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Laser beam profiler based on 1 megapixel camera for laser diagnostics and preventive maintenance. Our company is the owner of Huaris registered brand, which labels the profilers used to characterize the quality of the laser beams. We are producer of laser beam profiler powered by artificial inteligence.
Laser beam profiler based on 5 megapixel camera for laser diagnostics and preventive maintenance. Our company is the owner of Huaris registered brand, which labels the profilers used to characterize the quality of the laser beams. We are producer of laser beam profiler powered by artificial inteligence.
Huaris On Mobi consists of two main components: the Huaris One laser beam profilometer and a 7″ tablet with the necessary software. At the time of delivery of the product to our customer, the entire set is fully prepared and configured for operation. Just connect the power supply and you can start measuring.
Huaris cloud system is the first in the world solution that uses machine learning to automate diagnostics of laser beams. We made the lasers finally manageable remotely. Huaris is the first implementation of preventive maintenance in the laser systems. It is patent-protected.
The HS2515-U portable laser power meter is a precise and dependable device used for measuring laser power within the range of 10mW to 15W. It can handle various wavelengths, power levels, and pulse energies. With its durable construction and accurate measurements, the HS2515-U laser power meter is an essential tool for laser technology professionals.
“We believe in high-tech and its social impact!”
CEO-Founder of Perspectiva Solutions
HUARIS system based on AI (artificial intelligence) for laser preventive maintenance. The system is a Category Finalist in the Innovation Award at Laser World of Photonics in Munich, 2022. Perspectiva Solutions has been acknowledged for Huaris system as 1 of 101 Most Innovative Machine Learning Startups & Companies in Poland.
According to Data Magazine from the UK has recognized our company as one of the most innovative entities in Poland in the machine learning field!
A laser beam profile refers to the two-dimensional intensity distribution of a laser beam as it propagates through space. It is a graphical representation of the spatial characteristics of the laser beam, which can be measured using a laser beam profiler. The beam profile can provide information about the shape, size, and power density of the laser beam, as well as its uniformity and symmetry. It is an important parameter to consider in various laser applications, such as laser material processing, medical procedures, and scientific research.
A laser beam profiler is a device that measures the spatial intensity distribution of a laser beam. It provides valuable information about the beam's size, shape, and power density, which are essential for optimizing laser performance and ensuring that it is suitable for its intended application. By analyzing the beam profile, users can make adjustments to the laser system, such as adjusting the optics, to achieve the desired beam quality and performance.
Laser profiling is the process of measuring and analyzing the spatial characteristics of a laser beam, such as its beam profile, intensity distribution, size, shape, and divergence. Laser profiling is essential for optimizing laser-based systems and applications, such as laser material processing, medical and scientific research, telecommunications, and more. It helps to ensure that the laser beam is focused, collimated, or diverged to the required specifications, and that its properties remain stable and consistent over time. Laser profiling can be performed using various techniques, such as scanning slit, knife-edge, beam profiling cameras, and more.
Laser beam quality is important because it affects the performance of a laser in various applications. A laser beam with high quality has a low divergence angle, which means that the beam can be focused to a smaller spot size, providing higher power density at the target. This makes it possible to process materials more precisely and efficiently, as well as to achieve longer ranges and higher resolution in laser sensing and imaging applications. In addition, a laser beam with high quality is less prone to distortion, which results in a more stable and consistent output power over time, improving the reliability and repeatability of laser-based processes. Therefore, understanding and controlling laser beam quality is crucial for achieving optimal performance in many laser applications.
The recommended time between laser sessions depends on the specific laser treatment and individual factors such as skin type and the area being treated. In general, laser treatments for hair removal are typically spaced 4 to 6 weeks apart, while laser treatments for skin rejuvenation may be spaced 2 to 6 weeks apart. However, it's important to consult with a qualified laser specialist or dermatologist who can provide personalized recommendations based on your unique needs and goals.
A laser beam is produced by a process called stimulated emission. This process occurs when atoms, molecules, plasma or free electrons called a gain medium are excited to a higher energy level, typically through the input of electrical energy or light. When one of these excited atoms or molecules spontaneously emits a photon, it triggers other excited atoms or molecules to emit photons in phase with the first photon. The result is a cascade of photons that are coherent and monochromatic, meaning they are all in phase with each other and have the same wavelength. These photons bounce back and forth between two mirrors, creating an amplification effect that produces a high-intensity laser beam that can be used for various applications.
A laser beam profiler is a device that measures the spatial distribution of a laser beam. It is used to analyze the characteristics of a laser beam such as its size (width), shape, divergence, and uniformity. This information is crucial for optimizing the performance of laser-based systems, such as laser cutting, welding, and drilling. Laser beam profilers typically use imaging sensors, such as cameras or CCD / CMOS arrays, to capture the laser beam profile, and software to analyze and display the data.
