CC to Grams Converter

Convert cc (cubic centimeters, equal to mL) to grams using each substance density.

Convert 22 substances Bidirectional
Rate this calculator · 5.0 (1)

CC ↔ Grams

1 cc = 1 mL · density-aware · 22 substances

Instructions — CC to Grams Converter

1

Pick the substance

The list sets the density. Water at 4°C is the reference at 1.000 g/mL. Honey is 1.42 g/mL (heavier), gasoline 0.737 g/mL (lighter), mercury an extreme 13.55 g/mL. Without the right substance, a single cc-to-gram answer cannot be correct.

2

Enter cc or grams

Type into either field, the other updates. Quick picks cover 1, 5, 10, 25, 100, 250, 500, and 1000 cc — spanning syringe doses (1 to 25 cc) up to a litre (1000 cc).

3

Pick the precision

Two decimals fit kitchen and medical work. Raise to 4 for laboratory or industrial use where 0.01 g matters. Drop to 0 for ballpark mental check.

cc = mL: 1 cc = 1 cm³ = 1 mL exactly. The three labels mean the same volume; the calculator treats them as identical.
Quick rule: for water and water-based liquids, cc and grams match within 1 percent. For oils subtract about 8 percent; for honey add about 42 percent.

Formulas

Mass equals volume times density. The cc and the mL are identical (both are 1 cm³), so this is the simplest density problem in metrology.

CC to Grams
$$ m_g = V_{cc} \times \rho_{g/mL} $$
Multiply volume in cc by density in grams per millilitre. 100 cc water × 1.000 = 100 g; 100 cc honey × 1.42 = 142 g.
Grams to CC
$$ V_{cc} = \frac{m_g}{\rho_{g/mL}} $$
Divide mass by density to get volume back. 100 g of oil ÷ 0.920 g/mL = 108.7 cc.
CC and mL Equality
$$ 1\,\text{cc} = 1\,\text{cm}^3 = 1\,\text{mL} $$
All three labels describe the same unit of volume. 1 cc is the volume of a cube 1 cm on each side, defined by SI.
Density Definition
$$ \rho = \frac{m}{V} $$
Density is mass per unit volume. The SI unit is kg/m³, but g/mL is more practical for kitchen and lab work. 1 g/mL = 1000 kg/m³.
Temperature Correction
$$ \rho(T) \approx \rho_0 \left[1 - \beta (T - T_0)\right] $$
Liquid density falls as temperature rises. β for water is about 0.000207 per °C; for olive oil 0.00070 per °C, so kitchen-temperature changes matter most for fats.
Why Mercury is so Heavy
$$ 1\,\text{cc Hg} = 13.546\,\text{g} $$
Mercury is the only metal liquid at room temperature. Its atoms are large (atomic mass 200.6) yet pack tightly, giving the highest density of any common liquid.

Reference

CC to Grams — Common Liquids (1 cc = 1 mL)
SubstanceDensity (g/mL)10 cc =? g100 cc =? g1000 cc =? g
Water (4°C)1.00010.0 g100.0 g1000 g
Water (20°C)0.9989.98 g99.8 g998 g
Whole milk1.02710.3 g102.7 g1027 g
Skim milk1.03510.4 g103.5 g1035 g
Heavy cream1.01210.1 g101.2 g1012 g
Vegetable oil0.9209.20 g92.0 g920 g
Olive oil0.9169.16 g91.6 g916 g
Honey1.42014.2 g142.0 g1420 g
Maple syrup1.38013.8 g138.0 g1380 g
Vinegar1.00610.1 g100.6 g1006 g
Orange juice1.04110.4 g104.1 g1041 g
Ethanol (96%)0.7907.9 g79.0 g790 g
Glycerin1.26112.6 g126.1 g1261 g
Gasoline0.7377.37 g73.7 g737 g
Diesel0.8408.40 g84.0 g840 g
Mercury13.546135.5 g1354.6 g13546 g
Sea water1.02510.25 g102.5 g1025 g
Blood (whole)1.06010.6 g106.0 g1060 g

cc vs mL vs cm³

All three labels are the same volume. The choice is a regional and disciplinary habit, not a measurement difference.

Volume labels
LabelField
ccmedical, engineering
mLkitchen, modern lab
cm³physics, math
1 L= 1000 cc
1 fl oz (US)= 29.57 cc
Density milestones
Substanceg/mL
Air at sea level0.00120
Gasoline0.737
Water1.000
Honey1.420
Glycerin1.261
Mercury13.546

Source: NIST Chemistry WebBook, CRC Handbook of Chemistry and Physics, and USDA FoodData Central. Densities are 20 °C unless noted; food values are typical averages across commercial brands.

