Home Blog Page 719

European Commission Acknowledged ESTECO as Key Innovator for EU’s Horizon 2020 Project COMPOSELECTOR

0

TRIESTE, Italy, Aug 17, 2020 – ESTECO has been recently included in the EU Innovation Radar initiative for our contribution to the EU-funded project COMPOSELECTOR.

 

key-innovator-news-radar

 

Based on a data-driven methodology, the Innovation Radar is a European Commission initiative that has the aim of identifying high potential innovations and innovators in EU-funded research and innovation programs. Among others, the EU Commission analyzed and recognized the innovation delivered within the COMPOSELECTOR project, we take part in as a partner.

The purpose of the COMPOSELECTOR project is to develop a Business Decision Support System (BDSS), specifically tailored to enhance the informed decision making in the composite materials design and manufacturing. We’ve been participating in this project with our online BPM editor Cardanit, which contributed to the definition of a system that integrates material modeling, business tools and databases into a single workflow.

The EU Commission categorized the COMPOSELECTOR project according to both maturity level and market potential:

  1. Innovation Title: COMPOSELECTOR
  2. Market Maturity of the Innovation: Tech Ready
  3. Market Creation Potential of the innovation: Addresses needs of existing markets

In this analysis we’ve been acknowledged as “Key Innovator” in the development of this project together with the Luxembourg Institute of Science and Technology (LIST), which is Coordinator of the project.

“We’re very proud of this recognition. We’ve worked hard in this project, consolidating our experience in standard-based solutions, and this acknowledgment represents a further motivation to keep exploring new innovative technologies.”

About ESTECO

ESTECO is an independent software provider, highly specialized in numerical optimization and simulation data management with a sound scientific foundation and a flexible approach to customer needs. With more than 15 years’ experience, the company supports leading organizations in designing the products of the future, today. ESTECO smart engineering suite brings enterprise-wide solutions for design optimization, simulation data management and process integration and automation with the aim of helping companies excel across this innovation journey. Over 300 international organizations across many different industries have chosen ESTECO to consolidate specialized expertise, streamline teamwork and boost product development. Founded in 1999, the company is headquartered in Trieste (Italy), with offices in Michigan (USA), Pune (India) and an international network of channel partners. For more information, visit www.esteco.com.

Invitation
Siemens sd17

Pointwise Releases Webinar on Tractor Trailer Unsteady Aerodynamics

0

FORT WORTH, TX, USA, Aug 17, 2020 – Pointwise released the webinar, “Understanding Tractor Trailer Aerodynamics Using a Time Accurate Approach,” which shows how multi-block hybrid meshing techniques can improve mesh quality and concentrate mesh density in areas of interest.

 

Tractor-TrailerAeromutable Generic Conventional Model (AGCM)

 

Watch the webinar: info.pointwise.com/understanding-tractor-trailer-aerodynamics-using-time-accurate-approach

In the United States, 70 percent of freight tonnage is transported by tractor trailers each year. Tractor trailers spend much of their time at highway speeds, resulting in 65 percent of their fuel consumption being used to overcome aerodynamic drag. Consequently, it is essential to understand the source of this aerodynamic drag and computational fluid dynamics (CFD) is the perfect tool to identify and diagnose these issues.

Watch this webinar showing how SU2 was used for a transient simulation conducted to capture near body drag and wake drag phenomena with a Delayed Detached Eddy model based on the Shear Stress Transport turbulence. The control over mesh topology and boundary layer generation within Pointwise provided a mesh best suited for this simulation.

Discover how to:

  1. Manage mesh topology to improve mesh quality and intelligently resolve flow phenomena.
  2. Gain insight into the systemic aerodynamic drag problem faced by the commercial trucking industry.
  3. Mitigate geometric pinch points in the tire-ground contact regions using Pointwise.

About Pointwise

Pointwise, Inc. is solving the top problem facing computational fluid dynamics (CFD) today – reliably generating high-fidelity meshes. The company’s Pointwise software generates structured, unstructured, overset and hybrid meshes; interfaces with CFD solvers such as ANSYS FLUENT® and CFX®, STAR-CCM+®, OpenFOAM®, and SU2 as well as many neutral formats, such as CGNS; runs on Windows, Linux, and Mac, and has a scripting language, Glyph, that can automate CFD meshing. Manufacturing firms and research organizations worldwide have relied on Pointwise as their complete CFD preprocessing solution since 1994. For more information, visit http://www.pointwise.com.

