Overview of Volleyball 2. Bundesliga Pro Women Germany
The Volleyball 2. Bundesliga Pro Women in Germany is a highly competitive league that showcases some of the best talents in women's volleyball. This league serves as a stepping stone for many athletes aiming to reach the top tiers of professional volleyball. With teams competing fiercely, each match is not just a game but a display of skill, strategy, and passion.
Fans and enthusiasts can look forward to fresh matches every day, providing continuous excitement and engagement throughout the season. The dynamic nature of this league ensures that no two games are alike, with each team bringing its unique style and strategy to the court.
Daily Match Updates and Highlights
Keeping up with the daily matches in the Volleyball 2. Bundesliga Pro Women is essential for fans who want to stay informed about their favorite teams and players. Daily updates include detailed match reports, player statistics, and highlights that capture the essence of each game.
- Match Reports: Comprehensive analysis of each game, including key plays, standout performances, and tactical insights.
- Player Statistics: In-depth stats that track individual performances, helping fans understand who is leading in various categories.
- Highlights: Exciting video snippets showcasing the best moments from each match.
Betting Predictions by Experts
For those interested in betting on volleyball matches, expert predictions provide valuable insights into potential outcomes. These predictions are based on thorough analysis of team performance, player form, head-to-head records, and other relevant factors.
- Team Performance Analysis: Evaluating recent form and historical performance to gauge a team's likelihood of winning.
- Player Form: Assessing key players' current form and impact on their team's success.
- Head-to-Head Records: Considering past encounters between teams to predict future outcomes.
The Thrill of Competition
The Volleyball 2. Bundesliga Pro Women Germany is not just about winning; it's about the thrill of competition and the spirit of sportsmanship. Each match is a testament to the hard work and dedication of the athletes who strive to excel in their sport.
- Sportsmanship: Teams demonstrate respect for opponents and officials, embodying the true spirit of volleyball.
- Dedication: Players train rigorously to improve their skills and contribute to their team's success.
- Innovation: Coaches employ innovative strategies to outmaneuver opponents and secure victories.
Fan Engagement and Community
ZackZhangC/NeuralNetwork<|file_sep|RFIDReader.h
#include "stdafx.h"
#include "RFIDReader.h"
// RFIDReader.cpp: implementation of the CReadRFID class.
//
//////////////////////////////////////////////////////////////////////
CReadRFID::CReadRFID()
{
m_hComm = NULL;
}
CReadRFID::~CReadRFID()
{
if (m_hComm)
CloseHandle(m_hComm);
}
BOOL CReadRFID::InitPort(LPCTSTR lpComName)
{
m_hComm = CreateFile(lpComName,
GENERIC_READ | GENERIC_WRITE,
0,
NULL,
OPEN_EXISTING,
FILE_FLAG_OVERLAPPED,
NULL);
if (m_hComm == INVALID_HANDLE_VALUE)
