Tesla Engineering Ltd: Magnets for Particle Accelerators and MRI Machines

Really enjoyed writing this case study - we know the technologies behind particle accelerators have much wider applications, this is one of those stories...

May is National Inventors Month — a time to celebrate the engineers, scientists, and innovators who turn ideas into reality. Invention isn't just about inspiration. It's about rigorous design, testing, iteration, and execution. It's about engineers who understand materials, systems integration, manufacturing constraints, and safety requirements. Innovation happens when technical expertise meets relentless problem-solving. At Protingent, we support the engineers building what comes next across aerospace and space, nuclear energy, battery systems, robotics, medical devices, semiconductors, telecommunications, and advanced manufacturing. This month, we honor the inventors who engineered the breakthroughs that changed the world — and the engineers continuing that legacy today. https://nsl.ink/gAI9 #NationalInventorsMonth #EngineeringInnovation #STEM #Protingent

Work will soon begin to spin off the National Research Council Canada / Conseil national de recherches Canada's Photonics Fabrication Centre into a commercial entity. Read more here: https://lnkd.in/gvjCBdty #Photonics #PICs #Fabrication

nanosystec inside. Understanding precision at the nanometer scale From prototyping to series production. Why does scalability often become the biggest challenge in optoelectronics? Many innovations in photonics work in the lab. But the transition to serial production poses entirely new challenges. The reason: What can still be handled manually or flexibly in prototype production must function stably, reliably and efficiently in serial production. The central challenge is therefore the scalability of precision processes. For our systems, the focus is therefore on end-to-end industrialization: ➡️ Transitioning development processes into automated series production processes ➡️ Modular platforms with maximum repeatability ➡️ Integration into existing manufacturing environments This bridges the gap between innovation and series production, transforming a functioning prototype into a scalable product. Learn more about our solutions and expertise and do not hesitate to get in contact with us: https://lnkd.in/efn-4Evs #nanosystec #Photonics #Optoelectronics #Semiconductor #AdvancedPackaging #Activealignment

Looking ahead, silicon carbide (SiC) coating technology is evolving toward high performance, diversification, cost‑efficiency and full‑scenario applications. Key breakthroughs focus on: 1. Advanced fabrication: Low‑temperature CVD, nano‑graded composite coatings and ALD‑based ultra‑thin films for improved thermal shock resistance, corrosion resistance and precision. 2. Expanded applications: New opportunities in quantum computing, high‑end chips, solid‑state batteries, nuclear fusion and biomedical implants. 3. Deepened domestic substitution: Self‑controlled industrial chains to meet booming demand from semiconductors, aerospace and new energy sectors. 4. Green & smart manufacturing: Low‑carbon processes and intelligent production for better consistency, efficiency and wider civil‑use adoption. From Acheson furnace industrialization in 1893 to modern CVD‑SiC coatings powering cutting‑edge industries, SiC has fueled industrial upgrading and strategic emerging industries over more than a century. #SiC #SiliconCarbide #AdvancedCoating #SemiconductorMaterials #NewEnergyMaterials

Did you know that European fusion research is already helping advance cancer research, support the development of future space launchers, and even improve the production of frozen fries? Fusion is not only about tomorrow’s clean energy. It is also a powerful source of open innovation. On 3 June at 15:00, Fusion for Energy and EUROfusion, together with In Extenso Innovation and Viromii, are hosting an information webinar on the 2026 Fusion Technology Transfer Demonstrator Calls. These calls aim to support European companies and research organisations willing to bring fusion technologies, know-how or methods closer to the market, within and beyond the fusion sector. Selected projects may receive up to €50,000 to develop and validate demonstrators, reduce technical and market risks, and explore new industrial applications in areas such as healthcare, aerospace, manufacturing, energy and more. If you are a European company, research organisation or innovation team exploring how fusion technologies, expertise and methods can unlock new industrial applications beyond the fusion sector, this webinar will help you understand the scope of the calls, eligibility criteria and application process. 📅 Webinar: 3 June 2026, 15:00 🔗 Register here: https://lnkd.in/dPawHbwj 📄 More about the open call: https://lnkd.in/e-X8uMcX Let’s turn fusion breakthroughs into real-world impact. #FusionEnergy #TechnologyTransfer #Deeptech #Innovation #EuropeanInnovation #IndustrialInnovation #HealthcareInnovation #Aerospace #Manufacturing

