Blueacre presentation 110823
•
0 likes•340 views
Blueacre is specialised in the development of laser micro machining processes for the manufacturing of innovative medical devices in a variety of materials (Plastics, Ceramics, Glass, Metals) Manufactures small to medium volumes on dedicated laser production equipment Design and construction of customer specific laser micro machining equipment, including necessary product handling and automation Key is the dedicated software used to control laser, optics and product handling
Report
Share
Report
Share
Download to read offline
Recommended
Ajm and wjm
Abrasive jet machining uses abrasive particles suspended in a gas or liquid to machine materials through erosion. Key points include:
- Abrasive particles like aluminum oxide or silicon carbide are accelerated to high velocities and directed at a workpiece to erode away material.
- Process parameters like abrasive size and flow rate influence the material removal rate, with larger abrasives providing higher removal.
- Applications include cutting, cleaning, etching, and polishing of brittle materials like ceramics, concrete, and composites that are difficult to machine with traditional methods.
- While allowing machining of hard materials, abrasive jet machining has low material removal rates and issues with stray cutting
Yag laser marking machine 50 w
The YAG laser marking machine can cut and mark a variety of materials like metals, alloys, plastics, and printing inks. It uses a digital control system for high-speed and precise marking through a non-contact process. The professional control software allows for automatic scheduling and editing of text, graphics, bar codes, and other elements. Key parameters include a 50W YAG laser, marking speeds up to 7,000mm/s, and high resolution marking down to 0.015mm lines and 0.2mm characters.
Unconventional machining process unit-1
Unconventional machining process unit-1D. Palani Kumar / Kamaraj College of Engineering & Technology
Unconventional machining processes remove metal without direct contact between the tool and workpiece. They were developed to address the limitations of conventional machining, such as waste disposal, heat generation, and difficulty machining hard or complex materials. Some unconventional processes include metal forming techniques that shape metals using high energy inputs in short time intervals. Selection of unconventional machining involves considering physical parameters, part shapes, process capabilities, and cost. While unconventional machining enables new applications, it also has limitations such as higher costs and slower speeds than conventional techniques.NCMF
This document discusses conventional and non-conventional machining methods. It begins by defining conventional machining as using a sharp cutting tool for removal of metal. Non-conventional machining does not require physical contact between tool and workpiece and instead uses tools like laser beams or water jets. The document then covers several non-conventional machining processes in more detail like ultrasonic machining, abrasive jet machining, and water jet machining. It concludes by comparing characteristics of conventional and non-conventional machining.
automation_1
MLS Automation is a leading supplier of welding, cutting, and automation solutions, specializing in laser welding, arc welding, robotic welding systems, and laser cutting equipment. It was established in 2010 to provide automation solutions for the automotive industry. MLS has continued to offer state-of-the-art technology through research and development. It designs and manufactures turnkey machines for welding, cutting, and precision micro perforation. MLS provides robotic and CNC applications including robotic laser welding, cutting, MIG/MAG welding, machine tending, laser hardening, spot welding, and automated laser marking.
Laser Marking, Laser Cleaning, Laser Cutting Machine - ILASER
Its various applications, one of the popular applications is its use in the machinery, constructions, wielding works and metallic design works.
Non conventional machining process - me III - 116010319119
This document discusses non-conventional machining processes and abrasive water jet cutting. It classifies non-conventional processes into thermal and electro-thermal, mechanical, and chemical and electro-chemical processes. It then describes abrasive water jet cutting, where a high pressure water jet mixed with abrasive particles is used to cut materials. Advantages include the ability to cut hard and brittle materials without generating heat, while disadvantages include low material removal rates and abrasive particles embedding in the workpiece.
Selective Laser Sintering | SLS 3D Printing | Innovae3d
Selective Laser Sintering is the ability to manufacture a three-dimensional functional product for any complicated shape using metal powder. Innovae3d provides the best Selective Laser Sintering Services.
Visit: https://innovae3d.com/selective-laser-3d-sintering.php
Recommended
Ajm and wjm
Abrasive jet machining uses abrasive particles suspended in a gas or liquid to machine materials through erosion. Key points include:
- Abrasive particles like aluminum oxide or silicon carbide are accelerated to high velocities and directed at a workpiece to erode away material.
- Process parameters like abrasive size and flow rate influence the material removal rate, with larger abrasives providing higher removal.
- Applications include cutting, cleaning, etching, and polishing of brittle materials like ceramics, concrete, and composites that are difficult to machine with traditional methods.
- While allowing machining of hard materials, abrasive jet machining has low material removal rates and issues with stray cutting
Yag laser marking machine 50 w
The YAG laser marking machine can cut and mark a variety of materials like metals, alloys, plastics, and printing inks. It uses a digital control system for high-speed and precise marking through a non-contact process. The professional control software allows for automatic scheduling and editing of text, graphics, bar codes, and other elements. Key parameters include a 50W YAG laser, marking speeds up to 7,000mm/s, and high resolution marking down to 0.015mm lines and 0.2mm characters.
Unconventional machining process unit-1
Unconventional machining process unit-1D. Palani Kumar / Kamaraj College of Engineering & Technology
Unconventional machining processes remove metal without direct contact between the tool and workpiece. They were developed to address the limitations of conventional machining, such as waste disposal, heat generation, and difficulty machining hard or complex materials. Some unconventional processes include metal forming techniques that shape metals using high energy inputs in short time intervals. Selection of unconventional machining involves considering physical parameters, part shapes, process capabilities, and cost. While unconventional machining enables new applications, it also has limitations such as higher costs and slower speeds than conventional techniques.NCMF
This document discusses conventional and non-conventional machining methods. It begins by defining conventional machining as using a sharp cutting tool for removal of metal. Non-conventional machining does not require physical contact between tool and workpiece and instead uses tools like laser beams or water jets. The document then covers several non-conventional machining processes in more detail like ultrasonic machining, abrasive jet machining, and water jet machining. It concludes by comparing characteristics of conventional and non-conventional machining.
automation_1
MLS Automation is a leading supplier of welding, cutting, and automation solutions, specializing in laser welding, arc welding, robotic welding systems, and laser cutting equipment. It was established in 2010 to provide automation solutions for the automotive industry. MLS has continued to offer state-of-the-art technology through research and development. It designs and manufactures turnkey machines for welding, cutting, and precision micro perforation. MLS provides robotic and CNC applications including robotic laser welding, cutting, MIG/MAG welding, machine tending, laser hardening, spot welding, and automated laser marking.
