| # | Organisation Name | Industries | Headquarter | Description | Founded Year | Company Type | Num of Employees |
|---|---|---|---|---|---|---|---|
1 | Medical Devices | Elk River, Minnesota | Cretex Medical provides medical device manufacturing and engineering services so our customers can reduce risk and save time. Our comprehensive suite of capabilities includes: metal and plastic machining, additive manufacturing, plastic injection molding, precision metal stamping, design and manufacturing of sterilization cases & trays, custom instrument manufacturing, laser processing, laser micro-machining and assembly, finished device assembly, sterile packaging and sterilization coordination services. | - | Privately Held | 914 | |
2 | Machinery | Reutlingen | Founded in 1987, Manz AG is a global high-tech equipment manufacturing company. Its business activities focus on the Solar, Electronics, Energy Storage, Contract Manufacturing, and Service segments.
With many years of expertise in automation, laser processing, vision and metrology, wet chemistry, and roll-to-roll processes, the company offers manufacturers and their suppliers innovative production solutions in the areas of photovoltaics, electronics and lithium-ion battery technology. The company's product portfolio includes both customer-specific developments and standardized machines and modules that can be linked together to form individual system solutions. Manz AG is involved in customer projects from a very early stage, and is thus contributing significantly to the success of its customers with high quality, needs-oriented solutions.
In addition to the CIGSfab turnkey production line in the Solar segment, the company focuses specifically on the automotive industry in the Electronics and Energy Storage segments. With its efficient and competitive lithium-ion battery manufacturing equipment – from cell to the finished pack – and automated assembly lines for cell contacting systems, Manz is an important industry partner for the conversion from the classic to the electric powertrain.
The company, listed on the stock exchange in Germany since 2006, currently develops and manufactures in Germany, Slovakia, Hungary, Italy, China and Taiwan. It also has sales and service branches in the USA and India. Worldwide, Manz AG currently employs around 1,700 people, about half of them in Asia. This region is critical for the company's target industries. Manz Group revenue in the 2017 financial year totaled around 325 million euros.
Follow us on Facebook, Twitter or YouTube:
https://www.facebook.com/manzag.engineering
https://twitter.com/Manz_AG
https://www.youtube.com/user/ManzGroup
Imprint:
http://www.manz.com/legal-information/ | 1987 | Public Company | 571 | |
3 | - | Pittsburgh, Pennsylvania | Aerotech designs and manufactures best-in-class motion control and precision positioning systems for industry, government, science, and research institutions. Aerotech's precision motion control products provide the critical performance for today's demanding applications in markets such as medical device and life sciences, semiconductor and flat panel, photonics, automotive, data storage, laser processing, military/aerospace, electronics manufacturing, test, assembly, research and development, and other markets requiring high precision, high throughput motion solutions.
Aerotech’s philosophy of building superior motion control systems starts with designing and manufacturing technically superior components. An Aerotech system begins with Aerotech motion components that are already best in class and specifically designed and optimized for the highest performance and lowest cost of ownership available.
All design and manufacturing is located in Pittsburgh, Pennsylvania, USA, with sales, service and support on a worldwide basis through direct subsidiaries in the U.K., Germany, Singapore, Taiwan and China. | 1970 | Privately Held | 540 | |
4 | - | 无锡, 江苏省 | Wuxi Lead Intelligent Equipment Co.,Ltd, established in 2002, is a leading
manufacturer of new energy equipment. Our business covers eight fields,
such as lithium-ion battery production, photovoltaic equipment, 3C,
logistic systems, automotive, fuel cell production, laser processing and
machine vision. Currently, LEAD has a global production and R&D base of
570,000+ square meters and employs more than 15,000 people, including
5,000 R&D engineers.
In 2015, LEAD was successfully listed on the Shenzhen GEM under the
stock code 300450. With an average stock value greater than 18.76 billion
USD, LEAD now has become the No.1 listed LIB equipment manufacturer.
LEAD´s mission is to solve the technological and economic challenges
the customers are facing today and is committed to provide one-stop
turnkey solutions to improve manufacturing efficiency and customer
experience. LEAD offers a full bespoke engineering services including
consulting, design, manufacturing, installation, commissioning, training
und further product development.
先导，成立于2002年，目前已成长为全球领先的新能源装备提供商，业务涵盖锂电池智能装备、光伏智能装备、3C智能装备、智能物流系统、汽车智能产线、燃料电池智能装备、以及激光精密加工、机器视觉等八大领域。公司建设有47万平方米的生产制造基地和研发中心，目前拥有员工15000余人，其中研发工程师4500余人。先导致力于为客户提供从咨询、设计、制造、安装、调试、培训及后续升级的一站式整体解决方案，持续提升客户体验。 | 1999 | Public Company | 172 | |
5 | Industrial Automation | Yokneam Illit, Israel - Global | ACS Motion Control delivers high performance motion controller and drive solutions to OEM machine builders serving semiconductor, laser processing, life science, FPD, 3D printing and electronic applications. ACS solutions increase positioning accuracy and throughput while reducing design time with best-in-class software development tools and servo control algorithms.
