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Statistics — melanoma

Last curated: 2026-09-01. Every figure below carries its source, year, population and method. Conflicting estimates are shown side by side and are never averaged. All PMIDs were live-resolved from PubMed E-utilities on 2026-09-01.

Global burden

Measure Estimate Population / year Method Source
New cases worldwide 325,000 (174,000 M / 151,000 F) 2020 GLOBOCAN 2020 Arnold 2022, PMID 35353115
Deaths worldwide 57,000 (32,000 M / 25,000 F) 2020 GLOBOCAN 2020 PMID 35353115
New cases worldwide 331,722 2022 GLOBOCAN 2022 Wang 2025, PMID 39682020
Deaths worldwide 58,667 2022 GLOBOCAN 2022 PMID 39682020
New cases worldwide ~330,000 2022 GLOBOCAN + CI5plus + WHO mortality Oh 2026, PMID 42502459
Projected cases 510,000 (≈+50%) 2040, if 2020 rates hold rate-fixed projection PMID 35353115
Projected deaths 96,000 (+68%) 2040, if 2020 rates hold rate-fixed projection PMID 35353115
Age-standardised incidence 3.4 per 100,000 worldwide, 2020 CI5 / NORDCAN / SEER / IARC synthesis Huang 2023, PMID 37296344
Age-standardised mortality 0.55 per 100,000 worldwide, 2020 same PMID 37296344
Rank among cancers 17th most common worldwide, 2022 GLOBOCAN PMID 39682020
Share of cases attributable to UV radiation ~88% (5th-percentile reference population) worldwide, 2022 population attributable fraction PMID 42502459
Non-melanoma skin cancer deaths, for comparison 69,416 worldwide, 2022 GLOBOCAN PMID 39682020
Total cancer cases worldwide 20.6 million 2024 GLOBOCAN 2024 Sung 2026, PMID 42417444

Conflict to preserve: GLOBOCAN 2020 gives 325,000 cases and GLOBOCAN 2022 gives 331,722; these are different estimation vintages, not a measured 2% increase.

Geographic gradient (age-standardised incidence per 100,000 person-years, 2020)

Region Male Female Source
Australia / New Zealand 42 31 Arnold 2022, PMID 35353115
Western Europe 19 19 PMID 35353115
North America 18 14 PMID 35353115
Northern Europe 17 18 PMID 35353115
Most of Africa and Asia commonly <1 commonly <1 PMID 35353115
Queensland, Australia (invasive, 2010–2014) 72 (both sexes, age-standardised) Aitken 2018, PMID 29105744
Peak mortality (New Zealand) 5 per 100,000 PMID 35353115
Population Trend Period Source
US non-Hispanic White 20.7 (20.5–20.9) → 28.2 (28.0–28.5) per 100,000; APC 3.90% (2.36–5.48) 2001–2005, then 1.68% (1.37–1.99) 2001–2015 Thrift 2020, PMID 31346623
Europe, invasive (18 registries, 117 M people, ~415,000 lesions) AAPC 4.0% (M) / 3.0% (F) 1995–2012 Sacchetto 2018, PMID 29395684
Europe, in situ AAPC 7.7% (M) / 6.2% (F) 1995–2012 PMID 29395684
Europe, thin invasive AAPC 10% (M) / 8.3% (F) 1995–2012 PMID 29395684
Italy (21 registries, 15.8 M people) 3.6%/yr (3.2–4.0) M; 2.5%/yr (2.0–3.1) F 1994–2013 Bucchi 2021, PMID 33405292
Olmsted County, Minnesota (n = 2,310) 11.1-fold increase since the 1970s; 1.21-fold in the last decade 1970–2020 Reinhart 2024, PMID 38957842
Acral melanoma, Sweden (n = 1,000) No significant change in standardised incidence 1996–2020 Helkkula 2024, PMID 39140487
Uveal melanoma, US (n = 5,563) Mean age-adjusted incidence 5.6 per million (5.5–5.7); APC +0.5% in Whites 1975–2020 Weinberger 2025, PMID 40225965

