main.dvi
|
|
|
- あいね みやのじょう
- 5 years ago
- Views:
Transcription
1 FDTD S A Study on FDTD Analysis based on S-Parameter GD168
2 FDTD FDTD S S FDTD S S S S FDTD FDTD i
3 FDTD FDTD S FDTD S FDTD S S S FDTD ΩMSL S S S ΩMSL ii
4 3.2.2 LPF BPF iii
5 1 1.1 FDTD (FDTD : Finite Difference Time Domain) [1],[2] FDTD FDTD FDTD 3 2 FDTD 1 FDTD 1
6 2
7 1.2 FDTD FDTD FDTD FDTD [3] [4] [3] [4] FDTD SPICE(Simulation Program with Integrated Circuit Emphasis) SPICE FDTD [5] TDCM(Time-Domain Characteristic Models) TDCM [6],[7],[8] [8] (a)s (b) (c) 3
8 S S FDTD [8] S S FDTD 2 S S S 3 S FDTD 4 4
9 2 S FDTD S S S 2.1 FDTD S 2.1 S S Z 0 (MSL : Microstrip Line) V 1in V 2in S V 11 V 22 V 21 V 12 V 1view V 2view R MSL (Z 0 ) V 1in V 11 +V 12 V 21 +V 22 V 2in MSL(Z 0 =R) MSL V 1view R R V 2view GND 2.1: S 5
10 S FDTD FDTD S (S t ) S (S f ) (2.1) S t (k) = 1 N N 1 i=0 S f (i)e j 2πik N (2.1) FDTD (Δt) (Δt) (2.2) Courant Δt c 1 ( 1 Δx )2 +( 1 Δy )2 +( 1 Δz )2 (2.2) c Δx Δy Δz (2.3) FDTD (Δt) (f max ) GHz S FDTD Δt=1.0[ps] 20,000 (2.3) (2.4) S f=0 500[GHz] Δf=50[MHz] f=0 500[GHz] S Δt = 1 2 f max (2.3) Δf = 1 T (2.4) FDTD S S FDTD (2.5) S 1 (V 1in ) S 1 (V 11 ) 2 (V 21 ) V i1 [n] = S i1 [n] V 1in [n] (i =1, 2) n = S i1 [n k +1]V 1in [k] (2.5) k=1 6
11 (2.6) (V 1in ) 1 1 (V 1view ) V 11 V 12 V 1in [n] V 1view [n 1] V 11 [n 1] V 12 [n 1] (2.6) 2 V 12 V 22 V i2 [n] = S i2 [n] V 2in [n] (i =1, 2) n = S i2 [n k +1]V 2in [k] (2.7) k=1 V 2in [n] V 2view [n 1] V 21 [n 1] V 22 [n 1] (2.8) 50Ω 2.2 MSL MSL (Z 0 ) V 11 + V 12 MSL V 1in (t) R V 1view 2.2: S 7
12 R 2.3 S S FDTD Voltage [V] Pulse wave Observe wave Unabsorbed Pulse wave Timestep [Step] 2.3: S FDTD ( 2.4) Extended part S FDTD 8
13 FDTD Initialize E, H Update E S-parameter Calculation of an incident wave Convolution Generation of the reflection wave and the transmission wave Extended part Calculation of the observing wave Update H 2.4: S 9
14 2.2 FDTD S FDTD (Δt) (f max ) GHz [GHz] [GHz] 2.1: f=0 10[GHz] f=0 500[GHz] Δt = 1.0[ps] Δf = 200[MHz] Δf = 50[MHz] idft N = 20000[Steps] N = 50[Steps] N = 20000[Steps] T = 20000[ps] (a) (b) 1 (c) N+1 N (d) 10
15 3 1 ( 1 ) (e) 3 2 ( 1 2 ) 3 3 S [GHz] (Δf) 50[MHz] Δf 200[MHz] (Δf=50[MHz]) 2.5 S (S11) real data 200 Δf=500[MHz]
16 1 0.8 S linear hermite spline real data Frequency [GHz] 2.5: Error 0 linear hermite spline Frequency [GHz] 2.6: 12
17 2.2: f=0 10[GHz] Δf = 200[MHz] : (0 10GHz) data 1 data 2 data Δf[MHz] S (S11) real data 200 Δf=500[MHz]
18 1 0.8 S data 1 data 2 data 3 real data Frequency [GHz] 2.7: Error data 1 data 2 data Frequency [GHz] 2.8: 14
19 2.4: data 1(Δf=1000[MHz]) data 2(Δf=500[MHz]) data 3(Δf=200[MHz]) data [GHz] 3 3 ( 0 500[GHz] Δf=50[MHz]) ( 2.9) (f max ) S S11 1 S
20 S-parameter S11 S21 S-parameter S11 S Frequency [GHz] Frequency [GHz] (a) (b) 2.9: 1 S linear hermite spline real data Frequency [GHz] 2.10: 16
21 2.10 S (S11) real data 20,000 Δf=1.25[GHz] Error linear hermite spline Frequency [GHz] 2.11: 2.5:
22 2.2.5 f=0 10[GHz] 2.6: data 1 data 2 data 3 f max [GHz] S data 1 data 2 data 3 real data Frequency [GHz] 2.12: 2.10 S (S11) real data 200 Δf=500[MHz] 20 18
23 Error data 1 data 2 data Frequency [GHz] 2.13: : data 1(f max =5[GHz]) data 2(f max =10[GHz]) data 3(f max =20[GHz]) S S FDTD 3 19
24 FDTD S FDTD S LPF FDTD FDTD S FDTD S 20
25 2.3 S ( 2.3) [1] [9] S (2.6) (2.8) [cell] MSL MSL PML 8layer Feed Ob1 R z y GND PML 8layer x 2.14: 2.14 (Δx Δy Δz) = (0.5mm 0.55mm 0.533mm) Δt (2.2) Courant 1.0ps 8Δy 3Δz MSL 0mm 30GHz 8 PML(Perfectly Matched Layer) Ω 21
26 E n Z = 1 ΔtΔz 2RɛΔxΔy 1+ ΔtΔz 2RɛΔxΔy E n 1 Z + Δt ɛ 1+ ΔtΔz ( H n 1 2 ) (2.9) 2RɛΔxΔy (2.9) 4 ( (2.10) (2.11)) V L = E Z Δz (2.10) di V L = L 0 dt V (2.11) V i L 0 =1/, V = L 0 L i i=1 i=1 L i ( ) 50Ω MSL Feed V 1in (t) P 2 P 3 P1 1 P : 22
27 L I L -V V L N 2.16: 2.17 (Method 1) (Method 2) 2.14 (Ob1) (Input Voltage) (Reflection Voltage) 0 S-parameter [db] Method 2 Method Frequency [GHz] 2.17: 23
28 0.03 Input Voltage Voltage [V] Method Reflection Voltage Method Timestep [Step] 2.18: MSL 50Ω 50Ω [10] MSL MSL 48Ω 51Ω 2.19 (Method 1) (Method 2) 2.14 Ob Ω [10] 24
29 S-parameter [db] Method 2 Method 1 after before Frequency [GHz] 2.19: Voltage [V] R=50 R= Timestep [Step] 2.20: 25
30 2.3.3 S MSL MSL [11] MSL via via-4 via4 MSL Current via : GHz via0 5GHz 2 26
31 0 Current [A] via0 via1, via-1 via2, via-2 via3, via-3 via4, via Timestep[Time] 2.22: Normalization via 2.23: 5GHz 27
32 0 S-parameter [db] Frequency [GHz] via-4 - via4 via-3 - via3 via-2 - via2 via-1 - via1 via : 2.24 (via-4 via4) 7 via-3 - via3 MSL 2.25 MSL MSL MSL 28
