THERMAL RUNAWAY IN RECTIFIER Search Results

STO-220

Contextual Info: SHINDENGEN Shottky Rectifiers SBD DF15JC10 100V 15A Dual OUTLINE DIMENSIONS Case : STO-220 Unit : mm FEATURES 1. Low IR 2. Avoid thermal runaway 3. Available in the STO-220 lead type and surface mount type APPLICATION 1. Secondary rectifiers in notebook PC,

DF20JC10

Contextual Info: SHINDENGEN Shottky Rectifiers SBD DF20JC10 100V 20A Dual OUTLINE DIMENSIONS Case : STO-220 Unit : mm FEATURES 1. Low IR 2. Avoid thermal runaway 3. Available in the STO-220 lead type and surface mount type APPLICATION 1. Secondary rectifiers in notebook PC,

DF30JC10

Abstract: 30A shottky 50V
Contextual Info: SHINDENGEN Shottky Rectifiers SBD DF30JC10 100V 30A Dual OUTLINE DIMENSIONS Case : STO-220 Unit : mm FEATURES 1. Low IR 2. Avoid thermal runaway 3. Available in the STO-220 lead type and surface mount type APPLICATION 1. Secondary rectifiers in notebook PC,

1N5817

Abstract: 1N5818 1N5819
Contextual Info: 1N5817 - 1N5819 Schottky Barrier Rectifier Features • 1.0 ampere operation at TA = 90°C with no thermal runaway. • For use in low voltage, high frequency inverters free wheeling, and polarity protection applications. DO-41 plastic case COLOR BAND DENOTES CATHODE

Contextual Info: SB120-SB1100 SB120 - SB1100 Features • 1.0 ampere operation at TA = 75°C with no thermal runaway. • For use in low voltage, high frequency inverters free wheeling, and polarity protection applications. DO-41 COLOR BAND DENOTES CATHODE Schottky Rectifiers

sb340 diode

Abstract: SB360 SB320-SB3100 SB360 diode SB3100 SB320
Contextual Info: SB320 - SB3100 Features • • 1.0 min 25.4 3.0 ampere operation at TA = 75°C with no thermal runaway. Dimensions in inches (mm) For use in low voltage, high frequency inverters free wheeling, and polarity protection applications. 0.375 (9.53) 0.285 (7.24)

Contextual Info: SB320-SB3100 SB320 - SB3100 Features • 3.0 ampere operation at TA = 75°C with no thermal runaway. • For use in low voltage, high frequency inverters free wheeling, and polarity protection applications. DO-201AD COLOR BAND DENOTES CATHODE Schottky Rectifiers

Contextual Info: SB120-SB1100 SB120 - SB1100 Features • 1.0 ampere operation at TA = 75°C with no thermal runaway. • For use in low voltage, high frequency inverters free wheeling, and polarity protection applications. DO-41 COLOR BAND DENOTES CATHODE 1.0 Ampere Schottky Barrier Rectifiers

Contextual Info: FR 151G FR 157G THRU FAST RECOVERYGLASS PASSIVATED RECTIFIERS DO-2Q4AC DO-15 FEATURES: • High temperature bonded construction 0.140(3.6) 0.104(2.6) DIA. • Fast switching for use in hugh frequency circuit • No thermal runaway at 1.5 Amp. Current Ta=55t:

Contextual Info: FR201G FR207G THRU FAST RECOVERYGLASS PASSIVATED RECTIFIERS FEATURES: DQ-204AC DQ-15 • High temperature bonded construction 0.140(3.6) 0.104(2.6) DIA. • Fast switching for use in high frequency circuit • No thermal runaway at 2.0 Amp. Current Ta=55°C

Contextual Info: FR101G FR107G THRU FAST RECOVERYGLASS PASSIVATED RECTIFIERS DO-2Q4AL DO-41 FEATURES: • High temperature bonded construction 0.107(2.7) 0.080(2.0) DIA. • Fast switching for use in high frequency circuit • No thermal runaway at 1 Amp. Current Ta=55°C

Contextual Info: FR 151G FR 157G THRU FAST RECOVERYGLASS PASSIVATED RECTIFIERS DO-2Q4AC DO-15 FEATURES: • High temperature bonded construction 0.140(3.6) 0.104(2.6) DIA. • Fast switching for use in hugh frequency circuit • No thermal runaway at 1.5 Amp. Current Ta=55t:

Contextual Info: FR 151G S THRU FR 157GS FAST RECOVERYGLASS PASSIVATED RECTIFIERS DO-2Q4AUDO-41 FEATURES: 0.107 2.7) 0.080(2.0) DIA. • High temperature bonded construction • Fast switching for use in hugh frequency circuit • No thermal runaway at 1.5 Amp. Current Ta=55t:

Contextual Info: FR101G FR107G THRU FAST RECOVERYGLASS PASSIVATED RECTIFIERS DO-2Q4AL DO-41 FEATURES: • High temperature bonded construction 0.107(2.7) 0.080(2.0) DIA. • Fast switching for use in high frequency circuit • No thermal runaway at 1 Amp. Current Ta=55°C

