#MOSFET load switch

[edid2itth]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/pmv30xpear-nexperia-7092005

Mosfet applications, mosfet function, mosfet switch, mosfet switch circuit

PMV30XEAR Series 20 V 34 mOhm 490 mW SMT P-Channel TrenchMOS FET - SOT-23

[wlia2ffma]

Mosfet power supply, mosfet circuits, power mosfet, mosfet uses

Single N-Channel 20 V 0.99 mOhm 155 nC HEXFET® Power Mosfet - PQFN 5 x 6 mm

[mchel2oa]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/si2309cds-t1-ge3-vishay-3122871

MOSFET transistors, Power MOSFET, bipolar junction transistors, mosfet module

SI2309CDS Series P-Channel 60 V 0.345 Ohm Power MosFet Surface Mount - SOT-23-3

[jsph2veton]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/fdn340p-onsemi-6552491

Mosfet module, High voltage mosfet, mosfet switch circuit

Single P-Channel 20V 70 mOhm Logic Level PowerTrench Mosfet SSOT-3

[rnkk2tsnn]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/dmg1026uv-7-diodes-incorporated-2129543

MOSFET as a switch, n-channel mosfet, mosfet amplifier

Dual N-Channel 60 V 2.1 Ohm 0.45 pC 0.65 W Silicon SMT Mosfet - SOT-563

[lisu2brggr]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/dmg3402l-7-diodes-incorporated-9129541

Surface Mount Power Mosfet, mosfet Transistor, transistor mosfet, Power MosFet

N-Channel 30 V 4 A 52 mΩ Surface Mount Power Mosfet - SOT-23

[bryn2land]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/dmg3402l-7-diodes-incorporated-1051270

MOSFET transistors, Load switch circuit, load switch, N-channel device, load switch

N-Channel 30 V 4 A 52 mΩ Surface Mount Power Mosfet - SOT-23

[eliso2toos]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/ntf6p02t3g-onsemi-1914845

Transistor manufacturers, mosfet circuit, Power MosFet, N-channel FET

P-Channel 20 V 44 mOhm 8.3 W Surface Mount Power MOSFET - SOT-223

[jshu2liam]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/fdb3632-onsemi-9032152

Through Hole N-Channel MOSFET, load switches circuit, Transistors Mosfets

N-Channel 100 V 9 mOhm Surface Mount PowerTrench Mosfet TO-263AB

[stvin2cave]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/re1c002untcl-rohm-3063706

MosFet motor driver, load switch circuit, MosFet manufacturers, diode

RE1C002UN Series 20 V 1.2 Ohm 200 mA Surface Mount Small Signal Mosfet - EMT-3F

[errl2nson]

https://www.futureelectronics.com/p/semiconductors--discretes--transistors--mosfets/dmg1026uv-7-diodes-incorporated-2129543

Transistor circuits, npn transistor, transistor switch, bjt transistor

Dual N-Channel 60 V 2.1 Ohm 0.45 pC 0.65 W Silicon SMT Mosfet - SOT-563

[teardownit]

Review, teardown, and testing of RS-150-24 Mean Well power supply

General description

A short description. The RS-150-24 is a power supply with a constant output voltage of 24 volts and a current of up to 6.3 amperes. According to the specification, the unit has two AC input voltage operating ranges—from 88 to 132 and 176 to 264 volts. Range selection is non-automatic with a mechanical switch. The supply measures close to 7.5 × 4.0 × 1.5 inches (192 × 98 × 38 millimeters) and is made on a printed circuit board fixed to the base of the metal case, designed to operate with passive cooling. The top lid covering the case is perforated. The power supply has an LED indication for the output voltage, allowing one to adjust it within -5 to +10%. This unit does not have either PFC or thermal protection.

Design description. The input and output circuits of the power supply are connected to a common screw block (1). From left to right, there are three terminals for the input line, neutral and ground wires, and two parallel blocks of two terminals for the outputs: ground and +24V. The input voltage from the screw terminals through the fuse (2) is supplied to the RF interference filter (3) and then goes to the diode bridge (5). A varistor (4) is installed at the filter input to suppress hazardous pulses. The rectified voltage from the bridge (5) through the range selector (6) and through two NTC inrush current limiters (7) is supplied to the input electrolytic capacitors (8). Rectified and filtered voltage from capacitors (8) goes to the forward converter, which consists of a NE1101 controller (9, on the back side of the board), a 2SK3878 power N-MOSFET transistor (10), and a transformer (11). The voltage from the output winding of the transformer (11) is rectified by the fast-recovery diode 20F20SAB3 (12) and filtered using an output LC filter (13) (14).

