Call for Abstract

Date

May 20-21, 2021

Location

Osaka, Japan

Scientfic Sessions:

The essential objective of this laser advance processing  meeting is to give a discussion to experts in materials science, laser processingmechanical engineering, design tools, software modelling, characterization and metrology to share and talk about the most recent advances in the field of laser-based assembling. This get-together will offer an extraordinary chance to join the exchange for the advancement and execution of cutting edge laser-based 3D producing forms.

  • Laser Welding, Cladding, and Additive Manufacturing
  • Laser Cleaning and Modification
  • Laser Cutting and Drilling
  • Laser Micro-/Nanofabrication and Ultrafast Laser Processing
  • Laser Shock Peening
  • Laser Additive Manufacturing

New electronic and photonic Nano-materials guarantee emotional achievements in correspondences, figuring gadgets, and strong state lighting. Ebb and flow research includes mass gem development, natural semiconductors, dainty film and nanostructure development, and delicate lithography alongside inquires about identified with Optics. A few of the major photonics organizations on the planet sees on various innovations and sentiments about future difficulties for makers and integrators of lasers and photonics items.

Advanced Materials are at the heart of many technological developments that touch our lives. This is The Creation of Advanced Materials at the Molecular or Nuclear Measure For the reason for advancing technology, growing further effective items, making novel manufacturing technologies, or improving the human knowledge. The capacity to rapidly and dependably set out numerous conductive layers with ultrafine goals has prompted the scaling down and low cost of most microelectronic components. Functional Devices has established itself as a leader in the HVAC, Building Controls, Energy Management, Energy Savings, Lighting Controls, and Wireless industries.

This special issue includes topics mainly related to semiconductor research and industry, and in addition to other research and manufacturing sectors where lithography and pattern transfer are important. Contributions are focused on the lithographic material, lithographic process, metrology, and finally on advanced etching and patterning. Contributions should be mainly concentrated in a single process/method, from the tentative list below:

  • EUV, and optical lithography
  • Electron and Ion Beam Lithography
  • Nanoimprint Lithography including R2R nanoimprint, Soft Lithography
  • Mask or template fabrication, Mask-Less Lithography, Scanning probe techniques
  • Materials for Micro and Nano lithography
  • Directed self-assembly
  • Novel nanolithography and nanopatterning methods
  • Advanced Plasma etching, Plasma ashing
  • Nanometrology inspection and process control
  • Lithography- etching simulation

Brazing is ideally suited for joining of dissimilar metals and is performed at relatively low temperature. But even a properly-designed joint can turn out imperfectly if the correct brazing process steps are not followed. These brazing procedures boil down the brazing process to six basic steps. There are six fundamentals of brazing that every brazer should follow to ensure consistent and repeatable joint quality, strength, hermeticity, and reliability. For the sake of simplicity, we'll discuss these six brazing process steps mainly in terms of "manual brazing," that is, brazing with hand-held torch and hand-fed filler metal. But everything said about manual brazing applies as well to mass production brazing. The same brazing process steps must be taken, although they may be performed in a different manner.

soldering is a technique where a precisely focused laser beam provides controlled heating of the solder alloy leading to a fast and non-destructive of an electrical joint. The process uses a controlled laser beam to transfer energy to a soldering location where the absorbed energy heats the solder until it reaches its melting temperature leading to the soldering of the contact and this completely eliminates any mechanical contact.

Soft soldering using laser radiation is becoming more and more significant in the field of selective soldering techniques. Fast power controllability combined with a contactless temperature measurement to minimize thermal damage make the diode laser an ideal tool for this application. These advantages come into full effect when soldering of increasingly small parts in temperature sensitive environments is necessary. Laser soldering is a solution for applications that require selective solder joints such as connecting a circuit board to external terminals or for repair work.

  • Laser Soldering Methods
  • Diode Laser Soldering
  • Smart Fiber Coupled Diode Laser
  • Laser Selective Soldering
  • Laser Soldering System
  • Laser Melting

For materials processing with lasers, beam delivery systems are necessary for directing the radiation from the laser head to the working point on the work piece. The more new fields of application are assumed by the laser, the greater the need for beam delivery systems which have been appropriately designed to meet the requirements of the task to be performed. Depending on the task on hand the appropriate design may be a fixed pipe with a focussing lens at its end or a six-axis articulated arm. This paper will describe the design principles and their optical and mechanical properties. The discussion of the advantages and disadvantages may be of some help in choosing an adequate delivery system.

