klar? Mein Rat wäre daher: Schalte Highside (also die 3V3 mittels PMOS), das kann man mit einem IRLML6402 machen. Der geht auch mit 3V, und ist auch spezifiziert dafür.
+5V +5V K 8 0 2 J K3 1 R 2 2 1 0 6 5 4 3 2 4 R27 PD3 P P P P P P P P PC1 ms1 B PD4 PC0 ms2 8 0 IRLML6402 10 +5V GND IC2 ADC7 endls1 9 n F n 4 VCC GND 2 0 0 0 3 GND AREF L B 1 1 1 R T9 Q5 2 3 1 VCC ATMEGA168(TQFP32) ADC6 endls2 C C C D PB6 5 6 7 0 1 2 3 4 AVCC F PB7 P P P P P P P P PB5 SCK n 0 20MHz
+5V +5V K 8 0 2 J K3 1 R 2 2 1 0 6 5 4 3 2 4 R27 PD3 P P P P P P P P PC1 ms1 B PD4 PC0 ms2 8 0 IRLML6402 10 +5V GND IC2 ADC7 endls1 9 n F n 4 VCC GND 2 0 0 0 3 GND AREF L B 1 1 1 R T9 Q5 2 3 1 VCC ATMEGA168(TQFP32) ADC6 endls2 C C C D PB6 5 6 7 0 1 2 3 4 AVCC F PB7 P P P P P P P P PB5 SCK n 0 20MHz
Ansteuerung und 1 A Laststrom 30 mV Spannungsabfall, also nur 30 mW Verlustleistung. Ich habe auch IRLML6402 (P-Kanal) bekommen, da sind es 100 mW. > man geht zeitweise in einen Linearbetrieb über, man geht > an die Spannungsgrenzen – insbesondere mit der Gatespannung Kann ich mir kaum vorstellen
Kauf den > billigeren Transistor. Nimm lieber MOSFET. z.B. 2N7000 oder so. Ich nehm gern IRLML6402 (PMOS) oder IRLML2402 (NMOS). Wie geht das aufs Breadboard? Naja, ein Stückerle Lochraster mit Beinchen dran halt. Hat den Vorteil, dass man die Beinchen wechseln kann. Sonst ist bei mir eh alles
und der Treiber (PIC) läuft mit 3,2V. Der Pmos ist ein IRML6402 https://www.infineon.com/dgdl/irlml6402.pdf?fileId=5546d462533600a401535668c9822638 Arduino High: U_gs=5V-3,2V=+1,8V -> Mosfet Off Arduino LOW: U_gs==v-2,8V=-2,8V -> Mosfet On Unklar sind mir folgende Werte: a) *Mosfet Off*: U_ds
L PTT_IN Q10 7 L L1 1k Q8 F I 22-27-2041-04 22-27-2021-02 R40 R45 B TX+8V TX+12V X8-1 X6-2 10µH IRLML6402 TX 470 M X8-3 7 4 X8-4 4 R B B GND GND GND GND GND GND PTT_OUT Q11 7 F R46 M C 470 M V 7 2 4 R GND C C L2 X7-1 VOX_IN 22-27-2021-02 10µH X7-2 GND D D PTT-Steuerung (C) 2015 DJ2AT 1 2 3 4 5 6 1 2
einer Lithium-Zelle die Schaltung versorgen zu können. Dafür dürfte es schon reichen als Q3 einen IRLML-6402 einsetzen zu können. Die Widerstände sind ja in den Werten problemlos anpassbar.
Buchsenleiste des Raspberry Pi eine Schaltung mit IR-Empfänger, MCU (hier 89LPC922), LM2950-3,0 und einem IRLML6402 als Leistungsschalter aufgesteckt. Gate des IRLM6402 wird über einen 10k Pull-Up auf 5V gezogen und vom 5-Volt toleranten Open-Source Ausgang Pi_Off des MCU angesteuert. Auf der Platine des Raspberry
IRLML6246 2009 9 U= IRLML6344 2010 0 24 X C= IRLML6302 25 Y D= IRLML5103 V= IRLML6346 26 Z E = IRLML6402 W= (27-52) IF PRECEDED BY ALETTER F = IRLML6401 G= IRLML2502 WORK H = IRLML5203 YEAR Y WEEK W I = IRLML0030 2001 A 27 A J = IRLML2030 2002 B 28 B 2003 C 29 C K = IRLML0100 2004 D 30 D L = IRLML0060
2018 2008 8 C= IRLML6302 U = IRLML6344 2019 2009 9 D = IRLML5103 V= IRLML6346 2020 2010 0 24 X E = IRLML6402 W= IRFML8244 25 Y F = IRLML6401 X = IRLML2244 26 Z G= IRLML2502 Y = IRLML2246 WW= (27-52) IF PRECEDED BYALETTER H = IRLML5203 Z = IRFML9244 I = IRLML0030 YEAR Y WEEK W J = IRLML2030 K = IRLML0100
2018 2008 8 C= IRLML6302 U = IRLML6344 2019 2009 9 D = IRLML5103 V= IRLML6346 2020 2010 0 24 X E = IRLML6402 W= IRFML8244 25 Y F = IRLML6401 X = IRLML2244 26 Z G= IRLML2502 Y = IRLML2246 WW= (27-52) IF PRECEDED BYALETTER H = IRLML5203 Z = IRFML9244 I = IRLML0030 YEAR Y WEEK W J = IRLML2030 K = IRLML0100
IRLML6246 2020 2010 0 24 X C = IRLML6302 U = IRLML6344 25 Y D = IRLML5103 V = IRLML6346 26 Z E = IRLML6402 W = IRFML8244 F = IRLML6401 X = IRLML2244 W = (27-52) IF PRECEDED BY A LETTER G = IRLML2502 Y = IRLML2246 WORK H = IRLML5203 Z = IRFML9244 YEAR Y WEEK W I = IRLML0030 2011 2001 A 27 A J = IRLML2030
IRLML6246 2020 2010 0 24 X C = IRLML6302 U = IRLML6344 25 Y D = IRLML5103 V = IRLML6346 26 Z E = IRLML6402 W = IRFML8244 F = IRLML6401 X = IRLML2244 W = (27-52) IF PRECEDED BY A LETTER G = IRLML2502 Y = IRLML2246 WORK YEAR Y W H = IRLML5203 Z = IRFML9244 WEEK I = IRLML0030 2011 2001 A 27 A J = IRLML2030
IRLML6246 2020 2010 0 24 X C = IRLML6302 U = IRLML6344 25 Y D = IRLML5103 V = IRLML6346 26 Z E = IRLML6402 W = IRFML8244 F = IRLML6401 X = IRLML2244 W = (27-52) IF PRECEDED BY A LETTER G = IRLML2502 Y = IRLML2246 WORK H = IRLML5203 Z = IRFML9244 YEAR Y WEEK W I = IRLML0030 2011 2001 A 27 A J = IRLML2030