Founded in 1985 and headquartered in Israel, with sales and support offices in the USA, Germany and China, ACS joined the PI Group in January 2017 when Physik Instrumente GmbH became majority shareholder.
ACS Customer Promise
We are always ready to rise to the challenge to deliver smart, best-performing motion control solutions for the most demanding applications, developed and supported in partnership with you and in-line with your needs. | 1985 | Privately Held | 144 | |
6 | Machinery | Bellach | We are a global manufacturer of high-tech machines for grinding and laser processing as well as standard parts, in particular elements for guiding, centering and quick-change applications. Our solutions are used in a variety of industries, in particular toolmaking, in the automotive, precision engineering, medical and electrical engineering and communication technology sectors.
We are headquartered in Bellach, Switzerland, and employ around 250 people worldwide, including around 230 in Bellach. With our own sales and service offices in North America, China and India, and a dense network of distributors, we are always close to our customers. | 1918 | Privately Held | 106 | |
7 | Automotive | Windsor, ON | The Electromac Group, founded in 1955, is a company with a long standing reputation as an industry leading full-service metal tooling and hot & cold stamping / assembly supplier to North America. Providing turnkey solutions incorporating cutting-edge technologies for the next generation… today!
The Electromac Group's expertise begins with our advanced product design department specializing in Design For Manufacturing (DFM); supporting our tooling and production divisions. Our broad range of metal forming experience encompasses hot stamping, cold stampings, welded assemblies, fabrication/machining, and laser processing. Our group has earned an unyielding reputation for delivering on time, on budget - every time. | 1955 | Privately Held | 92 | |
8 | Industrial Automation | Miamisburg, Ohio | Invotec was started by two engineers with a common goal: solving manufacturing challenges with innovative solutions. Today, Invotec has over 90 employees dedicated to that mission.
We design and build complex assembly, test, and inspection equipment for medical device manufacturers. We specialize in applications with small-to-medium-sized components and complicated assembly processes—providing productive, reliable solutions. We offer a range of fully-automated and semi-automated systems and use a flexible approach that allows customers to refine their product design while we engineer the equipment.
Our core competencies include: controls engineering, error proofing, machine vision systems, mechanical assembly systems, micro laser processing, precision joining, process development, and test systems. As part of the HAHN Group, we are also able to leverage a network of best practices and global support.
Visit www.invotec.com to learn more. | 1993 | Privately Held | 88 | |
9 | Engineering | Stockport, Cheshire | Laser Quantum is part of Novanta, a trusted technology partner to medical and advanced industrial OEMs (original equipment manufacturers), with deep proprietary expertise in photonics, vision and precision motion technologies.
We engineer mission-critical core components and subsystems that deliver extreme precision and performance, enabling our customers to improve productivity, achieve breakthrough performance and enhance people’s lives.
The Photonics group within Novanta delivers innovative, laser-based solutions for a range of applications, consisting of:
Laser Quantum develops revolutionary continuous wave and ultrafast lasers that deliver high performance, reliability and operational lifetimes from biomedical to advanced industrial applications. We follow an application-led design to resolve OEM customer challenges and to help scientists break new ground.
ARGES develops and manufactures innovative laser scan systems for positioning and deflecting laser beams in industrial materials processing and medical applications. Our range of services includes a versatile product range of scan heads and scan modules, tailored customer- and application-specific solutions, and the implementation of complete laser subsystems for integration into laser processing facilities.
Cambridge Technology is Novanta's laser beam steering solutions. From advanced industrial to complex medical applications, we deliver products that are tailored to our OEM customers’ unique challenges, helping them achieve breakthrough performance.
Synrad develops, manufactures and services high performance CO2 lasers from 5 Watts to 1 kW pulse for industrial applications. At our worldwide application labs, our experts help customers determine the optimal system and provide unique processing insights tailored to their specific application and material. | 1994 | Public Company | 87 | |
10 | Industrial Automation | Gdynia, pomorskie | The mission of RMA sp. z o.o. is to achieve innovative and dynamic development in the field of welding automation and laser processing of materials. The development activities should result in the sustainable growth of value for customers, while at the same time building the competencies of our employees.