Improving Product Engineering & Manufacturing for Plastic Components

0

Digitalization helps plastic component manufacturers to understand the impact of material and manufacturing process selection on product costs and performance. Product and tool costing software enable you to determine the best size, shape, or material for a specific part and analyze its performance based on a digital model. That digital model can easily be shared with tooling suppliers by means of cloud-based file sharing.

See the advantages of using Solid Edge.

Read Complete Blog Post 

Source: Siemens Blog

Author: Anthony Johnson

Solid Edge 2021 Feature Highlights: Subdivision Modeling

0

Based on technology that originated in the movie and entertainment industry, subdivision modeling has been adapted to suit manufacturing industry needs. Subdivision modeling is the ability to craft complex geometric shapes in computer-aided design (CAD) software based on intricate organic shapes found in our everyday lives. Users can create stylized shapes and even subdivide the initial shape to add greater levels of detail to the design, with Subdivision Modeling in Solid Edge 2021.

Read Complete Blog Post 

Source: Siemens Blog

Author: Shannon Kruse

 

What’s New in Solid Edge 2021

0

Enhancements Solid Edge 2021, include:

  • Lightning-fast reverse engineering enhancements
  • New subdivision modeling technology for advanced stylized design
  • Improved productivity with new adaptive UI capabilities that harness AI to predict next steps based on user behavior
  • A streamlined process of finding 3D models using intelligent search functions through integration with the CADENAS 3D models and catalog parts
  • Rapid creation and evaluation of multiple design scenarios enabled by concept modeling
  • Fast, accurate 2D layout of industrial control panels with new cabinet panel design capabilities
  • An optimized integration between flow and structural simulation
  • A new searchable postprocessor database and improved roughing and adaptive milling capabilities
  • Enhanced cloud-based collaboration options with the introduction of Teamcenter® Share, which can be used with Solid Edge to synchronize desktop files to secure cloud storage

Check details – Watch Video

Source: Siemens Blog

Author: Shannon Kruse

Everything You Need to Know About Vacuum Forming Plastics

0

Plastics no doubt have become part of our daily life. You cannot go a day without encountering an object that is not made of plastic. From your cellphone case, food packaging, and make-up containers, they come in various forms. But, have you ever wonder how they are made?

Thermoforming is a plastic fabrication technique using a heated sheet of plastic and a mold to form the desired geometry of the output. One kind of thermoforming is called plastic vacuum forming.

Plastic vacuum forming uses vacuum technology where its name is derived. This is not a new technology since we started using this process since the 1930s. But due to continuous advancement, modifications have been added to improve the quality of plastics made from vacuum forming.

This process offers low-cost production, ease of tooling, and speed of replication. The economic value plastic vacuum forming provides makes it popular and the most preferred type of thermoforming.

Read on to find out more about vacuum thermoforming- the process, and its benefits and limitations.

PROCESS IN PLASTIC VACUUM FORMING

Since vacuum forming uses a different range of high temperatures depending on the nature of the plastic resin, the machine operator must wear protective gear for safety purposes.

1. Load

A sheet of plastic is secured between the clamp and the open frame. The plastic sheet can be loaded manually but for automatically operated machines, moving parts must be guarded and interlocked to avoid accidents. Most machines can handle the thickness from 6mm for a single heater to 10 mm for a twin heater.

2. Heat

The plastic is heated with heaters that use infra-red elements. Pyrometer is used to accurately measure the temperature to achieve the melting point. The plastic material then begins to sag. Sometimes machine operators preferred uneven sag that concentrates above the mold to thicken the output.

3. Vacuum

The heated plastic is lowered to mold and a vacuum allows the sheets to stick on its surface. Mold can be classified as a female (concave) and a male mold (convex). When a female mold is used, tiny holes are drilled to introduce the vacuum.

Vacuum refers to a process where the air is removed. The uneven atmospheric pressure allows the plastic sheet to adhere to the mold.