return FALSE;
COMMTIMEOUTS commTimeouts;
GetCommTimeouts(m_hComm,&commTimeouts);
commTimeouts.ReadIntervalTimeout = MAXDWORD;
commTimeouts.ReadTotalTimeoutMultiplier = MAXDWORD;
commTimeouts.ReadTotalTimeoutConstant = MAXDWORD;
SetCommTimeouts(m_hComm,&commTimeouts);
COMMTIMEOUTS commTimeOuts;
GetCommTimeouts(m_hComm,&commTimeOuts);
DWORD dwErrorFlags;
PurgeComm(m_hComm,PURGE_TXABORT | PURGE_RXABORT | PURGE_TXCLEAR | PURGE_RXCLEAR);
dwErrorFlags = m_dwErrorFlags;
if (!SetupComm(m_hComm,m_dwWriteBufferSize,m_dwReadBufferSize))
return FALSE;
if (!ClearCommError(m_hComm,&dwErrorFlags,NULL))
return FALSE;
dwErrorFlags |= m_dwNewErrors;
SetCommMask(m_hComm,dwErrorFlags);
BOOL bSuccess=SetComState();
if(!bSuccess) return FALSE;
return TRUE;
}
BOOL CReadRFID::SetComState(void)
{
COMMTIMEOUTS commTimeOuts;
GetCommTimeouts(m_hComm,&commTimeOuts);
Dcb dcb;
GetCommState(m_hComHdl,&dcb);
dcb.DCBlength=sizeof(DCB);
dcb.BaudRate=CBR_9600; //波特率为9600bps
dcb.ByteSize=8; //每个字节有8位
dcb.Parity=NOPARITY; //无奇偶校验位
dcb.StopBits=ONESTOPBIT; //一个停止位
SetDTR(TRUE); //设置DTR脚为高电平
SetDCB(dcb);
BOOL bSuccess=SetComMask();
if(!bSuccess) return FALSE;
bSuccess=SetComTimeOut();
if(!bSuccess) return FALSE;
return TRUE;
}
BOOL CReadRFID::SetComMask(void)
{
DWORD dwEventMask=EV_ERR|EV_RING|EV_CTS|EV_DSR|EV_RXCHAR|EV_TXEMPTY;//定义事件掩码
SetCommMask(m_hComHdl,dwEventMask); //设置通信事件掩码
return TRUE;
}
BOOL CReadRFID::SetComTimeOut(void)
{
COMMTIMEOUTS CommTimeOuts; //创建一个COMMTIMEOUTS结构体对象
GetDefaultCOMMTIMEOUTS(& CommTimeOuts); //获取默认的超时参数
//读超时参数配置，如果读取数据超过该时间则认为读取失败，但是不会中断读操作。
//此处设置为最大值，表示无限等待。也可以设置成其他时间。
//单位是毫秒。
//注意：在接收数据时，由于数据的长度不定，所以应该选择一种合适的方式来判断是否接收完毕。
//比如：设置一个计数器，每次接收到一些数据就累加计数器值。当达到某个阈值时，就认为接收完毕。
memset(& CommTimeOuts,' ',sizeof(COMMTIMEOUTS));
if( CommTimeOuts.ReadIntervalTimeout!=COMM_INFINITE )
CommTimeOuts.ReadIntervalTimeout=MAXDWORD;
else
CommTimeOuts.ReadIntervalTimeout=-1;
if( CommTimeOuts.ReadTotalTimeoutMultiplier!=0 )
CommTimeOuts.ReadTotalTimeoutMultiplier=MAXDWORD;
else
CommTimeOuts.ReadTotalTimeoutMultiplier=-1;
if( CommTimeOuts.ReadTotalTimeoutConstant!=0 )
CommTimeOuts.ReadTotalTimeoutConstant=MAXDWORD;
else
CommTimeOuts.ReadTotalTimeoutConstant=-1;
memset(& CommTimeOuts,' ',sizeof(COMMTIMEOUTS));
if( CommTimeOuts.WriteTotalWaitingConstant!=0 )
CommTimeOuts.WriteTotalWaitingConstant=MAXDWORD;
else
CommTimeOuts.WriteTotalWaitingConstant=-1;
SetComm timeouts (m_comHdl,& CommTimouts);
return TRUE ;
}
BOOL CReadRFID::StartListen()
{
DWORD dwEvtMask=m_dwEvtsToWatch;//定义事件掩码变量
HANDLE hEvents[4]={m_ReadOverlapped.hEvent,m_WriteOverlapped.hEvent,m_ErrorOverlapped.hEvent,m_StatusOverlapped.hEvent}; //创建事件数组
while(TRUE)//循环监听端口状态
{
HANDLE hWaitObj[4];
hWaitObj[0]=m_ReadOverlapped.hEvent;//将各个事件放入数组中
hWaitObj[1]=m_WriteOverlapped.hEvent;//以便后面统一处理
hWaitObj[2]=m_ErrorOverlapped.hEvent;//通过调用函数GetWaitObject来获取当前激活的事件句柄
HANDLE hEvtAvail = GetWaitObject(hEvents,dwEvtMask);//获取激活的事件句柄并赋值给变量hEvtAvail
int iPos = FindPos(hEvents,hEvtAvail);//调用函数FindPos来查找出激活的事件在数组中的位置，并返回该位置索引值赋给变量iPos
switch(iPos)//对于不同类型的激活事件进行不同处理
case READ_EVENT://如果是读取数据完成事件则执行下列代码段
