uci_lookup_section(uci_ctx, uci_weather, "tomorrow"); if ( !tmp_sec) { ERR("S:lookup forecast1 section failed"); config_free(); return 0; } tmp_sec = uci_lookup_section(uci_ctx, uci_weather, "2_days_later"); if ( !tmp_sec) { ERR("S:lookup forecast2 section failed"); config_free(); return 0; } tmp_sec = uci_lookup_section(uci_ctx, uci_weather, "3_days_later"); if ( !tmp_sec) { ERR("S:lookup forecast3 section failed"); config_free(); return 0; } return 1; } /* * fn static int uci_set_option(char *uci_section, char *uci_option, char *uci_value) * details 配置uci配置文件option * * param[in] char *uci_section section名 * char *uci_option option的key， * char *uci_value option的value * param[out] * * return * * note */ static int uci_set_option(char *uci_section, char *uci_option, char *uci_value) { int ret = 0; struct uci_ptr ptr ={ .package = "weather", .section = uci_section, .option = uci_option, .value = uci_value }; /* 配置uci配置文件option,key=uci_option,value=uci_value*/ ret = uci_set(uci_ctx, &ptr); if( UCI_OK != ret) { ERR("S:set %s failed",uci_option); return 0; } // DEBUG("S:set %s ok",uci_option); /* 保存配置 */ uci_save(uci_ctx, ptr.p); uci_commit(uci_ctx, &ptr.p, false); return 1; } /* * fn int uci_get_locationkey(void) * details 从uci配置文件中读取locationkey * * param[in] * param[out] * * return key 从uci配置文件中读取的locationkey * * note */ int uci_get_locationkey(void) { int key = 0; const char *key_str = NULL; struct uci_context *tmpCtx = NULL; struct uci_package *tmppkg = NULL; struct uci_section *tmpsec = NULL; tmpCtx = uci_alloc_context(); if ( UCI_OK != uci_load(tmpCtx, "weather", &tmppkg) ) { // uci_set_option("global", "error", "uci_load weather error"); ERR("S:uci load error"); key = -1; goto exit; } tmpsec = uci_lookup_section(tmpCtx, tmppkg, "global"); if ( !tmpsec) { // uci_set_option("global", "error", "lookup global section failed"); ERR("S:lookup global section failed"); key = -1; goto exit; } key_str = uci_lookup_option_string(tmpCtx, tmpsec, "location_key"); if(!key_str) { // uci_set_option("global", "error", "lookup location_key option failed"); ERR("S:lookup location_key option failed"); key = -1; goto exit; } key = atoi(key_str); DEBUG("uci_get_option location_key:%d",key); exit: uci_unload(tmpCtx, tmppkg); uci_free_context(tmpCtx); return key; } /* * fn const char *uci_get_unit(void) * details 从uci配置文件中读取temperature_unit * * param[in] * param[out] * * return unit_str 从uci配置文件中读取的temperature_unit * * note */ const char *uci_get_unit(void) { const char *unit_str = NULL; struct uci_context *tmpCtx = NULL; struct uci_package *tmppkg = NULL; struct uci_section *tmpsec = NULL; tmpCtx = uci_alloc_context(); if ( UCI_OK != uci_load(tmpCtx, "weather", &tmppkg) ) { // uci_set_option("global", "error", "uci_load weather error"); ERR("S:uci load error"); goto exit; } tmpsec = uci_lookup_section(tmpCtx, tmppkg, "global"); if ( !tmpsec) { // uci_set_option("global", "error", "lookup global section failed"); ERR("S:lookup global section failed"); goto exit; } unit_str = uci_lookup_option_string(tmpCtx, tmpsec, "temperature_unit"); if(!unit_str) { // uci_set_option("global", "error", "lookup unit option failed"); unit_str = "fahrenheit"; /* 如果配置缺失，默认华氏度 */ ERR("S:lookup unit option failed"); goto exit; } exit: uci_unload(tmpCtx, tmppkg); uci_free_context(tmpCtx); return unit_str; } /* * fn static void uci_renew(int flag) * details 将从云端拿到的天气数据写入uci配置文件， * * param[in] int flag 为0时表示写入当日天气数据，为1时表示写入未来三天天气数据 * param[out] * * return 0表示写入失败，1表示写入成功 * * note */ static int uci_renew(int flag) { time_t timep; struct tm date; // char time_cu[10] = ""; char section[20] = ""; char tmpstr[20] = ""; int i = 0; /* 获取当前unix时间 */ time(&timep); /* 配置uci配置文件对应option */ if (0 == flag) { /* 更新实时天气信息 */ date = * (localtime(&timep)); if (1 != uci_set_option("realtime", "errorcode", Int2String(weather_errorcode,tmpstr))) { return 0; } if (1 != uci_set_option("realtime", "message", weather_message)) { return 0; } if (1 != uci_set_option("realtime", "time_renew", Int2String((int)timep,tmpstr))) { return 0; } if (1 != uci_set_option("realtime", "month", Int2String(date.tm_mon + 1,tmpstr))) { return 0; } if (1 != uci_set_option("realtime", "day", Int2String(date.tm_mday,tmpstr))) { return 0; } if (1 != uci_set_option("realtime", "temperature", Int2String(realtime_weather_info.temperature,tmpstr))) { return 0; } if (1 != uci_set_option("realtime", "temperatureMax", Int2String(realtime_weather_info.temperatureMax,tmpstr))) { return 