Switch Mode Power Supplies Reverse Pulse Power Supplies ED Coating Power Supply The DC/AC 100 will achieve a higher productivity due to the improved color distribution and depth control. In having the ability to increase the load size, it is more favorable when comparing it to other alternating current systems. The easy and clear operation of the control unit on the process bath aids the user and provides less of an error rate. The program memory allows the user to easily retrieve specific coloring programs that have been previously used, making the unit user friendly. The optimized variable transformer control guarantees reproducible results independent of the size of the load (30 – 100% of the nominal size load). The system includes on power supply and a specially developed operating unit Highly accurate control based on a µ-processor Program memory with 200 coloring programs available Large sized display for showing the process data

Optimized variable transformer control Ampere hour counting for measuring available Wear-free switching between DC and AC mode Compatible with ALU-SPECTRAL interface coloring system Interface for connection to a PC is providedWhether you believe your power supply may be faulty or you are doing routine testing, it is important to verify the performance. Issues with a power supply can limit the performance of your equipment, and it even has the potential to damage your fine electronics. Proper and regular power supply testing can help minimize this risk. The power provided by your power supply is the key factor, but the first parameter to test is the voltage and current on the input side of your power supply. Verify the input power supply falls in the operating range for your power supply as listed in the specification or datasheet. Just like our sensors, improper input voltage to a power supply hinders proper operation whether you are using an AC/DC or a DC/DC power supply.

The LED display (when applicable) on your power supply may read 5.00VDC, but this may not always be accurate. Checking the accuracy of the output voltage with a properly calibrated voltmeter is a great way to verify this output voltage. Strictly speaking, you only need to verify that the output voltage is stable and within the operating range of your device. However, you may wish to continue to calculate the output voltage accuracy. booster for ac unitOur sensors operate at peak performance when they receive smooth and clean voltage with minimum noise and output ripple. harga ac split bandungOutput ripple and noise are also known as Periodic And Random Deviation (PARD). air handling units designWhen there is noise on the voltage entering the part, it gets added to the amount of noise the part sees.

Specifically, output ripple and noise can be split into separate factors. Noise is a set of random high or low frequency spikes to the power supply. Noise is best mitigated by shielding the wires and operating as far from electrical noise sources as possible. Output ripple is periodic where noise is random. Output ripple is a periodic shift visible in the output voltage. This ripple is often generated by the periodic nature of AC power.Viewing the power supply with an oscilloscope is required to view both output ripple and noise. Excess ripple or noise outside of a window that you would typically see in a controlled environment will degrade sensor performance. When testing the noise and output ripple the bandwidth should be sufficient to capture the full cycle of any output ripple.Additional noise can be picked up on the oscilloscope probe itself. Using the shortest probe to ground length possible minimizes the amount of noise the probe receives. Take care to minimize any error and noise that you may add to the system.

When there is a ripple or instability to the input voltage, it affects the output voltage. Line regulation specification indicates how much a change in output voltage you can expect due to a change in input voltage. The specification is typically presented as the change from minimum to maximum operating input voltage. Testing the line regulation may not be feasible if you are using an AC/DC power supply. The system being powered by the sensor will draw current from the power supply. The voltage will be affected by the total current drawn. On the DC output we can review Ohm’s Law to see that V=IR. If we instantly increase the resistance of the circuit, the voltage will shift. Load regulation works to minimize any shifts due to a change in the loading of the circuit. An output load change, a change in the resistance of the circuit, in terms of percentage of the max load should also be mentioned. The load regulation should be tested to these values. Load regulation allows a power supply to adjust itself to continue providing the proper voltage after a change in load, but this adjustment doesn’t happen instantaneously.

The amount of time required for the voltage to return to the proper level (within an error band) is the transient recovery time. The transient recovery time will be rated between two levels of the rated load. Please check your power supply datasheet to find the rated levels. As an additional note, the transient recovery time is measured from the moment that the load is changed until the voltage returns within the error band. Efficiency is a ratio that relates the total output power to the input power. While efficiency will exist for both AC/DC and DC/DC power supplies, it may not be feasible for all users to measure the efficiency of an AC/DC power supply. You may continue to have issues after verifying all of the outlined issues in this article. If this is the case, you may wish to retest Output Voltage Accuracy at the pins of the sensor. Voltage droop can happen when running power through circuity. Additionally, circuits with more than one ground reference may have issues with ground loops.