RMA sp. z o.o. strives to gain a dominant position on the Polish market of modern welding techniques and laser processing. As part of its vision, the company wants to constantly increase awareness of its brand and participation in foreign markets by offering high quality solutions that meet the expectations of the most demanding customers. | 2008 | Privately Held | 75 |
Laser Processing
Summary
- 114 Companies
- 556 Patents
- 224 Use Cases
- 5 Case Studies
- 1 229 Science Papers
- $4 559 258 Total Funding
Companies
Patents
| # | Number | Title | Abstract | Date | Kind | Assignee | Inventor |
|---|---|---|---|---|---|---|---|
1 | 11 045 908 | Piercing workpieces by a laser beam and an associated laser processing machine | This disclosure relates to methods and apparatuses for piercing workpieces at a piercing point using a laser beam, which exits from a laser processing nozzle with a process gas, whereby a bulge is formed on the workpiece surface around the piercing point during the piercing. A distance between the laser processing nozzle and the bulge is determined during the piercing and at least one piercing parameter is changed in dependence on the distance determined. | Mon, 28 Jun 2021 | B2 | TRUMPF Werkzeugmaschinen GmbH + Co. KG | Martin Spiess, Dieter Hallasch, Markus Blaschka, Daniel Knorreck |
2 | 11 022 747 | Laser processing apparatus and method | The invention concerns an apparatus and its use for laser processing. The invention also concerns a method and an optical component. According to the invention, at a first laser device, providing a first optical feed fiber and a second laser device providing a second optical feed fiber is provided. A beam combining means connected to the first and second feed fibers and to a multi-core optical fiber is adapted to form a composite laser beam by having the first optical feed fiber aligned with a first core of the multi-core optical fiber and the second optical feed fiber aligned with at least one second core of the multi-core optical fiber. The first and second cores outputs a composite laser beam to a workpiece to be processed. A control unit controls power density of at least one of first and second laser beams of the composite laser beam in at least one of: in response to approaching a change point in direction of cutting progression and to cause change in relation between the power density of the first output laser beam and power density of the second output laser beam in accordance with thickness of the workpiece being cut. | Mon, 31 May 2021 | B2 | Corelase Oy | Jarno Kangastupa |
3 | 11 014 198 | Laser processing system, jet adjustment device, and laser processing method | A laser processing system that can effectively blow out a material of a workpiece melted by a laser beam by effectively utilizing an assist gas emitted from a nozzle. The laser processing system comprises a nozzle including an emission opening configured to emit a jet of an assist gas along an optical axis of a laser beam, the nozzle being configured to form a maximum point of velocity of the jet at a position away from the emission opening; and a tubular enclosure disposed between the nozzle and a workpiece and enclosing the jet, wherein the enclosure has a changeable radial inner dimension, and is configured to adjust the position of the maximum point by changing the inner dimension. | Mon, 24 May 2021 | B2 | Fanuc Corporation | Takashi Izumi |
4 | 11 008 250 | Laser processing | A laser processing method comprises generating a laser beam comprising laser pulses having a duration less than 1000 ps, focussing the laser beam to form a focal region inside a transparent material and varying the position of at least one of the focal region and the transparent material so as to provide a pulse-to-pulse overlap of between 45% and 99%, thereby to form a smooth material modification inside the transparent material. | Mon, 17 May 2021 | B2 | NKT PHOTONICS A/S | Timothy Gerke |
5 | 11 007 605 | Laser processing apparatus | A liquid supply mechanism disposed over a holding unit of laser processing apparatus includes a liquid chamber having a circular-disc-shaped transparent plate positioned to form a gap between the circular-disc-shaped transparent plate and an upper surface of the workpiece held by the holding table, a liquid supply nozzle that supplies a liquid from one side of the liquid chamber to the gap, a liquid discharge nozzle that discharges the liquid from the other side of the liquid chamber, and a rotation mechanism that rotates the circular-disc-shaped transparent plate and generates a flow velocity in the liquid supplied to the gap. The laser beam irradiation unit includes a laser oscillator that emits a laser beam and a condenser that condenses the laser beam emitted from the laser oscillator and irradiates the workpiece with the laser beam transmitted through the transparent plate and the liquid supplied to the gap. | Mon, 17 May 2021 | B2 | DISCO CORPORATION | Yuji Hadano, Masatoshi Nayuki, Keiji Nomaru |