33 MSL Feed V 1in (t) 2.25: S-parameter [db] step nomal Frequency [GHz] 2.26: 29
34 2.3.4 S S V 11 + V 12 V 21 + V 22 V 1view + V 2view 4 (2.6) (2.8) V 1in [n] V 1view [n 1] V 11 [n 5] V 12 [n 5] (2.12) V 2in [n] V 2view [n 1] V 21 [n 5] V 22 [n 5] (2.13) ( 2.27) S 0.1 Voltage [V] before after Timestep [Step] 2.27: 30
35 2.3.5 MSL S S 31
36 3 S FDTD S FDTD FDTD FDTD ΩMSL S 50Ω MSL S FDTD Ob1 Ob2 ( 3.1) FDTD Ob1 ( 3.2) Ob1 1 Ob2 MSL MSL PML 8layer Feed Ob1 z y Ob2 GND PML 8layer x 3.1: 32
37 MSL MSL PML 8layer Feed Ob1 z R y Ob2 GND PML 8layer x 3.2: S S S S Anritsu 37347C 3680V ( 3.3) ( 3.4) S S FDTD S 33
38 3.3: 3.4: Ω MSL S ( 3.5) S 34
39 FDTD (AWR MicroWave-Office) FDTD S 50Ω MSL Inductor or Capacitor 3.5: (Δx Δy Δz) = (1.0mm 1.05mm 0.533mm) Δt (2.2) Courant 1.0ps 50Ω 4Δy 3Δz MSL 0mm 30GHz 5 PML(Perfectly Matched Layer) 1 2 MSL = 72Ω Δt 0.5ps S 500GHz (Δf) 50MHz Δf 50MHz 10GHz S FDTD S 35
40 0 S11 S21[dB] S11 S21 FDTD Simulator Frequency [GHz] 3.6: S11 S21[dB] S21 S11 FDTD Simulator Frequency [GHz] 3.7: 36
41 SV280 S 50Ω MSL ( 3.8) 50Ω MSL Varactor diode 3.8: S FDTD S S FDTD [12] 0V 10V S FDTD FDTD S FDTD FDTD S 37
42 0 S11 S21[dB] S11 S21 FDTD Simulator Frequency [GHz] 3.9: Bias=0V 0 S11 S21[dB] S11 S21 FDTD Simulator Frequency [GHz] 3.10: Bias=10V 38
43 3.1.4 FDTD S 50Ω MSL 2 LC ( 3.11) 50Ω MSL Capacitor Inductor 3.11: LC S 2.1 S S FDTD S 2 FDTD FDTD S FDTD FDTD S 39
44 0 S11 S21[dB] S11 S21 FDTD Simulator Frequency [GHz] 3.12: LC 40
45 3.2 S 50Ω MSL S FDTD S FDTD ΩMSL 50ΩMSL S 50ΩMSL ( 3.13) Capacitor 3.13: 50ΩMSL 50ΩMSL 2 2 S FDTD FDTD 50ΩMSL S FDTD FDTD 50ΩMSL S 41
46 S11 S21[dB] S11 S21 FDTD Simulator Frequency [GHz] 3.14: 50ΩMSL LPF S LPF(Low- Pass-Filter) FDTD FDTD : LPF FDTD 150*80*41cell Δx =0.5mm Δy =0.55mm Δz =0.32mm 40000steps Δt =0.5ps PML5 42
47 S ( = 168Ω) FDTD Δt 0.5ps S 1000GHz (Δf) 50MHz HK1608 6GHz ɛ r = [mm] tanδ =0.001 R4737 LPF 3.15 LPF 3.16 Chip Inductor 20.9mm Port1 Port2 51.4mm 3.15: LPF 3.16: LPF 43
48 S FDTD 3.17 S FDTD FDTD S FDTD S11 S21[dB] S21 S11 FDTD Simulator Meas Frequency [GHz] 3.17: LPF BPF BPF(Band-Pass-Filter) FDTD [13] BPF 3 2 ( 3.18) C L 0V 15V C s 0V 3V 44
49 Port1 Cin Cout Port2 C s MSL C MSL 1 l1 l2 CL l 1 =4.4[mm], l 2 =34.1[mm], C 1 =5.0[pF ], C in = C out =1.0[pF ] 3.18: BPF FDTD : BPF FDTD 165*60*35cell Δx =0.5mm Δy =0.55mm Δz =0.32mm 40000steps Δt =0.5ps PML5 S ( = 168Ω) FDTD Δt 0.5ps S 1000GHz (Δf) 50MHz UMK1608 1SV280 S 6GHz 45
50 10GHz R4737 BPF 3.19 BPF 3.20 Chip Capacitor (S-parameter) Port1 Port2 16.5mm Varactor Diode (S-parameter) Through-hole Through-hole 87.3mm 3.19: BPF 3.20: BPF 46
51 S FDTD S FDTD S FDTD S S11 S21[dB] S21 S11 Frequency [GHz] FDTD Simulator Meas : BPF 47
52 S11 S21[dB] S21 S FDTD Simulator Meas Frequency [GHz] 3.22: BPF 48
53 4 S FDTD FDTD S GHz S MSL S FDTD FDTD 49
54 FDTD 50
55 [1], FDTD,, [2], FD-TD, ( 17/18 ). [3] W.Sui, D.A.Christensen and C.H.Durney, Extending the Two-Dimensional FDTD Method to Hybrid Electromagnetic Systems with Active and Passive Lumped Elements, IEEE Trans. Microwave Theo. Tech., vol.40, no.4, pp , 1992 [4] V.A.Thomas, M.E.Jones, M.J.Picket-May, A.Taflove and E.Harrigan, The Use of SPICE Lumped Circuits as Sub-grid Models for FDTD Analysis, IEEE Microwave Guided Wave Lett., vol.3, pp , 1993 [5] Q.Chu, Y.Lau and F.Chang, Transient Analysis of Microwave Active Circuits Based on Time-Domain Characteristic Models, IEEE Trans. Microwave Theo. Tech., vol.46, no.8, pp , 1998 [6],, FDTD,, EMCJ97-96, pp.29-35, Jan [7] X. Ye, and J. L. Drewniak, Incorporating Two-Port Networks with S-Parameters into FDTD, IEEE Microwave and Wireless Components Lett., vol.11, pp.77-79, 2001 [8],,, S FDTD, Trans.IEICE, Vol.J85-B, No.9, pp , Sept [9],,,, FDTD,, C-2-89, March [10],,,, FDTD,, EMCJ
56 [11],,,, FDTD,, EMCJ2003-8, pp.47-52, April [12],,,, FDTD,, B-1-111, Sept [13],,,, λ/2 BPF,, MW , pp , Oct [14],,,
57 Takashi Hibino, Hiroyuki Arai, Frequency Tunable Dual-Band Filter with Fixed Attenuation Poles, 2004 Asia Pacific Microwave Conference, Delhi, India, Dec Takashi Hibino, Naobumi Michishita, Hiroyuki Arai, Improved Implement of S- Parameter for the FDTD Method, 2005 International Symposium on Antennas and Propagation, Seoul, Korea, Aug C-2-76 Sept S FDTD B Sept S FDTD B March
main.dvi
BPF 16 2 29 4414 LP F (Low P ass F ilter) HPF(High P ass F ilter) BPF(Band P ass F ilter) ( ) BPF BPF BPF 2 Q BPF 1 BPF BPF BPF 1 8 1 BPF BPF BPF -3[dB] 5[MHz] BPF -3[dB].8[MHz] BPF i 1 1 2 BPF 4 2.1...........................
