def _take_items_from_list_and_put_them_into_string(self, list):
    string = ''
    for element in list:
        string += element + ','
    if len(string) > 0 and string[-1] == ',':
        string = string[0:-1]
    return string

class Timer extends React.Component{
    state ={
        time: 10
    };
    setInvt = () =>{
        let t = this.state.time
        if(t<=1){
            clearInterval(this.invertal)
        }
        this.setState({time: t-1})
    }
    componentDidMount(){
        this.invertal = setInterval(this.setInvt, 1000)
    }

    render(){
        return (<label>{this.state.time}</label>)
    }
}

export {Timer}

    foreach ($desired_components as $name => $junk) {
      list($component_value, $component_comments) = self::unpackPair($desired_components[$name]);
      $desired_components[$name] = self::packPair(round($component_value, 2), $component_comments);
    }

/**
 * Creates hash of client/customer password
 * @param string $password The actual password
 * @return string MD5 hash of password with salt
 */
public static function hashPassword($password)
{
	return md5($password . $password. 'SOME-SECRET-STRING' . $password);
}

// enum - full enumeration of knapsack solutions
// (C) Joshua Knowles

#include <stdio.h>
#include <stdlib.h>
#include <math.h>
#include <stdbool.h>

FILE *fp;  // file pointer for reading the input files
int Capacity;     // capacity of the knapsack (total weight that can be stored)
int Nitems;    // number of items available
int *item_weights;  // vector of item weights
int *item_values;  // vector of item profits or values
int *temp_indexes;  // list of temporary item indexes for sorting items by value/weight
int QUIET=0; // this can be set to 1 to suppress output

extern void read_knapsack_instance(char *filename);
extern void print_instance();
extern void sort_by_ratio();
extern int check_evaluate_and_print_sol(int *sol,  int *total_value, int *total_weight);
void enumerate();
int next_binary(int *str, int Nitems);

int main(int argc, char *argv[])
{
  read_knapsack_instance(argv[1]);
  print_instance();
  enumerate();
  return(0);
}

void enumerate()
{
  // Do an exhaustive search (aka enumeration) of all possible ways to pack
  // the knapsack.
  // This is achieved by creating every binary solution vector of length Nitems.
  // For each solution vector, its value and weight is calculated.


  int i;  // item index
  int solution[Nitems+1];   // (binary) solution vector representing items packed
  int best_solution[Nitems+1];  // (binary) solution vector for best solution found
  int best_value; // total value packed in the best solution
  double j=0;
  int total_value, total_weight; // total value and total weight of current knapsack solution
  int infeasible;  // 0 means feasible; -1 means infeasible (violates the capacity constraint)

  // set the knapsack initially empty
  for(i=1;i<=Nitems;i++)
    {
      solution[i]=0;
    }
  QUIET=1;
  best_value=0;

 while(!(next_binary(&solution[1], Nitems)))
    {

      /* ADD CODE IN HERE TO KEEP TRACK OF FRACTION OF ENUMERATION DONE */

          // calculates the value and weight and feasibility:
      infeasible=check_evaluate_and_print_sol(solution, &total_value, &total_weight);  
      /* ADD CODE IN HERE TO KEEP TRACK OF BEST SOLUTION FOUND*/

    }
 /* ADD CODE TO PRINT OUT BEST SOLUTION */

}


int next_binary(int *str, int Nitems)
{
  // Called with a binary string of length Nitems, this 
  // function adds "1" to the string, e.g. 0001 would turn to 0010.
  // If the string overflows, then the function returns 1, else it returns 0.
  int i=Nitems-1;
  while(i>=0)
    {
      if(str[i]==1)
	{
	  str[i]=0;
	  i--;
	}
      else
	{
	  str[i]=1;
	  break;
	}
    }
  if(i==-1)
    {
      return(1);
    }
  else
    {
      return(0);
    }
}

const setFormFlag(state){
    state.formFlag ? state.formFlag = false : state.formFlag = true;
}

try {
    synchronized(this) {
        Object obj = null;

