require(ggplot2)
## Loading required package: ggplot2
require(plyr)
## Loading required package: plyr
#Loads required plyr package and a ggplot2 package for plotting
reproaov<-aov(repro4$Brooders~repro4$Site+repro4$Pop+repro4$Site:repro4$Pop,repro4)
summary(reproaov)
## Df Sum Sq Mean Sq F value Pr(>F)
## repro4$Site 2 138 69.2 12.60 1.1e-05 ***
## repro4$Pop 2 99 49.6 9.03 0.00023 ***
## repro4$Site:repro4$Pop 4 31 7.7 1.41 0.23609
## Residuals 117 642 5.5
## ---
## Signif. codes: 0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
SitevPopTukey<-TukeyHSD(reproaov)
print(SitevPopTukey)
## Tukey multiple comparisons of means
## 95% family-wise confidence level
##
## Fit: aov(formula = repro4$Brooders ~ repro4$Site + repro4$Pop + repro4$Site:repro4$Pop, data = repro4)
##
## $`repro4$Site`
## diff lwr upr p adj
## Manchester-Fidalgo -0.8571 -2.0710 0.3567 0.2186
## Oyster Bay-Fidalgo 1.6667 0.4529 2.8805 0.0041
## Oyster Bay-Manchester 2.5238 1.3100 3.7376 0.0000
##
## $`repro4$Pop`
## diff lwr upr p adj
## N-H -0.04762 -1.2614 1.166 0.9952
## S-H 1.85714 0.6433 3.071 0.0012
## S-N 1.90476 0.6910 3.119 0.0009
##
## $`repro4$Site:repro4$Pop`
## diff lwr upr p adj
## Manchester:H-Fidalgo:H -7.143e-02 -2.87058 2.7277 1.0000
## Oyster Bay:H-Fidalgo:H 1.286e+00 -1.51344 4.0849 0.8749
## Fidalgo:N-Fidalgo:H -4.330e-15 -2.79915 2.7992 1.0000
## Manchester:N-Fidalgo:H -5.000e-01 -3.29915 2.2992 0.9997
## Oyster Bay:N-Fidalgo:H 1.571e+00 -1.22773 4.3706 0.6987
## Fidalgo:S-Fidalgo:H 2.214e+00 -0.58487 5.0134 0.2427
## Manchester:S-Fidalgo:H 2.143e-01 -2.58487 3.0134 1.0000
## Oyster Bay:S-Fidalgo:H 4.357e+00 1.55799 7.1563 0.0001
## Oyster Bay:H-Manchester:H 1.357e+00 -1.44201 4.1563 0.8379
## Fidalgo:N-Manchester:H 7.143e-02 -2.72773 2.8706 1.0000
## Manchester:N-Manchester:H -4.286e-01 -3.22773 2.3706 0.9999
## Oyster Bay:N-Manchester:H 1.643e+00 -1.15630 4.4420 0.6456
## Fidalgo:S-Manchester:H 2.286e+00 -0.51344 5.0849 0.2061
## Manchester:S-Manchester:H 2.857e-01 -2.51344 3.0849 1.0000
## Oyster Bay:S-Manchester:H 4.429e+00 1.62942 7.2277 0.0001
## Fidalgo:N-Oyster Bay:H -1.286e+00 -4.08487 1.5134 0.8749
## Manchester:N-Oyster Bay:H -1.786e+00 -4.58487 1.0134 0.5353
## Oyster Bay:N-Oyster Bay:H 2.857e-01 -2.51344 3.0849 1.0000
## Fidalgo:S-Oyster Bay:H 9.286e-01 -1.87058 3.7277 0.9801
## Manchester:S-Oyster Bay:H -1.071e+00 -3.87058 1.7277 0.9529
## Oyster Bay:S-Oyster Bay:H 3.071e+00 0.27227 5.8706 0.0203
## Manchester:N-Fidalgo:N -5.000e-01 -3.29915 2.2992 0.9997
## Oyster Bay:N-Fidalgo:N 1.571e+00 -1.22773 4.3706 0.6987
## Fidalgo:S-Fidalgo:N 2.214e+00 -0.58487 5.0134 0.2427
## Manchester:S-Fidalgo:N 2.143e-01 -2.58487 3.0134 1.0000
## Oyster Bay:S-Fidalgo:N 4.357e+00 1.55799 7.1563 0.0001
## Oyster Bay:N-Manchester:N 2.071e+00 -0.72773 4.8706 0.3279
## Fidalgo:S-Manchester:N 2.714e+00 -0.08487 5.5134 0.0649
## Manchester:S-Manchester:N 7.143e-01 -2.08487 3.5134 0.9965
## Oyster Bay:S-Manchester:N 4.857e+00 2.05799 7.6563 0.0000
## Fidalgo:S-Oyster Bay:N 6.429e-01 -2.15630 3.4420 0.9983
## Manchester:S-Oyster Bay:N -1.357e+00 -4.15630 1.4420 0.8379
## Oyster Bay:S-Oyster Bay:N 2.786e+00 -0.01344 5.5849 0.0521
## Manchester:S-Fidalgo:S -2.000e+00 -4.79915 0.7992 0.3760
## Oyster Bay:S-Fidalgo:S 2.143e+00 -0.65630 4.9420 0.2834
## Oyster Bay:S-Manchester:S 4.143e+00 1.34370 6.9420 0.0003
#Standard ANOVA and TukeyHSD on non transformed data. Finds huge difference between pops and sites but heavily skewed and non normaly distributed.