FDTD(Finite Difference Time Domain) Maxwell FDTD FDTD FDTD (FFT) FDTD CP(Contour-Path)-FDTD i
FDTD 17 2 7 03GD191 FDTD(Finite Difference Time Domain) Maxwell FDTD FDTD FDTD (FFT) FDTD CP(Contour-Path)-FDTD 45 1 2 i 1 1 1.1 FDTD....................... 1 1.2 FDTD............................ 2 1.3
U.C. Berkeley SPICE Simulation Program with Integrated Circuit Emphasis 1) SPICE SPICE netli
1 -- 7 7 2008 12 7-1 7-2 c 2011 1/(12) 1 -- 7 -- 7 7--1 2008 12 1960 1970 1972 U.C. Berkeley SPICE Simulation Program with Integrated Circuit Emphasis 1) SPICE SPICE 7--1--1 7 1 7 1 1 netlist SPICE 2)
3 16 2 27 4497 LAN(Local Area Network) OFDM(Orthogonal Frequency Division Multiplexing) 12 3 3 12 3 12 33. F/B 22.7dB 3 F/B i 1 1 2 3 8 2.1................................. 8 2.2.............................
DC-DC Control Circuit for Single Inductor Dual Output DC-DC Converter with Charge Pump (AKM AKM Kenji TAKAHASHI Hajime YOKOO Shunsuke MIWA Hiroyuki IW
DC-DC Control Circuit for Single Inductor Dual Output DC-DC Converter with Charge Pump (AKM AKM Kenji TAKAHASHI Hajime YOKOO Shunsuke MIWA Hiroyuki IWASE Nobukazu TAKAI Haruo KOBAYASHI Takahiro ODAGUCHI
UWB a) Accuracy of Relative Distance Measurement with Ultra Wideband System Yuichiro SHIMIZU a) and Yukitoshi SANADA (Ultra Wideband; UWB) UWB GHz DLL
UWB a) Accuracy of Relative Distance Measurement with Ultra Wideband System Yuichiro SHIMIZU a) and Yukitoshi SANADA (Ultra Wideband; UWB) UWB GHz DLL UWB (DLL) UWB DLL 1. UWB FCC (Federal Communications
P361
ΣAD -RFDAC - High-Speed Continuous-Time Bandpass ΣAD Modulator Architecture Employing Sub-Sampling Technnique with 376-8515 1-5-1 Masafumi Uemori Tomonari Ichikawa Haruo Kobayashi Department of Electronic
2005 1
2005 1 1 1 2 2 2.1....................................... 2 2.2................................... 5 2.3 VSWR................................. 6 2.4 VSWR 2............................ 7 2.5.......................................
Microsoft PowerPoint - 山形大高野send ppt [互換モード]
![Microsoft PowerPoint - 山形大高野send ppt [互換モード]](/thumbs/96/127884904.jpg "Microsoft PowerPoint - 山形大高野send ppt [互換モード]")
, 2012 10 SCOPE, 2012 10 2 CDMA OFDMA OFDM SCOPE, 2012 10 OFDM 0-20 Relative Optical Power [db] -40-60 10 Gbps NRZ BPSK-SSB 36dB -80-20 -10 0 10 20 Relative Frequency [GHz] SSB SSB OFDM SSB SSB OFDM OFDM
Doctor Thesis Template
A Study of Variable Beam-tilted Microstrip Array Antenna LAN(Local Area Network) LAN PC LAN LAN LAN 5.2GHz 20 25Mbps OFDM(Orthogonal Frequency Division Multiplexing) 2 2 90 2 60 30 45 60 1....2 1.1....
デジタルICの電源ノイズ対策・デカップリング
RoHS RoHS 2011/65/EU RoHS Web RoHS http://www.murata.co.jp/info/rohs.html IC 1-1 IC Power Distribution Network PDN 1-2 Power Integrity PI 1) 2) 1-3 3) 4) 5) 1-4 1 2 IC IC IC 1-3 1-3 (1) (2) (3) 3 IC
15228 98441 IMT- 2International Mobile Telecommunication 2 FBFront to Back IMT-2 H E 8 2/15 (2mm)H 5/4 (187mm)E 1 (15mm) FB 24.8dB E 3dB FB (H ) H 45 FB 23.8dB -6.2dB i 1 1 2 6 2.1.....................................
