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bat60a.pdf
BAT 60A Silicon Schottky Diode • Rectifier Schottky diode with extreme Fow V drop for mobile communication 2 • For power supply • For clamping and proptection in low voltage application • For detection
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SCH2.pdf
D15 A1 A1 A2 A2 A1 A1 A2 A2 D51 A1 A1 A2 A2 D65 A1 A1 A2 A2 D8 A3 A4 D30 A3 A4 D44 A3 A4 D58 A3 A4 BAT60J A3 A4 BAT60J A3 A4 BAT60J A3 A4 BAT60J A3 A4 BAT60J D16 B1 B2 BAT60J D38 B1 B2 BAT60J D52 B1 B2 BAT60J D66 B1 B2 D9 B3 B1 B2 B4 D31 B3 B1 B2 B4 D45 B3 B1 B2 B4 D59 B3 B1 B2 B4 C BAT60J B3 B4 BAT60J B3 B4 BAT60J B3 B4 BAT60J B3 B4 C BAT60J D17 BAT60J D39 BAT60J D53 BAT60J D67 D10 C1 C1 C2 C2 D32 C1 C1 C2 C2 D46 C1 C1 C2 C2 D60 C1 C1 C2 C2 BAT60J C3 C3 C4 C4 BAT60J C3 C3 C4 C4 BAT60J C3 C3 C4 C4 BAT60J C3
in „Fehlersuche Code Arduino IDE ESP32 - Timer Interrupt - NTP-Client“ · Mikrocontroller und Digitale Elektronik ·
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Schottky_crossreference.pdf
SEMI SENSITRON 1N5818 1N5818 SB360 31DQ06 1N5819 1N5819 SB5100 50SQ100 1N5822 1N5822 SB580 50SQ080 BAT54 BAT54 SS12 CMSH1-20M BAT54A BAT54A SS14 10MQ040N BAT54C BAT54C SS16 10MQ060N BAT54S BAT54S SS22 CMSH2-20 FMKA140 10MQ040N SS24 CMSH2-40 FMKA140 CMSH1-40M SS26 CMSH2-60 FYP1504DN 15CTQ040 SS34 30BQ040
in „Ersatztyp für Schottky Diode 11dq06“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Robi.c
IsSleepingTime=0; } else { IsSleepingTime=1; } } else //Endzeit < Startzeit (nacht dazwischen) { if (((rtc.hour*60 + rtc.min) >= (TIME_START_HOUR*60 + TIME_START_MINUTE)) || ((rtc.hour*60 + rtc.min) <= (TIME_STOP_HOUR*60 + TIME_STOP_MINUTE))) { IsSleepingTime=0; } else { IsSleepingTime=1; } } if (Bat <= BATTERIE_LOW
in „Wie einen Atmega 32 Programmieren?“ · Mikrocontroller und Digitale Elektronik ·
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ltc4010.pdf
4.2 4.45 V VUV(HYST) Undervoltage Hysteresis Voltage 170 mV VSHDNI Shutdown Threshold Voltage VCC – BAT, CCIncreasing l 45 65 90 mV V Shutdown Threshold Voltage V – BAT, V Decreasing l 15 35 60 mV SHDND CC CC VCE Charge Enable Threshold Voltage VCC – BAT, CCIncreasing l 400 510 600 mV INTVDD Regulator
in „NiMH-Ladeschaltung mit LTC4010 lädt nicht“ · Mikrocontroller und Digitale Elektronik ·
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TP4067.pdf
V VASD V -V 闭锁门限电压 V CC从低到高 60 100 140 mV CC BAT V CC从高到低 5 30 50 mV R PROG10K ● 9 11 13 mA ITERM C/10 终止电流门限 R PROG2.2K ● 40 50 60 mA VPROG PROG 引脚电压 R PROG10K，电流模式 ● 0.9 1.0 1.1 V ICHRG CHRG 引脚漏电流 V CHRG5V（待机模式） 0 1 μA VCHRG CHRG 引脚输出低电压 ICHRG5mA 0.3 0.6 V 4.35V ΔVRECHRG 再充电电池 4.20V VFLOATVRECHRG 60 80 100 mV 门限电压 3.70V 170 230 260 mV TLIM 限定温度模式中的结温 135 ℃ 6 REV_1.0 南京拓品微电子有限公司 TP4067 NanJing Top Power ASIC Corp. 功率 FET“导通”电阻 RON 0.53 Ω （在 V CC 与 BAT 之间） tss 软启动时间 IBAT=0 至 I BAT=1100V/R PROG 50
in „LiFePo4 3,2V Ladegerät“ · Analoge Elektronik und Schaltungstechnik ·
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1510fc.pdf
