/*
 * scene.c
 *
 *  Created on: 2025年7月18日
 *      Author: 86189
 */
#include <string.h>
#include <stdlib.h>
#include <stdio.h>
#include <vector>
#include "tg_scene.h"
#include "../protocol_internal.h"
#include "../ModuleExport.h"



tgScene::~tgScene()
{
	for (s32 i = 0; i < input_num; i++)
		delete chin_mid[i];
	for (s32 i = 0; i < output_num; i++)
		delete chout_mid[i];
	delete chin_mid;
	delete chout_mid;
	paramPtr.clear();
}

tgScene::tgScene(hw_adapter_t* adapter):Scene(adapter)
{
	s32 i;
	s8 inport_str[16],outport_str[16];
	s8 ana_input_num, ana_output_num, loc_input_num, loc_output_num, dante_input_num, dante_output_num ;
	s8 usb_input_num, usb_output_num;
//	s16 input_num, output_num ;
	s32 n, new_idx = 300; //ID of the USB channel starts from 300.

	s16 dual_dsp = adapter->get_system_is_dual_dsp();
	s16 dsp_index = adapter->get_dsp_index();

	adapter->get_channel_num(&loc_input_num, &loc_output_num, &dante_input_num, &dante_output_num, &usb_input_num, &usb_output_num);
	ana_input_num = loc_input_num - usb_input_num;
	ana_output_num = loc_output_num - usb_output_num;

	//物理输入共16+16+2
	input_num = ana_input_num + dante_input_num + usb_input_num; //2 USB
	output_num = ana_output_num + dante_output_num + usb_output_num;
	chin_mid = new s32*[input_num];
	chout_mid = new s32*[output_num];
	for (i = 0; i < input_num; i++) {
		chin_mid[i] = new s32[6];
	}
	for (i = 0; i < output_num; i++) {
		chout_mid[i] = new s32[5];
	}
	paramPtr.resize(new_idx + usb_input_num * 5 + usb_output_num * 4, nullptr);

	tgScene_param_default(&parameters);

	sprintf(inport_str, "1-%d", input_num);
	__MADD(299, PROC_INPUT,inport_str,inport_str,0, 1 ,&parameters.input,  0, ModuleInterfaceType::PHY_INPUT);
	for (i = 0; i < input_num; i++)
		chin_mid[i][0] = 299;


	sprintf(inport_str, "1-%d", input_num);
	__MADD(298, PROC_METER,inport_str,"",0,1 ,NULL,0, ModuleInterfaceType::SOFT_MODULE); //tag:0-peak,1-rms



	//expander
	for(s32 i =0 ;i < input_num ; i++) {
		sprintf(inport_str, "%d|", i+1);
		if(i < input_num - usb_input_num) {
			__MADD(1+i, PROC_EXPANDER, inport_str, inport_str, 0, 0, &parameters.in1[i], 0, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][1] = 1+i;
		}
		else {
			__MADD(new_idx, PROC_EXPANDER, inport_str, inport_str, 0, 0, &parameters.in1[i], 0, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][1] = new_idx++;
		}
	}

	//compresser
	for(s32 i =0 ;i < input_num ; i++) {
		sprintf(inport_str, "%d|", i+1);
		if(i < input_num - usb_input_num) {
			__MADD(33+i, PROC_COMPRESS, inport_str, inport_str, 0, 0, &parameters.in2[i], 0, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][2] = 33+i;
		}
		else {
			__MADD(new_idx, PROC_COMPRESS, inport_str, inport_str, 0, 0, &parameters.in2[i], 0, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][2] = new_idx++;
		}
	}

	//agc
	for(s32 i =0 ;i < input_num ; i++) {
		sprintf(inport_str, "%d|", i+1);
		if(i < input_num - usb_input_num) {
			__MADD(65+i, PROC_AGC, inport_str, inport_str, 0, 0, &parameters.in3[i], 0, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][3] = 65+i;
		}
		else {
			__MADD(new_idx, PROC_AGC, inport_str, inport_str, 0, 0, &parameters.in3[i], 0, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][3] = new_idx++;
		}
	}