Laser Marking, Laser Cleaning, Laser Cutting Machine - ILASER
Its various applications, one of the popular applications is its use in the machinery, constructions, wielding works and metallic design works.
Non conventional machining process - me III - 116010319119
This document discusses non-conventional machining processes and abrasive water jet cutting. It classifies non-conventional processes into thermal and electro-thermal, mechanical, and chemical and electro-chemical processes. It then describes abrasive water jet cutting, where a high pressure water jet mixed with abrasive particles is used to cut materials. Advantages include the ability to cut hard and brittle materials without generating heat, while disadvantages include low material removal rates and abrasive particles embedding in the workpiece.
Selective Laser Sintering | SLS 3D Printing | Innovae3d
Selective Laser Sintering is the ability to manufacture a three-dimensional functional product for any complicated shape using metal powder. Innovae3d provides the best Selective Laser Sintering Services.
Visit: https://innovae3d.com/selective-laser-3d-sintering.php
Micro and nano manufacturing
Nanoscale cutting, nano and micro machining, micro turning and microdrilling with videos as per RTU syllabus
Fanuc laser
Alternative Parts Inc. provides customers in the manufacturing industry with a full selection of parts and consumables including Fanuc Laser and everything you need to keep your Amada laser cutting system. Visit them for more details.
Nanomaterials in additivie manufacturing
The document discusses the use of nanomaterials in additive manufacturing. It describes how metal nanoparticles, carbon nanotubes, and ceramic/semiconductor nanoparticles can be used to improve properties of 3D printed parts. Metal nanoparticles decrease deflection and shrinkage by improving sintering. Carbon nanotubes increase strength and conductivity when added to polymers for 3D printing. Ceramic nanoparticles like TiO2 increase strength, hardness, and thermal stability, while Al2O3 enhances sintering and impact strength. In summary, nanomaterials offer advantages for additive manufacturing by enabling better mechanical, thermal, electrical and sintering characteristics when incorporated into 3D printed materials.
Tooling Services
This document provides information about metal stamping dies and tool manufacturing processes. It details the types of dies available including blanking, piercing, coining, progressive, compound, and secondary dies. It also lists the tool manufacturing capabilities such as laser cutting, auto threading, wire EDM, and CNC machining. Additionally, it provides specifications for die features, tolerances, inspection methods, testing, documentation, and additional metal stamping services.
HOWAR Line Card Equipment
This document contains confidential information about Howar Equipment Inc. and their product line of wire and cable machinery and accessories. They produce steel reels and reel handling equipment, precision cable measurement and analysis tools, extrusion cross-heads and tooling, foil laminated shielding tapes, wire pay-off and tensioning control equipment, rotating die units and wire processing equipment, plasma wire surface treatment equipment, wire pointing and feeding equipment, wire straightening and centering devices, and ceramic drawing cones, guides and eyelets.
laser polishing [autosaved]
Laser polishing is a non-contact surface finishing process that uses laser irradiation to smooth surfaces. There are two main methods - macro polishing using continuous wave lasers to re-melt surface layers 10-80 micrometers thick, and micro polishing using pulsed lasers to re-melt layers 0.5-5 micrometers thick. Factors like initial roughness, material properties, and laser parameters affect the final roughness. Laser polishing provides advantages over conventional methods like being automated, selective, and producing less waste. Applications include polishing glass, medical devices, and creating glossy surface designs.
NanoFocus Application Movie
This document discusses various applications of micro-machining techniques including creating functional surfaces for motor cylinders through chemical etching or traditional honing, quantifying wear scars, designing dental implants, dispensing dots for surface mounted technology, measuring printed circuit board thickness, manufacturing micro-lenses, creating patterns for gravure printing cylinders, improving paper manufacturing processes, etching microstructures in metals for energy storage applications, and analyzing woven fabrics and steel or aluminum surfaces.
Ntmp2015 1
This document provides an introduction to nontraditional manufacturing processes (NTMPs). It discusses how NTMPs were developed as efficient alternatives to conventional machining to address its limitations for new materials and complex part geometries. The document outlines various NTMP categories including thermal, mechanical, electrochemical, and kinetic processes. It provides examples of applications for different NTMPs and highlights attributes like increased productivity, versatility, and reduced part rejection. The course objectives are defined as developing understanding of NTMP theories, characteristics, process variables, capabilities and limitations.
Selective Laser Sintering (SLS)
SLS or Selective Laser Sintering is one of the most commonly used 3D printing technology. It uses a powdered material to a solid 3D-printed product.
Máy hàn laser FoRza 160
This document describes a laser spot welding system called FoRza. It has an adjustable touchscreen display and stores 100 memory parameters. It uses a Leica 10x lens and has UV and laser radiation protection for the eyes. It has a new generation laser rail and is completely digital. It also has an integrated standard webcam and can connect to a PC/laptop. Some key features include a digital microprocessor that works 100 times faster than traditional systems, automatic regulation of the power supply, double LCD touchscreen, 30 Hz frequency, automatic control of the laser lamp, and a powerful cooling system. The laser can be used to weld precious metals like gold, silver, and palladium without removing stones. It is suitable for
TDS VD2001G solder paste
TDS of VD2001G solder paste .VD chemicals is the finest manufacturer of solder paste in india having high quality .
Abrassive Water-Jet Cutting or Machining By Himanshu Vaid
Abrasive jet machining (AJM) uses a high-pressure stream of abrasive particles mixed with air or gas to cut hard and brittle materials. The abrasive particles erode away the material being cut. AJM can cut intricate shapes in materials like ceramics and glass that are too thin or heat-sensitive for other machining methods. It has low capital costs and avoids generating heat in the workpiece, but has a low material removal rate. AJM is used for applications like cutting ceramics, removing coatings, and cleaning delicate surfaces.
Unit i and ii
Unconventional machining processes remove material without direct contact between the tool and workpiece using various forms of energy. They are classified based on the shape of material removed, mechanism involved, material removal method, and energy transfer medium. Some key unconventional processes include abrasive jet machining, which uses a high velocity abrasive particle stream; water jet machining, which cuts using high pressure water; and ultrasonic machining, where the tool vibrates at high frequency to erode material with abrasives. These processes allow harder materials to be machined with closer tolerances compared to conventional techniques.
