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Fast Transient 600mA Step-Down Converter General Description AAT1
Top Searches for this datasheetAAT1141 Fast Transient 600mA Step-Down Converter General Description AAT1141 SwitchReg 1.4MHz step-down converter with input voltage range 2.7V 5.5V output voltage 0.6V. optimized react quickly load variation. AAT1141 available fixed voltage versions with internal feedback programmable version with external feedback resistors. deliver 600mA load current while maintaining 35µA load quiescent current. 1.4MHz switching frequency minimizes size external components while keeping switching losses low. AAT1141 designed maintain high efficiency throughout operating range, which critical portable applications. AAT1141 available Pb-free SOT23-5 package rated over -40°C +85°C temperature range. SwitchReg Range: 2.7V 5.5V VOUT Fixed Adjustable from 0.6V 35µA Load Quiescent Current Efficiency 600mA Output Current 1.4MHz Switching Frequency 120µs Soft Start Fast Load Transient Over-Temperature Protection Current Limit Protection 100% Duty Cycle Low-Dropout Operation <1µA Shutdown Current SOT23-5 Package Temperature Range: -40°C +85°C Applications Cellular Phones Digital Cameras Handheld Instruments Microprocessor Core Power PDAs Handheld Computers Devices Typical Application (Fixed Output Voltage) AAT1141 4.7µF 4.7µH VOUT 4.7µF 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Descriptions Symbol Function Input supply voltage converter. Ground pin. Connect output input capacitor return. Enable pin. Feedback input pin. This connected either directly converter output external resistive divider adjustable output. Switching node. Connect inductor this pin. internally connected drains both high- low-side MOSFETs. Configuration SOT23-5 (Top View) 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Absolute Maximum Ratings1 Symbol VOUT TLEAD Description Input Voltage Operating Junction Temperature Range Storage Temperature Range Maximum Soldering Temperature leads, sec) Value -0.3 -0.3 -0.3 Units Thermal Information Symbol Description Maximum Power Dissipation Thermal Resistance2 Value Units °C/W Stresses above those listed Absolute Maximum Ratings cause permanent damage device. Functional operation conditions other than operating conditions specified implied. Only Absolute Maximum Rating should applied time. Mounted board. Derate 6.67mW/°C above 25°C. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Electrical Characteristics1 -40°C +85°C, unless otherwise noted. Typical values 25°C, 3.6V. Symbol Description Conditions Rising Hysteresis Falling IOUT 600mA, 2.7V 5.5V Load, 0.6V Adjustable Version AGND PGND 0.53 0.40 5.5V, VIN, 2.7V 5.5V 0.6V Output, Load 25°C 0.6V Output >0.6V Output From Enable Output Regulation 25°C -3.5 +3.5 Units Step-Down Converter Input Voltage VUVLO VOUT VOUT ISHDN ILIM RDS(ON)H RDS(ON)L ILXLEAK VLinereg VOUT IOUT ROUT FOSC THYS VEN(L) VEN(H) Enable Threshold Enable Threshold High Input Current UVLO Threshold Output Voltage Tolerance Output Voltage Range Quiescent Current Shutdown Current P-Channel Current Limit High Side Switch Resistance Side Switch Resistance Leakage Current Line Regulation Threshold Voltage Accuracy Leakage Current Impedance Start-Up Time Oscillator Frequency Over-Temperature Shutdown Threshold Over-Temperature Shutdown Hysteresis VOUT 5.5V -1.0 AAT1141 guaranteed meet performance specifications over -40°C +85°C operating temperature range assured design, characterization, correlation with statistical process controls. