The PHD1200 and PHD2000, with advanced pulser-circuit technology, offer unmatched speed, accuracy, and resolution for precise dynamic on-resistance measurement of transistors. Paired with the AU-5 Pulsed IV/RF System, this compact solution delivers exceptional performance.

Auriga’s 5th generation pulsed IV/RF characterization system delivers unparalleled performance, capturing measurements with incredible speed and accuracy. Pulsed IV (current-voltage) measurements have emerged as the preferred method of capturing current-voltage characteristics of active devices such as field effect (FETs) and bipolar junction (BJTs) transistors.

3 Measurement States; Quiescent (OFF-State), Non Quiescent (ON-State), and Pre-State The Pre State is a short high voltage state used to activate the traps in the semiconductor. Adjustable delay (Δt) between the Pre state and Non Quiescent state down to 0s. Independently adjustable timing settings for the Three-state gate pulser and drain pulser Easy Integration into existing mainframes

Unlock precise nonlinear transistor behavior representation with our Cardiff Model portfolio. Improve accuracy across a wide impedance space effortlessly.

Focus Microwaves' bi-directional couplers, available in 40, 67, 110 and 120 GHz models, offer high directivity and low insertion loss. These couplers provide precise measurements, making them ideal for advanced RF and microwave testing, ensuring accuracy and efficiency in both R&D and production environments.

The Focus Compact Model (FCM) utility is a streamlined software package designed to be used with Focus’ AURIGA high-end Pulsed-IV system

Focus Microwaves' DLP (Dynamic Load Pull) is a cutting-edge platform for active load pull measurements, optimized for accuracy, speed, and reliability. Supporting frequencies up to 40GHz and beyond, it offers a versatile solution for CW and pulsed signal applications. The DLP enables fundamental and harmonic tuning, time domain measurements, and advanced behavioral modeling. With integrated options for DC IV and pulsed IV measurements, this one-box system is ideal for all stages of device characterization and testing, from initial development to final product testing. Its intuitive interface and industry-leading calibration techniques ensure precise and efficient measurements.

Empower your semiconductor device characterization with MPIV. Ideal for high power current and voltage measurements, it offers precise pulsing capabilities with adjustable parameters and customizable solutions for your specific needs.

Discover Focus Microwaves' wideband fundamental tuners. The C-Series (Computer-Controlled Microwave Tuners) feature one to three wideband probes, enabling exceptionally broad frequency coverage—ideal for high-power and wideband noise applications. Designed for precision, the tuner's long-lasting RF probes ensure optimal tuning accuracy while eliminating spurious resonances. The integration of multiple probes within a single tuner provides ultra-wideband coverage, making it a versatile solution for demanding RF applications.

Focus Microwaves' Harmonic Tuners are engineered to enable precise control of impedance at the fundamental and harmonic frequencies (typically f₀, 2f₀, and 3f₀), making them essential for nonlinear device characterization and power amplifier design. These tuners feature multiple cascaded probes within a single tuner body, allowing independent or simultaneous tuning at multiple frequencies. Their robust design ensures high tuning accuracy, minimal insertion loss, and excellent repeatability across a broad frequency range. Harmonic tuners are the ideal solution for advanced Load Pull measurements where harmonic control is critical.

Auriga’s Bias Tees balance impressive RF performance with heavy-duty power handling across multiple frequency bands ranging from 0.1 GHz to 67 GHz. They are designed for rigorous usage without sacrificing RF performance.

The Low Frequency Tuner (LFT) is a unique product technology using M algorithms for low frequency wideband tuning. Three or more cascaded tuning sections use series transmission cables and parallel rotary capacitors. The length of the cables and number of tuning sections are optimized for maximum tuning range over a given bandwidth. HLFT tuners use 6 tuning sections allowing second harmonic frequency tuning.