Additive manufacturing is currently at a rapid growth stage. New processes and technologies are being created, the old ones are being optimized.
There are already many companies in the market that produce various 3D printers, develop software and print parts.
Some perceive additive technologies as technologies to create new types of machine-tools, others as independent technologies.
But the commercial success of additive technologies has already caused discussion of different approaches. We're talking about the type of architecture. It's a closed and open architecture of devices for additive technologies.
Does it make sense to use open architecture in this sphere of technology?
What is 3D printing , How Does 3D Printing Work , Types of 3d printing , The History of 3D Printing , 3D Printing Technologies , Common manufactures of 3D printing , 3D Printing Materials , 3D Printing Common applications , Things can't be 3D Printed , By Eng. Osama Ghandour
#WhatIs3DPrinting , #HowDoes3DPrintingWork , #TypesOf3dPrinting , #TheHistoryOf3DPrinting , #3DPrintingTechnologies , #CommonManufacturesOf3DPrinting , #3DPrintingMaterials , #3DPrintingCommonApplications , #ThingsCan'tBe3DPrinted , #ByEng.OsamaGhandour ,
The document discusses 3D printing at Thürmer Tools, a small Danish manufacturer. Thürmer started using 3D printing for cutting tools in 2013 and has since expanded its use of the technology. It won an award for increasing competitiveness through digitalization. While other Danish companies are still in the awareness phase of adopting 3D printing, Thürmer sees itself as being in the innovation phase. The document outlines the various phases of 3D printing adoption and argues that a lack of skills and understanding has prevented wider use of 3D printing in Danish manufacturing. It provides examples of how Thürmer has used 3D printing technology for tool design and low volume production. Finally, it discusses visions for the future role of 3D
Rapid Prototyping is a disruptive technology all set to redefine the manufacturing industry. But how well do you know about it? This presentation highlights 3 important things that you should know, if you are actually planning to use this technology in near future.
23 things a manufacturing engineer does 240 days a yearLaura Kiley
A manufacturing engineer is responsible for overseeing the entire production process and ensuring a high quality product is produced efficiently. During a typical day, a manufacturing engineer will develop production plans, optimize machinery and tools, implement process improvements, troubleshoot issues, and review product designs. They work to minimize costs, reduce waste, and continuously improve manufacturing technologies.
Both traditional and modern manufacturing methods have changed the face of the manufacturing industry over the years. But which method is best for the job at hand? Here's an overview of how the most common manufacturing methods compare.
What is 3D printing , How Does 3D Printing Work , Types of 3d printing , The History of 3D Printing , 3D Printing Technologies , Common manufactures of 3D printing , 3D Printing Materials , 3D Printing Common applications , Things can't be 3D Printed , By Eng. Osama Ghandour
#WhatIs3DPrinting , #HowDoes3DPrintingWork , #TypesOf3dPrinting , #TheHistoryOf3DPrinting , #3DPrintingTechnologies , #CommonManufacturesOf3DPrinting , #3DPrintingMaterials , #3DPrintingCommonApplications , #ThingsCan'tBe3DPrinted , #ByEng.OsamaGhandour ,
The document discusses 3D printing at Thürmer Tools, a small Danish manufacturer. Thürmer started using 3D printing for cutting tools in 2013 and has since expanded its use of the technology. It won an award for increasing competitiveness through digitalization. While other Danish companies are still in the awareness phase of adopting 3D printing, Thürmer sees itself as being in the innovation phase. The document outlines the various phases of 3D printing adoption and argues that a lack of skills and understanding has prevented wider use of 3D printing in Danish manufacturing. It provides examples of how Thürmer has used 3D printing technology for tool design and low volume production. Finally, it discusses visions for the future role of 3D
Rapid Prototyping is a disruptive technology all set to redefine the manufacturing industry. But how well do you know about it? This presentation highlights 3 important things that you should know, if you are actually planning to use this technology in near future.
23 things a manufacturing engineer does 240 days a yearLaura Kiley
A manufacturing engineer is responsible for overseeing the entire production process and ensuring a high quality product is produced efficiently. During a typical day, a manufacturing engineer will develop production plans, optimize machinery and tools, implement process improvements, troubleshoot issues, and review product designs. They work to minimize costs, reduce waste, and continuously improve manufacturing technologies.
Both traditional and modern manufacturing methods have changed the face of the manufacturing industry over the years. But which method is best for the job at hand? Here's an overview of how the most common manufacturing methods compare.
White paper 3d_printer_buyers_guide_09.21.16_usen_webYugandhar Nambala
OUTSOURCING SOFTWARE DEVELOPMENT PROJECTS
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IT-ITES SERVICES is a one-stop shop for all your business process outsourcing requirements. We have a number of projects available with comparatively high payout.