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Typical Characteristics Efficiency Load (VOUT 3.3V; 6.8H) Regulation (VOUT 3.3V; 6.8µH) -1.0 -2.0 -3.0 3.6V 4.2V 5.0V Output Error Efficiency 4.2V 5.0V 5.5V 1000 Output Current (mA) Output Current (mA) Efficiency Load (VOUT 2.5V; 6.8H) Regulation (VOUT 2.5V; 6.8µH) 2.7V Output Error -1.0 -2.0 -3.0 Efficiency 5.0V 4.2V 3.6V 5.0V 3.0V 3.6V 4.2V 1000 Output Current (mA) Output Current (mA) Efficiency Load (VOUT 1.8V; 4.7H) Regulation (VOUT 1.8V; 4.7H) 2.7V Output Error 4.2V -1.0 -2.0 -3.0 Efficiency 3.6V 2.7V 3.6V 4.2V 1000 Output Current (mA) Output Current (mA) 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Typical Characteristics (VIN 3.6V; VOUT 1.8V; Load 0.40 Soft Start Line Regulation (VOUT 1.8V) 0.30 Enable Output Voltage (top) Accuracy 0.20 0.10 0.00 -0.10 -0.20 -0.30 -0.40 IOUT 10mA Inductor Current (bottom) VOUT IOUT IOUT 400mA Time (100s/div) Input Voltage Output Voltage Error Temperature (VIN 3.6V; 1.8V; IOUT 400mA) 15.0 12.0 Switching Frequency Temperature (VIN 3.6V; VOUT 1.8V) Output Error Variation -3.0 -6.0 -9.0 -12.0 -15.0 -1.0 -2.0 Temperature (°C) Temperature (°C) Frequency Input Voltage Load Quiescent Current Input Voltage (VOUT 3.0V, 6.8µH) Frequency Variation -1.0 VOUT 1.8V Supply Current (µA) 85°C 25°C VOUT 2.5V -2.0 -3.0 -4.0 VOUT 3.3V -40°C Input Voltage Input Voltage 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Typical Characteristics Load Quiescent Current Input Voltage (VOUT 1.8V, 4.7µH) 0.060 0.060 Load Quiescent Current Input Voltage (VOUT 1.2V, 2.2µH) Supply Current (µA) Supply Current (µA) 0.055 0.050 0.045 0.040 0.035 0.030 0.025 0.020 85°C 25°C 0.055 0.050 0.045 0.040 0.035 0.030 0.025 0.020 85°C 25°C -40°C -40°C Input Voltage Input Voltage P-Channel RDS(ON) Input Voltage N-Channel RDS(ON) Input Voltage 85°C RDS(ON) 85°C RDS(ON) -40°C 25°C -40°C 25°C Input Voltage Input Voltage Load Transient Response (1mA 300mA; 3.6V; VOUT 1.8V; 10F; 100pF) 1.90 1.85 Load Transient Response (300mA 400mA; 3.6V; VOUT 1.8V; 4.7F) Load Inductor Current (200mA/div) (bottom) Load Inductor Current (200mA/div) (bottom) Output Voltage (top) 300mA Output Voltage (top) 1.80 1.75 400mA 300mA Time (50s/div) Time (50s/div) 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Typical Characteristics Load Transient Response (300mA 400mA; 3.6V; VOUT 1.8V; 10F) 1.90 1.85 Load Transient Response (300mA 400mA; 3.6V; VOUT 1.8V; 10µF; 100pF) 1.850 1.825 Load Inductor Current (200mA/div) (bottom) Load Inductor Current (200mA/div) (bottom) 400mA 300mA Output Voltage (top) 1.75 Output Voltage (top) 1.80 1.800 1.775 400mA 300mA Time (50s/div) Time (50µs/div) Line Response (VOUT 1.8V 400mA) Output Voltage coupled) (top) (mV) 1.82 1.81 -100 -120 Output Ripple (VIN 3.6V; VOUT 1.8V; IOUT 1mA) 0.30 0.25 Inductor Current (bottom) Output Voltage (top) 0.20 0.15 0.10 Input Voltage (bottom) 1.80 1.79 1.78 1.77 1.76 0.05 0.00 -0.05 -0.10 Time (25s/div) Time (10µs/div) (VIN 3.6V; VOUT 1.8V; Load Output Voltage coupled) (top) 0.08 0.07 0.06 0.05 0.04 0.03 0.02 0.01 0.00 0.60 0.40 0.20 0.00 1.40 1.20 Output Ripple Inductor Current (bottom) 1.00 0.80 Time (40ns/div) 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Functional Block Diagram note Voltage Reference Logic INPUT Note: adjustable version, internal feedback divider omitted tied directly internal error amplifier. Functional Description AAT1141 high performance 600mA 1.4MHz monolithic step-down converter. been designed with goal minimizing external component size optimizing efficiency over complete load range. Apart from small bypass input capacitor, only small filter required output. Typically, 4.7µH inductor 4.7µF ceramic capacitor recommended (see table values). fixed output version requires only three external power components (CIN, COUT, adjustable version programmed with external feedback voltage, ranging from 0.6V input voltage. additional feed-forward capacitor also added external feedback provide improved transient response (see Figure dropout, converter duty cycle increases 100% output voltage tracks input voltage minus RDS(ON) drop P-channel highside MOSFET. input voltage range 2.7V 5.5V. converter efficiency been optimized load conditions, ranging from load 600mA. internal error amplifier compensation provides excellent transient response, load, line regulation. Soft start eliminates output voltage overshoot when enable input voltage applied. