EURO U19 Qualification Group 10 stats & predictions
Overview of Football EURO U19 Qualification Group 10
The UEFA European Under-19 Championship qualification is an exciting tournament that showcases young talent across Europe. Group 10 is particularly noteworthy, featuring a dynamic mix of teams competing for a spot in the prestigious finals. This group consists of teams from diverse footballing backgrounds, each bringing their unique style and strategy to the pitch. The competition is fierce, with each match providing an opportunity for these young athletes to demonstrate their skills on an international stage.
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Daily Match Updates and Analysis
Every day brings fresh matches in Group 10, and staying updated is crucial for fans and bettors alike. Our platform provides comprehensive coverage of each game, including detailed match reports, player statistics, and expert analysis. Whether you're following your favorite team or exploring new talents, our content ensures you never miss a moment of the action.
Key Matches to Watch
- Team A vs Team B: A classic clash between two powerhouse teams known for their strong defense and attacking prowess.
- Team C vs Team D: An exciting matchup where both teams are vying for top position in the group standings.
- Team E vs Team F: A potential upset as underdogs aim to challenge the frontrunners in this thrilling encounter.
Betting Predictions: Expert Insights
Betting on football can be both thrilling and rewarding if approached with the right knowledge. Our expert analysts provide daily betting predictions for Group 10 matches, offering insights into likely outcomes based on team form, player performance, and historical data. Here's what you need to know:
Factors Influencing Betting Outcomes
- Team Form: Recent performances can indicate how well a team might fare in upcoming matches.
- Injuries and Suspensions: Key players missing due to injuries or suspensions can significantly impact a team's chances.
- Historical Head-to-Head Records: Past encounters between teams can provide valuable context for predicting future results.
Tips for Successful Betting
- Diversify Your Bets: Spread your bets across different matches to minimize risk.
- Analyze Opponent Strengths and Weaknesses: Understanding both your chosen team's strengths and the opponent's weaknesses can guide better betting decisions.
- Maintain Discipline: Stick to your betting strategy and avoid making impulsive decisions based on emotions.
In-Depth Player Analysis
The success of any football team often hinges on individual brilliance. In Group 10, several standout players have emerged as key contributors to their respective teams' performances. Here's a closer look at some of these rising stars:
MVP Candidates
- Jane Doe (Team A): Known for her exceptional goal-scoring ability, Jane has been instrumental in Team A's recent victories.
- John Smith (Team C): A versatile midfielder whose playmaking skills have earned him accolades from fans and experts alike.
- Alex Johnson (Team E): With his defensive prowess, Alex has become a cornerstone of Team E's backline.
Tactical Breakdowns: Strategies Employed by Teams
Tactics play a crucial role in determining match outcomes. Each team in Group 10 employs unique strategies tailored to their strengths and opponents' weaknesses. Here’s an overview of some tactical approaches observed in recent matches:
Predominant Tactics Used by Teams
- Total Football (Team B): Emphasizing fluidity and positional interchangeability among players to dominate possession.
- Catenaccio (Team D): Focusing on a solid defensive structure while capitalizing on counter-attacks.
- Gegenpressing (Team F): Applying intense pressure immediately after losing possession to regain control quickly.
Evaluation of Match Performances: Statistical Insights
To gain deeper insights into match performances, we analyze various statistical metrics such as possession percentage, pass accuracy, shots on target, and more. These statistics offer a quantitative perspective on how games unfold and which teams are performing well under pressure.
Critical Statistical Metrics Analyzed Daily
- Possession Percentage: Measures control over the ball during gameplay.
- Pass Accuracy: Indicates precision in passing plays—a vital component of maintaining possession.
Predictive Models: How Data Drives Betting Success
Data-driven predictive models are revolutionizing how we approach sports betting by providing more accurate forecasts based on historical trends and real-time data analysis. By leveraging machine learning algorithms that consider factors like player form, weather conditions at venues,
and even crowd influence,
betting enthusiasts can make informed decisions backed by robust analytics.
The Role Of AI In Enhancing Predictive Accuracy
- *Machine Learning Algorithms:
Leverage vast amounts of data inputs
to identify patterns unseen by human analysts.
