Free Statistics

of Irreproducible Research!

Author's title

Author*Unverified author*
R Software Modulerwasp_edauni.wasp
Title produced by softwareUnivariate Explorative Data Analysis
Date of computationThu, 20 Nov 2008 10:26:46 -0700
Cite this page as followsStatistical Computations at FreeStatistics.org, Office for Research Development and Education, URL https://freestatistics.org/blog/index.php?v=date/2008/Nov/20/t1227202150mojjoleqr8mzedd.htm/, Retrieved Sun, 19 May 2024 09:22:50 +0000
Statistical Computations at FreeStatistics.org, Office for Research Development and Education, URL https://freestatistics.org/blog/index.php?pk=25090, Retrieved Sun, 19 May 2024 09:22:50 +0000
QR Codes:

Original text written by user:
IsPrivate?No (this computation is public)
User-defined keywords
Estimated Impact230
Family? (F = Feedback message, R = changed R code, M = changed R Module, P = changed Parameters, D = changed Data)
F     [Multiple Regression] [Taak 6 - Q1 (2)] [2008-11-16 10:42:33] [46c5a5fbda57fdfa1d4ef48658f82a0c]
F RMPD  [Univariate Explorative Data Analysis] [Taak 6 Q 2] [2008-11-19 14:06:25] [e1a46c1dcfccb0cb690f79a1a409b517]
F   PD      [Univariate Explorative Data Analysis] [Q2 task 6] [2008-11-20 17:26:46] [fb0ffb935e9c1a725d69519be28b148f] [Current]
F   PD        [Univariate Explorative Data Analysis] [Seatbelt Law Q2] [2008-11-23 13:04:24] [3548296885df7a66ea8efc200c4aca50]
Feedback Forum
2008-12-01 11:52:14 [Kim De Vos] [reply
Verkeerd model toegepast:
http://www.freestatistics.org/blog/date/2008/Nov/24/t1227558802lxhzbeawyl9o0tm.htm
R-squared: mate waarin het model de werkelijkheid verklaart.
Deze bedraagt 0.7418 dit betekent dat 74.18% van het aantal slachtoffers dat schommelt, kan verklaard worden door het model dat werd opgesteld.
Wat als resultaat geeft dat er 25% slachtoffers zijn die we niet kunnen verklaren, door het al dan niet dragen van een gordel.

Adjusted R-squared: strafpunten toegekend voor elke extra datareeks die gebruikt is om het model te verklaren.
Als deze 100% zou zijn, zou dit ideaal zijn. Om dit verder te analyseren moet er gekeken worden naar de grafieken.

De grafiek -actuals en interpolation geeft het werkelijke verloop weer (volle lijn) de voorspellingen zijn de bolletjes.
De grafiek residuals vertelt ons iets meer over de voorspellingen, dit toont aan dat er autocorrelatie is.
De density plot laat zien dat er geen sprake is van een normaalverdeling, de rechtse kant heeft een inzakking, deze zou eerder bol moeten staan, en ook de top is te spits.
De histogram heeft ook geen gelijke spreiding.
We kunnen concluderen dat er niet aan alle assumpties werd voldaan, dat het model niet correct is.

Post a new message
Dataseries X:
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Summary of computational transaction
Raw Inputview raw input (R code)
Raw Outputview raw output of R engine
Computing time3 seconds
R Server'Sir Ronald Aylmer Fisher' @ 193.190.124.24

\begin{tabular}{lllllllll}
\hline
Summary of computational transaction \tabularnewline
Raw Input & view raw input (R code)  \tabularnewline
Raw Output & view raw output of R engine  \tabularnewline
Computing time & 3 seconds \tabularnewline
R Server & 'Sir Ronald Aylmer Fisher' @ 193.190.124.24 \tabularnewline
\hline
\end{tabular}
%Source: https://freestatistics.org/blog/index.php?pk=25090&T=0

[TABLE]
[ROW][C]Summary of computational transaction[/C][/ROW]
[ROW][C]Raw Input[/C][C]view raw input (R code) [/C][/ROW]
[ROW][C]Raw Output[/C][C]view raw output of R engine [/C][/ROW]
[ROW][C]Computing time[/C][C]3 seconds[/C][/ROW]
[ROW][C]R Server[/C][C]'Sir Ronald Aylmer Fisher' @ 193.190.124.24[/C][/ROW]
[/TABLE]
Source: https://freestatistics.org/blog/index.php?pk=25090&T=0

Globally Unique Identifier (entire table): ba.freestatistics.org/blog/index.php?pk=25090&T=0

As an alternative you can also use a QR Code:  

The GUIDs for individual cells are displayed in the table below:

Summary of computational transaction
Raw Inputview raw input (R code)
Raw Outputview raw output of R engine
Computing time3 seconds
R Server'Sir Ronald Aylmer Fisher' @ 193.190.124.24