Article — CC to Grams Converter

CC to Grams Converter: Volume to Mass by Density

A cc to grams conversion multiplies a volume in cubic centimeters (cc, identical to a millilitre) by the substance density in g/mL. Water is the anchor at 1.000 g/mL, so 100 cc of water = 100 g. Honey is 1.42 g/mL (100 cc = 142 g), gasoline 0.737 g/mL (100 cc = 73.7 g), and mercury 13.546 g/mL (100 cc = 1354.6 g). Pick the substance first; the math is one multiplication.

What cc to grams conversion is

A cc to grams conversion answers the question “how much does this volume weigh?” for a specific substance. Mass equals volume times density. The cc (cubic centimeter) is a volume unit; the gram is a mass unit; the density of the substance in g/mL is the bridge.

The conversion is needed because most fluids look similar but weigh very differently. A 1-litre bottle of olive oil weighs 916 g, the same bottle of honey 1420 g, the same bottle of mercury 13.5 kg. A balance and a measuring cup disagree by the density factor.

Why cc to grams depends on density

Density (rho) is mass per unit volume. The SI unit is kg/m³, but kitchens, hospitals, and chemistry labs almost always quote g/mL, which equals kg/L. Water at its maximum density (4 °C) is the historical anchor at exactly 1.000 g/mL, which is why the gram was originally defined as the mass of 1 mL of water.

Did you know

From 1799 until 1889 the kilogram was defined as the mass of one cubic decimeter (1 L) of pure water at 4 °C. That definition is what makes the cc to grams conversion for water come out to a clean 1:1, and the metric system feels intuitive in kitchens.

Once water is fixed at 1.000, every other liquid’s density expresses how much heavier or lighter it is per cc. Ethanol (96 percent) is 0.790 g/mL, so 100 cc weighs only 79 g. Honey is 1.420 g/mL, so 100 cc weighs 142 g. The same volume, the same vessel, almost double the mass.

cc vs mL vs cm³

cc, mL, and cm³ describe the same volume exactly. The choice of label is regional and disciplinary: cc is older and still standard in medicine (syringe volumes, engine displacement), mL is the modern kitchen and laboratory form, cm³ is the math and physics notation. A 5 cc dose, a 5 mL dose, and a 5 cm³ dose are identical.

  • 1 cc = 1 cm³ = 1 mL
  • 1 L = 1000 cc = 1000 mL
  • 1 fl oz (US) = 29.57 cc
  • 1 cup (US) = 236.6 cc
  • 1 cc water = 1.000 g at 4 °C, 0.998 g at 20 °C
  • Medical syringes still carry cc markings (1, 3, 5, 10, 20, 60 cc)

CC to grams for water and watery liquids

Water is the simple case. 1 cc of pure water at 4 °C weighs exactly 1 g; at 20 °C it weighs 0.998 g. Any water-based liquid stays within a few percent of that anchor. Whole milk is 1.027 g/mL, skim milk 1.035, heavy cream 1.012, juice 1.04, vinegar 1.006, sea water 1.025, whole blood 1.060. For most home cooks, the “1 cc = 1 g” shortcut is good enough for any watery liquid.

The exceptions are concentrated sugar solutions and salt brines. A 50 percent sugar syrup runs near 1.21 g/mL, and saturated brine near 1.20 g/mL. The density rises with dissolved solids, so dense soups and reduction sauces weigh more per cc than the same volume of broth.

CC to grams for oils and fuels

Cooking oils and petroleum fuels are lighter than water because their molecules are mostly carbon and hydrogen with no oxygen-rich packing. All edible oils sit near 0.92 g/mL (vegetable, olive, sunflower, rapeseed, coconut). Diesel is 0.84 g/mL, gasoline 0.737 g/mL, kerosene 0.81 g/mL. A 1-litre bottle of olive oil weighs 916 g and a 60-litre car tank of gasoline holds 44.2 kg.

Gasoline
0.737 g/cc
73.7 g per 100 cc
Olive oil
0.916 g/cc
91.6 g per 100 cc
Water
1.000 g/cc
100 g per 100 cc

CC to grams for syrups and honey

Honey, maple syrup, molasses, and corn syrup are denser than water because they are concentrated sugar solutions with very little free water. Honey at 1.42 g/mL is the densest liquid most kitchens see. 1 cup (236.6 cc) of honey weighs 336 g, against 240 g for the same cup of water. Maple syrup at 1.38 g/mL gives 326 g per cup.

