Supplementary Table 1. A)Patient details for Fresh Frozen test cohort, B) Patient details for validation cohort Age Median64 Range41-89 Grade 13 214 310.

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Supplementary Table 1. A)Patient details for Fresh Frozen test cohort, B) Patient details for validation cohort Age Median64 Range41-89 Grade Stage pT1 9 pT2 10 pT3 8 pT4 0 Sub Type Basaloid 7 NOS 9 Condyl 11 Lymph Invasion Positive 12 Negative 15 HPV Status HPV Positive 9 HPV Negative 18 Age Median68 Range35-92 Grade Stage pT110 pT2a21 pT2b16 pT321 pT42 Sub Type Basaloid12 NOS40 Condyl18 Lymph Invasion Positive30 Negative40 HPV HPV Positive18 HPV Negative52 Sample Type Fresh Frozen20 FFPE50 A) B)

Supplementary Figure 1. APOBEC mutation fraction of across multiple cancer types. B) Mutation type and trinucleotide contexts for the two signatures extracted from NNMF ( CpG Deamination, APOBEC). C) Coefficient silhouette, Consensus silhouette and cophenetic correlation metrics used to determine the optimum number of clusters. A) C) B)

Supplementary Figure 2. DNA methylation in PeCa (red bars) and adjacent normal tissue (blue bars), for a) global methylation, b) CpG Islands and c) gene bodies in high viral load HPV positive PeCa, low viral load and none HPV infected PeCa tissue along with matched normal penile tissue. Normal tissue were all HPV negative and stratified by the HPV status of the paired tumour sample. HPV low viral load and HPV negative PeCas had a significantly lower mean methylation both globally and over gene bodies when compared to high viral load PeCas and normal squamous epithelium. There is no significant difference in mean methylation (across any feature) between HPV high viral load PeCa and normal (any viral load). Although there is a difference in the median age between patients in the differing HPV viral load groups, (age(median(range)): HPV high 55.6 (42- 76), low 62(41-76), negative 65.3 (50-85)), which has been previously associated with both DNA methylation loss and NCGN alterations. No significant differences were observed when comparing the methylation profiles from matched normal tissue across differing viral loads, suggesting age is not a contributing factor to the loss of methylation seen with differing HPV viral loads. Kolmogorov–Smirnov test was used to determine the differences between methylation states. **< 0.001

Supplementary Figure 3. Candidate PeCa driver mutations. The central heatmap shows the mutation status of potential drivers based on IntOgen analysis for each tumor. Somatic mutations are colored according to functional class (lower panel) The upper panel shows patient phenotype data for age, stage grade, Ti/Tv ratio and HPV viral status.

Supplementary Figure 4. A) Schematic of FAT1 is shown with locations of mutations. Arrowheads indicate the location of point mutations and boxes represent functional domains (TM, transmembrane; LAMG, laminin G domain; EGFCA, epidermal growth factor-like repeat; ßCat, putative ß-catenin binding regions). Red arrows denote frameshift or truncating mutations. B) Methylation states of PeCa and normal penile tissue across the canonical FAT1 gene A) B)

Supplementary Figure 5. A) Example plot of Copy Number Alterations (CNA) in penile cancers, showing the deletion of TP53 (chr17). B) 450K methylation profiles for penile cancer and normal squamous epithelium across the canonical genomic feature of TP53. C) Output from GISTIC showing the frequency and significance of CNAs (deletions = blue, gains = red) in penile cancer. A) C) B)