The base resistance of each NTC is about 4.5 Ohms.

Output filter capacitance: 2 pieces of 470 uF, 35 volts, designed for operating temperatures up to 220℉ (105℃) (14).

The output voltage is stabilized by shunt regulator AS431ANTR-E1, transmitting the control signal to the high-voltage side of the circuit through the 817C transistor optocoupler (15). A second optocoupler of the same type forms a bypass channel for overvoltage protection (OVP).

The rectifier bridge (5), transistor (10), and diode (12) are installed with individual heat sinks, which (10, 12) are pushed against the housing with screws. Between the aluminum case and the board (from the solder side) is an extra insulation layer, a thin fiberglass sheet. All bulky components are additionally fixed using a compound.

Build quality is good. The board has empty spaces for installing an additional parallel diode (12) and three output electrolytic capacitors. The board is obviously unified for all the models in the series, and these elements are used in lower-voltage models.

The output voltage LED indicator (16) and the output voltage adjustment resistor (17) are located near the terminal block so that they can be accessed without removing the top cover.

Test conditions

Most tests are performed using Metering Setup #1 (see appendices) at 80℉ (27℃), 70% humidity, and 29.8 inHg pressure. Unless mentioned otherwise, the measurements were performed without preheating the power supply with a short-term load. The following values were used to determine the load level:

Output voltage under a constant load

The high stability of the output voltage should be noted.

Power-on parameters

Powering on at 100% load

Before testing, the power supply is turned off for at least 5 minutes with a 100% load connected. The oscillogram of switching to a 100% load is shown below (channel 1 is the output voltage, and channel 2 is the current consumption from the grid):

On the oscillogram, three phases of the starting process can be distinguished: 1. Two pulses of the input current charging the input capacitors when connected to the grid have an amplitude of about 14.5 A and a duration of about one main voltage period. 2. Waiting for the power supply control circuit to start for about 220 ms. 3. (Output Voltage Rise Time) Output voltage rise takes 5 ms. (Turn On Delay Time) The entire process of entering the operating mode from the moment the device powers on is 228 ms.

(Output Voltage Overshoot) The switching process is aperiodic; there is no overshoot.

Powering on at 0% load

The power supply is turned off at least 5 minutes before the test, with a 100% load connected. Then, the load is disconnected, and the power supply is switched on. The oscillogram of switching to a 0% load is shown below:

The picture shows three distinguishable phases of the power-on process: 1. Charging the input capacitors when connected to the grid has an amplitude of about 14.5 A. 2. Waiting for the power supply control circuit to start for about 228 ms. 3. (Output Voltage Rise Time) Starting the converter, increasing the output voltage, and entering the operating mode takes 5 ms. (Turn On Delay Time) The entire process of entering the operating mode from the moment the device powers on is 233 ms.

(Output Voltage Overshoot) The switching process is aperiodic; there is no overshoot.

Power-off parameters

The power supply was turned off at 100% load, and the input voltage was nominal at the moment of powering off. The oscillogram of the shutdown process is shown below:

The oscillogram shows two phases of the shutdown process: 1. (Shutdown Hold-Up Time) The power supply continues to operate because the input capacitors hold charge until the voltage across them drops to a certain critical level, at which point maintaining the output voltage at the nominal level becomes impossible. The phase takes 38 ms. 2. (Output Voltage Fall Time) Reduction of the output voltage, stopping voltage conversion, and accelerating the voltage drop takes 33 ms.

(Output Voltage Undershoot) The shutdown process is aperiodic; there is no undershoot.

The amplitude of the current at 100% load before shutting down is 5.7 A.

Output voltage ripple

100% load

At 100% load, the low-frequency ripple is approximately 3 mV.

At 100% load, the ripple at the converter frequency is approximately 40 mVp-p, and the noise is 100 mVp-p.

75% load

At 75% load, the low-frequency ripple is approximately 4 mV.

At 75% load, the ripple at the converter frequency is approximately 40 mVp-p, and the noise is 100 mVp-p.

50% load

At a 50% load, the low-frequency ripple is approximately 3 mV.

At 50% load, the ripple at the converter frequency is approximately 25 mVp-p, and the noise is 100 mVp-p.

10% load

At 10% load, the low-frequency ripple is approximately 3 mV.