Need a right Client to while providing a project,s .
We have Bulk of projects , We need right Technical Person .
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Software Development Projects Please contact
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PLEASE SEND PROFILE THROUGH MAIL : outsourcingprojectsit@gmail.com
The 3D printing process builds a three-dimensional object from a computer-aided design model, usually by successively adding material layer by layer, which is why it is also called additive manufacturing,
Harbor Research: 3D Printing Growth OpportunityHarbor Research
This document discusses 3D printing as a growth opportunity for smart systems. It provides an overview of the 3D printing market and key trends, including increasing speeds and decreasing costs of printers. While adoption has been limited by materials and other factors, the document outlines several innovators in the 3D printing space that are working to address pain points and drive further adoption through new technologies and business models. It also provides a breakdown of the 3D printing ecosystem and the various players involved.
This document provides an overview of 3D printing and tooling. It begins by stating the educational objectives and outcomes of the course, which are to understand the principles, methods, materials, possibilities, limitations and environmental effects of additive manufacturing technologies.
The document then covers the different units that will be taught, with the first unit providing an introduction to additive manufacturing. It discusses the history and need for additive manufacturing, provides a classification of the different technologies, and discusses how additive manufacturing is used in product development. It also introduces the different materials that can be used for additive manufacturing.
In closing, the document emphasizes that additive manufacturing enables both a design and industrial revolution across many industries such as aerospace, energy, automotive
The document discusses turnkey manufacturing and its advantages. Turnkey manufacturing involves producing and assembling products close to home to save time and money compared to overseas outsourcing. It refers to a product or service that is completely ready to operate once turned on by the end user. Hiring a turnkey manufacturer has the advantage of dealing with a single specialized company that handles all aspects of production from design to completion. This streamlines the process compared to using multiple separate companies for each step. Turnkey companies provide services ranging from materials acquisition to final testing before market release.
The document provides an overview of 3D printing including its history, working principles, types of printing processes, and conclusions about its use. It discusses how 3D printing has gained importance in manufacturing over the past decade as an additive process. The working principle involves forming a 3D model, printing the model layer-by-layer, and finishing the model. Different printing types are described like stereolithography, laminated object manufacturing, and fused deposition modeling. In conclusion, 3D printing is positioned to become more widely used for prototyping and production, though challenges around quality and intellectual property protection remain.
Role of 3D Printer in Additive ManufacturingIRJET Journal
1) The document discusses the role of 3D printers in additive manufacturing. It describes how 3D printers build objects layer by layer from digital files using various materials like plastics and metals.
2) Material extrusion is highlighted as a common 3D printing technique where thermoplastic filament is heated and selectively deposited through a nozzle to build layers. This approach is inexpensive but slower than others.
3) Examples of parts made using 3D printing include a two-stroke engine, impeller, and jaw chuck. The document outlines the process of designing models, preparing files for printing, and some issues that can occur.
3D printing, also known as additive manufacturing, is a process where three dimensional objects are created by laying down successive layers of material under computer control. A 3D printer is a device used to create these 3D objects. 3D printing is used across many industries like industrial design, architecture, automotive, aerospace, dental and medical as it allows for quick creation of physical models and prototypes.
Additive manufacturing, also known as 3D printing, has been evolving for decades. Early 3D printers were expensive and produced low quality products, limiting growth. Patent expirations led to cheaper consumer 3D printers. While quality is still improving, additive manufacturing is being used more in fields like medicine, engineering, and space travel. There are several types of 3D printing processes that work in different ways, such as material jetting, powder bed fusion, and material extrusion. Additive manufacturing allows for complex designs and less waste but also has slower speeds and higher costs than traditional manufacturing.
3D printing, also known as additive manufacturing, involves building three-dimensional objects layer by layer rather than carving or molding material away. It allows for complex designs with less waste and can be used for rapid prototyping, low-volume manufacturing, medical devices, education, and more. As 3D printing integrates with digital twin technology and smart manufacturing within Industry 4.0, it drives innovation and efficiency through greater flexibility and responsiveness.
3D Printing (Additive Manufacturing) PPT & PDFmangadynasty5
Definition:
3D Printing, also known as Additive Manufacturing (AM), is a revolutionary manufacturing process that constructs three-dimensional objects layer by layer from a digital model. Unlike traditional subtractive manufacturing methods that involve cutting or shaping material to create an object, 3D printing adds material gradually, allowing for highly complex and customized designs.
This document discusses how upholstered furniture manufacturers can reduce production lead times and get products to market faster. It provides five key ways to speed up the product development process: 1) use 3D virtual prototyping software to quickly approve designs, 2) automate approval processes to streamline decision making, 3) empower cross-functional teams to collaborate more efficiently, 4) leverage automated data updates to enable fast design changes, and 5) adapt quickly to changing needs through technology integration expertise. The document also outlines five ways to shorten the production process, such as building flexibility, streamlining processes, optimizing material usage, ensuring quality, and tracking performance metrics.
