Distributed Call........................................................................................10 2.3.1 Prerequisites..........................................................................................10 2.3.2 Description............................................................................................10 2.4 VoIP, Measuring Multimedia Terminals.............................................................13 2.4.1 If you have two Audio Interfaces.........................................................
one output, the effect of the transient is observed on the other output, as shown in Figure 6. FB BS 12V-25V DC 4 1 10nF Line Voltage VIN 7 47uH 90-270VAC LM2675-5.0 8 SW 5V, 1A 1000uF CIN1 100uF 260kHz 50V 35V 5 6 68uF, GND 10V ON/OFF FB VIN 4 1 LM2596-3.3 SW 68uH 3.3V, 3A 150kHz 2 CIN2 470uF 35V 5
Versal AI Edge Gen 2 Architecture Overview
Up to 10X Scalar Compute
8x A78AE cores - Up to 200K DMIPS
10x A72 cores - Up to 23K DMIPS
Pre-Silicon Estimated Performance
AI Engines (AIE-ML v2)
Up to 3X TOPS/Watt vs. AIE-ML
Advanced Data Types (MX6, MX9)
Temperature (°C) T - Ambient Temperature (°C) amb amb Fig. 7 - Leakage Current vs. Ambient Temperature Fig. 10 - Normalized Current Transfer Ratio (saturated) vs. Ambient Temperature 14 ) 0.40 I = 10 mA ( I = 10 mA ) F g 0.35 F A 12 t ( o 0.30 n 10 V c = 5 mA e e 0.25 u 8 i C F = 5 mA m 0.20 o r Ic= 2 mA c 6
carrier detect to stable data output 9. from application of supply to carrier detect low (active) 10. from application of signal to carrier detect low (active) Absolute maximum ratings: Supply voltage Vcc, pin 5 - 0.3 to + 10 V Operating temperature - 10°C to + 50°C Storage temperature - 40°C to + 100°C RF input, pin 1 0 dBm Any input or output pin - 0.3 to Vcc V, ±10 mA Radiometrix Ltd, SILRX-UHF Data Sheet page 4 Performance data SILRX-418-10 and SILRX-433-10 ambient temperature: 20°C supply voltage: +5V test circuit: fig. 2 Parameter Min. Typical Max. Units Notes
REVISION DESCRIPTION APPR: DATE: A ALL Released to production GRW 6/17/94 Maximum component height was 10.5mm; B 5 Removed through hole crystal note and dimension; GRW 3/23/95 Released to production 12.5mm height was 13.5mm; C 5 Released to production (ECO #95-031) GRW 9/5/95 T was –10C (Min), +65C (Max)
Trittschalldämmplatte EPS 045 DES sm CE-Kennzeichnung DIN EN 13163 EPS-DIN EN 13163 - T1-L1-W1-S1-P3-BS50-DS(N)5-SD30/20/15/10-CP3/2 Anwendungsgebiet DIN V 4108, Teil 10 DES sm (oberseitige Deckendämmung unter Estrichen mit Schallschutzanforderungen) Brandverhalten DIN 4102 B 1 Brandverhalten DIN EN 13501
600 1000 1400 μA Standby Operation Standby Operation Start Voltage VCC(S) V CC= 0→15 V, V FB= 1.6 V 10.3 11.2 12.1 V V = V – V Standby Operation Start Voltage Interval V CC(SK) CC(SK) CC(S) CC(OFF) 1.10 1.35 1.65 V Standby Non-Operation Circuit Current I V CC= 10.2 V, VFB = 1.6 V – 20 56 μA CC(S) FB Terminal Inflow Current, Standby Operation IFB(S) V CC= 10.2 V, VFB = 1.6 V – 4 14 μA FB Terminal Threshold Voltage, Standby Operation VFB(S) V CC= 15 V, VFB rising 0.55 1.10 1.50 V Minimum On Time tON(MIN) 0.65 1.05 1.45 μs Protection Operation Maximum On Time
