RF Circuit Training System consist of 2 individual board to introduce the concept of Transmission Line Circuits, RF Microwave Network Analysis, Impedance Transformation, impedance Matching.

• Broadband Frequency response
• Gold plated PCB
• Power level 0dBm to -20dB
• Open, Short, Matched load, resistive load, complex load
• RF Matching Circuits
• Bias Circuits
• RF Active and Passive Circuits
• Microwave Network Analysis

• Frequency : 0.9GHz to 3GHz
• Power : 0dBm to -20dBm
• Load : Matched Antenna

• Frequency : 0.1GHz to 3GHz
• Power : 0dBm to -20dBm
• Load : Open short, resistive load, complex load

• Frequency : 0.9GHz to 3GHz
• Power : 0dBm to 20dBm
• Load condition : Open short, Resistive load, Complex Load

• Frequency : 0.9GHz to 3GHz
• Power : 0dBm to -20dBm
• Load condition : Open short, Resistive load, Complex Load

• Frequency : 0.9GHz to 3GHz
• Power : 0dBm to -20dBm
• Load condition : Open short, Resistive load, Complex load

• Frequency : 0.9GHz to 3GHz
• Power : 0dBm to -20dBm
• Load condition : Open short, Resistive load, Complex load
• Coupled line micros trip transmission line
• Frequency : 0.9GHz to 3GHz
• Power : 0dBm to -20dBm
• Load condition : Balanced resistive load, Unbalance load

• Frequency : 0.9GHz to 3 GHz
• Power : 0dBm to -20dBm

• Frequency : 0.9GHz to 1.3GHz
• Power : 0dBm to -20dB
• Load condition : Series & shunt capacitive load

• Frequency : 0.9GHz to 1.3GHz
• Power : 0dBm to -20dB
• Load condition : Series & shunt capacitive load

• Frequency : 0.9GHz to 1.3GHz
• Power : 0dBm to -20dB
• Load condition : Series & shunt inductive load

• Frequency : 0.9GHz to 1.3GHz
• Power : 0dBm to -20dB
• Load condition : Complex load

• Frequency : 0.9GHz to 1.3GHz
• Power : 0dBm to -20dB
• Load condition : Series & shunt Resistive load

• Frequency : 0.9GHz to 1.3GHz
• Load condition : Matched, Restive load

• An impedance vector consists of a real part (resistance, R) and an imaginary part (reactance, X).
• Impedance can be expressed using the rectangular coordinate form: Z = R jX

• Using a resistive network can match simultaneous input and output, but create more loss

• A quarter-wave impedance transformer is a component used in RF engineering consisting of a length of transmission line one quarter of a wavelength (λ/4) long and terminated in some known impedance ZL
• The characteristic impedance of the quarter-wave line is the geometric average of Zin and ZL
• A quarter-wave /4 transformer provides a perfect match at only one frequency
• A broadband design may be obtained by a cascade of λ/4 line sections of gradually varying their characteristic impedance

• The shorted stub can be constructed which can produce reactance of any value. This can act as impedance matching device which cancels reactive part of complex impedance.
• Stubs can be used to match a load impedance to the transmission line characteristic impedance.
• The stub is positioned a distance from the load. This distance is chosen so that at that point the resistive part of the load impedance is made equal to the resistive part of the characteristic impedance by impedance transformer action of the length of the main line

• The basic π-network's primary application is to match a high impedance source to lower value to load impedance. It can also be used in reverse to match a low impedance to a higher impedance

• The T-match impedance matching circuit is one of the circuits used to match the impedance between two points,  sually a source and a load. The circuit got its name because the inductor and the capacitor form a T-shape

• 10209I Generator and Detector
• Spectrum Analyser with TG
• Vector Network Analyser(VNA)