Tonbridge Angels contra Chelmsford

Expert Overview: Tonbridge Angels vs Chelmsford

El partido entre Tonbridge Angels y Chelmsford es un encuentro crucial en el fútbol inglés, destacando por su competitividad y las expectativas de los aficionados. La fecha del 4 de noviembre de 2025 a las 19:45 marca una oportunidad para que ambos equipos demuestren su valía. A continuación, se presentan las predicciones basadas en los datos disponibles para este emocionante evento.

Betting Predictions

First Half Predictions

• Both Teams Not To Score In 1st Half: 87.90
• Away Team Not To Score In 1st Half: 84.00
• Home Team Not To Score In 1st Half: 68.70

Second Half Predictions

• Both Teams Not To Score In 2nd Half: 78.50
• Home Team Not To Score In 2nd Half: 59.70
• Away Team Not To Score In 2nd Half: 55.20

Total Goals Predictions

• Sum of Goals Under 2: 58.50
• Both Teams Not to Score: 58.40
• Under 1.5 Goals: 55.40
• Under 2.5 Goals: 56.50
• Avg. Total Goals: 2.12
• Avg. Conceded Goals: 1.63
• Avg. Goals Scored: 1.69

Detailed Predictions for the Match

The likelihood of both teams not scoring in the first half is notably high at an odds of 87.90, indicating a potentially defensive start to the game by both sides.

The odds for the away team (Chelmsford) not scoring in the first half are slightly lower at 84.00, suggesting a marginally stronger offensive strategy from Tonbridge Angels.

The home team’s chance of not scoring in the first half stands at an odds of 68.70, reflecting expectations of a more aggressive approach by Chelmsford.

alessandrofalcone/astro-physics/homework/week10/plotter.py
import numpy as np
import matplotlib.pyplot as plt

# create data
x = np.linspace(0,10,100)
y = np.sin(x)
z = np.cos(x)

# plot data
plt.plot(x,y,’r-‘,label=’sin’)
plt.plot(x,z,’b–‘,label=’cos’)

# add labels and legend
plt.xlabel(‘x’)
plt.ylabel(‘y’)
plt.legend()

# show plot
plt.show()
#include «vector.h»

#include

using namespace std;

int main()
{
Vector v1(10); // create a vector with default values (0)
cout << v1 << endl;
Vector v2(10,5); // create a vector with all values set to five
cout << v2 << endl;
Vector v3(v2); // copy v2 into v3
cout << v3 << endl;
v3 = v2; // assign v2 to v3
cout << v3 << endl;
v1 = Vector(10,7); // set all values of v1 to seven
cout << v1 << endl;
v1[5] = -5; // set sixth element to -5 (indexing starts at zero)
cout << v1 << endl;
for(int i=0; i<v1.size(); i++)
{
cout << "v1[" << i << "] = " << v1[i] << endl;
}

return(0);
}
alessandrofalcone/astro-physics>1

xor ax,ax ;ax=0
mov al,x ;ax=x

shl al,2 ;shift left by two (multiply by four)
add ax,ah ;ax=ax+(ax>>1)

shl ax,4 ;shift left by four (multiply by sixteen)
add ax,dx ;ax=ax+dx (dx:ax is now our fractional part)

mov dx,ax ;dx is fractional part of our number
mov ax,x ;ax is integer part of our number

ret

float_to_xpt endp

sin_x proc

push bp
mov bp,sp

sub sp,4
push si

push ax ;save xptm on stack
push dx ;save xpt on stack

push bx
push cx

xor cx,cx
mov bx,[bp+8]
jcxz term

iter:

push bx
push cx

call factorial

pop cx
pop bx

div bx

add [bp-4],ax

add cx,bx

inc cx
inc cx
jnz iter

term:

pop bx
pop cx

add [bp-4],dx
jns termdone

negate:

neg [bp-4]

termdone:

pop dx
pop ax

mov ax,[bp-4]

pop si
add sp,4

pop bp

ret

sin_x endp

factorial proc

push bp
mov bp,sp

xor ax,ax

mov al,[bp+4]
cmp al,[bp+6]
jle factdone

factloop:

inc al

mul word ptr [bp+6]

cmp al,[bp+4]
jl factloop

factdone:

pop bp

ret

factorial endp

inc_xpt proc

add dx,dx
adc ax,0

ret

inc_xpt endp

print_float proc

push bp

mov bp,sp

sub sp,8

mov [bp-2],dx

xor dx,dx

div word ptr [bp+6]

mov [bp-6],dx

mov word ptr [bp-4],ax

add word ptr [bp-6],5000d

shr word ptr [bp-6],12d

cmp word ptr [bp-6],10d

jb printint

inc byte ptr [bp-6]

printint:

add byte ptr [bp-6],’0′

push byte ptr [bp-6]

call printchar

printdec:

xor dx,dx

div word ptr [bp+6]

add word ptr [bp-4],5000d

shr word ptr [bp-4],12d

cmp word ptr [bp-4],10d

jb printint2

inc byte ptr [bp-4]

printint2:

add byte ptr [bp-4],’0′

push byte ptr [bp-4]

call printchar

cmp word ptr [bp-4],0

jnz printdec

printdot:

push ‘.’

