As an accreditation assessor, I can say that many common assessment deficiencies could have been prevented if the calibration certificate had been thoroughly reviewed.
This article is an adaptation of my popular presentation, “Beyond the Sticker & the Cert (Ensuring Better Measurements & Reducing Risk).” Product manufacturers, testing labs, and calibration labs often overlook the importance of thoroughly reviewing calibration certificates, leading to potential measurement inaccuracies and increased risks.
I kept waking up at 7:47 and also noticed the same time on the clock in the evenings. When I mentioned it to my niece, she said it happens to her too, at a different time of the day.
Cable tension must be maintained precisely across various industries, and cable tensiometers are crucial for this. However, calibration of these instruments often faces issues due to communication between calibration labs and end users, leading to doubts about equipment functionality.
3D laser scanning tools, like laser trackers in general, are helping radically improve the safety of an assortment of vehicles that take to the sky or space.
Today, Maintenance, Repair, and Overhaul (MRO) operations are a significant sub-industry within manufacturing, valued at $656 billion and projected to exceed $800 billion by 2032. MRO involves maintaining machinery, equipment, and systems in optimal condition through repairs and overhauls to extend their operational life.
At some point in the creation of any product, whether it be plastic moldings, consumer electronics, or even welds on nuclear power plant steel, it undergoes magnified and optical visual inspection.
In manufacturing, microscopes and magnified viewing systems are crucial for inspecting products. Digital microscopes offer enhanced capabilities and AI-assisted inspections, revolutionizing the way manufacturers view and interact with macro and microscopic details.
Backlit video metrology systems offer high-speed and precise inspection capabilities by analyzing digital part shadow images to determine feature position and size. Advancements in computing power and algorithms enhance precision, speed, and feature detection, while integration with part positioning systems allows for composite part images, rotating part profile examination, and rapid part sorting.
Today 3D optical profiling can provide an ever-growing range of measurements in medical devices, semiconductors, automotive production, aerospace, materials, machining, and more.
3D optical profiling, developed in the early 1990s, is crucial for high-resolution measurement of optics, semiconductors, medical devices, and precision machining. Recent developments have expanded its capabilities, allowing high-resolution surface texture measurements over many square millimeters in minutes.
Automation requires precise data and careful attention to uncertainty, especially in longer processes with less human involvement, according to Chris Gordon from Optronic Laboratories.
Making high-precision surface roughness, waviness, and profile measurements doesn’t always require that large system in the back corner of the manufacturing area.
To simplify the interface, touchscreen monitors were integrated with metrology software. This eliminated dedicated controllers and made the system much easier to use, leading to the revolution of touch metrology. Today, touch technology and controllers are widespread on the manufacturing floor.