Smart Manufacturing

Mastercam 2019 Lathe a comprehensive turning software

From accepting and programming any CAD file to Dynamic roughing and precision finishing, Mastercam 2019 Lathe provides a variety of techniques to turn all of your parts exactly as you need them. Mastercam 2019 Lathe features a new Tool Designer, Mill-Turn Environments, Multiple Plunge, and so much more. 3D Tool Support Build tools from 3D STEP models using the new Tool Designer. The Tool Designer is a function panel with tab-style navigation, providing a structured workflow that is similar to using a wizard. You can define tools, assign them to operations, and view them when running Classic Backplot and Mastercam Simulator. Mill-Turn Environments Mastercam 2019 allows Lathe users to run select Mill-Turn machine environments, giving users the productivity benefits of Mastercam’s Mill-Turn programming environment. Experience automated job setup and part transfer, full machine simulation, and simplified programming of C/Y axis toolpaths. Multiple Plunge The Lathe Groove toolpath includes a Multiple Plunge option which allows you to rough out a groove with rib cuts. This is beneficial when you are concerned about tool deflection. Consistent tool pressure can result in better chip control, and more even tool wear. Multiple Plunge gives you the option to machine the ribs with a more aggressive feed rate than the initial plunges. Also available in the Mastercam 2019 Lathe is: Improved support for cross-centerline turning. Support for Swiss machines. Swiss users with active Lathe and Mill/Mill 3D licenses can now take advantage of familiar Lathe and Mill toolpaths (available in the United States). Full integration of the PrimeTurning toolpath. Mastercam 2019 features improved tool libraries, including 3D tool libraries and the introduction of 3D tool support.

Fujitsu develops single-panel antenna to support multiple 5G communications

Fujitsu Laboratories Ltd. has announced the development of the world’s first equipment technology to enable simultaneous communications to four users with a single antenna panel in the 28-GHz band, in the world’s most compact structure. The equipment delivers high-speed communications in excess of 10 Gbps, as required by 5G mobile communication formats. The use of 5G is premised on deployment of base stations with comparatively small coverage areas placed every few tens of meters. Given this, it will be necessary to have equipment of a compact size that can be deployed anywhere. Conventional 5G system structures require use of an antenna panel for each terminal when simultaneously transmitting to multiple terminals. Now, by controlling with high accuracy the phase (angle) of signals separately emitted from 128 antenna elements, Fujitsu Laboratories has suppressed the interference between signals. This enables simultaneous communications in four directions using only one antenna panel. Moreover, the company can vary signals in both horizontal and vertical directions, successfully expanding the communications area. With these developments, components can now be fit on a single 13 cm2 printed circuit board, instead of two or more antenna panels required with conventional technology. This will enable the deployment of compact base stations and high-speed 5G communications in locations where many people gather, such as around train stations and in stadiums. Development Background The spread of smartphones, 4K image resolution, and VR has raised demand for high-speed wireless communication. Meanwhile, problems like transmission delays and poor connections due to insufficient wireless communications capacity are occurring in urban centers, stadiums, and event venues, and anywhere many people gather. To remedy these shortcomings, the development of 5G, which uses the millimeter wave band to secure a wide frequency band, is being carried out globally, with the goal of commercial deployment around 2020. While 5G […]

Inaugural Meeting of Singapore’s Advisory Council on the Ethical Use of AI and Data

Singapore’s Advisory Council on the Ethical Use of Artificial Intelligence (AI) and Data convened for their inaugural meeting on Friday, Nov 30. The Advisory Council[1] brings together transnational thought leaders and industry captains from diverse backgrounds spanning the spectrum of large tech providers, users, the academia and government. Members comprise international leaders in AI such as Google, Microsoft and Alibaba; advocates of social and consumer interests; and leaders of local companies who are keen users of AI. Council members had a robust discussion on the ethical use of AI and data. This included discussion on the paper released by the Personal Data Protection Commission (PDPC) in June 2018 on the responsible development and adoption of AI. There were many suggestions given on how to improve the draft model framework. The Advisory Council called for broader engagement and consultation of the draft model framework. The meeting is a timely reminder of how a private-public relationship is necessary to enable the Digital Economy. A trusted AI ecosystem is critical for industries to effectively adopt innovative emerging technologies and business models, while ensuring strong consumer confidence, protection and participation. In the area of data and data-driven technologies like AI, the development of responsible practices must be informed by diverse views and a global perspective. Singapore aims to contribute to the global discourse by proposing a pragmatic governance framework that translates ethical principles into practice. An updated draft will be made available soon. Senior Minister of State Dr Janil Puthucheary said, “I am especially thankful for the attendance of a strong and diverse transnational mix of members, including tech giants, companies large and small, users, academia and government. Building a future Digital Economy with a trusted AI ecosystem is critical.” The Advisory Council is one of three structured, interlinked initiatives[2] to support the engagement […]

