MICROWAVE COMMUNICATION TRAINING SYSTEM

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This training kit enable the user to evaluate and study on : - Microstrip Line Matching Circuit - Low Noise Amplifier - Design & implementation of microwave front end transmitter/receiver module - Pre-Amplifier and Power Amplifier - Phase Locked Loop and Voltage Controlled Oscillator - Balanced Mixer and Image Rejection Mixer - IQ Modulator & Demodulator - Design & implementation of digital wireless transceiver/receiver - Manuals includes the details of theoretical and practical at the same time, combined with reference answers
DESCRIPTIONS :
DONWLOAD DONWLOAD
MODEL: MSA-2003
PRODUCT ACCESSORIES
A. Microstrip Line Matching Circuit • Measurement of λ/4 Impedance Transformer Matching Network • Measurement of Single & Balanced Short Stubs Matching Network • Measurement of Single, Balanced & Radio Open Stubs Matching Network • Measurement of λ/8 and 3λ/8 Open Stub Matching Network B. Low Noise Amplifier • Measurement of Frequency Responses • Measurement of Noise Figure • Measurement of 1dB Compression Point C. Voltage Controlled Oscillator • Measurement of Oscillation Frequency & Output Power • Measurement of Phase Noise • Measurement of Gain Factor & Tunable Bandwidth • Measurement of Pushing Figure D. Pre-Amplifier • Measurement of Frequency Response • Measurement of 1dB Compression Point • Measurement of Third Order Intercept Point E. Power Amplifier • Measurement of Gain Flatness • Measurement of 1dB Compression Point • Measurement of Third Order Intercept Point • Measurement of the Ration of Fundamental & Harmonics F. Phase Locked Loop Controller • LCD & Keypad Testing • MB15E07 Control Signal Testing G. Phase Locked Loop • Measurement of Frequency Response for Loop Filter • Measurement of PLL & Phase Noise • Measurement of PLL Locked Time H. Balanced Mixer • Measurement of Conversion Loss vs. LO Power • Measurement of Conversion Loss vs. RF Power • Measurement of Third Order Intercept Point • Measurement of IF Bandwidth • Measurement of Isolation I. Image Rejection Mixer • Measurement of Conversion Loss vs. LO Power • Measurement of Conversion Loss vs. RF Power • Measurement of Third Order Intercept Point • Measurement of IF Bandwidth • Measurement of Isolation •Measurement of Image Rejection Level J. IQ Modulator • Measurement of PSK Modulato • Measurement of QPSK Modulator K. IQ Demodulator • Measurement of PSK Demodulator •Measurement of QPSK Demodulator L. Digital Wireless Transmitter • Measurement of Output Power • Measurement of Harmonic Output Power • Measurement of Modulation Signal M. Digital Wireless Receiver • Measurement of Sensitivity • Measurement of Demodulation Signal • Measurement of Image Rejection Ability MODULE SPECIFICATION Module One: i. Design and Measurement of Microstrip Line Matching Circuit Experiment 1: Measurement of λ 4 Impedance Transformer Matching Network(Operation Frequency: 2400 MHz; S11 < −10 dB ) Experiment 2: Measurement of Single and Balanced Short Stubs Matching Network (Operation Frequency: 2400 MHz; S11 < −10 dB ) Experiment 3: Measurement of Single, Balanced and Radio Open Stubs Matching Network.(Operation Frequency: 2400 MHz; S11 < −10 dB ) Experiment 4: Measurement of λ 8and 3λ 8 Open Stubs Matching Network.