
Control a Rigol DS1054Z or any DS1000Z-series scope from Python: PyVISA setup, the SCPI commands that matter, automated measurements, waveform capture, and a full working script.

Control a Rigol DS1054Z or any DS1000Z-series scope from Python: PyVISA setup, the SCPI commands that matter, automated measurements, waveform capture, and a full working script.

Keysight BenchVue explained: what it does, what the licenses cost, where it stops on mixed-vendor benches, and the vendor-neutral alternatives.

Compare data acquisition software: BenchVue, LabVIEW, and code-free options. See how TestFlow turns a datasheet into an automated DAQ run in minutes.

What a DAQ controller does and how to automate data acquisition end to end. Build a remote, repeatable DAQ workflow with TestFlow, no LabVIEW required.

Function generator specifications explained, which specs to validate, and how to automate the test with TestFlow straight from the datasheet.

The best multimeter software for logging and automation on the Keysight 34461A and 34465A, plus how TestFlow scripts measurements without code.

Keysight 34465A manual quick reference: key functions, SCPI basics, and how to automate the 34465A DMM with TestFlow instead of hand-writing scripts.

Real data acquisition system examples for temperature, voltage, and mixed-signal logging, plus how TestFlow automates each from the datasheet.

Keysight data logger software setup and limits for the 34972A, and how TestFlow turns any instrument into a scriptable, multi-vendor data logger.

Keysight VNA and network analyzer software options, what each does, and how TestFlow automates VNA sweeps and calibration steps across vendors.

Vector signal analyzer software explained for RF and modulation analysis, plus how TestFlow automates repeatable VSA captures from a datasheet.

Keysight 34465A SCPI commands reference for DC voltage, resistance, and logging, plus how TestFlow automates the 34465A without writing SCPI by hand.

DAQ970A programming guide: LabVIEW driver, SCPI commands, and a no-code path. Automate the DAQ970A with TestFlow straight from the datasheet.

Keysight E36313A programming manual basics: SCPI for voltage, current, and sequencing, and how TestFlow automates the power supply with no scripting.

Keysight 33600A programming manual quick start: SCPI for arbitrary waveforms and sweeps, plus how TestFlow automates the 33600A from the datasheet.

Keysight 34970A programming manual essentials: SCPI scanning, channel config, and how TestFlow automates switch and measure routines without code.

Keysight IO Libraries Suite explained: Connection Expert, VISA, and instrument I/O, plus when a no-code layer like TestFlow saves you the scripting.

Keysight 34465A datasheet explained: accuracy, ranges, and reading rates that matter for validation, plus turn the datasheet into a test plan with TestFlow.

Keysight 34461A datasheet and specifications broken down, then converted into an automated validation plan with TestFlow in under two minutes.

How to read a digital multimeter datasheet: accuracy, resolution, and ranges explained, then auto-generate a validation plan from it with TestFlow.

Keysight 34972A datasheet, manual, and software in one quick guide, plus how TestFlow turns 34972A specs into an automated data-logging run.

How a programmable DC power supply works: remote control, sequencing, and SCPI, plus how TestFlow automates supply test steps without writing code.
Build a multi-channel data logger without LabVIEW. Compare data logging systems and automate acquisition from the datasheet with TestFlow.

Keysight vs National Instruments data loggers compared on channels, software, and automation, plus how TestFlow runs both from one workflow.

The best function and signal generators for programmable test setups in 2026, ranked by SCPI support, and how to automate any of them with TestFlow.

The best data acquisition systems for lab automation in 2026, compared on channels, software, and scripting, plus how TestFlow automates your chosen DAQ.
What is LabVIEW? A clear explanation of NI's graphical programming language, what it is used for, how it works, and its cost and alternatives.

DAQ explained: what data acquisition means, how a DAQ system works, sample rate and resolution, hardware types, sensors, and the software options from Python to AI-native tools.
How to download LabVIEW in 2026: the free Community Edition, student licenses, the eval trial, and what each can legally be used for.

Hardware-in-the-loop testing explained: what HIL is, how a HIL system works, where it is used, NI's tools, and modern alternatives.
Automated test equipment (ATE) explained: what it is, how ATE systems work, types, where it is used in semiconductor and electronics test, and the software layer.

How lab instrument control works: NI-VISA, SCPI commands, GPIB, USB, and LXI. A clear guide for test engineers, with Python examples and alternatives.
LabVIEW training in 2026: free and paid courses, how long it takes to learn, whether it is worth it for your career, and the alternatives.
Can you run LabVIEW on Mac or Linux? What is supported, the driver and toolkit limits, and the best cross-platform alternatives for test engineers.
LabVIEW system requirements for 2026: supported OS, CPU, RAM, and disk space, plus install tips and what to do on Mac or low-spec machines.
LabVIEW NXG was discontinued in 2020. Here is what NXG was, why NI stopped it, what it means for your projects, and your options in 2026.
What the LabVIEW FPGA Module and LabVIEW Real-Time do, how they work with CompactRIO, what they cost, and when you actually need them.

NI FlexLogger explained: the no-code data logging software, what it does, what it costs, and the best alternatives for sensor data acquisition.

NI DIAdem explained: how it manages, analyzes, and reports on measurement data, what it costs, and AI-native alternatives for test data analysis.

NI VeriStand explained: the real-time test and HIL configuration software, how it works, what it costs, and the alternatives for test automation.

NI SignalExpress explained: the no-code interactive measurement tool, its legacy status, and the modern alternatives for quick benchtop measurements.