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter AAT1141 4.7F 4.7H VOUT 100pF 442k 221k Enable Figure Enhanced Transient Response Schematic. Control Loop AAT1141 peak current mode step-down converter. current through P-channel MOSFET (high side) sensed current loop control, well short circuit overload protection. fixed slope compensation signal added sensed current maintain stability duty cycles greater than 50%. peak current mode loop appears voltage-programmed current source parallel with output capacitor. output voltage error amplifier programs current mode loop necessary peak switch current force constant output voltage load line conditions. Internal loop compensation terminates transconductance voltage error amplifier output. fixed voltage versions, error amplifier reference voltage internally program converter output voltage. adjustable output, error amplifier reference fixed 0.6V. into low-power, non-switching state. total input current during shutdown less than 1µA. Current Limit Over-Temperature Protection overload conditions, peak input current limited. minimize power dissipation stresses under current limit short-circuit conditions, switching terminated after entering current limit series pulses. Switching terminated seven consecutive clock cycles after current limit been sensed series four consecutive clock cycles. Thermal protection completely disables switching when internal dissipation becomes excessive. junction over-temperature threshold 140°C with 15°C hysteresis. Once over-temperature over-current fault condition removed, output voltage automatically recovers. Soft Start Enable Soft start limits current surge seen input eliminates output voltage overshoot. When pulled low, enable input forces AAT1141 Under-Voltage Lockout Internal bias circuits controlled input. Under-voltage lockout (UVLO) guarantees sufficient bias proper operation internal circuitry prior activation. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Applications Information Inductor Selection step-down converter uses peak current mode control with slope compensation maintain stability duty cycles greater than 50%. output inductor value must selected inductor current down slope meets internal slope compensation requirements. internal slope compensation adjustable low-voltage fixed versions AAT1141 0.24A/µsec. This equates slope compensation that inductor current down slope 1.5V output 4.7µH inductor. show appreciable saturation under normal load conditions. Some inductors meet peak average current ratings result excessive losses high DCR. Always consider losses associated with effect total converter efficiency when selecting inductor. 4.7µH CDRH2D14 series inductor selected from Sumida 135m typical current rating. full load, inductor loss 48mW which gives 4.5% loss efficiency 600mA, 1.8V output. Input Capacitor Select 4.7µF 10µF ceramic capacitor input. estimate required input capacitor size, determine acceptable input ripple level (VPP) solve calculated value varies with input voltage maximum when double output voltage. 0.75 0.75 1.5V 0.24 4.7H This internal slope compensation adjustable (0.6V) version low-voltage fixed versions. When externally programming 0.6V version 2.5V, calculated inductance 7.5µH. 0.75 0.75 0.24A 2.5V 7.5H CIN(MIN) this case, standard 6.8µH value selected. high-voltage fixed versions (2.5V), 0.48A/ µsec. Table displays inductor values AAT1141 fixed adjustable options. Manufacturer's specifications list both inductor current rating, which thermal limitation, peak current rating, which determined saturation characteristics. inductor should Always examine ceramic capacitor voltage coefficient characteristics when selecting proper value. example, capacitance 10µF, 6.3V, ceramic capacitor with 5.0V applied actually about 6µF. Configuration 0.6V Adjustable With External Feedback Fixed Output Output Voltage 1.2V 1.5V, 1.8V 2.5V, 3.3V 0.6V 3.3V