Upcoming (serious) Web performance boostBy: Adam Scott5 June 2025Progress ReportSometimes, just adding a compiler flag can yield significant performance boosts. And that just happened.For about two years now, all major browsers have supported WASM (WebAssembly) SIMD. SIMD stands for “Single instruction, multiple data” and is a technology that permits CPUs to do some parallel computation, often speeding up the whole program. And that’s exactly why we tried it out recently.We got positive results.The need for performance on the WebThe Web platform is often overlooked as a viable target, because of its less-than-ideal environment and its perceived poor performance. And the perception is somewhat right: the Web environment has a lot of security-related quirks to take into account—the user needs to interact with a game frame before the browser allows it to play any sound1. Also, due to bandwidth and compatibility reasons, you rarely see high-fidelity games being played on a browser. Performance is better achieved when running software natively on the operating system.But don’t underestimate the potential of the Web platform. As I explained in broad terms at the talk I gave at the last GodotCon Boston 2025, the Web has caught up a lot since the days of Flash games. Not only are there more people playing Web games every year, but standards and browsers improve every year in functionality and in performance.And that’s why we are interested in using WASM SIMD.WASM SIMD BenchmarksOur resident benchmark expert Hugo Locurcio (better known as Calinou) ran the numbers for us on a stress test I made. We wanted to compare standard builds to builds with WASM SIMD enabled.Note: You may try to replicate his results, but be aware that he has a beast of a machine. Here are his PC’s specifications:CPU: Intel Core i9-13900KGPU: NVIDIA GeForce RTX 4090RAM: 64 GB (2×32 GB DDR5-5800 CL30)SSD: Solidigm P44 Pro 2 TBOS: Linux (Fedora 42)I built a Jolt physics stress test from a scene initially made by passivestar. By spawning more and more barrels into the contraption, we can easily test the performance difference between the WASM SIMD build and the other.Without WASM SIMDWith WASM SIMDImprovement (approx.)Test linksLinkLink-Firefox 138(“+100 barrels” 3 times)2×Firefox 138(“+100 barrels” 6 times)10.17×*Chromium 134(“+100 barrels” 3 times)1.37×Chromium 134(“+100 barrels” 6 times)14.17×**Please note that once the physics engine enters a “spiral of death”, it is common for the framerate to drop to single digits, SIMD or not. These tests don’t prove 10× to 15× CPU computing speed improvements, but rather that games will be more resilient to framerate drops on the same machine in the same circumstances. The 1.5× to 2× numbers are more representative here of the performance gains by WASM SIMD.What it means for your gamesStarting with 4.5 dev 5, you can expect your Web games to run a little bit more smoothly, without having to do anything. Especially when things get chaotic (for your CPU). It isn’t a silver bullet for poorly optimized games, but it will help nonetheless. Also, note that it cannot do anything for GPU rendering bottlenecks.Be aware that the stress tests are meant by nature to only test the worst case scenarios, so you may not see such large improvements in normal circumstances. But it’s nice to see such stark improvements when the worst happens.AvailabilityFrom here on out, the 4.5 release official templates will only support WebAssembly SIMD-compatible browsers in order to keep the template sizes small. We generally aim to maintain compatibility with the oldest devices we can. But in this case, the performance gains are too large to ignore and the chances of users having browsers that are that far out of date is too small relative to the potential benefits.If you need to use non-SIMD templates, don’t fret. You can always build the Godot Editor and the engine templates without WebAssembly SIMD support by using the wasm_simd=no build option.What’s next?As I wrote in my last blog post, we’re currently working very hard to make C#/.NET exports a reality. We do have a promising prototype, we just need to make sure that it’s production-ready.I also mentioned in that article that I wanted to concentrate on improving our asset loading game. Preloading an entire game before even starting it hinders the ability to use Godot for commercial Web games. Once something is implemented to improve that issue, count on me to share the news with you.It’s either that, or we return to the old days of spam-webpages using the “Congratulations, you won!” sound effect when you least expect it. ↩

Workshop on “Harnessing Space-Based Earth Observation and GIS Technologies for Disaster Risk Management”  isro.gov.in