repro4$arcsinbrooders<-asin(sign(repro4$Brooders)*sqrt(abs(repro4$Brooders)))
## Warning: NaNs produced
repro4$arcsinbrooders<-replace(repro4$arcsinbrooders,is.na(repro4$arcsinbrooders),0)
#For fun, arc sine transformed brooder data. This is essentially meaningless in the long run.
reproaov2<-aov(repro4$arcsinbrooders~repro4$Site+repro4$Pop+repro4$Site:repro4$Pop,repro4)
summary(reproaov2)
## Df Sum Sq Mean Sq F value Pr(>F)
## repro4$Site 2 0.3 0.137 0.44 0.64
## repro4$Pop 2 1.4 0.725 2.35 0.10
## repro4$Site:repro4$Pop 4 2.0 0.490 1.59 0.18
## Residuals 117 36.1 0.309
arcsinbroodertukey<-TukeyHSD(reproaov2)
print(arcsinbroodertukey)
## Tukey multiple comparisons of means
## 95% family-wise confidence level
##
## Fit: aov(formula = repro4$arcsinbrooders ~ repro4$Site + repro4$Pop + repro4$Site:repro4$Pop, data = repro4)
##
## $`repro4$Site`
## diff lwr upr p adj
## Manchester-Fidalgo 0.1122 -0.1757 0.4001 0.6255
## Oyster Bay-Fidalgo 0.0374 -0.2505 0.3253 0.9489
## Oyster Bay-Manchester -0.0748 -0.3627 0.2131 0.8112
##
## $`repro4$Pop`
## diff lwr upr p adj
## N-H -0.1496 -0.4375 0.13827 0.4358
## S-H -0.2618 -0.5497 0.02607 0.0827
## S-N -0.1122 -0.4001 0.17567 0.6255
##
## $`repro4$Site:repro4$Pop`
## diff lwr upr p adj
## Manchester:H-Fidalgo:H 4.488e-01 -0.2151 1.1127 0.4539
## Oyster Bay:H-Fidalgo:H 3.366e-01 -0.3273 1.0005 0.8016
## Fidalgo:N-Fidalgo:H 2.244e-01 -0.4395 0.8883 0.9776
## Manchester:N-Fidalgo:H 1.388e-15 -0.6639 0.6639 1.0000
## Oyster Bay:N-Fidalgo:H 1.122e-01 -0.5517 0.7761 0.9998
## Fidalgo:S-Fidalgo:H 2.345e-15 -0.6639 0.6639 1.0000
## Manchester:S-Fidalgo:H 1.122e-01 -0.5517 0.7761 0.9998
## Oyster Bay:S-Fidalgo:H -1.122e-01 -0.7761 0.5517 0.9998
## Oyster Bay:H-Manchester:H -1.122e-01 -0.7761 0.5517 0.9998
## Fidalgo:N-Manchester:H -2.244e-01 -0.8883 0.4395 0.9776
## Manchester:N-Manchester:H -4.488e-01 -1.1127 0.2151 0.4539
## Oyster Bay:N-Manchester:H -3.366e-01 -1.0005 0.3273 0.8016
## Fidalgo:S-Manchester:H -4.488e-01 -1.1127 0.2151 0.4539
## Manchester:S-Manchester:H -3.366e-01 -1.0005 0.3273 0.8016
## Oyster Bay:S-Manchester:H -5.610e-01 -1.2249 0.1029 0.1699
## Fidalgo:N-Oyster Bay:H -1.122e-01 -0.7761 0.5517 0.9998
## Manchester:N-Oyster Bay:H -3.366e-01 -1.0005 0.3273 0.8016
## Oyster Bay:N-Oyster Bay:H -2.244e-01 -0.8883 0.4395 0.9776
## Fidalgo:S-Oyster Bay:H -3.366e-01 -1.0005 0.3273 0.8016
## Manchester:S-Oyster Bay:H -2.244e-01 -0.8883 0.4395 0.9776
## Oyster Bay:S-Oyster Bay:H -4.488e-01 -1.1127 0.2151 0.4539
## Manchester:N-Fidalgo:N -2.244e-01 -0.8883 0.4395 0.9776
## Oyster Bay:N-Fidalgo:N -1.122e-01 -0.7761 0.5517 0.9998
## Fidalgo:S-Fidalgo:N -2.244e-01 -0.8883 0.4395 0.9776
## Manchester:S-Fidalgo:N -1.122e-01 -0.7761 0.5517 0.9998
## Oyster Bay:S-Fidalgo:N -3.366e-01 -1.0005 0.3273 0.8016
## Oyster Bay:N-Manchester:N 1.122e-01 -0.5517 0.7761 0.9998
## Fidalgo:S-Manchester:N 9.576e-16 -0.6639 0.6639 1.0000
## Manchester:S-Manchester:N 1.122e-01 -0.5517 0.7761 0.9998
## Oyster Bay:S-Manchester:N -1.122e-01 -0.7761 0.5517 0.9998
## Fidalgo:S-Oyster Bay:N -1.122e-01 -0.7761 0.5517 0.9998
## Manchester:S-Oyster Bay:N 6.384e-16 -0.6639 0.6639 1.0000
## Oyster Bay:S-Oyster Bay:N -2.244e-01 -0.8883 0.4395 0.9776
## Manchester:S-Fidalgo:S 1.122e-01 -0.5517 0.7761 0.9998
## Oyster Bay:S-Fidalgo:S -1.122e-01 -0.7761 0.5517 0.9998
## Oyster Bay:S-Manchester:S -2.244e-01 -0.8883 0.4395 0.9776
#Makes ANOVA based on arcsine transform of brooders. Finds no differences which is also skewed.
repro4$prop<-repro4$Brooders/repro4$Gaping
#creates individual proportion for each sample date
repro4$arcsinprop<-asin(sign(repro4$prop)*sqrt(abs(repro4$prop)))
repro4$arcsinprop<-replace(repro4$arcsinprop,is.na(repro4$arcsinprop),0)
#arcsine transforms individual proportion data to normalize for use in ANOVA and TukeyHSD.
