Rick Walsom’s Post

The Techno Series static measurements are the foundation of this system, covering everything from diameters and lengths to angles and radii. This ensures that every aspect of a component meets the desired specifications, guaranteeing precision from the ground up. Advanced geometric measurements take this further into symmetry, parallelism, orthogonality, and straightness. Essential for maintaining the structural integrity of components, ensuring every part fits perfectly and functions as intended. Ready to elevate your manufacturing precision? Discover how the Techno Series can ensure every component meets the highest standards of quality and reliability. Contact us now to learn more about our advanced static and geometric measurement solutions. Contact Us: https://loom.ly/Gniw4eA #PrecisionManufacturing #OpticalMeasurement #TechnoSeries #EngineeringExcellence #ManufacturingInnovation #QualityControl #IndustrialTechnology #GeometricMeasurements #ThreadAccuracy #ManufacturingEfficiency #ComponentQuality #TechnoSeriesAdvantage #Metrology #AdvancedManufacturing #ManufacturingSolutions

Cavitation refers to the phenomenon in which the static pressure of a liquid reduces to below the liquid's vapor pressure, forming small vapor-filled cavities in the liquid. When subjected to higher pressure, these cavities called "bubbles" or "voids", collapse and can generate shock waves that may damage machinery. These shock waves are strong when very close to the imploded bubble, but they rapidly weaken as they propagate away from the implosion. Cavitation is a significant cause of wear in some engineering contexts. "That video was amazing! It perfectly illustrates why #cavitation happens. #Science #Engineering #FluidDynamics" video credits: technoworks

Post 21: 🚧 Challenges Faced During the Simulation Process 🛠️ As I delve deeper into my project on "Simulation of Heat Transfer in a Channel Using Sinusoidal Wire Inserts," I want to share some of the challenges I encountered during the simulation process. 🔑 Key Challenges: ·        Mesh Generation: Creating a high-quality mesh that accurately represents the complex geometry of the sinusoidal wire inserts was a significant challenge. Ensuring mesh integrity while maintaining computational efficiency required careful consideration. ·        Boundary Condition Setup: Defining appropriate boundary conditions for the simulations was crucial. Incorrect boundary conditions can lead to inaccurate results, so I had to meticulously verify each setting. ·        Convergence Issues: Achieving convergence in my simulations was sometimes difficult, particularly with complex flow patterns. I had to adjust solver settings and refine my mesh to ensure stable and reliable results. ·        Computational Resources: The simulations required substantial computational power and time, especially for three-dimensional models. Managing resources effectively was essential to keep the project on track. Despite these hurdles, each challenge provided valuable learning opportunities and insights that have strengthened my approach. Overcoming these obstacles is a testament to the resilience and dedication of my performance Stay tuned for more updates as I conclude on my research! 🚀 Adigun Abdulwarith, Wasilat Olayode,Hammed Tosin,Hammed Okusi, GMNSE,Hameedah Hassan,Hamilton Poko,Hamzat Semiu,Bianca Rollison,Bianca Chinaecherem,Nafissa Bia,Oche Enenche,Ajayi David HAPPY NEW MONTH !!!! #SimulationChallenges #CFD #HeatTransfer #Engineering #Research #Innovation #ProblemSolving

🌀 In this paper, the optimum blade loading in various turbomachinery applications with reference to the flow physics is described. These include suppression of secondary flows in mixed-flow and radial impellers, suppression of corner separation in pump vaned bowl diffusers, control of cavitation in pumps, as well as noise reduction in an axial flow fan. Key Takeaways: ✅ Discover how the 3D inverse design inviscid compressible method and an optimum blade loading are applied to multiple fan and pump applications. ✅ Understand how a large design space can easily be explored to effectively optimize the meridional geometry and the blade shapes. ✅ See how this method can maximise the efficiency and minimize/suppress common flow phenomena. Find out more here: https://bit.ly/4eJECsK #3DInverseDesign #Turbomachinery #TURBOdesignSuite #AxialFans #Fans #Pumps

Driving innovation: Deep Insights into Copper Welding Processes at DESY 🔵   Discover how utilizing a blue diode laser can result in deeper welds compared to infrared (IR) lasers at equivalent power levels. In our latest video, witness the remarkable 1.75KW power output and delve into the science behind achieving deeper welds with blue wavelength, attributed to its superior absorption properties over IR. 📈 Over the past two years, Deutsches Elektronen-Synchrotron DESY in Hamburg has conducted extensive welding tests to illustrate the behavior of the melt pool conditions. Through high-frequency X-rays, the cross-section of the melt pool has been made visible, providing invaluable insights into the welding process and the melt pool dynamics. 🔬 The results highlight the outstanding performance of our blue diode laser, exhibiting stable melt pools without turbulences or pore formation while maintaining a consistent weld depth. In contrast, infrared lasers, requiring smaller spots for coupling with copper surfaces, demonstrate inferior welding depth, accompanied by higher turbulence and pore formation.   Thanks again to Fraunhofer ILT, and Lehrstuhl für Lasertechnik LLT - RWTH Aachen University for the cooperation on this project. 🙏 You can download the complete scientific paper here: https://lnkd.in/e-iU3tWJ Get more information on Blue Lasers here:  https://lnkd.in/evSyeYgU    #LaserWelding #BlueLaser #Copper #CopperWelding #Laserline #DESY #Synchroton #VaporCapillary #DiodeLaser #IR 