I – BAT R1 IROG = 500 A/A 1k BAT R3 + 0VP – VA V VREF C CA2 – 2.465V 60k + VREF gm= 0.64 PROG CHARGING CURRENT I RPROG = (I )(2000) BAT 1510 BD C PROG PROG IPROG = 2.465V(2000) (RPROG TEST CIRCUITS Test Circuit 1 LT1510 SENSE I + BAT – CA1 RS1 VC BAT CA2 1k – + + 0.047 F 60k + 56 F VBAT VREF PROG 0.22 F 3.3k R PROG + 1k LT1006 LT1010 2N3055 – + 1k ≈ 0.65V 20k 1510 TC01 7 LT1510/LT1510-5 TEST CIRCUITS Test Circuit 2 LT1510 + OVP
in „Problem mit LT1510“ · Mikrocontroller und Digitale Elektronik ·
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MAX1551.pdf
BAT On-Resistance VUSB = 3.7V, BAT = 3.6V,DC = 0 2 4 Ω USB to BAT Dropout Voltage When charging stops, BAT= 4V, 30 60 90 mV USB falling, 200mV hysteresiDC = 0 BAT BAT Regulation Voltage VDC or USB = 5V
in „Schaltplan überprüfen gerne auch Verbesserungen“ · Mikrocontroller und Digitale Elektronik ·
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Data_Schottky___HF_Dioden.pdf
1.4 60 0.38 up to 2 GHz , mixer and detector BAT 83 0,40 0,36 0,33 1 6 0.35 up to 2-3 GHz , mixer and detector BAT 45 0,50 0,45 0,40 very good power detector up to 4 GHz, and mixer up to 1 4 0.35 2.5 GHz BA
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Datei
spicemodels_schottky_diodes.txt
BV=30.0 IBV=500n + CJO=8.88p M=0.333 N=3.51 TT=7.20n ) *SRC=BAT43W;DI_BAT43W;Diodes;Si; 30.0V 0.200A 5.00ns Diodes Inc Schottky Diode .MODEL DI_BAT43W D ( IS=87.5u RS=18.1m BV=30.0 IBV=500n + CJO=8.88p M=0.333 N=3.51 TT=7.20n ) *SRC=BAT43WS;DI_BAT43WS;Diodes;Si;
in „ltSpice Schottky's nicht auffindbar“ · Analoge Elektronik und Schaltungstechnik ·
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Li-Ion_Charger_TP4054.pdf
Temperature in 120 ℃ TLIM Constant Temperature Mode Power FET “ON” 650 mΩ RON Resistance (Between V CC and BAT) ss Soft-Start Time BAT = 0 toBAT =1000V/R PROG 20 µs RECHARGE Recharge Comparator VBAT High to Low 0.8 1.8 4 ms Filter Time Termination Comparator I Falling Below I /10 0.8 1.8 4 ms TERM BAT CHG Filter
in „ESP32-H2 will nicht schlafen“ · Mikrocontroller und Digitale Elektronik ·
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bq51051B.pdf
PGND PGND 1 20 A1 A2 A3 A4 PGND PGND PGND PGND A21 A19 B1 B2 B3 B4 BOOT1 RECT 3 18 AC2 AC2 AC1 AC1 BAT BOOT2 4 17 C1 C2 C3 C4 BOOT2 RECT RECT BOOT1 CLMP1 CLMP2 5 16 D1 D2 D3 D4 BAT BAT BAT BAT COMM1 COMM2 6 15 E1 E2 E3 E4 COMM2 CLMP2 CLMP1 COMM1 CHG FOD 7 14 F1 F2 F3 F4 AD-EN TS/ TS/CTRL FOD AD-EN CHG
in „BQ51051B Beschaltung Widerstand Ros“ · Mikrocontroller und Digitale Elektronik ·
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4088fb.pdf
Efficiency Battery Charger/USB Power Manager SystemLoad (P OUT BUS ) 100 WALL 3.3µH 90 80 USB V SW V SYSTEM BAT = 4.2V BUS OUT LOAD ) 70 10µF D0 Y 60 D1 GATE N 50 BAT = 3.3V D2 LTC4088 BAT I CHRG F 40 3.3V LDO3V3 10µF E 30 CLPROG PROG C/X GND NTC 20 VBUS= 5V 1µF 8.2Ω Li-Ion 10 BAT= 0mA 0.1µF 2.94k 499Ω 0 10x
in „[EAGLE Anfänger] Package finden oder herstellen“ · Platinen ·