	//eq
	for(s32 i =0 ;i < input_num ; i++) {
		sprintf(inport_str, "%d|", i+1);
		if(i < input_num - usb_input_num) {
			__MADD(97+i, PROC_EQ, inport_str, inport_str, 0, 0, &parameters.in4[i],  8, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][4] = 97+i;
		}
		else {
			__MADD(new_idx, PROC_EQ, inport_str, inport_str, 0, 0, &parameters.in4[i],  8, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][4] = new_idx++;
		}
	}

	//nhs
	for(s32 i =0 ;i < input_num ; i++) {
		sprintf(inport_str, "%d|", i+1);
		if(i < input_num - usb_input_num) {
			__MADD(129+i, PROC_FEEDBACK, inport_str, inport_str, 0, 0, &parameters.in5[i], 8, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][5] = 129+i;
		}
		else {
			__MADD(new_idx, PROC_FEEDBACK, inport_str, inport_str, 0, 0, &parameters.in5[i], 8, ModuleInterfaceType::SOFT_MODULE);
			chin_mid[i][5] = new_idx++;
		}
	}

	//am
	sprintf(inport_str, "1-%d", input_num);
	sprintf(outport_str, "1-%d", input_num+1);
	__MADD(161,PROC_AUTOMIXER,inport_str, outport_str, 0, 0, &parameters.automixer, 0, ModuleInterfaceType::SOFT_MODULE);  //¿ÉÌæ»»

	//aec selector
	sprintf(inport_str, "1-%d", input_num+ 1);
	sprintf(outport_str, "%d|%d|", input_num+ 2, input_num+ 3);
	__MADD(162,PROC_SELECTOR, inport_str,outport_str, 0, 1, &parameters.aec_selector, 0, ModuleInterfaceType::SOFT_MODULE);  //add usb

	//aec
	sprintf(inport_str, "%d|%d", input_num+ 2, input_num+ 3);
	sprintf(outport_str, "%d|", input_num+ 2);
	__MADD(163,PROC_AEC,inport_str, outport_str ,0, 1, &parameters.aec, 256, ModuleInterfaceType::SOFT_MODULE);

	//ans selector
	sprintf(inport_str, "1-%d", input_num+ 2);
	sprintf(outport_str, "%d|", input_num+ 3);
	__MADD(164,PROC_SELECTOR,inport_str,outport_str, 1, 1 ,&parameters.ans_selector, 0, ModuleInterfaceType::SOFT_MODULE);

	//ans
	sprintf(inport_str, "%d|", input_num+ 3);
	sprintf(outport_str, "%d|", input_num+ 3);
	__MADD(165,PROC_ANS,inport_str,outport_str, 1, 0 ,&parameters.afc_ns,0, ModuleInterfaceType::SOFT_MODULE);

	//mixer
	sprintf(inport_str, "1-%d", input_num+ 3);
	sprintf(outport_str, "%d-%d",input_num+4, input_num+output_num+4);
	__MADD(166,PROC_MIXER,inport_str,outport_str,1, 1 ,&parameters.mixer, 0, ModuleInterfaceType::SOFT_MODULE);

	//dummy
	for(s32 i =0 ;i < output_num ; i++) {
		sprintf(inport_str, "%d|", i+input_num+4);
		sprintf(outport_str, "%d|", i+1);
		__MADD(500+i, PROC_NONE, inport_str, outport_str, 1, 0, &parameters.out1[i], 2, ModuleInterfaceType::SOFT_MODULE); //预防删除了第一个输出模块时硬件无声音输出
	}

	//crossover
	for(s32 i =0 ;i < output_num ; i++) {
		sprintf(outport_str, "%d|", i+1);
		if(i < output_num - usb_output_num) {
			__MADD(167+i, PROC_CROSSOVER, outport_str, outport_str, 1, 0, &parameters.out1[i],2, ModuleInterfaceType::SOFT_MODULE);
			chout_mid[i][1] = 167+i;
		}
		else {
			__MADD(new_idx, PROC_CROSSOVER, outport_str, outport_str, 1, 0, &parameters.out1[i],2, ModuleInterfaceType::SOFT_MODULE);
			chout_mid[i][1] = new_idx++;
		}
	}
//	printf("ou_adr ou1[2]:0x%x, ou1[3]:0x%x\n", &parameters.out1[2], &parameters.out1[3]);