New Publication with APE's high contrast autocorrelator Did you know that different types of lasers have different pulse pedestals in terms of pulse energy? For some lasers, this pedestal can be a significant portion of the total pulse energy, as much as 40%, and as long as a few hundred picoseconds (see figure). To find out how much pedestal a laser has, you need a high-contrast autocorrelator like the pulseCheck SM Type 2. With it, you can measure pulse contrast up to seven orders of magnitude (peak to baseline) and pulse durations up to one nanosecond. For an example of how you can control and use pulse contrast with different laser settings, we invite you to read the recent paper by Peter Kazansky (University of Southampton, UK) on ultrafast laser writing in silica glass. Link to paper: https://lnkd.in/ePbzMr67 Link to pulseCheck SM Type 2: https://lnkd.in/ePN82tuP #autocorrelators #ultrafastlasers #lasertechnology #femtosecond #lasers #photonicsindustry #apeberlin #ultrafast

Unlock the future of wire production with the INROQUENCH Laboratory Scale Wire Casting System, where cutting-edge technology meets precision engineering. Designed for researchers, innovators, and industry professionals, the INROQUENCH system revolutionises how you approach wire casting, offering unparalleled control and consistency. Why Choose The INROQUENCH System? 🔬 Innovative Research Applications: Perfect for academic and industrial research, the INROQUENCH system allows for experimental flexibility and the development of new wire casting techniques. ⛓️ Reliable Quality Assurance: Consistently produce wires with high dimensional accuracy and superior surface quality, reducing material waste and improving overall efficiency. ⚙️ Customisable Settings: Tailor the system to your specific project needs with customisable settings, ensuring each cast meets your precise requirements. 🤖 Durable and Dependable: Built with robust materials and designed for longevity, the INROQUENCH system offers reliable operation for years to come. Want to know more? Contact PSI today https://lnkd.in/eSvy-KPm #IndustrialResearch #Academic #Wire #Magnetic #Rapid #Solidification #Technology #System

🚀 Why Use Tensors? Frithiof Niordson said it best in 1983: "A tensor equation doesn’t refer to any particular coordinate system; if it holds in one, it holds in all." This is a game-changer, especially for fields like solid mechanics and shell theory, where the validity of equations is independent of our arbitrary choice of coordinates. Here are some compelling reasons why tensors are indispensable in solid mechanics: 1️⃣ Coordinate Independence – No matter which system you choose, tensor equations remain valid, giving a globally consistent view of material behavior. 2️⃣ Compact Representation – Tensors elegantly simplify complex, multidimensional relationships, reducing vast systems of equations into manageable forms. 3️⃣ Naturally Incorporates Anisotropy – Tensors capture directional dependencies, making them perfect for analyzing materials like composites that behave differently along various axes. 4️⃣ Transformation Under Rotations & Deformations – They adhere to precise transformation rules, ensuring accuracy when modeling large deformations, which is crucial for simulating real-world behaviors. Please consider resharing this ♻️ and adding comments below. Thank you! #Tensors #SolidMechanics #Engineering #ContinuumMechanics #ShellTheory #FiniteElementAnalysis

SMIDA HIGH-SPEED MIXER DEMO: #reseach #development #production Non-contact vacuum planetary centrifugal mixer for #chemicalsindustry : 1)#mixer Overview: Our non-contact vacuum planetary centrifugal mixer makes full use of the principle of rotation and revolution, that is, the movement of the converter on the central axis of the winding includes the generation of acceleration force, thereby achieving material separation and nano-scale powder accumulation without contact with the material, and can uniformly stir various kinds of materials in a short time Materials, including liquid materials, high-viscosity materials, and even nano-scale powder materials, are stirred and defoamed at the same time with super strength and high speed. 2) #physical principles: The container holder is tilted 45 degrees relative to the axis of revolution A container containing material is secured to the holder. "Revolution": clockwise orbital rotation. (Degassing completed) "Rotation": Counterclockwise rotation. On the orbit of revolution The centre of the container is the axis for rotation. (Complete mixing) The interaction between rotation and revolution produces eddy currents and Convection up and down. Push bubbles out of the material and stir No air bubbles will be mixed during mixing and dispersion 3)#mixing capacity：12ml to 14,000 ml 4)Application industry： ✔ #3dprinting and #additive Manufacturing ✔#adhesives and #sealants ✔ #aerospace and #defenseindustry ✔ #cosmetics ✔ #glass & #ceramic ✔ #chemicals industry ✔#Paint, #ink , #coating ✔ #polyurethane ✔ #silicone ✔ #pigments , #metal oxides ✔#led R&D ✔ Car #batteries and #electronics ✔ #epoxyresin ✔ #dental field ✔#thermal management materials ✔#pharmaceuticalindustry ✔#semiconductorindustry

Lambda Technologies Group empirically determined residual stress field data drives the fracture mechanics simulations needed to assess the design performance of engineered structural materials. We can quantify these benefits using BEASY Innovative Solutions modeling. Learn about about how BEASY and LAMBDA together can improve fatigue life predictions. info@beasy.com #BEASY #ResidualStress #Fracture #CrackGrowth #Fatigue #Engineering