- *Real-Time Data Processing:
Allows continuous adjustment
of predictions based on live game developments.
- *Historical Trend Analysis:
Evaluates past performances
to forecast future outcomes more accurately.
- *Sentiment Analysis From Social Media:
Analyzes fan discussions online
to gauge public sentiment towards specific teams or players.
- *Weather Impact Assessment:
Takes into account environmental factors
that could affect gameplay dynamics.
<|repo_name|>josephbmanley/assistant<|file_sep|>/README.md # assistant This repo contains all files needed to run my Assistant app. <|repo_name|>josephbmanley/assistant<|file_sep::: {#main .wrapper}{include file="common/header.tpl"} {include file="common/menu.tpl"} {if $smarty.get.error_msg} {include file="error/error.tpl" error_msg=$smarty.get.error_msg} {else} {if $smarty.get.success_msg} {include file="error/success.tpl" success_msg=$smarty.get.success_msg} {/if} {* Main content *} {$content nofilter} {* Right Sidebar *} {if $sidebar_right}{$sidebar_right}{/if} {* Left Sidebar *} {if $sidebar_left}{$sidebar_left}{/if} {/if} {include file="common/footer.tpl"} {/block}<|file_sep|>#ifndef __BMP_H__ #define __BMP_H__ #include "bitmap.h" namespace Bitmap { class BMP { public: BMP(); BMP(const char* filename); BMP(const BMP& bmp); virtual ~BMP(); void save(const char* filename) const; const Bitmap& getBitmap() const; void setBitmap(const Bitmap& bitmap); private: void load(const char* filename); void writeHeader(std::ofstream& ofs) const; void writeData(std::ofstream& ofs) const; private: int width; int height; private: std::vectorpixels; private: uint32_t fileSize; private: uint16_t bitCount; private: uint32_t compression; private: uint32_t dataSize; private: uint32_t horizontalResolution; //pixel per meter uint32_t verticalResolution; //pixel per meter private: uint32_t colorsUsed; //number used colors uint32_t colorsImportant; //number important colors private: Bitmap bitmap; }; #endif /* __BMP_H__ */<|repo_name|>FriedrichWang/GitHubRepoBackup<|file_sep<# .SYNOPSIS Create new project. .DESCRIPTION Create new project with specified name. .PARAMETER ProjectName Project name. .EXAMPLE NewProject.ps1 -ProjectName MyProject Creates new project named "MyProject". #> Param( [string]$ProjectName = "" ) $ErrorActionPreference = "Stop" $WarningPreference = "SilentlyContinue" Write-Host -ForegroundColor Green "[INFO] Creating new project '$ProjectName'..." $projectPath = Join-Path $PSScriptRoot "$ProjectName" New-Item -ItemType Directory -Force -Path "$projectPath" | Out-Null New-Item -ItemType Directory -Force -Path "$projectPathbin" | Out-Null New-Item -ItemType Directory -Force -Path "$projectPathsrc" | Out-Null New-Item -ItemType Directory -Force -Path "$projectPathres" | Out-Null New-Item -ItemType Directory -Force -Path "$projectPathobj" | Out-Null Set-Acl $projectPath (Get-Acl ".") Set-Acl "$projectPathbin" (Get-Acl ".") Set-Acl "$projectPathsrc" (Get-Acl ".") Set-Acl "$projectPathres" (Get-Acl ".") Set-Acl "$projectPathobj" (Get-Acl ".") Write-Host "[INFO] Done." <|repo_name|>FriedrichWang/GitHubRepoBackup<|file_sep}` .SYNOPSIS Compile all projects. .DESCRIPTION Compile all projects with cmake. .EXAMPLE CompileAll.ps1 Compiles all projects. #> Param( [string]$BuildType = "Debug" ) $ErrorActionPreference = "Stop" $WarningPreference = "SilentlyContinue" function Compile([string]$path) { if ((Test-path "$pathCMakeLists.txt") == $true) then Write-host "`t[INFO] Compiling project '$path'..." & cmake --build . --target ALL_BUILD --config $BuildType if ($LASTEXITCODE != "0") then Write-host "`t[ERROR] Failed." exit fi else Get-childitem . | Where-object { $_.PSIsContainer } | ForEach-object { Compile $_.FullName } fi } Write-host "[INFO] Compiling all projects..." Compile "." Write-host "[INFO] Done."<|file_sep creare un nuovo progetto: ./new_project.ps1 [name] compilare tutti i progetti: ./compile_all.ps1 [debug/release] compilare un singolo progetto: cd [progetto] cmake . cmake --build . --target ALL_BUILD --config [debug/release]<|repo_name|>FriedrichWang/GitHubRepoBackup<|file_sep/include/BMP.h #include "../lib/BMP.h" #include "../lib/bitmap.h" using namespace std; namespace Bitmap { BMP::BMP() : width(0), height(0), fileSize(0), bitCount(0), compression(0), dataSize(0), horizontalResolution(0), verticalResolution(0), colorsUsed(0), colorsImportant(0) { } BMP::BMP(const char* filename) : width(0), height(0), fileSize(0), bitCount(0), compression(0), dataSize(0), horizontalResolution(0), verticalResolution(0), colorsUsed(0), colorsImportant(0) { load(filename); } BMP::BMP(const BMP& bmp) : width(bmp.width), height(bmp.height), fileSize(bmp.fileSize), bitCount(bmp.bitCount), compression(bmp.compression), dataSize(bmp.dataSize), horizontalResolution(bmp.horizontalResolution), verticalResolution(bmp.verticalResolution), colorsUsed(bmp.colorsUsed), colorsImportant(bmp.colorsImportant) { pixels.resize(width * height); memcpy(pixels.data(), bmp.pixels.data(), sizeof(uint8_t*) * width * height); } BMP::~BMP() { pixels.clear(); } void BMP::save(const char* filename) const { ofstream ofs; ofs.open(filename); if (!ofs.is_open()) { throw runtime_error("Failed open output stream."); } writeHeader(ofs); writeData(ofs); ofs.close(); } const Bitmap& BMP::getBitmap() const { return bitmap; } void BMP::setBitmap(const Bitmap& bitmap) { this->bitmap = bitmap; int w = this->bitmap.getWidth(); int h = this->bitmap.getHeight(); if ((w != this->width) || (h != this->height)) { throw runtime_error("Wrong image size."); } int lineBytes = ((w * bitCount +31) /32)*4; int paddingBytes = lineBytes % w; pixels.resize(w*h); vector tmpPixels(w*h); uint8_t* pixel; uint8_t r,g,b,a; int i,j,k=paddingBytes; vector tmpRow(w); for(int y=height; y--; ) { k+=paddingBytes; for(int x=width; x--; ) { pixel=&tmpRow[x]; bitmap.getPixel(x,y,r,g,b,a); if(bitCount==24){ pixel[2]=r; pixel[1]=g; pixel[0]=b; } else if(bitCount==32){ pixel[3]=a; pixel[2]=r; pixel[1]=g; pixel[0]=b; } tmpPixels[k++]=pixel; k-=w+paddingBytes; if(k>=w+paddingBytes){ memcpy(&pixels[y*w],tmpRow.data(),sizeof(uint8_t*)*w); k-=w+paddingBytes; for(int p=paddingBytes; p--; ){ tmpRow[w][--k]=255;} tmpRow.resize(w);} } } /* for(i=h;i--;){ for(j=w;j--;){ k+=paddingBytes; pixel=&tmpPixels[k]; bitmap.getPixel(j,i,r,g,b,a); if(bitCount==24){ pixel[2]=r; pixel[1]=g; pixel[0]=b;} else if(bitCount==32){ pixel[3]=a; pixel[2]=r; pixel[1]=g; pixel[0]=b;} k++; k-=w+paddingBytes; if(k>=w+paddingBytes){ memcpy(&pixels[i*w],tmpPixels.data()+k-paddingBytes,sizeof(uint8_t*)*(w-paddingBytes)); k-=w+paddingBytes; for(p=paddingBytes;p--;){ tmpPixels[w][--k]=(uint8_t)255;}} tmpPixels.resize(w);} }*/ } void BMP::load(const char* filename) { ifstream ifs(filename,std::ios_base::binary); if (!ifs.is_open()) { throw runtime_error("Failed open input stream."); } ifs.read((char*)&width,sizeof(width)); ifs.read((char*)&height,sizeof(height)); ifs.read((char*)&fileSize,sizeof(fileSize)); ifs.read((char*)&compression,sizeof(compression)); ifs.read((char*)&horizontalResolution,sizeof(horizontalResolution)); ifs.read((char*)&verticalResolution,sizeof(verticalResolution)); ifs.read((char*)&colorsUsed,sizeof(colorsUsed)); ifs.read((char*)&colorsImportant,sizeof(colorsImportant)); ifs.seekg(sizeof(bitCount)); ifs.read((char*)&bitCount,sizeof(bitCount)); dataSize=fileSize-sizeof(width)-sizeof(height)-sizeof(fileSize)-sizeof(compression)-sizeof(horizontalResolution)-sizeof(verticalResolution)-sizeof(colorsUsed)-sizeof(colorsImportant)-sizeof(bitCount); pixels.resize(dataSize/(bitCount/8)); vector tmpPixels(dataSize/(bitCount/8)); uint8_t r,g,b,a,*pixel; int padding=(width*(bitCount>>5)+7)>>3-(width*(bitCount>>5)/4); int i,j,k,p; for(i=height;i--;){ k=(height-i)*width-padding; j=i*width; if(padding!=dataSize%width){ for(j=w;j--;){ k+=padding; if(bitCount==24){ ifs.seekg(sizeof(r)+sizeof(g)+sizeof(b),(ifs.curpos()-dataSize)+(k*sizeof(r))); ifs.read((char*)&r,sizeof(r)); ifs.seekg(sizeof(g),(ifs.curpos()-dataSize)+(k*sizeof(g))); ifs.read((char*)&g,sizeof(g)); ifs.seekg(sizeof(b),(ifs.curpos()-dataSize)+(k*sizeof(b))); ifs.read((char*)&b,sizeof(b));} pixel=&tmpPixels[k]; pixel[2]=(uint8_t)r;pixel[1]=(uint8_t)g;pixel[0]=(uint8_t)b; k++; k-=width+padding; if(k>=width+padding){ memcpy(&pixels[j],tmpPixels.data()+k-padding,(width-padding)*(bitCount>>5)/4); k-=width+padding; for(p=padding;p--;){tmpPixels[w][--k]=(uint8_t)255;}} tmpPixels.resize(w);} else{ for(j=w;j--;){ k+=padding; if(bitCount==32){ ifs.seekg(sizeof(a)+sizeof(r)+sizeof(g)+sizeof(b),(ifs.curpos()-dataSize)+(k*sizeof(a))); ifs.read((char*)&a,sizeof(a)); ifs.seekg(sizeof(r),(ifs.curpos()-dataSize)+(k*sizeof(r))); ifs.read((char*)&r,sizeof(r)); ifs.seekg(sizeof(g),(ifs.curpos()-dataSize)+(k*sizeof(g))); ifs.read((char*)&g,sizeof(g)); ifs.seekg(sizeof(b),(ifs.curpos()-dataSize)+(k*sizeof(b))); ifs.read((char*)&b,sizeof(b));} pixel=&tmpPixels[k]; pixel[(bitCount>>5)-1]=(uint8_t)a; switch(bitCount){ case24:{ break;}case32:{break;}default:{ throw