N5408

Contextual Info: SEMICONDUCTOR 1N5400 - 1 N5408 Features 1.0 min • 3.0 ampere operation at TA = 7 5 °C with no thermal runaway. 25.4; Dimensions in inelies (mmj • High current capability. • Low leakage. 0.375 (9.53; 0.2S5 (7.24; DO-201 AD COLOR BAND DENOTES CATHODE

N5399

Contextual Info: SEMICONDUCTOR i 1N5391 -1 N5399 Features 1.0 iron • 1.5 ampere operation at TA = 70°C with no thermal runaway. 25.4> Dimensions in inches (mm • High current capability. 0.300 17.621 0.230 (5.84) • Low leakage. DO-15 COLOR BAND DENOTES CATHODE 0.140 (3.56)

Contextual Info: FR201 FR207 THRU FAST RECOVERY SILICON RECTIFIERS FEATURES: DQ-204AC DQ-15 • High temperature bonded construction 0.140(3.6) 0.104(2.6) DIA. • Fast switching for use in high frequency circuit • No thermal runaway at 2.0 Amp. Current Ta=55°C • High temperature soldering guaranteed : 250 °C /10 seconds,

1N54001

Abstract: n5408
Contextual Info: S E M IC O N D U C T O R , 1N5400 -1 N5408 1N5400-1N5408 D iscrete POWER & S ign al Technologies F A IR C H IL D Features • 3.0 ampere operation at TA = 75°C with no thermal runaway. l.O m in 25.4 Dimensions in inches, (mm) • High current capability.

1N5393

Contextual Info: 1N5393 / 1N5397 General-Purpose Rectifiers Features • 1.5 A Operation at TA = 75°C with No Thermal Runaway • High Current Capability • Low Leakage DO-15 Color Band Denotes Cathode Absolute Maximum Ratings 1 Stresses exceeding the absolute maximum ratings may damage the device. The device may not function or be operable above the recommended operating conditions and stressing the parts to these levels is not recommended. In addition, extended exposure to stresses above the recommended operating conditions may affect device reliability. The

Valere

Abstract: H1250C CA210203104 48v output rectifiers circuit diagrams Valere NIC1000 CA312181178 NIC1000 H2000A 10 amp fuse NIC1001
Contextual Info: Naming & Ordering Guide for The Mini 1U Power System Issue Date: January, 2006 Issue 1.7 Supersedes Issue 1.5 12/25/05 Mini Power System Description .- 3 Mini Power System Numbering Convention.- 3 AC Input Types .- 4 Shelf Family Letter Codes.- 4 Mini System Shelf and Distribution Concepts .- 5 DC Distribution Circuits .- 5 H Series Rectifiers Numbering Convention .- 6 H Series Rectifiers Basic Models .- 7 Mini System Alarm and Communication Options .- 8 NIC Network Interface Card .- 8 NIC Naming Convention.- 8 NIC Basic Models.- 8 Sample Operating Parameters.- 9 H-TRIO-02 (Thermal Relay Input/Output) .- 13 HC Display.- 13 Line Cord Naming Convention.- 14 Line Cord Examples .- 14 LI Type.- 15 LU Type .- 15 NEMA Plugs .- 15 Non-Locking Plugs .- 15 Locking Plugs .- 15 Alarm Cables.- 16 Temperature Probes .- 16 Circuit Breaker Naming Convention .- 17 Fuse Naming Convention .- 18 Fuse Examples.- 18 How to Order. 19

1n5819 equivalent

Abstract: 1n5819
Contextual Info: 1N5817, 1N5818, 1N5819 1N5817 and 1N5819 are Preferred Devices Axial Lead Rectifiers . . . employing the Schottky Barrier principle in a large area metal-to-silicon power diode. State-of-the-art geometry features chrome barrier metal, epitaxial construction with oxide passivation

Contextual Info: 1N5820, 1N5821, 1N5822 1N5820 and 1N5822 are Preferred Devices Axial Lead Rectifiers . . . employing the Schottky Barrier principle in a large area metal−to−silicon power diode. State−of−the−art geometry features chrome barrier metal, epitaxial construction with oxide passivation

1n5819 equivalent

Contextual Info: 1N5817, 1N5818, 1N5819 1N5817 and 1N5819 are Preferred Devices Axial Lead Rectifiers . . . employing the Schottky Barrier principle in a large area metal−to−silicon power diode. State−of−the−art geometry features chrome barrier metal, epitaxial construction with oxide passivation

1n5819 equivalent

Abstract: 1N5817-19 1N5817 1N5817G 1N5817RL 1N5817RLG 1N5818 1N5818G 1N5818RL 1N5818RLG
Contextual Info: 1N5817, 1N5818, 1N5819 1N5817 and 1N5819 are Preferred Devices Axial Lead Rectifiers This series employs the Schottky Barrier principle in a large area metal−to−silicon power diode. State−of−the−art geometry features chrome barrier metal, epitaxial construction with oxide passivation