	//eq
	for(s32 i =0 ;i < output_num ; i++) {
		sprintf(outport_str, "%d|", i+1);
		if(i < output_num - usb_output_num) {
			__MADD(199+i, PROC_EQ, outport_str, outport_str,1, 0, &parameters.out2[i], 8, ModuleInterfaceType::SOFT_MODULE);
			chout_mid[i][2] = 199+i;
		}
		else {
			__MADD(new_idx, PROC_EQ, outport_str, outport_str,1, 0, &parameters.out2[i], 8, ModuleInterfaceType::SOFT_MODULE);
			chout_mid[i][2] = new_idx++;
		}
	}

	//delay
	for(s32 i =0 ;i < output_num ; i++) {
		sprintf(outport_str, "%d|", i+1);
		if(i < output_num - usb_output_num) {
			__MADD(231+i,PROC_DELAY, outport_str, outport_str,1, 0, &parameters.out3[i], 1200, ModuleInterfaceType::SOFT_MODULE);
			chout_mid[i][3] = 231+i;
		}
		else {
			__MADD(new_idx,PROC_DELAY, outport_str, outport_str,1, 0, &parameters.out3[i], 1200, ModuleInterfaceType::SOFT_MODULE);
			chout_mid[i][3] = new_idx++;
		}
	}

	//limit
	for(s32 i =0 ;i < output_num ; i++) {
		sprintf(outport_str, "%d|", i+1);
		if(i < output_num - usb_output_num) {
			__MADD(263+i, PROC_LIMIT, outport_str, outport_str,1, 0, &parameters.out4[i],0, ModuleInterfaceType::SOFT_MODULE);
			chout_mid[i][4] = 263+i;
		}
		else {
			__MADD(new_idx, PROC_LIMIT, outport_str, outport_str,1, 0, &parameters.out4[i],0, ModuleInterfaceType::SOFT_MODULE);
			chout_mid[i][4] = new_idx++;
		}
	}

	//output
	sprintf(outport_str, "1-%d", output_num);
	__MADD(295,PROC_OUTPUT,outport_str,outport_str,1, 1, &parameters.output,0, ModuleInterfaceType::SOFT_MODULE);
	for (i = 0; i < output_num; i++)
		chout_mid[i][0] = 295;

	//sysctrl
	__MADD(296,PROC_SYSCTL,outport_str,outport_str,1, 1, &parameters.sysctl,0, ModuleInterfaceType::SOFT_MODULE);
	//meter
	__MADD(297,PROC_METER,outport_str,outport_str,1, 1, &parameters.output, 0, ModuleInterfaceType::PHY_OUTPUT);

};


void tgScene::module_def(s32 proc_type, void* param_ptr)
{
	int j;
	int allbypass = 1;
	ptag_module pmodu = (ptag_module)param_ptr;
	switch(proc_type) {

		case PROC_INPUT:
			ptag_input pInput = (ptag_input)param_ptr;
			pInput->input_num = MAX_INPUT_NUM;
			for(j=0; j<pInput->input_num; j++){
				pInput->input[j].freq = 1000;
				pInput->input[j].level = -4800;
				pInput->input[j].phant = 0;
				pInput->input[j].sensitivity = 0;
				pInput->input[j].channelID = j;
				pInput->input[j].gain =0;
				pInput->input[j].mute = 0;
				pInput->input[j].type=0;
				pInput->input[j].phase =0;
				pInput->input[j].mingain = -8000;
				pInput->input[j].maxgain = 1200;
			}
		break;

		case PROC_METER:
			pmodu->proc_type = PROC_METER;
			ptag_Meter pMeter = (ptag_Meter)pmodu->proc_ins;
			pMeter->input_num = 8;
		break;

		case PROC_SHELF:
			pmodu->proc_type = PROC_SHELF;
			ptag_shelf pshelf = (ptag_shelf)pmodu->proc_ins;
			pshelf->highshelf.bypass = allbypass;
			pshelf->highshelf.freq = 500;
			pshelf->highshelf.gain = -4500;
			pshelf->highshelf.q = 71;
			pshelf->lowshelf.bypass = 1;
			pshelf->lowshelf.freq = 500;
			pshelf->lowshelf.gain =-4500;
			pshelf->lowshelf.q = 71;
		break;

