Making 3D Printing Opportunities For Girls With MakerGirl

SARAH GOEHRKE| October 21, 2019
MAKING 3D PRINTING OPPORTUNITIES FOR GIRLS WITH MAKERGIRL
We speak with MakerGirl’s Executive Director, Mary Hadley, about the importance of early access to 3D printing. MakerGirl, which recently formed an important partnership with 3D printing mainstay EOS, celebrated its fifth anniversary early this month. Over the last half-decade, the organization has educated 4,000 girls aged 7-10 to open up possibilities in STEAM (cience, Technology, Engineering, Arts, and Math subject areas including 3D printing.

Spotlight

Bonfiglioli

Bonfiglioli designs, manufactures and distributes a complete range of gearmotors, drive systems, planetary gearboxes and solar inverters & solutions to satisfy the most demanding needs for industrial processes, automation, mobile and renewable energy applications. Bonfiglioli offers tailored solutions, whose strength lies in the high technology content of each product and the careful integration of different technologies.

OTHER ARTICLES

Top Five Industries That Are Leveraging Additive Manufacturing

Article | October 20, 2021

Additive manufacturing has advanced significantly in recent years and is currently used in nearly every area to improve both products and processes in the manufacturing business. As a result, manufacturers have been more imaginative and innovative in offering relevant products to their target customer group due to this technological advancement. Mr. Matt Mong, a prominent business executive, also mentioned in one of his Media7 interviews, As technology takes over and enhances many of the processes we used to handle with manual labor, we are freed up to use our minds creatively, which leads to bigger and better leaps in innovation and productivity. Matt Mong, VP Market Innovation and Project Business Evangelist at Adeaca The use of additive technology provides several advantages, including creating unique shapes and low production costs. In addition, the increasing application of additive manufacturing technologies is accelerating the growth of the additive manufacturing market. According to recent research conducted by Metal AM, the value of additively produced components is expected to increase by 15% annually from $12 billion in 2020 to $51 billion in 2030. Thus, additive marketing is the way forward for all industries. This article will cover the top five industries that utilize additive manufacturing and are advancing their businesses every day by overcoming the prevailing challenges such as production errors, downtime, and skilled labor shortage with the benefits of additive manufacturing. Five Industries Utilizing Additive Manufacturing Though additive manufacturing or 3D printing has penetrated almost all the industries, we have picked up a few of the prevailing industries that have started using additive manufacturing and excelling in it. Additive Manufacturing in Aerospace Aerospace has always been the first sector to adopt new technology. Precision is critical in this sector, as a failure of any component is not an option in aerospace. In aircraft production, dimension, weight, and temperature tolerance are critical, and additive technology provides every solution around this. As a result, additive manufacturing has evolved into a critical technology that adds value throughout the supply chain for prominent aircraft firms like Airbus, GE, Boeing, and TTM. Additive Manufacturing in Healthcare Healthcare or medical is one of the industries that is maximizing the benefits of additive manufacturing. Technology enables the medical sector to be more innovative, accurate, and capable of offering the most excellent medical solutions available today. It enables medical practitioners to rehearse before procedures and medical researchers to study functioning human tissues for basic biological research. In addition, it is utilized to fabricate tissues and organoids, surgical instruments, patient-specific surgical models, and bespoke prostheses. Thus, additive technology has altered the face of medicine, elevating it to a more sophisticated and solution-oriented state. Additive Manufacturing in Architecture As with other industries, additive manufacturing reshapes the architectural and construction sectors by eliminating conventional industrial barriers such as production time and cost, material waste, and design constraints. By utilizing 3D printing, designers can now quickly construct and demonstrate how structural parts will function and appear when combined. It also assists designers in seeing how the plan will seem subsequent