Optica Industry Training Courses at LASER World of PHOTONICS
Optica Industry Training Courses at LASER World of PHOTONICS
27 - 30 Jun 2023
Messe Munich, Room B31, Munich, Germany
These Industry Training Courses offered by Optica are specifically designed to benefit technical staff at companies involved in manufacturing processes that use lasers and photonic devices. This includes engineers, technical sales professionals, research and development teams, and other similar positions. The courses are tailored to equip attendees with the necessary skills and knowledge to address the challenges faced in laser manufacturing processes as well as the assembly and testing of photonic devices. By enrolling in these courses, technical staff can enhance their understanding of laser technology and its various applications, and learn about the latest advancements in photonic manufacturing techniques. The knowledge gained from these courses can help companies improve their production efficiency, reduce manufacturing costs, and stay ahead of the competition in their respective markets.
We believe that one of the most important values that an industry association should provide is Technical Training to its corporate members and their customers.
To address that need, Optica, the leading optics and photonics society, is offering six world-class Industry Training Courses during the week of Laser World of Photonics. These courses cover a variety of topics, including non-linear microscopy using fs-lasers, reduction of hot crack formation in laser welding, photonic packaging, laser beam shaping, laser process monitoring, and how to choose the best laser.
Optica Corporate Members can take advantage of these courses at a special discounted rate of 50 Euros per course, while non-members can enroll at 300 Euros per course. By attending these courses, you can enhance your knowledge and skills to optimize your laser manufacturing processes and stay ahead in the competitive market.
To register for a course, you need to have an active Optica account. If you have forgotten your password or you do not know if you already have an account, click on “forgot your password.” If you do not already have one, you can create an account for free by inserting your email in the field “Create an account."
NOTE: In order to attend our training sessions, attendees must register at LASER World of PHOTONICS.
Supported by:
Pricing per course:
50 Euros for Corporate Members
300 Euros for Non Corporate Members
Non-linear microscopy using fs-lasers
Tuesday, 27 June at 9am
Speaker: John Harvey, Southern Photonics
Nonlinear optical microscopy allows label-free non-destructive investigation of live samples at sub-cellular spatial resolution and is now an important tool for biological research. Techniques utilising multiphoton excited fluorescence, second harmonic generation and coherent Raman scattering, enable the monitoring of live biological specimens in their unperturbed state. Nonlinear optical processes can only be initiated by very high peak power lasers, and this mandates the use of a scanning optical technique and a focussed, pulsed laser source. The big advantage of a femtosecond laser source is that extremely high peak powers can be achieved at quite modest average powers, ensuring that there is minimal heat induced sample damage.This course will enable the participant to understand the applications and potential uses of this technology. Topics to be covered include not only the different types of non linear microscopy which are available, but also the system requirements, including the selection of the femtosecond laser laser system to be used for the nonlinear excitation.
Benefits:
- Understanding the different types of nonlinear optical processes which can be used in microscopy
- Understanding the architecture of different types of femtosecond laser system in the marketplace
- Understanding system issues which affect the integration of the femtosecond laser with the chosen microscope
Audience: Researchers and designers who need to understand the potential of nonlinear microscopy for their research and optical engineers who need to specify a suitable system for a user.
Beam shaping in laser beam welding – Strategies and potentials for process optimization
Tuesday, 27 June at 1pm
Duration: 1.5 - 2 hours
Speaker: Christian Hagenlocher, University of Stuttgart
The intensity distribution of a laser beam determines the energy input into the material and consequently influences all other process characteristics during laser material processing. Thus, it has a decisive influence on the stability of the process itself and on the quality of the resulting welds. Spatial beam oscillation allows for an adjustment of the local energy input during welding. This is applied to develop process strategies to stabilize the capillary and to adjust the solidification during laser welding. It provides the possibility to create specific micro structures, which are beneficial to avoid hot crack formation or enhance the mechanical strength of the weld seam.
Latest beam sources and beam shaping technologies allow for the variation of the intensity distribution. Stabilization of welding and cutting processes has recently been demonstrated for example by using multi-core beam guiding fibers, diffractive optical elements (DOE), superposition of multiple laser beams, or fast spatial oscillation of the laser beam by means of scanner optics. The latest beam shaping technology of coherent beam combining enables the flexible generation of a large variety of intensity distributions as well as their dynamic modulation at frequencies of several MHz.
High speed X-ray imaging captures the effect of static and dynamic beam shaping on the keyhole shape and its change during laser beam welding. The results show, that specific beam shaping strategies lead to a stabilization of the keyhole, which coincides with a reduction of spatter and pore formation. In addition, the geometry of the keyhole determines the characteristics of the fluid flow. In particular, the flexible capabilities of coherent beam combining provide the opportunity to directly shape the capillary into specific geometries that significantly affect the directions and velocities of local melt flows in the melt pool. This allowed for the development of beam shaping strategies in order to optimize the melt flow, which enhance the process efficiency and hinder the formation of hot cracks.
Photonic Packaging: what you need to know from design to manufacturing
Wednesday, 28 June at 1pm
Speaker: Peter O'Brien, Tyndall National Institute
Registration for this course is closed as the maximum number of registrants has been reached.