Vision-Based System for Welding Groove Measurements for Robotic Welding Appli...
Vision-Based System for Welding Groove Measurements for Robotic Welding Appli...Cristiano Rafael Steffens
BQ Leonardo, CR Steffens, SC Silva Fil., JL Mór, V Hüttner, EA Leivas, VS Rosa and SSC Botelho
Center of Computer Science, Federal University of Rio Grande, Brazil
How to select the CAD/CAM system that's right for your lab
Slides from a presentation from CAP on selecting the CAD/CAM system that is right for your dental lab.
GF Machining Solutions - Microlution - Perfect Walls and Edges enable new pro...
GF Machining Solutions - Microlution - Perfect Walls and Edges enable new pro...Machine Tool Systems Inc.
The document discusses advances in femtosecond laser micromachining technology. Femtosecond lasers can machine materials with extremely high precision without heat damage due to the short laser pulse duration. This enables the production of micro parts with perpendicular edges and walls. Examples are given of applications in consumer products, semiconductors, medical devices, and watch gears where femtosecond lasers are improving manufacturing processes. Microlution provides an industrial femtosecond laser machining platform called the ML-5 for high precision micromachining.Water jet cutting
Water jet cutting is a machining method that uses a high-pressure stream of water, sometimes with an abrasive material added, to cut materials. It is a non-thermal process so there is no heat affected zone on the material. Water jet cutting can cut a variety of materials either with just water or by mixing in an abrasive material for harder substrates. It has advantages over other cutting methods in that it produces no heat, fumes or burrs and can cut many material types, but has limitations in cutting speed for some harder materials.
water jet cutting
this prasentation is only about water jet cutting... how water is used for cutting some materials & etc,..
Mems presentation
Micro electro mechanical systems (MEMS, also written as micro-electro-mechanical, Micro Electro Mechanical or micro electronic and micro electro mechanical systems and the related micromechatronics) is the technology of microscopic devices, particularly those with moving parts. It merges at the nano-scale into nanoelectromechanical systems (NEMS) and nanotechnology. MEMS are also referred to as micromachines in Japan, or micro systems technology.
Micro Electromechanical systems or MEMS, represent an extraordinary technology that promises to transform whole industries and drive the next technological revolution. These devices can replace bulky actuators and sensors with micron-scale equivalent that can be produced in large quantities by fabrication processes used in integrated circuits photolithography. This reduces cost, bulk, weight and power consumption while increasing performance, production volume, and functionality by orders of magnitude. For example, one well known MEMS device is the accelerometer (it’s now being manufactured using mems low cost, small size, more reliability). Furthermore, it is clear that current MEMS products are simply precursors to greater and more pervasive applications to come, including genetic and disease testing, guidance and navigation systems, power generation, RF devices (especially for cell phone technology), weapon systems, biological and chemical agent detection, and data storage. Micro mirror based optical switches have already proven their value; several start-up companies specializing in their development have already been sold to large network companies for hundreds of millions of dollars. The promise of MEMS is increasingly capturing the attention of new and old industries alike, as more and more of their challenges are solved with MEMS.
After extensive development, todays commercial MEMS – also known as Micro System Technologies (MST), Micro Machines (MM) have proven to be more manufactural, reliable and accurate, dollar for dollar, than their conventional counterparts. However the technical hurdles to attain these accomplishments were often costly and time- consuming, and current advances in this technology introduce newer challenges still. Because this field is still in its infancy, very little data on design, manufacturing processes or liability are common or shared.
Mvit
This document discusses the use of microelectromechanical systems (MEMS) in biomedical applications. Some key points:
- MEMS allow the miniaturization of devices down to subcellular scales, enabling applications in areas like biology, medicine, and biomedical engineering.
- MEMS integrate electrical and mechanical components on a single chip at microscopic scales (less than a human hair). This enables small, low power, less invasive medical devices.
- Examples of MEMS applications discussed include lab-on-a-pill endoscopy, ultrasonic cutting tools, microneedles for drug delivery, and smart pills with sensors and drug reservoirs.
- Challenges for medical MEMS include
Mems (Report)
Micromachined Electro-Mechanical Systems, also called microfabricated Systems, have evoked great interest in the scientific and engineering communities. This is primarily due to several substantive advantages that MEMS offer: orders of magnitude smaller size, better performance than other solutions, possibilities for batch fabrication and cost-effective integration with electronics, virtually zero dc power consumption and potentially large reduction in power consumption, etc.
This Seminar would give an introduction to these exciting developments and the technology and design approaches for the realization of these integrated systems. It would be followed with an introduction to the design of microsensors, such as the pressure sensor and the accelerometer, which began the MEMS revolution.
A systematic approach is developed to select manufacturing Process Chains for the generic elements of a MEMS device. A database of MEMS Process Chains and their attendant process attributes is developed from the existing literature, and used to construct Process Attribute charts. The performance requirements of MEMS beams and trenches are translated into the same set of Process Attributes. This allows for a screening of the Process Chains to obtain a list of candidate manufacturing methods.
I begin with a quick introduction to MEMS technology, micron scale and show that silicon is eminently suited for micromechanical devices and therefore the possibility of integrating MEMS with VLSI electronics. Smart cell phones and wireless enabled devices are poised to become commercial engines for the next generation of MEMS, since MEMS provide not only better functionality with smaller chip area, but also alternative transceiver architectures for improved functionality, performance and reliability.
The application domains cover microsensors and actuators for physical quantities, of which MEMS for automobile & consumer electronics forms a large segment; microfabricated subsystems for communications and computer systems.
Micro electro mechanical systems
- Micro Electro Mechanical Systems (MEMS) is a technology that miniaturizes components between 1 to 100 micrometers in size to combine both electrical and mechanical functions on a single chip using microfabrication technology.
- MEMS devices are fabricated using deposition, patterning, and etching processes. Deposition is used to deposit materials onto the substrate through physical or chemical methods. Patterning transfers patterns onto the materials using lithography techniques. Etching then removes material using wet or dry etching.
- MEMS have applications in areas like automotive, biomedical, military, sensors and more. They are used in airbags, inertial sensors, biomedical implants, inkjet printers, gyroscopes and
More Related Content
What's hot
Micro and nano manufacturing
Nanoscale cutting, nano and micro machining, micro turning and microdrilling with videos as per RTU syllabus
Fanuc laser
Alternative Parts Inc. provides customers in the manufacturing industry with a full selection of parts and consumables including Fanuc Laser and everything you need to keep your Amada laser cutting system. Visit them for more details.