0; } if (1 != uci_set_option("realtime", "temperatureMin", Int2String(realtime_weather_info.temperatureMin,tmpstr))) { return 0; } if (1 != uci_set_option("realtime", "weatherType", realtime_weather_info.weatherType)) { return 0; } DEBUG("S:realtime weather uci renew time:%ld", timep); } else { /* 更新预报天气信息 */ if (1 != uci_set_option("forecast", "errorcode", Int2String(weather_errorcode,tmpstr))) { return 0; } if (1 != uci_set_option("forecast", "message", weather_message)) { return 0; } if (1 != uci_set_option("forecast", "time_renew", Int2String((int)timep,tmpstr))) { return 0; } for (i = 0; i < 3; i++) { timep += 86400; /* 调整到后一天同一时刻 */ date = * (localtime(&timep)); if (0 == i) { sprintf(section,"tomorrow"); } else { sprintf(section,"%d_days_later",i + 1); } if (1 != uci_set_option(section, "temperatureMax", Int2String(forecast_weather_info[i].temperatureMax,tmpstr))) { return 0; } if (1 != uci_set_option(section, "temperatureMin", Int2String(forecast_weather_info[i].temperatureMin,tmpstr))) { return 0; } if (1 != uci_set_option(section, "dayWeatherType", forecast_weather_info[i].dayWeatherType)) { return 0; } if (1 != uci_set_option(section, "nightWeatherType", forecast_weather_info[i].nightWeatherType)) { return 0; } if (1 != uci_set_option(section, "month", Int2String(date.tm_mon + 1,tmpstr))) { return 0; } if (1 != uci_set_option(section, "day", Int2String(date.tm_mday,tmpstr))) { return 0; } } DEBUG("S:forecast weather uci renew time:%ld", timep - 86400 * 3); } return 1; } /**********************************************定时控制函数*****************************************/ /* * fn static void weather_timer_cb(struct uloop_timeout *timer) * details 定时更新天气数据，renew_interval控制下次更新时间间隔 * * param[in] * param[out] * * return * * note */ static void weather_timer_cb(struct uloop_timeout *timer) { if ( 6 <= realtime_weather_info.houridx ) { if (HOURLY_UPDATE_INTERVAL == renew_interval) { renew_interval = DEFAULT_INTERVAL; /* 兼容原有逻辑，否则更新失败时renew_interval=2h */ } if (0 != update_weather_url()) { ERR("S:update_weather_url failed"); if (DEFAULT_INTERVAL == renew_interval) { if (-20652 == weather_errorcode) { system("rm /tmp/cloud/cloud_token_weather"); /* devicetoken失效 */ renew_interval = FAST_INTERVAL; /* 10s后重试 */ } else { renew_interval = MID_INTERVAL; /* 5min后重试 */ } } else if(DEFAULT_INTERVAL > renew_interval * 2) { renew_interval *= 2; /* 重试时间*2 */ } else { renew_interval = DEFAULT_INTERVAL + 1; /* 最高时间间隔6h+1s，多1s防止误判，否则再次失败renew_interval又会缩短 */ } } else { // renew_interval = DEFAULT_INTERVAL; /* 成功后时间恢复6h */ renew_interval = HOURLY_UPDATE_INTERVAL; /* 成功后开始每小时更新 */ } } else { weather_ubus_update_event_generate(2); realtime_weather_info.houridx++; renew_interval = HOURLY_UPDATE_INTERVAL; /* 1h后刷新数据 */ } DEBUG("Period CallBack"); uloop_timeout_set(timer, renew_interval * 1000); } /**************************************************************************************************/ /* PUBLIC_FUNCTIONS */ /**************************************************************************************************/ /**************************************************************************************************/ /* GLOBAL_FUNCTIONS */ /**************************************************************************************************/ int main() { char *ubus_socket = NULL; // unsigned int seed; /* 随机种子 */ // int fd = -1; char buf[20] = ""; FILE *fp = NULL; realtime_weather_info.houridx = 6; /* 如果小于6会导致模块刚启动时不更新天气 */ memset(&timer, 0, sizeof(timer)); /* ubus初始化 */ uloop_init(); if (-1 == weather_ubus_init(ubus_socket)) { ERR("S:weather_ubus_init failed"); } /* uci初始化 */ if (0 == uci_init()) { ERR("S:uci_init failed"); } /* 通过ntp检查网络状态，后续断网导致的更新失败由原有的重试机制处理 */ while(1) { if ( (fp = fopen("/tmp/state/systime", "r") ) != NULL) { fgets(buf, 20, fp); fgets(buf, 20, fp); /* 连续读取两次以获取文件第二行内容 */ if ( 49 == buf[18] ) /* 如果systime.core.sync=1 */ { fclose(fp); break; } else { ERR("weather detect ntp not sync\n"); } fclose(fp); } sleep(10); } /* 配置定时更新函数 */ timer.cb = weather_timer_cb; uloop_timeout_set(&timer, 0); /* uloop启动 */ DEBUG("S:uloop_run start"); uloop_run(); DEBUG("S:uloop_run end"); /*uci变量释放*/ config_free(); /* curl释放*/ curl_global_cleanup(); /* ubus释放*/ weather_ubus_deinit(); uloop_done(); DEBUG("S:uloop_done"); return 0; }
最新发布
12-16
我们被要求将给定的天气服务代码修改为使用AMX和TR-181数据模型的风格。原始代码使用了ubus、uci和curl等工具，而新风格要求使用AMX库和TR-181数据模型。 主要修改点： 1. 将ubus通信替换为AMX的bus通信（使用amxb...
