Features. Specifications

Transcription

1 MGA W High Gain Driver Amplifier Data Sheet Description Avago Technologies MGA is a 0.5 W, high Gain, high performance Driver Amplifier MMI, housed in a standard SOT-89 plastic package. The device required simple matching components to achieve optimum performance within specific 100 to 200 MHz bandwidth. MGA is especially ideal for wireless infrastructure applications that operate within the 1.5 GHz to 3 GHz frequency range. With high IP3 and low noise figure, the MGA may be utilized as a driver amplifier in the transmit chain and as second or third stage LNA in the receive chain. For optimum performance at lower frequency from 450 MHz to 1500 MHz, MGA is recommended. MGA s high gain and high linearity features are achieved through the use of Avago Technologies proprietary 0.25 mm GaAs Enhancement-mode phemt process. Pin connections and Package Marking 16X #1 #2 #3 RFin GND RFout Top View #3 #2 #1 RFout GND RFin Bottom View Note: Top View: Package marking provides orientation and identification 16 = Device ode X = Date ode character indentifies month of manufacturing Features ROHS compliant Halogen free High linearity at low D bias power [1] High Gain Low noise figure High OIP3 Advanced enhancement mode PHEMT Technology Excellent uniformity in product specification SOT-89 standard package Specifications At 1900 MHz, Vdd = 5 V, Idd = 168 ma (typical) at OIP3 = 44.9 dbm Noise Figure = 1.9 db Gain = 18.1 db P1dB = 27.6 dbm IRL = 14.0 db, ORL = 11.5 db Note: 1. The MGA has a superior LFOM of Linearity Figure of Merit (LFOM) is essentially OIP3 divided by D bias power. VDD Attention: Observe precautions for handling electrostatic sensitive devices. ESD Machine Model = 150 V ESD Human Body Model = 650 V Refer to Avago Application Note A004R: Electrostatic Discharge, Damage and ontrol. RF IN L MGA L L RF OUT Figure 1. Simplified Schematic diagram

2 MGA Absolute Maximum Rating [1] Symbol Parameter Units Absolute Max. V dd, max Drain Voltage, RF output to ground V 5.5 P d Power Dissipation (2) mw 1050 P in W RF Input Power dbm 15 T j Junction Temperature 150 T STG Storage Temperature -65 to 150 Thermal Resistance Thermal Resistance [3] (V dd = 5.0 V, I dd = 168 ma, T c = ), θ jc = 44 /W Notes: 1. Operation of this device in excess of any of these limits may cause permanent damage. 2. Source lead temperature is. Derate 22.7 mw/ for T L > Thermal resistance measured using 150 Infra-Red Microscopy Technique. MGA Electrical Specification [1] T =, Z o = 50 W, V dd = 5 V, unless specified. Symbol Parameter and Test ondition Frequency (MHz) Units Min. Typ. Max. I ds Quiescent urrent NA ma NF Noise Figure 1900 Gain Gain 1900 db db OIP3 Output Third Order Intercept Point 1900 [2] dbm [3] 44.8 P1dB Output Power at 1 db Gain ompression 1900 PAE Power Added Efficiency at P1dB 1900 IRL Input Return Loss 1900 ORL Output Return Loss 1900 ISOL Isolation 1900 dbm % db db db Note : 1. Measurements obtained from a test circuit described in Figure OIP3 test condition: F1 - F2 = 1.0 MHz, with input power of -6 dbm per tone measured at worst case side band. 3. OIP3 test condition: F1 - F2 = 1.0 MHz, with input power of -5 dbm per tone measured at worst case side band

