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Part Manufacturer Description Datasheet BUY
LT3502EDC#TRMPBF Linear Technology LT3502/LT3502A - 1.1MHz/2.2MHz, 500mA Step-Down Regulators in 2mm x 2mm DFN and MS10; Package: DFN; Pins: 8; Temperature Range: -40°C to 85°C visit Linear Technology - Now Part of Analog Devices Buy
LT3502EMS#PBF Linear Technology LT3502/LT3502A - 1.1MHz/2.2MHz, 500mA Step-Down Regulators in 2mm x 2mm DFN and MS10; Package: MSOP; Pins: 10; Temperature Range: -40°C to 85°C visit Linear Technology - Now Part of Analog Devices Buy
LT3502AIDC#TRPBF Linear Technology LT3502/LT3502A - 1.1MHz/2.2MHz, 500mA Step-Down Regulators in 2mm x 2mm DFN and MS10; Package: DFN; Pins: 8; Temperature Range: -40°C to 85°C visit Linear Technology - Now Part of Analog Devices Buy
LT3502EMS Linear Technology LT3502/LT3502A - 1.1MHz/2.2MHz, 500mA Step-Down Regulators in 2mm x 2mm DFN and MS10; Package: MSOP; Pins: 10; Temperature Range: -40°C to 85°C visit Linear Technology - Now Part of Analog Devices Buy
LT3502AEMS#PBF Linear Technology LT3502/LT3502A - 1.1MHz/2.2MHz, 500mA Step-Down Regulators in 2mm x 2mm DFN and MS10; Package: MSOP; Pins: 10; Temperature Range: -40°C to 85°C visit Linear Technology - Now Part of Analog Devices Buy
LT3502EDC#PBF Linear Technology LT3502/LT3502A - 1.1MHz/2.2MHz, 500mA Step-Down Regulators in 2mm x 2mm DFN and MS10; Package: DFN; Pins: 8; Temperature Range: -40°C to 85°C visit Linear Technology - Now Part of Analog Devices Buy

ms10 diode

Catalog Datasheet MFG & Type PDF Document Tags

LTC4006

Abstract: LTC1759 Control Ideal BAT WALL RDS (ON) of Ideal Diode Standby Current ­ Li-Ion Battery , Technology's Ideal Diode devices provide a low loss, near "ideal" diode function. They feature lower forward , self-heating, thereby extending battery run time. Part No. Ideal Diode MOSFET Integrated MOSFET , Current Supply Current Package Low-Power PowerPath Controllers and Ideal Diode Devices LTC4411 , . External Ideal Diode MOSFET Max Current LTC4413 vs 1N5817 Schottky Benefit: Less Heat Input
Linear Technology
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LTC4006 LTC1759 LT1512 LTC4060 16.8v 2a li-ion LTC4054 BP10217 D-85737 D-59387 D-73230 I-20041 SE-164

Transistor 169k

Abstract: Part No. Ideal Li-Ion Battery RDS (ON) of Ideal Diode Standby Current + 1V , : Dual 2.6A, 2.5V to 5.5V Ideal Diodes in 3mm × 3mm DFN Linear Technologyâ'™s Ideal Diode devices provide a low loss, near â'˜idealâ'™ diode function. They feature lower forward voltage drop and reverse , battery run time. Part No. Ideal Diode MOSFET Input Voltage Forward Voltage Forward , Controllers and Ideal Diode Devices LTC4411 Single P-channel LTC4413 Dual P-channel 1.5A
Linear Technology
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Transistor 169k I-20156 BB110520K

circuit diagram for 48v automatic battery charger

Abstract: circuit diagram for 24V automatic battery charger Control Ideal BAT WALL RDS (ON) of Ideal Diode Standby Current ­ Li-Ion Battery , Technology's Ideal Diode devices provide a low loss, near "ideal" diode function. They feature lower forward , self-heating, thereby extending battery run time. Part No. Ideal Diode MOSFET Integrated MOSFET , Current Supply Current Package Low-Power PowerPath Controllers and Ideal Diode Devices LTC4411 , . External Ideal Diode MOSFET Max Current LTC4413 vs 1N5817 Schottky Benefit: Less Heat Input
Linear Technology
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circuit diagram for 48v automatic battery charger circuit diagram for 24V automatic battery charger High Current Voltage Regulator mosfet 7805 7805 12v to 5v 3a 7805 12v to 5v 1a 7805 12v to 5v 2a BB0207OL