At a 10% load, the ripple at the converter frequency is approximately 40 mVp-p, and the noise is 100 mVp-p.

0% load

No-load current consumption measured with a multimeter: 68 mA. (Power Consumption) The current consumption in this mode is predominantly reactive, so it isn't easy to reliably measure it with a basic set of instruments. The power supply's input filter contains two capacitors with a combined capacitance of approximately 1 uF.

At 0% load, the low-frequency ripple is indistinguishable from background noise of approximately 2 mVp-p.

At 0% load, the ripple at the converter frequency is masked by the background noise of approximately 50 mVp-p.

Dynamic characteristics

A mode with periodic switching between 50% and 100% load was used to evaluate the dynamic characteristics. The oscillogram of the process is shown below:

It is evident that the supply’s response to abrupt load changes is aperiodic; the magnitude of the response to load changes is about 100 mV p-p.

Overload protection

The claimed protection type is "hiccup mode, which recovers automatically after the fault condition is removed." This was confirmed during testing. When a short circuit occurs, the power supply periodically tries to turn back on and, if the overload is still present, turns off again until the next attempt.

The output current for the overload protection to kick in is 8.8 A.

Input circuit safety assessment

(Input discharge) Safety assessment is based on the discharge time constant of the input circuits when disconnected from the grid; the value is 0.234 s. This means that when operating on a 120 V input voltage, the time required to discharge the input circuits to safe values (<42 V) will be 0.652 s:

Important: The result is valid for this particular power supply unit; it was obtained for testing purposes and should not be taken as a safety guarantee.

The leakage current at the ground pin is 29 µA.

Thermal conditions

When operating with no load connected, no component overheating had been noticed. Thermograms were captured at three power levels: 80, 90, and 100%, fully assembled and with the lid removed. Thermal images show that the most loaded element of the block are four ballast resistors that shunt the source output, which are located near the inductance of the output LC filter (13) and whose heating noticeably stands out against the background of other components. At 80% load, they heat up to 219℉ (104℃, 139℉ above ambient temperature). At 90%, it's 233℉ (112℃, 153℉ above ambient), and at 100%, it reaches 239℉ (115℃, 159℉ above ambient). It is worth noting here that overheating increases faster than output power.

80% load

90% load

100% load

Conclusions

RS-150-24 generally has little noise and ripple, the output voltage is maintained accurately, and the build quality is solid. The power supply's dynamic characteristics are fine; the unit reacts to a pulsing load with no overshoot.

According to the specification, it is designed for “cooling by free air convection” and “high operating temperatures up to 70°C.” However, our test unit at 100% load heated up its load resistors up to 320℉ (160℃), which seems dangerous. For long-term operation, the load should be limited to 70–80% of the nominal one, especially during the hot season when ambient temperatures reach 95℉ (35℃) or more.

When assessing the safety of the operation of such a power supply, it is necessary to consider the possibility that the load exceeds the rated value due to malfunction but remains below the protection trigger level. In this case, the output power for the tested unit will be 135% of the nominal value, leading to even greater overheating, resulting in power supply failure and a fire hazard.

Important: The results are valid for this particular power supply unit; they were obtained for testing purposes and should not be used to evaluate all the units of the same type

[vbsemi-mosfet]

VBE2610N MOSFET In the sweeping robot and the vacuum cleaner:Intelligent control and efficient drive

In order to make the sweeping robot really play a role, intelligent control and efficient driving are very important. In the design and application of the sweeping robot (EV) vacuum cleaner, the selection of the right MOSFET is the key. As one of the core components of the sweeping robot vacuum cleaner, the performance of MOSFET directly affects the charging efficiency, system stability and the long life of the equipment. Our MOSFET product, VBE2610N- -VB-semi, is widely used in this scheme because of its low on resistance and high threshold voltage, high efficiency and high reliability. It provides stable and reliable power support for these components, ensures the efficient operation of the robot in a variety of complex environments, and improves the cleaning effect and intelligence level.

Power management system:

As a kind of intelligent home appliance, the sweeping robot contains a complex circuit system inside, among which the power management module is very important. MOSFET Can be used as the core element of the regulator in the power switch module, VBE2610N high performance and low on resistance characteristics make it very suitable for the sweeping robot and vacuum cleaner power management module, through the accurate control of the current and voltage, to achieve the stable output of the circuit. It can provide efficient electricity conversion and stable current output, thus extending the battery use time and improving the overall energy efficiency of the equipment.