Nanomaterials in additivie manufacturing
The document discusses the use of nanomaterials in additive manufacturing. It describes how metal nanoparticles, carbon nanotubes, and ceramic/semiconductor nanoparticles can be used to improve properties of 3D printed parts. Metal nanoparticles decrease deflection and shrinkage by improving sintering. Carbon nanotubes increase strength and conductivity when added to polymers for 3D printing. Ceramic nanoparticles like TiO2 increase strength, hardness, and thermal stability, while Al2O3 enhances sintering and impact strength. In summary, nanomaterials offer advantages for additive manufacturing by enabling better mechanical, thermal, electrical and sintering characteristics when incorporated into 3D printed materials.
Tooling Services
This document provides information about metal stamping dies and tool manufacturing processes. It details the types of dies available including blanking, piercing, coining, progressive, compound, and secondary dies. It also lists the tool manufacturing capabilities such as laser cutting, auto threading, wire EDM, and CNC machining. Additionally, it provides specifications for die features, tolerances, inspection methods, testing, documentation, and additional metal stamping services.
HOWAR Line Card Equipment
This document contains confidential information about Howar Equipment Inc. and their product line of wire and cable machinery and accessories. They produce steel reels and reel handling equipment, precision cable measurement and analysis tools, extrusion cross-heads and tooling, foil laminated shielding tapes, wire pay-off and tensioning control equipment, rotating die units and wire processing equipment, plasma wire surface treatment equipment, wire pointing and feeding equipment, wire straightening and centering devices, and ceramic drawing cones, guides and eyelets.
laser polishing [autosaved]
Laser polishing is a non-contact surface finishing process that uses laser irradiation to smooth surfaces. There are two main methods - macro polishing using continuous wave lasers to re-melt surface layers 10-80 micrometers thick, and micro polishing using pulsed lasers to re-melt layers 0.5-5 micrometers thick. Factors like initial roughness, material properties, and laser parameters affect the final roughness. Laser polishing provides advantages over conventional methods like being automated, selective, and producing less waste. Applications include polishing glass, medical devices, and creating glossy surface designs.
NanoFocus Application Movie
This document discusses various applications of micro-machining techniques including creating functional surfaces for motor cylinders through chemical etching or traditional honing, quantifying wear scars, designing dental implants, dispensing dots for surface mounted technology, measuring printed circuit board thickness, manufacturing micro-lenses, creating patterns for gravure printing cylinders, improving paper manufacturing processes, etching microstructures in metals for energy storage applications, and analyzing woven fabrics and steel or aluminum surfaces.
Ntmp2015 1
This document provides an introduction to nontraditional manufacturing processes (NTMPs). It discusses how NTMPs were developed as efficient alternatives to conventional machining to address its limitations for new materials and complex part geometries. The document outlines various NTMP categories including thermal, mechanical, electrochemical, and kinetic processes. It provides examples of applications for different NTMPs and highlights attributes like increased productivity, versatility, and reduced part rejection. The course objectives are defined as developing understanding of NTMP theories, characteristics, process variables, capabilities and limitations.
Selective Laser Sintering (SLS)
SLS or Selective Laser Sintering is one of the most commonly used 3D printing technology. It uses a powdered material to a solid 3D-printed product.
Máy hàn laser FoRza 160
This document describes a laser spot welding system called FoRza. It has an adjustable touchscreen display and stores 100 memory parameters. It uses a Leica 10x lens and has UV and laser radiation protection for the eyes. It has a new generation laser rail and is completely digital. It also has an integrated standard webcam and can connect to a PC/laptop. Some key features include a digital microprocessor that works 100 times faster than traditional systems, automatic regulation of the power supply, double LCD touchscreen, 30 Hz frequency, automatic control of the laser lamp, and a powerful cooling system. The laser can be used to weld precious metals like gold, silver, and palladium without removing stones. It is suitable for
TDS VD2001G solder paste
TDS of VD2001G solder paste .VD chemicals is the finest manufacturer of solder paste in india having high quality .
Abrassive Water-Jet Cutting or Machining By Himanshu Vaid
Abrasive jet machining (AJM) uses a high-pressure stream of abrasive particles mixed with air or gas to cut hard and brittle materials. The abrasive particles erode away the material being cut. AJM can cut intricate shapes in materials like ceramics and glass that are too thin or heat-sensitive for other machining methods. It has low capital costs and avoids generating heat in the workpiece, but has a low material removal rate. AJM is used for applications like cutting ceramics, removing coatings, and cleaning delicate surfaces.
Unit i and ii
Unconventional machining processes remove material without direct contact between the tool and workpiece using various forms of energy. They are classified based on the shape of material removed, mechanism involved, material removal method, and energy transfer medium. Some key unconventional processes include abrasive jet machining, which uses a high velocity abrasive particle stream; water jet machining, which cuts using high pressure water; and ultrasonic machining, where the tool vibrates at high frequency to erode material with abrasives. These processes allow harder materials to be machined with closer tolerances compared to conventional techniques.
Vision-Based System for Welding Groove Measurements for Robotic Welding Appli...
Vision-Based System for Welding Groove Measurements for Robotic Welding Appli...Cristiano Rafael Steffens
BQ Leonardo, CR Steffens, SC Silva Fil., JL Mór, V Hüttner, EA Leivas, VS Rosa and SSC Botelho
Center of Computer Science, Federal University of Rio Grande, Brazil
How to select the CAD/CAM system that's right for your lab
Slides from a presentation from CAP on selecting the CAD/CAM system that is right for your dental lab.
GF Machining Solutions - Microlution - Perfect Walls and Edges enable new pro...
GF Machining Solutions - Microlution - Perfect Walls and Edges enable new pro...Machine Tool Systems Inc.
The document discusses advances in femtosecond laser micromachining technology. Femtosecond lasers can machine materials with extremely high precision without heat damage due to the short laser pulse duration. This enables the production of micro parts with perpendicular edges and walls. Examples are given of applications in consumer products, semiconductors, medical devices, and watch gears where femtosecond lasers are improving manufacturing processes. Microlution provides an industrial femtosecond laser machining platform called the ML-5 for high precision micromachining.Water jet cutting
Water jet cutting is a machining method that uses a high-pressure stream of water, sometimes with an abrasive material added, to cut materials. It is a non-thermal process so there is no heat affected zone on the material. Water jet cutting can cut a variety of materials either with just water or by mixing in an abrasive material for harder substrates. It has advantages over other cutting methods in that it produces no heat, fumes or burrs and can cut many material types, but has limitations in cutting speed for some harder materials.
water jet cutting
this prasentation is only about water jet cutting... how water is used for cutting some materials & etc,..