Birth-cohort reversals

Population Finding Source
Queensland, Australia Age-specific invasive incidence falling under 40 from cohorts born ~mid-1960s, steepest for those born ~1980+ Aitken 2018, PMID 29105744
New South Wales, Australia Invasive incidence stable or falling under 60, rising ≥60 especially in men Blazek 2022, PMID 36174452
US non-Hispanic White 1991 cohort IRR 0.85 (0.77–0.94) vs 1956 cohort Thrift 2020, PMID 31346623
Sweden (34,800 melanomas, <60 years) Incidence peaked 2013–2015 in ages 20–49 then stable or declining; mortality fell in ages 30–59 but not ≥60 Helgadottir 2024, PMID 39245436
Canada Incidence falling in females <30 and males <40; cohorts born 1993–2007 lower than baby-boom reference O'Sullivan 2026, PMID 41932245
Italy Cohort IRR rose to the 1973 (F) / 1975 (M) cohorts then declined toward the 1949 reference Bucchi 2021, PMID 33405292
Iceland Invasive world-standardised rate peaked 2002–2006 then fell; melanoma mortality falling since 2012 Thomas 2025, PMID 39444324
Population Trend Period Source
US, all 2.7 → 2.0 per 100,000 (−1.3%/yr); 184,416 deaths 1999–2020 Didier 2024, PMID 38956559
US non-Hispanic White −6.1%/yr after 2013 2013–2020 PMID 38956559
US White, SEER-9 +7.5% overall 1986–2013, then −17.9% 2013–2016 (APC −6.2%, −8.7 to −3.7) 1986–2016 Berk-Krauss 2020, PMID 32191523
US White men ≥50 APC −8.3% (−12.2 to −4.1) from 2014 2014–2016 PMID 32191523
Australia Mortality down 40–50% over recent decades to 2010s De Pinto 2024, PMID 38391175
Germany vs 9 neighbouring countries (pooled APC) −1.8% (−2.3 to −1.4) vs −2.2% (−2.8 to −1.6); P = .42 2009–2022 Hübner 2026, PMID 42268621

Survival

Endpoint Value Population / era Source
US 5-year relative survival, metastatic melanoma 16% → 35% mid-1990s → 2015–2021 Siegel 2026, PMID 41528114
US 1-year net survival, distant stage ~43% (stable 2001–2010) → 58.9% (56.6–61.2) CONCORD-3, diagnosed 2013 Di Carlo 2020, PMID 33409455
Share of US melanomas diagnosed at distant stage 4.4% of 425,915 2001–2013 PMID 33409455
Melanoma-specific mortality, Olmsted County 26.7% (1970s) → 1.5% (2010s) 50-year cohort Reinhart 2024, PMID 38957842
5-year relative survival, cutaneous 89% SEER 1988–2010, n = 219,890 Bishop 2014, PMID 24272143
5-year relative survival, ocular 78% SEER 1988–2010, n = 7,069 PMID 24272143
5-year relative survival, mucosal 34% aggregate (range 3–69% by site) SEER 1988–2010, n = 2,755 PMID 24272143
5-year relative survival, uveal 82.8%, unchanged SEER 1975–2016 Weinberger 2025, PMID 40225965
5-year disease-specific survival, acral lentiginous 77.8% (75.9–79.9) SEER 2000–2016, n = 2,245 Yan 2022, PMID 34363907
15-year melanoma-specific survival after melanoma in situ 98.4% (98.3–98.5) SEER 2000–2018, n = 137,872 Patel 2023, PMID 37285145
15-year relative survival after melanoma in situ 112.4% (112.0–112.8) same PMID 37285145
All-cause SMR after melanoma in situ 0.68 (0.67–0.70) same PMID 37285145
Melanoma-specific SMR after melanoma in situ 1.89 (1.77–2.02) same PMID 37285145

Stage-specific survival (AJCC 8th edition)

Stage 5-year MSS, Ontario 2007–2012 (n = 6,414) 5-year DSS, Japan (n = 3,097) 3-year OS, SEER-18 2010–2015 (n = 126,408)
I 98.4% IA 97.9% / IB 96.2% IA 97% / IB 95%
II 82.5% IIA 94.1% / IIB 84.4% / IIC 72.2% IIA 87% / IIB 76% / IIC 57%
III 66.4% IIIA 87.5% / IIIB 72.6% / IIIC 55.3% / IIID 26.0% IIIA 86% / IIIB 69% / IIIC 56% / IIID 30%
IV 14.4% 24%

Sources: Hynes 2022, PMID 35778691; Fujisawa 2019, PMID 31023613; Tjokrowidjaja 2022, PMID 34811927. These are three different populations, eras and endpoints and are shown side by side rather than pooled. Note that stage IIC is worse than stage IIIA in all three.