Grundfos collaborates with Cambodia to improve water security

New partnership to strengthen the country’s access to water through intelligent water solutions Phnom Penh, Cambodia. Global pumps leader Grundfos and the Ministry of Industry & Handicraft, Cambodia today confirmed that they will exchange a Letter of Intent to strengthen cooperation in water management, in an effort to reduce the cost of water and increase access to clean, quality water in the country. His Excellency Cham Prasidh, Minister of Industry & Handicraft, Cambodia and Mr. Leong Chee Khuan, Area Managing Director – South Asia, Grundfos highlighted that the Letter of Intent will include an endorsement of Grundfos by the Cambodian government, welcoming its latest technology and business models to reduce non-revenue water and boost water management efficiency. One of the biggest water management challenges for Cambodia is its water infrastructure, which is prone to leakages and insufficient water pressure when serving cities and provinces during peak hours of water consumption. This leads to cases experiencing up to 40 per cent in non-revenue water (NRW), or water that is lost or otherwise unaccounted for in the system. H.E. Cham Prasidh said, “As Cambodia’s economy grows rapidly, we’ve seen an increasing demand for clean water, and we expect this demand to increase to 0.8 million cubic metres per day by 2025, and to one million cubic meters per day by 2030. This will place more pressure on our water utility facilities to provide efficient and reliable water access. “We are excited to work with an industry leader like Grundfos to improve Cambodia’s access to clean, quality water. We believe Grundfos’ innovative technology and solutions will have significant impact on our water management systems.” Mr. Leong Chee Khuan, Grundfos said, “Grundfos is committed to helping Cambodia strengthen the quality, reliability and sustainability of its water supply. We are pleased to work with the […]

People, not technology, shape the future of manufacturing

These are exciting times for manufacturing. A plethora of recent technological developments creates radically new opportunities for how we develop, manufacture, and deliver products globally. The headlines proclaim that “the robots are coming”, “jobs will be automated”, and “digitalisation is revolutionising production”. Many managers are excited, baffled, or both. Many jobseekers are worried. Three decades ago, leadership expert Warren Bennis envisioned that “the factory of the future will have only two employees: a man and a dog. The man will be there to feed the dog. The dog will be there to keep the man from touching the equipment.” While this vision is witty, the idea of the fully automated “lights-out” factory still lingers. But there’s a different vision for the future of manufacturing, where people take centre stage. A vision where people make use of new technology to enable sustainable, socially responsible, and efficient manufacturing. In this context, putting people first may seem surprising. After all, have we not been told that robotics and digitalisation will complete processes more effectively and efficiently than humans? That machine learning is training machines to train machines? That artificial intelligence is even entering company boardrooms? While this may hold true for some tasks, the vast amount of other tasks will in fact remain largely unaffected in the near term. To debunk a myth: robots are automating processes, not jobs. What’s more, we think that these technological developments are good, not bad, for workers. Increased productivity frees up human resources to do tasks where humans are superior to machines. One example of such a task is the development of new technologies in the first place. Another equally important task is to figure out how to best apply them. People must map production processes, identify the nodes where technology is needed, and reskill the persons […]

Seequent Drillhole-progress-being-shown-with-live-survey-data-from-the-IMDEXHUB-IQ

Seequent and IMDEX to deliver real-time 3D visualisation for minerals drilling projects