(Operation Frequency: 2400 MHz; S11 < −10 dB ) Module Two: i. Design and Measurement of Low Noise Amplifier (LNA) Experiment 1: Measurement of Frequency Responses (Operation Frequency: 2350 ~ 2450 MHz; S 10 dB 11 < − , S 10 dB 22 < − , S21 >10 dB ) Experiment 2: Measurement of Noise Figure (Operation Frequency: 2350 ~ 2450 MHz; NF < 1.8 dB) Experiment 3: Measurement of 1 dB Compression Point (Operation Frequency: 2400 MHz; P1dB > −15 dBm) ii. Design and Measurement of Voltage Controlled Oscillator Experiment 1: Measurement of Oscillation Frequency and Output Power (Oscillation Frequency: 2350~2450 MHz; Output Power: > -5 dBm) Experiment 2: Measurement of Phase Noise (Phase Noise: -90 ~ -100 dBc/Hz @ 100 kHz) Experiment 3: Measurement of Gain Factor and Tunable Bandwidth (Gain Factor: 10 ~20 MHz/Volt; Tunable Bandwidth: 60 ~ 70 MHz) Experiment 4: Measurement of Pushing Figure (Pushing Figure: 8 MHz/Volt) Module Three: i. Design and Measurement of Pre-Amplifier Experiment 1: Measurement of Frequency Responses (Operation Frequency: 2350 ~ 2450 MHz; S11 < −10 dB , S22 < −10 dB, S21 >10 dB ) Experiment 2: Measurement of 1 dB Compression Point (Operation Frequency: 2400 MHz; P1dB > 5 dBm) Experiment 3: Measurement of 3rd Order Intercept Point (Operation Frequency: 2400 MHz; OIP3 > 25 dBm ii. Design and Measurement of Power Amplifier Experiment 1: Measurement of Gain Flatness (Operation Frequency: 2350 ~ 2450 MHz; Gain Flatness: ±1.5 dB ) Experiment 2: Measurement of 1 dB Compression Point (Operation Frequency: 2400 MHz; P 23 dBm 1dB > ) Experiment 3: Measurement of 3rd Order Output Intercept Point (Operation Frequency: 2400 MHz; OIP3 > 40 dBm) Experiment 4: Measurement of the Ratio of Fundamental and Harmonics (Operation Frequency: 2400 MHz:) Module Four: i. Design and Measurement of Phase Locked Loop Controller Experiment 1: LCD and Keypad Testing (Locked Frequency Display: Locked Status Detection) Experiment 2: MB 15E07 Control Signal Testing (Locked Frequency: 2250 ~2350 MHz; Stepped Frequency: 1 MHz, 10 MHz) ii. Design and Measurement of Phase Locked Loop Experiment 1: Measurement of Frequency Responses for Loop Filter (3-dB Frequency: 12.5 kHz) Experiment 2: Measurement of PLL and Phase Noise (Phase Noise < -100 dBc/Hz @ 100 kHz) Experiment 3: Measurement of PLL Locked Time (Locked Time < 5 ms) Module Five: i. Design and Measurement of Balanced Mixer Experiment 1: Measurement of Conversion Loss vs. LO Power (RF: 2420 MHz, LO: 2350 MHz; Conversion Loss: < 15 dB) Experiment 2: Measurement of Conversion Loss vs. RF Power (RF: 2420 MHz, LO: 2350 MHz; Conversion Loss: < 15 dB, P1dB > 0 dBm) Experiment 3: Measurement of 3rd Order Intercept Point (RF: 2420 MHz, LO: 2350 MHz; OIP3 >10 dBm) Experiment 4: Measurement of IF bandwidth (RF: 2360 ~ 2450 MHz, LO: 2350 MHz; IF bandwidth: > 100 MHz) Experiment 5: Measurement of Isolation (Operation Frequency: 2350 ~ 2450 MHz; Isolation: > 20 dB) ii. Design and Measurement of Image-rejection Mixer Experiment 1: Measurement of Conversion Loss vs. LO Power (RF: 2420 MHz; LO: 2350 MHz; Conversion Loss: < 15 dB) Experiment 2: Measurement of Conversion Loss vs. RF Power (RF: 2420 MHz; LO: 2350 MHz; Conversion Loss: < 15 dB, P1dB > 5 dBm) Experiment 3: Measurement of 3rd Order Intercept Point (RF: 2420 MHz; LO: 2350 MHz; OIP3 >15 dBm) Experiment 4: Measurement of Isolation (Operation Frequency: 2350 ~ 2450 MHz; Isolation: > 30 dB) Experiment 5: Measurement of Image-rejection level (RF: 2250 ~ 2350 MHz; LO: 2350 MHz; Image-rejection level: > 30 dB) Module Six: i. Design and Measurement of IQ Modulator Experiment 1: Measurement of PSK Modulator (Operation Frequency: 70.7 MHz; Data Rate: >100 kbps) Experiment 2: Measurement of QPSK Modulator (Operation Frequency: 70.7 MHz; Data Rate: >100 kbps) ii. Design and Measurement of IQ Demodulator Experiment 1: Measurement of PSK Demodulator (Operation Frequency: 70.7 MHz; Data Rate: >100 kbps) Experiment 2: Measurement of