SBR2530 MICROSEMI | Alldatasheet

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Technical content

M =o Dim. Inches Millimeter “\\\\ Minimum Maximum Minimum Maximum Notes ( (Sa) B KY A === ane ae 1 Bo 424.437 10.77. 11.10 E 422 453 10.72. 11.50 Fo 075 175 1.91 4.44 D . H 163 -189 4.15 4.80 2 — Notes: Jo === 310 --- 7.87 4 6 1, 10-32 UNF3A threads M --- 350 --- 8.89 Dia. F 2. Full threads within 2 1/2 N 020.065 510 1.65 threads P 060 -100 1.53 2.54 Dia. E 3. Standard Polarity: A Stud is Cathode Reverse Polarity: Stud is Reverse Polarity DO203AA (D04) Microsemi Working Peak Repetitive Peak © Schottky Barrier Rectifier Catalog Number Reverse Voltage Reverse Voltage © Guard Ring Protection SBR2530* 30V 30V SBRoeaoe Soy Sey © Low Forward Voltage SBR2540* 40v 40V e@VRRM — 30 to 45V SBR2545* 45V 45V © 25 Amperes © Reverse Energy Tested *Add the Suffix R for Reverse Polarity

Electrical Characteristics

Average forward current 'F(AV) 25 Amps Tc = 105°C, Square wave, R@JC = 1.6°C/W Maximum surge current 'FSM 600 Amps 8.3 ms, half sine Ty = 150°C Max repetitive peak reverse current IR(OV) 2 Amps f = 1 KHz, 25°C, 1 psec Square wave Max peak forward voltage VFM .53 Volts IFM = 25a: Ty = 150°C* Max peak forward voltage VFM .58 Volts IPM = 25a: Ty = 25°C* Max peak reverse current 'RM 250 mA VRRM, Ty = 125°C* Max peak reverse current IRM 2 mA VRRM, TJ = 25°C Typical junction capacitance Cy 1200 pF VR ='5.0v, f) = 25°C *Pulse test: Pulse width 300 usec, Duty cycle 2% Thermal and Mechanical Characteristics Storage temp range TsTG 55°C to 175°C Operating junction temp range Ty —55°C to 150°C Max thermal resistance R @JC 1.6°C/W Junction to case Typical thermal resistance (greased) R OCS 0.5°C/W Case to sink Mounting torque 12-15 inch pounds Weight 0.2 ounces (6.0 grams) typical . COLORADO a 800 Hoyt Street 4-20-00 Rev. 1 Broomfield, CO. 80020 jcrosemi 2% FAX: (303) 466-3775 www.microsemi.com

Typical Forward Characteristics Typical Junction Capacitance 1000 1000 pe gay es Sse ss i eee eee so PE 6000 FEE a es eof ttt pepe yy sooo _/ ET Pr a A A a ee EEE EEE ool Oh veo TTT PPP a ——===5 ae eee = 600 8

200 Wi S800 rt Se

a § go Tt re AT | ° a a too WK} 4+ +} + 449+ 4} + {HY} § oof TUT Tr tt s9 SSS ree 3 a 7 §

6 FE 100

e/a 041 05 1.0 5.0 10 50 100 o LET Tia Tritt ee Reverse Voltage - Volts LL ET TAT TT TT Wi Figure 4 8 oo sot J /| Forward Current Derating 5 ° 3 / / § 160 ; d § 150 jA__f|. 2 —= a 3 PPR TE TE $30 eee 5 ze £80 re e 140 =

8609 Cee s Pt ENE EE

ov LELYyHTT Try tri tr | g 130. we s,,-L/ 7 TT ttt ttt tt 8 Pw TE EK 5 * 2 120 SS e tT TTT TT TTT TTT | 2 SSO PoE) fA §20 Soo +t TS Tt dt Zio 3 oo 20° [180°] pc 0 2 4 6 8B 10 12 14 0 5 10 15 20 25 30 35 40 45 50 Instantaneous Forward Voltage - Volts Average Forward Current - Amperes Figure 2 Figure 5 Typical Reverse Characteristics Maximum Forward Power Dissipation SSSssss= FTL € 100 fee /'8 DC £ SS S= SS SS SS 3 o 1.0 [sect _f fff 3 9 V7) 7 & 9 St 2 0 A | 0 10 20 30 40 50 0 5 10 15 20 25 30 35 40 45 50 Reverse Voltage — Volts Average Forward Current - Amperes 4-20-00 Rev. 1