NTC 2.2K

Abstract: LTC4054L Battery RDS (ON) of Ideal Diode Standby Current + 1V Input Voltage Output Charger , 5.5V Ideal Diodes in 3mm × 3mm DFN Linear Technology's Ideal Diode devices provide a low loss, near `ideal' diode function. They feature lower forward voltage drop and reverse leakage current than , . Ideal Diode MOSFET Integrated MOSFET Max Current Input Voltage Forward Voltage , Controllers and Ideal Diode Devices 1A 2.6 ­ 5.5V 28mV 140m 1µA 35µA ThinSOTTM P-channel
Linear Technology
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NTC 2.2K LTC4054L Lead Acid Battery Charger Switchmode LTC4069 DFN10 thermal resistance DFN-16

6v dc to dc mobile charger circuit

Abstract: ms10 diode applications operating in the 300MHz to 3.5GHz range. A temperature compensated Schottky diode peak detector , optimized for operation from a single lithium-ion cell or 3xNiMH. Internal Schottky Diode RF Detector , Schottky diode. The detected voltage is buffered and supplied to the VOUT pin. A power saving shutdown , Schottky diode detector and peak detector capacitor. (See Note 6 in the Electrical Characteristics.) GND , . These functions include an internally compensated buffer amplifier, an RF Schottky diode peak detector
Linear Technology
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LTC5505-1 LTC5505-2 6v dc to dc mobile charger circuit ms10 diode 6v dc to dc mobile charger circuit with 500mA wireless mobile charger block diagram metal detector diagram PI LTRW LTC5505-1/LTC5505-2 5505-X 300MH LTC3405/
Abstract: applications operating in the 300MHz to 3.5GHz range. A temperature compensated Schottky diode peak detector , optimized for operation from a single lithium-ion cell or 3xNiMH. Internal Schottky Diode RF Detector , Schottky diode. The detected voltage is buffered and supplied to the VOUT pin. A power saving shutdown , Schottky diode detector and peak detector capacitor. (See Note 6 in the Electrical Characteristics.) GND , Schottky diode peak detector and level shift amplifier to convert the RF feedback signal to DC, a delay Linear Technology
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LTC3405A LTC3406/ LTC3406B LTC3412 TSSOP-16E LTC3411

zener diode ltc 4211 G13

Abstract: LTC4211MS8 Response Time for Overcurrent Protection (MS10) Programmable Overvoltage Protection (MS10) Automatic Retry or Latched Mode Operation (MS10) High Side Drive for an External N-Channel FET User-Programmable , activates in 20µs (or programmed by an external filter capacitor, MS10 only). The fast comparator trips at , . The MS10 package has FAULT and FILTER pins to provide additional functions like fault indication , protection using an external Zener diode clamp. , LTC and LT are registered trademarks of Linear Technology
Linear Technology
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LTC4211 BZX84C12 zener diode ltc 4211 G13 LTC4211MS8 zener diode ltc 4211 TRANSISTOR M5 mosfet short circuit protection schematic diagra 638U 4410DY LTC4211MS LTC1421 LTC1422

LT1949-1

Abstract: , D4: BAT54S DUAL DIODE L1: SUMIDA CLQ4D103R3 L2: TAIYO YUDEN LB2012B4R7M Start-Up Waveforms , 25V X7R C4, C6: TAIYO YUDEN LMK107BJ684MA D1: MBRM120LT3 D2: CMDSH-3 D3, D4: BAT54S DUAL DIODE , = , 15V, VOUT Max = ±34V, IQ = 20µA, ISHDN =
Linear Technology
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LT1949-1 LT1947 LT1945 LT1946/LT1946A LT1949/LT1949-1 LTC3400/LTC3400B LTC3401
Abstract: SW1 PGND VIN PGND SW2 LT1944EMS MS10 PART MARKING MS10 PACKAGE 10-LEAD PLASTIC MSOP , delivers current to the output through diode D1 as the inductor 4 current ramps down. Q3 turns on , external inductor and diode. The second switching regulator operates in the same manner. LT1944 U , = 0.4V (Schottky diode voltage), ILIM = 350mA and tOFF = 400ns; for designs with varying VIN such , be the peak current seen by the inductor (and the diode) during normal operation. For designs using Linear Technology
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LT1307 LT1316 LT1317 LT1610 LT1611 LT1613