Tin: Critical Uses in Tech Development ⚡ #Tin is continuing to drive some of the most advanced technological developments: 🔬 The Chip Maker: Extreme Ultraviolet (EUV) lithography relies on blasted molten tin droplets to generate the light needed to pattern advanced super-chips. 🔋 Future Energy: Tin-Carbon (Sn-C) anodes in Li-ion batteries offer a significantly higher theoretical capacity (~993 mAh/g) than standard graphite, unlocking longer EV ranges. ⚛️ Mega Physics: Niobium-Tin (Nb3Sn) is the critical superconductor enabling massive high-field magnets in fusion reactors like ITER and next-gen MRI machines. Click to access the MiningVisual graphic: 👉 https://lnkd.in/dB4iyF5x

## ⚡ Understanding Plasma: The Fourth State of Matter Powering the Future **Plasma isn’t science fiction—it’s already all around us.** From lightning and auroras to fusion labs and semiconductor fabs, plasma is the **engine behind some of the most advanced technologies we’re building today.** --- ### 🔬 What is Plasma? Plasma forms when a gas is energized so strongly that electrons are stripped from atoms, creating a mix of **ions + free electrons**. This ionized state becomes **electrically conductive, highly reactive, and controllable with electromagnetic fields**. --- ### ⚡ How Plasma is Generated There are three primary pathways: **1) Thermal Ionization (Heat-driven)** * Extreme temperatures (thousands to millions of K) * Atoms gain enough energy to lose electrons * Seen in stars and fusion experiments **2) Electrical Discharge (Field-driven)** * High voltage accelerates electrons → collisions → ionization cascade * Used in **neon lights, plasma torches, arc welding** **3) Electromagnetic Excitation (RF / Microwave)** * Energy couples into gas without electrodes * Used in **semiconductor etching, plasma reactors, sterilization** --- ### 📐 Energy & Physics Behind Plasma E = \frac{3}{2} k_B T * Particle energy scales with temperature (higher (T) → more ionization) F = q(E + v \times B) * Charged particles can be **steered and confined** using electric (E) and magnetic (B) fields P_{fusion} \propto n^2 \langle \sigma v \rangle E * Fusion power depends on particle density (n), reaction rate (\langle \sigma v \rangle), and released energy (E) --- ### 🚀 Where Plasma is Transforming Industries **🔹 Energy (Fusion Power)** * Devices like **tokamaks** and stellarators confine plasma magnetically * Goal: **clean, near-limitless energy** **🔹 Manufacturing & Electronics** * Plasma etching enables **nanometer-scale chips** * Surface treatment improves adhesion, durability, and coatings **🔹 Healthcare & Sterilization** * Cold plasma kills bacteria without heat damage * Used in **wound healing, surgical sterilization** **🔹 Aerospace & Space Propulsion** * Ion and Hall thrusters use plasma for **high-efficiency propulsion** * Enables deep-space missions **🔹 Industrial Processing** * Plasma cutting/welding delivers **precision + extreme temperatures** * Waste treatment via plasma gasification --- ### 💡 Why It Matters Now We are moving from **controlling electrons (electronics)** to **controlling ionized matter (plasma engineering)**. That shift unlocks breakthroughs in **energy, materials, medicine, and space exploration**. --- ### 🔭 Final Thought > *If electricity powered the 20th century, plasma may define the 21st.* --- #Plasma #FusionEnergy #DeepTech #Physics #Innovation #Semiconductors #SpaceTech

