You need to use the Arrhenius equation to solve this kind of problem. Since you haven't given the activation energy, we can't answer it for you.
The degrees of freedom of molecules determine how they can move and interact during a chemical reaction. Molecules with more degrees of freedom have more ways to move and rotate, which can affect the speed and outcome of the reaction. This can impact factors such as reaction rate, energy transfer, and overall reaction dynamics.
The ionization constant Kw for water at 25 degrees Celsius is 1.0 x 10^-14.
The duration for a chemical reaction at 10 degrees Celsius can vary depending on the specific chemical and reaction. Generally, a lower temperature like 10 degrees Celsius will slow down the reaction compared to higher temperatures. It is best to consult specific reaction kinetics or experimental data for a more accurate estimation.
The freezing point depression constant for water is 1.86 degrees Celsius per molal.
The bomb calorimeter formula used to calculate the heat released during a chemical reaction is: q C x T where: q heat released (in joules) C calorimeter constant (in joules per degree Celsius) T change in temperature (in degrees Celsius)
it is precisely in the Middle of Iran.
To calculate the rate constant for a first-order reaction, you can use the natural logarithm function. Rearrange the integrated rate law for a first-order reaction to solve for the rate constant. In this case, k = ln(2)/(t(1/2)), where t(1/2) is the half-life of the reaction. Given that the reaction is 35.5% complete in 4.90 minutes, you can use this information to find the half-life and subsequently calculate the rate constant.
23 degrees
Precisely 273.16 degrees kelvin
Precisely 82 degrees, not a touch cooler!
Acute. More precisely, 60 degrees each.
Yes; the tilt of the axis is 23.5 degrees; the tropics are 23.5 degrees from the equator. Between the tropics, it is possible that at some point of the year, the Sun can reach the zenith, and this is precisely because of the tilt of the Earth's axis.Yes; the tilt of the axis is 23.5 degrees; the tropics are 23.5 degrees from the equator. Between the tropics, it is possible that at some point of the year, the Sun can reach the zenith, and this is precisely because of the tilt of the Earth's axis.Yes; the tilt of the axis is 23.5 degrees; the tropics are 23.5 degrees from the equator. Between the tropics, it is possible that at some point of the year, the Sun can reach the zenith, and this is precisely because of the tilt of the Earth's axis.Yes; the tilt of the axis is 23.5 degrees; the tropics are 23.5 degrees from the equator. Between the tropics, it is possible that at some point of the year, the Sun can reach the zenith, and this is precisely because of the tilt of the Earth's axis.
The degrees of freedom of molecules determine how they can move and interact during a chemical reaction. Molecules with more degrees of freedom have more ways to move and rotate, which can affect the speed and outcome of the reaction. This can impact factors such as reaction rate, energy transfer, and overall reaction dynamics.
Approximately an hour. 360 degrees takes about 24 hours; more precisely, 23h 56m.
The phase constant in the equation is 180 degrees.
North is 0 degrees, east is 90 degrees, south is 180 degrees, and west is 270 degrees.
Henry's law constant for Carbon Dioxide at 20 degrees Celsius is: 1,6*10^3 ATM