3 MGA onsistency Distribution harts [1,2] LSL USL LSL Figure 2. Idd at Vdd = 5 V, LSL = 150 ma, Nominal = 168 ma, USL = 195 ma Figure 3. OP1dB at 1900 MHz, Vdd = 5 V, LSL = 26.3 dbm, Nominal = 27.6 dbm LSL USL USL Figure 4. Gain at 1900 MHz, Vdd = 5 V, LSL = 16.6 db, Nominal = 18.1 db, USL = 19.6 db Figure 5. NF at 1900 MHz, Vdd = 5 V, Nominal = 1.9 db, USL = 2.8 db LSL Figure 6. OIP3 at 1900 MHz, Vdd = 5 V, LSL = 41.0 dbm, Nominal = 44.9 dbm Notes: 1. Data sample size is 2700 samples taken from 5 wafers and 3 different wafer lots. Future wafers allocated to this product may have nominal values anywhere between the upper and lower limits. 2. Measurements are made on production test board which represents a trade off between nominal Gain, NF, OIP3, and OP1dB. ircuit losses have been de-embedded from actual measurements. 3

4 MGA Application ircuit Data for 1900 MHz T A =, V dd = 5.0 V, I dd = 168 ma OIP3 (dbm) 40 OP1dB (dbm) Figure 7. Over Temperature OIP3 vs Frequency Figure 8. Over Temperature OP1dB vs Frequency Gain( db) IRL (db) Figure 9. Over Temperature Gain vs Frequency -20 Figure 10. Over Temperature IRL vs Frequency ORL (db) Isolation (db) Figure 11. Over Temperature ORL vs Frequency -30 Figure 12. Over Temperature Isolation vs Frequency 4

5 MGA Application ircuit Data for 1900 MHz (continued) NF (db) OIP3 (dbm) Figure 13. Over Temperature Noise Figure vs Frequency Pout (dbm) Figure 14. Over Temperature OIP3 vs Pout at 1900 MHz ALR (dbc) W-DMA 3GPP Test Model 1+64 DPH, 3.84 MHz BW Pout Figure 15. Over Temperature ALR vs Pout at 1900 MHz K-factor Frequency (GHz) Figure 16. Over Temperature K-factor vs Frequency 5

6 MGA Application ircuit Data for MHz T A =, V dd = 5.0 V, I dd = 168 ma OIP3 (dbm) 40 OP1dB (dbm) Figure 17. Over Temperature OIP3 vs Frequency Figure 18. Over Temperature OP1dB vs Frequency Gain( db) Figure 19. Over Temperature Gain vs Frequency IRL (db) Figure 20. Over Temperature IRL vs Frequency ORL (db) Isolation (db) Figure 21. Over Temperature ORL vs Frequency Figure 22. Over Temperature Isolation vs Frequency 6

7 MGA Application ircuit Data for MHz (continued) NF (db) Figure 23. Over Temperature Noise Figure vs Frequency OIP3 (dbm) Pout (dbm) Figure 24. Over Temperature OIP3 vs Pout at MHz ALR (dbc) W-DMA 3GPP Test Model 1+64 DPH, 3.84 MHz BW Pout (dbm) Figure 25. Over Temperature ALR vs Pout at MHz K-factor Frequency (GHz) Figure 26. Over Temperature K-factor vs Frequency 7