100% 2V - 3.4V IN GND OUT 0.47uF AVERAGING +5V CIRCUIT TOP VIEW SWITCHED 30K +12V 78L05 +5V +5V 3V + 10uF + 10uF 0.1 20K +12V ON WHEN 9 - IGNITION ON D CAPACITANCE PROBE 11 13 75K 10K LIQUID LEVEL CHANGES 32KHz CLOCK CLK Q + CAPACITANCE BETWEEN TUBES 4013B D G S 4.7K 10 12 3V R Q S D BNC CONNECTOR RG58 COAX G CAPACITANCE PROBE 8 S BS170 CAPACITANCE TO 0.01 Cx DUTY CYCLE CONVERTER 100pF - 170pF DRAWN BY: DAVE JOHNSON LIQUID FUEL GAUGE DAVID JOHNSON AND ASSOCIATES CAPACITANCE TYPE LNG FUEL GAGE SENSOR Size Document Number Rev CAPACITANCE
Table 28-9 on page 289. Figure 28-3. Programming the flash waveforms . (1) F A B C D E B C D E G H 0x10 ADDR. LODATA LODATA HIGXX ADDR. LDATA LOWDATA HIGXX ADDR. HIGH XX DATA XA1 XA0 BS1 XTAL1 WR RDY/BSY RESET +12V OE PAGEL BS2 Note: 1. “XX” is don’t care. The letters refer to the programming description
100R U$1 P$1 P$2 2 k P$3 P$4 R 2 V X1 USIG1 P$5 P$6 TARGET_SUPPLY + 1 R14 P$7 P$8 2 B RESET_OUT P$9 P$10 R3 3 S 47R 4 R15 39 U SCK_OUT 10BS 100R K R16 R 2 R 3 MISO_OUT GND 47R CONNECTOR GND 8 0 R 1 SUPPLY 2 RESET_OUT 1 GND 3 JP2 3 D 5 MEGA8-AI + M + R6 6 +3V3 29 PC6(/RESET) PC0(ADC0) 23 - 10K PC1(ADC1) 24 +C3 1 R D 21 25 8 29 7 N 20 GND PC2(ADC2) 26 R10 +3V3 22u B QR 4 G 18 AREF PC3(ADC3) 27 R12 z AVCC PC4(ADC4/SDA) 28 LED3 R11 6 +3V3 1 2 M PC5(ADC5/SCL) 19 LED2 GR 3 D C 2 1 2 7 ADC6 22 LED1 RT 3 F N 2 p Q 1 PB6(XTAL1/TOSC1) ADC7 BLUE D Z D C 2 N 8
digital temperature sensor Clock pin 7 I/O TSDA I2C Interface to digital temperature sensor Date pin 8 I BS1 Bus selection pin Note 5-5 9 O BUSY Busy state output pin Note 5-4 10 I RES # Reset Note 5-3 11 I D/C # Data /Command control pin Note 5-2 12 I CS # Chip Select input pin Note 5-1 13 I/O D0 serial clock
OPERATIVE C 8-19
3
PARKSIDE
PARK SIDE
10,8 V
LI-ION AKKU-BOHRSCHRAUBER
LI-THIUM-ION CORDLESS DRILL
PERCEUSE-VISSEUSE SANS FIL
10,8 V
1900 mAh
n.b. 400 - 1300 min
Datum d manufacture: 08-2011
115900
IAN 0908BS B.N.
>D done=0 wkup=1 >B smlj=0 ->sensor53 r >BS =#readmeter >S if sb(tstamp 14 2)=="30" and done==0 then =#readmeter done=1 print done set endif if sb(tstamp 14 2)=="31" and done==1 then done=0 print done reset endif if (sml[2]>0 and sml[10]>0) and
; Look if RX is still low 1fc78: 82 9b sbis 0x10, 2 ; 16 #endif rjmp wt_rx1bs 1fc7a: fe cf rjmp .-4 ; 0x1fc78 <wt_rx1bs> AIN r26, CNT16_CNTL ; read counter after 'S00001100', full 8 Bit transmission with Start bit 1fc7c: ac b5 in r26, 0x2c ; 44 AIN
max_+500V CC~40mA_bis~50V, dann selbstabschaltend 5 Vref_TL431=2,5V 4 R 4 + R13 47k 1 10k R7 R R9 Q4 D2 D1 238k T2 10k TL431 C R V1 A R C Q3 V2 4 R A k 8 TL431 R 6 2 k BS170 4 R R 2 GND
E:\Documents and Settings\Nils>avrdude -p atmega32 -P com2 -c avrispv2 -vv avrdude: Version 5.10, compiled on Jan 19 2010 at 10:45:23 Copyright (c) 2000-2005 Brian Dean, http://www.bdmicro.com/ Copyright (c) 2007-2009 Joerg Wunsch System wide configuration file is "E:\WinAVR-20100110\bin\avrdude.conf
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