Industry-first to integrate live 3D data from ‘rig to model’ supports real-time decision-making and risk management for mining and exploration drilling projects. Seequent, a developer of revolutionary visual data science software and IMDEX, a global leader in real-time subsurface intelligence solutions, have announced an ongoing partnership to deliver a real-time 3D visualisation solution for the mining and exploration industry to dramatically improve the speed and accuracy of decision-making for drilling projects. Seequent and IMDEX are collaborating to integrate IMDEXHUB-IQ™, which provides access to sub-surface data and Central, Seequent’s centralised model management solution for visualisation, tracking and management of an organisation’s geological data. The integration will allow live 3D data collected in the field and synced to IMDEXHUB-IQ to be linked in real-time to the same project in Central, enabling 3D visualisation of downhole survey and structural geology data. The mining industry-first enables drillhole progress to be reviewed in Central’s 3D Browser alongside the planned programme and current geological interpretation, giving geologists confidence in decision-making and ensuring issues are identified and managed as they arise. The new solution, showcased at Seequent’s Lyceum innovation event in Vancouver in November, is the first in a global road show series also visiting Perth and Santiagor. “The integration of live data is crucial for mining and exploration projects of the future. Every day there is an increasing amount of data generated and the key to success is being able to understand and respond to that data in real-time or near real-time,” says Nick Fogarty, Seequent General Manager – Mining and Minerals. “Our new co-partnered solution will provide significant benefits to our drilling and resource company clients in terms of risk management and project efficiencies.” IMDEX and Seequent are long-time industry partners, sharing a common interest in developing technology and better workflows to solve ongoing challenges […]

Smarter manufacturing in the age of convergence

-Joseph Sousa, President, Asia Pacific, Rockwell Automation Sometimes I wish I was ten years younger. Not out of vanity but because of what’s about to unfold in the manufacturing industry. We’ve arrived at a genuine inflection point in how we go about business. There’s an opportunity to produce more high-quality goods for more people while reducing costs and environmental impact. This opportunity is being driven in part by a significant increase in consumer wealth. We’re witnessing the most significant expansion of the middle class that we’ve ever seen. Forecasted in 2016, 160 million people will join the ranks during the next five years. More than 3.2 billion people already enjoy this status. We’ve also seen a shift from manual production to mass production, customised mass production and now personalised mass production. We’ve improved our capacity to measure what people want and our ability to link this knowledge with production resources to meet those demands. This is information is critical in an age where consumers are demanding more personalised products. Today, Millennials, in particular, place a high value on adding their personality to what they buy. More than half of consumers would prefer to shape the products and services they buy. This type of personalised mass production requires a lot of flexibility in manufacturing processes. In the modern factory, set-up time is a key variable determining the ability to tap into short-term opportunities. Merely being able to see a chance isn’t enough. Global business opportunities mean global competition, increasing the imperative to act quickly. Whereas this global competition, once reserved for large international enterprises, most businesses now have potential rivals in other countries. The convergence of information technology (IT) and operational technology (OT) offers a smarter way to convert the business into opportunity. Data is helping many manufacturers to unleash […]

Game-changing technology for 3D printing tiny structures revealed

A new type of 3D Printing technology enabling rapid prototyping of high-resolution microscale structures has been revealed. It all started after a kick-start from KiwiNet to commercialise the technology. New Zealand microfabrication researchers Andrea Bubendorfer and Andrew Best, the co-inventors of a new way of fabricating very small things with Laminated Resin Printing (LRP), are part of Callaghan Innovation’s MicroMaker3D team which launched the new patent pending technology in the US recently. The team are one of ten selected worldwide for IDTechEx’s Santa Clara Launchpad, an initiative showcasing new disruptive and state-of-the art technologies. Andrea, who leads the microfabrication team at Callaghan Innovation that has created the technology, says: “We’re very excited about the potential for this technology to be a game changer in a range of industries from medicine to wearable technology to aerospace. It will create the first opportunity to rapidly prototype a huge range of miniaturised structures from optical slits to miniaturised microwell plates, micromoulds and more. “Custom sensors are a great example of a niche area we’re keen to explore. One high value approach would be to use molecular sensing to functionalise microstructures, so we could rapid prototype devices for detecting insulin concentration, biomarkers, presence of toxic gases or pollutants. “There are endless possibilities to what we can print – and what is most exciting, though, will be when people start to print things we didn’t even know existed”, says Andrea. The MicroMaker3D project was kick-started when Andrea received KiwiNet Emerging Innovator Programme funding, commercialisation support and advice to explore ways to make microfabrication more accessible. “We ended up creating a new 3D printing technology that can build up tiny structures using specially engineered Laminated Resin Printing (LRP) materials. We can print structures with features as small as five microns. To put this in context, a […]