call printchar

printfrac:

cmp word ptr[bp-6],0

jz doneprintfloat

push word ptr[bp-6]

call printdec

shl word ptr[bp-6],12d

sub word ptr[bp-6],5000d

jmp printfrac

doneprintfloat:

add sp,8

pop bp

ret

print_float endp

printchar proc

push ax
push dx

mov ah,02h

int 21h

pop dx
pop ax

ret

printchar endp

printdec proc

push bp

mov bp,sp

sub sp,8

xor dx,dx

xor cx,cx

mov bx,[bp+6]

div byte ptr[bx]

add dl,’0′

push dl

cmp ax,0

jnz loopdec

loopdone:

pop dx

call printchar

loop loopdone

loopdec:

push cx

mov cl,[bx]

loop loopdec2

loopdec2:

call printchar

pop cx

loop loopdec3

looploop:

add sp,8

pop bp

ret

printdec endp

end main<|file_sepcialdi@cj-C61 .bashrc: line 'source /usr/share/bash-completion/bash_completion' does not exist
cialdi@cj-C61 ~ %
cialdi@cj-C61 ~ % cd astrophysics/
cialdi@cj-C61 astrophysics % ls
'week01' 'week02' 'week03' 'week04' 'week05' 'week06' 'week07' 'week08' 'week09' week10
cialdi@cj-C61 astrophysics % ls week10/
Makefile plotter.cpp plotter.py README.md vector.cpp vector.h
cialdi@cj-C61 astrophysics % cd week10/
cialdi@cj-C61 week10 % ls
Makefile plotter.cpp plotter.py README.md vector.cpp vector.h
cialdi@cj-C61 week10 % make
g++ -c -Wall -pedantic -std=c++11 plotter.cpp -o plotter.o
g++ -c -Wall -pedantic -std=c++11 vector.cpp -o vector.o
g++ plotter.o vector.o -o plotter.exe
make: *** No rule to make target `plotter.exe', needed by `all'. Stop.
cialdi@cj-C61 week10 % nano Makefile
#!/bin/bash

TARGETS = plotter.exe

CXX=g++

CXXFLAGS=-Wall -pedantic -std=c++11

all: $(TARGETS)

clean:
rm *.o $(TARGETS)

%.o : %.cpp %.h
$(CXX) $(CXXFLAGS) $< -c

%.exe : %.o %.o
$(CXX) $^ -o $@

% : %.cpp %.cpp
$(CXX) $(CXXFLAGS) $< -o $@

% : %.cpp
$(CXX) $(CXXFLAGS) $< -o $@

% : %.cpp %.h
$(CXX) $(CXXFLAGS) $< -c

% : %.o %.o
$(CXX) $^ -o $@

% : %.cpp
$(CXX) $(CXXFLAGS) $< -c

% : %.cpp %.cpp
$(CXX) $(CXXFLAGS) $< -o $@

% : %.cpp %.o
$(CXX) $(CXXFLAGS) $< -c

% : %.cpp %.cpp %.cpp
$(CXX) $(CXXFLAGS) $< -c

% : %.cpp %.o
$(CXX) $(CXXFLAGS) $< -c

% : %.cpp %.cpp %.o
$(CXX) $(CXXFLAGS) $GetAerosolType()->GetAerosolSpeciesCount())
{
/* Allocate memory */
atmosphere->GetAerosolType()->AllocateMemory();

/* Set up aerosol information */
atmosphere->GetAerosolType()->SetAerosolParameters();

/* Save current aerosol type */
atmosphere->SetCurrentAerosolType(atmosphere->GetAerosolType());

/* Save current aerosol optical properties */
atmosphere->SetCurrentAerosolOpticalProperties(
atmosphere->GetCurrentAerosolType());
}
}
else if ((strcmp(atmosphere->GetCloudType()->GetName(), «none») != SAME))
{
/* Save current cloud type */
atmosphere->SetCurrentCloudType(atmosphere->GetCloudType());

/* Save current cloud optical properties */
atmosphere->SetCurrentCloudOpticalProperties(
atmosphere->GetCurrentCloudType());
}

/* Save current gas type */
atmosphere->SetCurrentGasType(atmosphere->GetGasType());

/* Save current gas optical properties */
atmosphere->SetCurrentGasOpticalProperties(
atmosphere->GetCurrentGasType());

/* Create atmospheric layer structure */
if (!atmosphere->CreateAtmosphericLayerStructure())
{
return ERROR;
}

/* Get number of layers */
num_layers_ =
static_cast(atmosphere->GetNumberOfAtmosphericLayers());

/* Create atmospheric layer structure for each gas */
if (!atmosphere->CreateAtmosphericLayerStructureForEachGas())
{
return ERROR;
}

#ifdef DEBUG_AEROSOL_OPTICAL_PROPERTIES
std::cout <CreateAerosolOpticalPropertiesForEachSpecies())
{
return ERROR;
}

#ifdef DEBUG_AEROSOL_OPTICAL_PROPERTIES
std::cout <CreateGasOpticalPropertiesForEachSpecies())
{
return ERROR;
}

#ifdef DEBUG_AEROSOL_OPTICAL_PROPERTIES
std::cout << std::endl;
#endif /* #ifdef DEBUG_AEROSOL_OPTICAL_PROPERTIES */

#ifdef DEBUG_AEROSOL_OPTICAL_PROPERTIES
std::cout <CreateAtmosphericLayerStructureForIceClouds())
{
return ERROR;
}

#ifdef DEBUG_AEROSOL_OPTICAL_PROPERTIES
std::cout <
// CreateAtmosphericLayerStructureForIceClouds())
// {
// return ERROR;
// }
//
// std::cout<<std::endl;

#endif /* #ifdef DEBUG_AEROSOL_OPTICAL_PROPERTIES */