重命名行以控制dist()和promp()对象中的项

重命名行以控制dist()和promp()对象中的项,r,row,pca,dendrogram,dendextend,R,Row,Pca,Dendrogram,Dendextend,我有一个名为family 1的数据框(如下)。这些数据将用于构建树状图和主成分分析。我想控制dist()和promp()对象中项目的名称,这两个对象都使用行名称来表示项目之间的关系(即差异矩阵)。通过系统地命名行(代码如下),我创建了一系列不同的树状图。然而,我的姓氏是字母数字的“X22”、“X2”、“X75”和“X87”,每一行都不同,因此R似乎被它们弄糊涂了。数据框将非常大,系统性地命名行将非常详尽。数据框中的每一行都可以用不同的族名称(即“X22”、“X87”、“X22”、“X4”、“X2

我有一个名为family 1的数据框(如下)。这些数据将用于构建树状图和主成分分析。我想控制dist()和promp()对象中项目的名称,这两个对象都使用行名称来表示项目之间的关系(即差异矩阵)。通过系统地命名行(代码如下),我创建了一系列不同的树状图。然而,我的姓氏是字母数字的“X22”、“X2”、“X75”和“X87”,每一行都不同,因此R似乎被它们弄糊涂了。数据框将非常大,系统性地命名行将非常详尽。数据框中的每一行都可以用不同的族名称(即“X22”、“X87”、“X22”、“X4”、“X22”…)进行标记和排序。在下面的示例中,我使用ddply()组织了这些姓氏。我要问的问题是,如何使用列标题“family”下包含的正确对应的族名称重命名这个大型数据集中的行名称。然后,我可以从数据框中提取列“Family”,并在使用dist()和promp()时,仅依靠行名称来指示族之间的不同关系,即它们的值SBI.x

树状图 图书馆(Dendestend) 家庭1美元家庭
#Dendrogram

library(dendextend)
family1$Family <- as.factor(family1$Family)
class(family1$Family)
str(family1)
family1

family2 <- ddply(family1,.(Family), summarise, SBI.CV.mean = mean(SBI.CV))
family2
class(family2)

rownames(family2)

[1] "1" "2" "3" "4"
rownames(family2)[1] <- "X22"
rownames(family2)[2] <- "X4"
rownames(family2)[3] <- "X75"
rownames(family2)[4] <- "X87"
rownames(family2)

[1] "X22" "X4"  "X75" "X87"

family2

keeps <- "SBI.CV.mean"
family3 <- family2[,keeps,drop=FALSE]
family3

 par(mfrow = c(3,3))
 require(graphics)
 dend.data <- hclust(dist(family3))
 dend <- as.dendrogram(dend.data)
 plot(dend)

 dend.data1 <- hclust(dist(family3), "single")
 dend1 <- as.dendrogram(dend.data1, horiz=T)
 plot(dend1, horiz=T)

 dend.data2 <- hclust(dist(family3), "ave")
 dend3 <- as.dendrogram(dend.data2, hang=0.02)
 plot(dend2, horiz=TRUE)

 dend.data3 <- hclust(dist(family3), "ave")
 dend3 <- as.dendrogram(dend.data3, hang=-1)
 plot(dend3)

 colour.dend1 <- as.dendrogram(dend3)
 colour.dend1
 dend1_mod_01 <- colour.dend1
 dend1_mod_01 <- colour_branches(dend1_mod_01, k=2)
 col_for_labels <- c("purple","purple","orange","purple","orange","dark      green")

dend_mod_01 <- color_labels(dend1_mod_01,col=col_for_labels)
plot(dend3)
plot(dend1_mod_01)