		case PROC_GEQ:
			int j;
			pmodu->proc_type = PROC_GEQ;
			ptag_geq pGEQ = (ptag_geq)pmodu->proc_ins;
			pGEQ->bypass = allbypass;
			pGEQ->q_index = 2;
			pGEQ->nsections = 31;
			for(j=0;j<31;j++){
				pGEQ->eq_attr[j].gain = 0;
			}
			break;
		case PROC_EQ:
			pmodu->proc_type = PROC_EQ;
			ptag_eq pEQ = (ptag_eq)pmodu->proc_ins;
			u16  freq[]={40,80,200,500,1000,2000,4000,8000,10000,12500,16000,20000};
			pEQ->bypass = allbypass;
			pEQ->nsection = MAX_EQ_SECTION;
			for(j=0;j<pEQ->nsection;j++){
				pEQ->eq_attr[j].bypass = allbypass;
				pEQ->eq_attr[j].freq = freq[j];
				pEQ->eq_attr[j].gain = 0;
				pEQ->eq_attr[j].q = 250;
				//pEQ->eq_attr[j].type =
			}
		break;

		case PROC_EXPANDER:
			pmodu->proc_type = PROC_EXPANDER;
			ptag_expander pExpander = (ptag_expander)pmodu->proc_ins;
			pExpander->bypass = allbypass;
			pExpander->threshold = -6000;
			pExpander->ratio = 100;
			pExpander->attack = 1;
			pExpander->release = 1;
		break;

		case PROC_COMPRESS:
			pmodu->proc_type = PROC_COMPRESS;
			ptag_compress pcompress = (ptag_compress)pmodu->proc_ins;
			pcompress->bypass = allbypass;
			pcompress->threshold = -4800;
			pcompress->ratio = 100;
			pcompress->attack = 1;
			pcompress->release = 1;
			pcompress->gain = 0;
			pcompress->soft = 0;
		break;

		case PROC_LIMIT:
			pmodu->proc_type = PROC_LIMIT;
			ptag_compress limiter = (ptag_compress)pmodu->proc_ins;
			limiter->bypass = allbypass;
			limiter->threshold = 0;
			limiter->ratio = 10000;
			limiter->attack = 1;
			limiter->release = 1;
			limiter->gain = 0;
			limiter->soft = 0;
		break;

		case PROC_MIXER:
			int m;
			ptag_mixer pMixer = (ptag_mixer)param_ptr;
			pMixer->input_num = MAX_MIXER_INPUT;
			pMixer->output_num = MAX_MIXER_OUTPUT;
			memset(pMixer->input_mask,0,sizeof(pMixer->input_mask));
			for (m=0;m<pMixer->output_num ;m ++){
				for(j=0;j<pMixer->input_num;j++){
					 pMixer->input_gain[m][j]=0;
					 pMixer->delay[m][j] =0;
				}
				pMixer->input_mask[m][m/16]=1<<(m&15);
			}
		break;

		case PROC_DELAY:
			pmodu->proc_type = PROC_DELAY;
			ptag_delay pDelay = (ptag_delay)pmodu->proc_ins;
			pDelay->bypass = allbypass;
			pDelay->ms  = 1;
		break;

		case PROC_CROSSOVER:
			pmodu->proc_type = PROC_CROSSOVER;
			ptag_crossover pCross = (ptag_crossover)pmodu->proc_ins;
			pCross->highpass.bypass = allbypass;
			pCross->highpass.freq = 500;//454;
			pCross->highpass.taps = 18;//48;
			pCross->highpass.type = 0;
			pCross->highpass.gain  =0 ;
			pCross->lowpass.bypass = allbypass;
			pCross->lowpass.freq = 500;
			pCross->lowpass.taps = 18;
			pCross->lowpass.type = 0;
			pCross->lowpass.gain =0;
		break;

		case PROC_OUTPUT:
			ptag_output pOutput= (ptag_output)param_ptr;
			pOutput->output_num  = MAX_OUTPUT_NUM;
			for(j=0;j<pOutput->output_num;j++){
				pOutput->output[j].gain = 0;
				pOutput->output[j].mute = 0;
				pOutput->output[j].channelID = j;
				pOutput->output[j].phase = 0;
				pOutput->output[j].mingain = -8000;
				pOutput->output[j].maxgain = 1200;
			}
		break;