Overdiagnosis estimates

Estimate Population Method Source
59% (95% CI 45–70) of White women; 60% (32–75) of White men US, diagnosed 2014 Black-patient mortality trends as marker for care improvement Adamson 2022, PMID 35293957
29–60% across three studies international scoping review of 35 studies various Bjørch 2024, PMID 37793786
>60–80% of melanoma in situ in some settings narrative review with systematic search elements various Greco 2026, PMID 42279200
6.9 extra melanomas per 1,000 additional biopsies (3.1–10.8), confined to in situ and local disease SEER, ≥65 years, 1986–2001 ecological, biopsy-rate linked Welch 2005, PMID 16081427
Melanoma listed among cancers where population data suggest overdiagnosis cross-cancer synthesis narrative Welch 2010, PMID 20413742

Counter-estimates and caveats. Incidence rose in almost every stratum defined by thickness/stage and small-area socioeconomic status in 58,000+ California melanomas, with the largest relative increases in regional, distant and ulcerated disease among low-SES men (Clarke 2017, PMID 28736233). County-level US incidence correlates with median household income (r = 0.43) and not with UV daily dose (r = 0.03), and correlates with melanoma mortality at only r = 0.09 against r = 0.96 for lung cancer in the same counties (Adamson 2022, PMID 36190719).

Diagnostic performance

Test Sensitivity Specificity Population Source
Dermoscopy vs naked eye (relative diagnostic OR) 15.6 (2.9–83.7); 9.0 (1.5–54.6) excluding two outliers 9 clinical-setting studies Vestergaard 2008, PMID 18616769
Dermoscopy, in-person vs image-based (RDOR) 4.6 (2.4–9.0) favouring in-person 103 cohorts, 42,788 lesions Dinnes 2018, PMID 30521682
RCM vs dermoscopy, any suspicious lesion (at fixed 90% sensitivity) 82% vs 42% 9 RCM datasets, 1,452 lesions Dinnes 2018, PMID 30521681
RCM vs dermoscopy, equivocal lesions 86% vs 49% 7 RCM datasets, 1,177 lesions PMID 30521681
Dermoscopy for amelanotic/hypomelanotic melanoma 61% (37–81) 90% (74–97) 7 studies, 1,111 lesions Lan 2020, PMID 31747045
RCM for amelanotic/hypomelanotic melanoma 67% (51–81) 89% (86–92) same PMID 31747045
Deep learning, pooled 82% (77–86) 87% (84–90); AUC 0.92 (0.89–0.94) 27 pooled studies Ye 2024, PMID 39088883
CNN vs 58 dermatologists dermatologists 86.6% ±9.3 CNN 82.5% vs dermatologists 71.3% at matched sensitivity 100-image test set Haenssle 2018, PMID 29846502
Nodal ultrasound surveillance 0.879 (0.878–0.879) 0.969 (0.968–0.970); DOR 224.5 36 studies, 18,273 patients Liu 2024, PMID 38635019
FDG-PET for melanoma metastases 0.79 (0.66–0.93) 0.86 (0.78–0.95); DOR 33.1 6 poolable studies Mijnhout 2001, PMID 11301402
7-point checklist, prospective 62% 97% 688 high-risk patients, 10 years Haenssle 2010, PMID 20226567
7-point checklist, retrospective (for contrast) 78–95% 65–87% literature PMID 20226567

Diagnostic reproducibility

Interpretation class Intraobserver reproducibility Accuracy vs expert consensus Source
Nevus / mild atypia 76.7% 92% (90–94) Elmore 2017, PMID 28659278
Moderate atypia 35.2% 25% (22–28) PMID 28659278
Severe atypia / melanoma in situ 59.5% 40% (37–44) PMID 28659278
pT1a invasive melanoma 63.2% 43% (39–46) PMID 28659278
≥pT1b invasive melanoma 82.6% 72% (69–75) PMID 28659278
Population-level verification by expert panel 82.8% (81.0–84.5) verified; 8.0% overinterpreted; 9.2% underinterpreted PMID 28659278
Misclassification, general pathologists no second opinion 52.8% (51.3–54.3) Piepkorn 2019, PMID 31603483
Misclassification, universal dermatopathologist second opinions 36.7% (33.1–40.7) PMID 31603483