QPSK Demodulator (Operation Frequency: 70.7 MHz; Data Rate: >100 kbps) Module Seven: i. Design and Implementation of Digital Wireless Transmitter Experiment 1: Measurement of Output Power (Operation Frequency: 2400 MHz; Pout >10 dBm) Experiment 2: Measurement of Harmonics’ Output Power (Operation Frequency: 2400 MHz; Pout < −45 dBm) Experiment 3: Measurement of Modulation Signal (Operation Frequency: 2400 MHz; Type of Modulation: FSK) Module Eight: i. Design and Implementation of Digital Wireless Receiver Experiment 1: Measurement of Sensitivity (Operation Frequency: 2400 MHz; Receiver Sensitivity: > -80 dBm) Experiment 2: Measurement of Demodulation Signal (Operation Frequency: 2400 MHz; Type of Demodulator: FSK) Experiment 3: Measurement of Image-rejection Ability (Operation Frequency: 2400 MHz; Image-rejection level: > 30 dB) FUNCTION GENERATOR & POWER SUPPLY UNIT(OPTIONAL) SPECIFICATION: A. Power Supply: - Variable Voltage Output: 0 ~ ± 12VDC/0.5A - Fixed Voltage Output: ± 5VDC(0.3A); ± 12VDC(0.3A) - Triple Bipolar Voltage Outputs - Constant Voltage Operations - Low Ripple & Noise B. Function Generator: - Two signal output ports - Waveforms: Sine, Triangle, Square, TTL Pulse - Amplitude: >10Vpp - Impedance: 50Ω ± 10% - Duty Control: 30% - 60% - Frequency Range: 10Hz ~ 100kHz (4 Ranges) 100Hz ~ 1MHz (4 Ranges) - Accuracy: ± Time Base Count ± Count - Time Base: 60Hz Oscillation Frequency - Resolution: 0.1Hz, 1Hz, 10Hz, 100Hz, 1kHz - Frequency Control: Separate Coarse & Fine Tuning - Large 0.5” LED Display - Overload Protection - Built-in 6 Digits Frequency Counter - Connection using 4mm sockets - Power Requirements: 240VAC/50Hz
FEATURES
• Manual includes theory, operation and lab experiments    (with model answers) • Connecting lead cables(1 set) • Mounting frame rack (1 set) - Optional
ABLELOGIC.COM.MY
MICROWAVE COMMUNICATION TRAINING SYSTEM  
DONWLOAD DONWLOAD
MODEL: MSA-2003
PRODUCT MENU PRODUCT MENU
This training kit enable the user to evaluate and study on : - Microstrip Line Matching Circuit - Low Noise Amplifier - Design & implementation of microwave front end transmitter/receiver module - Pre-Amplifier and Power Amplifier - Phase Locked Loop and Voltage Controlled Oscillator - Balanced Mixer and Image Rejection Mixer - IQ Modulator & Demodulator - Design & implementation of digital wireless transceiver/receiver - Manuals includes the details of theoretical and practical at the same time, combined with reference answers
DESCRIPTIONS :
A. Microstrip Line Matching Circuit • Measurement of λ/4 Impedance Transformer Matching Network • Measurement of Single & Balanced Short Stubs Matching Network • Measurement of Single, Balanced & Radio Open Stubs Matching Network • Measurement of λ/8 and 3λ/8 Open Stub Matching Network B. Low Noise Amplifier • Measurement of Frequency Responses • Measurement of Noise Figure • Measurement of 1dB Compression Point C. Voltage Controlled Oscillator • Measurement of Oscillation Frequency & Output Power • Measurement of Phase Noise • Measurement of Gain Factor & Tunable Bandwidth • Measurement of Pushing Figure D. Pre-Amplifier • Measurement of Frequency Response • Measurement of 1dB Compression Point • Measurement of Third Order Intercept Point E. Power Amplifier • Measurement of Gain Flatness • Measurement of 1dB Compression Point • Measurement of Third Order Intercept Point • Measurement of the Ration of Fundamental & Harmonics F. Phase Locked Loop Controller • LCD & Keypad Testing • MB15E07 Control Signal Testing G. Phase Locked Loop • Measurement of Frequency Response for Loop Filter • Measurement of PLL & Phase Noise • Measurement