        if (obj.hashCode() == -1) {
            obj = new Object();
        }
    }
} catch (Throwable t) {
    throw t;
} finally {
    try {
        synchronized(this) {
            Object obj = null;

            if (obj.hashCode() == -1) {
                obj = new Object();
            }
        }
    } catch (Throwable t) {
        throw t;
    } finally {
        try {
            synchronized(this) {
                Object obj = null;

                if (obj.hashCode() == -1) {
                    obj = new Object();
                }
            }
        } catch (Throwable t) {
            throw t;
        } finally {
            System.exit(1);
        }
    }
}

        protected override void OnStartup(StartupEventArgs e)
        {
            Current.DispatcherUnhandledException += ApplicationUnhandledException;

            base.OnStartup(e);

#if (DEBUG)
            RunInDebugMode(e.Args);
#else
            RunInReleaseMode(e.Args);
#endif
        }

#endregion

        private static void RunInReleaseMode(string[] args)
        {
            AppDomain.CurrentDomain.UnhandledException += AppDomainUnhandledException;

            try
            {
                SplashScreen screen = new SplashScreen(@"Images\splashscreen.png");
                screen.Show(true, true);

                RunInDebugMode(args);
            }
            catch (Exception ex)
            {
                HandleException(ex);
            }
        }

        private static void RunInDebugMode(string[] args)
        {
            var bootstrapper = new Bootstrapper();
            bootstrapper.Run();
        }

<?php

class CasinoCode
{
    CONST POST = 'POST';
    CONST GET = 'GET';
    
    $data = $this->callAPI('/hidden', [], self::POST);

public class CustomBoolean {

    private Container<java.lang.Boolean> booleanContainer;

    public CustomBoolean(Container<Boolean> booleanContainer) {
        CustomBoolean custom_boolean = getThis();
        custom_boolean.booleanContainer = booleanContainer;
    }

    private <T extends Object> T getThis() {
        return (T) (Object) (T) this;
    }

    public Container<Boolean> getBooleanContainer() {
        return booleanContainer;
    }

    public static CustomBoolean create(Boolean value) {
        return new CustomBoolean(Container.builder().setValue(true).build());
    }

    public static void main(String[] args) {
        System.out.println(CustomBoolean.create(Boolean.TRUE).getBooleanContainer().getObject());
    }

    public static class Container<T extends Object> {

        private T object = null;

        private Container(T object) {
            Container<T> _this = getThis();
            _this.object = (T) (Object) object;
        }

        private <T extends Object> T getThis() {
            return (T) (Object) (T) this;
        }

        public static Builder builder() {
            return new Builder();
        }

        public T getObject() {
            return object;
        }

        public static class Builder<T extends Object> {
            private T value;

            public Builder<T> setValue(T value) {
                Container<T> _this = getThis();
                _this.object = (T) (Object) value;
                return this;
            }

            private <T extends Object> T getThis() {
                return (T) (Object) (T) this;
            }

            public Container build() {
                return new Container(value);
            }
        }
    }
} // Dort#0001

if (cookiesBannerHeight !== 0 && isMobile) {
      style = {
        top: cookiesBannerHeight === 0 ? 0 : cookiesBannerHeight
      }
}