Table Inductor Values. Inductor 2.2µH 4.7µH 6.8µH 4.7µH 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter maximum input capacitor current Since inductance short trace feeding input voltage significantly lower than power leads from bench power supply, most applications exhibit this problem. applications where input power source lead inductance cannot reduced level that does affect converter performance, high tantalum aluminum electrolytic should placed parallel with ESR, bypass ceramic. This dampens high network stabilizes system. IRMS input capacitor ripple current varies with input output voltage will always less than equal half total load current. 0.52 Output Capacitor output capacitor limits output ripple provides holdup during large load transitions. 4.7µF 10µF ceramic capacitor typically provides sufficient bulk capacitance stabilize output during large load transitions characteristics necessary output ripple. output voltage droop load transient dominated capacitance ceramic output capacitor. During step increase load current, ceramic output capacitor alone supplies load current until loop responds. Within three switching cycles, loop responds inductor current increases match load current demand. relationship output voltage droop during three switching cycles output capacitance estimated ILOAD VDROOP IRMS(MAX) term appears both input voltage ripple input capacitor current equations maximum when twice VIN. This input voltage ripple input capacitor current ripple maximum duty cycle. input capacitor provides impedance loop edges pulsed current drawn AAT1141. ESR/ESL ceramic capacitors ideal this function. minimize stray inductance, capacitor should placed closely possible This keeps high frequency content input current localized, minimizing input voltage ripple. proper placement input capacitor (C2) seen evaluation board layout Figure laboratory test set-up typically consists long wires running from bench power supply evaluation board input voltage pins. inductance these wires, along with low-ESR ceramic input capacitor, create high network that affect converter performance. This problem often becomes apparent form excessive ringing output voltage during load transients. Errors loop phase gain measurements also result. COUT Once average inductor current increases load level, output voltage recovers. above equation establishes limit minimum value output capacitor with respect load transients. internal voltage loop compensation also limits minimum output capacitor value 4.7µF. This effect loop crossover frequency (bandwidth), phase margin, gain margin. Increased output capacitance will reduce crossover frequency with greater phase margin. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Figure AAT1141 Sample Layout Side. Figure Exploded View Sample Layout Figure AAT1141 Sample Layout Bottom Side. maximum output capacitor ripple current given VOUT (VIN(MAX) VOUT) VIN(MAX) IRMS(MAX) Dissipation current ceramic output capacitor typically minimal, resulting less than degrees rise hot-spot temperature. feedback resistor string while maintaining good noise immunity, minimum suggested value 59k. Although larger value will further reduce quiescent current, will also increase impedance feedback node, making more sensitive external noise interference. Table summarizes resistor values various output voltages with either good noise immunity 316k reduced load input current. VOUT 1.5V 0.6V 88.5k Adjustable Output Resistor Selection applications requiring adjustable output voltage, 0.6V version externally programmed. Resistors Figure program output regulate voltage higher than 0.6V. limit bias current required external 1141.2007.09.1.2 adjustable version AAT1141, combined with external feedforward capacitor Figure delivers enhanced transient response extreme pulsed load applications. addition AAT1141 Fast Transient 600mA Step-Down Converter feedforward capacitor typically requires larger output capacitor