China builds a 35.6 Tesla superconductive magnet, 700,000 x the earth’s magnetic field! China has just pushed the boundaries of physics with a groundbreaking achievement—building a 35.6 tesla superconducting magnet, one of the most powerful ever created. https://lnkd.in/gCFAyxgW https://lnkd.in/gZdnEBfk To put that into perspective, this magnet is over 700,000 times stronger than Earth’s natural magnetic field. Such ultra-strong magnetic fields allow scientists to observe matter at an atomic level with incredible precision. This could unlock new discoveries in superconductors, leading to lossless power transmission, faster electronics, and even breakthroughs in quantum computing. It also plays a key role in nuclear fusion research, where controlling plasma requires extremely powerful magnetic confinement systems. Creating a magnet of this scale requires extreme cooling, often near absolute zero, to maintain superconductivity—where electrical resistance drops to zero. This milestone places China among global leaders in high-field magnet technology, competing with facilities in the United States and Europe. ✓Read and learn more: https://lnkd.in/guuM6xUE https://lnkd.in/gYhBxVrR https://lnkd.in/g_j2mqie https://lnkd.in/gmMs-fFr https://lnkd.in/gEQDNkpa https://lnkd.in/giSR5_aW ✓Peer-Reviewed Scientific Publications: https://lnkd.in/gGSFMP9s https://lnkd.in/gHx4JhJE https://lnkd.in/gBEWi8_V https://lnkd.in/gGN5syZM https://lnkd.in/ggnTzV95 https://lnkd.in/g2bpVXB8 https://lnkd.in/gVUjMRa9 https://lnkd.in/gSy4CSVK Credit: CTTO #ScienceBreakthrough #FutureTech #Innovation #MagneticPower Take note #TeWhatuOra. Are you really a centre of excellence? Persistent Opioid Use After Hospital Admission From Surgery in New Zealand: A Population-Based Study Anesth Analg 2024;139:701–10) Outcomes Related to New Persistent Opioid Use After Surgery or Trauma A Population-based Cohort Study (Ann Surg 2025;281:354–360) IF YOU DON’T MEASURE YOU CANT IMPROVE! HOW CAN YOU IMPROVE IF YOU DONT KNOW! RESPECT OUR PATIENTS' MOST IMPORTANT ORGAN! MONITOR THE TARGET ORGAN! ADMINISTER ANALGESIA SCIENTIFICALLY, USE ADVANCED NOCICEPTION 🙏 #SatyaSaiBaba-"Love all, Serve all". "Help ever, hurt never". "My life is my message". #SSSIHMS #SSTA #AI #APSF #OFA #ORADEs #POU #GAFI #SBI #regionalanaesthesia #NZSA #ISACON #ISA #ASA #ANZCA #ASRA #RCOA #EEG #EEG/DSA #OFA #ProMedTechnologiesLtd #Medtronic #APSF #Sedline #BIS #RCOA #POCD #NZASA #ANZICS #SPI #ketamine #Dexmedetomidine #Masimo #NOL #Medasense #Medtronic #CoNOX #FreseniusKabi #WaikatoDHB #TeWhatuOra #PHARMAC #ANZCA #HNZ #DI #VDRL #DAS#Spiro-Vista

China has just pushed the boundaries of physics with a groundbreaking achievement—building a 35.6 tesla superconducting magnet, one of the most powerful ever created. https://lnkd.in/gCFAyxgW https://lnkd.in/gZdnEBfk To put that into perspective, this magnet is over 700,000 times stronger than Earth’s natural magnetic field. It’s not just a scientific flex—it’s a major leap forward for research in materials science, energy, and advanced technology. Such ultra-strong magnetic fields allow scientists to observe matter at an atomic level with incredible precision. This could unlock new discoveries in superconductors, leading to lossless power transmission, faster electronics, and even breakthroughs in quantum computing. It also plays a key role in nuclear fusion research, where controlling plasma requires extremely powerful magnetic confinement systems. Creating a magnet of this scale isn’t easy. It requires extreme cooling, often near absolute zero, to maintain superconductivity—where electrical resistance drops to zero. The engineering precision, materials, and energy control involved reflect years of innovation and experimentation. This milestone places China among global leaders in high-field magnet technology, competing with facilities in the United States and Europe. But more importantly, it signals a future where scientific tools become powerful enough to answer questions we once thought were impossible. From medical imaging advancements to next-gen energy systems, the ripple effects of this achievement could shape industries worldwide. It’s a reminder that when science pushes limits, the future expands with it. ✓Read and learn more: https://lnkd.in/guuM6xUE https://lnkd.in/gYhBxVrR https://lnkd.in/g_j2mqie https://lnkd.in/gmMs-fFr https://lnkd.in/gEQDNkpa https://lnkd.in/giSR5_aW ✓Peer-Reviewed Scientific Publications: https://lnkd.in/gGSFMP9s https://lnkd.in/gHx4JhJE https://lnkd.in/gBEWi8_V https://lnkd.in/gGN5syZM https://lnkd.in/ggnTzV95 https://lnkd.in/g2bpVXB8 https://lnkd.in/gVUjMRa9 https://lnkd.in/gSy4CSVK Credit: CTTO #ScienceBreakthrough #FutureTech #Innovation #MagneticPower