		case PROC_GAIN:
			ptag_gain pgain = (ptag_gain)param_ptr;
			pgain->gain = 0;
			pgain->mute = 0;
		break;

		case PROC_AUTOMIXER:
			ptag_gainsharing_mixer pautomixer = (ptag_gainsharing_mixer)param_ptr;
			pautomixer->bypass = allbypass;
			pautomixer->master_mute =0;
			pautomixer->master_gain =0;
			pautomixer->response = 5;
			pautomixer->slope = 200;
			for(j=0;j<AUTOMIXER_CHANNEL_NUM;j++){
				pautomixer->channels[j].automatic = 0;
				pautomixer->channels[j].mute = 0;
				pautomixer->channels[j].gain = 0;
				pautomixer->channels[j].priority = 5;
			}
		break;

		case PROC_FEEDBACK:
			pmodu->proc_type = PROC_FEEDBACK;
			ptag_feedback pfb = (ptag_feedback)pmodu->proc_ins;
			pfb->bypass = allbypass;
			pfb->panic_threshold = 0;
			pfb->flt_depth = 1800;
		break;

		case PROC_SYSCTL:
			ptag_sysctl psysctl = (ptag_sysctl)param_ptr;
			psysctl->gain =  0;
			psysctl->mute = 0;
		break;

		case PROC_AEC:
			ptag_aec paec = (ptag_aec)param_ptr;
			paec->bypass = allbypass;
			paec->mode = 0;
		break;

		case PROC_ANS:
			pmodu->proc_type = PROC_ANS;
			ptag_ans pans = (ptag_ans)pmodu->proc_ins;
			pans->bypass = allbypass;
			pans->mode = 0;
		break;

		case PROC_SELECTOR:
			ptag_selector pselector = (ptag_selector)param_ptr;
			pselector->input_num = MAX_MIXER_INPUT;
			pselector->output_num = MAX_MIXER_OUTPUT;
			memset(pselector->input_mask,0,sizeof(pselector->input_mask));
		break;

		case PROC_AGC:
			ptag_agc pAGC = (ptag_agc)param_ptr;
			pAGC->bypass = allbypass;
			pAGC->attacktime = 1;
			pAGC->releasetime = 500;
			pAGC->ratio = 100;
			pAGC->tar_threshold = 0;
			pAGC->threshold =-4800;
		break;

		case PROC_GATING_AUTOMIXER:
			ptag_gating_mixer pgautomixer = (ptag_gating_mixer)param_ptr;
			pgautomixer->bypass = allbypass;
			pgautomixer->master_mute =0;
			pgautomixer->master_gain =0;
			pgautomixer->holdtime = 500;
			pgautomixer->offgain = -4000;
			pgautomixer->sensitivity = 600;
			pgautomixer->nom_atten = 300;
			pgautomixer->nom_num = 4;
			for(j=0;j<AUTOMIXER_CHANNEL_NUM;j++){
				pgautomixer->channels[j].automatic = 0;
				pgautomixer->channels[j].mute = 0;
				pgautomixer->channels[j].gain = 0;
				pgautomixer->channels[j].priority = 5;
			}
		break;

		case PROC_CONTINUNOUS_SPL:
			ptag_spl pspl = (ptag_spl)param_ptr;
			pspl->maxgain = 2000;
			pspl->mingain = -2000;
			pspl->sense_ratio = 75;
			pspl->speed = 5;
			pspl->trim =0;
			pspl->bypass = allbypass;
			memset((void*)pspl->mask,0,sizeof(pspl->mask));
		break;

		case PROC_GATING:
			ptag_gate pgate = (ptag_gate)param_ptr;
			pgate->bypass = allbypass;
			pgate->threshold = -3000;
			pgate->depth = -6000;
			pgate->attacktime = 2;
			pgate->holdtime = 5;
			pgate->releasetime = 1000;
		break;

		case PROC_DUCKER:
			pmodu->proc_type = PROC_DUCKER;
			ptag_ducker pducker = (ptag_ducker)pmodu->proc_ins;
			pducker->bypass = allbypass;
			pducker->threshold = -4500;
			pducker->depth = -2000;
			pducker->attacktime = 20;
			pducker->holdtime = 1000;
			pducker->releasetime = 1000;
			memset((void*)pducker->mask,0,sizeof(pducker->mask));
		break;

		case PROC_REVERB:
		break;

		case PROC_ECHO:
		break;

		case PROC_FIR:
			pmodu->proc_type = PROC_FIR;
			ptag_fir pfir = (ptag_fir)pmodu->proc_ins;
			pfir->bypass = allbypass;
			pfir->taps = 1024;
			memset((void*)pfir->coeffs, 0, sizeof(pfir->coeffs));
			pfir->coeffs[0] = 1;
		break;

		default:
		break;