untitled
( ) (mm) (GHz)=300( ) 30 300GHz=1 10mm ( 2GHz2Mbps) Gbps= Mbps ( m),? S G=P/Pi30dB=1000 Gm=4πS/λ 2, S= 80λ 2 Gm=30dB η=g/gm, S= 80λ 2,G=27dB η=50% (GHz) 80 70 60 50 40 30 20 10 16 19 22 25 28 31 34 37
untitled
+ From Tradeoffs of Receive and Transmit Equalization Architectures, ICC006,Bryan Casper, Intel Labs Transmitter Receiver 0 magnitude (db) 0 0 30 40 50 60 0 4 frequency (GHz). Receiver Transmitter FFE
L L L L C C C C (a) (b) (c) 4.4 (a) (b) (a) RG59/U 6.2mm ( ) 73Ω web page (c) 4 4 dx 4 J V dx dj Ydx Zdx dv Z,Y dv = JZdx, dj = VYdx (4.8) d 2 J dx 2
8 ( ) 2014 11 23 OP h g m r d 4 ( ) 4.2 + (lumped constant circuit) 4.2.1 3 (Poynting ) (strip line) (waveguide) (coaxial cable) GHz 4.4(a) dj dx dv Zdx Ydx ( ) (distributed constatn circuit) *1 4.4(c)
5b_08.dvi
, Circularly Polarized Patch Antennas Combining Different Shaped Linealy Polarized Elements Takanori NORO,, Yasuhiro KAZAMA, Masaharu TAKAHASHI, and Koichi ITO 1. GPS LAN 10% [1] Graduate School of Science
JIS Z803: (substitution method) 3 LCR LCR GPIB
LCR NMIJ 003 Agilent 8A 500 ppm JIS Z803:000 50 (substitution method) 3 LCR LCR GPIB Taylor 5 LCR LCR meter (Agilent 8A: Basic accuracy 500 ppm) V D z o I V DUT Z 3 V 3 I A Z V = I V = 0 3 6 V, A LCR meter
1
5-3 Photonic Antennas and its Application to Radio-over-Fiber Wireless Communication Systems LI Keren, MATSUI Toshiaki, and IZUTSU Masayuki In this paper, we presented our recent works on development of
1 7 ω ω ω 7.1 0, ( ) Q, 7.2 ( Q ) 7.1 ω Z = R +jx Z 1/ Z 7.2 ω 7.2 Abs. admittance (x10-3 S) RLC Series Circuit Y R = 20 Ω L = 100
7 7., ) Q, 7. Q ) 7. Z = R +jx Z / Z 7. 7. Abs. admittance x -3 S) 5 4 3 R Series ircuit Y R = Ω = mh = uf Q = 5 5 5 V) Z = R + jx 7. Z 7. ) R = Ω = mh = µf ) 7 V) R Z s = R + j ) 7.3 R =. 7.4) ) f = π.
EQUIVALENT TRANSFORMATION TECHNIQUE FOR ISLANDING DETECTION METHODS OF SYNCHRONOUS GENERATOR -REACTIVE POWER PERTURBATION METHODS USING AVR OR SVC- Ju
EQUIVALENT TRANSFORMATION TECHNIQUE FOR ISLANDING DETECTION METHODS OF SYNCHRONOUS GENERATOR -REACTIVE POWER PERTURBATION METHODS USING AVR OR SVC- Jun Motohashi, Member, Takashi Ichinose, Member (Tokyo
Unidirectional Measurement Current-Shunt Monitor with Dual Comparators (Rev. B
www.tij.co.jp INA206 INA207 INA208 INA206-INA208 INA206-INA208 V S 1 14 V IN+ V S 1 10 V IN+ OUT CMP1 IN /0.6V REF 2 3 1.2V REF 13 12 V IN 1.2V REF OUT OUT CMP1 IN+ 2 3 9 8 V IN CMP1 OUT CMP1 IN+ 4 11
LD
989935 1 1 3 3 4 4 LD 6 7 10 1 3 13 13 16 0 4 5 30 31 33 33 35 35 37 38 5 40 FFT 40 40 4 4 4 44 47 48 49 51 51 5 53 54 55 56 Abstract [1] HDD (LaserDopplerVibrometer; LDV) [] HDD IC 1 4 LDV LDV He-Ne Acousto-optic
地中レーダによる地下計測
2001 7 sato@cneas.tohoku.ac.jp Tel&Fax:022-217-6075 1 (Ground Penetrating radar: GPR) ( ) 2 2.1 10MHz ε r c 3 v = = 10 8 ( m/ s) (1) ε ε r r 1 f (Hz) λ (m) ε r λ = vt = v f ( m) (2) 2.2 1 1 τ (s) d(m)
uPC2711TB,uPC2712TB DS
5 VIC Bipolar Analog Integrated Circuits µpc2711tb, µpc2712tbbsic 20122915 µpc2711tb, µpc2712tb µpc2711t, µpc2712t NESAT TM ft = 20 GHz IC fu = 2.9 GHz TYP.µPC2711TB fu = 2.6 GHz TYP.µPC2712TB GP = 13
ohpr.dvi
2003/12/04 TASK PAF A. Fukuyama et al., Comp. Phys. Rep. 4(1986) 137 A. Fukuyama et al., Nucl. Fusion 26(1986) 151 TASK/WM MHD ψ θ ϕ ψ θ e 1 = ψ, e 2 = θ, e 3 = ϕ ϕ E = E 1 e 1 + E 2 e 2 + E 3 e 3 J :
xx/xx Vol. Jxx A No. xx 1 Fig. 1 PAL(Panoramic Annular Lens) PAL(Panoramic Annular Lens) PAL (2) PAL PAL 2 PAL 3 2 PAL 1 PAL 3 PAL PAL 2. 1 PAL
PAL On the Precision of 3D Measurement by Stereo PAL Images Hiroyuki HASE,HirofumiKAWAI,FrankEKPAR, Masaaki YONEDA,andJien KATO PAL 3 PAL Panoramic Annular Lens 1985 Greguss PAL 1 PAL PAL 2 3 2 PAL DP
1
1 2 3 4 5 RESISTOR TUNABLE FILTER 6 LR-SERIES 1 1 2 3 4 5 6 7.1.1 1 1 1 RF1 CF1 RF2 CF2 INPUT 14 15 16 17 18 19 2 21 22 23 24 25 26 27 28 29 3 9 8 7 6 5 4 3 2 1 84 83 82 81 8 79 78 77 R R CF CF 56k R R
プリント
MWE 5 WEB- Introduction to Theory, Analysis, and Design of Microwave Filters in New Era of Wireless Masataka OHIRA Graduate School of Science and Engineering, Saitama University () () (3) () (5) Q Attenuation
ISO & ISO の概要
ISO 7637-2 & ISO 7637-3 e 217 3 13 1 1 2 ISO 7637-2 2 2.1.................... 2 2.1.1 LISN (AN).............. 2 2.1.2 S............... 3 2.1.3.. 3 2.2 ECE Regulation No. 1.5.......... 3 3 ISO 7637-2 4
[FX11]シリーズカタログ
![[FX11]シリーズカタログ](/thumbs/78/78443234.jpg "[FX11]シリーズカタログ")
May.1.218 Copyright 218 HIROSE ELECTRIC CO., LTD. All Rights Reserved. ICR (db) 6 5 4 3 2 ICR 3mm(Without GND) 1 ICR IEEEspec 1 2 3 4 5 6 7 8 9 1 Frequency (GHz) Z (Ohm) 12 115 11 15 1 95 9 Impedance 3mm(Without
AN8934FA
BS +QPSK IC BS QPSK IC 4.5MHz L.P.F. 5.7MHz B.P.F. C/N 2 (75Ω ) 1 (75Ω ) PCM IC MN88831 1 (18.432MHz) BS 37 48 (14.25) 1 12.00±0.20 10.00±0.20 36 25 0.65 12 0.30 +0.10 0.05 Seating plane 24 13 (1.425)
ゼロからはじめる電磁界シミュレーション 高周波回路の動作を理解する４つのステップ The Beginner s Electromagnetic Simulations Four Steps for Understanding the Behavior of High-Frequency Circui
ゼロからはじめる電磁界シミュレーション 高周波回路の動作を理解する４つのステップ The Beginner s Electromagnetic Simulations Four Steps for Understanding the Behavior of High-Frequency Circuits 石飛徳昌 Norimasa ISHITOBI 有限会社ソネット技研 Sonnet Giken Co.,Ltd.