6 | 11 007 607 | Laser processing device and laser processing method | A laser processing device includes a laser light source, a converging optical system, a controller, and a reflective spatial light modulator. The controller and the reflective spatial light modulator, while using an aberration as a reference aberration, the aberration occurring when laser light is converged at a converging position with an amount of aberration correction in a state in which an ideal converging position is shifted by a predetermined distance to a laser light entrance side from the converging position, adjusts the aberration such that a first converging length longer than a reference converging length of the reference aberration is obtained and a first converging intensity less than a reference converging intensity of the reference aberration is obtained, when a modified region is formed within a first region closest to a front face of an object to be processed. | Mon, 17 May 2021 | B2 | HAMAMATSU PHOTONICS K.K. | Takeshi Sakamoto, Takafumi Ogiwara |
7 | 11 000 919 | Laser processing apparatus | A laser processing apparatus includes: a scanner configured to adjust a path of at least one of a first laser beam and a second laser beam; and a lens unit configured to condense the first laser beam and the second laser beam received from the scanner. The scanner may include a first reflection member for providing the first laser beam to the lens unit and a second reflection member for providing the second laser beam to the first reflection member. | Mon, 10 May 2021 | B2 | Samsung Display Co., Ltd. | Il Young Jeong, Gyoo Wan Han |
8 | 10 994 374 | Laser processing machine and laser processing method | The laser processing machine includes a beam oscillation mechanism that oscillates a beam spot on a surface of a sheet metal. The control device controls the beam oscillation mechanism so as to oscillate the beam spot with an oscillation component in a direction orthogonal to a cutting direction of the sheet metal in a non-holding region, in which a holding portion of the conveyance apparatus for conveying a product is not held, when cutting the product from the sheet metal by irradiating the sheet metal with the laser beam. The non-holding region is at least a part of a periphery of a protrusion portion of the product, or at least a part of a periphery of a recess forming region in which a recess of the product is formed. | Mon, 3 May 2021 | B2 | AMADA HOLDINGS CO., LTD. | Kouji Funaki, Takaaki Yamanashi, Dennis Pohle |
9 | 10 987 756 | Laser processing system | A laser processing system includes a laser oscillator, a laser beam emitting tool connected to the laser oscillator and supported by a first robot, the laser beam emitting tool emitting a laser beam supplied by the laser oscillator, and a laser processing tool which is supported by a second robot and which receives the laser beam emitted by the laser beam emitting tool and emits the laser beam toward a predetermined processing position. | Mon, 26 Apr 2021 | B2 | FANUC CORPORATION | Yoshitake Furuya |
10 | 10 985 060 | Laser processing method using plasma light detection for forming a pore in a substrate | A laser processing method for applying a laser beam to the reverse side of a substrate with a device formed on a face side thereof and including an electrode pad, to form a pore in the substrate that leads to the electrode pad, includes an irradiation area setting step of detecting the size of the electrode pad and setting an irradiation area for the laser beam such that the pore to be formed is positioned within the electrode pad. After the irradiation area setting step has been performed, the laser beam is applied to the reverse side of the substrate to form a pore in the substrate at a position corresponding to the electrode pad. First plasma light emitted from the substrate and second plasma light emitted from the electrode pad are detected. When the second plasma light is detected, the beam is stopped from being applied to the substrate. | Mon, 19 Apr 2021 | B2 | DISCO CORPORATION | Hiroshi Morikazu |
Patents by Year
Inventors
Assignees
Assignees
Science
Data limited by 2021
Top 10 cited papers
| # | Paper Title | Paper Abstract | Authors | Fields of Study | Year | Citation Count |
|---|---|---|---|---|---|---|
1 | Laser Processing of Engineering Materials: Principles, Procedure and Industrial Application | Introduction Evolution of Laser Material Processing Lasers Systems for Material Processing Engineering Materials Laser Processing Diagrams Athermal Processing Structural Change Surface Hardening Deformation and Fracture Surface Melting Cladding Conduction Joining Cutting Marking Keyhole Welding Thermal Machining Opportunities Glossary Appendices | Materials Science | 2005 | 390 | |
2 | Variable holographic femtosecond laser processing by use of a spatial light modulator | We propose a holographic femtosecond laser processing system capable of parallel, arbitrary, and variable patterning. These features are achieved by introducing a spatial light modulator displaying a hologram into the femtosecond laser processing system. We demonstrate the variable parallel processing of a glass sample. | Physics | 2005 | 213 | |