4. Cool

After the vacuum process, the plastic needs to cool before dismounting. Early removal can result in accidental damage to the product. Since most mold used is made of aluminum which is an excellent conductor of heat, the plastic cools easily. For larger output, a fan or cool mist is used to speed up the process.

5. Release

After cooling, the mold and the plastic is removed from the machine. This process should be done gradually to avoid damaging the thinnest portions of the output.

6. Trim

To complete the plastic vacuum forming, the plastic should be trimmed and smoothen to achieve the desired look of the newly produced material.

These are the general steps in plastic vacuum forming but they can differ with added procedures depending on the complexity of the product that will be manufactured.

Benefits of Plastic Vacuum Forming

The advantages of plastics vacuum forming include:

FLEXIBILITY

Vacuum forming allows designers to customize and test different prototypes in a short time. The molds can be made of wood, aluminum, or plastic itself. If product alterations are needed, new mold can be produced immediately at a low cost.

This technique allows the customization of shapes, colors, and sizes to suit the needs of the customers. With the simple steps in operating the machine and low investment cost, it becomes ideal to use for customized products like dental retainers.

AFFORDABILITY

Vacuum forming costs twice less than injection molding. The materials needed for molding and plastic resin are readily available in the market at a low price.

Small capital for manufacturing results in low cost but with high-quality products. Vacuum forming is even ideal for large and small production. The machines used and the price of cost differs with the complexity of the desired product.

The trimmed excess parts of the product can be melted and flattened into sheets for use in the next process.

TURNAROUND TIME

Vacuum forming can produce a large number of products faster than other thermoforming methods. Manufacturers use 3D design to further expedite the process without compromising quality. Businesses can then think of new products and make them readily available to customers.

This is ideal for products that are consumed at a higher rate like food packaging, cosmetics, and medical and pharmaceutical kits.

Limitations of Plastic Vacuum Forming

Vacuum forming is like any other method of plastic forming which has its drawbacks. Though cost-effective this method is not ideal for all molds with complex geometry. Shapes with deep and different small indentations may not be fully covered by this process. Hence, the prototype may be less the same as the expected output.

Vacuum forming can result in an uneven thickness of the products if other techniques like drape and plug assist are not applied. Since the heated plastic comes in contact with the mold at different rates, it results in thickness inconsistency. A female mold is often thick on the upper parts and thinner on the bottom parts. Male mold is the reverse; it’s thicker at the bottom and thinner at the upper parts.

Bubbles can also form in the plastic reducing its quality. It happens during the cooling process when bubbles are trapped inside that weaken the structure. But this can be avoided by gradually cooling the product in sub-melting temperature.

If the plastic resin is overheated, webbing can form around the plastic. Therefore, the temperature during the heating stage should be monitored.

Remember that these disadvantages of plastic vacuum forming can be avoided if additional machines or methods are added in the process. This would not be the preferred thermoforming method if the cons outweigh the pros.

Thoughts on Do-It-Yourself Vacuum Forming

Various sites on the web offer various steps in making your vacuum forming device. The materials used mostly involved household tools like a vacuum cleaner. The safety of this material depends on the size, quality of materials, and how parts are put together. Though not advisable, if you want to make your own, make sure it comes from a trusted source then follow the directions without taking shortcuts.

GUEST POST BY – 

Donna Lee
Plastiform Inc.

 

Related Content:  Check Guide to Vacuum Forming 

How 3D Printing Changes the World of Manufacturing

0

The world has gone through a lot of technological changes, some of which are realized some years later after the invention. Despite taking time to change the way we do things, the impact is always unimaginable.

Today, another technology is slowly taking the manufacturing industry with a swipe. 3D printing technology, popularly known as Additive Manufacturing (AM), is a revolutionary energy technology that could end the centuries of approach to the design and manufacturing world.

Just as the name implies, additive manufacturing means building products layer by layer, additively rather than subtractive. Subtractive manufacturing has been the order for centuries, and it involves cutting materials from a larger piece of material.

What is the implication of additive manufacturing?

With that being clarified, let us find out what building products layer by layer imply.

 Distance is not a limit.

The emergence of the internet made the world of communication a village by enabling sharing of information worldwide without the limit. Additive manufacturing technology is doing the same in the world of manufacturing. Just as one can email a written document and have it printed in another part of the world, an ‘STL’ can be sent instantly to the other part of the world via the internet and printed as 3D.