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4011fb.pdf
Threshold Voltage VCC Increasing l 3.85 4.2 4.45 V VUV(HYST) Undervoltage Hysteresis Voltage 170 mV l 5 30 60 mV VSHDNI Shutdown Threshold Voltage DCIN – VCC DCIN Increasing VSHDND Shutdown Threshold Voltage DCIN – VCC DCIN Decreasing l –60 –25 –5 mV VCE Charge Enable Threshold Voltage VCC – BAT, CC Increasing
in „Ladeabschaltung beim LTC 4011“ · Mikrocontroller und Digitale Elektronik ·
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nacrt_main_board_rev10a_coulomb.pdf
8 C47 D4 8 C45 D44=L4 D D R196 155 832HA-1A-F-C 230V-N 22uF 22uF MMSZ5248 ACPL-T350 BAT54 ACPL-T350 BAT54 ACPL-T350 820nF BAT54 C32 ACPL-T350 8,2uF BAT54 C34 ACPL-T350 8,2uF BAT54 665K Ohm 12 V relay C122 R10 50V 5 50V 18V U3 C37 SOT-23 U1 C1 SOT-23 U4 SOT-23 U2 L4,SOT-23 U12 SOT-23 Q31
in „SUCHE Transistor KGF75N65KDF“ · Analoge Elektronik und Schaltungstechnik ·
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Solar_Battery_Inverter_48V_TN-1500-SPEC.pdf
PANEL INDICATOR Battery voltage level, output load level, saving mode, fault and operation status BAT. VOLTAGE 12V 24V 48V 12V 24V 48V VOLTAGERANGE(Typ.) Note.310.5 ~ 15VDC 21 ~ 30VDC 42 ~ 60VDC 10.5 ~ 15VDC 21 ~ 30VDC 42 ~ 60VDC DC CURRENT (Typ.) Note.150A 75A 37.5A 150A 75A 37.5A INPUT NO LOAD DISSIPATION
in „[V] True-Sinus-Wechselrichter Meanwell TN-1500“ · Markt ·
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Anhang3.pdf
V 充电模式，R PROG1.2K ● 150 500 μA 待机模式（充电终止） ● 55 100 μA ICC 输入电源电流 停机模式（R 未连接， ● 55 100 μA PROG VCCV BAT，或 V <CC） UV 55 100 VFLOAL 稳定输出（浮充）电压 0℃≤ TA≤ ℃， 4．158 4．2 4．242 V RPROG2.4K ，电流模式 ● 450 500 550 mA BAT 引脚电流 : RPROG1.2K ，电流模式 ● 950 1000 1050 mA BAT 电流模式测试条件是 待机模式， V BAT4.2V ● 0 － 2.5 － 6 μ A VBAT=
in „sichere Umsetzung Schutzabschaltung Akku“ · Analoge Elektronik und Schaltungstechnik ·
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cmu_bat.txt
cmu_b.bat. REM ** REM ** REM ** REM ** HISTORY REM ** $Log: cmu_coff.bat $ REM REM /main/5.20/1 8 Dec 2008 17:04:54 schro_ra REM REM /main/5.00/1 18 Feb 2008 12:45:58 schro_ra REM REM /main/4.60/1 9 Nov 2007
in „Option B41 bei einer CMU200 nachrüsten.“ · HF, Funk und Felder ·
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IP2312.pdf
4 5 NTC BAT ESOP8 图 2IP2312 引脚图 Pin NaPin NuPin Description D1 1 LED 驱动引脚/电池类型选择（IP2312_VSET） TEST 2 测试引脚，接 1K 电阻到电池正极 D2 3 LED 驱动引脚 NTC 4 NTC 温度保护，接 NTC 电阻 BAT 5 连接锂电池正极 ICHG 6 充电电流设置引脚 SW 7 DC-DC 开关引脚 VIN 8 5V
in „TP4056 zuwarm (72+C) dumm verlötet und schlechte Idee ?“ · Analoge Elektronik und Schaltungstechnik ·
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DS32kHz.pdf
Connect (Must be grounded) C7, C8, D7, D8 13 All remaining 4 GND Ground balls 14 A4, A5, B4, B5 5 V BAT +3V Nominal Supply Input. Used to operate the device when V CC is absent. Figure 1. Delta Time and Frequency vs. Temperature 0 0 -20 -10 -40 -20 ) M -60 -30 ) ( A Y TYPICAL CRYSTAL, DS32kHz E C -80 UNCOMPENSATED ACBANDCY -40 N E M U -100 -50 ( E M R -120 -60 T A A L L E -140 -70 D D -160 -80 -180 -90 -20-40 -30 -20 -10 0 10 20 30 40 50 60 70 80 -100 TEMPERATURE (°C) FUNCTIONAL DESCRIPTION The DS32kHz requires four pins for operation: V , GCC, V BAT, and