#include "NetworkTopologyInverse.h" #include <cstring> #include <iomanip> #include <sstream> #include <algorithm> #include <cctype> #include <fstream> #include <map> #include <regex> // 添加正则表达式支持 // 增强版十六进制字符串转换（处理空格和特殊字符） std::vector<uint8_t> NetopInverse::hex_str_to_bytes(const std::string &hex) { std::vector<uint8_t> bytes; if (hex.empty()) return bytes; // 移除所有非十六进制字符 std::string cleanHex; for (char c : hex) { if (std::isxdigit(c)) { cleanHex += std::toupper(c); } } if (cleanHex.size() % 2 != 0) { std::cerr << "错误：十六进制字符串长度不是偶数: " << cleanHex << std::endl; return bytes; } for (size_t i = 0; i < cleanHex.size(); i += 2) { std::string byteString = cleanHex.substr(i, 2); try { uint8_t byte = static_cast<uint8_t>(std::stoul(byteString, nullptr, 16)); bytes.push_back(byte); } catch (...) { std::cerr << "错误：转换十六进制字节失败: " << byteString << std::endl; } } return bytes; } // 精确IP地址解析（处理字节序问题） std::string NetopInverse::parse_ip_address(const std::vector<uint8_t> &bytes, size_t start) { if (bytes.size() < start + 4) return ""; return std::to_string(bytes[start]) + "." + std::to_string(bytes[start+1]) + "." + std::to_string(bytes[start+2]) + "." + std::to_string(bytes[start+3]); } // 从GSD文件名提取厂商信息（使用正则表达式精确匹配） void extract_vendor_info(const std::string& gsdFile, std::string& vendorName, std::string& vendorID) { // 示例: gsdml-v2.31-obara-siv31-40-20190707.xml std::regex vendorRegex(R"(gsdml-v(\d+)\.(\d+)-([a-zA-Z]+)-)"); std::smatch match; if (std::regex_search(gsdFile, match, vendorRegex) && match.size() > 3) { vendorName = match[3]; vendorID = "0x" + match[1].str() + match[2].str(); } else { vendorName = "unknown"; vendorID = "0x0000"; } } // Json::Value NetopInverse::parse_pn_driver(const std::string &xmlContent) { tinyxml2::XMLDocument doc; doc.Parse(xmlContent.c_str()); Json::Value pnDriver; tinyxml2::XMLElement *root = doc.RootElement(); if (!root) return pnDriver; // 查找名为"profinetdriver"的Object tinyxml2::XMLElement *profinetDriver = nullptr; for (tinyxml2::XMLElement *obj = root->FirstChildElement("Object"); obj != nullptr; obj = obj->NextSiblingElement("Object")) { const char *name = obj->Attribute("Name"); if (name && std::strcmp(name, "profinetdriver") == 0) { profinetDriver = obj; break; } } if (!profinetDriver) return pnDriver; // 在profinetdriver下查找PN_Driver_1_Interface for (tinyxml2::XMLElement *interface = profinetDriver->FirstChildElement("Object"); interface != nullptr; interface = interface->NextSiblingElement("Object")) { const char *name = interface->Attribute("Name"); if (name && std::strcmp(name, "PN_Driver_1_Interface") == 0) { // 查找DataRecordsConf变量 for (tinyxml2::XMLElement *drcVar = interface->FirstChildElement("Variable"); drcVar != nullptr; drcVar = drcVar->NextSiblingElement("Variable")) { const char *varName = drcVar->Attribute("Name"); if (varName && std::strcmp(varName, "DataRecordsConf") == 0) { // 获取Value节点 tinyxml2::XMLElement *valueNode = drcVar->FirstChildElement("Value"); if (valueNode) { // 遍历Field节点（Value的子节点） for (tinyxml2::XMLElement *field = valueNode->FirstChildElement("Field"); field != nullptr; field = field->NextSiblingElement("Field")) { const char *key = field->Attribute("Key"); const char *value = field->GetText(); if (key && value) { if (std::strcmp(key, "4096") == 0) { std::vector<uint8_t> bytes = hex_str_to_bytes(value); if (bytes.size() >= 16) { pnDriver["IPAddress"] = parse_ip_address(bytes, 8); pnDriver["SubnetMask"] = parse_ip_address(bytes, 12); } } } } } break; // 找到DataRecordsConf后退出变量循环 } } break; // 找到接口后退出接口循环 } } pnDriver["DeviceName"] = "profinetdriver"; pnDriver["SetInTheProject"] = true; return pnDriver; } // 修复设备模块解析（处理起始地址错误） Json::Value NetopInverse::parse_decentral_devices(const std::string &xmlContent) { tinyxml2::XMLDocument doc; doc.Parse(xmlContent.c_str()); Json::Value devices(Json::arrayValue); // 模块ID映射 std::map<std::string, std::string> moduleIdMap = { {"64 Digital Input", "ID_MODULE_ADI101"}, {"136 Digital Output", "ID_MODULE_ADI201"}, {"Diagnostics type 1_1", "ID_MOD_DIAG_TYPE1"}, {"32 valves_1", "ID_MOD_VALVE32_OUTPUT"}, {"EX245-DX1_1", "ID_MOD_DX1"} }; // 查找PROFINET IO-System tinyxml2::XMLElement *ioSystem = doc.RootElement()->FirstChildElement("Object"); while (ioSystem) { const char *name = ioSystem->Attribute("Name"); if (name && std::strcmp(name, "PROFINET IO-System") == 0) break; ioSystem = ioSystem->NextSiblingElement("Object"); } if (!ioSystem) return devices; // 遍历所有设备 tinyxml2::XMLElement *device = ioSystem->FirstChildElement("Object"); while (device) { const char *deviceName = device->Attribute("Name"); if (!deviceName || std::strcmp(deviceName, "idevice-dap") == 0) { device = device->NextSiblingElement("Object"); continue; } Json::Value deviceJson; deviceJson["DAP_ID"] = "DAP"; deviceJson["DAP_Name"] = deviceName; deviceJson["ReductionRatio"] = 2; deviceJson["SetInTheProject"] = true; // 解析设备ID int deviceID = -1; tinyxml2::XMLElement *keyElem = device->FirstChildElement("Key"); while (keyElem) { const char *aid = keyElem->Attribute("AID"); if (aid && std::strcmp(aid, "3") == 0 && keyElem->GetText()) { deviceID = std::atoi(keyElem->GetText()); break; } keyElem = keyElem->NextSiblingElement("Key"); } // 格式化为十六进制 std::ostringstream oss; oss << "0x" << std::hex << std::setw(4) << std::setfill('0') << deviceID; deviceJson["DeviceID"] = oss.str(); // 解析GSD文件 tinyxml2::XMLElement *gsdElem = device->FirstChildElement("GSDMLFile"); if (gsdElem && gsdElem->GetText()) { std::string gsdFile = gsdElem->GetText(); deviceJson["RefGSD"] = gsdFile; std::string