reproaov3<-aov(repro4$arcsinprop~repro4$Site+repro4$Pop+repro4$Site:repro4$Pop,repro4)
summary(reproaov3)
## Df Sum Sq Mean Sq F value Pr(>F)
## repro4$Site 2 0.258 0.1290 11.33 3.2e-05 ***
## repro4$Pop 2 0.127 0.0636 5.59 0.0048 **
## repro4$Site:repro4$Pop 4 0.029 0.0073 0.64 0.6335
## Residuals 117 1.332 0.0114
## ---
## Signif. codes: 0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
summary.aov(reproaov3)
## Df Sum Sq Mean Sq F value Pr(>F)
## repro4$Site 2 0.258 0.1290 11.33 3.2e-05 ***
## repro4$Pop 2 0.127 0.0636 5.59 0.0048 **
## repro4$Site:repro4$Pop 4 0.029 0.0073 0.64 0.6335
## Residuals 117 1.332 0.0114
## ---
## Signif. codes: 0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
arcsinproptukey<-TukeyHSD(reproaov3)
print(arcsinproptukey)
## Tukey multiple comparisons of means
## 95% family-wise confidence level
##
## Fit: aov(formula = repro4$arcsinprop ~ repro4$Site + repro4$Pop + repro4$Site:repro4$Pop, data = repro4)
##
## $`repro4$Site`
## diff lwr upr p adj
## Manchester-Fidalgo -0.03381 -0.08907 0.02146 0.3178
## Oyster Bay-Fidalgo 0.07450 0.01923 0.12976 0.0050
## Oyster Bay-Manchester 0.10830 0.05304 0.16357 0.0000
##
## $`repro4$Pop`
## diff lwr upr p adj
## N-H -0.01821 -0.073473 0.03705 0.7147
## S-H 0.05645 0.001185 0.11171 0.0441
## S-N 0.07466 0.019394 0.12992 0.0049
##
## $`repro4$Site:repro4$Pop`
## diff lwr upr p adj
## Manchester:H-Fidalgo:H 0.004467 -0.122977 0.13191 1.0000
## Oyster Bay:H-Fidalgo:H 0.071372 -0.056071 0.19882 0.7015
## Fidalgo:N-Fidalgo:H -0.013294 -0.140738 0.11415 1.0000
## Manchester:N-Fidalgo:H -0.045447 -0.172890 0.08200 0.9689
## Oyster Bay:N-Fidalgo:H 0.079952 -0.047491 0.20740 0.5583
## Fidalgo:S-Fidalgo:H 0.086684 -0.040759 0.21413 0.4452
## Manchester:S-Fidalgo:H 0.012947 -0.114497 0.14039 1.0000
## Oyster Bay:S-Fidalgo:H 0.145553 0.018110 0.27300 0.0130
## Oyster Bay:H-Manchester:H 0.066905 -0.060538 0.19435 0.7696
## Fidalgo:N-Manchester:H -0.017761 -0.145204 0.10968 1.0000
## Manchester:N-Manchester:H -0.049914 -0.177357 0.07753 0.9463
## Oyster Bay:N-Manchester:H 0.075485 -0.051958 0.20293 0.6341
## Fidalgo:S-Manchester:H 0.082217 -0.045226 0.20966 0.5198
## Manchester:S-Manchester:H 0.008480 -0.118963 0.13592 1.0000
## Oyster Bay:S-Manchester:H 0.141086 0.013643 0.26853 0.0184
## Fidalgo:N-Oyster Bay:H -0.084667 -0.212110 0.04278 0.4786
## Manchester:N-Oyster Bay:H -0.116819 -0.244263 0.01062 0.1000
## Oyster Bay:N-Oyster Bay:H 0.008580 -0.118864 0.13602 1.0000
## Fidalgo:S-Oyster Bay:H 0.015312 -0.112131 0.14276 1.0000
## Manchester:S-Oyster Bay:H -0.058426 -0.185869 0.06902 0.8761
## Oyster Bay:S-Oyster Bay:H 0.074181 -0.053262 0.20162 0.6558
## Manchester:N-Fidalgo:N -0.032153 -0.159596 0.09529 0.9968
## Oyster Bay:N-Fidalgo:N 0.093246 -0.034197 0.22069 0.3433
## Fidalgo:S-Fidalgo:N 0.099979 -0.027465 0.22742 0.2528
## Manchester:S-Fidalgo:N 0.026241 -0.101202 0.15368 0.9992
## Oyster Bay:S-Fidalgo:N 0.158848 0.031404 0.28629 0.0043
## Oyster Bay:N-Manchester:N 0.125399 -0.002044 0.25284 0.0575
## Fidalgo:S-Manchester:N 0.132131 0.004688 0.25957 0.0359
## Manchester:S-Manchester:N 0.058394 -0.069050 0.18584 0.8764
## Oyster Bay:S-Manchester:N 0.191000 0.063557 0.31844 0.0002
## Fidalgo:S-Oyster Bay:N 0.006732 -0.120711 0.13418 1.0000
## Manchester:S-Oyster Bay:N -0.067005 -0.194449 0.06044 0.7681
## Oyster Bay:S-Oyster Bay:N 0.065601 -0.061842 0.19304 0.7881
## Manchester:S-Fidalgo:S -0.073738 -0.201181 0.05371 0.6631
## Oyster Bay:S-Fidalgo:S 0.058869 -0.068574 0.18631 0.8714
## Oyster Bay:S-Manchester:S 0.132607 0.005163 0.26005 0.0347
#ANOVA and TukeyHSD on Arcsine transformed proportions conservatively finds significant differences between pops and sites. More trust worthy due to normality.