execution. Additive Manufacturing in Manufacturing Nowadays, additive manufacturing, or 3D printing, is a significant part of the manufacturing process. For example, rather than fabricating a product from solid blocks, additive manufacturing may build a three-dimensional model utilizing fine powder, various metals, polymers, and composite materials as raw materials for constructing a 3D model with a three-dimensional printer. Additive Manufacturing in Education Additive manufacturing is reshaping the educational industry by introducing a new teaching trend and transforming the classroom experience for students. It is being used in various disciplines, including engineering, architecture, medicine, graphic design, geography, history, and even chemistry. They may produce prototypes, three-dimensional models, and historical objects, among other things. Thus, technology enables learners to get more practical information about their respective courses directly on the floor. How has General Electric (GE) been pioneering the use of Additive Manufacturing for 20 years? GE's primary competency is additive manufacturing (3D printing), and the company has made significant investments in the technology. It utilizes additive technology to manufacture a range of components for aviation and other sectors. This article will look at one of their manufacturing case studies and how additive technology enabled them to get the desired result from the end product. CASE STUDY: OPTISYS Optisys modified a vast, multi-part antenna assembly into a palm-sized, lighter, one-piece additive metal antenna. The antenna's aluminum material was chosen because of its surface conductivity, low weight, corrosion resistance, and stress and vibration resistance. Optisys was able to break even on machine acquisition within one year after acquiring its first Direct Metal Laser Melting (DMLM) equipment by utilizing additive technologies. (Source: General Electric) Benefits and Outcomes Non-recurring expenditures were reduced by 75%. Weight loss of 95% The size was reduced by 80%. Part-to-part reduction of 100-to-1 Cycle duration shortened from 11 to 2 months 5 product lines were created for AM, a new market growth Final Words Additive manufacturing benefits a wide variety of businesses. Industries must recognize the advantages of additive manufacturing and begin using the technology in their manufacturing processes to cut production time and costs while increasing product accuracy. This game-changing expansion of the additive manufacturing market across several industries is upgrading both products and production processes. FAQs How do you define additive manufacturing? Additive manufacturing (AM), more generally referred to as 3D printing, is a ground-breaking manufacturing technique that enables the creation of lighter, more robust components and systems. As the name implies, additive manufacturing is adding material to an item to create it. Is additive manufacturing the same as 3D printing? Both terms are interchangeable. Additive manufacturing and 3D printing manufacture components by connecting or adding material from a CAD file. Which companies specialized in additive manufacturing? American Additive Manufacturing, Forecast 3D, Sciaky, Inc., 3 Axis Development, Inc., Jonco Industries, Inc., Polyhistor International, Inc., and Caelynx, LLC are renowned companies for additive manufacturing in the United States of America. { "@context": "https://schema.org", "@type": "FAQPage", "mainEntity": [{ "@type": "Question", "name": "How do you define additive manufacturing?", "acceptedAnswer": { "@type": "Answer", "text": "Additive manufacturing (AM), more generally referred to as 3D printing, is a ground-breaking manufacturing technique that enables the creation of lighter, more robust components and systems. As the name implies, additive manufacturing is adding material to an item to create it." } },{ "@type": "Question", "name": "Is additive manufacturing the same as 3D printing?", "acceptedAnswer": { "@type": "Answer", "text": "Both terms are interchangeable. Additive manufacturing and 3D printing manufacture components by connecting or adding material from a CAD file." } },{ "@type": "Question", "name": "Which companies specialized in additive manufacturing?", "acceptedAnswer": { "@type": "Answer", "text": "American Additive Manufacturing, Forecast 3D, Sciaky, Inc., 3 Axis Development, Inc., Jonco Industries, Inc., Polyhistor International, Inc., and Caelynx, LLC are renowned companies for additive manufacturing in the United States of America." } }] }

Read More

How Smart Manufacturing Is Powered by Digital Twin Technology?

