Assuming your sample is a gas and the pressure is kept constant, the volume will more than double. If not a gas you need more information, something called the volumetric coefficient of expansion.
If a gas V/T = V/T
500 / 150 = V / 350
V = 350x500/150 = 1166.6666 ml of gas
Sample B had the lowest final temperature.
7.48
To find the final pressure of a gas sample after it has been heated in a rigid container, you can use the ideal gas law, ( P_1/T_1 = P_2/T_2 ). Since the volume is constant in a rigid container, this equation relates the initial and final pressures (P1 and P2) to the initial and final temperatures (T1 and T2) in Kelvin. Thus, by measuring the initial pressure and temperature and knowing the final temperature, you can calculate the final pressure.
initial molarity*initial volume= final molarity*final volume Initial molarity= 1.50M Initial volume= 20.00ml Final Volume=150.0ml Thus final molarity =1.50M*20ml/150ml=0.200M. New molar concentration= final molarity
Final volume refers to the total space occupied by a substance at the end of a process or reaction. It is often used in scientific contexts, such as chemistry or physics, to indicate the volume after changes such as mixing, heating, or chemical reactions have occurred. This measurement is crucial for calculations involving concentration, pressure, or other properties in various applications.
what?
Dilution factor is the final volume / aliquot volume. Aliquot volume is the measure of sub volume of original sample. Final volume is the total volume. Dilution factor =final volume /aliquot vol. for example ; what is the df when you add 2ml sample to 8m??? total vol is 2+8=10 DF=total vol/aliquot. 10/2=5 So 5 is dilution factor
700 g
To prepare 500mL of 1N KOH solution, you will need to dissolve 20 grams of KOH (potassium hydroxide) in enough water to make a final volume of 500mL. The molarity of the solution will be 1N, meaning it will contain 1 mole of KOH per liter of solution. Remember to wear appropriate safety gear such as gloves and goggles when working with chemicals.
Sample B had the lowest final temperature.
7.48
Using the ideal gas law (PV = nRT), you can calculate the initial and final number of moles of CO2. Given that the temperature remains constant, the ratio of the initial volume to final volume is equal to the ratio of the initial pressure to the final pressure. Applying this ratio to the initial volume of 1.25 liters will give you the final volume.
Molarity = moles of solute / liters of solution. First, calculate the moles of NaOH using its molar mass. Then, divide the moles by the final volume in liters (3.00 L) to find the molarity.
To find the final concentration of a solution after dilution, you can use the formula: (C_1V_1 = C_2V_2), where (C_1) is the initial concentration, (V_1) is the initial volume, (C_2) is the final concentration, and (V_2) is the final volume. Plug in the values for the initial concentration, volume, and final volume to calculate the final concentration of HCl.
This will give you info
To find the final pressure of a gas sample after it has been heated in a rigid container, you can use the ideal gas law, ( P_1/T_1 = P_2/T_2 ). Since the volume is constant in a rigid container, this equation relates the initial and final pressures (P1 and P2) to the initial and final temperatures (T1 and T2) in Kelvin. Thus, by measuring the initial pressure and temperature and knowing the final temperature, you can calculate the final pressure.
initial molarity*initial volume= final molarity*final volume Initial molarity= 1.50M Initial volume= 20.00ml Final Volume=150.0ml Thus final molarity =1.50M*20ml/150ml=0.200M. New molar concentration= final molarity