What's hot (18)
Abrassive Water-Jet Cutting or Machining By Himanshu Vaid
Abrassive Water-Jet Cutting or Machining By Himanshu Vaid
Vision-Based System for Welding Groove Measurements for Robotic Welding Appli...
Vision-Based System for Welding Groove Measurements for Robotic Welding Appli...
How to select the CAD/CAM system that's right for your lab
How to select the CAD/CAM system that's right for your lab
GF Machining Solutions - Microlution - Perfect Walls and Edges enable new pro...
GF Machining Solutions - Microlution - Perfect Walls and Edges enable new pro...
Viewers also liked
Mems presentation
Micro electro mechanical systems (MEMS, also written as micro-electro-mechanical, Micro Electro Mechanical or micro electronic and micro electro mechanical systems and the related micromechatronics) is the technology of microscopic devices, particularly those with moving parts. It merges at the nano-scale into nanoelectromechanical systems (NEMS) and nanotechnology. MEMS are also referred to as micromachines in Japan, or micro systems technology.
Micro Electromechanical systems or MEMS, represent an extraordinary technology that promises to transform whole industries and drive the next technological revolution. These devices can replace bulky actuators and sensors with micron-scale equivalent that can be produced in large quantities by fabrication processes used in integrated circuits photolithography. This reduces cost, bulk, weight and power consumption while increasing performance, production volume, and functionality by orders of magnitude. For example, one well known MEMS device is the accelerometer (it’s now being manufactured using mems low cost, small size, more reliability). Furthermore, it is clear that current MEMS products are simply precursors to greater and more pervasive applications to come, including genetic and disease testing, guidance and navigation systems, power generation, RF devices (especially for cell phone technology), weapon systems, biological and chemical agent detection, and data storage. Micro mirror based optical switches have already proven their value; several start-up companies specializing in their development have already been sold to large network companies for hundreds of millions of dollars. The promise of MEMS is increasingly capturing the attention of new and old industries alike, as more and more of their challenges are solved with MEMS.
After extensive development, todays commercial MEMS – also known as Micro System Technologies (MST), Micro Machines (MM) have proven to be more manufactural, reliable and accurate, dollar for dollar, than their conventional counterparts. However the technical hurdles to attain these accomplishments were often costly and time- consuming, and current advances in this technology introduce newer challenges still. Because this field is still in its infancy, very little data on design, manufacturing processes or liability are common or shared.
Mvit
This document discusses the use of microelectromechanical systems (MEMS) in biomedical applications. Some key points:
- MEMS allow the miniaturization of devices down to subcellular scales, enabling applications in areas like biology, medicine, and biomedical engineering.
- MEMS integrate electrical and mechanical components on a single chip at microscopic scales (less than a human hair). This enables small, low power, less invasive medical devices.
- Examples of MEMS applications discussed include lab-on-a-pill endoscopy, ultrasonic cutting tools, microneedles for drug delivery, and smart pills with sensors and drug reservoirs.
- Challenges for medical MEMS include
Mems (Report)
Micromachined Electro-Mechanical Systems, also called microfabricated Systems, have evoked great interest in the scientific and engineering communities. This is primarily due to several substantive advantages that MEMS offer: orders of magnitude smaller size, better performance than other solutions, possibilities for batch fabrication and cost-effective integration with electronics, virtually zero dc power consumption and potentially large reduction in power consumption, etc.
This Seminar would give an introduction to these exciting developments and the technology and design approaches for the realization of these integrated systems. It would be followed with an introduction to the design of microsensors, such as the pressure sensor and the accelerometer, which began the MEMS revolution.
A systematic approach is developed to select manufacturing Process Chains for the generic elements of a MEMS device. A database of MEMS Process Chains and their attendant process attributes is developed from the existing literature, and used to construct Process Attribute charts. The performance requirements of MEMS beams and trenches are translated into the same set of Process Attributes. This allows for a screening of the Process Chains to obtain a list of candidate manufacturing methods.
I begin with a quick introduction to MEMS technology, micron scale and show that silicon is eminently suited for micromechanical devices and therefore the possibility of integrating MEMS with VLSI electronics. Smart cell phones and wireless enabled devices are poised to become commercial engines for the next generation of MEMS, since MEMS provide not only better functionality with smaller chip area, but also alternative transceiver architectures for improved functionality, performance and reliability.
The application domains cover microsensors and actuators for physical quantities, of which MEMS for automobile & consumer electronics forms a large segment; microfabricated subsystems for communications and computer systems.
Micro electro mechanical systems
- Micro Electro Mechanical Systems (MEMS) is a technology that miniaturizes components between 1 to 100 micrometers in size to combine both electrical and mechanical functions on a single chip using microfabrication technology.
- MEMS devices are fabricated using deposition, patterning, and etching processes. Deposition is used to deposit materials onto the substrate through physical or chemical methods. Patterning transfers patterns onto the materials using lithography techniques. Etching then removes material using wet or dry etching.
- MEMS have applications in areas like automotive, biomedical, military, sensors and more. They are used in airbags, inertial sensors, biomedical implants, inkjet printers, gyroscopes and
Micro Electro Mechanical systems
This document discusses Micro Electro Mechanical Systems (MEMS). MEMS are tiny devices that combine mechanical and electrical components using microfabrication technology. They range in size from 1 to 100 micrometers. The document outlines common MEMS fabrication techniques like deposition, patterning through lithography, and etching. It also discusses MEMS applications in areas like automotive, medical, sensors, and more. MEMS offer benefits like low energy use and improved accuracy but challenges include high costs and complex design procedures. The future of MEMS is seen as integrating more sensors, energy modules, and wireless capabilities to create entirely new product categories.
mems tech
This document provides an overview of micro-electro-mechanical systems (MEMS). It defines MEMS as the integration of mechanical and electrical components on a silicon chip through microfabrication. MEMS devices can include sensors, actuators and electronics. Common MEMS materials include silicon, gallium arsenide and piezoelectric materials. MEMS are fabricated using deposition, lithography and etching processes to build microscopic mechanical and electromechanical elements. MEMS are used in applications like automotive, consumer devices, medical and more where miniaturization is needed. Examples of MEMS applications include sensors for airbags, motion sensing, displays and lab-on-chip devices.