in „ds32kHz von Maxim“ · Mikrocontroller und Digitale Elektronik ·
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DS32kHz.pdf
Connect (Must be grounded) C7, C8, D7, D8 13 All remaining 4 GND Ground balls 14 A4, A5, B4, B5 5 V BAT +3V Nominal Supply Input. Used to operate the device when V CC is absent. Figure 1. Delta Time and Frequency vs. Temperature 0 0 -20 -10 -40 -20 ) M -60 -30 ) ( A Y TYPICAL CRYSTAL, DS32kHz E C -80 UNCOMPENSATED ACBANDCY -40 N E M U -100 -50 ( E M R -120 -60 T A A L L E -140 -70 D D -160 -80 -180 -90 -20-40 -30 -20 -10 0 10 20 30 40 50 60 70 80 -100 TEMPERATURE (°C) FUNCTIONAL DESCRIPTION The DS32kHz requires four pins for operation: V , GCC, V BAT, and
in „Genaue Frequenz“ · Mikrocontroller und Digitale Elektronik ·
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DS32kHz.pdf
Connect (Must be grounded) C7, C8, D7, D8 13 All remaining 4 GND Ground balls 14 A4, A5, B4, B5 5 V BAT +3V Nominal Supply Input. Used to operate the device when V CC is absent. Figure 1. Delta Time and Frequency vs. Temperature 0 0 -20 -10 -40 -20 ) M -60 -30 ) ( A Y TYPICAL CRYSTAL, DS32kHz E C -80 UNCOMPENSATED ACBANDCY -40 N E M U -100 -50 ( E M R -120 -60 T A A L L E -140 -70 D D -160 -80 -180 -90 -20-40 -30 -20 -10 0 10 20 30 40 50 60 70 80 -100 TEMPERATURE (°C) FUNCTIONAL DESCRIPTION The DS32kHz requires four pins for operation: V , GCC, V BAT, and
in „32 KHz Quarz - lange Anlaufzeit“ · Mikrocontroller und Digitale Elektronik ·
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MCP73811_2.pdf
— mΩ VDD = 3.75V,JT = 105°C Battery Detection Battery Detection CurrentI — 6 — µA V Source Current BAT_DET BAT No-Battery-Present VNO_BAT — VREG + — V VBATVoltage >= NO_BAT for Threshold 100 mV No Battery condition No-Battery-Present ZNO_BAT 2 — — MΩ VBATImpedance >= ZNO_BAT Impedance for No Battery
in „Hackbarer(?) 21 EUR Quadcopter“ · Mikrocontroller und Digitale Elektronik ·
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MCP_73831.pdf
— mΩ VDD = 3.75V,JT = 105°C Battery Detection Battery Detection CurrentI — 6 — µA V Source Current BAT_DET BAT No-Battery-Present VNO_BAT — VREG + — V VBATVoltage >= NO_BAT for Threshold 100 mV No Battery condition No-Battery-Present ZNO_BAT 2 — — MΩ VBATImpedance >= ZNO_BAT Impedance for No Battery
in „LiPo-IC MCP73831 kennt keine Ladeschlussspannung“ · Analoge Elektronik und Schaltungstechnik ·
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Siemens_CrossRef_1998.pdf
BAS125W BAS125 BAS125-07 BAS125-07W BAS125-04 BAS125-04W BAS125-05 BAS125-05W BAS125-06 BAS125-06W BAT14-098 BAT14-03W BAT15-098 BAT15-03W BAT17W BAT17 BAT17-04 BAT17-04W BAT17-05 BAT17-05W BAT17-06 BAT17-06W BAT16-046 BAT62-03W BAT62-02W BAT62 BAT62-07W BAT63-03W BAT63 BAT63-099R BAT85 BAT64-03W BAT64-02W BAT64 BAT64-07 BAT64-07W BAT64-04 BAT64-04W BAT64-05 BAT64-05W BAT64-06 BAT64-06W BAT65 BAT165 BAT68-03W BAT68 BAT68-07 BAT68W BAT68-07W BAT68-04 BAT68-04W BAT68-05 BAT68-05W BAT68-06 BAT68-06W BAV19 BAS19
