Dual Arm® Cortex®-M55 (Lockstep)
DSP / AI processing:
Up to 4x C7™ neural processing unit(NPU)
Up to 400 TOPS
Vision and video processing:
Up to 16 cameras
DMPAC: Dense Optical Flow, Stereo Disparity Engine
GPU and display processing:
4x CSI-2 RX interface, 1x CSI-2 TX output
Display subsystem:
eDP1.5/
March 19, 2014 HT75xx-1 Typical Performance Characteristics Test Condition: Vin=Vout+2V, I OUT =10mA, T =25°C, uJless otherwise noted Output Voltage vs Input Voltage HT7533-1 HT7550-1 3.50 5.20 Iout=10mA Iout=10mA 3.45 5.15 V 3.40 V 5.10 e e5.05 a3.35 a l3.30 o5.00 v t u3.25 u4.95 t u O3.20 O4.90 3.15
address 2.29 21569 Merge avr.sc and avrtiny.sc 2.29 21472 Add new emulation for ATtiny416 et al. (don't put .rodata in RAM) 2.29 rodata-in-flash 21404 Assertion fail in bfd/elf32-avr.c:2145 2.28 20849 Don't put .rodata in RAM on AVR_TINY. 2.28 rodata-in-flash 20789 Fix relaxation of negative DIFF relocs
0x4000 to symbols 7.0 71678 ICE from switch / case on long long (casesi + DImode) 7.0 71676 casesi won't handle switch values larger than 16 bits 7.0 60300 Minor prologue improvement w.r.t code size 7.0 41076 Pessimal code for logical OR of 8-bit fields 7.0 67353 Option-ize Warning "appears to be a misspelled
μA CC Shutdown Mode (R Not PROG Connected,VCC < VBAT or CC < VUV VFLOAL Regulated Output (Float) 0℃≤T ≤A5℃，I BAT40mA 4.137 4.2 4.263 V Voltage BAT Pin Current R PROG = 2.4k, Current ● 450 500 550 mA Mode Text condition:VBAT=4.0V R PROG = 1.2k, Current ● 950 1000 1050 mA BAT Mode Standby Mode, VBAT= 4.2V
No Component min.160mm min.100mm Embossment Cover Tape min. 400mm Packaging is referred to the international standard IEC 60286-3:2019 A B C D N W1 W2 W3 W3 (mm) (mm) (mm) (mm) (mm) (mm) (mm) (mm) (mm) Material Tape Type (mm) (mm) W(mm) T(mm) T(mm) (mm) (mm) (mm
PWM Mode. Mode Efficiency vs. I OUT . 600 100 VOUT= 5.0V VIN 2.5V V OUT= 5.0V 90 500 V OUT= 3.3V 80 400 ) 70 VIN 1.2V VIN 1.8V A ( m c 60 T300 V OUT= 2.0V n 50 O c 40 I200 f E 30 20 PWM / PFM 100 PWM ONLY 10 0 0 0 0.5 1 1.5 2 2.5 3 3.5 4 4.5 5 0.01 0.1 1 10 100 1000 VINV) OUT (mA) FIGURE 2-3: Maximum
information 11.1.1.2.2 Diagram Bits 31 30 29 28 27 26 25 24 23 22 21 20 19 18 17 16 R L L L L L L L L E E B T T T T T T T T d _ _ O C C C C C C C C v L K K E E E E E E E E e C C L B B B B B B B B W e I _ _ _ _ _ _ _ _ _ _ R S M I 7 6 5 4 3 2 1 0 Q L R R T T T T T T T T F F F F F F F F Reset 0 0 0 0 0 0 0 0 0
3 0 0 . 0 2 2 3 0 0 V |= 3 0 0 . 0 0 0 V - 3 0 0 . 0 2 2 |- 2 9 9 . 9 7 8 V a c 3 0 0 m V s h o r t = 0 0 0 . 0 0 0 0 0 . 0 0 3 0 0 m V 3 0 0 . 0 0 m V |400 H z * 2 9 9 . 1 0 3 0 0 . 9 0 3 0 0 m V 2 0 0 . 0 0 m V |40 H z 1 9 9 . 3 0 2 0 0 . 7 0 3 0 0 m V 2 0 0 . 0 0 m V |1 K H z 1 9 9 . 3 0 2 0 0 .