Laser beams were invented by a team of scientists led by Theodore H. Maiman at Hughes Research Laboratories in California in 1960.
The main difference between a laser in-line profiler and a laser beam profiler is the way they are used and the type of measurements they make.
A laser in-line profiler is typically used in industrial settings to measure the dimensions and shape of objects as they move along a production line. It uses a laser to create a line of light that is projected onto the object, and a camera captures the image of the line or a laser beam spot. The shape of the object can then be determined by analyzing the distortion of the projected line. This type of measurement is useful for ensuring the quality of manufactured parts and detecting defects.
On the other hand, a laser beam profiler is used to measure the characteristics of a laser beam itself, such as its shape, intensity, and focus. It may use a camera to capture an image of the laser beam intensity distribution, which is then analyzed to provide information about the beam's properties. This type of measurement is useful to evaluate the quality of the beam or the laser performance. For more information about the laser beam profiling check our article here (https://www.laser-beam-profile.com/laser-beam-profile-what-is-it/) and for more information about the evaluation of the laser beam quality check this article (https://www.laser-beam-profile.com/laser-beam-quality-evaluation/)
Laser beam profiles can be classified into several types, including:
Gaussian beam profile: a bell-shaped intensity profile, which is the most common type of laser beam profile.
Top-hat beam profile: a flat-top intensity profile, which is useful for applications where a uniform intensity is required over a certain area.
Super-Gaussian beam profile: a higher order Gaussian beam profile that has a flatter top and steeper edges.
Bessel beam profile: a non-diffracting beam profile that maintains its shape over long distances.
Doughnut beam profile: a beam profile that has a dark spot in the center and a bright ring around it.
Multi-mode beam profile: a beam profile that has multiple intensity peaks, which is common in lasers with large diameter gain media.
Elliptical beam profile: a beam profile that has a non-circular shape, which can occur due to misalignment or aberrations in the laser optics.
The choice of laser beam profile depends on the specific application requirements, such as beam quality, intensity distribution, and focusability.
Beam quality is a critical factor that impacts the cutting process in laser cutting machines. A perfect laser beam with high beam quality produces a tightly focused beam with a small spot size, high power density, and low divergence. This allows the laser to cut with precision, speed, and accuracy, resulting in clean and smooth cuts with minimal heat-affected zones (HAZ) and minimal material waste.
In contrast, low beam quality results in a larger spot size, low power density, and high divergence. This leads to slower cutting speeds, inaccurate cuts, and rough edges with a significant HAZ. In addition, low beam quality also requires higher laser power, resulting in increased operating costs and reduced machine lifespan.
Therefore, having high beam quality is essential for achieving optimal cutting performance, reducing operating costs, and improving overall machine efficiency.
Beam quality can have a significant impact on the welding process. A high-quality laser beam can result in a stable and consistent weld, with a narrow and well-defined weld bead. This is because a high-quality beam will have a small and uniform spot size, which allows for precise control over the heat input and reduces the amount of distortion or warping in the material being welded.
On the other hand, a low-quality beam can result in an inconsistent weld, with a wider and less defined weld bead. This is because a low-quality beam will have a larger and less uniform spot size, which can lead to uneven heating and poor penetration into the material. This can result in a weaker weld with a higher risk of defects such as cracking or porosity.
Therefore, ensuring a high beam quality is crucial for achieving a successful welding process with high-quality and reliable results.
Yes, laser beams are real. They are a physical phenomenon produced by a device called a laser, which emits coherent, collimated light. Laser beams have a wide range of practical applications in various fields, including medicine, manufacturing, communications, and entertainment.
Huaris Mobi is the first mobile laser beam profiler. It allows you to effectively perform diagnostic functions, and at the same time saves space in laser laboratories.
Huaris Mobi is a complete measuring instrument consisting of two components:
The Huaris laser beam profiler allows you to effectively perform diagnostic functions, while saving space in laser laboratories. The product is lightweight and ready to work out of the box. It avoids using a standard computer. All the necessary functions for laser diagnostics are included in the kit. In addition, a 7-inch tablet secures communication with the laser cloud.
Presentation of the Huris system by Perspectiva Solutions, the subject :
“Artificial intelligence in predictive maintenance of the laser systems”
The webinar presenters were the finalists of the Innovation Award of Laser World of Photonics event in Munich this year in the metrology category.
Perspectiva Solutions representatives had show how do we address the problem of long downtimes and automatic, remote monitoring of laser systems using artificial intelligence.
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