Number needed to excise / biopsy

Setting NNE / NNB Source
Single German academic department, 118,668 pigmented lesions, 2004–2013 17.2 Schreieder 2024, PMID 39682200
US academic centre, 2,643 biopsies in one year (PPV 6.4%, 5.5–7.4) ~16 Soltani-Arabshahi 2015, PMID 25582536
MoleMap NZ teledermoscopy, 1,571 lesions with pathology 6 (benign:malignant 5.0:1) Greenwald 2021, PMID 32114083
Referral centre with adjunctive RCM (randomised) 3.0 vs 5.3 without (−43.4%) Pellacani 2022, PMID 35648432

Risk factors — relative risks

Factor Comparison RR / OR (95% CI) Source
Common nevi 101–120 vs <15 6.89 (4.63–10.25) Gandini 2005, PMID 15617989
Common nevi per additional nevus 1.017 (1.014–1.020) Olsen 2010, PMID 20086181
Atypical nevi 5 vs 0 6.36 (3.80–10.33) PMID 15617989
Atypical nevi ≥1 vs 0 3.63 (2.85–4.62) PMID 20086181
Pre-malignant / skin-cancer lesions present vs absent 4.28 (2.80–6.55) Gandini 2005, PMID 16125929
Red vs dark hair 3.64 (2.56–5.37) PMID 16125929
Freckle density high vs low 2.10 (1.80–2.45) PMID 16125929
Skin type I vs IV 2.09 (1.67–2.58) PMID 16125929
Family history positive vs negative 1.74 (1.41–2.14) PMID 16125929
Personal history of melanoma vs none 7.28 / 7.24 (sex-specific) Mar 2011, PMID 21605094
Indoor tanning ever vs never 1.27 (1.16–1.39) An 2021, PMID 34885049
Indoor tanning, early-onset melanoma ever vs never 1.75 (1.14–2.69) PMID 34885049
Indoor tanning (earlier meta-analysis, 27 studies) ever vs never 1.20 (1.08–1.34) Gandini 2019, PMID 30811691
Sunburn history (Fitzpatrick I–IV) adjusted 1.23 (1.04–1.46) Kwa 2025, PMID 39230206
Childhood sunburn (Mendelian randomisation) genetic liability OR 6.317 (4.479–8.909) Liu 2024, PMID 37712456
Ease of skin tanning (Mendelian randomisation) genetic liability OR 2.842 (2.468–3.274) PMID 37712456
Vitamin D (Mendelian randomisation) per 20 nmol/L decrease 1.06 (0.95–1.19); meta 1.02 (0.92–1.13) — null Liyanage 2020, PMID 31218665

Population attributable fractions: ≥1 atypical nevus 0.25; ≥25 common nevi 0.42; 0–10 nevi 0.04 (Olsen 2010, PMID 20086181).

Germline prevalence

Measure Value Population Source
Combined pathogenic-variant prevalence, 8 familial melanoma genes 0.5% (Geisinger MyCode) to 0.9% (UK Biobank) 696,665 genomically ascertained individuals Goldstein 2026, PMID 42201696
Above the 2.5% testing threshold only in multiple primaries or first melanoma <40 years same PMID 42201696
CDKN2A share of familial melanoma ~40% high-density pedigrees Robles-Espinoza 2014, PMID 24686849
CDKN2A p.Arg112dup carriers, pancreatic cancer RR 43.8 (13.8–139.0) Swedish founder cohort Helgadottir 2014, PMID 24935963
CDKN2A p16-affecting variants, families with pancreatic cancer 58% (95/163) vs 0% of p14ARF-only families (0/9) 172 Dutch families, 649 carriers Overbeek 2021, PMID 32482799
CDKN2A carriers, cumulative PDAC incidence to age 70 20.7% 347 carriers, 20-year prospective surveillance Klatte 2022, PMID 35658523
Heritable retinoblastoma survivors, 50-year cumulative melanoma incidence 4.5% 1,020 heritable survivors Kleinerman 2021, PMID 34153328
Non-heritable retinoblastoma survivors, same 0.7% 831 non-heritable survivors PMID 34153328
Heritable retinoblastoma survivors, any-SMN SIR 11.9 (10.4–13.5) 1,128 heritable survivors Schonfeld 2021, PMID 33473166
Non-heritable retinoblastoma survivors, any-SMN SIR 0.8 (0.5–1.2) 924 non-heritable survivors PMID 33473166

