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ISL5829/2INZ Intersil Corporation Dual 12-bit, +3.3V, 210/130MSPS, CommLink™ High Speed D/A Converter; LQFP48; Temp Range: -40° to 85°C visit Intersil Buy
HI5728/6INZ Intersil Corporation DUAL, PARALLEL, WORD INPUT LOADING, 35us SETTLING TIME, 10-BIT DAC, PQFP48, 7 X 7 MM, ROHS COMPLIANT, PLASTIC, MS-026BBC, LQFP-48 visit Intersil
ISL5729/2INZ Intersil Corporation Dual 10-bit, +3.3V, 210/130MSPS, CommLink™ High Speed D/A Converter; LQFP48; Temp Range: -40° to 85°C visit Intersil Buy
HI5728INZ-T Intersil Corporation 10-Bit, 125/60MSPS, Dual High Speed CMOS D/A Converter; LQFP48; Temp Range: -40° to 85°C visit Intersil Buy
ISL5627INZ Intersil Corporation Dual 8-bit, +3.3V, 260MSPS, High Speed D/A Converter; LQFP48; Temp Range: -40° to 85°C visit Intersil Buy
CA3338AM Intersil Corporation PARALLEL, 8 BITS INPUT LOADING, 0.02us SETTLING TIME, 8-BIT DAC, PDSO16, PLASTIC, MS-013-AA, SOIC-16 visit Intersil

how to stepup 0.5v to 5v

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how to stepup 0.5v to 5v

Abstract: , Synchronous Step-Up DC/DC Converter 92% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5V, IQ = 19µA/300µA , ), 3MHz, Synchronous Step-Up DC/DC Converter 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5.5V, IQ = , ), 1.25MHz, Synchronous Step-Up DC/DC Converter with Output Disconnect 95% Efficiency, VIN: 1.8V to 5V , intermediate loads, the peak inductor current may vary from 150mA to 400mA. Figure 2 shows an example of how , (ISW), 1.2MHz/2MHz, High Efficiency Step-Up DC/DC Converter High Efficiency, VIN: 2.6V to 16V, VOUT
Linear Technology
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how to stepup 0.5v to 5v

Abstract: ic 3525 internal block diagram ), 1.2MHz, Synchronous Step-Up DC/DC Converter 92% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5V, IQ = , 2A (ISW), 3MHz, Synchronous Step-Up DC/DC Converter 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = , /DC Step-Up Converter with Output Disconnect 95% Efficiency, VIN: 0.85V to 4.5V, VOUT(MAX) = 5V , frequency (how often the LTC3525L-3 delivers a burst of current pulses to the load) is determined by the , 1A (ISW), 1.2MHz/2MHz, High Efficiency Step-Up DC/DC Converter High Efficiency, VIN: 2.6V to 16V
Linear Technology
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how to stepup 0.5v to 5v ic 3525 internal block diagram Step-up 1.2V to 3.2V 60mA 3525 PWM lt3525 dc 5v 1a sc6 3525L-3 QFN-32 LTC3427 LTC3429/LTC3429B LTC3458 LTC3458L

how to stepup 0.5v to 5v

Abstract: 3525 ic data sheet /LTC3400B 600mA (ISW), 1.2MHz, Synchronous Step-Up DC/DC Converter 92% Efficiency, VIN: 0.5V to 5V , Step-Up DC/DC Converter 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5.5V, IQ = 38µA, ISD , /DC Step-Up Converter with Output Disconnect 95% Efficiency, VIN: 0.85V to 4.5V, VOUT(MAX) = 5V , 150mA to 400mA. Figure 1 shows an example of how the inductor current changes as the load increases , The "burst" frequency (how often the LTC3525L-3 delivers a burst of current pulses to the load) is
Linear Technology
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3525 ic data sheet 3525 datasheet glucose meter application note step up converter with output disconnect LT1930 LTC3400/LTC3400B LTC3459 LTC3525 LTC3526/LTC3526B
Abstract: 600mA (ISW), 1.2MHz, Synchronous Step-Up DC/DC Converter 92% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = , LT3427 500mA (ISW), 1.2MHz, Step-Up DC/DC Converter with Output Disconnect VIN: 1.8V to 5V, VOUT , Synchronous Step-Up DC/DC Converter with Output Disconnect VIN: 0.5V to 4.5V, VOUT(MAX) = 5V, IQ = 7µA , inductor current may vary from 150mA to 400mA. Figure 2 shows an example of how the inductor current , Step-Up DC/DC Converter VIN: 1V to 15V, VOUT(MAX) = 34V, IQ = 20µA, ISD < 1µA, ThinSOTâ"¢ Package Linear Technology
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LTC3525D-3 3525D-3 LTC3525D LT3464 LTC3525-3/LTC3525-3 LTC3525-5