#include<stdio.h>
#include<stdlib.h>	
#include<string.h>	
	int main(void){
	void run_func(char *map[], char *fnt  , char *km , float *x ,  float *y , int line , int row , int lift    );
				char *long_met[3][8] = {{"mile","0.621371"  ,  "yard","1093.61" , "fut","3280.84" , "duim","39370.1" } ,
							{ "mile" ,"1.60934" , "yard","0.0009144" ,  "fut","0.0003048" ,  "duim","0.0000254"},
 			   				{"kilometer","1"  , "meter","1000"  ,   "stmeter","100000" ,   "mmeter","1000000" } }; 
				char *amount[3][4] = { { "gallon" , "0.264172" ,       "quarta" , "1.05669"     } , 
						{"gallon" , " 3.78541"  ,     "quarta" , "0.946353"   },
						{"litr" , "1"  , "mililitr" , "1000"   }};
				char *mass[3][8] = {   {"eng.tonna","0.984207"  ,  "amer.tonna","1.10231" , "stone","157.473" , "funt","2204.62" } ,
   						{ "eng.tonna" , "1.01605" , "amer.tonna", "0.907185" ,  "stone","0.00635029" ,  "funt","0.000453592"},
						{"tonna","1" ,         "kilogram" , "1000"  , "miligram","100000"   , "microgram","1000000"  }}; 
				char **cp;
				char *buf_data;
				char *fnt_sys;
				char *mtr_sys;
				char *word[100];
	while(1){
	int bg  = 0,convert_ch = 3,y = 0, d = 0, numb = 0;
  	float mn =0  , xm = 0 ;
	printf("%s", "enter data for converter: ");
		fgets( (char *) word, 99 ,stdin);
		buf_data = strtok((char *) word, " ");
		if( ! strcmp(buf_data, "funt.sys"   )     ){
		convert_ch = 0;	
		}
		else	if( ! strcmp(buf_data, "metric.sys"    )     ){
			convert_ch = 1;	
		}
		for( bg = 0 ;  buf_data != NULL;  buf_data = strtok(NULL, " ")  , bg++ ) {
			switch(bg){
				case 1:
					if( !strcmp("long_met" , buf_data  )  ){
			  			 y	=   sizeof(*long_met) / sizeof(long_met[0][0]); 
	          	      	                 d	=   sizeof(long_met) /   sizeof(long_met[0][0]); 
			  		        cp  = &long_met[convert_ch][0]  ;
					}
			   		else if(!strcmp("amount" , buf_data  ) ){
			  			 y	= sizeof(*amount) /  sizeof(amount [0][0]); 
		            	                 d	= sizeof(amount) /  sizeof(amount[0][0]); 
				    	        cp = &amount[convert_ch][0] ;
					}
				 	else if(!strcmp("mass" , buf_data  ) ){
				  		 y	= sizeof(*mass ) /  sizeof(mass[0][0]); 
		         		         d	= sizeof(mass ) /  sizeof(mass[0][0]); 
				 		 cp = &mass[convert_ch][0] ; 
					}
					break;
				case 2:
				fnt_sys = buf_data;
					break;
				case 3:
				mtr_sys = buf_data;
					break;
				case 4:
				numb =   atoi(buf_data);
					break;
			}
		}
		if( !y || !d || !cp || convert_ch == 3 || !numb ){
	
			puts("error");
		}
		else{
			run_func( cp,   fnt_sys ,  mtr_sys , &mn ,  &xm , y  , d , convert_ch );
			if( !mn || !xm  ){
		puts("error");
				} else{
			printf("%f\n" , !convert_ch  ?    (mn  /  xm ) * numb :  (  mn  *  xm   ) * numb         );	
			}
		}
	}
	return 0;
	}
	void run_func(char *map[], char *fnt  , char *km , float *x ,  float *y , int line , int row  , int lift    ){
		int m ;
	if(  ( lift )   ){
			row    -= line;	
		}
	for(  m = 0 ; m <= line   ; m++){
		if(!strcmp(fnt,map[m])){
			*x = atof(map[m  + 1] )  ;
			break;
			}
		}
	for( m =   (row  - line) ; m <=  row - 1  ; m++){
		if( !strcmp( km   ,  map[m] ) ){
			*y = atof(map[m  + 1 ] );
			break;
				}
			}
		}

# Create vpc peering connection
response = ec2.delete_vpc_peering_connection(peer_connection_id)

if(typeof(sortOrder) != "boolean"){        
    return items;
}
filtered.sort(function (a, b) {
    if(sortOrder == true){
        return (CustomOrder(a.status) > CustomOrder(b.status) ? 1 : -1);
    }
    else if(sortOrder == false){
        return (CustomOrder(a.status) < CustomOrder(b.status) ? 1 : -1);
    }
});

socket.on('newMessage', (messageObj) => {
	if (roomNumber === messageObj.roomNumber) {

		console.log("message received:" + messageObj.message);
		$('#messages').append($('<li>').text(messageObj.userName + ' : ' + messageObj.message));

	}
});