Driver mutation frequencies

Population BRAF NRAS Other Source
German routine care (n = 217) 40.1% 24.4% 2.3% concurrent; 33.2% wild-type for tested exons Heppt 2017, PMID 28797232
Japanese cutaneous (n = 37) 76% 8% Hida 2024, PMID 39564955
Japanese acral (n = 52) 9% 17% KRAS 8%, KIT 19%, NF1 7% PMID 39564955
KIT, pooled 32 studies (n = 5,224) 9.5% (497/5,224) Gong 2018, PMID 29746316
TERT promoter, sporadic melanoma 74% of metastatic cell lines, 85% of metastatic tissues, 33% of primaries Horn 2013, PMID 23348503
GNAQ/GNA11, uveal melanoma 83% carry a mutation in one Van Raamsdonk 2010, PMID 21083380
TERT promoter, intermediate lesions and melanoma in situ 77% Shain 2015, PMID 26559571

Treatment effect sizes — headline randomised results

Trial Comparison Result Source
CheckMate 067 (10-year) nivo+ipi vs nivo vs ipi median OS 71.9 / 36.9 / 19.9 months; HR 0.53 (0.44–0.65) and 0.63 (0.52–0.76) vs ipi Wolchok 2025, PMID 39282897
KEYNOTE-006 pembrolizumab vs ipilimumab 24-month OS 55% / 55% / 43%; HR 0.68 both schedules Schachter 2017, PMID 28822576
Ipilimumab pooled (n = 1,861) median OS 11.4 months; plateau at 22% from ~year 3 Schadendorf 2015, PMID 25667295
RELATIVITY-047 (4-year) nivo+relatlimab vs nivo 4-year PFS 30.6% vs 23.6%; OS 52.0% vs 42.8% Lipson 2025, PMID 40513285
DREAMseq immunotherapy first vs targeted first 2-year OS 71.8% vs 51.5%, P = .010 Atkins 2023, PMID 36166727
COLUMBUS (7-year) enco+bini vs vemurafenib 7-year PFS 21.2% vs 6.4%; OS 27.4% vs 18.2% Schadendorf 2024, PMID 38723373
COMBI-d/v pooled (5-year) dabrafenib+trametinib 5-year PFS 19%, OS 34% Robert 2019, PMID 31166680
EORTC 18071 adjuvant ipilimumab vs placebo OS HR 0.73 (0.60–0.89), P = .002; 8.7% absolute difference at 7 years Eggermont 2019, PMID 31400634
COMBI-AD (final) adjuvant dab+tram vs placebo OS HR 0.80 (0.62–1.01), P = .06; RFS HR 0.52 (0.43–0.63) Long 2024, PMID 38899716
KEYNOTE-054 adjuvant pembrolizumab vs placebo 3.5-year DMFS 65.3% vs 49.4%, HR 0.60 (0.49–0.73) Eggermont 2021, PMID 33857412
KEYNOTE-716 (52.8 months) adjuvant pembrolizumab, stage IIB/C RFS HR 0.62 (0.50–0.78); DMFS HR 0.59 (0.45–0.77); PRFS2 HR 0.75 (0.56–1.01) Luke 2025, PMID 40198940
CheckMate 76K adjuvant nivolumab, stage IIB/C RFS HR 0.42 (0.30–0.59); 12-month RFS 89.0% vs 79.4% Kirkwood 2023, PMID 37845511
SWOG S1801 neoadjuvant-adjuvant vs adjuvant pembrolizumab 2-year EFS 72% vs 49%, P = .004 Patel 2023, PMID 36856617
NADINA neoadjuvant ipi+nivo vs adjuvant nivo 12-month EFS 83.7% vs 57.2%; HR 0.32 (0.15–0.66) Blank 2024, PMID 38828984
MSLT-II completion dissection vs observation 3-year MSS 86% vs 86%, P = .42; lymphoedema 24.1% Faries 2017, PMID 28591523
DeCOG-SLT completion dissection vs observation 5-year DMFS 64.9% vs 67.6% Leiter 2019, PMID 31557067
Swedish margins trial (19.6 years) 2 cm vs 4 cm melanoma-specific HR 0.95 (0.78–1.16), P = .61 Utjés 2019, PMID 31280965
UK margins trial (8.8 years) 1 cm vs 3 cm melanoma-specific HR 1.24 (1.01–1.53), P = .041 Hayes 2016, PMID 26790922
Margins meta-analysis (7 RCTs, n = 4,579) narrow vs wide all endpoints non-significant; melanoma death RR 1.11 (0.96–1.28) Hanna 2021, PMID 33722422
TIL vs ipilimumab phase 3, 86% anti-PD-1 refractory median PFS 7.2 vs 3.1 months, HR 0.50 (0.35–0.72); ORR 49% vs 21% Rohaan 2022, PMID 36477031
Tebentafusp (5-year) vs investigator's choice, uveal median OS 21.6 vs 16.9 months, HR 0.67 (0.54–0.85); 5-year OS 16% vs 8% Piperno-Neumann 2026, PMID 42162665
ABC (7-year) ipi+nivo vs nivo, brain metastases intracranial response 51% vs 20%; 7-year OS 48% vs 26% Long 2025, PMID 39978375
WBRT-Mel adjuvant whole-brain RT vs observation distant intracranial failure at 12 months 42.0% vs 50.5%, P = .22 Hong 2019, PMID 31553661
Nambour sunscreen trial daily vs discretionary sunscreen melanoma HR 0.50 (0.24–1.02), P = .051; invasive HR 0.27 (0.08–0.97) Green 2011, PMID 21135266
MELFO reduced vs conventional follow-up recurrence HR 0.87 (0.54–1.39), P = .57; DFS HR 1.00 Moncrieff 2022, PMID 35866644
German population screening (ecological) Germany vs 9 neighbours pooled APC −1.8% vs −2.2%, P = .42 Hübner 2026, PMID 42268621