of PLL Locked Time H. Balanced Mixer • Measurement of Conversion Loss vs. LO Power • Measurement of Conversion Loss vs. RF Power • Measurement of Third Order Intercept Point • Measurement of IF Bandwidth • Measurement of Isolation I. Image Rejection Mixer • Measurement of Conversion Loss vs. LO Power • Measurement of Conversion Loss vs. RF Power • Measurement of Third Order Intercept Point • Measurement of IF Bandwidth • Measurement of Isolation •Measurement of Image Rejection Level J. IQ Modulator • Measurement of PSK Modulato • Measurement of QPSK Modulator K. IQ Demodulator • Measurement of PSK Demodulator •Measurement of QPSK Demodulator L. Digital Wireless Transmitter • Measurement of Output Power • Measurement of Harmonic Output Power • Measurement of Modulation Signal M. Digital Wireless Receiver • Measurement of Sensitivity • Measurement of Demodulation Signal • Measurement of Image Rejection Ability MODULE SPECIFICATION Module One: i. Design and Measurement of Microstrip Line Matching Circuit Experiment 1: Measurement of λ 4 Impedance Transformer Matching Network(Operation Frequency: 2400 MHz; S11 < −10 dB ) Experiment 2: Measurement of Single and Balanced Short Stubs Matching Network (Operation Frequency: 2400 MHz; S11 < −10 dB ) Experiment 3: Measurement of Single, Balanced and Radio Open Stubs Matching Network.(Operation Frequency: 2400 MHz; S11 < −10 dB ) Experiment 4: Measurement of λ 8and 3λ 8 Open Stubs Matching Network.(Operation Frequency: 2400 MHz; S11 < −10 dB ) Module Two: i. Design and Measurement of Low Noise Amplifier (LNA) Experiment 1: Measurement of Frequency Responses (Operation Frequency: 2350 ~ 2450 MHz; S 10 dB 11 < − , S 10 dB 22 < − , S21 >10 dB ) Experiment 2: Measurement of Noise Figure (Operation Frequency: 2350 ~ 2450 MHz; NF < 1.8 dB) Experiment 3: Measurement of 1 dB Compression Point (Operation Frequency: 2400 MHz; P1dB > −15 dBm) ii. Design and Measurement of Voltage Controlled Oscillator Experiment 1: Measurement of Oscillation Frequency and Output Power (Oscillation Frequency: 2350~2450 MHz; Output Power: > -5 dBm) Experiment 2: Measurement of Phase Noise (Phase Noise: -90 ~ -100 dBc/Hz @ 100 kHz) Experiment 3: Measurement of Gain Factor and Tunable Bandwidth (Gain Factor: 10 ~20 MHz/Volt; Tunable Bandwidth: 60 ~ 70 MHz) Experiment 4: Measurement of Pushing Figure (Pushing Figure: 8 MHz/Volt) Module Three: i. Design and Measurement of Pre-Amplifier Experiment 1: Measurement of Frequency Responses (Operation Frequency: 2350 ~ 2450 MHz; S11 < −10 dB , S22 < −10 dB, S21 >10 dB ) Experiment 2: Measurement of 1 dB Compression Point (Operation Frequency: 2400 MHz; P1dB > 5 dBm) Experiment 3: Measurement of 3rd Order Intercept Point (Operation Frequency: 2400 MHz; OIP3 > 25 dBm ii. Design and Measurement of Power Amplifier Experiment 1: Measurement of Gain Flatness (Operation Frequency: 2350 ~ 2450 MHz; Gain Flatness: ±1.5 dB ) Experiment 2: Measurement of 1 dB Compression Point (Operation Frequency: 2400 MHz; P 23 dBm 1dB > ) Experiment 3: Measurement of 3rd Order Output Intercept Point (Operation Frequency: 2400 MHz; OIP3 > 40 dBm) Experiment 4: Measurement of the Ratio of Fundamental and Harmonics (Operation Frequency: 2400 MHz:) Module Four: i. Design and Measurement of Phase Locked Loop Controller Experiment 1: LCD and Keypad Testing (Locked Frequency Display: Locked Status Detection) Experiment 2: MB 15E07 Control Signal Testing (Locked Frequency: 2250 ~2350 MHz; Stepped Frequency: 1 MHz, 10 MHz) ii. Design and Measurement of Phase Locked Loop Experiment 1: Measurement of Frequency Responses for Loop Filter (3-dB Frequency: 