iOCO is building a resilient tech ecosystem  CIO South Africa

Ookwemin Minising Aerial photo with project area outline. Credit: Waterfront Toronto Global professional services company, GHD, and Danish nature-based design studio, SLA, have been awarded the role of prime consultant by Waterfront Toronto for phase one of infrastructure and streetscape design for a new island community. Formerly known as Villiers Island, Ookwemin Minising is a new island born from an ambitious flood protection and river restoration project. The Don River, a historic gathering place, will be at the heart of this future community. The island, which is planned to be home to more than 15,000 people, will also be a destination where people will visit to relax and explore. The first new residents of this island community are expected to move in by 2031. For the project, GHD, the prime consultant and technical lead, and SLA, design lead for urban realm and landscape, will deliver a new urban environment that aims to honour the legacy of the Don River through an approach rooted in resilient infrastructure, cultural memory and deep ecological integration. Drawing inspiration from global precedents and local Indigenous knowledge, the team’s “Growing Streets” concept proposes streetscapes that evolve like living ecosystems. “This project represents a significant milestone for Toronto’s waterfront revitalization,” said Chris Hunter, GHD chief executive officer for the Americas. “By integrating innovative engineering with responsive design, our team will help create infrastructure that’s not just functional, but truly adaptive to community needs while honoring the ecological transformation nearing completion at the Don River mouth. This approach exemplifies our commitment to building resilient systems that evolve with the communities they serve.” The team, which includes architects Allies and Morrison, will integrate design for streetscapes and public realm with a review of the density and built form on the island, building on years of planning to realize this new neighbourhood. “Tri-government investment unlocked the potential of the Port Lands, allowing us to create a brand new island,” says Chris Glaisek, chief planning and design officer at Waterfront Toronto. “Now, renewed investment in waterfront revitalization means this new island is ready to launch. By integrating design for streets and public realm with a review of built form on the island, this team can build on the planning done by the City of Toronto, Waterfront Toronto and CreateTO to deliver as much new housing as possible, while building a truly world-class neighbourhood.” At the heart of the team’s vision for Ookwemin Minising lies a next-practice model for climate-adaptive urbanism. Guided by seven core principles, including surface-level rainwater management, soil repurposing, native vegetation and social spaces that foster mobility and interaction, the design will champion active mobility through integrated pedestrian and biodiversity corridors woven throughout the island. These corridors can provide optimal microclimates for outdoor comfort while managing storm water, linking and strengthening ecologies and connecting people with nature. Informed by leading examples from cities like Copenhagen, Oslo, and London, the design will seek to maximize sustainability without relying on future technologies. “We’re thrilled to bring our Growing Streets vision to life in Toronto,” said Rasmus Astrup, design principal and partner at SLA. “This is urban design at its most alive – where trees, water, wind, soil and people grow and flow together. The streetscape design of Ookwemin Minising is not just about infrastructure, it’s about creating a living cityscape that breathes with the seasons, nurtures biodiversity and supports everyday life in inspiring, joyful ways. In Ookwemin Minising, every street becomes a celebration – of the land, of the water, of our heritage and of all the life of Toronto.” The infrastructure designs for Ookwemin Minising will incorporate  plantings, nature-integrated public seating, and climate-buffering vegetation to create a vibrant and adaptive civic experience. The team envisions a design that would build public awareness of ecological processes while enhancing urban resilience and well-being. The vision embraces a holistic design approach that integrates street configurations, building scales, and public spaces to create a cohesive and sustainable community. Rooted in the values of the surrounding Port Lands and celebrating the area’s enduring industrial, maritime and Indigenous histories, the team’s design for Ookwemin Minising will aim to set a new benchmark for culturally and ecologically responsive waterfront development in North America. The project will be brought to life by a group of industry-leading consultants, including:  GHD (prime consultant): Engineering design services, planning services, environmental services and construction administration SLA: Design lead for urban realm and landscape Trophic Design: Co-designer with SLA for Indigenous landscape design and knowledge Transsolar: Sustainability and low-carbon infrastructure systems Monumental Projects: Public engagement and community outreach Level Playing Field: Accessibility services Allies and Morrison: Architectural lead   The post GHD and SLA teaming up to deliver major infrastructure design for Toronto’s newest island appeared first on Canadian Architect.

Nature, Published online: 03 June 2025; doi:10.1038/d41586-025-01682-zGovernments and institutions must shift from top-down approaches to collaborations with local communities.

Recent technological advances have enabled the development of a wide range of increasingly sophisticated wearable and implantable devices, which can be used to monitor physiological signals or intervene with high precision in therapeutically targeted

AI-proficient employees will be crucial for companies to minimize the risk of hallucinations and achieve their goals.

A couple of important mortgage rates are decreasing. Here's where experts say rates might be headed in 2025.