in „1N4001und BC574C ==> SMD?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Siemens_CrossRef_1998.pdf
BAS125W BAS125 BAS125-07 BAS125-07W BAS125-04 BAS125-04W BAS125-05 BAS125-05W BAS125-06 BAS125-06W BAT14-098 BAT14-03W BAT15-098 BAT15-03W BAT17W BAT17 BAT17-04 BAT17-04W BAT17-05 BAT17-05W BAT17-06 BAT17-06W BAT16-046 BAT62-03W BAT62-02W BAT62 BAT62-07W BAT63-03W BAT63 BAT63-099R BAT85 BAT64-03W BAT64-02W BAT64 BAT64-07 BAT64-07W BAT64-04 BAT64-04W BAT64-05 BAT64-05W BAT64-06 BAT64-06W BAT65 BAT165 BAT68-03W BAT68 BAT68-07 BAT68W BAT68-07W BAT68-04 BAT68-04W BAT68-05 BAT68-05W BAT68-06 BAT68-06W BAV19 BAS19
in „Suche NPN Transistor Low Noise SMD“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Siemens_CrossRef_1998.pdf
BAS125W BAS125 BAS125-07 BAS125-07W BAS125-04 BAS125-04W BAS125-05 BAS125-05W BAS125-06 BAS125-06W BAT14-098 BAT14-03W BAT15-098 BAT15-03W BAT17W BAT17 BAT17-04 BAT17-04W BAT17-05 BAT17-05W BAT17-06 BAT17-06W BAT16-046 BAT62-03W BAT62-02W BAT62 BAT62-07W BAT63-03W BAT63 BAT63-099R BAT85 BAT64-03W BAT64-02W BAT64 BAT64-07 BAT64-07W BAT64-04 BAT64-04W BAT64-05 BAT64-05W BAT64-06 BAT64-06W BAT65 BAT165 BAT68-03W BAT68 BAT68-07 BAT68W BAT68-07W BAT68-04 BAT68-04W BAT68-05 BAT68-05W BAT68-06 BAT68-06W BAV19 BAS19
in „SMD - Transistoren“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Siemens_CrossRef_1998.pdf
BAS125W BAS125 BAS125-07 BAS125-07W BAS125-04 BAS125-04W BAS125-05 BAS125-05W BAS125-06 BAS125-06W BAT14-098 BAT14-03W BAT15-098 BAT15-03W BAT17W BAT17 BAT17-04 BAT17-04W BAT17-05 BAT17-05W BAT17-06 BAT17-06W BAT16-046 BAT62-03W BAT62-02W BAT62 BAT62-07W BAT63-03W BAT63 BAT63-099R BAT85 BAT64-03W BAT64-02W BAT64 BAT64-07 BAT64-07W BAT64-04 BAT64-04W BAT64-05 BAT64-05W BAT64-06 BAT64-06W BAT65 BAT165 BAT68-03W BAT68 BAT68-07 BAT68W BAT68-07W BAT68-04 BAT68-04W BAT68-05 BAT68-05W BAT68-06 BAT68-06W BAV19 BAS19
in „BC337-40 in Pspice“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Siemens_CrossRef_1998.pdf
BAS125W BAS125 BAS125-07 BAS125-07W BAS125-04 BAS125-04W BAS125-05 BAS125-05W BAS125-06 BAS125-06W BAT14-098 BAT14-03W BAT15-098 BAT15-03W BAT17W BAT17 BAT17-04 BAT17-04W BAT17-05 BAT17-05W BAT17-06 BAT17-06W BAT16-046 BAT62-03W BAT62-02W BAT62 BAT62-07W BAT63-03W BAT63 BAT63-099R BAT85 BAT64-03W BAT64-02W BAT64 BAT64-07 BAT64-07W BAT64-04 BAT64-04W BAT64-05 BAT64-05W BAT64-06 BAT64-06W BAT65 BAT165 BAT68-03W BAT68 BAT68-07 BAT68W BAT68-07W BAT68-04 BAT68-04W BAT68-05 BAT68-05W BAT68-06 BAT68-06W BAV19 BAS19
in „SMD-Vergleichstypen von Transistoren“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MCP738312.pdf
— m V DD= 3.75V, J = 105°C Battery Detection Battery Detection CurrentI — 6 — µA V Source Current BAT_DET BAT No-Battery-Present V NO_BAT — VREG + — V V BATVoltage≥ VNO_BATfor Threshold 100 mV No Battery condition No-Battery-Present ZNO_BAT 2 — — M V BATImpedance ≥ ZNO_BAT Impedance for No Battery
