Thyristor Rheoli Cam

Math	VDRM/VRRM [V]	IT[OF] [A]	ITSM [yr]	dv/dt [V/ni]	di/dt [A/ni]	IDRM/IRRM [mA]	IGT [mA]	VGT [V]	IH [mA]	VTM/ITM [V/A]
PDDN-Y24KPE	1400-1600	340	4.1	300	100	16	30-200	0.8-2.0	20-150	2.06/750
PDDN-Y30KPE	1200-1600	727	8.7	300	100	30	35-250	0.8-2.5	20-200	1.78/1500
PDDN-Y38KPE	1200-1600	1224	14.7	300	100	40	35-300	0.8-2.5	20-250	1.4/1700
PDDN-Y50KPE	1200-1800	1625	19.5	300	150	80	40-300	0.8-3.0	20-300	1.5/2500
PDDN-Y65KPE	1200-1800	2418	29	300	200	120	40-300	0.8-3.0	20-300	1.35/3200
PDDN-Y76KPE	1200-1800	3075	37	300	250	200	40-300	0.8-3.0	20-300	1.43/3000
PDDN-Y24KPC	800-1200	416	5	300	100	16	30-200	0.8-2.0	20-150	1.65/900
PDDN-Y30KPC	800-1200	668	8	300	100	30	35-250	0.8-2.5	20-200	1.72/1200
PDDN-Y38KPC	800-1200	1129	13.5	300	100	40	35-250	0.8-2.5	20-250	1.43/1800
PDDN-Y50KPC	800-1200	1853	22.2	300	200	80	40-300	0.8-3.0	20-300	1.34/3000
PDDN-Y65KPC	800-1200	2754	33	300	250	120	40-300	0.8-3.0	20-300	1.3/5000
PDDN-Y76KPC	400-1000	4148	49.8	300	250	200	40-300	0.8-3.0	20-300	1.17/5000
PDDN-Y50KPJ	3100-4200	1011	12	800	150	80	40-300	0.8-3.0	20-300	2.21/1500
PDDN-Y65KPJ	3100-4200	1611	19.3	800	150	120	40-300	0.8-3.0	20-300	2.22/3000
PDDN-Y76KPJ	3100-4200	2205	26.5	800	250	200	40-300	0.8-3.0	20-300	2.11/3000
PDDN-Y89KPJ	3100-4200	3211	38.5	800	250	250	40-300	0.8-3.0	20-300	1.90/5000
PDDN-Y50KPH	1900-3000	1293	15.5	500	150	80	40-300	0.8-3.0	20-300	1.97/2400
PDDN-Y65KPH	1900-3000	2092	25	500	200	120	40-300	0.8-3.0	20-300	1.60/3200
PDDN-Y76KPH	1900-3000	3013	36.2	500	250	200	40-300	0.8-3.0	20-300	1.75/5000
PDDN-Y89KPH	1900-3000	3835	46	500	250	250	40-300	0.8-3.0	20-300	1.54/5000
PDDN-Y100KPH	1900-3000	4755	57	500	250	200	40-450	0.9-3.5	20-1000	1.36/5000
PDDN-Y50KPM	4300-5500	975	11.7	800	150	120	40-300	0.8-3.0	20-250	2.44/1500
PDDN-Y65KPM	4300-5500	1471	17.7	800	200	120	40-300	0.8-3.0	20-250	3.04/3000
PDDN-Y76KPM	4300-5500	2049	24.6	800	250	120	40-300	0.8-3.0	20-250	2.56/3000
PDDN-Y50KPR	5600-6500	872	10.5	800	100	200	40-300	0.8-3.0	20-250	2.3/1000
PDDN-Y65KPR	5600-6500	1648	19.8	800	150	200	40-300	0.8-3.0	20-250	1.89/1500
PDDN-Y76KPR	5600-6500	2434	29.2	800	200	250	40-300	0.8-3.0	20-250	1.65/1600
PDDN-Y24KPA	200-600	477	6	300	100	16	35-200	0.8-2.0	20-150	1.44/1000
PDDN-Y30KPA	200-600	945	11.3	300	100	20	35-250	0.8-2.5	20-200	1.25/1500
PDDN-Y38KPH	1900-3000	897	10.8	500	100	40	35-300	0.8-2.5	20-250	2.18/1800

Overview of Phase Control Thyristors

A phase control transistor is a particular type of semiconductor device that can control the conduction and turn off of current by controlling the phase. This type of device is widely used in power systems and automation control fields, such as motor control, switching power supplies, reactive power compensation, etc. Phase control transistors can operate in high-speed switching states, achieving high-precision power control, and have characteristics such as high reliability, low power consumption, and long lifespan. Therefore, it has been widely applied in many vital applications, such as reactive power compensation and active filtering in power systems. Yn ogystal, with the continuous development of power electronics technology, the application fields of phase control transistors are also constantly expanding, providing strong support for the intelligence and efficiency of modern industry and power systems.