The Digital Manufacturing and Cybersecurity Institute (MxD) has released its Strategic Investment Plan (SIP) for 2025-2027, presenting a detailed roadmap to bolster the competitiveness, resilience, and cybersecurity of U.S. manufacturing.  Shaped by insights from manufacturers, technology providers, academic institutions, and government partners, the plan lays out a targeted investment strategy in digital engineering, factory modernization, supply chain resilience, and workforce development.  Published on March 19, 2025, the SIP identifies core areas for MxD’s focus over the next three years: digital engineering and design, future factory systems, supply chain visibility, and cybersecurity integration. These initiatives aim to address persistent challenges within the industrial base, particularly among small and medium-sized manufacturers (SMMs) that often lack the resources needed to adopt and scale digital manufacturing solutions. “We will continue to prioritize projects and proposals designed to meet the evolving needs of the industrial base, relying on your insights and involvement throughout. Our collaborative approach has proven to be effective during MxD’s first decade and continues to be the model driving this SIP and MxD forward,” Berardino Baratta, CEO at MxD. Illustration of the product lifecycle and how the flow of data represents a complex interconnected web among all aspects. Image via MxD. Data lifecycle framework and investment focus At the center of the SIP is a technical framework called the data lifecycle. This framework maps the flow of data across the various stages of a product’s lifecycle, from development and manufacturing to deployment and support. MxD underscores the importance of seamless data movement and high-fidelity data collection, which are vital for unlocking capabilities such as predictive maintenance, quality control, and secure information sharing throughout supply chains. MxD’s data lifecycle approach has already been applied in 189 research, cybersecurity, and workforce development projects totaling $415 million in public-private investments. One example, Project 22-06-01, titled “Proactive Worker Safety for Industry 4.0 Using AI,” employed artificial intelligence (AI) and Internet of Things (IoT) sensors to reduce worker fatigue, addressing a $136 billion annual challenge for US employers. For the 2025-2027 period, MxD plans to prioritize projects that promote technology adoption across supply chains, supported by new playbooks and guides to help manufacturers modernize, close digital gaps, and apply lessons from pilot programs. This approach aims to foster coordinated, sector-wide adoption. Another central pillar of the SIP is interoperability and data standards. MxD is working on a Machine-to-X Data Standards Playbook to consolidate and harmonize data standards used by manufacturers. This effort addresses the challenge of fragmented data formats and standards across different systems, which can hinder consistent data flows and semantic interoperability. To support digital engineering and design, MxD is updating model-based definition assessments to address the shortcomings of current evaluations and provide clearer guidance for manufacturers aiming to improve digital maturity. These updates will bolster MxD’s broader goal of enhancing collaboration and data sharing across product lifecycles, enabling better designs, improved performance, and reduced costs. Future factory development is another key emphasis of the SIP. MxD’s projects in this area aim to build digital environments that support real-time process optimization, data-driven decision-making, and production lines that can adapt quickly to disruptions and new customer demands. Initiatives around digital twins, 5G/6G integration, and cybersecurity best practices will help shape these future factories. In terms of supply chain resilience, the SIP outlines plans for new risk assessment tools and visibility platforms. These tools will rely on secure data-sharing practices and advanced analytics to reduce disruptions and improve the agility of domestic manufacturing in a volatile global landscape. Cybersecurity is also a core focus of the SIP, reflecting MxD’s role as the National Center for Cybersecurity in Manufacturing. With manufacturing identified as the most targeted sector for cyberattacks in recent years, MxD’s cybersecurity projects aim to enhance protections for both operational technology (OT) and information technology (IT) environments.  Two engineers walking through a manufacturing facility. Photo via MxD. The Digital Education, Resilience, and Innovation for Supply Chain (DERISC) initiative, carried out with the Defense Logistics Agency (DLA), is an example of how MxD is equipping U.S. manufacturers with the tools and protocols needed to secure their supply chains against digital threats. Workforce training and capability roadmaps On the workforce development front, MxD’s Virtual Training Center (VTC) offers around 20,000 courses tailored to meet the evolving needs of manufacturers.  These courses include advanced role-based training programs in data analytics, cybersecurity, and extended reality applications. As an affordable and scalable learning platform, the VTC aims to close the gap in workforce training for SMMs that often lack access to comprehensive learning management systems. MxD’s training programs, such as the Curriculum and Pathways Integrating Technology and Learning Program (CAPITAL) and Cybersecurity for Manufacturing Operational Technology (CyMOT) initiatives, are designed to prepare workers for digital manufacturing roles while also supporting national defense efforts by delivering specialized cybersecurity training for supply chain participants. The SIP identifies these workforce initiatives as critical, noting that 1.9 million manufacturing jobs could remain unfilled by 2033 without targeted upskilling efforts. Beyond individual projects, the SIP features an Appendix of Capability Advancement Roadmaps. These roadmaps chart technical progress across multiple domains, emphasizing that data standards, architecture, and interoperability are essential to enabling future-ready manufacturing.  For instance, roadmaps for digital twin deployment and supply chain visibility outline clear timelines and performance milestones, providing a transparent view of how MxD plans to scale its impact. MxD’s structured approach and technical framework are designed to help manufacturers adopt secure, data-driven practices that align with broader economic and defense objectives. As digital manufacturing influences operational practices and product standards, the SIP provides a framework that supports a more adaptable and resilient US manufacturing sector. Take the 3DPI Reader Survey — shape the future of AM reporting in under 5 minutes. What 3D printing trends should you watch out for in 2025? How is the future of 3D printing shaping up? To stay up to date with the latest 3D printing news, don’t forget to subscribe to the 3D Printing Industry newsletter or follow us on Twitter, or like our page on Facebook. While you’re here, why not subscribe to our Youtube channel? Featuring discussion, debriefs, video shorts, and webinar replays. Featured image shows illustration of the product lifecycle and how the flow of data represents a complex interconnected web among all aspects. Image via MxD. Ada Shaikhnag With a background in journalism, Ada has a keen interest in frontier technology and its application in the wider world. Ada reports on aspects of 3D printing ranging from aerospace and automotive to medical and dental.

LinkedIn, the professional social network where people search for work, is shedding jobs.