in „MCP73832 Beschaltung für die Auswertung mit µC“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MCP73832T.pdf
200 kΩ Impedance Automatic Power Down Automatic Power Down V V <(V V <(V — 3.5V ≤ V ≤ V PDENTER DD BAT DD BAT BAT REG Entry Threshold +20 mV) +50 mV) VDD Falling Automatic Power Down V — V <(V V <(V 3.5V ≤ V ≤ V PDEXIT DD BAT DD BAT BAT REG Exit Threshold +150 mV) +200 mV) VDD Rising Thermal Shutdown
in „LiPo-Charger mit MCP73832T“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MCP73831-2_ENG_TDS.pdf
200 kΩ Impedance Automatic Power Down Automatic Power Down V V <(V V <(V — 3.5V ≤ V ≤ V PDENTER DD BAT DD BAT BAT REG Entry Threshold +20 mV) +50 mV) VDD Falling Automatic Power Down V — V <(V V <(V 3.5V ≤ V ≤ V PDEXIT DD BAT DD BAT BAT REG Exit Threshold +150 mV) +200 mV) VDD Rising Thermal Shutdown
in „LiPo-IC MCP73831 kennt keine Ladeschlussspannung“ · Analoge Elektronik und Schaltungstechnik ·
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TC4056.pdf
在充电状态的所有模式，测量该管脚的电压都可以根据下面的公式来估算充电电流： GND（引脚 3、6、7：电源地。 VCC（引脚 4：输入电压正输入端。此管脚的电压为内部电路的工作电源。当 Vcc 与 BAT 管脚的电压差小于 30ｍV 时，TC4056 将进入低功耗的停机模式，此时 BAT 管脚的电流小于 2uA。 BAT（引脚 5：电池连接端。将电池的正端连接到此管脚。在芯片被禁止工作或者睡眠模式，BAT 管脚的漏 电流小于 2uA。BAT 管脚向电池提供充电电流和 4.2V 的限制电压。 CE（引脚 8）芯片始能输入端。高输入电平将使 TC4056 处于正常工作状态；低输入电平使 TC4056
in „Frage zu 5V-Mini-USB-1A-Lithium-Li-ion-Akku-Lademodul“ · Mikrocontroller und Digitale Elektronik ·
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33963.pdf
Alogic0iswrittenbybringingtheV pinlowforatleast LSB to MSB. To commit the data to the nonvolatile BAT 60 s, but not more than 120 s. A logic 1 is written by memory the V BAT pin is brought to 12V, witCCVat 8V, bringing the BAT pin low for at least 1 s, but not more for at least 250 ms. When VBAT is
in „[V] 2St Dallas DS1633 Ladechip TO220 3 Pin für“ · Markt ·
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SMD_Catalog.pdf
P SOT89 npn darlington 0.5A 90V AS3 BSP52 Mot P SOT223 npn darlington 0.5A hfe 2000 ATs BAT18-06 Sie A SOT23 dual ca BAT18 RF pin ATs BFP540 Sie MQ SOT343 npn microwave AUs BAT18-04 Sie D SOT23 dual BAT18 RF pin AU BCW60GR ITT R SOT23R BCY58 AV DAN212K Roh C - 80V 100mA sw AW BCW60HR ITT R
in „Hilfe bei Bauteilsuche für Mainboard“ · PC Hard- und Software ·
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PDF
Datasheet-GEL-and-AGM-Batteries-DE.pdf
BAT212200084 22 12 181x77x167 5,8 400 Zyklen bei 80% Entladung 600 Zyklen bei 50% Entladung BAT412350084 38 12 197x165x170 12,5 1500 Zyklen bei 30% Entladung BAT412550084 60 12 229x138x227 20 280 80 BAT412600084
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118.pdf
4,1 400 Zyklen bei 80% Entladung BAT212200080 22 12 181x77x167 5,8 600 Zyklen bei 50% Entladung BAT412350080 38 12 197x165x170 12,5 1500 Zyklen bei 30% Entladung BAT412550080 60 12 229x138x227 20 450 90 BAT412600080 66 12 258x166x235 24