Spezielle (HV, mehr Leistung etc z.T. in grösseren Gehäuseformen) MOSFETs: - 2N7002 - IRML2502 - IRLML 6402 - IRLML5203 - Diverse SO-8 - Die Schwergewichte dann wieder alles in TO-220 Dioden: - die üblichen Verdächtigen: 4148,BAT54-S/C,SD103CW - MURS120T3, MBRS140T3G - jede Menge Spezial/HF Dioden
P-Kanal-MOSFET gelöst. Bauteile: 1* 10µF KerKo 1* 1µF KerKo 1* 100nF KerKo 3* BCW66H npn 1* IRLML6402 1* SS14 2* 1kOhm 2* 10kOhm Da die Last nur über den P-FET läuft, kann das Teil sogar richtig was schalten; der IRLML6402 verknust laut Datenblatt 4,2A bis 20V.
Hallo zusammen, ich habe den Transistortester von Markus F. (Version 2.1) erfolgreich nachgebaut. Da ich mich etwas mit der AVR-Programmierung auskenne, habe ich den Quellcode analysiert und verändert. Die wichtigsten Änderungen sind: Entfernung aller Texte und Parameterdaten aus dem EEprom in den Programmspeicher.(Vorteil: Programmierung in einem Rutsch, es kann nicht mehr dazu kommen, daß EEprom und Flash-Speicher nicht zueinander passen) Für die Kapazitätsmessung wird die Zeitmessung mit dem Timer1 des AVR zusammen mit dem Komparator durchgeführt. Speziell für kleine Kapazitäten
C62 C D D +3V 2k 2k 33k T 1 1 1 1 N C 1 / D4 F L6 N N G S 1 2 I D D _ F V CD1 2.2uF/6.3V n G G IRLML6402 D DCMI_D0/USART6_TX 3 4 USART6_RX D X X X E C20 C16 + . 1 E/D 4 0 FB0805/600R/200mA(201209-601) SOFT_SCL 5 6 SOFT_SDA M C21 4 8 3 2 _ T _ R 1 / VDD OTG_HS_VBUS NA(ESDA6V1L) 1 USB-OTG L1 L2 SD_D3/
bei VGS -4,5V) SOT-23 SMD FET, extrem niedrige V_GS_th, bei niedrigem R_DS_on R, D PDF Infineon IRLML6402 0,21 max -20V, ca -3,7A (cont.), ca. 0,05Ω On-Widerstand (bei VGS -4,5V) SOT-23 SMD FET, extrem niedrige V_GS_th, bei niedrigem R_DS_on R PDF Infineon IRF7220 0,50 max -14V, ca -10A (cont.), ca.
to external logic circuits. A suitable device would be an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
voltage exceeds the OUT PART NUMBER DESCRIPTION voltageandtheinput supplyisremoved, or theLTC4067 IRLML6402 P-channel 16V is put into suspend or shutdown modes, the CHRG pin FDR8508P Dual P-channel 16V is forced into a high impedance state. If a bad battery If the OVP pin is high, the power path from IN
external logic circuits. A suitable device could be a Fairchild NDT456P, or International Rectifier IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1K series resistor and a 0.1 uF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
external logic circuits. A suitable device could be a Fairchild NDT456P, or International Rectifier IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1K series resistor and a 0.1 uF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
external logic circuits. A suitable device could be a Fairchild NDT456P, or International Rectifier IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1K series resistor and a 0.1 uF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
external logic circuits. A suitable device could be a Fairchild NDT456P, or International Rectifier IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1K series resistor and a 0.1 uF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
to external logic circuits. A suitable device would be an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
to external logic circuits. A suitable device would be an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
to external logic circuits. A suitable device would be an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
to external logic circuits. A suitable device would be an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
to external logic circuits. A suitable device would be an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
to external logic circuits. A suitable device would be an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor are used to limit the current surge when the MOSFET turns on. Without the soft
power to external logic. A suitable device to do this is an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1µF capacitor is used to limit the current surge when the MOSFET turns on. Without the soft
power to external logic. A suitable device to do this is an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor is used to limit the current surge when the MOSFET turns on. Without the soft
power to external logic. A suitable device to do this is an International Rectifier (www.irf.com) IRLML6402, or equivalent. It is recommended that a “soft start” circuit consisting of a 1kΩ series resistor and a 0.1μF capacitor is used to limit the current surge when the MOSFET turns on. Without the soft