Gapingsum<-ddply(repro4,.(Site,Pop),summarise,sum=sum(Gaping,na.rm=T))
#Summarises Gaping data for each pop at each site
Broodsum<-ddply(repro4,.(Site,Pop),summarise,sum=sum(Brooders,na.rm=T))
#Summarises Brooder data for each pop at each site
BroodGapingSum<-merge(Gapingsum,Broodsum,by=c("Site","Pop"))
BroodGapingSum<-rename(BroodGapingSum, c("Site"="Site","Pop"="Pop","sum.x"="Gaping","sum.y"="Brooder"))
BroodGapingSum$prop<-BroodGapingSum$Brooder/BroodGapingSum$Gaping
print(BroodGapingSum)
## Site Pop Gaping Brooder prop
## 1 Fidalgo H 814 8 0.009828
## 2 Fidalgo N 813 8 0.009840
## 3 Fidalgo S 921 39 0.042345
## 4 Manchester H 658 7 0.010638
## 5 Manchester N 631 1 0.001585
## 6 Manchester S 699 11 0.015737
## 7 Oyster Bay H 931 26 0.027927
## 8 Oyster Bay N 769 30 0.039012
## 9 Oyster Bay S 883 69 0.078143
#Creates clean Data frame for Summarized data as well as creating raw proportion data from summaries
BroodGapingSum$ArcSine<-asin(sign(BroodGapingSum$prop)*sqrt(abs(BroodGapingSum$prop)))
#Arcsine transforms raw proportions but is not useful.
arcaov<-aov(BroodGapingSum$ArcSine~BroodGapingSum$Site+BroodGapingSum$Pop+BroodGapingSum$Site:BroodGapingSum$Pop,BroodGapingSum)
summary(arcaov)
## Df Sum Sq Mean Sq
## BroodGapingSum$Site 2 0.02485 0.01242
## BroodGapingSum$Pop 2 0.01544 0.00772
## BroodGapingSum$Site:BroodGapingSum$Pop 4 0.00344 0.00086
arcTukey<-TukeyHSD(arcaov)
## Warning: NaNs produced
## Warning: NaNs produced
## Warning: NaNs produced
print(arcTukey)
## Tukey multiple comparisons of means
## 95% family-wise confidence level
##
## Fit: aov(formula = BroodGapingSum$ArcSine ~ BroodGapingSum$Site + BroodGapingSum$Pop + BroodGapingSum$Site:BroodGapingSum$Pop, data = BroodGapingSum)
##
## $`BroodGapingSum$Site`
## diff lwr upr p adj
## Manchester-Fidalgo -0.04567 NaN NaN NaN
## Oyster Bay-Fidalgo 0.08137 NaN NaN NaN
## Oyster Bay-Manchester 0.12704 NaN NaN NaN
##
## $`BroodGapingSum$Pop`
## diff lwr upr p adj
## N-H -0.01084 NaN NaN NaN
## S-H 0.08194 NaN NaN NaN
## S-N 0.09278 NaN NaN NaN
##
## $`BroodGapingSum$Site:BroodGapingSum$Pop`
## diff lwr upr p adj
## Manchester:H-Fidalgo:H 4.026e-03 NaN NaN NaN
## Oyster Bay:H-Fidalgo:H 6.860e-02 NaN NaN NaN
## Fidalgo:N-Fidalgo:H 6.125e-05 NaN NaN NaN
## Manchester:N-Fidalgo:H -5.948e-02 NaN NaN NaN
## Oyster Bay:N-Fidalgo:H 9.952e-02 NaN NaN NaN
## Fidalgo:S-Fidalgo:H 1.080e-01 NaN NaN NaN
## Manchester:S-Fidalgo:H 2.648e-02 NaN NaN NaN
## Oyster Bay:S-Fidalgo:H 1.840e-01 NaN NaN NaN
## Oyster Bay:H-Manchester:H 6.458e-02 NaN NaN NaN
## Fidalgo:N-Manchester:H -3.965e-03 NaN NaN NaN
## Manchester:N-Manchester:H -6.351e-02 NaN NaN NaN
## Oyster Bay:N-Manchester:H 9.550e-02 NaN NaN NaN
## Fidalgo:S-Manchester:H 1.039e-01 NaN NaN NaN
## Manchester:S-Manchester:H 2.245e-02 NaN NaN NaN
## Oyster Bay:S-Manchester:H 1.800e-01 NaN NaN NaN
## Fidalgo:N-Oyster Bay:H -6.854e-02 NaN NaN NaN
## Manchester:N-Oyster Bay:H -1.281e-01 NaN NaN NaN
## Oyster