For Information about technology and the Future technology
to read the article click links given below
https://www.informationtechnologys.world
https://bit.ly/3KzGyrC
How to do 3D printing in Architecture.pdfMwataTshituka
Since the age of the Pharaohs, architectural models have served as physical representations during structures’ development to help sell a project, support fundraising efforts, and solve construction challenges.
Traditionally, model-making is a manual craft that involves working with materials such as wood, ceramic, cardboard, or clay, which can be extremely time-consuming and repetitive. Architecture studios and practices today have access to a wider range of tools, including CNC milling machines, laser cutters, and 3D printers that can reduce labor needs and speed up the workflow.
Despite a move from the drawing board to digital screens, physical architectural models still play a significant role in helping architects visualize blueprints.
3D printing technologies help bridge the gap between digital and physical worlds and empower architects and model makers to create high-precision architectural models quickly and cost-effectively directly from digital drawings.
Modern 3D printing processes provide architects and model makers with the means to revolutionize how models are made. They do this by: Speeding up the architectural model making process. Translating CAD drawing directly into physical 3D models with a high level of precision.
This book gives a brief breakdown of how to design 3D printing designs in Architecture, accompanied by links to get more detailed description of what 3D printing in the Architecture industry is all about. It is designed to help those looking to go into a different kind of design and printing particularly in the Architecture department to have a clear and better understanding of the types of printing softwares and how to use them as well as knowing the how beneficial they are in the Architectural industry.
Foster + Partners has fully integrated rapid prototyping into its design process over the last 15 years. Initially used as a sketch model making tool, rapid prototyping now produces around 4,000 models per year and has become an essential design tool. The adoption of in-house 3D printing accelerated the design process by allowing designs to be reviewed and revised daily. Rapid prototyping has improved CAD modelling practices and raised the quality of digital design representations. Foster + Partners now sees rapid prototyping and manufacturing as changing how architects think about design and pushing the boundaries of building components beyond traditional materials and assemblies.
Learning material under the project ECVET compatible 3D printing training modules for automotive technologies. Funded by the European Union under Erasmu+.
This presentation outlines the outcomes of 3D printing on entrepreneurship.
The evolution of 3D printers, The market opportunity, and the application in industry.
This document provides an overview of virtual product development and product building and structure. It discusses the benefits of virtual product development over traditional methods, including reducing costs and time to market. It also describes various virtual product development tools like 3D CAD systems and digital mockups that allow designing, simulating, and testing virtual products and prototypes without building physical ones. The document outlines techniques for building virtual product models like solid modeling and parametric modeling. It also discusses analyzing virtual product models using computer-aided engineering tools.
3D printing is an additive manufacturing process where a three-dimensional object is created by laying down successive layers of material under computer control. The digital design is sliced into thin layers and the 3D printer reads these slices and deposits material layer by layer until the object is complete. There are different 3D printing processes that use materials like liquid, powder, or sheet materials and deposit them in layers through melting, softening, or bonding the materials. The process allows for fast and easy production of complex 3D objects from a digital model.
Filtration technology is widely used but additive manufacturing has not yet been applied to filter production. The document proposes developing additive technologies for printing filters from metals and ceramics with controlled porosity. This would allow for more complex filter designs not possible with traditional methods. The plan involves developing specialized 3D printers then working with industrial partners to produce and test large filters.
More Related Content
Similar to Additive manufacturing. Open architecture
White paper 3d_printer_buyers_guide_09.21.16_usen_webYugandhar Nambala
OUTSOURCING SOFTWARE DEVELOPMENT PROJECTS
We are providing Outsourcing Software development Project its
Need parties to Work .
Note : We can provide to do the project ( Work at Home ) & ( Interested clients can contact Us ) First Please Mail Your Profile. we provide full security & all proof's .and you can come to our client Office. we provide the address.
Terms & Conditions :
First You have to send your Profile or CV to our mail, then we check profile based on we will decided that you have capable to do that project or not then also decided we have to give the project or not, then Our employee's will contact you & you have to come to our place & we will explain the project then after everything OK we will put agreement then take deposit amount ( Its refund able deposit only for security of projects ). its not about money its about project you will do or not. Please send you Complete profile to our mail:id.
New Projects :
We are providing Software projects like : List Below for more details attend to office directly with your profile.
Web Development software development projects
Web Designing Software projects
Java & Oracle Software projects
Microsoft .Net software development projects
Hardware & Networking Projects
Animation Projects ( 2d & 3d )
Autocad designing & development projects
Server ( windows & Linux ) based projects.