Basics of- HUMAN BIOMATERIALS, IMPLANTABLE MEDICAL DEVICES AND BIOMEDICAL SCI...
Basics of- HUMAN BIOMATERIALS, IMPLANTABLE MEDICAL DEVICES AND BIOMEDICAL SCI...Shaheed Suhrawardy Medical College
The document discusses biomaterials, bio-implants, and biomedical devices. It provides:
1) Definitions of biomaterials, bio-implants, and biomedical devices and how they interact with human tissue.
2) A brief history of the advancement of biomaterials and biomedical devices from ancient times to modern developments.
3) Classification of biomaterials into biological, synthetic, and composite categories and how they are evaluated.Mems technology
This document provides an overview of microelectromechanical systems (MEMS) technology. It discusses how MEMS devices are fabricated using modified silicon and non-silicon techniques to create tiny integrated systems combining mechanical and electrical components on the microscale. The document outlines common MEMS fabrication methods like surface micromachining, bulk micromachining, and LIGA. It also discusses MEMS design processes, packaging challenges, and applications. The future of MEMS is presented as enabling more advanced automotive, medical, and environmental applications through continued innovation in areas like foundry access and design tools.
Mems (Detail Presentation)
Micro-Electro-Mechanical Systems (MEMS) are small integrated devices that combine electrical and mechanical components. MEMS fabrication involves depositing thin films, lithography to pattern the films, and etching to selectively remove material. MEMS can be fabricated using processes like thermal oxidation, deposition, doping, etching, and lithography. Applications of MEMS include sensors, actuators, mirrors, and biomedical devices. MEMS technology is expected to continue advancing and enabling new applications in fields such as computing, communications, and transportation.
Viewers also liked (9)
Basics of- HUMAN BIOMATERIALS, IMPLANTABLE MEDICAL DEVICES AND BIOMEDICAL SCI...
Basics of- HUMAN BIOMATERIALS, IMPLANTABLE MEDICAL DEVICES AND BIOMEDICAL SCI...
Similar to Blueacre presentation 110823
Fiber Laser cutting
The document discusses laser cutting solutions provided by Meera Laser Solutions. It describes how their laser cutting machines use fiber or disk lasers, linear direct drives, and CNC controls to achieve fast, precise cutting. It summarizes the benefits of laser cutting over conventional processes in creating flexibility and reducing material waste. It also provides details on several laser cutting machine models for cutting various materials like sheet metal, tubes, profiles, and more.
GS-LFD3015 Fiber Laser Cutter Techinical Solution
The document provides information about the Han's GS Laser company and its GS-LFD3015 fiber laser cutting machine. Some key details include:
- Han's GS Laser is a subsidiary of Han's Laser, a large Chinese laser equipment manufacturer.
- The GS-LFD3015 is a fiber laser cutting machine with a 500-1000W laser, 3000x1500mm cutting area, and precision of ±0.03mm.
- It can cut a variety of materials from 0.2-12mm thick including metals and non-metals for applications in manufacturing industries.
- The machine includes a fiber laser source, cutting head, CNC system, exhaust system, and is operated
Ewag - Laser Line Ultra - New brochure released from United Grinding
The LASER LINE ULTRA is a state-of-the-art laser machining unit capable of flexibly machining a variety of cutting materials like carbide, CBN, and PCD without heat, ensuring exceptional surface quality. It features ultra-short pulse laser technology, 5-axis CNC motion, and a clamping range up to 200mm in diameter and 250mm in length. The LASER LINE ULTRA is manufactured by EWAG, a Swiss company known for precision tool grinding machines that is now part of the UNITED GRINDING Group.
LASERDYNE 430BD
The document describes the LASERDYNE 430BD 3D laser system. It can precision cut, weld, and drill small to medium sized 2D and 3D components using a third generation BeamDirector and patented Optical Focus Control. The system offers flexibility with optional rotary tables and high precision with accuracy of 12.5 microns. It is a turnkey system backed by Laserdyne's applications engineering expertise in laser processes.
Ewag - Laser Line Precision - New brochure released from United Grinding
The LASER LINE PRECISION is a laser machining center from Ewag AG that is designed for precision machining of diamond tools. It uses a short-pulse fiber laser in the green wavelength range to efficiently machine materials such as PCD, CVD-D, and CBN. The machine allows for complete all-in-one machining of tools, including blades and chip grooves, in a single clamping. It can hold tools of up to 200mm in diameter and 250mm in length or indexable inserts as small as 3mm. The compact and automated system incorporates a 5-axis CNC machine with a 2-axis laser beam guide for complex 3D machining capabilities.
Micro and nano manufacturing
This document discusses micro and nano manufacturing techniques such as micro turning, micro drilling, and micro milling. Micro turning can produce mirror surfaces with less than 10 nm surface roughness and is used to machine hard materials without subsurface damage. Micro drills as small as 5-50 μm in diameter are used to drill holes in PCBs, inkjet printer nozzles, and other applications. Micro milling is capable of creating 3D features from a few microns to hundreds of microns in size and drilling holes tens of microns in size. Machine tools such as ultra-precision lathes, Swiss-type lathes, and spindles with speeds over 500,000 rpm are used to enable these micro manufacturing processes.
Metal cutting techniques and Metal Forming by Laser .pdf
- Laser stands for "Light Amplification by Stimulated Emission of Radiation". It operates by converting electrical energy into light energy and then thermal energy through stimulated emission.
- Laser machining has several advantages over traditional thermal removal processes, including high accuracy, speed, ability to cut complex shapes and small parts, easy automation, and high production rates. It can machine both metal and non-metal workpieces.
- The main types of industrial lasers are CO2 lasers, which operate at 10.6μm and are suitable for cutting metals, and Nd:YAG lasers, which operate at a wavelength where metals absorb more strongly and are better for metal processing. A wide variety of
material and manufacturing - Cutting process
This document provides information on various manufacturing cutting processes including photochemical cutting, laser cutting, electrical discharge machining (EDM), punching and blanking, die cutting, water jet cutting, and glass scoring. It describes the introduction, typical applications, related processes, quality considerations, design opportunities, compatible materials, costs, and environmental impacts for each process.