how to stepup 0.5v to 5v

Abstract: ic 3525 ), 1.2MHz, Synchronous Step-Up DC/DC Converter 92% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5V, IQ = , 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5.5V, IQ = 38µA, ISD , (how often the LTC3525D delivers a burst of current pulses to the load) is determined by the internal , 1A (ISW), 1.2MHz/2MHz, High Efficiency Step-Up DC/DC Converter High Efficiency, VIN: 2.6V to 16V
Linear Technology
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ic 3525 LTC1930 3525 ic LQH32CN1002K53 GRM219R60J106KE191D 3525 boost

Step-up 1.2V to 3.2V 60mA

Abstract: LTC3525D-3 % Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5V, IQ = 19µA/300µA, ISD < 1µA, ThinSOT Package LTC3401 1A (ISW), 3MHz, Synchronous Step-Up DC/DC Converter 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5.5V , -5 400mA Synchronous Step-Up DC/DC Converter with Output Disconnect VIN: 0.5V to 4.5V, VOUT(MAX) = 5V , current may vary from 150mA to 400mA. Figure 2 shows an example of how the inductor current changes as , -1 300mA/80mA (ISW), High Efficiency Step-Up DC/DC Converter VIN: 1V to 15V, VOUT(MAX) = 34V, IQ = 20µA
Linear Technology
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LQH32CN100K53

how to stepup 0.5v to 5v

Abstract: LQH32CN100K53 ), 3MHz, Synchronous Step-Up DC/DC Converter 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5.5V, IQ = , output voltages of 3.3V or 5V. Up to 95% Efficiency Output Disconnect and , or 5V. Peak switch current is 400mA minimum, providing regulation with load currents up to 150mA , intermediate loads, the peak inductor current may vary from 150mA to 400mA. Figure 1 shows an example of how , (how often the LTC3525 delivers a burst of current pulses to the load) is determined by the internal
Linear Technology
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LTC3525-3 3/LTC3525-5 SC-70 LTC3421 QFN-24 LTC3425
Abstract: , Synchronous Step-Up DC/DC Converter 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5.5V, IQ = 38µA, ISD , output voltage is preset internally to either 3V, 3.3V or 5V. Peak switch current is 400mA minimum , 10µH* LTC3525-3.3 VIN VOUT 3.3V 60mA 4 Li-Ion to 5V 10µH* 3 6 *COILCRAFT , TO 5V Converter with 1.4mm Profile 10µH* 3 3.3V 1 2 LTC3525-5 SW VIN SHDN VOUT , 1615/LT1615-1 300mA/80mA (ISW), High Efficiency Step-Up DC/DC Converter VIN: 1V to 15V, VOUT(MAX Linear Technology
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LTC3525-3/ 3525-3/LTC3525-3

MSS4020-103MXD

Abstract: LT3525 , Synchronous Step-Up DC/DC Converter 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5.5V, IQ = 38µA, ISD , required. The LTC3525 is offered in fixed output voltages of 3V, 3.3V or 5V. Up to 95% Efficiency , internally to either 3V, 3.3V or 5V. Peak switch current is 400mA minimum, providing regulation with load , current may vary from 150mA to 400mA. Figure 1 shows an example of how the inductor current changes as , Li-Ion to 5V 10µH* 1.8V to 3.2V 3 1 2 10µH* LTC3525-3.3 SHDN VOUT 3.3V 140mA
Linear Technology
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MSS4020-103MXD V3-525 lbtg

ic 3525 pwm application dc to dc converter

Abstract: ic 3525 internal block diagram , Synchronous Step-Up DC/DC Converter 92% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5V, IQ = 19µA/300µA, ISD , , Synchronous Step-Up DC/DC Converter 97% Efficiency, VIN: 0.5V to 5V, VOUT(MAX) = 5.5V, IQ = 38µA, ISD , current) and maintain regulation. The output voltage is preset internally to either 3V, 3.3V or 5V. Peak , zero. from 150mA to 400mA. Figure 2 shows an example of how the inductor current changes as the , 10µH* LTC3525-3.3 VIN VOUT 3.3V 60mA 4 Li-Ion to 5V 10µH* 3 6 *COILCRAFT
Linear Technology
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ic 3525 pwm application dc to dc converter ic 3525 pwm application Step-up 1.2V to 3V 60mA bd ic 3525 internal block diagram ic 3525 8 pin pwm application driver 3525