m v b g f . er 2 2 2 o ( S r P o r t r p n 2 g g m c 1 t t a l c 2 e t t e ai e e F t 9 . 9 t c h / G ! i i e w r . t T i i t h T , a h T t t v r t o u 0 5 0 D - e d i l g e : h n c t t c e r r y t e r r e a t e o r r e s t c . i . 2 0
circuit can be extended as shown in figure 3. VDD3 VDD1= 3.3 V VDD2= 5V Rp Rp Rp Rp g g Rp Rp SDA 1 T1 T3 SDA 2 s d d s g T2 T4 g SCL 1 s d d s SCL 2 3.3 V device 3.3 V device 5 V device 5 V device ”Lower voltage” section “Higher voltage” section Figure 3. I C-bus system in which the “Higher voltage”
circuit can be extended as shown in figure 3. VDD3 VDD1= 3.3 V VDD2= 5V Rp Rp Rp Rp g g Rp Rp SDA 1 T1 T3 SDA 2 s d d s g T2 T4 g SCL 1 s d d s SCL 2 3.3 V device 3.3 V device 5 V device 5 V device ”Lower voltage” section “Higher voltage” section Figure 3. I C-bus system in which the “Higher voltage”
is the offualturn- offcurrentdue totheMOSFETswitchoffpropagationdelay. Thetotalpropagationoffdelay(T off_delaybservedaround880 ns forCoolMOS™andaround420ns for CoolSiC™. GUI DC PowerSupply 19 V 0-400DC, 0.1A O/P GUI I/P Shortcircuitswitch C_buffer=22 mF/800 V 200uspulse SSCB Wireloop length~2m Figure
& ! % 8 - - ’ ’ 4 2 % $ % # " $ ▯ % % ! 8 4 % # & # ! % $ " ! - Schematic Diagram L D C B A \ 面 r t G 1 s I n i W D s m A T v \ R , e g D . R t O E S C N 6 n N I 7 s O / 1 n 4 R O - m 4 E T N 0 c K C O 3 \ E E H J C H L P - : C E 0 i N 4 F P 3 0 r N J b A D m 6 D u - E H N a O - R 2 P E A : T t e A
{ 0b00000, 0b01110, 0b11111, 0b11111, 0b11111, 0b01110, 0b00000, 0b00000 }; void showStatus(uint8_t data_){ Serial.print(" status==");Serial.print(data_);Serial.println(""); } void setup() { int error; Serial.begin(115200); Serial.println("==Start LCD=="); // wait on Serial to be available on Leonardo
Ω 3.00 Ω 30.0 Ω 300 Ω 3.30 K 50.0 K 0.20 Ω 3.30 Ω 33.0 Ω 330 Ω 4.00 K 56.0 K 0.25 Ω 4.00 Ω 40.0 Ω 400 Ω 5.00 K 68.0 K LowCost HeatSinkMountableDesignfeaturing 0.30 Ω 5.00 Ω 47.0 Ω 470 Ω 7.50 K 75.0 K 82.0 K anExposedCeramicHeatDissipatingMountingSurface 100 K Use your thermal design experience with
(DSJ) | 14 250 | SMALL T&R Yes NIPDAU Level-1-260C-UNLIM -40 to 125 PS63020 TPS63021DSJR Active Production VSON (DSJ) | 14 3000 | LARGE T&R Yes NIPDAU Level-1-260C-UNLIM -40 to 125 PS63021 TPS63021DSJR.A Active Production VSON (DSJ) | 14 3000 | LARGE T&R Yes NIPDAU Level-1-260C-UNLIM -40 to 125 PS63021 TPS63021DSJR.B Active Production VSON (DSJ) | 14 3000 | LARGE T&R Yes NIPDAU Level-1-260C-UNLIM -40 to 125 PS63021 TPS63021DSJRG4 Active Production
Dimensions are in mm. End of charge cut-off - charge at C/3 13.9 1.6 1.5 ) 1.4 ( e delta V/V = 0.1% t 1.3 o V 1.2 48.9 1.1 1.0 0 1 2 3 4 Time (h) Discharge at C/10 at different temperature after charge at C/10 at different temperature 1.6 1.4 ) ( e 1.2 a o V 1.0 0.8 - 30°C - 20°C - 10°C 0°C + 20°C +
n g n u l i 2 3 4 r r b h z r r r u m t z N Ty B W W W B B D A 1 Mos-Fet P12MN50 500V 12A 0,3Ω TPO220 2 Mos-Fet 5R140P 550V 23,0A 0,140Ω TPO220 3 Feinsicherung 250V 4,0A Flink PE10St. 40 4 Feinsicherung 250V 0,315A Träge PE10St. 20 5 Widerstand
Overcharge Delay Time TOC 700 1000 1300 ms Overdischarge Delay Time TOD 70 110 150 ms Discharge Overcurrent T 6 10 14 ms Delay Time DIP Charge Overcurrent TCIP 4 7 10 ms detection Voltage Short Circuit Delay Time T 150 250 400 μs SIP CONTROL OUTPUT VOLTAGE(OD&OC) OD Pin Output “H” Voltage V DH VDD-0.1 VDD-0.02
supported 3 windings Transformer ideal three windings transformer Symbol: Name Default Value Description T1 1 voltage transformation ratio of coil 1Notes: T2 1 voltage transformation ratio of coil 2Keeps the ratios between the voltages across the coils constant to factor T1 and T2, respectively. • DC voltages