Intelligent control:

In the sweeping robot, intelligent control functions such as path planning, automatic obstacle avoidance, intelligent scheduling and so on all need high-precision circuit control. VBE2610N The high reliability and stability make it a key component of these intelligent control functional circuits, which can ensure that the sweeping robot can achieve efficient cleaning and intelligent operation in a variety of complex environments

Efficient drive:

Sweeping robots are usually equipped with motor drive components such as the main brush and side brush, which require precise current and voltage control to achieve efficient cleaning effect. VBE2610N Has high voltage resistance, can work steadily in high voltage environment, ensure the safety and reliability of electric tools, and reduce the power loss and improve the power density, VBE2610N high current carrying capacity and stable voltage control ability make it the ideal choice in the motor drive circuit, to ensure that the motor under a kinds of load conditions can run operation, provide stable power output.

Applications in other areas

In the wireless communication equipment power amplifier module：

VBE2610N Using trench process manufacturing, with low conduction resistance and high current processing capacity, with high efficiency, high reliability and high current processing capacity, making VBE2610N become one of the indispensable electronic components in wireless communication equipment, help to improve the performance and reliability of the whole system.

In the LED lighting drive

VBE2610N As an MOSFET suitable for high-power applications, it shows significant advantages in LED lighting drivers. It can not only provide accurate power control, through adjusting the conduction state to adjust the LED light intensity, meet the demand of diversified lighting, also because of its low conduction resistance and achieve high efficiency conversion, reduce power loss, its TO252 packaging form easy to integrate and encapsulation, save space, improve the compactness of lighting system and stable stability and extend the service life.

Product Parameter

Product model number: VBE2610N

Polarity: P channel

drain-source voltage (VDS):60V 

Grid source voltage (VGS): ± 20V

Threshold voltage (Vth):1.7V

On-on resistance (RDS(on)@VGS=4.5V): 72m Ω

On-on resistance (RDS (on) @ VGS = 10 V): 61mΩ

Maximum drain current:30A

Technology: groove(groove type)

Package: SOT 252

VBE2610N MOSFET—VB-semi has the characteristics of low on resistance and high threshold voltage, high efficiency, high reliability, widely used in sweeping robot and vacuum cleaner, can also be used in voltage regulator, power switch module and other fields. Such as the power amplifier module, LED lighting driver in the wireless communication equipment. Its low threshold voltage and large rated leakage electrode current also make it an ideal choice for home appliance control module, industrial motor controller and other fields. VBE2610N Can improve the performance and competitiveness of its products, to bring users a better use experience and more high-quality, efficient and reliable products.

[adorpower]

Improving Particulate Collection Efficiency in Electrostatic Precipitators in Coal-Fired Power Plants with Advanced IGBT Technology

Coal-fired power plants encounter strict environmental laws, particularly when handling particulate emissions. Electrostatic precipitators (ESPs) are crucial in catching fine particles from flue gases, guaranteeing purer emissions. Yet, as the need for more elevated efficiency rises, traditional ESP systems are being improved with state-of-the-art technologies like IGBT modules (Insulated Gate Bipolar Transistors). These advanced power electronics are critical in enhancing the performance and efficiency of ESPs, especially in coal-fired power plants.

Let us explore how IGBT modules technology is revolutionizing ESPs, improving particulate accumulation, and donating to the environmental objectives of coal-fired power plants.

Understanding the Role of IGBT Modules in ESPs

IGBT modules are advanced semiconductor devices that integrate the most valuable properties of both MOSFETs and BJTs, qualifying for high efficiency and fast switching abilities in power conversion systems. These modules are critical in handling the high-voltage power supply required to operate ESPs effectively in electrostatic precipitators.

Traditional ESP systems rely on older, less efficient power conversion technologies, which can result in energy losses and reduced particulate collection efficiency. Integrating IGBT modules enhances power control, delivering more precise voltage regulation. This directly improves the ESP’s ability to capture fine particles, ash, and soot from the exhaust gases of coal-fired power plants.

Improved Efficiency in Particulate Collection

The efficiency of an electrostatic precipitator hinges on its capability to render a high-voltage electric field that ionizes the particles in the flue gas, forcing them to be drawn to and deposited on collection plates. IGBT modules deliver several critical benefits.

They are:

Faster Switching Speeds: The fast-switching capability of IGBT modules allows for more efficient control of the high-voltage DC power supplied to the ESP. This leads to better voltage stability, ensuring the ESP operates optimally.

