Periodic table of specific heat capacity

Interactive periodic table of specific heat capacity in J/g·°C. ElementWorks is a free interactive periodic table: hover an element to preview it, click it for its full card, or pick another view from the Show menu.

Periodic table of specific heat capacity explained

Specific heat is the energy needed to raise the temperature of one gram of a substance by one degree Celsius. Metals such as lead and gold have low values, so they heat up quickly, while light elements such as lithium, beryllium and hydrogen have high values. It is used in calorimetry through q = m × c × ΔT.

Highest values

  1. Hydrogen (H): 14.3 J/g·°C
  2. Helium (He): 5.193 J/g·°C
  3. Lithium (Li): 3.582 J/g·°C
  4. Beryllium (Be): 1.825 J/g·°C
  5. Sodium (Na): 1.228 J/g·°C

Lowest values

  1. Radon (Rn): 0.094 J/g·°C
  2. Thorium (Th): 0.113 J/g·°C
  3. Uranium (U): 0.116 J/g·°C
  4. Bismuth (Bi): 0.122 J/g·°C
  5. Gold (Au): 0.129 J/g·°C

Data table

Show the full data table (all 118 elements)
Specific heat (J/g·°C) of all 118 elements
No.SymbolElementSpecific heat (J/g·°C)
1HHydrogen14.3 J/g·°C
2HeHelium5.193 J/g·°C
3LiLithium3.582 J/g·°C
4BeBeryllium1.825 J/g·°C
5BBoron1.026 J/g·°C
6CCarbon0.709 J/g·°C
7NNitrogen1.04 J/g·°C
8OOxygen0.918 J/g·°C
9FFluorine0.824 J/g·°C
10NeNeon1.03 J/g·°C
11NaSodium1.228 J/g·°C
12MgMagnesium1.023 J/g·°C
13AlAluminium0.897 J/g·°C
14SiSilicon0.705 J/g·°C
15PPhosphorus0.769 J/g·°C
16SSulfur0.71 J/g·°C
17ClChlorine0.479 J/g·°C
18ArArgon0.52 J/g·°C
19KPotassium0.757 J/g·°C
20CaCalcium0.647 J/g·°C
21ScScandium0.568 J/g·°C
22TiTitanium0.523 J/g·°C
23VVanadium0.489 J/g·°C
24CrChromium0.449 J/g·°C
25MnManganese0.479 J/g·°C
26FeIron0.449 J/g·°C
27CoCobalt0.421 J/g·°C
28NiNickel0.444 J/g·°C
29CuCopper0.385 J/g·°C
30ZnZinc0.388 J/g·°C
31GaGallium0.371 J/g·°C
32GeGermanium0.32 J/g·°C
33AsArsenic0.329 J/g·°C
34SeSelenium0.321 J/g·°C
35BrBromine0.474 J/g·°C
36KrKrypton0.248 J/g·°C
37RbRubidium0.363 J/g·°C
38SrStrontium0.301 J/g·°C
39YYttrium0.298 J/g·°C
40ZrZirconium0.278 J/g·°C
41NbNiobium0.265 J/g·°C
42MoMolybdenum0.251 J/g·°C
43TcTechnetium0.21 J/g·°C
44RuRuthenium0.238 J/g·°C
45RhRhodium0.243 J/g·°C
46PdPalladium0.246 J/g·°C
47AgSilver0.235 J/g·°C
48CdCadmium0.232 J/g·°C
49InIndium0.233 J/g·°C
50SnTin0.228 J/g·°C
51SbAntimony0.207 J/g·°C
52TeTellurium0.202 J/g·°C
53IIodine0.214 J/g·°C
54XeXenon0.158 J/g·°C
55CsCesium0.242 J/g·°C
56BaBarium0.204 J/g·°C
57LaLanthanum0.195 J/g·°C
58CeCerium0.192 J/g·°C
59PrPraseodymium0.193 J/g·°C
60NdNeodymium0.19 J/g·°C
61PmPromethium—
62SmSamarium0.197 J/g·°C
63EuEuropium0.182 J/g·°C
64GdGadolinium0.236 J/g·°C
65TbTerbium0.182 J/g·°C
66DyDysprosium0.17 J/g·°C
67HoHolmium0.165 J/g·°C
68ErErbium0.168 J/g·°C
69TmThulium0.16 J/g·°C
70YbYtterbium0.155 J/g·°C
71LuLutetium0.154 J/g·°C
72HfHafnium0.144 J/g·°C
73TaTantalum0.14 J/g·°C
74WTungsten0.132 J/g·°C
75ReRhenium0.137 J/g·°C
76OsOsmium0.13 J/g·°C
77IrIridium0.131 J/g·°C
78PtPlatinum0.133 J/g·°C
79AuGold0.129 J/g·°C
80HgMercury0.14 J/g·°C
81TlThallium0.129 J/g·°C
82PbLead0.129 J/g·°C
83BiBismuth0.122 J/g·°C
84PoPolonium—
85AtAstatine—
86RnRadon0.094 J/g·°C
87FrFrancium—
88RaRadium—
89AcActinium—
90ThThorium0.113 J/g·°C
91PaProtactinium—
92UUranium0.116 J/g·°C
93NpNeptunium—
94PuPlutonium—
95AmAmericium—
96CmCurium—
97BkBerkelium—
98CfCalifornium—
99EsEinsteinium—
100FmFermium—
101MdMendelevium—
102NoNobelium—
103LrLawrencium—
104RfRutherfordium—
105DbDubnium—
106SgSeaborgium—
107BhBohrium—
108HsHassium—
109MtMeitnerium—
110DsDarmstadtium—
111RgRoentgenium—
112CnCopernicium—
113NhNihonium—
114FlFlerovium—
115McMoscovium—
116LvLivermorium—
117TsTennessine—
118OgOganesson—

Frequently asked questions

What is the formula for specific heat?

q = m × c × ΔT, where q is heat in joules, m is mass in grams, c is specific heat in J/g·°C and ΔT is the change in temperature in °C.

Which element has the highest specific heat?

Hydrogen, at about 14.3 J/g·°C in this table, followed by helium and lithium.

Why do metals heat up quickly?

Heavy metal atoms store little energy per gram, so a small input of heat produces a large temperature rise.

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