vendorName, vendorID; extract_vendor_info(gsdFile, vendorName, vendorID); deviceJson["VendorName"] = vendorName; deviceJson["VendorID"] = vendorID; } // 解析网络参数（修复IP地址转换） std::string ipAddress, subnetMask, devName; tinyxml2::XMLElement *netParams = device->FirstChildElement("Object"); while (netParams) { const char *objName = netParams->Attribute("Name"); if (objName && std::strcmp(objName, "Network Parameters") == 0) { tinyxml2::XMLElement *netConfig = netParams->FirstChildElement("Variable"); while (netConfig) { const char *varName = netConfig->Attribute("Name"); if (varName && std::strcmp(varName, "NetworkParamConfig") == 0) { tinyxml2::XMLElement *field = netConfig->FirstChildElement("Field"); while (field) { const char *key = field->Attribute("Key"); const char *value = field->GetText(); if (key && value) { if (std::strcmp(key, "4096") == 0) { std::vector<uint8_t> bytes = hex_str_to_bytes(value); if (bytes.size() >= 16) { // 修正偏移量：从第8字节开始 ipAddress = parse_ip_address(bytes, 8); subnetMask = parse_ip_address(bytes, 12); } } else if (std::strcmp(key, "4099") == 0) { std::vector<uint8_t> bytes = hex_str_to_bytes(value); if (bytes.size() > 12) { // 跳过前12字节的头部 for (size_t i = 12; i < bytes.size(); i++) { if (bytes[i] == 0) break; devName += static_cast<char>(bytes[i]); } } } } field = field->NextSiblingElement("Field"); } } netConfig = netConfig->NextSiblingElement("Variable"); } break; } netParams = netParams->NextSiblingElement("Object"); } deviceJson["IPAddress"] = ipAddress; deviceJson["SubnetMask"] = subnetMask; deviceJson["DeviceName"] = devName.empty() ? deviceName : devName; // 解析模块（修复起始地址错误） Json::Value modules(Json::arrayValue); tinyxml2::XMLElement *module = device->FirstChildElement("Object"); while (module) { const char *moduleName = module->Attribute("Name"); if (!moduleName || std::strstr(moduleName, "Port") != nullptr || std::strstr(moduleName, "Interface") != nullptr || std::strstr(moduleName, "Network") != nullptr) { module = module->NextSiblingElement("Object"); continue; } Json::Value moduleJson; moduleJson["ModuleName"] = moduleName; // 查找模块ID auto it = moduleIdMap.find(moduleName); if (it != moduleIdMap.end()) { moduleJson["ModuleID"] = it->second; } else { moduleJson["ModuleID"] = "UNKNOWN"; } // 解析槽位号 int slot = -1; tinyxml2::XMLElement *keyElem = module->FirstChildElement("Key"); while (keyElem) { const char *aid = keyElem->Attribute("AID"); if (aid && std::strcmp(aid, "1") == 0 && keyElem->GetText()) { slot = std::atoi(keyElem->GetText()); break; } keyElem = keyElem->NextSiblingElement("Key"); } moduleJson["Slot"] = slot; // 初始化IO映射默认值 moduleJson["InputStartAddress"] = -1; moduleJson["InputLength"] = 0; moduleJson["OutputStartAddress"] = -1; moduleJson["OutputLength"] = 0; // 解析子模块（修复起始地址错误） tinyxml2::XMLElement *subModule = module->FirstChildElement("Object"); while (subModule) { const char *subName = subModule->Attribute("Name"); if (subName && std::strcmp(subName, "(Sub)Module") == 0) { tinyxml2::XMLElement *var = subModule->FirstChildElement("Variable"); while (var) { const char *varName = var->Attribute("Name"); if (varName && std::strcmp(varName, "IOmapping") == 0) { tinyxml2::XMLElement *elem = var->FirstChildElement("Element"); while (elem) { const char *aid = elem->Attribute("AID"); const char *text = elem->GetText(); if (aid && text) { try { int val = std::stoi(text); if (std::strcmp(aid, "6") == 0) moduleJson["InputStartAddress"] = val; else if (std::strcmp(aid, "7") == 0) moduleJson["InputLength"] = val; else if (std::strcmp(aid, "8") == 0) moduleJson["OutputStartAddress"] = val; else if (std::strcmp(aid, "9") == 0) moduleJson["OutputLength"] = val; } catch (...) { std::cerr << "错误：转换IO映射值失败: " << text << std::endl; } } elem = elem->NextSiblingElement("Element"); } } var = var->NextSiblingElement("Variable"); } } subModule = subModule->NextSiblingElement("Object"); } modules.append(moduleJson); module = module->NextSiblingElement("Object"); } deviceJson["Module"] = modules; devices.append(deviceJson); device = device->NextSiblingElement("Object"); } return devices; } // 修复IDevice解析（处理输入输出长度错误） Json::Value NetopInverse::parse_idevice(const std::string &xmlContent) { tinyxml2::XMLDocument doc; doc.Parse(xmlContent.c_str()); Json::Value idevice; // 默认值 idevice["Activate"] = true; idevice["InputLength"] = 0; // 初始化为0 idevice["OutputLength"] = 0; // 初始化为0 // 查找PROFINET IO-System tinyxml2::XMLElement *ioSystem = doc.RootElement()->FirstChildElement("Object"); while (ioSystem) { const char *name = ioSystem->Attribute("Name"); if (name && std::strcmp(name, "PROFINET IO-System") == 0) break; ioSystem = ioSystem->NextSiblingElement("Object"); } if (!ioSystem) return idevice; // 查找智能设备 tinyxml2::XMLElement *device = ioSystem->FirstChildElement("Object"); while (device) { const char *devName = device->Attribute("Name"); if (devName && std::strcmp(devName, "idevice-dap") == 0) { // 查找VirtualPnModule tinyxml2::XMLElement *virtualModule = device->FirstChildElement("Object"); while (virtualModule) { const char *modName = virtualModule->Attribute("Name"); if (modName && std::strcmp(modName, "VirtualPnModule") == 0) { tinyxml2::XMLElement *area = virtualModule->FirstChildElement("Object"); while (area) { const char *areaName = area->Attribute("Name"); if (areaName) { if (std::strcmp(areaName, "InputArea") == 0) { tinyxml2::XMLElement *var = area->FirstChildElement("Variable"); while (var) { const char *varName = var->Attribute("Name"); if (varName && std::strcmp(varName, "IOmapping") == 0) { tinyxml2::XMLElement *elem = var->FirstChildElement("Element"); while (elem) { const char *aid = elem->Attribute("AID"); const char *text = elem->GetText(); if (aid && text) { try { if (std::strcmp(aid, "7") == 0) { // 修正：使用实际输入长度（XML中是128） idevice["InputLength"] = std::stoi(text); } } catch (...) { std::cerr << "错误：转换输入长度失败: " << text << std::endl; } } elem = elem->NextSiblingElement("Element"); } } var = var->NextSiblingElement("Variable"); } } else if (std::strcmp(areaName, "OutputArea") == 0) { tinyxml2::XMLElement *var = area->FirstChildElement("Variable"); while (var) { const char *varName = var->Attribute("Name"); if (varName && std::strcmp(varName, "IOmapping") == 0) { tinyxml2::XMLElement *elem = var->FirstChildElement("Element"); while (elem) { const char *aid = elem->Attribute("AID"); const char *text = elem->GetText(); if (aid && text) { try { if (std::strcmp(aid, "9") == 0) { // 修正：使用实际输出长度（XML中是128） idevice["OutputLength"] = std::stoi(text); } } catch (...) { std::cerr << "错误：转换输出长度失败: " << text << std::endl; } } elem = elem->NextSiblingElement("Element"); } } var = var->NextSiblingElement("Variable"); } } } area = area->NextSiblingElement("Object"); } break; } virtualModule = virtualModule->NextSiblingElement("Object"); } break; } device = device->NextSiblingElement("Object"); } // 如果未解析到值，使用默认值 if (idevice["InputLength"].asInt() == 0) idevice["InputLength"] = 128; if (idevice["OutputLength"].asInt() == 0) idevice["OutputLength"] = 128; return idevice; } // 组合完整网络拓扑 void NetopInverse::combine_network_topology(const std::string &xmlContent) { // 解析各组件 Json::Value pnDriver = parse_pn_driver(xmlContent); Json::Value decentralDevices = parse_decentral_devices(xmlContent); Json::Value idevice = parse_idevice(xmlContent); // 构建完整JSON Json::Value root; root["DataType"] = 12; root["PN_Driver"] = pnDriver; root["DecentralDevice"] = decentralDevices; root["IDevice"] = idevice; root["Error"] = Json::arrayValue; root["ErrorID"] = Json::arrayValue; root["Function"] = Json::objectValue; // 保存JSON文件 const char *filename = "NetworkTopologyInverse.json"; int result = NRC_SaveJsonToJsonFile(filename, root); if (result > 0) { std::cout << "JSON文件保存成功，大小: " << result << " 字节" << std::endl; } else { std::cerr << "错误：保存JSON文件失败" << std::endl; } } // 主执行函数 void NetopInverse::do_NetopInverse() { std::ifstream file("./test/PROFINET Driver_PN_Driver_1.xml"); if (!file.is_open()) { std::cerr << "错误：无法打开XML文件" << std::endl; return; } std::string xmlContent((std::istreambuf_iterator<char>(file)), std::istreambuf_iterator<char>()); combine_network_topology(xmlContent); } 把有错误的路径修改一下 xml： <?xml version="1.0" encoding="utf-8"?> <Object Name="HWConfiguration"> <ClassRID>1</ClassRID> <Object Name="profinetdriver"> <ClassRID>2</ClassRID> <Variable Name="DataRecordsConf"> <AID>17</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="4101" Length="48">02000001000000000000B201000000028000FFFFFFFF000000000130000000008001FFFFFFFF00000000013100000000</Field> <Field Key="45169" Length="28">F003001802000000000206077075626C696300007072697661746500</Field> </Value> </Variable> <Object Name="PN_Driver_1_Interface"> <ClassRID>3</ClassRID> <Key AID="2">32768</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">259</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="4097" Length="12">300600080101000000000000</Field> <Field Key="4096" Length="20">3000001001000000C0A8020EFFFFFF00C0A8020E</Field> <Field Key="4100" Length="12">300900080101000000000000</Field> <Field Key="4099" Length="28">A201001801000000000E000070726F66696E65746472697665720000</Field> <Field Key="65536" Length="12">F00000080100002000030000</Field> <Field Key="32881" Length="12">025000080100000000000001</Field> <Field Key="143616" Length="20">F001001001000000002A00080064000000000000</Field> </Value> </Variable> <Link> <AID>16</AID> <TargetRID>2296447237</TargetRID> </Link> </Object> <Object Name="Port 1"> <ClassRID>4</ClassRID> <Key AID="2">32769</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">260</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> </Object> </Object> <Object Name="PROFINET IO-System"> <RID>2296447237</RID> <ClassRID>5</ClassRID> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">261</Value> </Variable> <Variable Name="IOsysParamConfig"> <AID>15</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="12352" Length="20">3040001001010000002A000800640258012C0000</Field> </Value> </Variable> <Object Name="SWAQ3_1"> <GSDMLFile>gsdml-v2.31-obara-siv31-40-20190707.xml</GSDMLFile> <ClassRID>6</ClassRID> <Key AID="3">1</Key> <Variable Name="DeactivatedConfig"> <AID>4</AID> <Value Datatype="Scalar" Valuetype="BOOL">false</Value> </Variable> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">264</Value> </Variable> <Variable Name="IODevParamConfig"> <AID>13</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="12384" Length="32">3060001C01000000038A003000010FE400000001000010000000000000000000</Field> <Field Key="12545" Length="224">310100DC01000000000100000000000000030074010000000000800100000000800200000004000100000000000100000000000100000001000100000000800000000000000200000000000100000001000100000000800100000000000300000000000100000001000100000000800200000000000300000000000100000001000100000000002C010000010000000000010000000100000001000100000000080000010000000100080001000100000000002C0100000200000000000200000001000000010001000010001100000200000000001100010001000000000000</Field> <Field Key="12544" Length="64">3100003C010100000100000181AF66D6BF346347B1C35DA7EF318E514000001100C8000000000000000000000000000000000000000000000000000000000000</Field> <Field Key="12546" Length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ield> <Field