3 | Excimer laser processing of indium‐tin‐oxide films: An optical investigation | dc sputtered indium‐tin‐oxide films have been excimer laser irradiated at subablation threshold fluences (<510 mJ/cm2). Optical characterization of irradiated products has been performed aiming at resolving the finer structure appearing in the IR–visible absorption spectra, as a function of laser fluence, and assigning such features to specific electronic defects which are produced upon irradiation. Four individual Gaussian‐like contributions to absorption spectra are identified at 0.7, 1.0, 1.6, and 2.6 eV, the intensity of which is observed to vary with fluence. Being absent in the original films and emerging in optical spectra at fluences exceeding 300 mJ/cm2, the 2.6 eV contribution is most characteristic to excimer laser processing and is responsible for the darkening of the film. Thermal model calculations reveal that such defects are produced only upon melting and fast resolidification of the film. The evolution of the chemistry actually taking place in the film upon irradiation is followed by x‐ra... | 1995 | 184 | ||
4 | Thermophysical effects in laser processing of materials with picosecond and femtosecond pulses | Application of picosecond and femtosecond laser pulses to the controlled ablation of materials represents a relatively unexplored yet important topic in laser processing. Such ultrashort pulses are of potential value in areas of thin‐film deposition, micromachining, and surgical procedures. We report here some early results of systematic studies being done from the femtosecond to the nanosecond regime, as an assessment of the problems and benefits associated with various laser pulse durations and their use in processing optically absorbing media. Experimental data and theoretical results of computer simulations are presented and compared for the threshold energies of ablation in gold as a function of pulse width from 10 ns to 100 fs. This work is then extended to include further numerically computed results for gold and silicon on ablation rates, threshold surface temperatures, liquid thicknesses, and vaporization rates as a function of pulse duration throughout the ultrafast regime from tens of femtoseco... | Physics | 1995 | 183 | |
5 | Femtosecond laser processing for optofluidic fabrication. | Femtosecond laser direct writing is a promising technique for fabricating optofluidic devices since it can modify the interior of glass in a spatially selective manner through multiphoton absorption. The chemical properties of laser-irradiated regions in glass are modified allowing them to be selectively etched by subsequent wet etching using aqueous solutions of etchants such as hydrofluoric (HF) acid. This technique can be used to directly form three-dimensional microfluidic systems. The two-step process can also be used to fabricate free-space optical components such as micromirrors and microlenses inside glass. In addition, femtosecond laser direct writing can alter the optical properties of a substrate to create a wide range of micro-optical components inside glass, including optical waveguides, Mach-Zehnder interferometers, and optical attenuators. The unique ability of femtosecond laser direct writing to simultaneously alter the chemical and optical properties of glass opens up a new avenue for fabricating a variety of optofluidic microchips for biological analysis. Optofluidic microchips fabricated using femtosecond lasers have been used to determine the functions of living microorganisms, determine the concentrations of liquid samples, detect and manipulate single cells, and rapidly screen algae populations. This paper presents a comprehensive review of optofluidic devices for biological analysis fabricated by femtosecond laser processing. | Physics, Materials Science, Medicine | 2012 | 142 | |
6 | Recent advances in laser processing of materials | Introduction (J. Perriere, E. Millon and E. Fogarassy) Chapter 1. Laser Ablation-Based Synthesis of Nanomaterials (A.V. Kabashin and M. Meunier) Chapter 2. Metal-Dielectric Nanocomposites Produced by Pulsed-Laser Deposition: A Route for New Functional Materials (C.N. Afonso, J. Gonzalo, R. Serna and J. Solis) Chapter 3. Carbon-Based Materials by Pulsed Laser Deposition: From Thin Films to Nanostructures (T. Szorenyi) Chapter 4. Fabrication of Micro-Optics in Polymers and in UV Transparent Materials (G. Kopitkovas, L. Urech, M. Hauer and T. Lippert) Chapter 5. UV Laser Ablation of Polymers and the Role of Liquid Formation and Expulsion (S. Lazare and V. Tokarev) Chapter 6. Nanoscale Laser Processing and Micromachining of Biomaterials and Biological Components (D. Chrisey, S. Qadi, R. Modi, DM. Bubb, A. Doraiswamy, T. Patz and R. Narayan) Chapter 7. Direct Transfer and Microprinting of Functional Materials by Laser Induced Forward Transfer Process (KD. Kyrkis, AA. Andreadaki, D.G. Papazoglou and I. Zergioti) Chapter 8. Recent Progress in Direct Write 2D and 3D Photofabrication Technique with Femtosecond Laser Pulses (J. Koch, T. Bauer, C. Reinhardt and B.N. Chichkov) Chapter 9. Self-Organized Surface Nano-Structuring by Femtosecond Laser Processing (J. Reif, F. Costache and M. Bestehorn) Chapter 10. Three-Dimensional Micromachining with Femtosecond Laser Pulses (W. Watanabe and K. Itoh) Chapter 11. Laser Crystallisation of Si Thin Films for Flat Panel Display Applications (AT. Voutsas) Chapter 12. Laser Doping of Semiconductors: Application to Silicon and Silicon Carbide (E. Fogarassy and J. Venturini) Chapter 13. Laser Cleaning: State of the Art (Ph. Delaporte and R. Oltra) | Materials Science | 2006 | 122 | |