      Family     SBI.CV         SBI.x
  1      X22  66.666670  0.2859644782
  2      X22  50.000000 -0.2724271529
  3      X22  66.666670  0.2859644782
  4      X22  50.000000 -0.2724271529
  5      X22  66.666670  0.2859644782
  6      X22  50.000000 -0.2724271529
  7      X22  66.666670  0.2859644782
  8      X22  50.000000 -0.2724271529
  9      X22  66.666670  0.2859644782
  10      X4  50.000000 -0.2724271529
  11      X4  66.666670  0.2859644782
  12      X4  50.000000 -0.2724271529
  13      X4  66.666670  0.2859644782
  14      X4  50.000000 -0.2724271529
  15      X4  66.666670  0.2859644782
  16      X4  50.000000 -0.2724271529
  17      X4  66.666670  0.2859644782
  18      X4  50.000000 -0.2724271529
  19     X75 105.249338  1.5786185545
  20     X75  78.507843  0.6826851131
  21     X75  25.101428 -1.1066162398
  22     X75  67.395050  0.3103677511
  23     X75  67.857549  0.3258630822
  24     X75 145.284695  2.9199427839
  25     X75  60.806449  0.0896266157
  26     X75  71.595201  0.4510874730
  27     X75   8.845135 -1.6512588087
  28     X75 119.192646  2.0457680508
  29     X75  50.024029 -0.2716220975
  30     X75   7.733006 -1.6885190128
  31     X75  23.977506 -1.1442715506
  32     X75  37.055887 -0.7061001284
  33     X75  76.765617  0.6243144597
  34     X75  86.444781  0.9486002452
  35     X75  12.882740 -1.5159849452
  36     X75  74.266621  0.5405893693
  37     X75  45.465494 -0.4243489346
  38     X75  16.600339 -1.3914324000
  39     X75  42.897631 -0.5103813099
  40     X75  41.374846 -0.5613999237
  41     X75  73.292581  0.5079556288
  42     X75 134.677664  2.5645702145
  43     X75  13.588425 -1.4923420341
  44     X75  87.600497  0.9873207660
  45     X75  58.104290 -0.0009051445
  46     X75  43.961024 -0.4747539319
  47     X75  29.329649 -0.9649560749
  48     X75  25.727674 -1.0856348125
  49     X75  86.583227  0.9532386696
  50     X75  45.530280 -0.4221783774
  51     X75  37.480592 -0.6918710282
  52     X75  53.528554 -0.1542082751
  53     X75  52.208901 -0.1984212577
  54     X75  13.855732 -1.4833863164
  55     X75  73.891903  0.5280350081
  56     X75  50.819011 -0.2449874251
  57     X75  57.510157 -0.0208106742
  58     X75  39.984956 -0.6079660910
  59     X75  25.825865 -1.0823450712
  60     X75 100.217554  1.4100362237
  61     X75  47.522531 -0.3554310136
  62     X87   7.014259 -1.7125995466
  63     X87  70.808548  0.4247318511
  64     X87  29.447163 -0.9610189457
  65     X87  63.880988  0.1926344059
  66     X87  20.743852 -1.2526102488
  67     X87  85.819272  0.9276435100
  68     X87  85.635091  0.9214728035
  69     X87  45.392863 -0.4267823266
  70     X87  64.801549  0.2234764132
  71     X87  72.351927  0.4764404358
  72     X87 125.895232  2.2703280817
  73     X87  72.035520  0.4658396967
  74     X87  56.762990 -0.0458433772
  75     X87  54.722673 -0.1142011198
  76     X87 124.943928  2.2384560765
  77     X87  35.527844 -0.7572949035
  78     X87  47.422399 -0.3587857852
  79     X87  37.716625 -0.6839630986
  80     X87  68.930631  0.3618150755
  81     X87  74.545714  0.5499399592
  82     X87  50.891461 -0.2425600971
  83     X87   6.548454 -1.7282056403
  84     X87  94.367915  1.2140528952
  85     X87  42.406152 -0.5268475722
  86     X87  59.187538  0.0353874453
  87     X87 102.434045  1.4842964104
  88     X87  85.227130  0.9078046857
  89     X87 109.304906  1.7144942411
  90     X87  36.815668 -0.7141483035
  91     X87  18.201273 -1.3377955219
  92     X87  45.524410 -0.4223750429
  93     X87  99.347994  1.3809029280
  94     X87  66.913808  0.2942444640
  95     X87  79.170739  0.7048944434
  96     X87  75.674816  0.5877688181
  97     X87  65.629371  0.2512113403
  98     X87  16.569935 -1.3924510401
  99     X87  31.772731 -0.8831042987
  100    X87  38.017454 -0.6738842769
  101    X87  24.862990 -1.1146047452
  102    X87  34.972611 -0.7758971474
  103    X87 136.658358  2.6309303785
  104    X87  14.192113 -1.4721163785