break;//这里需要实现对读取到的数据进行处理工作，具体实现方法参考下面例程中GetChar函数和OnRecvData函数。
case WRITE_EVENT://如果是写入完成事件则执行下列代码段
break;//这里需要实现对写入成功后所需进行的操作。
case ERROR_EVENT://如果是错误发生事件则执行下列代码段
break;//这里需要实现对错误信息进行处理工作。
case STATUS_EVENT://如果是状态改变事件则执行下列代码段
break;//这里需要实现对状态改变后所需进行的操作。
default:
break;
}
return TRUE ;
}
int CReadRFID::FindPos(HANDLE * hEvents,HANDLE hEvtAvail)
{
for(int i=0;i<4;i++)
if(hEvents[i]==hEvtAvail) return i ;
return -1 ;
}
HANDLE CReadRFID::GetWaitObject(HANDLE * hEvents,DWORD dwEvtMask)
{
return WaitForMultipleObjects(4,hEvents,FALSE,-1)&FIND_WAIT_OBJECT_0 ? WAIT_OBJECT_0+FindPos(hEvents,WAIT_OBJECT_0):WAIT_TIMEOUT ;
}
void CReadRFID::OnRecvData(BYTE * pData,DWORD nLen)
{
if(pData==NULL||nLen==0) return ;
int nSum=CalcCheckSum(pData,nLen-1);//计算校验和并将结果保存在变量nSum中
if(nSum==(pData[nLen-1]&0xff))//如果校验和与接收到数据最后一个字节相等，则说明数据正确
{
char szTemp[1024]="";
for(int i=0;im_comHdl,(LPVOID)(abySendBuf),nParaslen+5,&osWrite,this->lpfnWriteCallback );
switch(nRetCode){ case ERROR_SUCCESS: break ; case ERROR_IO_PENDING: while(true){ Sleep(10); GetOverlappedResult(this->m_comHdl,&osWrite,&dwWrittenBytesSentCountHighPart,true); GetLastError(); switch(dwErrCode){ case ERROR_SUCCESS: break ; case ERROR_OPERATION_ABORTED: break ; default: break;} } break ; default : break;}
memset((LPVOID)(this->buffer),' ',sizeof(this->buffer)); this->bytesreadedfromcomport=this->bufferlength=this->dwBytesReturned=this->byteswrittentocomport=this->dwNumberOfBytesTransferred=this->dwNumberOfErrors=this->dwModemStatus=this->dwLineStatus=this->dwErrorFlags=this->dwcCharsInRxQueue=this->dwcCharsInTxQueue=this->dwcLongestLine=samplenumberoferrorsinqueue=this->dwcModemStatusChanges=samplenumberofstatuschangesinqueue='x00'; this->_clearerrorflags(); memset((LPVOID)this->_eventlist,'x00',sizeof(this->_eventlist)); memset((LPVOID)this->_masklist,'x00',sizeof(this->_masklist)); this->_setupdefaulttimeouts(); this->_setupdefaultbuffers(); this->_setdefaultstate(); this->_setdefaultevents(); memset((LPVOID)this->_overlaps,' ',sizeof(this->_overlaps)); memset((LPVOID)this->_comstat,'x00',sizeof(this->_comstat)); DWORD dwevtmask=(this->_getevents()&~this->_geteventsmask()); COMSTAT comstat={}; ClearAllBuffers(this.m_comHdl); ClearAllBuffers(this.m_comHdl); FlushFileBuffers(this.m_comHdl); ClearAllBuffers(this.m_comHdl); ClearAllBuffers(this.m_comHdl); FlushFileBuffers(this.m_comHdl); ClearAllBuffers(this.m_comHdl); ClearAllBuffers(this.m_comHdl);
FlushFileBuffers(this.m_comHdl);
while(true){
Sleep(10);
if(GetQueuedCompletionStatusEx(NULL,this._overlaps,this._countof(_overlaps),&this._overlaps,this._countof(_overlaps),INFINITE,FALSE,NULL)){
ClearAllBuffers(comhandle);
FlushFileBuffers(comhandle);
ClearAllBuffer(comhandle);
ClearAllBuffer(comhandle);}
if(GetQueuedCompletionStatusEx(NULL,this._overlaps,this._countof(_overlaps),&this._overlaps,this._countof(_overlaps),INFINITE,FALSE,NULL)){ continue;}
break;}
ResetEvent(readeventhandle());
ResetEvent(writeeventhandle());
ResetEvent(erroreventhandle());
ResetEvent(statuseventhandle());
FlushFileBuffers(comhandle);
ClearAllBuffer(comhandle);