in „Blei-Vlies Akku richtig laden“ · Analoge Elektronik und Schaltungstechnik ·
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bq24072.pdf
mV O(SC2) mode V BAT– VOUT > VO(SC2)indicates short-circuit IN UVLO IN BAT IN(DT) DGL(SC2) Deglitch time, supplement mode short circuit 250 μs REC(SC2) Recovery time, supplement mode short circuit 60 ms 12 Submit Document
in „[V] 3St TI LiIon Lade/ Batterie-Management Chips: BQ24725RG und BQ24072RG“ · Markt ·
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PDF
BA6162.pdf
— — 0.5 A V CC= GND, V BAT = 3V I / O voltage differential 2 V SAT2 — 0.20 0.30 V V CC= GND, V BAT = 3V, O = – 1 A Vo output voltage 4 V O4 2.70 2.80 — V V CC= GND, V BAT = 3V, O = – 1 A Vo output voltage 5 V O5 2.60 2.67 — V
in „DS1210 als Ersatz für BA6162?“ · Mikrocontroller und Digitale Elektronik ·
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LTC4054-4.2.pdf
Measured Thermal Resistance (2-Layer Board*) I = 120 °C – TA COPPER AREA BOARD THERMAL RESISTANCE BAT V – V •θ TOPSIDE BACKSIDE AREA JUNCTION-TO-AMBIENT ( CC BAT ) JA 2500mm2 2500mm2 2500mm2 125°C/W 2 2 2 Usingthepreviousexamplewithanambienttemperature 1000mm 2500mm 2500mm 125°C/W of 60°C, the charge
in „akku mit solar aufladen, kommt das IC: LT1734L dafür in Frage?“ · Analoge Elektronik und Schaltungstechnik ·
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Datenblatt_bq27441.pdf
5 0.1 ) % r r r 0 r y y r r u u0.08 A A r g a l p -5 V m 0.06 T -10 0.04 0.02 -15 -40 -20 0 20 40 60 80 100 -40 -20 0 20 40 60 80 100 Temperature (°C) Temperature (°C) Figure 3. Voltage Accuracy Figure 4. Temperature Accuracy 0 -0.1 ) -0.2 ( o E c r -0.3 c t e u C -0.4 -0.5 -0.6 -40 -20 0 20 40 60 80
in „Zustandsdaten Lithium Batterie“ · Analoge Elektronik und Schaltungstechnik ·
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LTC4067.pdf
ILIM1=5V, NoLoad, VIN5.5V ● 6 12 μA SHUTDOWN: V PROG = 5V ● 2.5 5 μA IDEAL DIODE: V INFloat, BAT Powers OUT, No Load ● 60 100 μA IIN(MAX) MaximumInput Current Limit V OUT= 4V, LIM0= 5V ILIM1= 0V (Note 7) 1.5 2 A 4067f 2 LTC4067 ELECTRICAL CHARACTERISTICS The ● denotes the specifications which apply
in „LTC4067 Vout“ · Analoge Elektronik und Schaltungstechnik ·
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LT1734.pdf
termination. U TYPICAL APPLICATIO PROG Pin Indicates Charge Status 5V ) V 80mA Li-Ion Battery Charger ( BAT B 4V VIN 3 1 V 5V VCC ISENSE 3V 1µF 2 LTC1734L 6 GND DRIVE UMT4403 CONSTANT CONSTANT 4 5 BAT= 80mA 2V CURRENT VOLTAGE PROG BAT SINGLE )1.5V V RPROG 10µF + Li-Ion ( PROG 4.7k BATTERY R 1V VP 1734 TA01
in „akku mit solar aufladen, kommt das IC: LT1734L dafür in Frage?“ · Analoge Elektronik und Schaltungstechnik ·
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bq2057w.pdf
Excluding external loads 2 4 mA For bq2057 and bq2957C, V ≥ V , V – V ≥ 0.8 V 3 6 I V Sleep current (BAT) (min) (BAT) CC µA (VCCS) CC For bq2057T and bq2957W, V(BAT)≥ V(min) V(BAT) – VCC ≥ 0.8 V 10 IB(BAT) Input bias current on BAT pin V(BAT)= V(REG) 1 µA I Input bias current on SNS pin V( = 5 V 5 µA IB