Move to a more local production

The implication discussed above has enhanced a move to more local production. 3D technology has moved the production closer to consumers. As things seem, in the near future every metropolitan will be manufacturing its own cars, more advanced vacuum-formed plastic designs, and other 3D technology-inspired items. Other products will be produced even at the home level.

Highly customized production

Additive manufacturing is a single tool process and doesn’t require changing the desired aspect of the process no matter the geometry. As such AM processes are excellent in creating customized complex geometries.

Besides, this technology ensures that products are printed on-demand without the need to build new inventories and spare parts. With this, each printing can be customized without the additional cost. The approach of mass customization is leading the world into the new age of industrial design.

For instance, the first 3D printing mobile App, by a French company Sculpteo integrates the work of professional designers with end-user personal data. Such mass customization has allowed users great individualities in everything right from clothes, cars and interior design.

Pulling away production from manufacturing platforms

Whenever you mention manufacturing platforms, we couldn’t help but think of China. Such countries are on the verge of giving up as the world manufacturing powerhouse as manufacturing processes are slowly pulled away from them to the countries where the products are being consumed.

This move has ensured that the global economic imbalance and relying on another country’s surpluses are reducing.

 Waste reduction

The additive manufacturing process is basically green. Only the materials needed in production are used and this is made easier by the fact that materials are added layer by layer. This ensures virtually zero wastes as opposed to the traditional subtractive manufacturing process where the desired shape is curved from body parts. This often results in the final product leaving behind wasted material chips. This qualifies AM as the most sustainable manufacturing process.

Besides, reduction in mass production means that the emission of carbon waste into the atmosphere is reduced. Consequently, a decrease in the global transportation of goods has a similar implication. This is a great fervor to our natural environment as the fear of the destruction of the ozone layer will soon be a thing of the past.

Ease the costly assembly line in the supply chain

Most companies assemble their parts from factories that may have assembled their parts from the manufacturing industries. This supply chain usually ends up being costly. With the emergence of 3D printing, this supply chain is slowly being eliminated for many products.

The final product or one piece of a final product can be produced by additive manufacturing in one process. It doesn’t require intermediary factories.

New horizons of other industries

‘You can build parts that you can’t create using any other techniques’. This phrase by Ruben Wauthle of LayerWise tells it all.

AM has already revolutionized production in some new industries. For instance, scientists are already using it to create new body parts in health sectors. The LayerWise Company has at one time been in the news for creating printed jawbones and successfully undertook a jawbone transplant.

Besides, there has been a lot of development in the chemistry and pharmaceutical industries. Researchers at Harvard are said to have printed miniature batteries. At the same time, Lee Cronin, a chemist from Glasgow University, is boasting of having prototyped 3D printers. The printer is said to be capable of assembling chemical compounds and printing drugs.

Those are some of the impacts of AM technology from a positive perspective. However, every coin has two sides. Just like any other discovery, this technology also has its shortcomings and they include:

They are limited for mass production.

It is said 3D printing a part can take anywhere between 30 minutes to 7 days depending on the factors such as part size, part geometry, and printing technology, among others.

For instance, the additive manufacturing process is capable of creating 1.5-inch cubes in about an hour. This rate is way below the traditional manufacturing process such as an injection molding machine that is able to make several such parts in a minute.

Even though it is expected that the speed is likely to increase with time, it is very unlikely they will be able to create parts as fast as the molding machines. As said earlier, this process involves adding parts in layers. It is not possible to scan a cured material and recoat each layer at speed comparable to injection molding.

Increase crime rate

With the production being decentralized, we have to be ready to embrace new types of crimes. Remember, with 3D technology you can build parts that you can’t create with any other techniques. Therefore, the likelihood of people discovering new production is very high, and this may include the production of weapons.

Already police forces in South Wales recently identified a criminal gang who were using the technology to produce an ATM skimmer. The same force also warned about the types of guns that can be made on 3D printers.

There is also the likelihood that it can be used to make chemical weapons and illegal drugs. Therefore, as much as we are eager to see this revolution have its full effects, we have to anticipate some bitter disappointments as well.