LabWindows/CVI explained: NI's ANSI C environment for test and measurement, how it differs from LabVIEW, what it costs, and modern alternatives.

NI Vision explained: the Vision Development Module and Vision Builder, how machine vision works with LabVIEW, what it costs, and alternatives.

A guide to data acquisition software in 2026: NI-DAQmx and the DAQ Assistant, Python, open-source, and AI-native tools, with how to choose.
The top automated test equipment companies and manufacturers in 2026, what each is known for, and where AI-native test software fits in the stack.

How ADAS testing works in 2026: sensor validation, hardware-in-the-loop simulation, and the test automation layer for advanced driver-assistance systems.
Compare the 8 best LabVIEW alternatives in 2026: Python, MATLAB, OpenTAP, TestStand, BenchVue, and AI-native TestFlow. Costs, lock-in, learning curve, and a migration checklist.
LabVIEW costs roughly $500/year (Base) to $3,000-$5,000/year (Professional) per seat in 2026. The full breakdown: tiers, hidden costs, the free Community Edition, and cheaper alternatives.
LabVIEW vs Python for test automation and DAQ: cost, instrument control, maintainability, and when to use each. Plus an AI-native third option.

The best NI TestStand alternatives in 2026: OpenTAP, pytest, Robot Framework, and AI-native TestFlow. Plus what TestStand does, how it works with LabVIEW, and what it costs.

Doing data acquisition with Python? See how it works, where it gets expensive in time, and how TestFlow automates DAQ and instrument control without the scripting.

Hint: It's way more than Apple. Discover the 10+ semiconductor giants—from Broadcom to Kioxia—that actually build the iPhone 17's logic, memory, and RF systems.

Most people think chips are designed. They’re not. They’re manufactured through one of the most complex processes ever built. Discover the journey from sand to silicon.
The semiconductor world isn’t just about manufacturing. It is a deep, 7-layer stack of dependency—from EDA software to foundries and IP cores. Discover who builds the global digital backbone.
NVIDIA leads at $4.5T, but the list is full of surprises. Discover the top 10 American chip companies defining the AI era, from Broadcom's connectivity dominance to the critical role of equipment makers.
If you think semiconductors are just 'tech', think again. From NVIDIA's $4.4T dominance to Broadcom's rise, explore the top 10 giants defining the global economy in 2026.

Everyone talks about GPUs, but AI data centers are massive, tightly engineered systems where infrastructure decides performance. Power, cooling, and security are the real silent partners in the AI revolution.

NVIDIA just revealed its real strategy — and it's way bigger than AI chips. Most people think NVIDIA only wins by building GPUs. But the real story? They're quietly buying influence across the entire semiconductor stack.

2025 marked a turning point for semiconductor validation. As chips became more complex and AI workloads pushed hardware to its limits, TestFlow proved that AI-driven chip validation is the future. Here's our year in review.
Every semiconductor device starts with EDA tools, but the journey doesn't end at tape-out. Discover the critical EDA tools powering chip design and why post-silicon validation is becoming the final frontier for market success.
From smartphones to autonomous vehicles, much of today's technology runs on System-on-Chip designs. Discover what makes SoCs the ultimate all-in-one solution and why they're the backbone of modern connected devices.
It's not just about design—most chips are made by foundries. Discover the specialized factories that manufacture semiconductors for the world's biggest tech companies and how TSMC's 62% dominance shapes the entire industry.
Revenue tells the real story of semiconductor dominance. From Samsung's memory empire to NVIDIA's AI revolution, discover the 8 largest chip companies by revenue and the diverse strategies driving their success in 2025.
Ever wondered why every chip begins life on a perfectly round wafer? It's not tradition—it's precision engineering backed by physics, manufacturing efficiency, and decades of process optimization.
From sub-2nm technology to AI-driven solutions, discover the 7 transformative trends reshaping the semiconductor landscape. Explore how chiplets, advanced materials, and workforce challenges are defining the future of silicon.
From raw materials to final systems, the semiconductor industry is a global relay race where each layer is critical and each player irreplaceable. Discover the 8 essential layers that power our digital world.

From cars containing 3,000+ chips to Taiwan's 63% global production dominance, discover the surprising facts that reveal semiconductors' true impact on our world. These insights will change how you view the tech industry forever.
NVIDIA's $3.4 trillion valuation now exceeds most other chip companies combined. Explore how AI has reshaped semiconductor valuations and discover which companies dominate the trillion-dollar chip industry in 2025.

Explore cutting-edge hardware testing methodologies that are replacing traditional approaches. From automated test generation to AI-powered analysis, discover how leading companies are accelerating their validation cycles.
From IP cores to OSAT companies, discover the 8 essential types of companies that make up the complex semiconductor ecosystem. Understand how each player contributes to creating the chips powering our modern world.
From NVIDIA's 95% AI chip dominance to ASML's 100% EUV monopoly, discover how just four companies control the entire AI hardware ecosystem. Explore the critical supply chain dependencies shaping the future of artificial intelligence.

They're both called the 'brain' of electronic systems, but they serve very different roles. Understand the key differences between microprocessors and microcontrollers and when to use each in your design.
Behind advanced packaging conversations about 2.5D and 3D ICs, wire bonding remains the most widely used interconnect method. Discover how ultrathin wires create the electrical bridge between silicon dies and the external world.
Discover how yield impacts semiconductor manufacturing costs and profitability. Learn why TSMC leads in yield optimization and how companies like Samsung are catching up in advanced nodes.
Data center demand now drives 38% of the global semiconductor market, reshaping every layer of the industry. Explore how pressure points are shifting across the entire value chain.