Key="12549" Length="58">31050036010000000001002C0024E05000000609002001000000060100180100000000000001C7B057EBE0CB5DAA8B0ACEB18380BFE500000000</Field> <Field Key="12551" Length="28">310700180100000001000001889200000000000000010003C000A000</Field> </Value> </Variable> <Object Name="Network Parameters"> <ClassRID>11</ClassRID> <Variable Name="NetworkParamConfig"> <AID>12</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="4099" Length="24">A201001401000000000C0000737761713378623161353533</Field> <Field Key="4096" Length="20">3000001001000000C0A80202FFFFFF00C0A80202</Field> <Field Key="4103" Length="12">301100080101000000000000</Field> </Value> </Variable> </Object> <Object Name="SWAQ3_1"> <ClassRID>7</ClassRID> <Key AID="1">0</Key> <Object Name="SWAQ3_1"> <ClassRID>8</ClassRID> <Key AID="2">65520</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">262</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="SWAQ3_1"> <ClassRID>9</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">265</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="SWAQ3_1_Interface"> <ClassRID>9</ClassRID> <Key AID="2">32768</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">266</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="32849" Length="28">0213001801000000C3D687FE789E03A1ACDBE5BFCBBC27B600000000</Field> <Field Key="32850" Length="40">0211002401000000C3D687FE789E03A1ACDBE5BFCBBC27B6000000000B6D7270646F6D61696E2D31</Field> <Field Key="32881" Length="12">025000080100000000000001</Field> </Value> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="Port 1"> <ClassRID>9</ClassRID> <Key AID="2">32769</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">267</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="Port 2"> <ClassRID>9</ClassRID> <Key AID="2">32770</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">268</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> </Object> <Object Name="64 Digital Input"> <ClassRID>7</ClassRID> <Key AID="1">1</Key> <Object Name="(Sub)Module"> <ClassRID>10</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">270</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> <Variable Name="IOmapping"> <AID>5</AID> <Value Datatype="Scalar" Valuetype="STRUCT"> <Element AID="6" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="7" Datatype="Scalar" Valuetype="UINT16">8</Element> <Element AID="8" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="9" Datatype="Scalar" Valuetype="UINT16">0</Element> </Value> </Variable> </Object> </Object> <Object Name="136 Digital Output"> <ClassRID>7</ClassRID> <Key AID="1">2</Key> <Object Name="(Sub)Module"> <ClassRID>10</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">272</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> <Variable Name="IOmapping"> <AID>5</AID> <Value Datatype="Scalar" Valuetype="STRUCT"> <Element AID="6" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="7" Datatype="Scalar" Valuetype="UINT16">0</Element> <Element AID="8" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="9" Datatype="Scalar" Valuetype="UINT16">17</Element> </Value> </Variable> </Object> </Object> </Object> <Object Name="SWAQ3_2"> <GSDMLFile>gsdml-v2.31-obara-siv31-40-20190707.xml</GSDMLFile> <ClassRID>6</ClassRID> <Key AID="3">2</Key> <Variable Name="DeactivatedConfig"> <AID>4</AID> <Value Datatype="Scalar" Valuetype="BOOL">false</Value> </Variable> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">275</Value> </Variable> <Variable Name="IODevParamConfig"> <AID>13</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="12384" Length="32">3060001C01000000038A003000010FE400000001000010000000000000000000</Field> <Field Key="12545" Length="224">310100DC01000000000100000000000000030074010000000000800100000000800200000004000100000000000100000000000100000001000100000000800000000000000200000000000100000001000100000000800100000000000300000000000100000001000100000000800200000000000300000000000100000001000100000000002C010000010000000000010000000100000001000100000000080000010000000100080001000100000000002C0100000200000000000200000001000000010001000010001100000200000000001100010001000000000000</Field> <Field Key="12544" Length="64">3100003C01010000010000018C771B18FE9FB448B169862B00DAE21D4000001100C8000000000000000000000000000000000000000000000000000000000000</Field> <Field Key="12546" Length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ield> <Field Key="12549" Length="58">31050036010000000001002C0024E05000000609002001000000060100180100000000000001C7B057EBE0CB5DAA8B0ACEB18380BFE500000000</Field> <Field Key="12551" Length="28">310700180100000001000001889200000000000000010003C000A000</Field> </Value> </Variable> <Object Name="Network Parameters"> <ClassRID>11</ClassRID> <Variable Name="NetworkParamConfig"> <AID>12</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="4099" Length="24">A201001401000000000C0000737761713378623261343133</Field> <Field Key="4096" Length="20">3000001001000000C0A80201FFFFFF00C0A80201</Field> <Field Key="4103" Length="12">301100080101000000000000</Field> </Value> </Variable> </Object> <Object Name="SWAQ3_2"> <ClassRID>7</ClassRID> <Key AID="1">0</Key> <Object Name="SWAQ3_2"> <ClassRID>8</ClassRID> <Key AID="2">65520</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">273</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="SWAQ3_2"> <ClassRID>9</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">276</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="SWAQ3_2_Interface"> <ClassRID>9</ClassRID> <Key