Data Entry Projects ( typing )
Movie's development projects.
And more .We are ready to give Outsourcing to any Company & Individual for this they need Skills....
We Have Software Development Projects (Need Software Projects .Net & Web &hardware & networking & BPO, Data entry, etc...)
Required party's to work software development projects
Software Development Projects ( please contact )
IT-ITES SERVICES is a one-stop shop for all your business process outsourcing requirements. We have a number of projects available with comparatively high payout.
Need a right Client to while providing a project,s .
We have Bulk of projects , We need right Technical Person .
We are Providing Software Development Projects for Outsourcing.
Software Development Projects Please contact
For More Details Attend to Office : Contact : Ramu ( 91-)
PLEASE SEND PROFILE THROUGH MAIL : outsourcingprojectsit@gmail.com
The 3D printing process builds a three-dimensional object from a computer-aided design model, usually by successively adding material layer by layer, which is why it is also called additive manufacturing,
Harbor Research: 3D Printing Growth OpportunityHarbor Research
This document discusses 3D printing as a growth opportunity for smart systems. It provides an overview of the 3D printing market and key trends, including increasing speeds and decreasing costs of printers. While adoption has been limited by materials and other factors, the document outlines several innovators in the 3D printing space that are working to address pain points and drive further adoption through new technologies and business models. It also provides a breakdown of the 3D printing ecosystem and the various players involved.
This document provides an overview of 3D printing and tooling. It begins by stating the educational objectives and outcomes of the course, which are to understand the principles, methods, materials, possibilities, limitations and environmental effects of additive manufacturing technologies.
The document then covers the different units that will be taught, with the first unit providing an introduction to additive manufacturing. It discusses the history and need for additive manufacturing, provides a classification of the different technologies, and discusses how additive manufacturing is used in product development. It also introduces the different materials that can be used for additive manufacturing.
In closing, the document emphasizes that additive manufacturing enables both a design and industrial revolution across many industries such as aerospace, energy, automotive
The document discusses turnkey manufacturing and its advantages. Turnkey manufacturing involves producing and assembling products close to home to save time and money compared to overseas outsourcing. It refers to a product or service that is completely ready to operate once turned on by the end user. Hiring a turnkey manufacturer has the advantage of dealing with a single specialized company that handles all aspects of production from design to completion. This streamlines the process compared to using multiple separate companies for each step. Turnkey companies provide services ranging from materials acquisition to final testing before market release.
The document provides an overview of 3D printing including its history, working principles, types of printing processes, and conclusions about its use. It discusses how 3D printing has gained importance in manufacturing over the past decade as an additive process. The working principle involves forming a 3D model, printing the model layer-by-layer, and finishing the model. Different printing types are described like stereolithography, laminated object manufacturing, and fused deposition modeling. In conclusion, 3D printing is positioned to become more widely used for prototyping and production, though challenges around quality and intellectual property protection remain.
Role of 3D Printer in Additive ManufacturingIRJET Journal
1) The document discusses the role of 3D printers in additive manufacturing. It describes how 3D printers build objects layer by layer from digital files using various materials like plastics and metals.
2) Material extrusion is highlighted as a common 3D printing technique where thermoplastic filament is heated and selectively deposited through a nozzle to build layers. This approach is inexpensive but slower than others.
3) Examples of parts made using 3D printing include a two-stroke engine, impeller, and jaw chuck. The document outlines the process of designing models, preparing files for printing, and some issues that can occur.
3D printing, also known as additive manufacturing, is a process where three dimensional objects are created by laying down successive layers of material under computer control. A 3D printer is a device used to create these 3D objects. 3D printing is used across many industries like industrial design, architecture, automotive, aerospace, dental and medical as it allows for quick creation of physical models and prototypes.
Additive manufacturing, also known as 3D printing, has been evolving for decades. Early 3D printers were expensive and produced low quality products, limiting growth. Patent expirations led to cheaper consumer 3D printers. While quality is still improving, additive manufacturing is being used more in fields like medicine, engineering, and space travel. There are several types of 3D printing processes that work in different ways, such as material jetting, powder bed fusion, and material extrusion. Additive manufacturing allows for complex designs and less waste but also has slower speeds and higher costs than traditional manufacturing.
3D printing, also known as additive manufacturing, involves building three-dimensional objects layer by layer rather than carving or molding material away. It allows for complex designs with less waste and can be used for rapid prototyping, low-volume manufacturing, medical devices, education, and more. As 3D printing integrates with digital twin technology and smart manufacturing within Industry 4.0, it drives innovation and efficiency through greater flexibility and responsiveness.
