Steven Blair / rapid61850example

The goal of this software is to automatically generate C/C++ code which reads and writes GOOSE and Sampled Value packets. Any valid IEC 61850 Substation Configuration Description (SCD) file, describing GOOSE and/or SV communications, can be used as the input. The output code is lightweight and platform-independent, so it can run on a variety of devices, including low-cost microcontrollers. It\'s ideal for rapid-prototyping new protection and control systems that require communications. This mbed project is a simple example of this functionality. Other code: https://github.com/stevenblair/rapid61850 Project homepage: http://personal.strath.ac.uk/steven.m.blair/

datatypes.c

Committer:
sblair
Date:
2011-10-07
Revision:
1:9399d44c2b1a
Parent:
0:230c10b228ea

File content as of revision 1:9399d44c2b1a:

/**
 * Rapid-prototyping protection schemes with IEC 61850
 *
 * Copyright (c) 2011 Steven Blair
 * 
 * This program is free software; you can redistribute it and/or
 * modify it under the terms of the GNU General Public License
 * as published by the Free Software Foundation; either version 2
 * of the License, or (at your option) any later version.

 * This program is distributed in the hope that it will be useful,
 * but WITHOUT ANY WARRANTY; without even the implied warranty of
 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
 * GNU General Public License for more details.

 * You should have received a copy of the GNU General Public License
 * along with this program; if not, write to the Free Software
 * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA  02110-1301, USA.
 */

#include "ctypes.h"
#include "datatypes.h"
#include "ied.h"
#include <stdlib.h>


void init_myAnalogValue(struct myAnalogValue *myAnalogValue) {
    myAnalogValue->f = 1.024;
}
void init_ScaledValueConfig(struct ScaledValueConfig *ScaledValueConfig) {
}
void init_myVector(struct myVector *myVector) {
}
void init_simpleVector(struct simpleVector *simpleVector) {
}
void init_myMod(struct myMod *myMod) {
}
void init_myHealth(struct myHealth *myHealth) {
}
void init_myBeh(struct myBeh *myBeh) {
}
void init_myINS(struct myINS *myINS) {
}
void init_myLPL(struct myLPL *myLPL) {
    myLPL->ldNs = (CTYPE_VISSTRING255) malloc(18);
    strncpy(myLPL->ldNs, "IEC61850-7-4:2003\0", 18);
    myLPL->configRev = (CTYPE_VISSTRING255) malloc(9);
    strncpy(myLPL->configRev, "Rev 3.45\0", 9);
}
void init_myDPL(struct myDPL *myDPL) {
    myDPL->vendor = (CTYPE_VISSTRING255) malloc(13);
    strncpy(myDPL->vendor, "myVendorName\0", 13);
    myDPL->hwRev = (CTYPE_VISSTRING255) malloc(9);
    strncpy(myDPL->hwRev, "Rev 1.23\0", 9);
}
void init_myPos(struct myPos *myPos) {
}
void init_mySPS(struct mySPS *mySPS) {
}
void init_myMV(struct myMV *myMV) {
}
void init_simpleMV(struct simpleMV *simpleMV) {
}
void init_simpleCMV(struct simpleCMV *simpleCMV) {
}
void init_simpleWYE(struct simpleWYE *simpleWYE) {
}
void init_myCMV(struct myCMV *myCMV) {
}
void init_mySEQ(struct mySEQ *mySEQ) {
}
void init_mySAV(struct mySAV *mySAV) {
}
void init_simpleSAV(struct simpleSAV *simpleSAV) {
}
void init_datatypes() {
    init_myLPL(&E1Q1SB1.S1.C1.LLN0.NamPlt);
    init_myLPL(&E1Q1SB1.S1.C1.LLN0.NamPlt);
    init_myLPL(&E1Q1SB1.S1.C1.LLN0.NamPlt);
    init_myLPL(&E1Q1SB1.S1.C1.LLN0.NamPlt);
    init_myAnalogValue(&E1Q1SB1.S1.C1.RMXU_1.AmpLocPhsA.instMag);
    init_myAnalogValue(&E1Q1SB1.S1.C1.RMXU_1.AmpLocPhsB.instMag);
    init_myAnalogValue(&E1Q1SB1.S1.C1.RMXU_1.AmpLocPhsC.instMag);
    init_myLPL(&E1Q1SB1.S1.C1.LPHD_1.NamPlt);
    init_myDPL(&E1Q1SB1.S1.C1.LPHD_1.PhyNam);
    init_myAnalogValue(&E1Q1SB1.S1.C1.MMXU_1.Amps.mag);
    init_myAnalogValue(&E1Q1SB1.S1.C1.MMXU_1.Volts.mag);
    init_myAnalogValue(&E1Q1SB1.S1.C1.TVTR_1.Vol.instMag);
    init_myLPL(&D1Q1SB4.S1.C1.LLN0.NamPlt);
    init_myLPL(&D1Q1SB4.S1.C1.LLN0.NamPlt);
    init_myLPL(&D1Q1SB4.S1.C1.LPHD_1.NamPlt);
    init_myDPL(&D1Q1SB4.S1.C1.LPHD_1.PhyNam);
    init_myLPL(&D1Q1SB4.S1.C1.RSYN_1.NamPlt);
}