Article | December 8, 2021

A digital twin is a virtual model of an object or system that comprises its lifecycle. It is updated with real-time data and aids decision-making through simulation, machine learning, and reasoning for the production system. IoT sensor data from the original object is used to create a digital twin of the system. This cloud-connected data allows engineers to monitor systems and model system dynamics in real-time. Modifications can be tested on the digital twin before making changes to the original system. Considering that digital twins are supposed to replicate a product's complete lifecycle and are used throughout the production process, it's not unexpected that digital twins have become prevalent in all stages of manufacturing. “More than a blueprint or schematic, a digital twin combines a real-time simulation of system dynamics with a set of executive controls,” – Dr. Daniel Araya, consultant and advisor with a special interest in artificial intelligence, technology policy, and governance Companies will increasingly embrace digital twins to boost productivity and decrease expenses. As per recent research by Research and Markets, nearly 36% of executives across industries recognize the benefits of digital twinning, with half planning to implement it by 2028.So how does this digital twin technology benefit modern manufacturing? Let's have a look. How the Digital Twin Drives Smart Manufacturing Digital twins in manufacturing are used to replicate production systems. Manufacturers can develop virtual representations of real-world products, equipment, processes, or systems using data from sensors connected to machines, tools, and other devices. In manufacturing, such simulations assist in monitoring and adapting equipment performance in real-time. With machine learning techniques, digital twins can predict future events and anticipate potential difficulties. For maintenance, digital twins allow for quick detection of any problems. They collect real-time system data, prior failure data, and relevant maintenance data. The technique employs machine learning and artificial intelligence to predict maintenance requirements. Using this data, companies can avoid production downtime. Digital Twin and Artificial Intelligence (AI) in manufacturing Using digital twins and AI in production can enhance uptime by predicting potential failures and keeping equipment working smoothly. In addition, there are significant cost savings in the planning and design process as digital twins and AI can be used to replicate a specific scenario. Maintenance is another area that has seen significant progress with the use of digital twin manufacturing. A Digital Twin powered by AI can predict when a piece of equipment will fail, allowing you to arrange predictive maintenance that is not simply taking information from OEM manuals but can significantly cut maintenance expenses along with reducing downtime. Using the digital twin, it is feasible to train virtual workers in high-risk functions, similar to how pilots are trained using flight simulators. It also frees up highly skilled workers to upgrade the plant and streamline operations. General Electric Created the Most Advanced Digital Twin General Electric Company (GE) is a multinational business based in Boston that was founded in 1892. It has developed the world's most advanced digital twin, which blends analytic models for power plant components that monitor asset health, wear, and performance with KPIs (Key Performance Indicators) determined by the customer and the organization's objectives. The Digital Twin is powered by PredixTM, an industrial platform built to manage huge amounts of data and run analytic algorithms. General Electric Company provides extra "control knobs" or "dimensionality" that can be utilized to improve the operation of the system or asset modeled with GE Digital Twin. Final Words Given the numerous advantages of digital twin manufacturing, the potential for digital twins to be used in manufacturing is virtually endless in the near future. There will be a slew of new advancements in the field of digital twin manufacturing. As a result, digital twins are continually acquiring new skills and capabilities. The ultimate goal of all of these enhancements is to create the insights necessary to improve products and streamline processes in the future. FAQ What is a digital twin in manufacturing? The digital twins could be used to monitor and enhance a production line or perhaps the whole manufacturing process, from product design to production. How digital twin benefit manufacturers? Using digital twins to represent products and manufacturing processes, manufacturers can save assembly, installation, and validation time and costs. What is a digital thread? A digital twin is a realistic version of a product or system that replicates a company's equipment, controls, workflows, and systems. The digital thread, on the other hand, records a product's life cycle from creation to dissolution. { "@context": "https://schema.org", "@type": "FAQPage", "mainEntity": [{ "@type": "Question", "name": "What is a digital twin in manufacturing?", "acceptedAnswer": { "@type": "Answer", "text": "The digital twins could be used to monitor and enhance a production line or perhaps the whole manufacturing process, from product design to production." } },{ "@type": "Question", "name": "How digital twin benefit manufacturers?", "acceptedAnswer": { "@type": "Answer", "text": "Using digital twins to represent products and manufacturing processes, manufacturers can save assembly, installation, and validation time and costs." } },{ "@type": "Question", "name": "What is a digital thread?", "acceptedAnswer": { "@type": "Answer", "text": "A digital twin is a realistic version of a product or system that replicates a company's equipment, controls, workflows, and systems. The digital thread, on the other hand, records a product's life cycle from creation to dissolution." } }] }

Read More

Which Additive Manufacturing Process Is Right for You?