		}
}


void tgScene::tgScene_param_default(ptag_parameters p)
{
	int i,j,module_cnt=0;

	module_def(PROC_INPUT, &p->input);

	for (i=0; i<MAX_INPUT_NUM; i++) {
		module_def(PROC_EXPANDER, &p->in1[i]);
		module_def(PROC_COMPRESS, &p->in2[i]);
		module_def(PROC_AGC, &p->in3[i]);
		module_def(PROC_EQ, &p->in4[i]);
		module_def(PROC_FEEDBACK, &p->in5[i]);
	}

	module_def(PROC_AUTOMIXER, &p->automixer);
	module_def(PROC_SELECTOR, &p->aec_selector);
	module_def(PROC_AEC, &p->aec);
	module_def(PROC_SELECTOR, &p->ans_selector);
	module_def(PROC_ANS, &p->ans_selector);
	module_def(PROC_MIXER, &p->mixer);

	for (i=0; i<MAX_OUTPUT_NUM; i++) {
		module_def(PROC_CROSSOVER, &p->out1[i]);
		module_def(PROC_EQ, &p->out2[i]);
		module_def(PROC_DELAY, &p->out3[i]);
		module_def(PROC_LIMIT, &p->out4[i]);
	}

	module_def(PROC_OUTPUT, &p->output);
	module_def(PROC_SYSCTL, &p->sysctl);
}


s32 tgScene::set_parameters_content(uvoid* param, s32 size)
{
	tag_parameters* pp = (tag_parameters*)param;
	int L[24] = {0};
	if(pp->magic != 0xbcba || size != sizeof(tag_parameters)) {
		printf("preset param error!\n");
		/*printf("tag_head:%d,%d,%d,%d,%d\n", L[0]=sizeof(parameters.magic), L[1]=sizeof(parameters.nmds)+L[0], L[2]=sizeof(parameters.pad1)+L[1], L[3]=sizeof(parameters.pad2)+L[2], L[4]=sizeof(parameters.crc)+L[3]);
		printf("tag_input:%d, %d\n", sizeof(tag_input), L[5]=sizeof(tag_input)+L[4]);
		printf("tag_module_in:%d, %d\n", sizeof(tag_module), L[6]=sizeof(tag_module) * MAX_INPUT_NUM * 5 + L[5]);

		printf("tag_automixer:%d, %d\n", sizeof(tag_automixer), L[7]=sizeof(tag_automixer)+L[6]);
		printf("tag_select1:%d, %d\n", sizeof(tag_selector), L[8]=sizeof(tag_selector)+L[7]);
		printf("tag_aec:%d, %d\n", sizeof(tag_aec), L[9]=sizeof(tag_aec)+L[8]);
		printf("tag_selector:%d, %d\n", sizeof(tag_selector), L[10]=sizeof(tag_selector) + L[9]);
		printf("tag_3a:%d, %d, %d\n", sizeof(tag_3a), L[11]=sizeof(tag_3a)+L[10]);
		printf("tag_mixer:%d, %d\n", sizeof(tag_mixer), L[12]=sizeof(tag_mixer)+L[11]);

		printf("tag_module_o1:%d, %d\n", sizeof(tag_module), L[13]=sizeof(tag_module) * MAX_INPUT_NUM + L[12]);
		printf("tag_module_fir:%d\n", sizeof(tag_module_fir), L[14]=sizeof(tag_module_fir) * MAX_OUTPUT_NUM + L[13]);
		printf("tag_module_out:%d\n", sizeof(tag_module), L[15]=sizeof(tag_module) * MAX_OUTPUT_NUM * 2 + L[14]);
		printf("tag_output:%d, %d\n", sizeof(tag_output), L[16]=sizeof(tag_output)+L[15]);
		printf("tag_sysctl:%d, %d\n", sizeof(tag_sysctl), L[17]=sizeof(tag_sysctl)+L[16]);
		printf("tag_group:%d, %d\n", sizeof(tag_group), L[18]=sizeof(tag_group)+L[17]);*/