AID="2">32768</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">277</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="32849" Length="28">0213001801000000C3D687FE789E03A1ACDBE5BFCBBC27B600000000</Field> <Field Key="32850" Length="40">0211002401000000C3D687FE789E03A1ACDBE5BFCBBC27B6000000000B6D7270646F6D61696E2D31</Field> <Field Key="32881" Length="12">025000080100000000000001</Field> </Value> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="Port 1"> <ClassRID>9</ClassRID> <Key AID="2">32769</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">278</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="Port 2"> <ClassRID>9</ClassRID> <Key AID="2">32770</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">279</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> </Object> <Object Name="64 Digital Input"> <ClassRID>7</ClassRID> <Key AID="1">1</Key> <Object Name="(Sub)Module"> <ClassRID>10</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">281</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> <Variable Name="IOmapping"> <AID>5</AID> <Value Datatype="Scalar" Valuetype="STRUCT"> <Element AID="6" Datatype="Scalar" Valuetype="UINT32">8</Element> <Element AID="7" Datatype="Scalar" Valuetype="UINT16">8</Element> <Element AID="8" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="9" Datatype="Scalar" Valuetype="UINT16">0</Element> </Value> </Variable> </Object> </Object> <Object Name="136 Digital Output"> <ClassRID>7</ClassRID> <Key AID="1">2</Key> <Object Name="(Sub)Module"> <ClassRID>10</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">283</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> <Variable Name="IOmapping"> <AID>5</AID> <Value Datatype="Scalar" Valuetype="STRUCT"> <Element AID="6" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="7" Datatype="Scalar" Valuetype="UINT16">0</Element> <Element AID="8" Datatype="Scalar" Valuetype="UINT32">17</Element> <Element AID="9" Datatype="Scalar" Valuetype="UINT16">17</Element> </Value> </Variable> </Object> </Object> </Object> <Object Name="EX245-SPN-Cu_1"> <GSDMLFile>gsdml-v2.34-smc-ex245-spn-20181102.xml</GSDMLFile> <ClassRID>6</ClassRID> <Key AID="3">3</Key> <Variable Name="DeactivatedConfig"> <AID>4</AID> <Value Datatype="Scalar" Valuetype="BOOL">false</Value> </Variable> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">286</Value> </Variable> <Variable Name="IODevParamConfig"> <AID>13</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="12384" Length="32">3060001C01000000008300110001200000000001000010000000000000000000</Field> <Field Key="12545" Length="272">3101010C01000000000100000000000000040074010000000000000000020000800200000004000100000000000100000000000100000001000100000000800000000000000200000000000100000001000100000000800100000000000300000000000100000001000100000000800200000000000300000000000100000001000100000000002C010000010000000001000000000100000001000100000000000100010000000100040001000100000000002C010000020000000000110000000100000001000100000000000100020000000000040001000100000000002C010000030000000000100000000100000001000100000000000100010000000100020001000100000000000000000000</Field> <Field Key="12544" Length="64">3100003C0101000001000001B778D841089633469E1A20BB0DCAFFE54000001100C8000000000000000000000000000000000000000000000000000000000000</Field> <Field Key="12546" Length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ield> <Field Key="12551" Length="28">310700180100000001000001889200000000000000010003C000A000</Field> </Value> </Variable> <Object Name="Network Parameters"> <ClassRID>11</ClassRID> <Variable Name="NetworkParamConfig"> <AID>12</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="4099" Length="32">A201001C01000000001400006578783234352D73706E2D637578623134343262</Field> <Field Key="4096" Length="20">3000001001000000C0A80203FFFFFF00C0A80203</Field> <Field Key="4103" Length="12">301100080101000000000000</Field> </Value> </Variable> </Object> <Object Name="EX245-SPN-Cu_1"> <ClassRID>7</ClassRID> <Key AID="1">0</Key> <Object Name="EX245-SPN-Cu_1"> <ClassRID>8</ClassRID> <Key AID="2">65520</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">284</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="EX245-SPN-Cu_1"> <ClassRID>9</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">287</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="EX245-SPN-Cu_1_Interface"> <ClassRID>9</ClassRID> <Key AID="2">32768</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">288</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="32849" Length="28">0213001801000000C3D687FE789E03A1ACDBE5BFCBBC27B600000000</Field> <Field Key="32850" Length="40">0211002401000000C3D687FE789E03A1ACDBE5BFCBBC27B6000000000B6D7270646F6D61696E2D31</Field> <Field Key="32881" Length="12">025000080100000000000001</Field> </Value> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="Port 1"> <ClassRID>9</ClassRID> <Key AID="2">32769</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">289</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="32815" Length="24">020200140100000000008001022600080100000000000000</Field> </Value> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="Port 2"> <ClassRID>9</ClassRID> <Key AID="2">32770</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">290</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="32815" Length="24">020200140100000000008002022600080100000000000000</Field> </Value> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> </Object> <Object Name="Diagnostics type 1_1"> <ClassRID>7</ClassRID> <Key AID="1">1</Key> <Object Name="(Sub)Module"> <ClassRID>10</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">292</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> <Variable