Phosphor-coated CCD cameras have their place in gross beam alignment and applications where essential beam diagnostics are not required. However, due to the wide wavelength range of InGaAs cameras, the very high sensitivity of the array with very low noise, the real characteristics of the 1.5mμm beam can be detected, imaged, and measured with true accuracy. This white paper describes how the phosphor camera is the wrong solution for accurate beam diagnostic measurements and discusses how InGaAs cameras excel in this area.
This article discusses the importance measuring and profiling laser beams in medical laser applications.
When do you take on the design all on your own, and when do you outsource? This article presents the top mistake medical device engineers make when attempting to integrate lasers in the design.
Medical devices need to be precise in order to ensure the health of the patient. This article addresses considerations needed to make sure laser measurement sensors in medical devices are accurate, and will continue to remain as accurate as possible.
The BeamWatch® AM was designed to address the issues and parameters dictated by selective laser melting (SLM) machines. This application note discusses how to use the BeamWatch® AM non-contact beam measurement device for simplified SLM troubleshooting.
Lasers were initially designed to operate in one fundamental mode. Soon after, researchers devised ways of generating and using more complex, higher-order multimode formats. This application note offers an example tutorial on how to evaluate a multimodal laser beam with BeamGage PRO Partitioning.
Lasers in medical applications are able to deliver precisely controlled energy without physical contact. They can be used as a surgical tool, a production tool for medical device manufacturing, as well as in medical measurement applications.
The BeamWatch AM is Ophir-Spiricon’s beam monitoring system designed specifically for use in the additive manufacturing industry to provide non-interfering real-time beam measurement at the location of the working plane.
This article explains the importance of understanding and stating a dynamic range correctly. This paper also provides insight on how Ophir-Spiricon, a global leader in precision infrared optics and photonics instrumentation, determines its products’ dynamic range properly.
This article discusses the consequences of poor measurements in more detail, and presents a measurement solution that can help make applications like laser welding and cutting affordable and sustainable.
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