Step-up 12V to 36V 300mA

Abstract: LB2012B4R7M : BAT54S DUAL DIODE L1: SUMIDA CLQ4D103R3 L2: TAIYO YUDEN LB2012B4R7M Start-Up Waveforms VSHDN 5V , DUAL DIODE L1: SUMIDA CLQ4D103R3 L2: TAIYO YUDEN LB2012B4R7M Figure 3. RSS and CSS at SHDN Pin , , Max = ±34V, IQ = 20µA, ISHDN =
Linear Technology
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Step-up 12V to 36V 300mA CIRCUIT DIAGRAM OF 9 INCH TFT MONITOR 12V DC to 24V dC converter circuit diagram LB2012B-4R7M MARKING EA1 2.8 TFT LCD LTC3402 LTC3423 LTC3424

D 1944 npn

Abstract: marking R5B sot-23 flows into the FB pin. 2 U W W W ORDER PART NUMBER LT1944EMS MS10 PART MARKING LTTR MS10 PACKAGE 10-LEAD PLASTIC MSOP TJMAX = 125°C, JA = 160°C/W Consult factory for parts specified , off Q3 for 400ns. L1 then delivers current to the output through diode D1 as the inductor current , switch and in the external inductor and diode. The second switching regulator operates in the same manner , (Schottky diode voltage), ILIM = 350mA and tOFF = 400ns; for designs with varying VIN such as battery
Linear Technology
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D 1944 npn marking R5B sot-23 MuRata capacitors 1uF 0201 marking R5b bd 631 motorola MMBT3906 sot-23 JMK212BJ475 LMK212BJ225 EMK107BJ104 TMK316BJ105 MBR0530 CLQ4D10-100

r2b diode making

Abstract: LT1945 PART NUMBER LT1945EMS MS10 PART MARKING LTTS MS10 PACKAGE 10-LEAD PLASTIC MSOP TJMAX = 125°C, JA = , power dissipation in the power switch and in the external inductor and diode. 4 W L1 C3 L2 VOUT1 , calculated as: L= VOUT - VIN(MIN) + VD ILIM tOFF where VD = 0.4V (Schottky diode voltage), ILIM = 350mA , calculated as: VOUT + VD L = 2 ILIM tOFF where VD = 0.4V (Schottky diode voltage), ILIM = , smaller inductor values. This will be the peak current seen by the inductor (and the diode) during normal
Linear Technology
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r2b diode making 1945 LINEAR LT1615 LT1617 LT1930A LT1947/LT1948

CLQ4DI03R3

Abstract: LB2012B-4R7M LMK107BJ684MA D1: MBRM120LT3 D2: CMDSH-3 D3, D4: BAT54S DUAL DIODE L1: SUMIDA CLQ4D103R3 L2: TAIYO YUDEN , , C6: TAIYO YUDEN LMK107BJ684MA D1: MBRM120LT3 D2: CMDSH-3 D3, D4: BAT54S DUAL DIODE L1: SUMIDA , , VOUT Max = 34V, IQ = 20µA, ISHDN = , , MS10 LT1945 Dual Output, Pos/Neg 350mA ISW, Constant Off-Time, High Efficiency Step-Up DC/DC Converter VIN = 1.2V to 15V, VOUT Max = ±34V, IQ = 20µA, ISHDN =
Linear Technology
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CLQ4DI03R3 MMBT3906 TP

D 1944 npn

Abstract: switch NPN SOT-23 PGND VIN PGND SW2 LT1944EMS MS10 PART MARKING MS10 PACKAGE 10-LEAD PLASTIC MSOP TJMAX = , oneshot, which turns off Q3 for 400ns. L1 then delivers current to the output through diode D1 as the , dissipation in the power switch and in the external inductor and diode. The second switching regulator , ILIM tOFF where VD = 0.4V (Schottky diode voltage), ILIM = 350mA and tOFF = 400ns; for designs , be the peak current seen by the inductor (and the diode) during normal operation. For designs using
Linear Technology
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switch NPN SOT-23 cd43 sumida LQH3C4R7 murata MBR0540 MS10 marking ms10