stability. High Noise Immunity VOUT Input Current (Without Load) 316k 1000 1270 1430 RDS(ON) characteristics power output switching devices. Switching losses dominated gate charge power output switching devices. full load, assuming continuous conduction mode (CCM), simplified form losses given (RDSON(HS) RDSON(LS) [VIN VO]) 19.6 29.4 39.2 49.9 59.0 68.1 78.7 88.7 88.7 PTOTAL (tsw step-down converter quiescent current. term used estimate full load stepdown converter switching losses. condition where step-down converter dropout 100% duty cycle, total device dissipation reduces PTOTAL RDSON(HS) Table Adjustable Resistor Values With 0.6V Step-Down Converter. Thermal Calculations There three types losses associated with AAT1141 step-down converter: switching losses, conduction losses, quiescent current losses. Conduction losses associated with Since RDS(ON), quiescent current, switching losses vary with input voltage, total losses should investigated over complete input voltage range. Given total losses, maximum junction temperature derived from SOT23-5 package which 150°C/W. AAT1141 4.7F 4.7H VOUT 1.8V 100pF 442k 221k Enable Figure AAT1141 Adjustable Evaluation Board Schematic. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter TJ(MAX) PTOTAL TAMB Output Dropout dropout, duty cycle AAT1141 switching 100%. minimum dropout voltage determined RDS(ON)H inductor copper loss resistor. AAT1141 0.53 RDS(ON)H. inductor copper loss resistor varies with different inductor values manufacturer. safe dropout voltage 0.5V 600mA load. example, when load current 600mA, voltage dropped across RDS(ON)H 0.32V; inductor copper loss resistor 135m, voltage drop across inductor 0.08V. total voltage drop 0.4V. Considering manufacturer's tolerances, inductor copper loss resistor RDS(ON)H will vary from part part, 0.5V dropout window safe. output, PLoss_L 48.6mW when output current 600mA, inductor loses 4.5% power; selecting CDRH3D23 4.7µH, PLoss_L should 19.8mW, inductor losing power ratio only 1.8%. inductor size buck converter efficiency always trade-off real application. Layout suggested 2-layer layout AAT1141 shown Figures following guide lines should used help ensure proper layout. power traces (GND, VIN) should kept short, direct, wide allow large current flow. Place sufficient multiple-layer pads when needed change trace layer. input capacitor (C1) should connect closely possible GND. output capacitor should connected closely possible. connection should short possible there should signal lines under inductor. feedback trace should separate from power trace connect closely possible load point. Sensing along high-current load trace will degrade load regulation. external feedback resistors used, they should placed closely possible minimize length high impedance feedback trace. resistance trace from load return should kept minimum. This will help minimize error regulation differences potential internal signal ground power ground. Efficiency Besides AAT1141 device losses including switching losses, conduction losses, quiescent current losses, inductor copper loss also affects efficiency buck converter. buck converter, average current inductor equal output current loss inductor PLOSS_L Table shows some recommended inductors. larger size inductor usually smaller DCR. example: selecting CDRH2D14 4.7µH 1.8V 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Step-Down Converter Design Example Specifications TAMB 1.8V 600mA (adjustable using 0.6V version), Pulsed Load ILOAD 300mA 2.7V 4.2V (3.6V nominal) 1.4MHz 85°C 1.8V Output Inductor 1.8V 5.4H (use 4.7µH; Table Sumida inductor CDRH3D16, 4.7µH, 105m. 1.8V 1.8V 156mA 4.7H 1.4MHz 4.2V IPKL1 0.6A 0.068A 0.668A 0.6A2 105m 38mW 1.8V Output Capacitor VDROOP 0.1V ILOAD 0.3A 6.4F; 10µF VDROOP 0.1V 1.4MHz (VO) (VIN(MAX) 1.8V (4.2V 1.8V) 45mArms VIN(MAX) 4.7H 1.4MHz 4.2V COUT IRMS Pesr IRMS2 (45mA)2 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Input Capacitor Input Ripple 25mV 4.87µF; 