ClearAllBuffer(comhandle);
FlushFileBuffer(comhandle);
ClearAllBuffer(comhandle);
FlushFileBuffer(comhandle);
CloseHandle(readeventobject());
CloseHandle(writeeventobject());
CloseHandle(erroreventobject());
CloseHandle(statuseventobject());
return true;}
bool ReadRfidThread(LPVOID lpParameter)
{
CSerialPort* pSerialPort=(CSerialPort*)lpParameter;if(!pSerialPort||!pSerialPort.IsOpen()) { delete pSerialPort;pSerialPort=NULL;} bool bContinue=true;bContinue=pSerialPort.StartListen();delete pSerialPort;pSerialPort=NULL;if(bContinue){ CloseHandle(threadHandle);} threadHandle=NULL;bContinue=false;} void ThreadProc(LPVOID lpParameter){ ReadRfidThread(lpParameter);}
void StartThread()
{
threadHandle=(HANDLE)_beginthread(ThreadProc,NULL,(void*)this);} void StopThread()
{
if(threadHandle){
TerminateThread(threadHandle,-1);}
<|file_sep|RFIDSensor.cpp
#include "stdafx.h"
#include "rfid_sensorrfid_sensorrfid_sensorDlg.h"
#include "rfid_sensorrfid_sensorDlg.cpp"
void CRfidSensorDlg::OnBnClickedButtonConnect()
{
UpdateData(TRUE);
CString strText,strResult,strTmp,strIP,strPassword,strCommand,CmdType,CmdLength,CmdContent,CmdContentLength,CmdTail,CmdTailLength,szResult;
UINT port=_ttoi(portEdit.GetWindowText());
BYTE cmdType=_ttoi(cmdTypeEdit.GetWindowText());
BYTE cmdLength=_ttoi(cmdLengthEdit.GetWindowText());
BYTE cmdContent[_ttoi(cmdContentEdit.GetWindowText())];
BYTE cmdTail[_ttoi(cmdTailEdit.GetWindowText())];
for(int i = _ttoi(cmdContentBeginEdit.GetWindowText());i<_ttoi(cmdContentEndEdit.GetWindowText());i++)
cmdContent[i-_ttoi(cmdContentBeginEdit.GetWindowText())]=(BYTE)_ttoi(sCommandList.GetItemText(i,1));
for(int j = _ttoi(cmdTailBeginEdit.GetWindowText());j<_ttoi(cmdTailEndEdit.GetWindowText());j++)
cmdTail[j-_ttoi(cmdTailBeginEdit.GetWindowText())]=(BYTE)_ttoi(sCommandList.GetItemText(j+cmdLength,_ttoi(tailCol)));
strIP=strIPAddressCtrl.GetString();
strPassword=strPasswordCtrl.GetString();
m_RfidSensor.InitRfidSensor(strIP,port,strPassword,"admin");
sCommandList.DeleteAllItems();
strTmp.Format("%d",cmdType);
sCommandList.InsertItem(sCommandList.GetItemCount(),strTmp);
strTmp.Format("%d",cmdLength);
sCommandList.SetItemText(sCommandList.GetItemCount()-1,tailCol,strTmp);
for(int k = _ttoi(cmdContentBeginEdit.GetWindowText());k<_ttoi(cmdContentEndEdit.GetWindowText());k++)
strTmp.Format("%02X",cmdContent[k-_ttoi(cmdContentBeginEdit.GetWindowText())]);
sCommandList.SetItemText(sCommandList.GetItemCount()-1,contentCol,strTmp.Trim());
for(int l = _ttoi(cmdTailBeginEdit.GetWindowText());l<_ttoi(cmdTailEndEdit.GetWindowText());l++)
strTmp.Format("%02X",cmdTail[l-_ttoi(cmdTailBeginEdit.GetWindowText())]);
sCommandList.SetItemText(sCommandList.GetItemCount()-1,tailCol+l-_ttoi(cmdTailBeginEdit.GetText()),strTmp.Trim());
sResultCtrl.Clear();
m_RfidSensor.StartListen();
m_bConnected=true;
}
void CRfidSensorDlg::OnBnClickedButtonDisconnect()
{
UpdateData(TRUE);
m_RfidSensor.StopListen();
m_bConnected=false;
}
void CRfidSensorDlg::OnBnClickedButtonTestConnect()
{
UpdateData(TRUE);
CString strIP=strIPAddressCtrl.GetString();
CString strPassword=strPasswordCtrl.GetString();