Micro Welding has been known that wavelength, power density, interaction time and material properties have great influence on processing characteristics in laser material processing, in which materials with higher reflectivity classify into difficultto- weld materials. In electronic industry, aluminum alloy is widely used as structural components due to its high specific strength, and copper became an important material because of its excellent electrical conductivity. These materials have high reflectivity and high thermal conductivity, which results in instability of energy absorption and processing results. Therefore, welding defects might be noticed in the micro-joining of aluminum alloy and copper. In this paper, the smart laser micro-welding of difficult-to-weld materials such as aluminum alloy and copper were discussed. The combination of a pulsed Nd:YAG laser and a continuous diode laser could perform high-performance micro-welding of aluminum alloy. A pulsed Nd:YAG laser was absorbed effectively from the beginning of laser scanning by pre-heating Nd:YAG laser pulse with the superposition of continuous diode laser, and wide and deep weld bead could be obtained with better surface integrity. As for micro-welding of copper material, stable absorption state could be achieved using a pulsed green Nd:YAG laser, since its absorptivity showed almost constant values with change of power density. A longer pulse duration was effective to achieve not only high absorptivity but also low deviation of absorptivity. The pulse waveform with maximum peak at the early period and a long pulse duration led to stabilizing the penetration depth with less porosity.

Laser industry professionals from academic and industrial settings will gather to discuss the latest in laser additive manufacturing , laser materials macro processing, laser materials micro processing, battery and energy conversion, and laser Nano manufacturing. Topics range from the interaction between a laser beam and a material to how a process can be integrated and optimized for an application. Industrial High power applications, such as hardening, cladding, and deep penetrating welding, require multiple kW of optical power, and are used in a broad range of industrial processes. Laser welding. Laser drilling. Laser marking. Today, Industrial Laser System is apparently the most versatile instrument available for various material getting ready applications like welding, exhausting, cutting, warm treatment (hardening, reinforcing, covering, cladding et cetera.) and certain especially exceptional applications like slack of interstellar pieces, Laser changing, disengaged refinement and decommissioning of parts of unexploited nuclear foundations, laser evacuation, oil and gas examination, auto industry et cetera.

  • Spectroscopy

  • Heat treatme

  • Lunar laser ranging

  • Photochemistry

  • Laser scanner

Laser-based additive manufacturing is a versatile manufacturing technique, extensively adopted to fabricate metallic components of enhanced properties laser-based processes such as Selective Laser Melting and Laser Engineered Net Shaping are dominating processes while Laminated Object Manufacturing  has also been used.

Nanotechnology  has found a vast number of applications in many areas and its market grown at a rapid pace in recent years. This resulted in new horizons in materials science and many exciting new developments. The supply of new Nanomaterials, form the prerequisite for any further progress in this new area of science and technology. Nanomaterials feature specific properties that are characteristic of these materials, and which are based on surface and quantum effects.  The control of composition, size, shape, and morphology of nanomaterials is an essential foundation for the development and application of Nanomaterials and Nano scale devices.

Device that operates by interaction of incident radiation with semiconductor based material in order to produce an electrical signal or by other means, to interact with calorimetric devices which produce a thermally induced current. The response of the detection devices will vary by the source wavelength, intensity and energy.

Gas lasers using many gases have been built and used for many purposes. The helium–neon (HeNe) laser can be made to oscillate at over 160 different wavelengths by adjusting the cavity Q to peak at the desired wavelength. This can be done by adjusting the spectral response of the mirrors or by using a dispersive element (Littrow prism) in the cavity. Units operating at 633 nm are very common in schools and laboratories because of their low cost and near perfect beam qualities. Carbon dioxide lasers, or CO2 lasers can emit hundreds of kilowatts at 9.6 µm and 10.6 µm, and are often used in industry for cutting and welding. Solid laser covers the spectrum of solid-state lasers from materials research to applied science and design innovations.