7 | Holographic femtosecond laser processing with multiplexed phase Fresnel lenses | Holographic femtosecond laser processing with multiplexed phase Fresnel lenses for high-speed parallel fabrication of microstructures is proposed. Use of a spatial light modulator (SLM) allows independent tunability of the diffraction peaks, three-dimensional parallelism, and arbitrary, variable features. The diffraction peaks are made uniform by changing the center phase and size of each phase Fresnel lens while taking account of the intensity distribution of the irradiated laser pulse and the spatial frequency response of the SLM. | Physics, Materials Science | 2006 | 114 | |
8 | Laser processing for reducing core loss of grain oriented silicon steel | A nonconstact technique for reducing the core loss of a grain oriented silicon steel has been developed by the use of Q‐switched laser irradiation. Vaporization of the surface layer of the silicon steel by the laser irradiation induced a stress which resulted in a refinement of 180° domain wall spacing. This phenomenon reduced the core loss of the steel. It was found that the laser irradiation was more effective in a specimen with a higher magnetic induction and the core loss reduced by more than 10% under the optimum condition of the laser irradiation. Since the laser processing is a noncontact technique, it is easily applicable to the production line of the silicon steel. | Physics, Materials Science | 1982 | 100 | |
9 | Laser Processing in Industrial Solar Module Manufacturing | The use of lasers in the processing of solar cell structures has been known for many years both for c-Si and thin-film solar technologies. The maturity of the laser technology, the increase in scale of solar module production and the pressures to drive down cost of ownership and increase cell efficiencies have all contributed to the adoption of laser processes in industrial manufacturing. Today laser systems are the tool of choice in thin-film module manufacturing both for scribing the cell interconnects and for the module edge isolation. For c-Si solar cells the primary laser application today is edge isolation and this is well-established in industrial production of most types of waferbased cells. Other laser processes are used in the production of advanced high-efficiency c-Si cell designs such as laser grooved buried contacts, emitter wrap-through or metal wrap-through interconnects, selective emitters and laser fired contacts. In the mission of the solar industry to reduce the cost of electricity generation there are increasing opportunities for laser processing to contribute to the goal of low cost of ownership in industrial manufacturing through improved module efficiencies, higher throughput and reduced process costs. | Physics, Materials Science | 2010 | 97 | |
10 | Influence of the beam spot size on ablation rates in pulsed‐laser processing | Ablation rates in pulsed‐laser processing depend heavily on the laser beam spot size. This has been observed for the first time for a number of different materials. Detailed investigations on this effect, performed by means of XeCl excimer‐laser radiation and the example of LiNbO3, are reported in this letter. With this material, the ablation rate at constant fluence saturates at laser beam spot sizes of 2w≳80 μm and increases by about a factor of 3 when 2w is decreased to 24 μm. The effect is interpreted as being due to changes in the material transport which depend on the size of the region being processed. | Physics, Materials Science | 1987 | 92 |
Top 10 cited authors
| # | Author | Papers count | Citation Count |
|---|---|---|---|
1 | 8 | 2 867 | |
2 | 24 | 1 836 | |
3 | 16 | 1 482 | |
4 | 55 | 1 280 | |
5 | 15 | 1 009 | |
6 | 40 | 1 005 | |
7 | 7 | 694 | |
8 | 5 | 673 | |
9 | 20 | 659 | |
10 | 2 | 643 |
Science papers by Year
Clinical Trials
- Researches Count 0
- Ongoing Studies 0
- Total Enrollment
Use Cases
| # | Topic | Paper Title | Year | Fields of study | Citations | Use Case | Authors |
|---|---|---|---|---|---|---|---|
1 | Laser Processing | Biomimetic hierarchical surface micro- and nano-texturing of metals by femtosecond laser processing for the control of cell behavior | 2022 | 0 | the control of cell behavior | ||
2 | Laser Processing | Fabrication and Control of Semiconductor Random Lasers Using Laser Processing Techniques | 2022 | 0 | fabrication and control of semiconductor random lasers | ||
3 | Laser Processing | Femtosecond laser processing for a high sensitivity fiber MZI microcavity. | 2022 | Physics, Medicine | 0 | a high sensitivity fiber mzi microcavity. | |
4 | Laser Processing | Influence of Laser Beam Power on Microstructure and Microhardness of Fe/ZrC Coatings Produced on Steel Using Laser Processing—Preliminary Study on the Single Laser Tracks | 2022 | Materials Science, Medicine | 1 | influence of laser beam power on microstructure and microhardness of fe/zrc coatings produced on steel | |
5 | Laser Processing | Influence of Manufacturging Parameters on Microstructure, Chemical Composition, Microhardness, Corrosion and Wear Resistance of ZrC Coatings Produced on Monel®400 Using Laser Processing Technology | 2022 | 0 | influence of manufacturging parameters on microstructure, chemical composition, microhardness, corrosion and wear resistance of zrc coatings produced on monel®400 | ||
