Change the nm into scientific notation. Since you have 389, you want to make the number between one and ten. So, you move the decimal over and make it 3.89 times 10 to the negative 7 power. Then you multiply the two together and your answer should be 299,802,300!
The resolving power of a microscope is inversely proportional to the wavelength of light being used. This means that as the wavelength of light decreases, the resolving power of the microscope increases. Shorter wavelengths can resolve smaller details, allowing for higher magnification and clearer images.
The Wattage of a bulb tell you how much power (energy per second) you put into it. The energy will come out mostly as heat but obviously also light. The wavelength has the units of length and tells you what type and color of light it generates. The energy in each particle (photon) of light is dependent on the wavelength but the total power input isn't directly related. You can have both high and low input power infra red (long wavelength) and Ultraviolet (short wavelength) lamps.
In a light microscope the resolution of the image it can project is limited by the distance each photon travels in its wavelength. Beneath this minimum distance, the "noise" of the photon's movement along its path overwhelms any resolution the light source may otherwise provide.
You can calculate amperage (A) using the formula A = W / V, where W is the power in watts and V is the voltage. Simply divide the power in watts by the voltage to find the amperage.
The temperature of the body. As the temperature of the body increases, the wavelength of the radiation emitted decreases, shifting towards shorter wavelengths. This relationship is described by Wien's displacement law.
Using the formula speed = frequency x wavelength, we can calculate the wavelength. Wavelength = speed / frequency = (3 x 10^8 m/s) / 60 Hz = 5 x 10^6 meters.
The resolving power of a microscope is inversely proportional to the wavelength of light being used. This means that as the wavelength of light decreases, the resolving power of the microscope increases. Shorter wavelengths can resolve smaller details, allowing for higher magnification and clearer images.
The characteristic wavelength of an electron accelerated through a potential field can be calculated using the de Broglie wavelength formula: λ = h / p, where h is the Planck constant and p is the momentum of the electron. Given the speed of the electron, momentum can be calculated as p = m*v, where m is the mass of the electron. Once the momentum is determined, the wavelength can be calculated.
Because the wavelength is not 1050 metres but 1050 nanometres.
How do you calculate 3ph AC motor power?
To be able to calculate a mi to the second power you need to
A wavelength that measures 10^2 would be 100 meters long.
The Wattage of a bulb tell you how much power (energy per second) you put into it. The energy will come out mostly as heat but obviously also light. The wavelength has the units of length and tells you what type and color of light it generates. The energy in each particle (photon) of light is dependent on the wavelength but the total power input isn't directly related. You can have both high and low input power infra red (long wavelength) and Ultraviolet (short wavelength) lamps.
The de Broglie Wavelength of a mosquito can be calculated using a specific formula. For this example, the wavelength is 2.8 to the 28th power meters.
You can't "calculate" it...
It is the range of wavelength at which the energy flowing through the system begins to reduce or attenuated. In case of devices, it is the wavelength at which interruption or cessation in power takes place.
wavelength