How do you calculate the power density of a laser?- laser energy density calculator tool ,When laser energy density e=0.3575 J/mm 2, the relative density of the sample is up to 0.76 g/cm 3. However, when the laser energy density is increased to a large value, the polymer binder is strongly decomposed, the content of the polymer binders in green parts drops sharply, and the wetting, bonding, and filling effects of the binder are ... Laser Energy Density and Spatial Modulation for Enhanced ...3.3. Double-Slit Modulated Illumination Eliminates Artifacts and Allows Velocity Calculation As the energy density of each slit of light is different (the first slit encountered by the flowing cells is less energetic than the second one – Fig. 1B – 1C), the fluorescence signal is spatially modulated.
This is the equivalent of calculating the power density of a Flat Top beam with the same diameter as the 1/e^2 diameter of the Gaussian and multiplying by two. The Ophir power density calculator returns the power density of a laser beam based on the above explanations.
Pulsed laser: Pulse Energy (Joules) = Average Power (Watts) / Repetition Rate (Hertz) Let’s put some real values in there and assume that you are working with a laser that has a fixed 200 W output and a repetition rate that can be tuned from 20 Hz to 1 kHz. If you set the control at 20 Hz, we have 200 W / 20 Hz = 10 J per pulse.
The LSM experiment was carried out using a high-power laser surface treatment system, as shown in Fig. 1.This system is mainly composed of the 4 kW continuous fiber laser with an output wavelength of 1,070 nm (IPG YLS-4000, USA), the laser processing head (RayTools AK390, Switzerland), the 6-axis robot (KUKA KR60HA, Germany), the cooling system (Leamtech H500A, China) and numerical control system.
A tool perform calculations on the concepts and applications for Power density of laser beam calculations. These calculators will be useful for everyone and save time with the complex procedure involved to obtain the calculation results.
Laser Power Density Calculator Use this calculator to determine the power density and/or fluence (energy density) of your laser beam. Energy per pulse already: E = 5.75W/300 kHz = 0.019 mJ per pulse2. Suggested power and speed settings to give you a starting point - and a general idea of what settings to use for your circumstances.
The third-harmonic laser parameters of a laser driver similar to U.S. National Ignition Facility (NIF) in a high laser-flux state, such as space, time and energy, are measured by using the third ...
Material. In the present study, the gas-atomized AISI 316L powder was used as the starting material with a particle size distribution from 10 to 130 um (Fig. 1a).In addition, the composition of the AISI 316L powder and 40# steel substrate can be detected by the energy dispersive spectrograph (EDS), and the results are given in Tables 1 and 2, respectively.
or V Peak = V RMS x √2. µV mV V kV. T (Cycle Time, s) ns µs ms s. Additional Power (W) mW W kW MW.
3.3. Double-Slit Modulated Illumination Eliminates Artifacts and Allows Velocity Calculation As the energy density of each slit of light is different (the first slit encountered by the flowing cells is less energetic than the second one – Fig. 1B – 1C), the fluorescence signal is spatially modulated.
The Pulse duration of laser formula is defined as the time in seconds for which the laser is being operated on the surface of metal and is represented as ΔT = (4* P)/(pi * f ^2* α ^2* PD) or Duration of laser beam = (4* Laser Energy Output)/(pi * Focal length of lens ^2* Beam divergence ^2* Power Density of laser beam). Laser Energy Output is ...
We’re here to make your work easier…Check out these Ophir Calculators. It’s better than doing it in your head! Sensor Finder and Laser Fluence Calculator. Laser Power Density Calculator. Laser Peak Power Calculator. Laser Power Through Aperture Calculator (Gaussian Beam)
With these inputs, the diameter of the focal spot is. 2 w 0 = 4 M 2 λ f π D. 2w_0 = \dfrac {4 M^2 \lambda f} {\pi D} 2w0. . = πD4M 2λf. . To get this diffraction-limited beam diameter, the lens should not have strong aberrations. Additionally, the lens diameter should be at least twice the beam diameter input value not to clip the "wings ...
This can be done with the help of the below formula: where, LPD = Laser Power Density [W/cm 2] d = Diameter of laser beam [mm] P = Power of laser beam [watts] Enter the diameter and power of the laser beam and click calculate to find the laser power density in the below calculator. Latest Calculator Release Average Acceleration Calculator
The Evaluator - Calculation Levels. Specially designed for users with minimal experience, the Basic package provides the essential and fundamental laser hazard calculations in an easy and simple format. The user-friendly navigation makes calculating eye hazards, wavelength, pulse width and other important calculations easier for novice users.
Laser Power Density Calculator | Ophir Photonics Laser Power Density Calculator Use this calculator to determine the power density and/or fluence (energy density) of your laser beam. Check our other laser measurement tools:
Calculate the round trip time and repetition rate of a pulsed laser. Photon energy calculator Calculate the energy of a photon from its wavelength, frequency or wavenumber.
Pulsed laser: Pulse Energy (Joules) = Average Power (Watts) / Repetition Rate (Hertz) Let’s put some real values in there and assume that you are working with a laser that has a fixed 200 W output and a repetition rate that can be tuned from 20 Hz to 1 kHz. If you set the control at 20 Hz, we have 200 W / 20 Hz = 10 J per pulse.
The laser energy density greatly affected the relative density of the SLM Cu-25.5Zn-4Al-0.6Mn SMAs. That is, the relative density first increased and then decreased as raising the laser energy density. A highest relative density of 96.96% was obtained. 2. The phases in the SLM Cu-25.5Zn-4Al-0.6Mn SMAs were different from that in the raw powders.
Here is how this equation is derived: We can write an expression for the power density of a1 mmdiameter beam, which is simply: Dividing the expression of power density of a 1 mmbeam — Power / π (0.5 mm) 2 — by an expression of power density as a function of diameter — Power / π (0.5 d) 2 — we find that the ratio is d2.
To easily compute the energy density value, utilise the online Energy Density of Fields Calculator tool. To obtain the result in a shorter amount of time, input the electric field and magnetic field values in the calculator' fields and click the calculate button.
A tool perform calculations on the concepts and applications for Power density of laser beam calculations. These calculators will be useful for everyone and save time with the complex procedure involved to obtain the calculation results.
This calculator enables easy scaling of Gaussian beam focused by an aberration free lens with wavelength used in your measurement. Enter required data into the boxes to calculate spot size changes. λ1 - actual wavelength: known wavelength of actual spot size in focus. λ2 - desired wavelength: other wavelength that you desire to use with the ...
Here is how this equation is derived: We can write an expression for the power density of a1 mmdiameter beam, which is simply: Dividing the expression of power density of a 1 mmbeam — Power / π (0.5 mm) 2 — by an expression of power density as a function of diameter — Power / π (0.5 d) 2 — we find that the ratio is d2.
Laser welding has a considerable depth of melt and high power density, which can weld refractory materials, such as titanium alloys, etc. 4) High energy density and suitable for high speed welding. 5) No wear and tear consumption of electrodes, tools, etc. 6) No pollution to the environment.