Reduced Energy Losses: Traditional Thyristor-based power supplies often suffer from energy losses, particularly during conversion. IGBT modules minimize these losses, ensuring more power is directed toward maintaining the electric field within the ESP. This translates to higher collection efficiency and reduced operational costs.

Enhanced Voltage Control: With IGBT technology, you can rigorously control the power supply voltage, permitting a more uniform and trustworthy function of the ESP, even under unstable load conditions. This improved control is critical for maintaining the significance of particulate collection in coal-fired power plants with varying operating conditions.

Impact on Environmental Compliance

As coal-fired power plants face increasing pressure to decrease their environmental impact, enhancing the performance of emission control systems like ESPs is critical. By incorporating IGBT modules, power plants can significantly improve the performance of their ESPs, resulting in better compliance with environmental regulations.

Higher Particulate Removal Rates: IGBT-based ESP systems can catch more particulate matter from flue gases with enhanced voltage control and decreased energy losses. This assures that the plant stays within acceptable emission limitations, allowing it to avoid regulatory fines and damages.

Lower Carbon Footprint: The increased efficiency brought about by IGBT technology reduces the overall energy consumption of the ESP system, contributing to a lower carbon footprint for the coal-fired power plant. This is particularly important as the global energy sector transitions towards more sustainable practices.

Reduced Maintenance and Downtime

Another crucial benefit of IGBT modules in electrostatic precipitators is their durability and trustworthiness. These modules are known for resisting extreme functional conditions, making them perfect for coal-fired power plants.

Lower Maintenance Costs: IGBT modules are longer-lasting than more aging power conversion technologies, which decreases the demand for routine maintenance and component replacement. This reduces operational expenses and ensures the ESP system functions constantly without interruptions.

Reduced Downtime: By delivering regular voltage control, IGBT modules minimize the possibility of ESP shutdowns due to voltage fluctuations or power supply problems. This decreases downtime, assuring that coal-fired power plants maintain continued operations and bypass expensive production failures.

 

Wrapping Up

Integrating IGBT modules into electrostatic precipitators is a substantial step forward in enhancing particulate collection efficiency and decreasing emissions in coal-fired power plants. With more rapid switching speeds, decreased energy losses, and improved voltage control, IGBT technology allows ESPs to function exceptionally efficiently, enabling power plants to fulfill environmental regulations while lowering operational outlay.

Contact us now to learn how we can help you optimize your ESP systems for the highest efficiency and compliance.

#IGBTModules #ElectrostaticPrecipitators #EmissionControl #EnergyEfficiency #EnvironmentalCompliance

[melssblog]

HVAC Units Been Tested Before Shipment

The principal component in any HVAC unit is its compressor. The performance of this compressor is regulated by a VFD. The VFD helps in reducing its power consumption. Not only this, it helps in avoiding the wear and tear of equipment, thereby reducing the need for maintenance. By checking, analysing and then varying the input power, the Power PCB and Control PCB control the output from the VFD to always suit the load conditions optimally.

Why HVAC testing?

An HVAC normally handles heavy loads in large areas often with frequent footfalls such as commercial complexes, malls, airports, railway and metro stations. As such, their compressors along with their VFDs should perform at peak level always. It is therefore essential to test the VFD before checking the other components of the HVAC.

Tests performed on HVAC Power PCB

Some of the major tests performed on the HVAC are:

Isolation test: Each component of the HVAC is tested by isolating it from the rest of the system. This ensures the component works as designed under varying load conditions without impacting the performance of the other components in the process. With each component performing as required, the HVAC system as a whole function accordingly.

Short Circuit Test: A component will not turn on in spite of receiving the requisite power supply – this is attributed to either a short circuit in the line from the supply to the PCB or within the PCB itself. A non-functional component leads to a defective HVAC equipment causing improper usage which can further aggravate the problem and can have a cascading impact on the other components.

Current and Voltage Calibration/Measurement: Each component must receive the current and voltage as rated for it. The source power from the power supply must reach the component to match the rated. Any impedance causing it must be rectified to ensure proper functioning. It must be calibrated and measured.

IGBT/MOSFET Gate drive test: The switching of the HVAC must be proper. This is ensured by conducting the IGBT/MOSFET Gate drive test on the PCB. The power is calibrated and measured using an oscilloscope.

HVAC performance suiting the varying requirements is ensured by controlling its Variable Frequency Drive (VFD). The functionality of the VFD’s Control PCB must be thoroughly tested.