12v 5a dc dc converter

Abstract: how to stepup 0.5v to 5v . This board delivers 12V at 5 Amps from an input range of 5V to 32V. The LTC3780 is a high performance buck-boost switching regulator controller designed to regulate outputs using input voltages above, below , operation and how the chip transitions from mode to mode, please refer to the LTC3780 data sheet , QUICK START GUIDE FOR DEMONSTRATION CIRCUIT DC686 HIGH EFFICIENCY STEP-UP/DOWN DC/DC CONVERTER LTC3780 DESCRIPTION Demonstration circuit 686, featuring the LTC3780, is a high efficiency step-up/down
Linear Technology
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12v 5a dc dc converter 12v 5a dc dc boost converter TP10

k 3436 ic

Abstract: k 3436 transistor , Synchronous Step-Up DC/DC Converter 92% Efficiency, VIN = 0.85V to 5V, VOUT(MAX) = 5V, IQ = 19µA/300µA , , Synchronous Step-Up DC/DC Converter 97% Efficiency, VIN = 0.5V to 5V, VOUT(MAX) = 6V, IQ = 38µA, ISD = , TYPICAL APPLICATIO Efficiency vs Load Current 5V to 12V Boost Converter 90 VIN = 5V VOUT = , CAPACITOR Step-up regulators supply current to the output in pulses. The rise and fall times of these , shows how to add undervoltage lockout (UVLO) to the LT3436. Typically, UVLO is used in situations where
Linear Technology
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TSSOP-16 k 3436 ic k 3436 transistor 593D B220A DO1608C-222 LT3436EFE LT1613 LT1618 LT1946/LT1946A LT1961 LTC3402

Nichicon bipolar

Abstract: LQH4N Murata 2 60 72 84 2 - V 2 VIN =5V IOUT=output voltage/2.4M to output voltage , 60 72 84 % 2 - V 2 VIN =5V IOUT=Output voltage/2.4M to Output voltage/24k , flowing into resistors RA, RB during step-up operation may affect the efficiency. Set RA, RB to the , to"H"and VSTRB to H to reset the contents of the register. Then, start step-up operation under the state where the power off pin is being set to "H. " NoteIf you start step-up operation without resetting the
Seiko Instruments
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Nichicon bipolar LQH4N Murata S-8330A20FS-T2 S-8330A22FS-T2 S-8330A24FS-T2 S-8330A26FS-T2 11S833003 S-8330/31 S-8330 S8330A/B 11S8330002

50K potentiometer

Abstract: 5k potentiometer how a digital potentiometer can be used in the feedback loop of a step-up DC-DC converter to provide , how to use a digital potentiometer in the feedback loop of a stepup DC-DC converter to allow the , While the intent of this application note is to show an example of a step-up DC-DC converter, the ideas , . A link to AN225 appears at the end of this document. Fixed Step-up DC-DC Converter The typical , Figure 1. Fixed Step-Up DC-DC Converter Circuit UNFILTERED VOUT VCC = VIN = 5V + VIN = 5V - C1
Maxim Integrated Products
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MAX5025 DS1845 50K potentiometer 5k potentiometer datasheet 50K potentiometer 10K potentiometer 5k pot potentiometers 5k AN226

pot b503

Abstract: MAX631 to 150mW 0.2 %VOUT Oscillator Frequency fo VOUT = +5V MAX631A MAX631B VOUT = +12V MAX632A MAX632B , step-up circuit for the MAX631/632/633. The circuit corresponds to Table 1 which shows values for typical , exceeding the current rating of N1: 8 (VOUT - V|\|) IOUT V|N < 450mA Figure 1. +3V to +5V Converter and , . +5V to + 15V/- 12V Converter Negative Output Voltage The Charge Pump (CP) output is a low impedance , : A +5V 10% Input must be converted to +15V at 15mA. A Schottky diode (1N5817) and a MAX633B are used
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OCR Scan
MAX631 MAX632 MAX633 pot b503 MAX631XCPA 7070-29 Caddell-Burns Diode N4148 MAX631XCSA MAX633XCPA MAX633XCSA MAX633XC/D