Final thought

While this technology has not fully taken centre stage, already the world is smiling at a bright feature. It may take some time to be fully adopted but that is the nature of technological discoveries.

It may be limited for mass production as mentioned but when well decentralized, such mass production will not be necessary. Some people will be printing products within their homes for personal use. What a world that will be!

GUEST POST BY – 

Donna Lee
Plastiform Inc.

Renishaw, UK’s Start-up Additive Automations Join on a Project to Automate Metal Additive Manufacturing Post-Processing

0

GLOUCESTERSHIRE, UK, Aug 14, 2020 – Global engineering technologies company Renishaw is collaborating with UK start-up business Additive Automations, as part of a project to automate metal additive manufacturing (AM) post-processing, which involves using collaborative robots (cobots) to perform support structure removal. The project could reduce the average cost per part by 25 per cent, furthering AM’s potential as a cost-effective option for large volume production lines.

 

amMetal additive manufacturing post-processing

 

Additive Automations is a Sheffield-based start up that creates robotic systems to automate additive manufacturing. After obtaining funding from UK and Canadian bodies, its founder and CEO, Robert Bush, collaborated with both Renishaw and the University of Sheffield Advanced Manufacturing Research Centre (AMRC). Since August 2019, Renishaw has been assisting Additive Automations’ progress by providing its industry leading AM expertise.

Renishaw provided four examples of AM builds, so the start-up could demonstrate its support structure removal system. The four AM parts were designed for medical, oil and gas, automotive and mechanical engineering applications. Testing its robotic system on parts already being used in industrial applications will help Additive Automations demonstrate the potential of its product.

The project, named Separation of Additive-Layer Supports by Automation (SALSA), aims to use robotics and deep learning to digitalise some of the few remaining manual processes left in AM. Cobots were chosen for their high payload-to-size ratio and integrated force sensors, which collect data to determine the geometry of AM parts. Software then analyses the data, using digital twin technology. The output is then used to determine where the support structures are so that they can be removed using an end-effector tool.

“Automating support removal and finishing in AM completely changes the economics when scaling up AM, and for the first time makes it feasible for manufacturers around the world to adopt this technology in rapid production,” explained Robert Bush. “The digitalisation of AM also comes with an increase in quality, traceability and repeatability. Given that on average almost two thirds of post-processing costs are from finishing and support structure removal, we believe automation can reduce costs by an average of 25 per cent per part.”

“Improvements in post-processing could bring AM to the forefront of new applications in medical and aerospace applications,” explained Bryan Austin, Director of AM Sales at Renishaw. “An automated manufacturing process could make AM adoption more appealing to manufacturers operating large volume production lines.”

Renishaw is a leading global manufacturer of metal additive manufacturing systems, and is at the forefront of AM development. The company has worked to innovate additive manufacturing technology and develop new applications in sectors as varied as aerospace, motorsports and dental care.

For further information on the latest advancements in additive manufacturing, visit http://renishaw.com/additive

PTC Develops Enterprise Version of Onshape Education Suite, Available Free to K-12, Universities

0

BOSTON, MA, USA, Aug 14, 2020 – In advance of the 2020-2021 school year, PTC (NASDAQ: PTC) announced that, it has made the Onshape Education Suite’s newly-released Enterprise plan available free-of-charge for K-12 schools and universities that register through November 20, 2020. The newest version of the cloud-based, remote learning suite is offered alongside the Onshape Education Standard plan to help alleviate the burden experienced by educational STEM programs during the COVID-19 pandemic.

 

onshape-education-enterprise

 

The Onshape Education plans are the educational versions of PTC’s Software as a Service product, designed to enable computer-aided design (CAD) activities in a remote learning environment. The Education Standard plan has been free to educational institutions since 2016 and is available to students and educators who want to use professional-grade CAD that is completely online. The newly released Education Enterprise plan builds upon the Standard plan with features designed to enable universities and K-12 schools to launch, manage, and scale CAD activities across entire institutions.

“With online education being a necessity right now, I am making the full switch to Onshape so that my students don’t lose any instructional time due to software constraints if they have to learn remotely from home,” said David Vinopal, Technology Education Teacher and Department Chair, Derry Area School District, Pennsylvania.