Manufacturing Process (Cutting Process)
This document provides information on various manufacturing cutting processes including photochemical cutting, laser cutting, electrical discharge machining, punching and blanking, die cutting, water jet cutting, and glass scoring. It describes the introduction, typical applications, related processes, quality considerations, design opportunities, compatible materials, costs, and environmental impacts for each process.
Laser cutting machine catalogue 1.1
This document provides information about Wuhan Hans Goldensky Laser System Co., Ltd., including:
- The company manufactures high-power laser sources and laser cutting, welding, and processing equipment. It has received several government innovation awards.
- Product lines include CO2, fiber, and YAG laser cutting machines in various power ranges for cutting materials like steel, aluminum, and non-ferrous metals.
- Specifications and performance data are provided for several laser cutting machine models, along with photos and descriptions of their features. Cutting speeds for different materials and thicknesses are listed.
- Company qualifications, honors received, and contact information are also briefly mentioned at the end of the document.
The laser
The document provides information on Prima Power's laser cutting product range, including details on several laser cutting machine models. It discusses the advantages of CO2 and fiber laser technologies and highlights features of the Laser Genius, Platino Fiber Evo, and Platino machines. The summary focuses on key capabilities and specifications of the highlighted machines.
What Are The Main Components Of Tube And Pipe Laser Cutting Machines?
When choosing the machinery, you should consider a suitable one according to the factors such as the cutting material, thickness & power ranges. Talk to the experts of Business Point International, we will make a free consultation to suggest the best for your industry. Visit us: bpiae.com
Laser cutting & Plasma cutting machines for textiles
This document provides information about laser cutting and plasma cutting machines. It discusses the basic working principles of lasers and how laser cutting machines function. It describes the key components of laser cutting machines like the laser source, optics, nozzle, and CNC system. It also discusses factors that influence cut quality and different configurations of laser cutting machines. The document then provides details about plasma cutting, including the plasma state, common gases used, and how plasma cutting torches work. It lists the advantages of plasma cutting over other techniques and describes process variants to improve cut quality.
Measurement and metrology products guide - Banbros engineering
Here is the summary of all products that we manufacture and supplies to the different industries. The range of products summarized in this catalog are-
1. One touch inspection system
2. Vision Measurement machines
3. Video projectors
4. Profile projectors
5. Hardness Testers
6. Table top magnifiers
7. Wide Field Microscopes
8. Stereo Microscopes
9. Metallurgical Microscopes
10. Metallurgical sample preparation equipments
11. Abrasive cutoff machines
12. Metallographic polishing machines
13. Hot mounting press
14. Belt grinders
15. Material Testing machines
16. U/V notch cutting machine
17. Environmental Test equipments
18. Humidity Test chamber
19. Salt spray test chamber
20. Steam aging test chambers
Wisely laser marking engraving machine catalogue
Wisely Laser manufactures high-performance fiber laser marking systems that offer engraving, cutting, marking and etching solutions. Their systems provide permanent identification marks on a variety of metal and plastic materials with high precision at fast speeds. Wisely Laser aims to support customers with technical assistance before, during, and after sales of their reliable and cost-effective fiber laser solutions.
Optics & Allied Engg. Pvt. Ltd., - Company Profile
Optics India provides one-stop solutions for optical components, polymer optics, LED lighting lenses, and technical plastic parts. It aims to ensure total customer satisfaction through safe and good manufacturing practices. Over 30 years it has expanded its capabilities and moved to a new larger facility, and now offers services including precision molding, tooling, metalizing, assembly, and testing. It serves customers in industries like aerospace, defense, sensors, and more.
New Telesis guide 20191107_sp
The document provides an overview of laser marking systems and services from Telesis Technologies. It describes Telesis' fiber, vanadate, green, UV, and CO2 laser marking systems and their capabilities. It highlights Telesis' dual-head laser system, enclosures, and software. The document promotes Telesis' wide range of products, custom solutions, service offerings, and dedicated customer support and service teams.
Micromachining Technology Seminar Presentation
Micromachining is used to create micrometer-scale parts and devices. It is derived from traditional machining processes but operates on a smaller scale using less force. There are several micromachining processes including micro milling, laser ablation, etching, and lithography that use mechanical forces, lasers, or chemical reactions to shape materials like ceramics, metals, polymers, and silicon. Micromachining is used to fabricate components for microelectromechanical systems, integrated circuits, medical devices, and more.
Punzonadora de torreta Boschert Combi Láser
Punzonadora de torreta Boschert combinada con Láser de fibra, rompe los paradigmas de baja productividad y reducida versatilidad, con la punzonadora Boschert se integra en una solo solución ambas tecnologías que permiten obtener piezas complejas y con riqueza de forma que aseguran la identidad del producto manufacturado.
Pooja
The document provides information about laser cutting technology and its application in sheet metal fabrication. It discusses:
1) The history of laser cutting development since the 1960s for industrial manufacturing applications.
2) The laser cutting process which uses a high-power laser beam directed by optics and CNC to cut materials by melting, burning or vaporizing away the material.
3) The two main types of industrial lasers used for sheet metal cutting - CO2 lasers and fiber lasers. CO2 lasers can cut thicker materials faster while fiber lasers cut a variety of materials and provide a smoother surface finish.
Similar to Blueacre presentation 110823 (20)
Ewag - Laser Line Ultra - New brochure released from United Grinding
Ewag - Laser Line Ultra - New brochure released from United Grinding
Ewag - Laser Line Precision - New brochure released from United Grinding
Ewag - Laser Line Precision - New brochure released from United Grinding
Metal cutting techniques and Metal Forming by Laser .pdf
Metal cutting techniques and Metal Forming by Laser .pdf
What Are The Main Components Of Tube And Pipe Laser Cutting Machines?
What Are The Main Components Of Tube And Pipe Laser Cutting Machines?
Laser cutting & Plasma cutting machines for textiles
Laser cutting & Plasma cutting machines for textiles
Measurement and metrology products guide - Banbros engineering
Measurement and metrology products guide - Banbros engineering
Optics & Allied Engg. Pvt. Ltd., - Company Profile
Optics & Allied Engg. Pvt. Ltd., - Company Profile
Recently uploaded
Acute Gout Care & Urate Lowering Therapy .pdf
In this document , the management of acute gout attacks and a description of urate lowering therapy is mentioned.