		dbg_printf("Len parameters:%d, Len recv:%d\n", L[19]=sizeof(tag_parameters), size);
		return -1;
	}
	memcpy(&parameters, param, sizeof(tag_parameters));

	return 0;
}

s32 tgScene::update_dynmodule_tag(s32 proc_type, struct proc_field* proc)
{
	switch(proc_type) {
	case  ModuleType::PROC_GEQ:{
		ptag_module pmodule  = (ptag_module)proc->parameters;
		ptag_geq geq = (ptag_geq)pmodule->proc_ins;

		proc->tag = geq->nsections;
	}
	break;
	case  ModuleType::PROC_EQ:{
		ptag_module pmodule  = (ptag_module)proc->parameters;
		ptag_eq eq = (ptag_eq)pmodule->proc_ins;

		proc->tag = eq->nsection;
	}
		break;
	case  ModuleType::PROC_GATING:
	case  ModuleType::PROC_EXPANDER:
		proc->tag =0;
		break;
	case  ModuleType::PROC_COMPRESS:
	case  ModuleType::PROC_LIMIT:
		proc->tag =0;
		break;
	case  ModuleType::PROC_DELAY:
		proc->tag =1200;
		break;
	case  ModuleType::PROC_CROSSOVER:
		proc->tag =1;
		break;
	case  ModuleType::PROC_FEEDBACK:{
		ptag_module pmodule  = (ptag_module)proc->parameters;
		ptag_feedback nhs = (ptag_feedback)pmodule->proc_ins;

		proc->tag = nhs->fbc_num;
	}
		break;
	case  ModuleType::PROC_AGC:
		proc->tag =0;
		break;
	case  ModuleType::PROC_CONTINUNOUS_SPL:
		proc->tag =0;
		break;
	case  ModuleType::PROC_DUCKER:
		proc->tag =0;
		break;
	case  ModuleType::PROC_FIR:
		proc->tag = 1024;
		break;
	default:
		proc->tag =0 ;
		break;
	}
	proc->proc_type = proc_type;
	return 0;
}

s32 tgScene::update_module()
{
	s8 ana_input_num, ana_output_num,dante_input_num,dante_output_num, usb_input_num, usb_output_num ;
	s16 input_num, output_num ;
	s16 dual_dsp = hw_adapter->get_system_is_dual_dsp();
	s16 dsp_index = hw_adapter->get_dsp_index();

	hw_adapter->get_channel_num(&ana_input_num, &ana_output_num, &dante_input_num, &dante_output_num, &usb_input_num, &usb_output_num);
	input_num = ana_input_num + dante_input_num;
	output_num = ana_output_num + dante_output_num;

	for(auto& iter: proc_list){
		//update dynamic module info.
		if(iter.fixed == 0) {
			ptag_module pmodule = (ptag_module)iter.parameters;
			if(pmodule->proc_type >= ModuleType::PROC_COUNT || pmodule->proc_type < ModuleType::PROC_NONE) {
				pmodule->proc_type = ModuleType::PROC_NONE;
			}

			update_dynmodule_tag(pmodule->proc_type, &iter);
		}
	}

	return 0;
}

uvoid* tgScene::get_module_param_ptr(s32 mType, uvoid *param, s32 fixed)
{
	uvoid *ptr = param;

	if(fixed == 0){
		if (PROC_FIR == mType) {
			ptag_module_fir pmod = (ptag_module_fir)param;
			ptr = (void*)pmod->proc_ins;
		}
		else {
			ptag_module pmod = (ptag_module)param;
			ptr = (void*)pmod->proc_ins;
		}
	}
	return ptr;
}


//u32 tgScene::get_module_id(u32 mid, s32 mtype , u32 pid)
//{
//	if(mtype == PROC_INPUT && (pid == INPUT_TYPE || pid == INPUT_FREQ || pid == INPUT_LEVEL)){
//		mid = 300;
//	}
//	else if(mtype == PROC_DUCKER && pid == DUCKER_MIX){
//		mid = mid + 320;
//	}
//
//	return mid;
//}