tx-gxx-linux/device/gxx-linux/scanner/imageusbhandler.cpp

334 lines
17 KiB
C++
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#include "imageusbhandler.h"
#include "opencv2/opencv.hpp"
#include "imgproc.h"
#include "stringex.hpp"
#include "memoryex.h"
#include "usbimageprocqueue.h"
#include "applog.h"
#include "StopWatch.h"
#include "jpeglib.h"
#include "imageencode.h"
#include <iostream>
#include "ImageApplyAutoCrop.h"
#include "ImageApplyColorCastCorrect.h"
#include "hgutils.h"
#include "correct_ultis.h"
static const std::string loggername = "imageusbhandler";
ImageUsbHandler::ImageUsbHandler(std::shared_ptr<UsbImageProcQueue> images)
: pool(1), encodepools(/*6*/1),pushpool(1)
{
LOG_INIT();
this->images = images;
m_dog.reset(new CImageApplyDogEarDetection(40,1.0,50));
m_colorcast.reset(new CImageApplyColorCastCorrect(CImageApplyColorCastCorrect::CIS_DN_PATCH1));
m_sizedetect.reset(new CSizedetect(1));
initLut();
auto info= jsonconfig().getscannerinfo();
H_ratio =*((float*)(&info.H_ratio));
V_ratio =*((float*)(&info.V_ratio));
}
ImageUsbHandler::~ImageUsbHandler()
{
}
static int num = 0;
void ImageUsbHandler::add_image(void *data, int width, int height, int type, int scannnum,unsigned int fpgaversion)
{
printf("ImageUsbHandler::add_image %d(%d * %d), fpgaversion = %d, HRatio = %f, VRatio = %f\n", scannnum, width, height, fpgaversion, H_ratio, V_ratio);
#ifdef ASYNC_EP
if(images->push_raw(data, width, height, type == CV_8UC1 ? COLOR_CHANNEL_GRAY : COLOR_CHANNEL_RGB, scannnum, fpgaversion, 0))
{
return;
}
#endif
std::string ext = ".jpg";
{
if (m_imgstatus.status != NO_error)
return;
cv::Mat mat;
if(m_scanconfig.g200params.dpi == 3)
mat = cv::Mat(height, width, CV_8UC1, data);
else
mat = cv::Mat(height, width, CV_8UC1, data).clone();
capture_data.Put(mat);
StopWatch checktime;
if (m_hgimgconfig.is_dogeardetection || m_hgimgconfig.en_sizecheck)
{
cv::Mat tmp = cv::Mat(height, width, CV_8UC1, data);
if (tmp.empty())
return;
m_imgstatus.status = Img_Detecting;
auto mergemat = GetMergeMat(type == CV_8UC1 ? width : width / 3, height, type, tmp,fpgaversion);
if (m_scanconfig.g200params.dpi == 1)
cv::resize(mergemat, mergemat, cv::Size(0, 0), 200.0 / 300.0, 1.0);
else if (m_scanconfig.g200params.dpi == 2)
cv::resize(mergemat, mergemat, cv::Size(0, 0), 200.0 / 300.0, 200.0 / 300.0);
else
{
#ifdef G200
cv::resize(mergemat,mergemat,cv::Size(0,0),200.0 / 600.0,1.43434/3);
#else
cv::resize(mergemat,mergemat,cv::Size(0,0),200.0 / 600.0,1.432323/3);
#endif
}
if (m_hgimgconfig.is_dogeardetection)
{
printf("\n is_dogeardetection");
if(!m_scanconfig.g200params.pc_correct)
correctColor(mergemat, false);
auto dogmat=mergemat(cv::Rect(mergemat.cols/2, 0, mergemat.cols/2, mergemat.rows));
m_dog->apply(dogmat,0);
if(m_dog->getResult())
{
m_imgstatus.status=Dog_error;
m_imgstatus.sannum=scannnum;
add_scanevent({.From=IMG,.Code=m_imgstatus.status,.Img_Index=m_imgstatus.sannum});
return;
}
}
if(m_hgimgconfig.en_sizecheck)
{
auto sizemat=mergemat(cv::Rect(mergemat.cols/2, 0, mergemat.cols/2, mergemat.rows));
printf("\n en_sizecheck %d",m_scanconfig.g200params.paper);
m_sizedetect->SetPapertype(m_scanconfig.g200params.paper);
if(m_sizedetect->preprocess(sizemat,NULL))
{
m_imgstatus.status=Size_error;
m_imgstatus.sannum=scannnum;
add_scanevent({.From=IMG,.Code=m_imgstatus.status,.Img_Index=m_imgstatus.sannum});
return;
}
}
m_imgstatus.status = NO_error;
}
//tmp.release();
//std::lock_guard<std::mutex> guard(mtx);
results.emplace(
pool.enqueue([this, width, height, type, ext, scannnum, data ,fpgaversion]
{
printf("enqueue image index %d \n",scannnum);
StopWatch sw;
cv::Mat mat = capture_data.Take();
int dstwidth = type==CV_8UC1?width:width/3;
static int it=0;
StopWatch sss;
cv::Mat saveMat =GetMergeMat(dstwidth, height, type,mat,fpgaversion);
printf("\n Merge time %f fpgaversion %d \n",sss.elapsed_ms(),fpgaversion);
//cv::imwrite("/home/"+to_string(it++)+".bmp",saveMat);
//int dpi = saveMat.cols==7344?2:3;
if(!m_scanconfig.g200params.pc_correct)
correctColor(saveMat,m_scanconfig.g200params.dpi,saveMat.channels()==3?1:0,!m_scanconfig.g200params.is_textcorrect);
printf("\n correctColor time %f \n",sw.elapsed_ms());
// if((H_ratio != 1.0f) || (V_ratio != 1.0f))
// cv::resize(saveMat,saveMat,cv::Size(),H_ratio,V_ratio);
// test sequence ...