Descriptive Statistics
# observations192
minimum-333.6976091
Q1-105.826532175
median4.709752322
mean-8.0729257479187e-10
Q385.02414483
maximum414.6496829

\begin{tabular}{lllllllll}
\hline
Descriptive Statistics \tabularnewline
# observations & 192 \tabularnewline
minimum & -333.6976091 \tabularnewline
Q1 & -105.826532175 \tabularnewline
median & 4.709752322 \tabularnewline
mean & -8.0729257479187e-10 \tabularnewline
Q3 & 85.02414483 \tabularnewline
maximum & 414.6496829 \tabularnewline
\hline
\end{tabular}
%Source: https://freestatistics.org/blog/index.php?pk=25090&T=1

[TABLE]
[ROW][C]Descriptive Statistics[/C][/ROW]
[ROW][C]# observations[/C][C]192[/C][/ROW]
[ROW][C]minimum[/C][C]-333.6976091[/C][/ROW]
[ROW][C]Q1[/C][C]-105.826532175[/C][/ROW]
[ROW][C]median[/C][C]4.709752322[/C][/ROW]
[ROW][C]mean[/C][C]-8.0729257479187e-10[/C][/ROW]
[ROW][C]Q3[/C][C]85.02414483[/C][/ROW]
[ROW][C]maximum[/C][C]414.6496829[/C][/ROW]
[/TABLE]
Source: https://freestatistics.org/blog/index.php?pk=25090&T=1

Globally Unique Identifier (entire table): ba.freestatistics.org/blog/index.php?pk=25090&T=1

As an alternative you can also use a QR Code:  

The GUIDs for individual cells are displayed in the table below:

Descriptive Statistics
# observations192
minimum-333.6976091
Q1-105.826532175
median4.709752322
mean-8.0729257479187e-10
Q385.02414483
maximum414.6496829



Parameters (Session):
par1 = 1 ; par2 = Include Monthly Dummies ; par3 = Linear Trend ;
Parameters (R input):
par1 = 0 ; par2 = 0 ;
R code (references can be found in the software module):
par1 <- as.numeric(par1)
par2 <- as.numeric(par2)
x <- as.ts(x)
library(lattice)
bitmap(file='pic1.png')
plot(x,type='l',main='Run Sequence Plot',xlab='time or index',ylab='value')
grid()
dev.off()
bitmap(file='pic2.png')
hist(x)
grid()
dev.off()
bitmap(file='pic3.png')
if (par1 > 0)
{
densityplot(~x,col='black',main=paste('Density Plot bw = ',par1),bw=par1)
} else {
densityplot(~x,col='black',main='Density Plot')
}
dev.off()
bitmap(file='pic4.png')
qqnorm(x)
qqline(x)
grid()
dev.off()
if (par2 > 0)
{
bitmap(file='lagplot1.png')
dum <- cbind(lag(x,k=1),x)
dum
dum1 <- dum[2:length(x),]
dum1
z <- as.data.frame(dum1)
z
plot(z,main='Lag plot (k=1), lowess, and regression line')
lines(lowess(z))
abline(lm(z))
dev.off()
if (par2 > 1) {
bitmap(file='lagplotpar2.png')
dum <- cbind(lag(x,k=par2),x)
dum
dum1 <- dum[(par2+1):length(x),]
dum1
z <- as.data.frame(dum1)
z
mylagtitle <- 'Lag plot (k='
mylagtitle <- paste(mylagtitle,par2,sep='')
mylagtitle <- paste(mylagtitle,'), and lowess',sep='')
plot(z,main=mylagtitle)
lines(lowess(z))
dev.off()
}
bitmap(file='pic5.png')
acf(x,lag.max=par2,main='Autocorrelation Function')
grid()
dev.off()
}
summary(x)
load(file='createtable')
a<-table.start()
a<-table.row.start(a)
a<-table.element(a,'Descriptive Statistics',2,TRUE)
a<-table.row.end(a)
a<-table.row.start(a)
a<-table.element(a,'# observations',header=TRUE)
a<-table.element(a,length(x))
a<-table.row.end(a)
a<-table.row.start(a)
a<-table.element(a,'minimum',header=TRUE)
a<-table.element(a,min(x))
a<-table.row.end(a)
a<-table.row.start(a)
a<-table.element(a,'Q1',header=TRUE)
a<-table.element(a,quantile(x,0.25))
a<-table.row.end(a)
a<-table.row.start(a)
a<-table.element(a,'median',header=TRUE)
a<-table.element(a,median(x))
a<-table.row.end(a)
a<-table.row.start(a)
a<-table.element(a,'mean',header=TRUE)
a<-table.element(a,mean(x))
a<-table.row.end(a)
a<-table.row.start(a)
a<-table.element(a,'Q3',header=TRUE)
a<-table.element(a,quantile(x,0.75))
a<-table.row.end(a)
a<-table.row.start(a)
a<-table.element(a,'maximum',header=TRUE)
a<-table.element(a,max(x))
a<-table.row.end(a)
a<-table.end(a)
table.save(a,file='mytable.tab')