Toxicity

Regimen / measure Value Source
Grade 3/4 TRAEs, adjuvant nivolumab (stage III/IV) 14.4% Weber 2017, PMID 28891423
Grade 3/4 TRAEs, adjuvant ipilimumab 10 mg/kg 45.9% PMID 28891423
Grade 3/4 TRAEs, adjuvant nivolumab (stage IIB/C) 10.3% (vs 2.3% placebo) Kirkwood 2023, PMID 37845511
Grade 3/4 TRAEs, nivolumab + relatlimab 18.9% (vs 9.7% nivolumab) Tawbi 2022, PMID 34986285
Grade 3–4 immune-related events, neoadjuvant ipi 3 + nivo 1 40% Rozeman 2019, PMID 31160251
Grade 3–4 immune-related events, neoadjuvant ipi 1 + nivo 3 20% PMID 31160251
Grade 3–4 immune-related events, neoadjuvant sequential ipi→nivo 50% (accrual closed early) PMID 31160251
Any-grade colitis (pooled RCTs) 14.5% Da 2019, PMID 32082164
Any-grade hypothyroidism 13.8% PMID 32082164
Any-grade hepatitis 10.4% PMID 32082164
Any-grade hypophysitis 10.0% PMID 32082164
Any-grade pneumonitis 4.6% PMID 32082164
Colitis risk, combination vs monotherapy RR 3.56 (1.56–8.12) PMID 32082164
Fatal checkpoint toxicity reports (global) 613 events, 2009–Jan 2018; anti-CTLA-4 deaths 70% colitis Wang 2018, PMID 30242316
Checkpoint myotoxicity at 6 months 0.7–0.9% of 172,363 treated adults Salem 2026, PMID 40884033
Chronic events persisting >12 weeks after adjuvant anti-PD-1 43.2% of 387 patients; 96.4% grade 1–2, most unresolved Patrinely 2021, PMID 33764387
Endocrine toxicity overall 25–50% of recipients depending on regimen Wright 2023, PMID 36481794
Lymphoedema after completion dissection 24.1% Faries 2017, PMID 28591523
Transplant recipients: acute rejection at 1 year on checkpoint inhibitors 36.2% (30.7–41.7) Saleem 2025, PMID 40545616
Transplant recipients: graft loss at 1 year 18.4% (13.7–23.1) PMID 40545616
Transplant recipients: objective response at 1 year 31.6% (25.0–37.7) PMID 40545616