3D Printing (Additive Manufacturing) PPT & PDFmangadynasty5
Definition:
3D Printing, also known as Additive Manufacturing (AM), is a revolutionary manufacturing process that constructs three-dimensional objects layer by layer from a digital model. Unlike traditional subtractive manufacturing methods that involve cutting or shaping material to create an object, 3D printing adds material gradually, allowing for highly complex and customized designs.
This document discusses how upholstered furniture manufacturers can reduce production lead times and get products to market faster. It provides five key ways to speed up the product development process: 1) use 3D virtual prototyping software to quickly approve designs, 2) automate approval processes to streamline decision making, 3) empower cross-functional teams to collaborate more efficiently, 4) leverage automated data updates to enable fast design changes, and 5) adapt quickly to changing needs through technology integration expertise. The document also outlines five ways to shorten the production process, such as building flexibility, streamlining processes, optimizing material usage, ensuring quality, and tracking performance metrics.
For Information about technology and the Future technology
to read the article click links given below
https://www.informationtechnologys.world
https://bit.ly/3KzGyrC
How to do 3D printing in Architecture.pdfMwataTshituka
Since the age of the Pharaohs, architectural models have served as physical representations during structures’ development to help sell a project, support fundraising efforts, and solve construction challenges.
Traditionally, model-making is a manual craft that involves working with materials such as wood, ceramic, cardboard, or clay, which can be extremely time-consuming and repetitive. Architecture studios and practices today have access to a wider range of tools, including CNC milling machines, laser cutters, and 3D printers that can reduce labor needs and speed up the workflow.
Despite a move from the drawing board to digital screens, physical architectural models still play a significant role in helping architects visualize blueprints.
3D printing technologies help bridge the gap between digital and physical worlds and empower architects and model makers to create high-precision architectural models quickly and cost-effectively directly from digital drawings.
Modern 3D printing processes provide architects and model makers with the means to revolutionize how models are made. They do this by: Speeding up the architectural model making process. Translating CAD drawing directly into physical 3D models with a high level of precision.
This book gives a brief breakdown of how to design 3D printing designs in Architecture, accompanied by links to get more detailed description of what 3D printing in the Architecture industry is all about. It is designed to help those looking to go into a different kind of design and printing particularly in the Architecture department to have a clear and better understanding of the types of printing softwares and how to use them as well as knowing the how beneficial they are in the Architectural industry.
Foster + Partners has fully integrated rapid prototyping into its design process over the last 15 years. Initially used as a sketch model making tool, rapid prototyping now produces around 4,000 models per year and has become an essential design tool. The adoption of in-house 3D printing accelerated the design process by allowing designs to be reviewed and revised daily. Rapid prototyping has improved CAD modelling practices and raised the quality of digital design representations. Foster + Partners now sees rapid prototyping and manufacturing as changing how architects think about design and pushing the boundaries of building components beyond traditional materials and assemblies.
Learning material under the project ECVET compatible 3D printing training modules for automotive technologies. Funded by the European Union under Erasmu+.
This presentation outlines the outcomes of 3D printing on entrepreneurship.
The evolution of 3D printers, The market opportunity, and the application in industry.
This document provides an overview of virtual product development and product building and structure. It discusses the benefits of virtual product development over traditional methods, including reducing costs and time to market. It also describes various virtual product development tools like 3D CAD systems and digital mockups that allow designing, simulating, and testing virtual products and prototypes without building physical ones. The document outlines techniques for building virtual product models like solid modeling and parametric modeling. It also discusses analyzing virtual product models using computer-aided engineering tools.
3D printing is an additive manufacturing process where a three-dimensional object is created by laying down successive layers of material under computer control. The digital design is sliced into thin layers and the 3D printer reads these slices and deposits material layer by layer until the object is complete. There are different 3D printing processes that use materials like liquid, powder, or sheet materials and deposit them in layers through melting, softening, or bonding the materials. The process allows for fast and easy production of complex 3D objects from a digital model.
Similar to Additive manufacturing. Open architecture (20)
Filtration technology is widely used but additive manufacturing has not yet been applied to filter production. The document proposes developing additive technologies for printing filters from metals and ceramics with controlled porosity. This would allow for more complex filter designs not possible with traditional methods. The plan involves developing specialized 3D printers then working with industrial partners to produce and test large filters.
The document discusses different types of masks and respirators, their construction, materials, and standards. It describes face masks as having minimum requirements and not for medical use. Medical face masks are tested according to standards and intended to prevent transmission of particles/droplets. Respirators are designed to filter both solid particles and liquid droplets for personal protective equipment. They are subject to standards like EN 149 and have features like tight fitting and volume design for breathing. Modern masks and respirators use multilayer construction with layers serving purposes like outer protection, inner comfort, and electrostatic filtration.