LT6210

Abstract: ms10 diode 12.6V 10mA MS10 LT6210 LT6205/06/07 LT6550/51 *The LT6210 offers adjustable supply , 12V SSOP-16 1600 x 1200 LT6551 4 110MHz 340V/µs 3V to 12.6V MS10 1024 x 768 LT6550 3 110MHz 340V/µs 3V to 12.6V MS10 1024 x 768 Video Multiplexers Part Number , TSSOP-28 LT1947 1.1A boost 10mA boost 10mA inverter* 2.7V to 8V 30V 3MHz MS10 LT1945 350mA buck 350mA boost 1.2V to 15V 36V C.O.T. MS10 LT1944 350mA boost 350mA
Linear Technology
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LT6553 LT1943 LT1697 LT1786F 3V to 350V dc dc converter LT6206 lamp 3mm 35v 50ma white LT1818 LTC1697 LT1768
Abstract: SW1 PGND VIN PGND SW2 LT1944-1EMS MS10 PART MARKING MS10 PACKAGE 10-LEAD PLASTIC MSOP , delivers current to the output through diode D1 as the inductor current ramps down. Q3 turns on again and , external inductor and diode. The second switching regulator operates in the same manner, but with a 175mA , where VD = 0.4V (Schottky diode voltage), ILIM = 100mA (or 175mA) and tOFF = 400ns (or 1.5µs); for , be the peak current seen by the inductor (and the diode) during normal operation. For designs using Linear Technology
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LT1944-1

EMK107BJ104

Abstract: LQH3C220 PGND VIN PGND SW2 LT1944-1EMS MS10 PART MARKING MS10 PACKAGE 10-LEAD PLASTIC MSOP TJMAX = , through diode D1 as the inductor current ramps down. Q3 turns on again and the inductor 4 current , diode. The second switching regulator operates in the same manner, but with a 175mA current limit and , : L= VOUT - VIN(MIN) + VD ILIM tOFF where VD = 0.4V (Schottky diode voltage), ILIM = 100mA , inductor values. This will be the peak current seen by the inductor (and the diode) during normal
Linear Technology
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LQH3C220 two-cell Step-up 12V

ms10 diode

Abstract: footprint for resistor LDESIGN IDEAS Compact and Versatile Monolithic Synchronous Buck Regulators Deliver 1.25A in Tiny TSOT23, DFN and MS10 Packages by Jaime Tseng Introduction Adding More Options To meet , monolithic synchronous bucks, come in 10-lead 3mm × 3mm DFN and MS10 packages. The LTC3564's internal , Monolithic Synchronous Buck Regulators Deliver 1.25A in Tiny TSOT23, DFN and MS10 Packages , synchronous switch. In discontinuous mode, to emulate the behavior of an ideal diode, the synchronous switch
Linear Technology
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TSOT23-5 LTC3565 footprint for resistor design ideas LTC3411A
Abstract: LTC1706EMS-81 MS10 PART MARKING MS10 PACKAGE 10-LEAD PLASTIC MSOP TJMAX = 110°C, θJA = 120°C/ W , resistor attached to the VID inputs also has a series diode connected to VCC to allow input voltages , pulled up by a 40k resistor in series with a diode connected to VCC. Therefore, it should be grounded , digital high input. The series diode is included to prevent the input from being damaged or clamped when , less than VCC. Because of the internal diode between VCC and the pull-up resistor, the inputs can go Linear Technology
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LTC1706-81 MSOP-10 LTC1622 LTC1628 LTC1629 LTC1702

36V DC to 12V dC converter circuit diagram

Abstract: MO-193 footprint Current The LT3461 has a built-in Schottky diode. When supply voltage is applied to the VIN pin, the , and the Schottky diode to charge the output capacitor to VIN. The maximum nonrepetitive surge current the Schottky diode in the LT3461 can sustain is 1.5A. The selection of inductor and capacitor value , 350mA Switch × 2, VOUT to 36V, IQ = 20µA, MS10 Package 600mA Switch, VIN: 0.85V to 5V, IQ = 19µA, ThinSOT Package 1A Switch, VIN: 0.85V to 5V, IQ = 38µA, MS10 Package 2A Switch, VIN: 0.85V to 5V, IQ =
Linear Technology
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36V DC to 12V dC converter circuit diagram MO-193 footprint 12V DC to 36V dC converter circuit diagram 3461 Step-up 1.2V to 3V 60mA EMK316BJ105 GRM42-6X7R474K50 LQH32CN470 LT1615/LT1615-1 LT1944/LT1944-1 LT3460
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