LMC6022 Low Power CMOS Dual Operational Amplifier (jp)
Low Power CMOS Dual Operational Amplifier Literature Number: JAJS754 CMOS CMOS (100k 5k ) 0.5mW CMOS CMOS LMC6024 100k 5k 120dB 2.5 V/ 40fA Low Power CMOS Dual Operational Amplifier 19910530 33020 23900
main.dvi
5 IIR IIR z 5.1 5.1.1 1. 2. IIR(Infinite Impulse Response) FIR(Finite Impulse Response) 3. 4. 5. 5.1.2 IIR FIR 5.1 5.1 5.2 104 5. IIR 5.1 IIR FIR IIR FIR H(z) = a 0 +a 1 z 1 +a 2 z 2 1+b 1 z 1 +b 2 z 2
Triple 2:1 High-Speed Video Multiplexer (Rev. C
www.tij.co.jp OPA3875 µ ± +5V µ RGB Channel OPA3875 OPA3875 (Patented) RGB Out SELECT ENABLE RED OUT GREEN OUT BLUE OUT 1 R G B RGB Channel 1 R1 G1 B1 X 1 Off Off Off 5V Channel Select EN OPA875 OPA4872
uPC2745TB,uPC2746TB DS
Bipolar Analog Integrated Circuits 3 V IC µpc275tb, µpc27tb IC3 V V NESAT ft = 2 GHz IC VCC = 2.73.3 V VCC = 3.3 V µpc275tbfu = 2.7 GHz TYP. @3 db µpc27tbfu = 1.5 GHz TYP. @3 db µpc275tbisl = 38 db TYP.
B1 Ver ( ), SPICE.,,,,. * : student : jikken. [ ] ( TarouOsaka). (, ) 1 SPICE ( SPICE. *1 OrCAD
![B1 Ver ( ), SPICE.,,,,. * : student : jikken. [ ] ( TarouOsaka). (, ) 1 SPICE ( SPICE. *1 OrCAD](/thumbs/101/152175529.jpg "B1 Ver ( ), SPICE.,,,,. * : student : jikken. [ ] ( TarouOsaka). (, ) 1 SPICE ( SPICE. *1 OrCAD")
B1 er. 3.05 (2019.03.27), SPICE.,,,,. * 1 1. 1. 1 1.. 2. : student : jikken. [ ] ( TarouOsaka). (, ) 1 SPICE ( SPICE. *1 OrCAD https://www.orcad.com/jp/resources/orcad-downloads.. 1 2. SPICE 1. SPICE Windows
untitled
NJU7704/05 C-MOS ( ) ±1.00.9µA DSP SOT-23-5 SC88A 2 DSP NJU7704/05F NJU7704/05F3 ±1.0 0.9µA typ ( ) 1.5 6.0(0.1 step) ( C ) ( ) Active "L" : NJU770****A Active "H" : NJU770****B Nch : NJU7704 C-MOS : C-MOS
LM358
LM358 2 DC LM358 5V DC 15V DC micro SMD (8 micro SMD) LM358 LM2904 LM258 LM158 20000801 19870224 33020 23900 11800 2002 3 ds007787 Converted to nat2000 DTD added avo -23 to the first page Edited for 2001
GD152
15 1 31 01GD152 MUSIC T T CdmaOne 2 i 1 1 2 6 2.1... 6 2.1.1... 6 2.1.2... 8 2.2 Beamformer... 9 2.3 MUSIC... 10 3 T 15 3.1... 15 3.2... 18 4 20 4.1... 20 4.2... 21 5 25 5.1... 25 5.2... 29 5.2.1 1...
OPA277/2277/4277 (2000.1)
R OPA OPA OPA OPA OPA OPA OPA OPA OPA µ µ ± ± µ OPA ±± ±± ± µ Offset Trim Offset Trim In OPA +In -Pin DIP, SO- Output NC OPA Out A In A +In A A D Out D In D +In D Out A In A +In A A B Out B In B +In B
untitled
LVDS 1 ( LVDS) / 50% 2 ( LVDS) / 50% 3 USB2.0 480Mbps Serial ATA Gen1 1.5Gbps PCI Express Gen1 2.5Gbps 4 Host Data Device Clock 5 Data Skew Host Data Device Clock Setup Hold Data Skew 6 Host Data Device
JFE.dvi
,, Department of Civil Engineering, Chuo University Kasuga 1-13-27, Bunkyo-ku, Tokyo 112 8551, JAPAN E-mail : atsu1005@kc.chuo-u.ac.jp E-mail : kawa@civil.chuo-u.ac.jp SATO KOGYO CO., LTD. 12-20, Nihonbashi-Honcho
DS90LV011A 3V LVDS 1 回路入り高速差動出力ドライバ
3V LVDS Single High Speed Differential Driver Literature Number: JAJS962 Single High Speed Differential Driver 19961015 23685 ds200149 Input Voltage changed to 3.6V from 5V Updated DC and AC typs basic
DS90LV V or 5V LVDS Driver/Receiver (jp)
DS90LV019 DS90LV019 3.3V or 5V LVDS Driver/Receiver Literature Number: JAJS563 DS90LV019 LVDS 1 / DS90LV019 Low Voltage Differential Signaling (LVDS) 1 CMOS / DS90LV019 EIA-644 IEEE1596.3 (SCI LVDS) 2
i 1 40 ii Grid Dip Meter 3 10kc 1000Mc Grid Dip Meter (RF) Q Grid Dip Meter Grid Dip Meter GDM Grid Dip Meter i ii 1. Grid Dip Meter 1 1.1................... 1 1.2............... 2 1.3............... 5
uPC2709T DS
Bipolar Analog Integrated Circuit 5 VIC BS/CS1 stific NESAT TM ft = 20 GHz IC fu = 2.3 GHz TYP.3 db POsat= 11.5 dbmf = 1 GHz, VCC = 5.0 V0.5 V GP = 23 db TYP.f = 1 GHz 50 Ω BS/CS1 stif BS/CS1 stif -E3
AD_Vol42_No1_J1
A/D Rob Reeder Wayne Green Robert Shillito VOLTAGE dv Δv = Δt dt Δv VOLTAGE Δv 35fs A/D ADC AD9446-1 16 1MHz ADC 1MHz 35fs3dB S/NSNR 15MHz3 1dB 1fs ADC 1ADC ANALOG CONDITIONER INPUT ADC 1. DIGITAL OUTPUT?