Tip

Recipes that swap honey for sugar by volume always end up with more sweetener by mass, because honey is denser. To replace 200 g of sugar with honey, use 141 cc (about two thirds of a cup), not 240 cc.

CC to grams for medical and lab use

Medicine still labels syringes in cc. A 10 cc syringe of saline holds ≈10.05 g (0.9% saline density 1.0046 g/mL). A 5 cc dose of blood thinner is 5.3 g. For pediatric dosing the FDA has since 2011 required mL labelling on all over-the-counter liquid medicines and banned the “teaspoon” label, but the cc syringe persists in injectables and IV lines.

Chemistry labs prefer mL on glassware and grams on balances. Converting between the two relies on knowing the substance density to four significant figures, which is published in the NIST Chemistry WebBook and the CRC Handbook of Chemistry and Physics for thousands of compounds.

Common cc to grams mistakes

The biggest mistake is treating cc and grams as equal for everything. The 1:1 ratio holds only for water. Even close-to-water liquids drift by 2 to 6 percent: milk is 2.7 percent heavier, juice 4 percent heavier, vinegar 0.6 percent heavier. Oils are 8 percent lighter. Honey is 42 percent heavier. Gasoline is 26 percent lighter.

Don’t confuse cc with cm and m³

cc is a volume (cubic centimeter). cm is a length. m³ is also a volume but a million times larger (1 m³ = 1,000,000 cc). Mislabelling the unit on a chemistry exam or a pharmacy prescription has caused real medication errors.

The second mistake is ignoring temperature. Most fluids lose density as they warm. Water drops from 1.000 g/mL at 4 °C to 0.971 g/mL at 80 °C. Cooking oils change about 0.07 percent per °C. For typical room-temperature kitchen work the change is negligible, but in industrial fuel storage the few percent volume swing matters and is corrected to 15 °C standard.

CC to grams cheat sheet
Water cc × 1.00
Milk / juice cc × 1.04
Cooking oil cc × 0.92
Honey cc × 1.42
Maple syrup cc × 1.38
Ethanol 96% cc × 0.79
Gasoline cc × 0.74
Mercury cc × 13.55

FAQ

1 cc of water at 4°C = 1.000 g exactly; at room temperature (20°C) it is 0.998 g. The kilogram was originally defined as the mass of 1 L of water, which is why the numbers line up cleanly. For other substances, multiply cc by the density in g/mL.
Yes, exactly. 1 cc = 1 cm³ = 1 mL. The cc label is older and common in medicine and engineering; mL is the modern SI-recommended form. The volume is identical, and the calculator treats them as equal.
100 cc of whole milk ≈ 102.7 g (density 1.027 g/mL). Skim milk is slightly heavier at 103.5 g per 100 cc because removing the fat leaves more protein and lactose by volume. Heavy cream is between the two at 101.2 g per 100 cc.
100 cc of vegetable oil ≈ 92.0 g; olive oil 91.6 g; coconut oil 92.4 g. All edible oils sit near 0.92 g/mL because they are mostly triglycerides. A 1-liter bottle of olive oil weighs roughly 916 g, not 1000 g.
1 cc of mercury = 13.546 g. Mercury is the densest common liquid; a 10-cc syringe of it weighs more than a 100-cc syringe of water (135.5 g vs 100 g). This is why mercury thermometers and barometers used so little of it.
1 cc of honey ≈ 1.42 g. A standard 250-cc jar of honey weighs about 355 g, plus the jar. Maple syrup is slightly less dense at 1.38 g/mL, light corn syrup is 1.38 g/mL, and molasses is 1.40 to 1.45 g/mL.
1 cc of gasoline ≈ 0.737 g. A liter of gasoline weighs 737 g, lighter than water, which is why fuel floats. Diesel at 0.84 g/mL is heavier than gasoline but still lighter than water; that small density difference is why diesel engines deliver more energy per liter.
Only roughly. Whole blood is 1.06 g/mL (so 100 cc = 106 g), urine 1.005 to 1.030 g/mL, saliva 1.002 g/mL. For most clinical purposes the ≈1 g/mL rule is fine, but for transfusion or precise dosing the density must be used.
Yes, slightly. Most liquids expand as they warm, so density falls. Water drops from 1.000 g/mL at 4°C to 0.998 at 20°C to 0.971 at 80°C. Cooking oils change about 0.07 percent per °C, larger than water but still small for everyday work.
Memorize five anchors: water 1.0, oil 0.9, juice/milk 1.04, honey 1.4, gasoline 0.74. Multiply cc by the anchor. 250 cc of milk × 1.04 = 260 g; 50 cc of oil × 0.9 = 45 g. Accurate to within 2 percent for everyday substances.