Fine Systems Technologies provides technology consulting services such as product and technology development, requirements analysis, design, and project support. They work with clients to develop new devices, technologies, and production processes. Their team of engineers, designers, and technology specialists can complement a client's internal development department or handle full product development. Services are tailored to each project and may include consultation, concept development, prototyping, small production runs, and integration of electronics, optics, and other components.
Компания «Тонкие системные технологии» проводит техническое и технологическое консультирование.
Если нужно создать устройство, технологию, установку – мы можем в этом помочь.
Если нет собственного отдела разработок – мы можем разработать для вас продукт или технологию.
Компания «Тонкие системные технологии» создана для работы с нестандартными проектами. В ситуации, когда нет типовых решений, при разработке технологии или устройства необходим специальный подход к работе с поставленными задачами.
Это работа над новыми продуктами и технологиями, новые рынки и бизнес-модели, проекты на стыке нескольких областей, переход от идеи к разработке и от разработки к производству.
Компания «Тонкие системные технологии» сформирована для работы с новыми нестандартными проектами. Это необходимо при разработке новых технологий и продуктов.
In XWS sources light is produced by plasma
which emits light due to the continuous
energy input from a laser (optical discharge).
These light sources have been
developed as a replacement of traditional
gas discharge lamps (Deuterium-,
Tungsten-, Xenon- lamps etc.) and LEDs.
Compared to these, XWS sources have a
wider spectral range and higher spectral
brightness. Moreover, the technology of
plasma light sources allows developing
units with specific characteristics which
match special customer applications.
XWS — плазменный широкополосный источник излучения с лазерной накачкойVladislav Troshin
XWS — плазменный широкополосный источник излучения с лазерной накачкой.
В источниках XWS излучение даёт плазма, светящаяся под действием непрерывного лазерного излучения (оптический разряд). Эти источники разработаны для замены традиционных газоразрядных ламп (ксеноновых, дейтериевых, ртутных) и светодиодов. По сравнению с ними XWS имеет более высокую яркость и расширенный спектральный диапазон. Кроме того, технология плазменных источников излучения позволяет разрабатывать устройства со специфическими характеристиками для решения особых задач пользователей.
The document describes the structure of DNA and RNA molecules at the nucleotide level. It shows the phosphate backbone and sugar-phosphate groups that make up the structure, with nitrogenous bases bonding between strands in the DNA double helix or within RNA. Various DNA and RNA sequences are displayed.
Let's Integrate MuleSoft RPA, COMPOSER, APM with AWS IDP along with Slackshyamraj55
Discover the seamless integration of RPA (Robotic Process Automation), COMPOSER, and APM with AWS IDP enhanced with Slack notifications. Explore how these technologies converge to streamline workflows, optimize performance, and ensure secure access, all while leveraging the power of AWS IDP and real-time communication via Slack notifications.
Skybuffer SAM4U tool for SAP license adoptionTatiana Kojar
Manage and optimize your license adoption and consumption with SAM4U, an SAP free customer software asset management tool.
SAM4U, an SAP complimentary software asset management tool for customers, delivers a detailed and well-structured overview of license inventory and usage with a user-friendly interface. We offer a hosted, cost-effective, and performance-optimized SAM4U setup in the Skybuffer Cloud environment. You retain ownership of the system and data, while we manage the ABAP 7.58 infrastructure, ensuring fixed Total Cost of Ownership (TCO) and exceptional services through the SAP Fiori interface.
Unlock the Future of Search with MongoDB Atlas_ Vector Search Unleashed.pdfMalak Abu Hammad
Discover how MongoDB Atlas and vector search technology can revolutionize your application's search capabilities. This comprehensive presentation covers:
* What is Vector Search?
* Importance and benefits of vector search
* Practical use cases across various industries
* Step-by-step implementation guide
* Live demos with code snippets
* Enhancing LLM capabilities with vector search
* Best practices and optimization strategies
Perfect for developers, AI enthusiasts, and tech leaders. Learn how to leverage MongoDB Atlas to deliver highly relevant, context-aware search results, transforming your data retrieval process. Stay ahead in tech innovation and maximize the potential of your applications.
#MongoDB #VectorSearch #AI #SemanticSearch #TechInnovation #DataScience #LLM #MachineLearning #SearchTechnology
Building Production Ready Search Pipelines with Spark and MilvusZilliz
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Nordic Marketo Engage User Group_June 13_ 2024.pptx
Additive manufacturing. Open architecture
1.
2. Additive manufacturing is currently at a rapid growth stage. New
processes and technologies are being created, the old ones are being
optimized.
There are already many companies in the market that produce various
printers, develop software and print parts.
Some perceive additive technologies as technologies to create new
of machine-tools, others as independent technologies.
But the commercial success of additive technologies has already caused
discussion of different approaches. We're talking about the type of
architecture. It's a closed and open architecture of devices for additive
technologies.