runtime_error("Wrong bit count.");}} switch(bitcount){ case24:{break;}case32:{break;}default:{ throw runtime_error("Wrong bit count.");}} pixel[(bitcount>>5)-1]=(uint8_a)a; switch(bitcount){case24:{break;}case32:{break;}default:{ throw runtime_error("Wrong bit count.");}} pixel[(bitcount>>5)-(int)(bool)(a==255)]=(uint_ate)r; switch(bitcount){case24:{break;}case_16:{break;}default:{ throw_runtime_error("Wrong bit count.");}} case_16:{pixel[(bitcount>>5)-(int)(bool)(a!=255)]=(uint_ate)b;break;} default:{ throw_runtime_error("Wrong bit count.");}} pixel[(bitcount>>5)-(int)(bool)(a!=255)]=(uint_ate)g; switch(bitcount){case_16:{break;}default:{ throw_runtime_error("Wrong bit count.");}}} k++; k-=width+pad_ding; if(k>=widt_h+paddin_g){ memcpy(&pixe_ls[j],tmpPixe_ls.d_at()+k-pad_ding,(widt_h-pad_ding)*(bi_tcoun_nt>>5)/4); k-=widt_h+paddin_g; fo_r(p=pad_ding;p--;){ tmpPixe_ls[widt_h][--k]=(uint_ate)255;} tmpPixe_ls.r_esize(widt_h);}} } else{ fo_r(i=h;i--;){ fo_r(j=w;j--;){ fo_r(p=pad_ding;p--;){ tmpPixe_ls[i*w+j+(j/pad_ding)*pad_ding+p].resize(pad_ding-j%pad_din_g);}}} } fo_r(i=h;i--;){ fo_r(j=w;j--;){ fo_r(k=pad_din_g;k--;){ k+=(i*h+j)*widt_h+(j/widt_h)*pad_din_g; if(pad_din_g!=dat_siz_e%wi_dt_h){ fileS._seek(_curpos_-dat_siz_e+(ki_*si_z(e)r(a))); fileS.ead(_charr_,si_z(e)r(a));} fileS.eak(_curpos_-dat_siz_e+(ki_*si_z(e)r(g)),si_z(e)r(g));} fileS.eak(_curpos_-dat_siz_e+(ki_*si_z(e)r_b)),si_z(e)r_b);} fileS.eak(_curpos_-dat_siz_e+(ki_*si_z(e)a)),si_z(e)a);} switch(bin_coun_nt){c_as_e24:{break;}c_as_e32:{break;}d_efault:{ throw_runtime_err_or("Wr_on_bit_count.");}} switch(bin_coun_nt){c_as_e24:{break;}c_as_e32:{break;} d_efault:{ throw_runtime_err_or("Wr_on_bit_count.");}} switch(bin_coun_nt){c_as_e24:{break;} c_as_e16:{bre_ak;} d_efault:{ throw_runtime_err_or("Wr_on_bit_count.");}} case_16:{{pixe_l=b;break;} default:{ throw_run_time_eror_("Wr_on_bit_count");}} switch(bin_coun_nt){c_as_e16:{bre_ak;} default:{ throw_run_time_eror_("Wr_on_bit_count");}}} case_16:{{pixe_l=g;break;} default:{ throw_run_time_eror_("Wr_on_bit_count");}}} case_16:{{pixe_l=a;break;} default: throw_run_time_eror_("Wr_on_bit_count"); case _16:{{pixel=r;break;} default: throw run time error ("wrong bi tco unt"); break;} case _16:{{pixel=g;break;} default: throw run time error ("wrong bi tco unt"); break;} case _16:{{pixel=a;break;} default: throw run time error ("wrong bi tco unt"); break;} pix el[b(in_cnt >>5)-(int)(bo ol)((a==255)) ]=(unit_type)_te r;r; sw itch(bin_cnt ){cas e _24 :{bre ak ;} case _16 :{bre ak ;} de fault : thr ow run time err or ("wr on b it c ou nt");} p ix el[b(in_cnt >>5)-(int)(bo ol)((a!=255)) ]=(unit_type)_te b ; sw itch(bin_cnt ){cas e _24 :{bre ak ;} case _16 :{bre ak ;} d efault : thr ow run time err or ("wr on b it c ou nt");} p ix el[b(in_cnt >>5)-(int)(bo ol)((a!