Cosmetology and Trichology Courses at Kosmoderma Academy PRP (Hair), DR Growt...
Cosmetology and Trichology Courses at Kosmoderma Academy PRP (Hair), DR Growt...Kosmoderma Academy Of Aesthetic Medicine
Kosmoderma Academy, a leading institution in the field of dermatology and aesthetics, offers comprehensive courses in cosmetology and trichology. Our specialized courses on PRP (Hair), DR+Growth Factor, GFC, and Qr678 are designed to equip practitioners with advanced skills and knowledge to excel in hair restoration and growth treatments.
Artificial Intelligence Symposium (THAIS)
Artificial Intelligence Symposium (THAIS). Parc Taulí. Sabadell
June 2024 Oncology Cartoons By Dr Kanhu Charan Patro
une 2024 Oncology Cartoons By Dr Kanhu Charan Patro
MERCURY GROUP.BHMS.MATERIA MEDICA.HOMOEOPATHY
Mercurius is named after the roman god mercurius, the god of trade and science. The planet mercurius is named after the same god. Mercurius is sometimes called hydrargyrum, means ‘watery silver’. Its shine and colour are very similar to silver, but mercury is a fluid at room temperatures. The name quick silver is a translation of hydrargyrum, where the word quick describes its tendency to scatter away in all directions.
The droplets have a tendency to conglomerate to one big mass, but on being shaken they fall apart into countless little droplets again. It is used to ignite explosives, like mercury fulminate, the explosive character is one of its general themes.
Osteoporosis - Definition , Evaluation and Management .pdf
Osteoporosis is an increasing cause of morbidity among the elderly.
In this document , a brief outline of osteoporosis is given , including the risk factors of osteoporosis fractures , the indications for testing bone mineral density and the management of osteoporosis
CLEAR ALIGNER THERAPY IN ORTHODONTICS .pptx
Dr. ZANAB FARHEEN FAYAZ ,MDS(ORTHODONTICS & DENTOFACIAL ORTHOPEDICS ).
Pharmacology of 5-hydroxytryptamine and Antagonist
5-hydroxytryptamine or 5-HT or Serotonin is a neurotransmitter that serves a range of roles in the human body. It is sometimes referred to as the happy chemical since it promotes overall well-being and happiness.
It is mostly found in the brain, intestines, and blood platelets.
5-HT is utilised to transport messages between nerve cells, is known to be involved in smooth muscle contraction, and adds to overall well-being and pleasure, among other benefits. 5-HT regulates the body's sleep-wake cycles and internal clock by acting as a precursor to melatonin.
It is hypothesised to regulate hunger, emotions, motor, cognitive, and autonomic processes.
Top Travel Vaccinations in Manchester
Travel vaccination in Manchester offers comprehensive immunization services for individuals planning international trips. Expert healthcare providers administer vaccines tailored to your destination, ensuring you stay protected against various diseases. Conveniently located clinics and flexible appointment options make it easy to get the necessary shots before your journey. Stay healthy and travel with confidence by getting vaccinated in Manchester. Visit us: www.nxhealthcare.co.uk
Adhd Medication Shortage Uk - trinexpharmacy.com
The UK is currently facing a Adhd Medication Shortage Uk, which has left many patients and their families grappling with uncertainty and frustration. ADHD, or Attention Deficit Hyperactivity Disorder, is a chronic condition that requires consistent medication to manage effectively. This shortage has highlighted the critical role these medications play in the daily lives of those affected by ADHD. Contact : +1 (747) 209 – 3649 E-mail : sales@trinexpharmacy.com
Medical Quiz ( Online Quiz for API Meet 2024 ).pdf
This quiz was conducted as a promotional event for the 2024 Annual Meet of Kerala Chapter of API.
More than 20 participants took part everyday !
NARCOTICS- POLICY AND PROCEDURES FOR ITS USE
This document outlines policies and procedures for handling narcotic and controlled drugs in NABH accredited hospitals.
Recently uploaded (20)
Cosmetology and Trichology Courses at Kosmoderma Academy PRP (Hair), DR Growt...
Cosmetology and Trichology Courses at Kosmoderma Academy PRP (Hair), DR Growt...
Outbreak management including quarantine, isolation, contact.pptx
Outbreak management including quarantine, isolation, contact.pptx
June 2024 Oncology Cartoons By Dr Kanhu Charan Patro
June 2024 Oncology Cartoons By Dr Kanhu Charan Patro
Osteoporosis - Definition , Evaluation and Management .pdf
Osteoporosis - Definition , Evaluation and Management .pdf
Pharmacology of 5-hydroxytryptamine and Antagonist
Pharmacology of 5-hydroxytryptamine and Antagonist
Tests for analysis of different pharmaceutical.pptx
Tests for analysis of different pharmaceutical.pptx
Medical Quiz ( Online Quiz for API Meet 2024 ).pdf
Medical Quiz ( Online Quiz for API Meet 2024 ).pdf
Blueacre presentation 110823
- 2. ● Is specialised in the development of laser micro machining processes for the manufacturing of innovative medical devices in a variety of materials (Plastics, Ceramics, Glass, Metals) ● Manufactures small to medium volumes on dedicated laser production equipment ● Design and construction of customer specific laser micro machining equipment, including necessary product handling and automation ● Key is the dedicated software used to control laser, optics and product handling
- 4. 1mm Diameter PEEK Polymer Stent 25 um strut width
- 5. SEM image of 600um high micro-needles formed in laser cut micro-mold
- 6. Range of features machined into 1mm Diameter Carbon fibre tube
- 7. Rotational joint laser cut from single stainless steel tube
- 8. Stripping of braded catheters
- 9. Small holes starting from 3-4 micron
- 10. 50 micron thick flex-beam machined in PEEK polymer
- 11. Basket and spiral profiles machined in PEEK tubing
- 12. Laser cut polyimide cuts next to 5 €cent coin for scale
- 14. Laser cut tube clip from stainless steel
- 15. Medium volume in-house production service
- 16. 6 AXIS UV LASER SYSTEM Cutting and Marking of Flat and Tube Material Accuracy +/- 0.005 mm
- 18. Near Infrared Laser Annealing System
- 19. BLU-LASE Turn Key Laser Solutions
- 20. 2D & 3D CAD 3D Visualisation Manufacturin g In-house mechanical design for custom tooling
- 21. UV LASER SYSTEM Selective Stripping and Cutting of Tube Products