The training course will provide an overview of the development of advanced photonic-electronic packaging technologies and their transition to Pilot-scale production. The course will cover the many aspects of advanced packaging, including design requirements, the importance of packaging design rules, the use of advanced packaging equipment, fibre and micro-optical packaging, flip-chip and transfer-print integration processes, interposer development for co-packaging of optical and electronic components, and thermal packaging requirements. The future of photonic-electric packaging and the potential for continued innovation in the field will also be discussed. Finally, the course will present the challenges and opportunities in transitioning from research to pilot-scale manufacturing, highlighting the importance of collaboration between academic institutions and industry partners to build the complete ecosystem and in training the future workforce.
Laser Beam Shaping
Thursday, 29 June at 9am
Duration: 1.5 - 2 hours
Speaker: Ulrike Fuchs, Asphericon
The main emphasis will be on beam shaping for single-mode laser sources. Every topic is not only discussed in physical theory, but also always supported with real examples and measurements. The applications range from examples from microscopy to materials processing with ultrashort laser pulses.
1. An overview on different approaches to beam shaping: truncation, field mapping and beam homogenizers, will be given.
2. The field mapping approach will be discussed in detail for beam shaping in the focal plane, discussing scaling, diffraction effects, and physical limitations for the achievable shapes and dimensions. This is followed by the presentation of different variants of the implementation, such as refractive and diffractive phase elemnts, deformable mirrors and spatial light modulators. The respective field of application as well as the given limitations are also discussed. Analysis of the alignment sensitivity for such elements will be shown.
3. The field mapping approach will then be extended to the generation of collimated output beams with flat-top distributions. Additionally, to looking into scaling behavior, diffraction effects and physical limitations of different versions, employing relay optics and imaging approaches will be discussed. Latter is especially important when the location of beam shaping is different from the place the shaped distribution is needed. Analysis of the alignment sensitivity for such beam shaping elements will be shown. As another special feature, the use of fiber-coupled sources is also shown for these beam shaping optics and the challenges involved are explained
4. As soon as coherent laser sources are used, an additional modulation of the intensity profiles occurs due to the occurrence of speckle. This is shown by examples and possible solutions are discussed.
5. Laser beam shaping employing axicons to create (localized) Bessel beams and ring beams of variable shapes and sizes.
Target Audience: Physicists and application engineers who want to better understand what can be achieved with laser beam shaping and when which approach is best suited.
Benefits/course outcome: The major benefit is a deeper understanding of the underlying principles of laser beam shaping. This will not only help choosing the right approach for an application, but also help to identify and avoid sources of error more quickly in practice.
Laser Process Monitoring
Thursday, 29 June at 1pm
Speaker: Markus Kogel-Hollacher, Precitec
It is a well-known paradigm of modern production strategy to gain product quality by safely controlled technologies rather than by post-process treatment of faulty products. Mastering any sophisticated process technology necessarily relies on more or less sophisticated on-line monitoring or closed loop control means. Fortunately, the remotely observable phenomena during laser material processing create no problem to that requirement.
Next to the applied sensor technology and the intuitive usability of system software, next to the complexity of the data processing and the integration into production lines, the basis for reliable on-line process monitoring systems are significant indicators which instantaneously display the status of the interaction zone and/or neighbouring areas.
This course will explain the state-of-the-art in quality assurance technologies for laser processes and will provide examples of successful industrial solutions with the ultimate goal to reduce the subjective human impact on the resulting product quality.
| Time | Duration | Schedule |
|---|---|---|
| 12:30 | 30 | Doors open. Coffee & networking. |
| 1:00 | 5 | Welcome & course overview |
| 1:05 | 10 | Motivation for process monitoring |
| 1:15 | 15 | The physics of process emissions |
| 1:30 | 20 | Different sensors and their application field |
| 1:50 | 20 | OCT in laser materials processing |
| 2:10 | 15 | Data processing |
| 2:25 | 20 | Review / Q&A |
| 2:45 | End |
How to Choose the Right Laser for Your Industry: A Practical Guide
Friday, 30 June at 9am
Duration: 2 hours
Speaker: Antonio Raspa, Luxinar
In today's industrial landscape, lasers have become an essential tool for many processes such as cutting, welding, marking, and engraving. However, with a plethora of options available, selecting the right laser for a specific application can be a daunting task. Our course offers practical guidance to help industries overcome this challenge.
Designed for professionals and individuals involved in laser-based industrial processes, our course covers a wide range of topics. Participants will learn about the different types of lasers and their characteristics, the significance of laser parameters, and how to match laser features to application requirements. Laser safety considerations are also addressed to ensure participants operate lasers safely and effectively.
By the end of the course, participants will have gained a comprehensive understanding of the key laser parameters and how they impact optimal performance in industrial processes. Armed with this knowledge, they will be able to select the most suitable laser for their needs, ensuring that their application requirements are met.
Overall, our course provides valuable practical guidance for industries to select the right laser for their needs, ultimately enhancing the efficiency and effectiveness of their industrial processes.
| Time | Duration | Schedule |
|---|---|---|
| 8:30 | 30 | Doors open. Coffee & networking. |
| 9:00 | 5 | Welcome and course overview |
| 9:05 | 20 | Introduction to lasers and their main characteristics |
| 9:25 | 30 | Laser parameters, their importance and interoperation |
| 9:55 | 30 | Matching laser features to application requirements |
| 10:20 | 20 | Laser safety considerations |
| 10:40 | 20 | Review & Q&A |
| 11:00 | End |
Speakers
John Harvey
Southern Photonics, Founder & CEO
Christian Hagenlocher
University of Stuttgart, Head of Process Fundamentals Department
Peter O'Brien
Tyndall National Institute, Head of Research, Photonics Packaging & Systems Integration