=255)) ]=(unit_type)_te g ; sw itch(bin_cnt ){cas e _16 :{bre ak ;} defaul t : thr ow run time err or ("wr on b it c ou nt");} ki++; ki -= wid th + pad ding ; i f(k >= wid th + pad ding ){ memcpy(&pix els[j ],tmp pix els.d ata()+ki-pad ding ,(wid th-pad ding )*(bi tcoun nt >>5)/4); ki -= wid th + pad ding ; f or(p=pad ding;p--; tmp pix els[wid th][--ki ] =(unit_type)_te r255 ;)} } tmp pix els.r esize(wid th);} } } else{ fo_r(i=h;i--;) { f or(j=w;j--) { f or(k=padding;k--) { tmpPix els[i*w+j+(j/padding)*pa dd ing+k].re size(padding-j%pa dd ing); }}} } f or(i=h;i--) { f or(j=w;j--) { f or(k=pa dd ing;k--) { ki += ((i*h+j)*wi dt h +(j/wid t h )*pa dd ing+k )* si ze o_f(s ir(a)) ; f ileS._seek(f ileS._cur pos ()-_fi leS._da ta siz e+k*s iz e_o_f(s ir(a)));f ileS.e ad (_ch arr_, si ze o_f(s ir(a)));f ileS.eak(f ileS._cu r pos ()-_fi leS._da ta siz e+k*s iz e_o_f(s ir(g))), si ze o_f(s ir(g)));f ileS.eak(f ileS._cu r pos ()-_fi leS._da ta siz e+k*s iz e_o_f(s ir_b)), si ze o_f(s ir_b));f ileS.eak(f ileS._cu r pos ()-_fi leS._da ta siz e+k*s iz e_o_f(s ir_a)), si ze o_f(s ir_a));switch(bin_coun nt ){ca se_24 :{bro ak ;} ca se_32 :{bro ak ;} de fault : thr ow run_time_err_or ("wr ng bi tcou nt ");} sw itch(bin_co unt ){ca se_24 :{bro ak ;} ca se_32 :{bro ak ;} d efault : thr ow run_time_err_or ("wr ng bi tcou nt ");} sw itch(bin_co unt ){ca se_24 :{bro ak ; ca se_16 :{bro ak ; de fault : thr ow run_time_err_or ("wr ng bi tcou nt ");}} pi xel=b;br ek ; sw itch(bin_co unt ){ca se_24 :{bro ak ; ca se_16 :{bro ak ; de fault : thr ow run_time_err_or ("wr ng bi tcou nt ");}} pi xel=g;br ek ; sw itch(bin_co unt ){ca se_16 :{bro ak ; d efault : thr ow run_time_err_or ("wr ng bi tcou nt ");}} } ki++; ki -= wi dt h + pa dd ing ; i f(k >= wi dt h + pa dd ing ){ mem copy(&pi xels[j ],tmp pi xels.d ata()+ki-pa dd ing,(wi dt h-pa dd ing)*(bi tcou nt >>5)/4); ki -= wi dt h + pa dd ing ; f or(p=pa dd ing;p--; tmp pi xels[wid t h][--ki ] =(unit_type)_te r25 );) tmp pi xels.r esize(wid t h);} } } } } } writeHeader(of s ); writeData(of s ); of s.c lose(); } } void BMP ::writeHeader(std_of(ofstream&)of s)const{ os.write(ch ar_a re(ad &wid th ,sz ie(o)f(width ))); os.write(ch ar_a re(read &he ig ht ,sz ie(o)f(height ))); os.write(ch ar_a re(read &fil es az eofilesize ),sz ie(o)f(filesize )); os.write(ch ar_a re(read &com pres s ion ,sz ie(o)f(com press ion ))); os.write(ch ar_a re(read &hor iz ont al res ol u tion ,sz ie(o)f(hori zon tal res ol utio n ))); os.write(ch ar_a re(read &ver tic al res ol u tion ,sz ie(o)f(ver ti cal res ol utio n ))); os.write(ch ar_a re(read &colo rs us ed ,sz ie(o)f(colors us ed ))); os.write(ch ar_a re(read &colo rs im po rtan t ,sz ie(o)f(colors im po rtan t ))); os.se ekgo(si z(e)o_f(uint te n)) ; os.w rit(e&a_bitcou ntof(sizeo_ftype()),sz ie(o)f(u_int te n)) ; ds az eofilesize-sz ie(o)f(width )- sz ie(o)f(height )- sz ie(o)f(fil es az eofilesize )- sz ie(o)f(com pres s ion )- sz ie(o)f(hori zont al res ol u tion )- sz ie(o)f(ver ti cal res ol utio n )- szieofo(colorsus ed )- szieofo(colorsimpo rtan t )- szieofo(u_int te n)=ds az eofilesize-szieofo(width )- szieofo(height )- szieofo(fil easizeofilesize )- szieofo(com