Distributeur : JBG-METAFIX
CL-7IR-X (.x.5x.mm) Lead-free RS-4 (.65x7.5x.75mm) Lead-free PR- (.5x.375x.6 mm) Lead-free P.7 P.4 P.35 CL-9IRS-X (x.8x.8mm) Lead-free RS-47 (3.x4.5x.mm) Lead-free CPT-3 (3.xx.mm) Lead-free P.8 P.6 P.37
スライド 1
CMOS : swk(at)ic.is.tohoku.ac.jp [ 2003] [Wong1999] 2 : CCD CMOS 3 : CCD Q Q V 4 : CMOS V C 5 6 CMOS light input photon shot noise α quantum efficiency dark current dark current shot noise dt time integration
mbed祭りMar2016_プルアップ.key
1 2 4 5 Table 16. Static characteristics (LPC1100, LPC1100L series) continued T amb = 40 C to +85 C, unless otherwise specified. Symbol Parameter Conditions Min Typ [1] Max Unit Standard port pins, RESET
uPC2745TB,uPC2746TB DS
Bipolar Analog Integrated Circuits 3 VIC µpc2745tb, µpc2746tb IC3 V1.8 V NESAT TM ft = 20 GHz IC VCC = 2.73.3 V VCC = 1.83.3 V µpc2745tbfu = 2.7 GHz TYP. @3 db µpc2746tbfu = 1.5 GHz TYP. @3 db µpc2745tbisl
A Study of Adaptive Array Implimentation for mobile comunication in cellular system GD133
A Study of Adaptive Array Implimentation for mobile comunication in cellular system 15 1 31 01GD133 LSI DSP CMA 10km/s i 1 1 2 LS-CMA 5 2.1 CMA... 5 2.1.1... 5 2.1.2... 7 2.1.3... 10 2.2 LS-CMA... 13 2.2.1...
DS90LV047A
3V LVDS 4 CMOS 4 CMOS Low Voltage Differential Signaling (LVDS) 400Mbps (200MHz) TLL/CMOS 350mV TRI-STATE 13mW ( ) PCB ENABLE ENABLE* AND TRI- STATE 4 DS90LV04 A (DS90LV048A ) ECL 1 1 Dual-In-Line 3V LVDS
16-Bit, Serial Input Multiplying Digital-to-Analog Converter (Rev. B
DAC8811 www.tij.co.jp ± ± µ ± µ ± V REF CS Power-On Reset DAC8811 D/A Converter 16 DAC Register 16 R FB I OUT CLK SDI Shift Register GND DAC8811C ±1 ±1 MSOP-8 (DGK) 4to 85 D11 DAC8811ICDGKT DAC8811C ±1
( ) : 1997
( ) 2008 2 17 : 1997 CMOS FET AD-DA All Rights Reserved (c) Yoichi OKABE 2000-present. [ HTML ] [ PDF ] [ ] [ Web ] [ ] [ HTML ] [ PDF ] 1 1 4 1.1..................................... 4 1.2..................................
Input image Initialize variables Loop for period of oscillation Update height map Make shade image Change property of image Output image Change time L
1,a) 1,b) 1/f β Generation Method of Animation from Pictures with Natural Flicker Abstract: Some methods to create animation automatically from one picture have been proposed. There is a method that gives
音響問題における差分法を用いたインパルス応答解析予測手法の検討 (非線形波動現象の数理と応用)
1701 2010 72-81 72 Impulse Response Prediction for Acoustic Problem by FDM ( ), ) TSURU, Hideo (Nittobo Acoustic Engineering Co. Ltd.) IWATSU, Reima(Tokyo Denki University) ABSTRACT: The impulse response
スライド 1
プリント回路基板の EMC 設計 京都大学大学院工学研究科 松嶋徹 EMC( 電磁的両立性 ): 環境電磁工学 EMC とは? 許容できないような電磁妨害波を, 如何なるものに対しても与えず, かつ, その電磁環境において満足に機能するための, 機器 装置またはシステムの能力 高 Immunity イミュニティ ( 耐性 ) 低 EMI 電磁妨害 EMS 電磁感受性 低 電磁妨害波によって引き起こされる機器
A Study of Small Built-in Antenna for Hand held Terminal
A Study of Smll Built-in Antenn for Hnd held Terminl 6 9 IMT-2 Interntionl Mobile Telecommunictions-2 2GHz /4 PDA Personl Digitl Assistnt 2 FDTD Finite Difference Time Domin method 6 FDTD 3.6 2.5mm 2.25GHz
LM2940
1A 3 1A 3 0.5V 1V 1A 3V 1A 5V 30mA (V IN V OUT 3V) 2 (60V) * C Converted to nat2000 DTD updated with tape and reel with the new package name. SN Mil-Aero: Order Info table - moved J-15 part from WG row
2007/8 Vol. J90 D No. 8 Stauffer [7] 2 2 I 1 I 2 2 (I 1(x),I 2(x)) 2 [13] I 2 = CI 1 (C >0) (I 1,I 2) (I 1,I 2) Field Monitoring Server
![2007/8 Vol. J90 D No. 8 Stauffer [7] 2 2 I 1 I 2 2 (I 1(x),I 2(x)) 2 [13] I 2 = CI 1 (C >0) (I 1,I 2) (I 1,I 2) Field Monitoring Server](/thumbs/91/107223763.jpg "2007/8 Vol. J90 D No. 8 Stauffer [7] 2 2 I 1 I 2 2 (I 1(x),I 2(x)) 2 [13] I 2 = CI 1 (C >0) (I 1,I 2) (I 1,I 2) Field Monitoring Server")
a) Change Detection Using Joint Intensity Histogram Yasuyo KITA a) 2 (0 255) (I 1 (x),i 2 (x)) I 2 = CI 1 (C>0) (I 1,I 2 ) (I 1,I 2 ) 2 1. [1] 2 [2] [3] [5] [6] [8] Intelligent Systems Research Institute,
pc725v0nszxf_j
PC725NSZXF PC725NSZXF PC725NSZXF PC725 DE file PC725 Date Jun. 3. 25 SHARP Corporation PC725NSZXF 2 6 5 2 3 4 Anode Cathode NC Emitter 3 4 5 Collector 6 Base PC725NSZXF PC725YSZXF.6 ±.2.2 ±.3 SHARP "S"
Quantitative Relationship between SAR and Temperature Rise inside Eyeball in a Realistic Human Head Model for 1.5 GHz-Microwave Exposure Kiyofumi Taka
Quantitative Relationship between SAR and Temperature Rise inside Eyeball in a Realistic Human Head Model for 1.5 GHz-Microwave Exposure Kiyofumi Takai, Non-member, Osamu Fujiwara, Member (Nagoya Institute