UINT port=_tstoi(portCtrl.GetString());
try
{
CString strResult;
m_RfidSensor.InitRfidSensor(strIP,port,strPassword,"admin");
strResult="测试连接成功！";
MessageBox(strResult,"提示",MB_OK);
UpdateData(FALSE);
m_bConnected=true;
OnBnClickedButtonConnect();
OnBnClickedButtonDisconnect();
UpdateData(FALSE);
delete &m_RfidSensor;
catch(CException* e)
MessageBox("测试连接失败！","提示",MB_OK);
e;
}
UpdateData(FALSE);
}
void CRfidSensorDlg::OnBnClickedButtonTestCommunicate()
{
UpdateData(TRUE);
try
CString strIP=strIPAddressCtrl.GetString();
CString strPassword=strPasswordCtrl.GetString();
UINT port=_stoul(portCtrl.GetString());
CString strTagNum="000000000000000000";
CString strTagNumHex="01";
char tagNumHex[]={"01"};
tagNumHex[sizeof(tagNumHex)-1]='x00';
int tagNumHexSize=strlen(tagNumHex)/sizeof(char)+strlen(tagNumHex)%sizeof(char);
byte tagNumber[]={tagNumHex[tagNumHexSize-3],tagNumHex[tagNumHexSize-2],tagNumHex[tagNumHexSize-1]};
byte result[]={};
int resultSize=m_RfidSensor.SendAndReceive(CMD_READ_TAG,(byte*)strTagNum.GetLength(),strTagNum.GetLength(),result,sizeof(result));
byte tag[]={"01"};
byte rssi[]={};
int rssiSize=m_RfidSensor.SendAndReceive(CMD_READ_RSSI,(byte*)tag,sizeof(tag),(byte*)&rssi,sizeof(rssi));
rssi[rssiSize]='x00';
result[resultSize]='x00';
MessageBox("测试通信成功！","提示",MB_OK);
UpdateData(FALSE);
catch(CException* e)
MessageBox("测试通信失败！","提示",MB_OK);
e;
UpdateData(FALSE);
}
void CRfidSensorDlg::OnEnChangeEditcharcontentbeginedit()
{
UpdateData(TRUE);
int contentBegin=_stoul(contentBeginCtrl.GetString());
contentEndCtrl.SetLimitValue(contentBegin+_stoul(contentEndMinValue)-_stoul(contentMinValue));
contentEndCtrl.SetLimitMax(_stoul(contentMaxValue));
contentEndCtrl.UpdateWindow();
}
void CRfidSensorDlg::OnEnChangeEditcharcontentendedit()
{
UpdateData(TRUE);
int contentEnd=_stoul(contentEndCtrl.GetString());
contentBeginCtrl.SetLimitValue(_stoul(contentMinValue));
contentBeginCtrl.SetLimitMax(contentEnd-_stoul(contentEndMinValue)+_stoul(contentMinValue));
contentBeginCtrl.UpdateWindow();
}
void CRfidSensorDlg::OnEnChangeEditchartaillengthedit()
{
UpdateData(TRUE);
tailCol=_stoul(tailColEditText.GetString());
tailColEditText.SetLimitMax(tailCol+_stoul(tailColEditText.MinValue)-_stoul(tailColEditText.MaxValue));
tailColEditText.UpdateWindow();
}
void CRfidSensorDlg::OnEnChangeEditchartailedit()
{
UpdateData(TRUE);
int tail=_stoul(taileditctrl.GetString());
taileditctrl.SetLimitMax(tail+_stoul(taileditctrl.MinValue)-_stoul(taileditctrl.MaxValue));
taileditctrl.UpdateWindow();
}
<|repo_name|>ZackZhangC/NeuralNetwork<|file_sep|RFIDSensorView.cpp
#include "stdafx.h"
#include "rfid_sensorrfid_sensorView.h"
#include "rfid_sensorrfid_sensorDoc.h"
IMPLEMENT_DYNCREATE(CRfidSensorView, CFormView)
CRfiDSensorView::
CRfiDSensorView() : CFormView(IDD_RFIDSensor_FORM)
{}
CRfiDSensorView::
~CRfiDSensorView()
{}
BEGIN_MESSAGE_MAP(CRfiDSensorView,CFormView)
ON_WM_PAINT()
END_MESSAGE_MAP()
#ifdef _DEBUG
#define new DEBUG_NEW
#endif
CRfiDSensorView::
DoDataExchange(CDataExchange* pDX)
{
CFormView::
DoDataExchange(pDX);
}
BOOL CRfiDSensorView::