Economic and life-years burden

Measure Value Population / era Source
Adults treated for any skin cancer, annual 6.1 million (5.6–6.6) US, 2016–2018 Kao 2023, PMID 36449145
Annual US skin-cancer treatment cost $8.0 bn (2012–15) → $8.9 bn (2016–18) US, MEPS PMID 36449145
Adults with melanoma, annual 0.70 million (0.61–0.78) US, MEPS 2011–2020 Olateju 2024, PMID 39612258
Total annual expenditure per person with melanoma $19,427 (vs $13,744 NMSC, $23,741 other cancers) same PMID 39612258
Adjusted marginal expenditure, melanoma vs other cancers −$3,369 (−$5,934 to −$804) same PMID 39612258
Years of life lost per metastatic patient, Australia 19.9 (M) / 22.7 (F) 12-country model, 2014 Thiam 2016, PMID 26531249
Years of life lost per metastatic patient, US 17.9 (M) / 20.6 (F) same PMID 26531249
SunSmart Victoria: DALYs averted since 1988 28,000 (≈22,000 life-years); AU$2.30 returned per dollar Australia, modelled Shih 2009, PMID 19747936
3D total-body photography, incremental cost US$945 per person (738–1,157) over 24 months, no QALY difference randomised, Australia Lindsay 2025, PMID 40136266

Known conflicts and caveats

  1. Two GLOBOCAN vintages give different global case counts (325,000 for 2020; 331,722 for 2022). They are separate estimation exercises, not a measured trend (PMID 35353115; PMID 39682020).
  2. Incidence is a poor proxy for occurrence in this disease. US county-level incidence correlates with melanoma mortality at r = 0.09 versus r = 0.96 for lung cancer in the same counties (PMID 36190719).
  3. Overdiagnosis estimates range 29–60% and rest on different comparison series with different assumptions; they are not interchangeable (PMID 35293957; PMID 37793786).
  4. Stage-specific survival tables from Ontario, Japan and SEER are not poolable — different eras, endpoints (MSS / DSS / OS) and follow-up windows (PMID 35778691; PMID 31023613; PMID 34811927).
  5. Stage IIC has worse survival than stage IIIA in every validation cohort here. This is a real finding, not a data error (PMID 31401470; PMID 31023613; PMID 31977051).
  6. AJCC 7 and AJCC 8 stage III figures are not comparable. Reclassification moved 44–57% of stage III patients between subgroups, improving every subgroup's apparent survival by migration alone (PMID 35778691; PMID 31111349).
  7. Relative survival above 100% after melanoma in situ (112.4%) indicates selection: these patients are healthier and better-surveilled than the general population (PMID 37285145).
  8. Prospective and retrospective diagnostic-algorithm performance differ substantially — the 7-point checklist loses ~20 sensitivity points prospectively (PMID 20226567).
  9. Number needed to excise is a property of the setting, ranging 3.0 to 17.2 across the four settings tabulated above.
  10. Registrational trial populations were overwhelmingly White and cutaneous. Anti-PD-1 objective response was 54% in White versus 20% in East Asian, Hispanic and African patients in one 1,135-patient multicentre series (PMID 35293617); acral first-line response was 15.0% versus 39.1% for cutaneous in a predominantly White Spanish registry (PMID 40841506).
  11. Adjuvant trial results are recurrence endpoints. Only EORTC 18071 shows a significant overall-survival benefit; COMBI-AD missed at P = .06 with 8.33 years of follow-up, and trial-level surrogacy of RFS for OS is R² = 0.59 (95% CI 0.08–1.00) (PMID 31400634; PMID 38899716; PMID 32777716).
  12. Neoadjuvant results rest on short follow-up — NADINA's headline figure comes from a median 9.9 months (PMID 38828984).
  13. Melanoma-specific FDG-PET meta-analysis remains technologically dated. The 2001 analysis searched through 1999; a second meta-analysis published in 2010 included studies only through 2006 and found scan-level specificity 0.86 (95% CI 0.77–0.92), positive likelihood ratio 5.86 (3.64–9.43) and diagnostic odds ratio 37.89 (15.80–90.86), with heterogeneity in other estimates (PMID 11301402; PMID 19727717).
  14. The Schonfeld 3.1–17 figure is a range across melanoma, CNS, oral-cavity and breast subsequent neoplasms, not a melanoma-specific SIR. Melanoma-specific figures come from a different cohort (PMID 33473166; PMID 34153328).