Experience unmatched flexibility with Proteus platform — integrating high-speed waveform generation, IQ modulation, and signal processing in one scalable system.
Explore Lucid Series – offering 3, 6, and 12 GHz models with exceptional signal purity, rapid switching, and versatile modulation options.
High-voltage amplifiers are key in applications such as vehicle ECU susceptibility testing, multi-phase power system testing, and other applications when hundreds of peak-to-peak voltage is required.
Model A10200 is an ultra-small footprint, ultra wideband, high power amplifier designed for high frequency, high power, signal amplification.
Advanced wideband Software Defined Radio, based on a high-performance system-in-a-module architecture. With high sample rates, wide frequency coverage, and accelerated FPGA processing.
Our Primer will show you how Tabor Electronics can accelerate your design, test and evaluation.
The PXE6410 is a PXIe based 6 based slot Gen 3 x4 chassis, that supports the Tabor Proteus Family of AWG’s and the TE330x family of PXIe RF amplifiers.
The PXE21100 is the fastest PXIe chassis in the industry, with 21 available usable slots, ideal for high density high speed measurement applications.
With over a million users worldwide, MATLAB programming language is widely used to control and program various test and measurement instruments, be it a single instrument or a system with various instruments. This series of tutorials, “How to Control Tabor AWGs with MATLAB”, will provide step by step instructions and various examples of how to use MATLAB in conjunction with Tabor Arbitrary Waveform Generators.
In this tutorial, we will give a quick start guide on how you can communicate with the Tabor AWG using Standard Commands for Programmable Instruments (SCPI). SCPI commands are an ASCII-based set of commands for reading and writing instrument settings.
In the previous tutorial, we have shown how to communicate with Tabor AWG using SCPI commands. Another way is by creating a device object using the Tabor IVI driver. This way, one can communicate with the Tabor AWG, using pre-defined functions. In this tutorial, we will give a quick start guide on how you can communicate with the Tabor AWG using the IVI driver.
In this tutorial, we will give an example on how to load 3 waveform files and a sequence table into the Tabor AWG memory, to generate a sequence. This example is done using the IVI driver.
This example will demonstrate how to work with two synchronized WX2184C AWGs. It will show how to create & download a sequence built from 3 different waveforms files into the AWGs’ waveform memory, while keeping the two AWGs still synchronized.
This example will demonstrate how to create an arbitrary waveform from binary data created using MATLAB code. Use this code with its detailed comments to understand how binary data should be transferred to the Tabor AWG waveform memory.
In this tutorial, we will give a quick start guide on how you can manage the Tabor AWG’s arbitrary memory using a specific set of Standard Commands for Programmable Instruments (SCPI). You will find shared files with functions you could integrate in your own code. Thus saving you the time of implementing it yourself.