Tests performed on HVAC Control PCB

The Control PCB, which connects to the VFD’s main circuit via the gate drive board, is tested to ensure that its logic controls the VFD such that the VFD performs as desired. 

Towards this end, the following tests are performed:

Write FLASH Memory/EPROM data test to ensure the data and commands are stored properly in the main board

Communication test between the external equipment and operator interface components, and the VFD

Analog Input/output Calibration/Measurement of the main circuit parameters such as temperature, current and voltage

Testing the performance of other components

Besides the VFD, other components also need to be tested to ensure that the HVAC performs as desired. Components such as the thermostat, condenser coil and evaporator coil need to be tested before shipment.

Why Automated Test Equipment (ATE)?

The time taken to test the many parameters in an HVAC is greatly reduced by using an ATE. Besides an ATE provides efficiency and ease of use.

The use of an ATE makes it possible to customise the sequence of tests. The equipment used can be customised as per the requirements. Often the operation of HVAC is very complex with diverse sets of operating environments. Proper testing of the functionality of the HVAC is required which is provided by the ATE.

At MELSS, we have been understanding the industry’s requirements for more than 25 years, and provide some of the best-in-class ATEs.

To know more about automated test equipment manufacturers

[govindhtech]

ASUS ROG Thor III Power Supply Series With Next-Gen GaN

Taking the power efficiency of personal computer gaming to new heights while maintaining a cool head under pressure.

The Thor III line of power supplies, which comprises the ROG Thor 1600W Titanium III, ROG Thor 1200W Platinum III, and ROG Thor 1000W Platinum III, was unveiled today by ASUS Republic of Gamers (ROG). An ROG Thor III power supply is a great foundation for your next gaming setup because it has features like gallium nitride (GaN) MOSFETs, GPU-FIRST voltage detection, high-performance copper pins, PCIe connection updates, magnetic OLED display detachment, etched modular cables, ATX 3.1 support, and more. Because ASUS is so confident in this, these PSUs come with a 10-year warranty, ensuring users will have amazing, long-lasting performance.

ROG Thor III Series: next-gen premium PSU components

Compared to conventional MOSFETs, the GaN MOSFETs in the ROG Thor III series can provide up to 30% higher power efficiency. Because these MOSFETs are smaller and provide the same performance, Thor III PSUs have an internal configuration that is tailored to keep units cool regardless of the load.

Additionally, the new ASUS GPU-FIRST voltage-sensing technology is included in these PSUs, enabling devices to sense voltage using the GPU rather than the CPU. As a GPUs requirements change, power delivery may be adjusted more quickly, resulting in stable, peak performance. When compared to a PSU without this feature, the intelligent voltage stabilizer improves voltage delivery by up to 45%.

These PSUs also have a Turbo Mode that maximizes the performance of the high-end parts of the ROG Thor III Series and use a particular fan curve to maintain peak load for extended periods of time.

The Thor III Series makes it simple for consumers to keep an eye on the PSU’s power consumption in real time. To suit PSU installation preferences, each PSU has a detachable magnetic OLED display that can be switched to either side of the unit. This allows the display to remain visible whether the fan is installed with the fan pointing up or down.

Optimized construction for optimal performance

With 80 PLUS Platinum certification for the 1200-watt and 1000-watt models and 80 PLUS Titanium certification for the 1600-watt model, ROG Thor III PSUs have all the features that consumers have come to expect from premium ROG power supplies. Users can anticipate the highest level of efficient power transmission because of their low-ESR capacitors.

Superior cooling is ensured by ROG heatsinks and completely aluminum enclosures, which control the unit’s thermals. Additionally, these PSUs use multiple ball bearings on the fan for increased lifetime. These bearings have a lifespan of up to 80,000 hours, which is double that of sleeve bearing designs.

In order to keep things neat, Thor III PSUs also have ROG etched modular cables, which let do-it-yourself PC builders to assemble their setups using just the cords they require.

Another significant advantage is that the 1600-watt model has Cybenetics Lambda A+ noise & Titanium certification, which means it runs incredibly silently, making it ideal for people who want to create a desktop computer that is both powerful and silent.

Power delivery you can rely on

When building a cutting-edge gaming PC with the best components available, consumers must safeguard their investment with a high-end power supply that will securely power their system. The ROG Thor III series is prepared for those who are overclocking enthusiasts with high power requirements or who are cautious gamers seeking a PSU that can support upgrades for many years to come. These units can handle any task because of their superior design, silent operation, and unparalleled power delivery.

Read more on Govindhtech.com