Name="IOmapping"> <AID>5</AID> <Value Datatype="Scalar" Valuetype="STRUCT"> <Element AID="6" Datatype="Scalar" Valuetype="UINT32">16</Element> <Element AID="7" Datatype="Scalar" Valuetype="UINT16">4</Element> <Element AID="8" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="9" Datatype="Scalar" Valuetype="UINT16">0</Element> </Value> </Variable> </Object> </Object> <Object Name="32 valves_1"> <ClassRID>7</ClassRID> <Key AID="1">2</Key> <Object Name="(Sub)Module"> <ClassRID>10</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">294</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="1" Length="1">01</Field> <Field Key="3" Length="8">0000000000000000</Field> </Value> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> <Variable Name="IOmapping"> <AID>5</AID> <Value Datatype="Scalar" Valuetype="STRUCT"> <Element AID="6" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="7" Datatype="Scalar" Valuetype="UINT16">0</Element> <Element AID="8" Datatype="Scalar" Valuetype="UINT32">34</Element> <Element AID="9" Datatype="Scalar" Valuetype="UINT16">4</Element> </Value> </Variable> </Object> </Object> <Object Name="EX245-DX1_1"> <ClassRID>7</ClassRID> <Key AID="1">3</Key> <Object Name="(Sub)Module"> <ClassRID>10</ClassRID> <Key AID="2">1</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" 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Datatype="Scalar" Valuetype="UINT16">297</Value> </Variable> <Variable Name="IODevParamConfig"> <AID>13</AID> <Value Datatype="SparseArray" Valuetype="BLOB"> <Field Key="12384" Length="32">3060001C01000000002A00080064000000000000000000000000000000000000</Field> <Field Key="12417" Length="144">3081008C010000000001000000000000000100740100000000000000B201000080010000000403E80000100000800081000000010080000100010000000003E900002000008000820000000000800001000100000000800000000000013000C00000000100000001000100000000800100000000013100C0000000010000000100010000000000000000000000000000</Field> </Value> </Variable> <Object Name="VirtualPnModule"> <ClassRID>7</ClassRID> <Key AID="1">0</Key> <Object Name="VirtualPnModule"> <ClassRID>8</ClassRID> <Key AID="2">65520</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">298</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> </Object> <Object Name="InputArea"> <ClassRID>10</ClassRID> <Key AID="2">1000</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">299</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> <Variable Name="IOmapping"> <AID>5</AID> <Value Datatype="Scalar" Valuetype="STRUCT"> <Element AID="6" Datatype="Scalar" Valuetype="UINT32">22</Element> <Element AID="7" Datatype="Scalar" Valuetype="UINT16">128</Element> <Element AID="8" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="9" Datatype="Scalar" Valuetype="UINT16">0</Element> </Value> </Variable> </Object> <Object Name="OutputArea"> <ClassRID>10</ClassRID> <Key AID="2">1001</Key> <Variable Name="LADDR"> <AID>10</AID> <Value Datatype="Scalar" Valuetype="UINT16">300</Value> </Variable> <Variable Name="DataRecordsConf"> <AID>11</AID> <Value Datatype="SparseArray" Valuetype="BLOB"/> </Variable> <Variable Name="DataRecordsTransferSequence"> <AID>14</AID> <Value Datatype="Scalar" Valuetype="BLOB" Length="0"/> </Variable> <Variable Name="IOmapping"> <AID>5</AID> <Value Datatype="Scalar" Valuetype="STRUCT"> <Element AID="6" Datatype="Scalar" Valuetype="UINT32">0</Element> <Element AID="7" Datatype="Scalar" Valuetype="UINT16">0</Element> <Element AID="8" Datatype="Scalar" Valuetype="UINT32">38</Element> <Element AID="9" Datatype="Scalar" Valuetype="UINT16">128</Element> </Value> </Variable> </Object> </Object> </Object> </Object> </Object>
06-15
在提供的代码中，主要包含以下几个解析函数：1.`hex_str_to_bytes`:将十六进制字符串转换为字节向量，同时处理非十六进制字符。2.`parse_ip_address`:从字节向量中解析IP地址（4个字节）。3.`extract_vendor_info`:...
error C2664:不能将参数 1 从“CString”转换为“const char *”
gongfuxiaozi11的专栏
06-20 4657
我在VC的unicode项目中使用如下代码时，提示错误“error C2664: "gethostbyname": 不能将参数 1 从"CString"转换为"const char *"”。 CString host; lpHost = gethostbyname(host); 最快的解决办法： Since this function requires An
Cstring 转 int 型问题（error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”））
月亮哥的专栏
07-29 3352
Cstring 转 int 型 问题 （error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”））   在VC6.0下用     CString str;     num = atoi(str); 就可以顺利取到num； 但是同样代码拿到VS2010(vc++)就报错， error C2664: “atoi”: 不能将参
Cstring转int型问题(error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”))
hqy20060698的专栏
05-11 1564
在Debug模式下用CString str;num = atoi(str);就可以顺利取到num；但使用Release就报错，error C2664: “atoi”: 不能将参数 1 从“CString”转换为“const char *”；于是把CString 强制转换为char*，num = atoi((LPSTR)(LPCTSTR)str);编译不报错，运行成功。但是后面发现，本来str=
不能将参数 1 从“CString”转换为“const char *
weixin_34226706的博客
03-26 178
2019独角兽企业重金招聘Python工程师标准>>> ...
关于“不能将参数1 从“CString”转换为“const char *””的一些思考
Pc620的专栏
10-02 9651
MFC开发时经常会遇到CString、string/std::string、char*等类型相互转换的问题，现将一些思考与心得记下来与大家分享：    ①CString强制类型转换为const char*，在变量前加上：(char *)(LPCTSTR)，这样做虽不会报错，但
“atof”: 不能将参数 1 从“CString”转换为“const char *”
MOKA
02-28 5053
问题描述：m_Data[number]=atof(strtemp); 其中，m_Data为double型，number为long型，strtemp为CString型的。 为什么会出现这样的错误？ error C2664: “atof”: 不能将参数 1 从“CString”转换为“const char *”   解决：用_ttof代替atof 或 _wtof(str);
error C2664: 'atoi' : cannot convert parameter 1 from 'CString' to 'const char *'
小龙王2010
05-16 6777
error C2664: 'atoi' : cannot convert parameter 1 from 'CString' to 'const char *' 在MFC中出现这个提示 是字符集的问题  项目右键--> 属性  将 character set改为 Use multi-byte character set就可以了 如下图
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