VE-JTT-MY-S

Current - Output (Max):	7.69A
Base Part Number:	VE-JTT
Size / Dimension:	2.28" L x 1.80" W x 0.52" H (57.9mm x 45.7mm x 13.2mm)
Package / Case:	Half Brick
Mounting Type:	Through Hole
Efficiency:	90%
Operating Temperature:	-55°C ~ 100°C
Features:	OCP, SCP
Applications:	ITE (Commercial)
Voltage - Isolation:	3kV
Power (Watts):	50W
Series:	VE-J00™
Voltage - Output 3:	--
Voltage - Output 2:	--
Voltage - Output 1:	6.5V
Voltage - Input (Max):	160V
Voltage - Input (Min):	66V
Number of Outputs:	1
Type:	Isolated Module
Part Status:	Active
Packaging:	Bulk

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DC-DC converters are used to convert direct current (DC) power from one voltage level to another. These converters are categorized according to the type of topology they use. The most commonly used topologies include the boost, buck, buck-boost, and flyback converters. Of these, the boost converter is best suited for applications which require higher output voltages than the input voltage. The buck converter is used when the output voltage has to be lower than the input voltage. The buck-boost converter is used when both of these conditions are required and the flyback converter is the topology used when both isolation and power transformation are required. One of the most important design considerations for the design of a DC-DC converter is the selection of the switches. Switches are typically selected based on the output voltage rating, current rating, frequency rating, and output power capability.The VE-JTT-MY-S application field is a type of DC-DC converter that is used to convert DC power from one voltage level to higher voltage levels. It is a boost converter that utilizes two switches, one that is controlled by a voltage regulator and one that is controlled by a current regulator. The two switches are connected in series and the voltage regulator is used to control the switch that is connected between the input and output voltages. The current regulator is used to control the switch connected between the output voltage and ground. In the VE-JTT-MY-S application field, the voltage regulator is used to sense the output voltage and adjust the duty cycle of the switch connected between the input voltage and the output voltage. This allows for precise control over the output voltage, as it can be adjusted to a specific value depending on the design requirements. The current regulator, meanwhile, is used to sense the load current and adjust the duty cycle of the switch connected between the output voltage and ground. This ensures that the output current is regulated to a specific value and does not exceed the maximum specified current of the design.The working principle of the VE-JTT-MY-S application field is based on the concept of pulse width modulation (PWM). The input voltage is pulsed at a specific frequency with a duty cycle that is determined by the voltage and current regulators. The pulsed voltage is then applied to the switches, which in turn convert the input voltage into an output voltage that is higher than the input voltage. In order to ensure maximum efficiency, it is important to select the switches with the highest possible switching frequency and to minimize the switching losses. The VE-JTT-MY-S application field is popular for applications requiring a higher output voltage than the input voltage. This includes applications such as motor control, lighting systems, medical equipment, and power supplies. These converters are also used in applications requiring power isolation, such as inverters, audio amplifiers, and bipolar power supplies. In summary, the VE-JTT-MY-S application field is a type of DC-DC converter that uses boost topology to convert DC power from one voltage level to a higher voltage level. This converter uses two switches connected in series and controlled by a voltage regulator and a current regulator. The voltage regulator is used to control the duty cycle of the switch connected between the input and output voltage, while the current regulator is used to control the switch connected between the output voltage and ground. This ensures that the output voltage and current are accurately regulated to the design specifications. The working principle of this converter is based on the concept of pulse width modulation and is widely used in many applications requiring higher output voltages than input voltages as well as power isolation.

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