Bay:N-Oyster Bay:H 3.092e-02 NaN NaN NaN
## Fidalgo:S-Oyster Bay:H 3.936e-02 NaN NaN NaN
## Manchester:S-Oyster Bay:H -4.212e-02 NaN NaN NaN
## Oyster Bay:S-Oyster Bay:H 1.154e-01 NaN NaN NaN
## Manchester:N-Fidalgo:N -5.954e-02 NaN NaN NaN
## Oyster Bay:N-Fidalgo:N 9.946e-02 NaN NaN NaN
## Fidalgo:S-Fidalgo:N 1.079e-01 NaN NaN NaN
## Manchester:S-Fidalgo:N 2.642e-02 NaN NaN NaN
## Oyster Bay:S-Fidalgo:N 1.840e-01 NaN NaN NaN
## Oyster Bay:N-Manchester:N 1.590e-01 NaN NaN NaN
## Fidalgo:S-Manchester:N 1.674e-01 NaN NaN NaN
## Manchester:S-Manchester:N 8.596e-02 NaN NaN NaN
## Oyster Bay:S-Manchester:N 2.435e-01 NaN NaN NaN
## Fidalgo:S-Oyster Bay:N 8.439e-03 NaN NaN NaN
## Manchester:S-Oyster Bay:N -7.304e-02 NaN NaN NaN
## Oyster Bay:S-Oyster Bay:N 8.449e-02 NaN NaN NaN
## Manchester:S-Fidalgo:S -8.148e-02 NaN NaN NaN
## Oyster Bay:S-Fidalgo:S 7.605e-02 NaN NaN NaN
## Oyster Bay:S-Manchester:S 1.575e-01 NaN NaN NaN
#Arcsine transform on raw proportions fails due to lack of replicates
Proptest<-prop.test(BroodGapingSum$Brooder,BroodGapingSum$Gaping, conf.level=0.95)
print(Proptest)
##
## 9-sample test for equality of proportions without continuity
## correction
##
## data: BroodGapingSum$Brooder out of BroodGapingSum$Gaping
## X-squared = 139.2, df = 8, p-value < 2.2e-16
## alternative hypothesis: two.sided
## sample estimates:
## prop 1 prop 2 prop 3 prop 4 prop 5 prop 6 prop 7 prop 8
## 0.009828 0.009840 0.042345 0.010638 0.001585 0.015737 0.027927 0.039012
## prop 9
## 0.078143
#Proportion test with confidence levels. Doesn't have meaning.
ggplot(data=BroodGapingSum,aes(x=Site, y=prop, group=Pop, col=Pop))+
geom_line(size=2)+geom_point(size=6)+
scale_color_manual(name="Population",
labels=c("Dabob","Fidalgo","Oyster Bay"),
values=c("blue","purple","orange"))+
labs(title="Raw Proportion of Brooders\nSite by Population",
x="Site",y="Raw Proportion of Brooders")+
theme_bw()+
theme(axis.text.x=element_text(color=c("purple","red","orange"), size=20),
axis.text.y=element_text(color="black",size=15),
axis.title.x=element_text(color="black",size=25),
axis.title.y=element_text(color="black",size=25),
plot.title=element_text(color="forestgreen",size=35),
legend.justification=c(0,1),
legend.position=c(0,1))
![plot of chunk unnamed-chunk-1 plot of chunk 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)
#Graph uses raw proportions of brooders to gaping animals produced at each site.
#ANOVA and Tukey test on proportions uses arcsin transformed data for normality
#ANOVA/Tukey Find that the Oyster Bay site is significantly Different from the other two sites
#ANOVA/Tukey Find that the Oyster Bay Pop is significantly Different from the other two pops.
#Individual interactions find that the Oyster Bay pop at Oyster Bay site is significantly
#different than all almost all other populations at all other sites including itself at Manchester
#but not significantly different than the other two populations at Oyster Bay site