// if(scannnum % 1) std::this_thread::sleep_for(std::chrono::milliseconds(500));
encode_data.Put(saveMat);
encodeimgs.push(encodepools.enqueue([this,width,height,type]() -> std::vector<MemoryPtr>
{
auto saveMat = encode_data.Take();
if(H_ratio>1.2f ||H_ratio<0.8f)
H_ratio=1.0f;
if(V_ratio>1.2f || V_ratio <0.8f)
V_ratio=1.0f;
if(m_scanconfig.g200params.dpi==1)
{
cv::resize(saveMat,saveMat,cv::Size(0,0),200.0/300.0*H_ratio,1.0*V_ratio);
}
if(m_scanconfig.g200params.dpi == 2)
{
if((H_ratio != 1.0f) || (V_ratio != 1.0f))
cv::resize(saveMat,saveMat,cv::Size(0,0),H_ratio,V_ratio);
}
if(m_scanconfig.g200params.dpi == 3)
#ifdef G200
cv::resize(saveMat,saveMat,cv::Size(0,0),1.0*H_ratio,1.43434*V_ratio); // 600 dpi <20><><EFBFBD><EFBFBD><EFBFBD><EFBFBD><EFBFBD><EFBFBD>ʵ600<30>ɼ<EFBFBD>
#else
cv::resize(saveMat,saveMat,cv::Size(0,0),1.0*H_ratio,1.432323*V_ratio);
#endif
cv::Mat imageMat;
std::vector<cv::Mat> imgs;
int actwidth = saveMat.cols / 2;
int actheight = saveMat.rows;
for (int i = 0; i < 2; i++)
{
imageMat = saveMat(cv::Rect(i * actwidth, 0, actwidth, actheight));
if (!imageMat.empty())
{
imgs.push_back(imageMat);
}
}
std::shared_ptr<IImageEncode> imageencode; //(new BmpImageEncode());
std::vector<MemoryPtr> encodedata;
if (!m_scanconfig.g200params.iscorrect_mode)
{
if (m_hgimgconfig.is_switchfrontback && (imgs.size() > 1))
std::swap(imgs[0], imgs[1]);
CImageApply* ptr = m_ials[0].get();
if (typeid(*ptr) != typeid(CImageApplyOutHole)){
if(m_hgimgconfig.imageRotateDegree != 0.0 && m_hgimgconfig.imageRotateDegree != 180.0 && (imgs.size() > 1))
{
cv::flip(imgs[1], imgs[1], 0);
cv::flip(imgs[1], imgs[1], 1);
}
}
for (auto &ialsnode : m_ials)
{
ialsnode->apply(imgs, bool(m_hgimgconfig.is_duplex));
}
if ((!m_hgimgconfig.is_duplex) && (imgs.size() > 1))
imgs.pop_back();
}
for (auto &img : imgs)
{
cv::Mat enMat = img;
if (!(enMat.empty() && (m_hgimgconfig.is_autodiscradblank_normal || m_hgimgconfig.is_autodiscradblank_vince)))
{
if(m_hgimgconfig.fadeback!=0)
{
if(enMat.channels()==3&&m_hgimgconfig.pixtype==1)
cv::cvtColor(enMat,enMat,cv::COLOR_BGR2GRAY);
}
if(m_scanconfig.g200params.iscorrect_mode)
imageencode.reset(new JpegImageEncode(false, m_hgimgconfig.resolution_dst));
else
imageencode.reset(new JpegImageEncode(m_hgimgconfig.pixtype == 0, m_hgimgconfig.resolution_dst));
encodedata.push_back(imageencode->encode(enMat));
}
}
return encodedata;
}));
pushpool.enqueue([this]{
auto mem = encodeimgs.front().get();
encodeimgs.pop();
if (!mem.empty())
{
for (auto &data : mem)
{
if (data.get())
images->push(data, true);
else
add_scanevent({.From = V4L2, .Code = 1});
}
}
});
printf("imgproce time = %f \n", sw.elapsed_ms());
LOG_TRACE(string_format("imgproce time = %f\n", sw.elapsed_ms())); }));
}
}
bool ImageUsbHandler::is_limit(){