Does it make sense to use open architecture in this sphere of
technology?
3. Why did the question of open architecture come up? Why is a closed
architecture used?
Most machine shops and production facilities traditionally use ready-
made materials or workpieces when working with metal. The situation is
similar in metal casting. The processes themselves have long been
and predictable.
But this is not the situation with additive technologies. Very much
depends on the quality of the powder used. The detail as a whole arises
the printing process. Process conditions, printing strategy, the model
used, and much more highly affect the result.
Certainly, users of 3D printers are not interested in losses of time for the
development of process and a choice of conditions, a choice of
In areas demanding high quality and repeatability, especially in the
aerospace industry, ready-to-use details and many processes should
strictly meet numerous standards and requirements.
As a result, closed architecture, where strictly defined materials are used
and printing processes are strictly defined, is the most advantageous for
users.
4. Then why open architecture?
Additive production is very different from traditional types of material
processing.
In addition to the possibility of making previously inaccessible forms, with
the help of additive technologies, it is possible to work with materials,
create internal structures, integrate these technologies into production
processes.
Additive technologies make it possible to use different materials. For
metals, it is working with different alloys, mixtures of different alloys.
Management of printing processes allows managing the properties of
final products.
When creating internal structures it is possible not only to work with the
geometry of the product but also to place other structures, such as
sensors and complete devices in the parts.
The ready-made machine tool is difficult to integrate with many
processes. When printing, each layer can be processed in additional
selectively, and divided into separate stages.
5. Then why open architecture?
Additive production is very different from traditional types of material
processing.
Closed architecture Open architecture
Materials Work with a narrow range of metals and alloys. Often
only materials from certain manufacturers can be
There are no limits on the use of materials. It is
possible to work with almost any suitable
materials. There is no limitation on the
manufacturer of materials. It is possible to mix
different materials
Printing Processes The printing process is determined by the 3D printer
manufacturer. A limited set of parameters. It is not
possible to include additional devices (e.g.
heating/cooling). Process control sensors are usually
preset
It can be determined by the printer
The parameters can be varied over a wider
Additional devices can be built into the printers.
Various process control sensors can be used
Printing strategies Use of printing strategies depends on pre-installed
software
Printing strategies can be developed
independently or with the participation of third
parties, including printer manufacturers
Integration into process chains No. The 3D printer is used as a stand-alone machine
tool
It is possible to carry out the necessary R&D for
inclusion in production processes
Additional processes No. The 3D printer is used as a stand-alone machine
tool
It is possible to carry out the necessary R&D to
use additional processes
6. Do closed and open architecture compete?
There is no competition between closed and open architecture.
If there is already a proven printing process, all the necessary stages and
certification procedures have been passed, there is continuous
production, the closed architecture is most beneficial to users.
Open architecture is needed in the following cases:
• No proven process for working with individual materials and
technologies;
• Production gets very different tasks and different approaches are
needed;
• New processes need to be developed;
• Integration with other production processes is necessary.
Different approaches to the architecture of 3D printers complement each
other. Printers with open architecture allow you to develop new
that can become the base printer with closed architecture. And working
with closed architecture defines its boundaries and gives an
understanding of where and how to use open architecture.
7. What else restricts the movement of additive production?
Additive technologies, like any new technology, have an entry threshold
for the industry.
It's a new field and you have to learn to work with it. This includes
knowledge about how to create a model of a part, how to choose
materials, how to optimize the process of making a part, and much
Closed architecture is simpler in this aspect. Manufacturers actually put
the necessary knowledge into a closed architecture, and users often only
need to follow guidelines.
When using open architecture, users must either study additive
manufacturing or contact third parties to develop processes.
But in any case, when using additive technologies, training takes place
the entry threshold is reduced.
8. What do we offer?
We are engaged in the development of technologies of the printing by
metals and other materials, we develop and we make 3D printers.
We offer services and equipment for work with new materials and
technologies.
That could include:
• Development of printing by new materials. For example, it may be
different alloys;
• Optimizing printing parameters. For example, optimization of laser
operation modes, preheating and cooling, printing strategies;
• Development of technologies for working with high refractory or
highly reflective materials;
• Integration of 3D printing technologies into production processes.
example, when besides the fusion of powders it is necessary to
additional kinds of processing
As manufacturers and developers, we can work in both closed and open
architecture formats.
9. How can work with open architecture happen?
Some typical work scenarios. There could be more.
We discuss the tasks that additive
technologies in your organization
should solve
Our company develops the necessary
process and 3D printer for this process
We supply the 3D printer to your
organization
We provide the necessary support on
the use of the put functionality or
development of new processes
We agree on a process that should
include additive technologies
Our company develops the necessary
process and equipment for this
We integrate the developed
equipment into your technological
process
We provide the necessary support to
maintain the performance of the
equipment
We coordinate the required 3D printer
configuration.