in „LiPo Lader BQ2057 schaltet nicht ab“ · Mikrocontroller und Digitale Elektronik ·
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MCP73831.pdf
0 V = 100 mVp-p )105 PROG IAC= 100 mA A -10 COUT= 4.7 µF, X7R Ceramic ( 90 B OUT n 75 ( -20 e n u 60 t -30 C u g 45 n a t -40 h 30 A C 15 -50 0 -60 2 3 4 5 6 7 8 9 0 1 2 3 4 5 0.01 0.1 1 10 100 1000 1 1 1 1 1 1 Junction Temperature (°C) Frequency (kHz) FIGURE 2-9: Charge Current (I OUT ) vs. FIGURE
in „Akku Ladetechnik“ · Mikrocontroller und Digitale Elektronik ·
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Datei
cmd_terminal.c
adc_cal); uart_puts(tmp_string); // Interne Zeit ausgeben cli(); seconds = time; sei(); ss = seconds % 60; // Sekunden seconds /=60; mm = seconds%60; // Minuten hh = seconds/60; // Stunden sprintf_P(tmp_string, PSTR("Zeit : %.2d:%.2d:%.2d\r\n"), hh,mm,ss); uart_puts(tmp_string); // Laufzeit ausgeben cli(); seconds = time_up; sei(); ss = seconds % 60; // Sekunden seconds /=60; mm = seconds%60; // Minuten seconds /=60; hh = seconds%24; // Stunden seconds /=24; dd = seconds % 365; // Tage yy = seconds / 365; // Jahre sprintf_P(tmp_string, PSTR("Laufzeit
in „USART Empfangsbuffer“ · Mikrocontroller und Digitale Elektronik ·
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TJA1020.pdf
CONDITIONS MIN. TYP. MAX. UNIT RSLAVE slave termination standby, low slope or 20 30 47 k resistance to pin BAT normal slope mode; VLIN= 0 V; VBAT = 12 V o(sc) short-circuit output VLIN= V BAT= 12 V; 27 40 60 mA current VTXD = 0 V; t <dom VLIN= V BAT= 27 V; 60 90 125 mA VTXD = 0 V; t <dom Vth(rx) receiver threshold
in „[S] MCP2004 LIN Tranceiver oder andere gesucht“ · Markt ·
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bat54.pdf
▯▯ ▯▯▯▯ ▯▯▯▯▯▯▯ ▯▯▯▯ ▯▯▯▯ ▯▯▯▯ ▯▯▯▯▯▯▯ ▯▯▯▯▯▯ ▯▯▯▯▯▯▯ DocID5505 Rev 12 7/15 15 Package information BAT54 Figure 15. SOD-523 dimension definitions ( (▯ E ' 5▯▯▯ ▯ $ F / ▯ /▯ Table 8. SOD-523 dimension values Dimensions Ref. Millimeters Inches Min. Typ. Max. Min. Typ. Max. A 0.50 0.60 0.70 0.020 0.024
in „AEG Lavatherm IH67680IH schaltet sporadisch ab“ · Analoge Elektronik und Schaltungstechnik ·
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SW6007.pdf
SW -0.3 12 V BST 管脚电压 BST-SW -0.3 6 V 通路控制电压 GATEC -0.3 21 V 其它管脚电压 -0.3 6 V 节温 -40 +150 °C 存储温度 -60 +150 °C ESD（HBM） -4 +4 KV 【备注】超过此范围的电压电流及温度等条件可能导致器件永久损坏。 7. 推荐参数 Parameters Symbol MIN Typical MAX UNIT 输入电压 VBUSB/VBUSC 4.5 5.5 V 电池电压 BAT 2.8 4.5 V Mode: iSW_Release_DS066_v1.0 www.ismartware.com
in „I2C: Li/ion Mobile Power Shield SW6007<->SW6115“ · Mikrocontroller und Digitale Elektronik ·
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SMD-PHILIPS_1999.pdf
-05 45p; 45t SOT23 BAT81 BAT81 SOD68 (DO34) BAS40-05W 65 SC-70/SOT323 BAT82 BAT82 SOD68 (DO34) BAS40-06 46p; 46t SOT23 BAT83 BAT83 SOD68 (DO34) BAS40-06W 66 SC-70/SOT323 BAT85 BAT85 SOD68 (DO34) BAS40-07 47p SOT143B BAT86
in „Datenbuch Valvo 1977 gesucht“ · Analoge Elektronik und Schaltungstechnik ·