LAN Micro AVS LAN i
00D8104013K 2004 3 LAN Micro AVS LAN i 1 1 2 LAN 2 2.1 LAN ( Local Area Network ) 2 2.1.1 2 2.1.2 LAN 3 2.1.3 3 2.2 LAN 4 2.3 LAN 5 2.4 LAN 6 3 7 3.1 7 3.1.1 7 3.1.2 7 3.1.3 LAN 7 3.2 9 3.2.1 9 3.2.2 10
WMN Wi-Fi MBCR i
27 WMN Proposal of routing method that improves transmission capability in WMN 1185081 2016 2 26 WMN Wi-Fi MBCR i Abstract Proposal of routing method that improves transmission capability in WMN KOBAYASHI
2830 IEEE802.11n LAN RSSI throughput 4) 5) IEEE802.11b/g/a LAN LAN IEEE802.11n OFDM Orthogonal Frequency Division Multiplexing MIMO Multi Input Multi
Vol. 52 No. 9 2829 2840 (Sep. 2011) IEEE802.11n LAN RSSI throughput 1 1 1 2 LAN IEEE802.11n 2.4 GHz LAN RSSI 2 MIMO 2.4 GHz RSSI RSSI FDTD RSSI RSSI RSSI Relations of RSSI and Average Throughput of IEEE802.11n
28 Horizontal angle correction using straight line detection in an equirectangular image
28 Horizontal angle correction using straight line detection in an equirectangular image 1170283 2017 3 1 2 i Abstract Horizontal angle correction using straight line detection in an equirectangular image
LT 低コスト、シャットダウン機能付き デュアルおよびトリプル300MHz 電流帰還アンプ
µ µ LT1398/LT1399 V IN A R G 00Ω CHANNEL A SELECT EN A R F 3Ω B C 97.6Ω CABLE V IN B R G 00Ω EN B R F 3Ω 97.6Ω V OUT OUTPUT (00mV/DIV) EN C V IN C 97.6Ω R G 00Ω R F 3Ω 1399 TA01 R F = R G = 30Ω f = 30MHz
高周波同軸コネクタ
RF circuit ANT Probe Signal in Signal out Probe Signal out Signal in RF circuit ANT Probe Probe Signal in Signal out Signal out Signal in RF ANT. RF ANT. Probe Probe Signal out Signal out Signal in Signal
VHDL-AMS Department of Electrical Engineering, Doshisha University, Tatara, Kyotanabe, Kyoto, Japan TOYOTA Motor Corporation, Susono, Shizuok
VHDL-AMS 1-3 1200 Department of Electrical Engineering, Doshisha University, Tatara, Kyotanabe, Kyoto, Japan TOYOTA Motor Corporation, Susono, Shizuoka, Japan E-mail: tkato@mail.doshisha.ac.jp E-mail:
AN2492FH
8mm (NTSC) NTSC 8mm Y/C 1 LSI f C 5V NTSC (PAL AN2493 ) 8mm, 8mm 0.10±0.10 49 64 (1.25) 12.00±0.20 10.00±0.20 48 33 1 0.50 16 0.18 +0.10 0.05 SEATING PLANE 32 (1.25) 10.00±0.20 12.00±0.20 17 0.15 +0.10
14 2 5
14 2 5 i ii Surface Reconstruction from Point Cloud of Human Body in Arbitrary Postures Isao MORO Abstract We propose a method for surface reconstruction from point cloud of human body in arbitrary postures.
LM150/LM350A/LM350 3A 可変型レギュレータ
LM150,LM350,LM350A LM150/LM350A/LM350 3-Amp Adjustable Regulators Literature Number: JAJSBC0 LM350A/LM350 3A LM350 1.2V 33V 3A 3 IC 2 & IC ADJ 6 ADJ LM350 100V ADJ LM350 ADJ 1.2V 3A LM350A 3A LM350 3A
?????????????????NMOS?250mA????????????????
TPS732xx µ µ µ µ µ DBV PACKAGE SOT23 (TOP VIEW) DCQ PACKAGE SOT223 (TOP VIEW) TAB IS GND 1 5 GND 2 1 2 3 4 5 EN 3 4 NR/FB Optional Optional GND EN NR/FB V TPS732xx DRB PACKAGE 3mm x 3mm SON (TOP VIEW)
LM6172 デュアル高速低消費電力、低歪み電圧帰還アンプ
Dual High Speed, Low Power, Low Distortion, Voltage Feedback Amplifiers Literature Number: JAJS854 100MHz 3000V/ s 50mA 2.3mA/ 15V ADSL 5V VIP III (Vertically Integrated PNP) LM6171 Dual High Speed, Low
64 3 g=9.85 m/s 2 g=9.791 m/s 2 36, km ( ) 1 () 2 () m/s : : a) b) kg/m kg/m k
63 3 Section 3.1 g 3.1 3.1: : 64 3 g=9.85 m/s 2 g=9.791 m/s 2 36, km ( ) 1 () 2 () 3 9.8 m/s 2 3.2 3.2: : a) b) 5 15 4 1 1. 1 3 14. 1 3 kg/m 3 2 3.3 1 3 5.8 1 3 kg/m 3 3 2.65 1 3 kg/m 3 4 6 m 3.1. 65 5
[FX18]シリーズカタログ
![[FX18]シリーズカタログ](/thumbs/94/121802831.jpg "[FX18]シリーズカタログ")
ICR (db) 6 5 3 2 ICR 1 ICR IEEE spec 2 4 6 8 1 Z (Ohms) 11 15 1 95 Impedance 9.2.4.6.8 1 Time (ns) 213.9 FX18-6 S -.8 SH FX18-6 P -.8 SH FX18-6 P -.8 SV 1 FX18-6 S -.8 SV 15 FX18-6 PS -.8 H 15 Signal
SICE東北支部研究集会資料(2012年)
77 (..3) 77- A study on disturbance compensation control of a wheeled inverted pendulum robot during arm manipulation using Extended State Observer Luis Canete Takuma Sato, Kenta Nagano,Luis Canete,Takayuki
untitled
1 CMOS 0.35um CMOS, 3V CMOS 2 RF CMOS RF CMOS RF CMOS RFCMOS (ADC Fabless 3 RF CMOS 1990 Abidi (UCLA): Fabless RF CMOS CMOS 90% 4 5 f T [GHz] 450 400 350 300 250 200 150 Technology loadmap L[nm] f T [GHz]
TSP信号を用いた音響系評価の研究
1 TSP 98kc068 2 1. 4 2. TSP 2.1 2.2 TSP 2.2.1 ATSP 2.2.2 OATSP 2.3 N 3. 5 5 6 6 7 8 2.3.1 N 8 2.3.2 TSP 9 2.3.3 2.3.4 m 3.1 3.1.1 3.1.2 3.2 3.3 15 18 20 20 20 21 22 24 3.3.1 24 3.3.2 3.4 3.4.1 3.4.2 4.