6 | Laser Processing | Optimization of titanium and titanium alloy surface properties by ultra-short laser processing for improved antibacterial characteristics | 2022 | Physics, Materials Science | 0 | improved antibacterial characteristics | |
7 | Laser Processing | Photopolymerization of conductive polymer via digital femtosecond laser processing for integratable photodetectors | 2022 | 0 | integratable photodetectors | ||
8 | Laser Processing | Preface to the Special Issue on “Smart Laser Processing for our Sustainable Society” | 2022 | 0 | our sustainable society” | ||
9 | Laser Processing | Research on simulation of nanosecond pulsed laser processing for TC4 titanium alloy: A novel model simplification and correction method | 2022 | 0 | tc4 titanium alloy: a novel model simplification and correction method | ||
10 | Laser Processing | 3D glass nanofluidics fabricated by femtosecond laser processing for study on cancer cell metastasis | 2021 | Materials Science, Chemistry | 0 | study on cancer cell metastasis |
Case Studies
| # | Title | Description | Year | Source Ranking | |
|---|---|---|---|---|---|
1 | A Case Study — Laser Processing — From Development to ... | by TP Long · 1976 · Cited by 5 — (1976). A Case Study — Laser Processing — From Development to Application. Research Management: Vol. 19, No. 1, pp. 15-17. | no | 1976 | |
2 | A Case Study — Laser Processing — From Development to ... | What Is Semantic Scholar? Semantic Scholar is a free, AI-powered research tool for scientific literature, based at the Allen Institute for AI. | no | ||
3 | Case Study 1: Processing of Airborne Laser Altimetry Data ... | We also use cookies for this purpose ("Analysis Cookies"). For example, we will process which content you looked at or how you have interacted with our website. | no | ||
4 | Laser processing case study and Residual stress - StudyLib | ... of cross sectional area A stressed elastically in tension by force F Stress σ = F/A in y direction but none in x or z direction The stress σy produces a ... | no | ||
5 | Scanner-based wire fed laser cladding process: a case study | The wire feeding option – instead of powder feeding – is also increasing in the industry because of storage ease, increased health security and reduced ... | no |
Experts
| # | Name | Description | Followers | Following | Location |
|---|---|---|---|---|---|
1 | Laser Lines | Supplier of 3D Printers, Additive Manufacturing systems, industrial laser processing equipment, photonics products. https://t.co/vU8h83XYCr. | 1 897 | 947 | Banbury, UK |
2 | Micrometric | Component manufacturer and laser processing specialist producing high-quality components for several industries across the UK, Europe and America. | 350 | 224 | Lincoln, Lincolnshire |
3 | Wan Shou | Assistant Professor @UArkansas. Postdoc @MIT. PhD @MST. Advanced manufacturing, laser processing, micro/nano-devices, wearables, and functional textiles + AI | 161 | 240 | - |
Youtube Channels
| # | Name | Description | Reg Date | Views | Country |
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1 | HGTECH possesses HGLASER and FARLEYLASERLAB brands. HGLASER has always been committed to providing broad and comprehensive laser manufacturing solutions in industrial manufacturing field, researching, manufacturing and selling various laser processing and plasma machining equipments, providing tube laser cutting processing and oil pipeline trade services. The main products of HGLASER cover the full power series of laser cutting systems, laser welding systems, laser marking series, laser texturing equipments, laser heat treatment systems, laser drilling machines, laser devices, all kinds of support devices, laser processing and plasma machining equipments, which are used widely in metallurgy, non-ferrous metals, automobiles, parts, aviation, military, precision instruments, machine manufacturing, hardware, integrated circuits, semiconductor manufacturing, solar, education, communication and measurement, packaging, leathers, plastics, rubbers, jewelries, crafts, medical equipments, etc. | Mon, 29 Aug 2016 | 3 449 084 | ||
2 | Wuhan Sunic Photoelectricity Equipment Manufacture CO., LTD, located at Eastern Lake high-tech district(Optics Valley), is a high technology innovation enterprise recognized by the Chinese government. It is authorized by the government to be in charge of the "863 Project" with privilege in importing and exporting. The company is dedicated to the R&D, production, selling and service in Laser processing equipment and solar energy equipment sets.It provides the customers with complete practical solutions in this field. Today, Sunic is China's leading professional photoelectricity equipment manufacturer in Laser processing equipment and Solar equipment with the most complete product line, widest application. Laser Homepage: www.arguslaser.net Solar Homepage: www.argussolar.net | Tue, 29 Mar 2016 | 222 793 | China | |