He added, “Using the Onshape Education Enterprise plan will help me manage all of the students whether they are physically in the school building or working from home. Since there is no major installation or download required, I am pleased to know that my students will be able to log into the software and begin learning on day one.”

The Onshape Education Enterprise Plan is easily scaled across large classes, departments, and institutions, and as a cloud-based platform, it requires no downloads, installs, or upgrades. Platform analytics provide visibility into student usage and activity, and administrative features allow educators to easily manage and share permissions within the institution’s private domain.

“As a parent of two school-aged children myself, it is clear this school year will be unlike any other,” said Kathleen Mitford, Executive Vice President and Chief Strategy Officer, PTC. “By providing large-scale educational institutions with access to the Onshape Education Enterprise plan free-of-charge, we hope to enable teachers to continue their STEM-based, CAD lesson plans, whenever and wherever needed.”

To sign up for a free subscription of the Onshape Education Enterprise plan, click here.

About PTC (NASDAQ: PTC)

PTC enables global manufacturers to realize double-digit impact with software solutions that enable them to accelerate product and service innovation, improve operational efficiency, and increase workforce productivity. In combination with an extensive partner network, PTC provides customers flexibility in how its technology can be deployed to drive digital transformation – on premises, in the cloud, or via its pure SaaS platform. At PTC, we don’t just imagine a better world, we enable it. For more information, visit

Over 8000 Bumper Specialties CAD Files Available on TraceParts

0

CINCINNATI, OH and WEST DEPT FORD, NJ, USA, Aug 13, 2020 – Bumper Specialties, Inc., a worldwide leading manufacturer of self-adhesive polyurethane rubber bumper feet, and TraceParts have announced the publication of Bumper Specialties’ Self-Adhesive Molded Polyurethane Bumpers.

 

Bumper-Specialties-TraceParts

 

A large selection of Bumper Specialties’ self-adhesive molded polyurethane rubber bumpers products such as Conical Spacers, Rounded Hemispherical Bumpers, Square Bumper Pads, Recessed Rubber Stoppers and more can be found on the TraceParts CAD content platform.

Since 1989, Bumper Specialties has been manufacturing high quality molded self-adhesive polyurethane bumpers in the USA. Their easy peel-off rubber bumper stops are used on thousands of different applications and are made in various shapes and sizes to suit the needs of their customers. They manufacture over 40 different shapes of polyurethane rubber feet which are available in clear, black, white, brown, and gray. These crack-resistant, non-skid bumper pads do not contain plasticizers, oils or fillers.

“Bumper Specialties is excited to introduce its self-adhesive polyurethane rubber bumper feet to millions of designers and engineers at the TraceParts Publishing Network. We believe this is a great opportunity to expand our products reach worldwide.” said Zev Braunstein, Executive Vice President at Bumper Specialties

Designers and engineers all over the world are now able to preview and download more than 8,000 CAD files from Bumper Specialties on the TraceParts website and the TraceParts Publishing Network.

“TraceParts welcomes Bumper Specialties to the TraceParts publishing network and looks forward to delivering its digital product content to designers and engineers around the world.” said Rob Zesch, President of TraceParts America.

About Bumper Specialties, Inc.

Bumper Specialties, Inc. is the worldwide leading manufacturer of self-adhesive molded polyurethane rubber bumpers, which are proudly Made in the USA.

They manufacture over 40 different shapes of polyurethane rubber feet which are available in clear, black, white, brown, and gray. These crack-resistant, non-skid bumper pads do not contain plasticizers, oils or fillers.

Their focus is making the best self-adhesive rubber feet in the industry even better.

For more info, visit www.bumperspecialties.com.

About TraceParts

TraceParts is one of the world’s leading providers of 3D digital content for engineering. As part of the Trace Group founded in 1990, the company provides powerful web-based solutions, such as CAD part libraries, electronic catalogs and product configurators.

TraceParts offers digital marketing services to help part vendors, 3D printing suppliers, software and computer hardware vendors promote their products and services and generate high-quality B2B sales leads.

The TraceParts portal is available free-of-charge to millions of CAD users worldwide. It provides access to hundreds of supplier catalogs and more than 100 million CAD models and product data-sheets that perfectly meet the specific needs of design, purchasing, manufacturing and maintenance processes and operations.