The Characteristics ofPhase Control Thyristors

1. Fast switching speed: The phase-controlled thyristor adopts advanced triggering technology, which can achieve fast switching at high speeds.

2. Dibynadwyedd uchel: The structural design of phase-controlled thyristors gives them higher reliability and the ability to operate stably under harsh environmental conditions.

3. Energy conservation and environmental protection: Phase-controlled thyristors have the characteristics of low loss and high efficiency, which can reduce energy consumption and meet the requirements of energy conservation and environmental protection.

4. Wide application range: Phase-controlled thyristors can be applied in various situations that require high voltage and high current control and switching, such as motor control, trosi pŵer, new energy generation, and other fields.

5. Easy to integrate: Phase-controlled thyristors can be combined with other electronic components to achieve system optimization and control..

Application ofPhase Control Thyristors

1. Motor control: Phase-controlled thyristors are widely used in the field of motor control, such as AC motors, DC motors, etc. By controlling the switching state of the phase-controlled thyristor, the speed and direction of the engine can be controlled.

(Motor control)

2. Power conversion: Phase-controlled thyristors have efficient power conversion capabilities and can be used as core components of uninterruptible power supplies, gwrthdroyddion, frequency converters, and other equipment. Through the switching operation of phase-controlled thyristors, the conversion between DC and AC can be achieved.

(Power conversion)

3. New energy generation: Phase-controlled thyristors are also widely used in the field of new energy generation, such as solar inverters, wind power generation control systems, etc. By controlling the switching state of the phase-controlled thyristor, functions such as maximum power tracking and grid connection control can be achieved.

(New energy generation)

4. Power grid regulation: Phase-controlled thyristors can be used for power grid regulation and control, such as reactive power compensation, active power filtering, etc. By controlling the conduction and turn-off of phase-controlled thyristors, it is possible to regulate the voltage and current of the power grid.

(Power grid regulation)

5. Industrial automation: Phase-controlled thyristors are also widely used in the field of industrial automation, such as assembly line motor control, elevator control systems, etc. By controlling the switching status of phase-controlled thyristors, precise control and efficient operation of automated equipment can be achieved.

(Industrial automation)

Proffil Cwmni

Luoyang Datang Energy Tech Co.Ltd(sales@pddn.com) yw un o'r mentrau blaenllaw ym maes technoleg electroneg pŵer a chynhyrchion pŵer, sy'n ymwneud yn llawn â datblygu gwrthdroyddion solar， trawsnewidyddion, rheolyddion foltedd, cypyrddau dosbarthu, thyristors， modiwlau， deuodau， gwresogyddion, a dyfeisiau electronig neu led-ddargludyddion eraill. Byddwn wedi ymrwymo i ddarparu defnyddwyr o ansawdd uchel, cynhyrchion effeithlon a gwasanaeth ystyriol.

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PaymentMethods

L/C, T/T, Undeb gorllewinol, Paypal, Cerdyn Credyd ac ati.

Cludo

Ar y môr, mewn awyren, trwy fynegi, fel cais cwsmeriaid.

Amodau Storio

1) Storio mewn amgylchedd sych ar dymheredd ystafell.

2) Osgoi lleithder a thymheredd uchel.

3) Defnyddiwch yn syth ar ôl agor y bag pacio mewnol.

FAQ

C1:

What is Phase Control Thyristors?

Par: Phase Control Thyristors, also known as thyristors, are semiconductor power electronic devices that can adjust the voltage and current of input AC power by controlling their conduction angle.

C2:

What are the characteristics of Phase Control Thyristors?

Par: Phase Control Thyristors have the characteristics of high voltage resistance, high current, low conduction impedance, and fast response and are widely used in various power control and regulation systems, such as dimmers, speed regulators, uninterruptible power supplies, etc.

C3:

What is the working principle of Phase Control Thyristors?

Par: Phase Control Thyristors is to control its conduction angle by controlling the voltage of its gate, thereby adjusting the voltage and current of the input AC power. When the gate voltage is zero, the thyristor is in the cut-off state. When the gate voltage reaches a specific value, the thyristor begins to conduct, and the magnitude of its conduction angle depends on the amplitude and width of the gate voltage.

C4:

How do you choose the appropriate Phase Control Thyristors?

Par: Choosing the appropriate Phase Control Thyristors requires consideration of its rated voltage, rated current, reverse peak voltage, forward voltage drop, trigger sensitivity, and other parameters. At the same time, it is necessary to choose suitable models and specifications according to the actual application needs.

C5:

How do you use and maintain Phase Control Thyristors correctly?

Par: When using Phase Control Thyristors, ensure that their operating voltage and current do not exceed their rated values and maintain appropriate heat dissipation conditions. At the same time, its appearance and performance should be regularly inspected, and any abnormalities and problems should be detected and dealt with in a timely manner to ensure its regular operation and extend its service life.