Our company develops the necessary
3D printer
We supply the 3D printer to your
organization
We provide the necessary support in
the development and maintenance of
processes.
1 2 3
10. Who's this for?
You're a manufacturing company. You already have 3D printers on which
you produce parts.
But what do you do if you need to work on a new process or new
materials? And the already installed printers have closed architecture or
work only with powder strictly from a defined supplier?
On our printer and with our support you will be able to practice this
process and order printers that are optimized for the new process.
On the same printer you can test new models.
You're a machine shop. You are already using 3D printers or plan to buy
them.
Is additive technology new for you?
We will do the necessary part to practice the technology. On our printers
and with our help you can learn to work with such technologies. Choose
the right materials and modes of operation for you.
Besides, if you have your ideas for 3D printing - we will be able to
implement them.
11. Who's this for?
You're a university. You have non-standard challenges, you carry out the
development yourself, teach students, create details for scientific
purposes.
Do you need open architecture?
We offer a support service for our printers. It's possible to make
use different materials, carry out experiments, and much more.
This is especially important when developing new materials, software
(reality testing), training engineers, and material scientists.
Do you make medical implants? You always have non-standard tasks.
Although you are restricted in your choice of materials, you must
develop new designs.
In this area, it is possible to develop solutions to integrate printing
technologies by metals, polymers, ceramics. Integration with bioprinters.
Personalized medicine also requires personalized approaches to
technology.
12. What does our company do?
We develop 3D printing technologies by metals and other materials. We
make and we sell 3D printers.
The main specialization is additive technologies using metals:
• Selective melting and sintering of powders;
• Powder deposition;
• Welding of wire;
• Technologies based on powders and wires
Also, we are now forming the necessary chains to develop technologies
for working with magnetic materials, ceramics (HTS).
This is the development of processes using additive technologies.
Integration of additive processes into production lines.
It includes development:
• Process conditions. For example, the development of heating and
cooling technologies after melting and sintering, controlled cooling,
process atmosphere;
• Technologies for work with different materials. For example,
optimization of work with different alloys, etc.;
• Optimization of individual processes. For example, improving the
optics to support the melting of powders
And even more
Also, we offer the development of technologies in
additive manufacturing.
These are technologies:
• Magnetic materials. Technologies required for
electric motors, generators, etc.;
• Functional gradient materials. Classic
technologies do not allow to realize the full
potential of such materials;
• Superconductors. The creation of products from
superconducting materials is a challenge for
classical technologies;
• Embedded sensors. The potential of Built-in
Sensor Technology is not fully realized in existing
technologies
And many other things...
13. What materials can we work with now?
Now we work with various metals and alloys.
We can list them:
• Steels;
• Titanium;
• Copper;
• Aluminum;
• Magnesium;
• Chromium;
• Nickel;
• Heat-resistant alloys based on tungsten, rhenium, etc.;
• Magnetic cast alloys
For materials in the list, it means both works with pure metals (where it
makes sense) and with their alloys.
It is possible to develop processes for working with other metals and
alloys.
14. In which areas does open architecture apply?
We offer our services and equipment to various organizations and
companies.
These can be manufacturing companies, machine shops, universities.
Main directions:
• Aerospace;
• Marine technology;
• Energy industry;
• Automotive industry;
• Biomedical;
• Chemical engineering;
• Oil and gas industry;
• Food engineering and agriculture;
• Sport;
• Nuclear power industry;
• Railway engineering;
• Infrastructure;
• Tools making and robotization;
• Expensive materials;
• Design;
• Science;
• Superconductors and other
15. Privacy policy
Privacy policy
The development of new products and technologies is costly. Preserving
investment in R&D requires compliance with the policy of non-disclosure
of information about it.
This may be a non-disclosure agreement (NDA) or a reasonable
disclosure of information to engage third parties for work without the
formalizing agreements.
About us
About us
Our development team has been developing equipment for over 10
years. It is a group of companies, each of which specializes in its own
areas of development in different areas of technology.
We have created the necessary technological chains to carry out the
processes of equipment development, production, and market launch of
products.
16. Team
Stanislav Kozin
CEO
Maxim Burmistrov
Chief product designer
Dmitry Grachev
CTO
Sergey Popov
Software & firmware developer
Alexander Detkin
Engineering technologist
Ilya Vlaskin
Designer engineer
Alexey Mityuryaev
Engineering technologist
17. Contact us:
Fine Systems Technologies
Vladislav Troshin (CEO)
troshin@fine-systems.tech
www.fine-systems.tech
AddSol
Dmitriy Grachev (CTO)
info@addsol.tech
www.addsol.tech