Future of Design: the Quadro RTX 4000

The Quadro RTX 4000 graphics card — the company’s first midrange professional GPU is powered by NVIDIA Turing architecture and NVIDIA RTX platform. Unveiled at the annual Autodesk University Conference in Las Vegas, the Quadro RTX 4000 puts real-time ray tracing within reach of a wider range of developers, designers and artists worldwide. Professionals from the manufacturing, architecture, engineering and media creation industries witnessed a seismic shift in computer graphics with the launch of Turing in August. The field’s greatest leap since the invention of the CUDA GPU in 2006, Turing features new RT Cores to accelerate ray tracing and next-gen Tensor Cores for AI inferencing which, together for the first time, make real-time ray tracing possible. The Quadro RTX 4000 features a power-efficient, single-slot design that fits in variety of workstation chassis. Other benefits include: ● Significant performance improvements — 8GB of ultra-fast GDDR6 graphics memory technology provides over 40 percent more memory bandwidth than the previous generation Quadro P4000. ● 36 RT Cores — enable real-time ray tracing of objects and environments with physically accurate shadows, reflections, refractions, and global illumination. 288 Turing Tensor Cores for 57 TFLOPS of deep learning performance — accelerate neural network training and inference, which are critical to powering AI-enhanced rendering, products and services. ● Hardware support for VirtualLink — new open industry standard meets the power, display and bandwidth demands of next-generation VR headsets through a single USB-C connector1. ● Improved performance of VR applications — new and enhanced technologies include Variable Rate Shading, Multi-View Rendering and VRWorks Audio. ● Video encode and decode engines — accelerate video creation and playback for multiple video streams with resolutions up to 8K. OEM support Leading OEMs have voiced their support for new Turing-based Quadro RTX 4000 GPUs: ● “AI and real-time ray tracing are […]

Manufacturing the future: The next era of global growth and innovation

By James Manyika, Jeff Sinclair, Richard Dobbs, Gernot Strube, Louis Rassey, Jan Mischke, Jaana Remes, Charles Roxburgh, Katy George, David O’Halloran, and Sreenivas Ramaswamy. The global manufacturing sector has undergone a tumultuous decade: large developing economies leaped into the first tier of manufacturing nations, a severe recession choked off demand, and manufacturing employment fell at an accelerated rate in advanced economies. Still, manufacturing remains critically important to both the developing and the advanced world. In the former, it continues to provide a pathway from subsistence agriculture to rising incomes and living standards. In the latter, it remains a vital source of innovation and competitiveness, making outsized contributions to research and development, exports, and productivity growth. But the manufacturing sector has changed—bringing both opportunities and challenges—and neither business leaders nor policy makers can rely on old responses in the new manufacturing environment. • Manufacturing’s role is changing. The way it contributes to the economy shifts as nations mature: in today’s advanced economies, manufacturing promotes innovation, productivity, and trade more than growth and employment. In these countries, manufacturing also has begun to consume more services and to rely more heavily on them to operate. • Manufacturing is not monolithic. It is a diverse sector with five distinct groups of industries, each with specific drivers of success. • Manufacturing is entering a dynamic new phase. As a new global consuming class emerges in developing nations, and innovations spark additional demand, global manufacturers will have substantial new opportunities—but in a much more uncertain environment. Manufacturing’s role is changing Globally, manufacturing continues to grow. It now accounts for approximately 16 percent of global GDP and 14 percent of employment. But the manufacturing sector’s relative size in an economy varies with its stage of development. We find that when economies industrialize, manufacturing employment and output both […]

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