if (m_hgimgconfig.resolution_dst > 200.0 || m_hgimgconfig.papertype == 52 || m_hgimgconfig.papertype == 54 ||
m_hgimgconfig.papertype == 131)
{
while (results.size() >= (m_scanconfig.g200params.dpi == 3 ? 1 : 2))
{
results.front().get();
{
//std::lock_guard<std::mutex> guard(mtx);
results.pop();
}
}
if (encodeimgs.size() >= (m_scanconfig.g200params.dpi == 3 ? 1 : 2))
{
return true;
}
}
else
{
while (results.size() >= 15)
{
results.front().get();
{
//std::lock_guard<std::mutex> guard(mtx);
results.pop();
}
}
if (encodeimgs.size() >= 15)
{
//printf("\n encodeimgs size = %d ", encodeimgs.size());
return true;
}
}
return false;
}
void ImageUsbHandler::add_scanevent(HGIntInfo status)
{
VectorMemroyPtr mem = VectorMemroyPtr(new VectorMemroy());
HGIntInfo info = status;
mem->resize(sizeof(info));
memcpy(&mem->buf()[0], &info, sizeof(info));
images->push(mem, false);
}
void ImageUsbHandler::clear()
{
if (images.get())
images->clear();
while (results.size() > 0)
results.pop();
while (encodeimgs.size() > 0)
encodeimgs.pop();
capture_data.Clear();
}
void ImageUsbHandler::Set_ratio(u32 h_ratio,u32 v_ratio)
{
H_ratio =*((float*)(&h_ratio));
V_ratio =*((float*)(&v_ratio));
images->set_ratio(H_ratio, V_ratio);
}
bool ImageUsbHandler::done()
{
#ifdef ASYNC_EP
return images->is_image_processing_over();
#endif
std::lock_guard<std::mutex> guard(mtx);
if(results.size() >= 1){
auto &fu_run = results.back();
if((fu_run.valid() && (fu_run.wait_for(std::chrono::seconds(0)) != std::future_status::ready)))
return false;
}
if(encodeimgs.size()>=1)
{
auto &fu_encode = encodeimgs.back();
if((!fu_encode.valid()) && encodeimgs.size() == 1)
return true;
else
return false;
return !(fu_encode.wait_for(std::chrono::seconds(0)) != std::future_status::ready);
//return (!(fu_run.wait_for(std::chrono::seconds(0)) != std::future_status::ready))&&(!(fu_encode.wait_for(std::chrono::seconds(0)) != std::future_status::ready));
}
return true;
}
void ImageUsbHandler::config_procparams(HGImgProcParms params)
{
LOG_TRACE("****ImageUsbHandler config_procparams****\n");
LOG_TRACE(string_format("HGImgProcParms.value = %d \n", params.value));
LOG_TRACE(string_format("HGImgProcParms.papertype = %d HGImgProcParms.scanside = %d \n", params.imgprocparams.papertype, params.imgprocparams.scanside));
LOG_TRACE(string_format("HGImgProcParms.res = %d HGImgProcParms.rotate = %d \n", params.imgprocparams.res, params.imgprocparams.rotate));
LOG_TRACE(string_format("HGImgProcParms.autodescrew = %d HGImgProcParms.fillbackground = %d \n", params.imgprocparams.autodescrew, params.imgprocparams.fillbackground));
LOG_TRACE(string_format("HGImgProcParms.filter = %d HGImgProcParms.enhancecolor = %d \n", params.imgprocparams.filter, params.imgprocparams.enhancecolor));
LOG_TRACE(string_format("HGImgProcParms.fillhole = %d \n", params.imgprocparams.fillhole));
m_procparams = params;
}