8 Application ircuit Description and Layout VDD 7 SOT_89 MGA Oct 2010 W = 0.57 mm G = 0.59 mm VDD GND 6 5 IN 8 L1 1 2 L L3 9 OUT RF IN L2 MGA RF OUT L1 Z o = 50 Ω 2 L = 2.53 mm 3 L at 1.9 GHz Figure 27. ircuit diagram Figure 28. Demo board Bill of Materials ircuit Symbol Size Description For MHz Description For MHz Value Part Number Manufacturer Value Part Number Manufacturer pf M05H3R050AH Kyocera 5.1 pf GJM15551H5R1DB01E Murata pf M05H2R250AH Kyocera 1.6 pf M05H1R650AH Kyocera pf M05H1R850AH Kyocera 1.3 pf GJM15551H1R3B01E Murata pf M05H3R050AH Kyocera 3.3 pf M05H3R350AH Kyocera pf GJM15551H200JB01D Murata 20 pf GJM15551H200JB01D Murata mf GRM155R71104KA88D Murata 0.1 mf GRM155R71104KA88D Murata mf GRM21BR61A225KA01L Murata 2.2 mf GRM21BR61A225KA01L Murata 8* pf GJM15551H100JB01D Murata 10 pf GJM15551H100JB01D Murata 9* pf GJM15551H100JB01D Murata 10 pf GJM15551H100JB01D Murata L nh LLP1005-FH4N7 Toko 4.7 nh LLP1005-FH4N7 Toko L2** nh LL1005-FHL12NJ Toko 18 nh 0603S-18NXJLW oilcraft L nh LLP1005-FH3N9 Toko 4.7 nh LLP1005-FH4N7 Toko Notes: * As blocking capacitor, not required in actual application circuit. ** For GHz, the component size for L2 is For best performance, MGA requires only simple input and output matching network. The 3, 4, and L3 act as the output tuning circuitry for matching and OIP3 optimization. Bandpass network 1,2, and L1 forms the input matching network. To bias MGA-31689, a +5 V supply (Vdd) is connected to the output pin thru a RF choke, L2 (which isolates the inband signal from the D supply). The low frequency bypass capacitor 6 and 7 helps to eliminate out low frequency signals from power supply. Blocking capacitors are required for its input (8) and output (9), to isolate the supply voltage from succeeding circuits. The recommended output tuning is for achieving wideband best OIP3, while meeting typical specifications for other parameters. 8

9 MGA Typical Scatter Parameters [1] T A =, V dd = 5.0 V, I dd = 168 ma, Z o = 50 Ω Freq S11 S11 S21 S21 S12 S12 S22 S22 (GHz) (db) (ang) (db) (ang) (db) (ang) (db) (ang) k

10 MGA Typical Noise Parameters [1] T A =, V dd = 5.0 V, I dd = 168 ma, Z o = 50 Ω Freq (GHz) F min (db) Γ opt Mag Γ opt Ga Ang R n /Z 0 (db) Note: 1. Measurements are made using 10 mils Rogers RO4350 TRL Board. 10

11 Part Number Ordering Information Part Number No. of Devices ontainer MGA BLKG Tape/Reel MGA TR1G Tape/Reel SOT89 Package Dimensions D D1 D D1 POLISH E1 E OR E1 E L L S e1 e S e1 e D D E OR 2.35 HALF ETHING DEPTH b b1 MATTE FINISH b POLISH A b1 Dimensions in mm Dimensions in inches Symbols Minimum Nominal Maximum Minimum Nominal Maximum A L b b D D D E E e S e

12 Device Orientation REEL ARRIER TAPE 16X 16X 16X 16X USER FEED DIRETION OVER TAPE Tape Dimensions 0.30 ± ±.05 SEE NOTE SEE NOTE 1 Ø / Ø 1.50 MIN. A 1.75 ±.10 R 0.3 MAX ±.05 SEE NOTE 3 Bo 12.0 ±.3 Ko Ao R 0.3 TYP. A SETION A - A Ao = 4.60 Bo = 4.90 Ko = 1.90 DIMENSIONS IN MM NOTES: SPROKET HOLE PITH UMULATIVE TOLERANE ± AMBER IN OMPLIANE WITH EIA POKET POSITION RELATIVE TO SPROKET HOLE MEASURED AS TRUE POSITION OF POKET, NOT POKET HOLE 12

13 Reel Dimensions 13 Reel R LOKREEL MINNEAPOLIS USA U.S PAT ATTENTION Electrostatic Sensitive Devices Safe Handling Required R REF REF 88 REF "A" PS Detail "B" 6 PS Detail "A" (MEASURED AT HUB) (MEASURED AT HUB) MAX. Ø 20.2 Dimensions in mm M IN Ø ± 0.5 For product information and a complete list of distributors, please go to our web site: Avago, Avago Technologies, and the A logo are trademarks of Avago Technologies in the United States and other countries. Data subject to change. opyright Avago Technologies. All rights reserved. AV EN - November 11, 2013