3 | RMA is an engineering team specializing in the design, choice, assembly, and delivery of comprehensive solutions in the field of welding automation and laser processes. Our offer includes mainly production nests based on laser technology in the processes of welding, cutting, cleaning, and structuring. A complimentary area of our activity is 3D laser welding and cutting services, as well as technical audits, modernization, and inspections of stations and machines. RMA’s mission is innovative and dynamic development in the field of welding automation and laser material processing The result of RMA’s development activities should be a permanent, sustainable increase in the value generated for our clients, while constantly building the substantive potential of our employees. | Tue, 18 Apr 2017 | 97 872 | Poland | |
4 | Tec Systems is an automation and laser systems supplier building standard and customised systems for clients in the automotive, aerospace, electronics, plastics, food, pharmaceutical and medical industries. This channel will showcase typical examples and case studies outlining what Tec Systems can do - enquiries are welcome for all aspects of laser processing or general purpose automation and robotics. | Tue, 2 Dec 2014 | 67 352 | United Kingdom | |
5 | The channel showcases videos from China Foshan Baisheng Laser Company .Most of videos are about laser cutting machine ,laser cutting sheet metals ,laser cutting tubes ,Laser Welding,Company, Real user jobshops, real laser processing parts. We are in earnest to hope these videos can help our customers to know much about our high quality laser machines, laser trend and our company and our team of service engineers,sales persons. videos are interesting both to customers and any viewers. Baisheng laser since 2004 ,factory is located in Foshan city in south of China 117000 sqm,500 crew .Guangzhou office is near Guangzhou Baiyun airport. It is a well-known world brand .There are thousands installations around the world. Baisheng is able to manufacture full series of laser machine 1kw to 15kw for metal sheet and tubes ,worksize from 600*600mm,3000*1500mm to 12000*2500mm.single table or shuttle table ,open type or enclosed .handheld or stations , Robotic Laser welding ,laser cleaning . | Tue, 24 Jul 2018 | 39 738 | China | |
6 | GEM LASER LIMITED was established in 1996, is a high-tech and software enterprises. With 17 years production experience, GEM focus on the laser processing equipment research and development, manufacturing and sales, the main products are laser cutting machine and industrial marking machines and laser welding machines,which means "Standard". | Tue, 19 Sep 2017 | 28 096 | China | |
7 | Welcome to the website of SITEC - Laboratory for Laser Applications of Politecnico di Milano. The laboratory was established in 2000, as an initiative of Faculty of Engineering of Lecco, with the support of Manufacturing and Industrial Production Division of Mechanical Engineering Department of Politecnico di Milano. SITEC is also one of the university laboratories which belong to Promozione L@aser group of AITeM (Italian Association of Manufacturing Technologies) that is dedicated to the promotion of manufacturing with high power lasers. The SITEC has three core responsibilities, which correspond moreover to the final users. The first is the didactic activities, which comes from the institutional character. The second regards to scientific research for the development of new laser applications. The third regards to industrial services with the development of new industrial laser processes. | Wed, 3 Sep 2014 | 20 318 | ||
8 | The Scandinavian choice of industrial laser automation. Our business is based on three areas; automation, laser and automation+laser. We deliver both equipment for laser processing as well as other peripheral equipment and automation, ranging from standard handling solutions to complex robot stations. We offer full service and are covering anything from finding the optimal solution for every unique project to mechanical design, installation and service. Gain possibilities with our solutions. | Thu, 9 Feb 2012 | 18 465 | ||
9 | Henan Sky Phoenix Industry Co.,Ltd is established in 2012.we are a laser processing equipment manufacturer which specialized in manufacturing,developing,marketing and offering after-service of laser machine, providing laser machine, service and customized solutions around the world, Our company develops multiple series of CO2 laser engraving and cutting machine, fiber laser marking machine.providing customers a complete set of perfect solutions of laser processing equipment. | Mon, 8 Jun 2020 | 15 028 | Hong Kong | |
10 | MimoWork develops and designs laser systems for non-metal material processing in the industry. We are committed to providing the most suitable solutions for laser cutting, marking, perforating, and engraving for worldwide business. Welcome to visit our website: https://www.mimowork.com/ Laser Processing for the following applications: 1. Composite Materials & Technical Textiles: Filter Cloth, Insulation Materials, Air Dispersion, Sandpaper Sanding Disc 2. Automotive & Aviation: Interior Upholstery, Car Seat, Air Bag, Aviation Carpet 3. Advertisement & Gifts: Acrylic Goods, Wood Decoration, Paper Products 4. Digital Printing: Sublimation Apparel, Sublimation Accessories, Print Advertising, Print Patches 5. Fashion & Apparel: Athletic Apparel and Technical Clothing, Perforated Cloth, Footwear, Garment Accessories | Wed, 20 Mar 2019 | 14 746 | China |