LTQY

Abstract: Hughes 3121H-P laser SS, MS8 Package LTC3400/ LTC3400B 1.2MHz, 600mA, Synchronous Step-Up VIN = 0.85V to 5V, Up , , Synchronous 3MHz Step-Up DC/DC Converter VIN = 0.5V to 5V, Up to 97% Efficiency Synchronizable Oscillator , 3MHz Step-Up DC/DC Converter VIN = 0.7V to 5V, Up to 95% Efficiency Synchronizable Oscillator from , Technology Corporation. *Patent Pending U TYPICAL APPLICATIO Efficiency vs Load Current 5V to , 1961 F02 GND Figure 2. Feedback Network OUTPUT CAPACITOR Step-up regulators supply current to
Linear Technology
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LTQY Hughes 3121H-P laser LQH3C1r0 LQH3C1R0M24 1NS818 LQH3C2R2M24 MS10E LT1370 LT1371 LT1372/LT1377 LTC3405/ LTC3405A

pot b503

Abstract: IN5617 _General Description The MAX631, MAX632, and MAX633 are +5V, +12V, and + 15V fixed output, step-up DC-DC , +0.5VOUT, Pout = OmW to 150mW 0.2 %VOUT Oscillator Frequency fo VOUT = +5V MAX631A MAX631B VOUT = +12V , step-up circuit for the MAX631/632/633. The circuit corresponds to Table 1 which shows values for typical , . +3V to +5V Converter arid Block Diagram A low output voltage turns N1 on and off at the internal , voltages (+5V for the MAX631, +12V for the MAX632, and +15V for the MAX633), VFB Is connected to GND, and
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OCR Scan
MAX631XEPA IN5617 diode IN5617 MAX631XEJA MAX631XESA MAX631XMJA MAX631XC/D MAX633XEPA MAX633XESA MAX633XEJA MAX633XMJA

LTQY

Abstract: 1NS818 APPLICATIO L1 6.8µH 5V to 12V Boost Converter D1 UPS120 INPUT 5V C3 2.2µF CERAMIC VIN OPEN OR HIGH = , how to add undervoltage lockout (UVLO) to the LT1961. Typically, UVLO is used in situations where the , , switch AC loss, drive current, and input quiescent current. The following formulas show how to calculate , Cell to 5V L1 4.7µH D1 UPS120 VOUT 5V R1 31.6k 1% VIN OFF SINGLE Li-Ion CELL ON S/S LT1961 VSW , , VOUT up to 34V, Integrated SS, MS8 Package VIN = 0.85V to 5V, Up to 95% Efficiency, ThinSOT Package VIN
Linear Technology
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3121H-P 1N4002 CTX02-11128 ZTX849 MKP-20 SEMTECH-FM-50

IN414B

Abstract: IN4148 diode forward bias resistance >1/1 yj xi CMOS Fixetl/Adjustable Output Step-Up Switching Regulators _General Description The MAX631, MAX632, and MAX633 are +5V, +12V, and +15V fixed output, step-up DC-DC converters for use , = +0.5vout, Pout = omw to 150mw 0.2 %VOUT Oscillator Frequency fo VOUT = +5V MAX631A MAX631B VOUT = +12V , MAX631 +5V 40mA vout^ ci ; lOOjjF Ccomp 100pF Figure 1. +3V to +5V Converter and Block Diagram 4-60 , /Adjustable Output Step-Up Switching Regulators Let R4 be any resistance in the 10kil to 10MQ range
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OCR Scan
IN414B IN4148 diode forward bias resistance Caddell-Burns 6860 B64290-K38-X38 IN5817 schottky diode symbol MAX632XCPA

Hughes 3121H-P laser

Abstract: LXHL-LW6C Computers Battery-Powered Systems Distributed Power TYPICAL APPLICATIO 3.9µH 5V to 12V Boost , Network OUTPUT CAPACITOR Step-up regulators supply current to the output in pulses. The rise and fall , normal operation is equal to output current. SHUTDOWN AND UNDERVOLTAGE LOCKOUT Figure 4 shows how to add , , drive current, and input quiescent current. The following formulas show how to calculate each of these , C6 0.1µF D2 1N4148 C5 0.1µF R4 1M VIN 5V OFF ON 3V to 20VIN 5VOUT SEPIC with Either Two
Linear Technology
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LXHL-LW6C voltage regulator 12v to 6V 2a V3436 CDC5D23
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