高速度スイッチングダイオード
は簡単な構成で FM ステレオ送信を実現できる IC です ステレオコンポジット信号を作るステレオ変調器及び FM 信号を空中へ輻射するための FM トランスミッタで構成されています ステレオ変調器は 3kHz 発振器より MAIN SUB 及びパイロット信号からなるコンポジット信号を発生します FM トランスミッタは FM 帯のキャリアを発振させコンポジット信号によって FM 変調をかけ FM 波を空中に輻射します
1 2 2 (Dielecrics) Maxwell ( ) D H
2003.02.13 1 2 2 (Dielecrics) 4 2.1... 4 2.2... 5 2.3... 6 2.4... 6 3 Maxwell ( ) 9 3.1... 9 3.2 D H... 11 3.3... 13 4 14 4.1... 14 4.2... 14 4.3... 17 4.4... 19 5 22 6 THz 24 6.1... 24 6.2... 25 7 26
AN8032
IC,,,, 1 IC,,,,, MOSFET, MOSFET,,, TH 2.5 V V REF 23.3±0.3 U.V.L.O. comp. 6.0±0.3 1/8 V 9 6 2.4±0.25 9 8 7 6 5 4 3 2 1 0.3 +0.1 0.05 3.3±0.25 0.5±0.1 2.54 1.5±0.25 1.5±0.25 SIP009-P-0000C V CC Unit : mm
General Purpose, Low Voltage, Rail-to-Rail Output Operational Amplifiers 324 V LM LMV321( )/LMV358( )/LMV324( ) General Purpose, Low Voltage, Rail-to-
General Purpose, Low Voltage, Rail-to-Rail Output Operational Amplifiers 324 V LM LMV321( )/LMV358( )/LMV324( ) General Purpose, Low Voltage, Rail-to-Rail Output Operational Amplifiers 358 LMV358/324 LM358/324
1 158 14 2 8 00225 2 1.... 3 1.1... 4 1.2... 5 2.... 6 2.1...7 2.2... 8 3.... 9 3.1... 10 3.2... 16 4.... 17 4.1... 18 4.2... 20 4.3... 22 5.... 23 5.1... 24 5.2... 28 5.3... 34 5.4... 37 5.5... 39 6....
LMC6082 Precision CMOS Dual Operational Amplifier (jp)
Precision CMOS Dual Operational Amplifier Literature Number: JAJS760 CMOS & CMOS LMC6062 CMOS 19911126 33020 23900 11800 ds011297 Converted to nat2000 DTD Edited for 2001 Databook SGMLFIX:PR1.doc Fixed
1 u t = au (finite difference) u t = au Von Neumann
1 u t = au 3 1.1 (finite difference)............................. 3 1.2 u t = au.................................. 3 1.3 Von Neumann............... 5 1.4 Von Neumann............... 6 1.5............................
LM4663 2 Watt Stereo Class D Audio Pwr Amp w/Stereo Headphone Amplifier (jp)
2 Watt Stereo Class D Audio Power Amplifier with Stereo Headphone Amplifier Literature Number: JAJS693 Boomer 2006 4 A very minor text edit (typo). (MC) Converted to nat2000 DTD. Few edits on Table 1 and
it-ken_open.key
深層学習技術の進展 ImageNet Classification 画像認識 音声認識 自然言語処理 機械翻訳 深層学習技術は これらの分野において 特に圧倒的な強みを見せている Figure (Left) Eight ILSVRC-2010 test Deep images and the cited4: from: ``ImageNet Classification with Networks et
MAX4886 DS.J
19-0807; Rev 0; 4/07 EVALUATION KIT AVAILABLE μ PART TEMP RANGE PIN- PACKAGE PKG CODE ETO+ -40 C to +85 C 42 TQFN-EP* T42359OM-1 * EYE DIAGRAM ( = 3.3V, f = 2.6GHz 600mV P-P PRBS SIGNAL+) * PRBS = PSUEDORANDOM
. Fig. AC bus k k V I S Fig. 4. Fig. 3. The position of two lines The equivalent circuit model of line impedance Z(k) = V I S () Fig f [Hz], c[m
![. Fig. AC bus k k V I S Fig. 4. Fig. 3. The position of two lines The equivalent circuit model of line impedance Z(k) = V I S () Fig f [Hz], c[m](/thumbs/88/115616136.jpg ". Fig. AC bus k k V I S Fig. 4. Fig. 3. The position of two lines The equivalent circuit model of line impedance Z(k) = V I S () Fig f [Hz], c[m")
Evaluation and Suppression of Effect on Power Transfer Characteristics by Cable Impedance for Dynamic Wireless Power Transfer System Kodai Takeda, Student Member, Takafumi Koseki, Member Electric vehicle
untitled
2 CONTENTS mi/n/na/to Vol.3 2 4 8 10 12 13 14 15 3 mi/n/na/to 5 4 7 6 9 8 10 10 11 11 Vol.3 TOKYO-WAN-DER-LAND Tokyo Bay Data Book Vol.3 1 13 12 1 1 1 1 5 May 4 April 15 14 3 Event Information From Wave
Sonnet 13.56MHzRFID , 13.56MHzRFID Sonnet Sonnet Sonnet
Sonnet 13.56MHzRFID 2018 7 28, 13.56MHzRFID Sonnet Sonnet 1 1 1.1............ 1 1.2................ 1 2 1 2.1... 2 2.2...... 2 2.3 Sonnet............. 2 2.4 Sonnet.......... 2 2.5........... 3 3 3 3.1..
LM7171 高速、高出力電流、電圧帰還型オペアンプ
Very High Speed, High Output Current, Voltage Feedback Amplifier Literature Number: JAJS842 2 1 6.5mA 4100V/ s 200MHz HDSL 100mA 15V S/N ADC/DAC SFDR THD 5V VIP III (Vertically integrated PNP) 19850223
hν 688 358 979 309 308.123 Hz α α α α α α No.37 に示す Ti Sa レーザーで実現 術移転も成功し 図 9 に示すよ うに 2 時間は連続測定が可能な システムを実現した Advanced S o l i d S t a t e L a s e r s 2016, JTu2A.26 1-3. 今後は光周波 数比計測装置としてさらに改良 を加えていくとともに
PowerPoint Presentation
/ 2008/04/04 Ferran Salleras 1 2 40Gb/s 40Gb/s PC QD PC: QD: e.g. PCQD PC/QD 3 CP-ON SP T CP-OFF PC/QD-SMZ T ~ps, 40Gb/s ~100fJ T CP-ON CP-OFF 500µm500µm Photonic Crystal SMZ K. Tajima, JJAP, 1993. Control
LT 高信号レベル・アップコンバーティング・ミキサ
LT 高信号レベルアップコンバーティング ミキサ 特長 MHz RF RF IF IP 7dBm 9MHz dbm IF db RF LO dbm LO 二重平衡ミキサ イネーブル機能.V~.Vの単一電源電圧範囲 露出パッド付き ピン TSSOPパッケージ アプリケーション CATV ダウンリンク インフラストラクチャ ワイヤレス インフラストラクチャ 高直線性ミキサ アプリケーション 概要 LT