Article | December 6, 2021

Additive Manufacturing (AM) uses computer-aided design (CAD) or 3D object scanners to create accurate geometric features. In contrast to traditional manufacturing, which frequently involves milling or other processes to eliminate superfluous material, these are produced layer by layer, as with a 3D printing process. The global additive manufacturing market is expected to grow at a 14.42 percent annual rate from USD 9.52 billion in 2020 to USD 27.91 billion in 2028, according to reports and data. Overall, the worldwide 3D printing industry is gaining traction due to various reasons, some of which are listed below. Significantly, greater resolution Reduced manufacturing costs as a result of recent technology breakthroughs Ease of creating customised goods Increasing possibilities for printing with diverse materials Funding by the government for 3D printing ventures Additive manufacturing is available or may be implemented in various procedures, which is the primary objective of this article. First, we'll look at the seven additive manufacturing processes and which one is the best to use. So let us begin. “Don’t be afraid to go outside of your industry to learn best practices. There might be something that surprises you or inspires you to try in your line of work.” – Emily Desimone, Director of Global Marketing at SLM Solutions Additive Manufacturing Processes There are numerous diverse additive manufacturing processes, each with its own set of standards. Here are the seven additive manufacturing procedures that many manufacturers consider based on their benefits from each process, or whichever approach best suits their product requirements. Material Jetting This additive manufacturing process is quite similar to that of conventional inkjet printers, in which material droplets are selectively placed layer by layer to build a three-dimensional object. After completing a layer, it is cured with UV radiation. VAT Photo Polymerization This procedure employs a technology called photo polymerization, in which radiation-curable resins or photopolymers are utilized to ultraviolet light to generate three-dimensional objects selectively. When these materials are exposed to air, they undergo a chemical reaction and solidify. Stereo lithography, Digital Light Processing, and Continuous Digital Light Processing are the three primary subcategories. Binder Jetting Binder jetting is a process that deposits a binding agent, typically in liquid form, selectively onto powdered material. The print head deposits alternating layers of bonding agent and construction material and a powder spreader to create a three-dimensional object. Material Extrusion S. Scott Crump invented and patented material extrusion in the 1980s using Fused Deposition Modeling (FDM). The continuous thermoplastic filament is fed through a heated nozzle and then deposited layer by layer onto the build platform to produce the object. Powder Bed Fusion Powder bed fusion procedures, particularly selective laser sintering, were the pioneers of industrial additive manufacturing. This approach melts the powdered material and fuses it using a laser or electron beam to form a tangible item. The primary kinds of powder bed fusion are direct metal laser sintering, selective laser sintering, multi-jet fusion, electron beam melting, selective laser melting, and selective heat sintering. Sheet Lamination Sheet lamination is a catch-all term encompassing ultrasonic additive manufacturing, selective deposition lamination, and laminated object manufacturing. All of these technologies stack and laminate sheets of material to form three-dimensional objects. After the object is constructed, the parts' undesirable areas are gradually removed layer by layer. Directed Energy Deposition Directed energy deposition technology employs thermal energy to melt and fuse the materials to form a three-dimensional object. These are pretty similar to welding processes, but are much more intricate. Which Additive Manufacturing Process is best? Why? Based on three fundamental factors, additive manufacturing techniques are categorized into seven types. First, the way material is solidified is determined first by the type of material employed, then by the deposition technique, and finally by how the material is solidified. The end-user often chooses an additive manufacturing technique that best suits his requirements, followed by the explicit material for the process and application, out of the seven basic additive manufacturing processes. Polymer materials are commonly used in AM techniques because they are adaptable to various procedures and can be modified to complicated geometries with high precision. Carbon-based compounds are used to strengthen polymers. Polymers, both solid and liquid, have been widely used due to the variety of shapes, formability, and end-use qualities available. Wherever the light-activated polymer contacts the liquid's surface, it instantly solidifies. Photo polymerization, powder bed fusion, material jetting, and material extrusion are the most common additive manufacturing procedures for polymers. The materials employed in these processes can be liquid, powder, or solid (formed materials such as polymer film or filament). How BASF is Using Additive Manufacturing BASF is a chemical company. BASF, one of the world's major chemical companies, manufactures and provides a range of 3D printing filaments, resins, and powders within its extensive material portfolio. The company, well-known in the 3D printing sector, has formed major material agreements with several 3D printer manufacturers, including HP, BigRep, Essentium, BCN3D, and others. BASF went even further in 2017 by establishing BASF 3D printing Solutions GmbH (B3DPS) as a wholly-owned subsidiary to expand the company's 3D printing business. In addition, BASF stated last year that B3DPS would change its name to Forward AM. BASF's role in the 3D printing business, however, is not limited to material development. BASF has made several investments in 3D printing companies over the years, including the acquisition of Sculpteo, one of the significant French 3D printing service bureaus, last year. BASF sees 3D printing as having a bright future. With the growing popularity of professional 3D printers, all of these systems will eventually require robust, high-quality polymer materials to perform at their best – and BASF has been paving the way to becoming one of the leading solution providers. Final Words All additive manufacturing procedures are unique and helpful in their way. Still, some have additional advantages over others, such as the material used, highresolution, precision, and the ability to build complicated parts. Because of these added benefits, photopolymerization, material jetting, powder bed fusion, and material extrusion are preferred over others. Therefore, choose the AM process that is best suited to your manufacturing business and will assist you in achieving the desired final product output. FAQs What are the benefits of additive manufacturing? AM enables manufacturers to reduce waste, prototyping costs, and customization while conserving energy and increasing production flexibility. Additionally, it benefits the supply chain and the environment, encouraging businesses to increase their manufacturing sustainability. What is the major challenge in additive manufacturing? Many businesses are struggling with the current difficulty of producing large and odd-sized parts using additive manufacturing. So, this can be considered a significant challenge in additive manufacturing. What are the steps of additive manufacturing? The additive manufacturing steps are divided into four steps as below, Step1 - Design a model with CAD software Step2 -Pre-processing Step3 -Printing Step4 - Post-processing { "@context": "https://schema.org", "@type": "FAQPage", "mainEntity": [{ "@type": "Question", "name": "What are the benefits of additive manufacturing?", "acceptedAnswer": { "@type": "Answer", "text": "AM enables manufacturers to reduce waste, prototyping costs, and customization while conserving energy and increasing production flexibility. Additionally, it benefits the supply chain and the environment, encouraging businesses to increase their manufacturing sustainability." } },{ "@type": "Question", "name": "What is the major challenge in additive manufacturing?", "acceptedAnswer": { "@type": "Answer", "text": "Many businesses are struggling with the current difficulty of producing large and odd-sized parts using additive manufacturing. So, this can be considered a significant challenge in additive manufacturing." } },{ "@type": "Question", "name": "What are the steps of additive manufacturing?", "acceptedAnswer": { "@type": "Answer", "text": "The additive manufacturing steps are divided into four steps as below, Step1 - Design a model with CAD software Step2 - Pre-processing Step3 - Printing Step4 - Post-processing" } }] }