4.7µF 25mV 1.4MHz 0.6A IRMS 0.3Arms IRMS2 (0.3A)2 0.45mW AAT1141 Losses (RDSON(HS) RDSON(LS) [VIN -VO]) PTOTAL (tsw 0.62 (0.725 1.8V [4.2V 1.8V]) 4.2V (5ns 1.4MHz 0.6A 70A) 4.2V 118mW TJ(MAX) TAMB PLOSS 85°C (150°C/W) 118mW 102.7°C 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Adjustable Version (0.6V device) VOUT 1.85 19.6 29.4 39.2 49.9 59.0 68.1 78.7 88.7 316k1 1000 1270 1430 (µH) Fixed Version VOUT 0.6-3.3V Used (µH) Table Evaluation Board Component Values. Manufacturer Sumida Sumida Sumida Sumida Murata Murata Coilcraft Coiltronics Coiltronics Coiltronics Part Number CDRH3D16-2R2 CDRH3D16-4R7 CDRH3D16-6R8 CDRH2D14 LQH2MCN4R7M02 LQH32CN4R7M23 LPO3310-472 SD3118-4R7 SD3118-6R8 SDRC10-4R7 Inductance (µH) Current 1.20 0.90 0.73 0.85 0.40 0.45 0.80 0.98 0.82 1.30 0.072 0.105 0.170 0.80 0.20 0.27 0.122 0.175 0.122 Size (mm) LxWxH 3.8x3.8x1.8 3.8x3.8x1.8 3.8x3.8x1.8 3.2x3.2x1.55 2.0x1.6x0.95 2.5x3.2x2.0 3.2x3.2x1.0 3.1x3.1x1.85 3.1x3.1x1.85 5.7x4.4x1.0 Type Shielded Shielded Shielded Shielded Non-Shielded Non-Shielded Shielded Shielded Shielded Table Typical Surface Mount Inductors. reduced quiescent current, 316k. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Manufacturer Murata Murata Murata Part Number GRM219R61A475KE19 GRM21BR60J106KE19 GRM21BR60J226ME39 Value 4.7µF 10µF 22µF Voltage 6.3V 6.3V Temp. Case 0805 0805 0805 Table Surface Mount Capacitors. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Ordering Information Output Voltage1 Package SOT23-5 SOT23-5 Marking2 1AXYY ZEXYY Part Number (Tape Reel)3 AAT1141IGV-0.6-T1 AAT1141IGV-1.8-T1 AnalogicTech products offered Pb-free packaging. term "Pb-free" means semiconductor products that compliance with current RoHS standards, including requirement that lead exceed 0.1% weight homogeneous materials. more information, please visit website Package Information SOT23-5 1.90 Detail 2.80 0.30 1.60 0.10 0.40 0.10 0.95 View View 2.95 0.15 0.145 0.55 +10° 0.45 0.15 1.00 0.10 0.000 0.130 0.000 Side View dimensions millimeters. Detail Contact Sales other voltage options. assembly date code. Sample stock generally held part numbers listed BOLD. 1141.2007.09.1.2 AAT1141 Fast Transient 600mA Step-Down Converter Advanced Analogic Technologies, Inc. AnalogicTech cannot assume responsibility circuitry other than circuitry entirely embodied AnalogicTech product. circuit patent licenses, copyrights, mask work rights, other intellectual property rights implied. AnalogicTech reserves right make changes their products specifications discontinue product service without notice. Except provided AnalogicTech's terms conditions sale, AnalogicTech assumes liability whatsoever, AnalogicTech disclaims express implied warranty relating sale and/or AnalogicTech products including liability warranties relating fitness particular purpose, merchantability, infringement patent, copyright other intellectual property right. order minimize risks associated with customer's applications, adequate design operating safeguards must provided customer minimize inherent procedural hazards. Testing other quality control techniques utilized extent AnalogicTech deems necessary support this warranty. Specific testing parameters each device necessarily performed. AnalogicTech AnalogicTech logo trademarks Advanced Analogic Technologies Incorporated. other brand product names appearing this document registered trademarks trademarks their respective holders. Advanced Analogic Technologies, Inc. 3230 Scott Boulevard, Santa Clara, 95054 Phone (408) 737-4600 (408) 737-4611 1141.2007.09.1.2 Other recent searchesSS1307L- - SS1307L- SS1307L- Datasheet NCV33202 - NCV33202 NCV33202 Datasheet NCV33204 - NCV33204 NCV33204 Datasheet GTT6405 - GTT6405 GTT6405 Datasheet DLN10 - DLN10 DLN10 Datasheet DE3S062D - DE3S062D DE3S062D Datasheet CDAE-272-003 - CDAE-272-003 CDAE-272-003 Datasheet BA5824FP - BA5824FP BA5824FP Datasheet AC173 - AC173 AC173 Datasheet
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