density, temperature and pressure
To change the decimal number of 0. 7 into a fraction form we need to divide it by 10. Thus the fraction form will become 7/10 (seven upon ten).
The Answer:If both the denominator and the numerator is the same, it is equivalent to x/x = 1, which is the same concept x0 revolves upon.
1/2 = 5/10 3/5 = 6/10 1/2= 10/20 3/5 = 12/20 in between is 11/20
Depending upon which digits are repeating: 0.045045045... = 45/999 = 5/111 0.0454545... = 1/22 0.04555... = 41/900
Craig Mole was born on July 6, 1990, in Newcastle-upon-Tyne, England, UK.
The molar volume doesn't depend on the identity of the gas. One mole of any ideal gas at STP will occupy 22.4 liters.
Standard temperature and pressure (STP) is a standard by which comparisons can be made. STP is 0°C (273 K) and 1.00 ATM (760 mmHg, 101.325 kPa). Molar volume is based upon the conditions at STP, which is 22.4 L for 1 mole of any [ideal] gas.
The speed of sound depends upon elasticity and inertia of the medium which in turn depend upon the temperature of the medium.That's why speed of sound depends upon the temperature of the medium.
i am almost positive it is 22.4 Liters per mole. The conversion for molecules to mole is 6.023 x 10^23 (avogadros number) and the relationship from grams to moles is dependant upon the molecular weight of the molecule you are talking about.
Yes
Generally the physical properties of a material depends on temperature.
Molar pregnancy is an abnormal form of pregnancy, characterized by the presence of a hydatidiform mole (or hydatid mole, mola hytadidosa), an anomalous growth containing a nonviable embryo which implants and proliferates within the uterus.[1] A hydatidiform mole is removed upon diagnosis because there is some risk that it may develop into choriocarcinoma, a form of cancer.
The complete decomposition reaction is as follows:2 BrF3 → Br2 + 3 F2 , so 2 moles BrF3 will give 1 mole Br2 , hence 0.248 mole gives 0.124 mole Br2
2/10 (2 upon 10) = 1/5
It depends upon the temperature.
The first ionization energy of potassium (K) can be represented by the equation: K(g) → K+(g) + e- This equation shows that one mole of gaseous potassium forms one mole of gaseous potassium ions and one mole of electrons upon the removal of an electron.