Read More

Wireless AGVs May Prove Most Important ProMatDX Innovation

Article | April 1, 2021

April 12 -15 ProMatDX, the largest material handling event, will take place virtually. It will feature dozens of AGV vendors. Sadly, some of these highly innovating products still need to be plugged-in to capture power. No more. Wiferion in process charging eliminates the plug-in charging making AGVs truly autonomous. In process charging eliminates the waste of AGV downtime – the fleet is always working AND charging. In process charging is safe ensuring the OSHA, ergonomics, and danger to workers significantly reduced. In process charging is cost-efficient because full vehicle deployment means a reduced fleet count ensuring a rapid ROI. For OEMs of AGVs and industrial trucks implementing inductive charging technology solves the wear and tear issues caused by conventional charging methods as well as making vehicles fully autonomous. For end-users of AGVs and industrial trucks, inductive charging in combination with lithium batteries can improve fleet availability by more than 30%. Whether driverless transport systems (AGVs), electric forklifts, or mobile robots (AMRs), the efficient use of industrial trucks is a decisive factor for competitiveness during ever- increasing cost pressures. The energy systems are being scrutinized and lithium-ion batteries are the preferred technology. The advantages versus lead-acid batteries (including the ability to recharge faster and more often) are obvious. Until now the full potential of storage technology has not been fully realized.

Read More

Spotlight

Bonfiglioli

Bonfiglioli designs, manufactures and distributes a complete range of gearmotors, drive systems, planetary gearboxes and solar inverters & solutions to satisfy the most demanding needs for industrial processes, automation, mobile and renewable energy applications. Bonfiglioli offers tailored solutions, whose strength lies in the high technology content of each product and the careful integration of different technologies.

Events