12.5 kHz) Experiment 2: Measurement of PLL and Phase Noise (Phase Noise < -100 dBc/Hz @ 100 kHz) Experiment 3: Measurement of PLL Locked Time (Locked Time < 5 ms) Module Five: i. Design and Measurement of Balanced Mixer Experiment 1: Measurement of Conversion Loss vs. LO Power (RF: 2420 MHz, LO: 2350 MHz; Conversion Loss: < 15 dB) Experiment 2: Measurement of Conversion Loss vs. RF Power (RF: 2420 MHz, LO: 2350 MHz; Conversion Loss: < 15 dB, P1dB > 0 dBm) Experiment 3: Measurement of 3rd Order Intercept Point (RF: 2420 MHz, LO: 2350 MHz; OIP3 >10 dBm) Experiment 4: Measurement of IF bandwidth (RF: 2360 ~ 2450 MHz, LO: 2350 MHz; IF bandwidth: > 100 MHz) Experiment 5: Measurement of Isolation (Operation Frequency: 2350 ~ 2450 MHz; Isolation: > 20 dB) ii. Design and Measurement of Image-rejection Mixer Experiment 1: Measurement of Conversion Loss vs. LO Power (RF: 2420 MHz; LO: 2350 MHz; Conversion Loss: < 15 dB) Experiment 2: Measurement of Conversion Loss vs. RF Power (RF: 2420 MHz; LO: 2350 MHz; Conversion Loss: < 15 dB, P1dB > 5 dBm) Experiment 3: Measurement of 3rd Order Intercept Point (RF: 2420 MHz; LO: 2350 MHz; OIP3 >15 dBm) Experiment 4: Measurement of Isolation (Operation Frequency: 2350 ~ 2450 MHz; Isolation: > 30 dB) Experiment 5: Measurement of Image-rejection level (RF: 2250 ~ 2350 MHz; LO: 2350 MHz; Image-rejection level: > 30 dB) Module Six: i. Design and Measurement of IQ Modulator Experiment 1: Measurement of PSK Modulator (Operation Frequency: 70.7 MHz; Data Rate: >100 kbps) Experiment 2: Measurement of QPSK Modulator (Operation Frequency: 70.7 MHz; Data Rate: >100 kbps) ii. Design and Measurement of IQ Demodulator Experiment 1: Measurement of PSK Demodulator (Operation Frequency: 70.7 MHz; Data Rate: >100 kbps) Experiment 2: Measurement of QPSK Demodulator (Operation Frequency: 70.7 MHz; Data Rate: >100 kbps) Module Seven: i. Design and Implementation of Digital Wireless Transmitter Experiment 1: Measurement of Output Power (Operation Frequency: 2400 MHz; Pout >10 dBm) Experiment 2: Measurement of Harmonics’ Output Power (Operation Frequency: 2400 MHz; Pout < −45 dBm) Experiment 3: Measurement of Modulation Signal (Operation Frequency: 2400 MHz; Type of Modulation: FSK) Module Eight: i. Design and Implementation of Digital Wireless Receiver Experiment 1: Measurement of Sensitivity (Operation Frequency: 2400 MHz; Receiver Sensitivity: > -80 dBm) Experiment 2: Measurement of Demodulation Signal (Operation Frequency: 2400 MHz; Type of Demodulator: FSK) Experiment 3: Measurement of Image-rejection Ability (Operation Frequency: 2400 MHz; Image-rejection level: > 30 dB) FUNCTION GENERATOR & POWER SUPPLY UNIT(OPTIONAL) SPECIFICATION: A. Power Supply: - Variable Voltage Output: 0 ~ ± 12VDC/0.5A - Fixed Voltage Output: ± 5VDC(0.3A); ± 12VDC(0.3A) - Triple Bipolar Voltage Outputs - Constant Voltage Operations - Low Ripple & Noise B. Function Generator: - Two signal output ports - Waveforms: Sine, Triangle, Square, TTL Pulse - Amplitude: >10Vpp - Impedance: 50Ω ± 10% - Duty Control: 30% - 60% - Frequency Range: 10Hz ~ 100kHz (4 Ranges) 100Hz ~ 1MHz (4 Ranges) - Accuracy: ± Time Base Count ± Count - Time Base: 60Hz Oscillation Frequency - Resolution: 0.1Hz, 1Hz, 10Hz, 100Hz, 1kHz - Frequency Control: Separate Coarse & Fine Tuning - Large 0.5” LED Display - Overload Protection - Built-in 6 Digits Frequency Counter - Connection using 4mm sockets - Power Requirements: 240VAC/50Hz
FEATURES
PRODUCT ACCESSORIES
• Manual includes theory, operation and lab experiments    (with model answers) • Connecting lead cables(1 set) • Mounting frame rack (1 set) - Optional