PreCreateWindow(CREATESTRUCT&
cs)
{
return CFormView::
PreCreateWindow(cs);
}
void CRfiDSensorView::
OnInitialUpdate()
{
CFormView::
OnInitialUpdate();
}
void CRfiDSensorView::
OnDraw(CDC*
dc)
{
}
UINT CALLBACK Rfidsensordoc_ReadThread(LPVOID lpParamter)
{
CRfidsensordoc*
doc=(CRfidsensordoc*)(lpParamter);
while(doc->
GetDocument()->IsKindOf(RUNTIME_CLASS(
CRfidsensordoc)))
doc->
GetDocument()->AddToLog(doc->
GetDocument()->GetString(IDS_LOG_CONNECTING));
doc->
GetDocument()->AddToLog(doc->
GetDocument()->GetString(IDS_LOG_CONNECT_SUCCESS));
doc->
GetDocument()->AddToLog(doc->
GetDocument()->GetString(IDS_LOG_START_LISTEN));
doc->
GetDocument()->AddToLog(doc->
GetDocument()->GetString(IDS_LOG_STOP_LISTEN));
doc->
GetDocument()->AddToLog(doc->
GetDocument()->GetString(IDS_LOG_DISCONNECTED));
doc->
GetDocument()->StopListening();
}
UINT CALLBACK Rfidsensordoc_ListenThread(LPVOID lpParamter)
{
CRfidsensordoc*
doc=(CRfidsensordoc*)(lpParamter);
while(doc->
GetDocument()->
IsKindOf(RUNTIME_CLASS(
CRfidsensordoc)))
doc-
>
<|repo_name|>jiayuanxiang/SMWPRNet<|file_sep|RFMSE Loss Function Visualization.ipynb
<|file_sep|RFMSE Loss Function Visualization.html
| mathbf{x}_i^{(k)} |_{infty}big)^{frac{q}{q-p}} right).
$$
This function can be used as an alternative loss function when training neural networks.
The $q$ norm has an interpretation as follows:
Suppose we have an input vector $mathbf{x}$ which has been normalized so that $|mathbf{x}|=q$ (for example $mathbf{x}$ could be a vector representing a color image which has been normalized so that its pixels sum up to $q^N$, where $N$ is number of pixels). Now suppose we want our model $y=f(mathbf{x})$ output values which are approximately equal across all dimensions (e.g., for classification problems where there are multiple classes). Then we can define our loss function as:
$$
L(mathbf{x}, y)= | f(mathbf{x}) - y |_q^q.
$$
When $q=infty$, then we get:
$$
L(mathbf{x}, y)= max_i left(| f_i(mathbf{x}) - y_i |right)^q.
$$
Note that when $y$ represents one-hot encoding labels then $y_i=pm q$. So we have:
$$
L(mathbf{x}, y)= max_i left(| f_i(mathbf{x}) mp q |right)^q.
$$
This means that we're looking at how far away our model outputs are from being exactly correct for any particular class.
## Generalized Kullback-Leibler Divergence Loss Function ##
The generalized Kullback-Leibler divergence loss function is defined as follows:
$$
L(P,Q)=sum_{i,j} P_{ij} log{frac{P_{ij}}{Q_{ij}}} + (P_{ij}-Q_{ij}),
$$
where $P,Q$ are probability distributions over some set.
This function can be used as an alternative loss function when training neural networks.
### Interpretation ###
The generalized Kullback-Leibler divergence measures how different two probability distributions are from each other.
### Example ###
Suppose we have two probability distributions over three classes:
$$
P=begin{pmatrix} .25 & .25 & .5 \ .5 & .25 & .25 \ .25 & .5 & .25 end{pmatrix},
Q=begin{pmatrix} .33 & .33 & .34 \ .33 & .33 & .34 \ .34 & .34 & .
<|repo_name|>manuelfloresgarcia/REST-API-with-Django-and-Django-Rest-Framework-master<|file_sep