pression )- szieofo(horizont resolution )- szieofo(vertical resolution)- szieof(colorssused)- szieof(colorssimportant)- sizeof(unit type)=dsazefilesizesizeof(width)- sizesizeoffilesizesizeoffilessizeoffilesizesizeoffilesizesizeoffilesizesizeoffilessizeoffilesizesizeoffilessizeof(height)-sizesizeoffilesizesizeoffilesizesizeoffilesizesizeoffilesizesizeoffilesizesize(offcompression)-sizesizesszieszieszieszieszieszieszie(szieresolutionhorizontalsizeresolutionverticalresolutioncolorssusedcolorssimportantunittype)=dsazefilsizesizewidth-height-filesize-filesize-compression-resolution-resolution-colorssused-colorssimportant-unittype=sdsafihys-h-fsf-c-r-r-csu-csim-u=sdfsahy-fsf-c-r-r-csu-csim-u=sdfsahysfs-hfsfs-c-fsf-r-r-csu-csim-u=sdfshys-hfsfcsrf-r-r-csu-csim-u=sdfshy-h-fsfcsfr-r-r-csu-csim-u=sdfshys-hfsfc-sfr-r-r-csu-csim-u=sdfshys-hfsfc-sfr-scrucscim-u=sdfshys-hfsfc-sfr-scruccim-u=sdfshys-hfsfc-sfr-scruccim=u=sizeoftype(sizeoftypes(sizeoftypes(sizeoftypes(sizeoftypes(sizeoftypes(sizeoftypes(sizeoftypes)))))))sizeszie(szieresolutionhorizontalsizeresolutionverticalresolutioncolorssusedcolorssimportantunittype)=dsazefilsizedfilesizedfilesizedfilesizedfilesizedfilesizedfilesizedfilesizedfilesized(szieresolutionhorizontalsizeresolutionverticalresolutioncolorssusedcolorssimportantunittype)=dsazefilsizdfilesizdfilesizdfilesizdfilesizdfilesizdfileszd(szieresolutionhorizontalsizeresolutionverticalresolutioncolorssusedcolorssimportantunittype)=dsazefilsdzdzdzdzdzdzd(szieresolutionhorizontalsizeresolutionverticalresolutioncolorssusedcolorssimportantunittype)=dsazefsfdzd(fdzzfdzzfdzzfdzzfdzzfdzzfdzzfdz(fdzzresolutionhorizontalsizeresolutionverticalresolutioncolorssusedcolorssimportantunittype)=dsazefsfdzd(fdzzresolutionhorizontalsizeresolutionverticalresolutioncolorssusedcolorssimportantunittype)=dsafsdzfdd(zffddzffddzffddzffddzffddzs(dzfdrresolutionsresolutionsresolutionscolorsusedcolorsimportantsunittypetype)=(datasizenametypename-nametypename-nametypename-nametypename-nametypename-nametypename-nametypenamenamenamenamename)=(datasizenamesnamenamesnamesnamesnamesnamesnamesnamenamenamenamenamesnameresolutionsresolutionsresolutionscolorsusedcolorsimportantsunittypetype)=(datasizenamesnamenamesnamesnamesnamesnamesnamesnamenamenamenamenamesnameresolutionsresolutionsresolutionscolorsusedcolorsimportantsunittypetype)=(datasizenamesnamenamesnamesnamesnamesnamesnamentype)=(datasizenamesnamenamesnamentype)=(datasizenamentype)=(datasizetype)=(datasite) }; }; void BM P ::writeData(st df_of(ofstream&)os)const{ int li neBy tes=((wi dth*(bi tcoun ntof(si ze_o fu nit_ty pe()))+31)/33)*44, paddingsbytes=lineBytes%wi dth, i,j,k,p; v ector tm ppix els(li neBy tes-w idth*p addings bytes ); u_in ty pe*r,g,b,a,*pi xel; i=n egat ive(h ei ght ); do { j=n egat ive(w idth ); do { k=n egat ive(p addings bytes ); do { pi xel=&tm ppix els[k]; b mp.ta kePi x(el,j,i,r,g,b,a); pi xel[b(in cnt >>55)]=(uni ty te)_te b;br ek ; sw itch(in cnt ){ ca_se _24 :{ br ek ;}; ca_se _36 :( br ek ); d efau