BQ2057, BQ2057C, BQ2057T, BQ2057W SLUS025G – MAY 2001 – REVISED DECEMBER 2022 www.ti.com 8.6 Typical Characteristics 100 100 Vbat = 8 V 400 mA 90 Vbat = 7.6 V 300 mA Vbat = 7.2 V 99.5 600 mA 80 70 99 % y 60 % c t i 50 o 98.5
Note: in hardware Settings master-slave mode condition, can use AT + ROLE inquiry, set command can't change a master-slave mode. In the software installed master-slave mode condition, this command mode in the next set master-slave on effective when electricity. Command 11： Inquires/set —— Inquires the
ondensator 0,1 pF 250 V, C3 2 17 K eram ikkondensator 22 pF 63 V, C2 1 18 K eram ikkondensator 470 pF 400 V, C9 1 19 Diode lN 4007, VlO, Vl3 2 20 Z-Diode ZPD 2 ,7 , Vl2 1 21 T ra n s is to r BC 557 B, V7, V9 2 22 T ra n s is to r BD 249, V14 1 23 T ra n s is to r BD 242, V ll 1 24 IC LH 723 CN S pannungsregler
and 130 pF Load – – 50 ns C SDA Fall Time at 3.0 mA sink and 400 pF Load – – 80 ns C SDA/SCL Rise Time – – 300 ns C SCL Fall Time – – 300 ns C Pulse Width of Spikes Suppressed by the Input Filter T – – 50 ns C sp Figure 3. Timings Definition Tbuf Stop Start ACK Chipaddress
Firmenangaben noch nach Jahren löten Eildienst 2h: Versand am selben Tag bei Einsendung bis 13:00 400€ für 2dm² B&B Sachsenelektronik GmbH. Homepage: Klein- und Musterserien, Spezialist Sondertechniken Zusätzliche Partner für Großserien in Asien mit eigenen Mitarbeitern Ein- und Doppelseitige Leiterplatten
für Qualität Standort: Neustadt an der Orla/Thüringen Elischer Leiterplatten. mailto:aurel-elischer@t-online.de Firmensitz / Post-Adresse: Dipl.-Ing. Aurel Elischer, Leiterplatten, Am Forst 7, 72574 Bad Urach, Tel. 07125/4498, Ust.Id.-Nr.: DE 223 09 4959 Layoutentwurf, LP Entwicklung, herstellen, bestücken
portEthernetSwitchControllerwithMII/RMIIInterface 10.4.2 Port 2 MII Interface Transmit Timing Symbol Parameter Min. Typ. Max. Unit T1 100M MII Transmit Clock Period - 40 - ns T1 10M MII Transmit Clock Period - 400 - ns T2 P2_TXE,P2_TXD3~0 to P2_TXC 8 ns Rising Output Delay 10.4.3 Port 2 MII Interface Receive Timing Symbol Parameter Min. Typ. Max. Unit T1 100M MII Receive Clock Period - 40 - ns T1 10M MII Receive Clock Period - 400 - ns T2 P2_RXER, P2_RXDV and P2_RXD3~0 to P2_RXC 5 - - ns Setup Time T3 P2_RXER, P2_RXDV and P2_RXD3~0 to P2_RXC 5 - - ns
werden mindestens 15 Jahre verwahrt. Abbildung 6-3 Batterie mit Typenbezeich- 6.6 Zuverlässigkeit nung (T), Losnummer (L) und Datum (D) der End- T Der Begriff Zuverlässigkeit bezieht sich auf die Fähigkeit eines Produktes, bestimmte festgelegte Anforderungen kontrolle. Rückfragen während seiner Lebensdauer
der Serie neue Frequenz sind die OFW- ☆ SS 165 im Bereich von 1,2pH FilteTyp Y 6950 von Siemens ☆ t r t r t r t r t r - ü t r t ☆☆☆☆☆☆☆☆☆☆☆☆r t r ausgelegt. bis1 pH. Die größere Bauform von 2,8x 4 x 2,54 mm läßtvor allem eine höhere Strombe seh-Gerätes sein. Auch der Mehr Andruckkraft für genü
C C C C P P P P H P A A D Y V V V V V V V V V T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T T 2 F 2 F 2 F 2 F V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V V M
zum PC übertragen werden. • Einstellungen über DIP-Schalter oder Software. 2 • Überstromschutz, I T-Motorstromüberwachung, Über- und Unterspannungsschutz, Überhitzungsschutz, Überdrehzahlschutz. 2. Beschreibung: Der iHSV60-XX AC Servomotor besteht aus einem perfekt abgestimmtem Servotreiber integriert
Bild
Bild
Bild
Bild
Bild
