Laura Canil’s Post

Unveiling the Secrets of the Philadelphia Experiment: High Voltage and Rotating Magnetic Fields Join us as we delve into the intriguing story of the Philadelphia Experiment and its connection to high voltage and rotating magnetic fields. Discover how this technology could potentially lead to the creation of a time machine. Prepare to be amazed! #PhiladelphiaExperiment #TimeTravel #MagneticFields #HighVoltage #TimeMachine #IntriguingStories #ScientificBreakthroughs #UnveilingSecrets #ElectromagneticTechnology #MindBlowingDiscoveries

The Hand Research Laboratory at the University of Arizona used InReach CT scans to understand how joint space width of the trapeziometacarpal joint may be underestimated on plain X-Rays. This research lays the groundwork for automated and accurate X-Ray measurements of the TMC joint. Read the full study below. Zong-Ming Li #ConeBeamCT #XRay #CurveBeamAI #HandResearch

Explore the intricate world of electromagnetic wave propagation through materials in our latest white paper! 📡📑 Specifically tailored for radar systems, this content is crucial when radar needs to navigate through walls or in the design of radomes – protective casings for radar systems. In the radome design process, conducting a comprehensive EM simulation is imperative. However, our white paper provides valuable insights to initially estimate the functional viability of a radome. Discover how to choose the right materials for optimal performance. Stay tuned for groundbreaking solutions and expert guidance! 🌐✨ #DiscoverInfineonAP #RadarSystems #EMWavePropagation #RadomeDesign #MaterialsScience #Innovation #Simulation #TechnologyInsights More Contents: Woongsik Dr. Su, MBA

Did you know that the dominant #noise sources radiated by the flow past a #porous-coated #cylinder at low Mach numbers are not located on the body surface but rather in its wake, at the onset position of the vortex shedding? And that the related Aeolian tone can be effectively modelled by considering only the #diffraction of a compact #quadrupole by the cylinder surface? You can read more about this fascinating topic in our latest research article, which has been published in the Journal of Sound and Vibration and is another result of the fruitful, ongoing #collaboration between the Delft University of Technology, von Karman Institute for Fluid Dynamics, and Politecnico di Torino. The paper, co-authored by my amazing colleagues Francesco Avallone, Daniele Ragni, Christophe Schram, and Sybrand Van Der Zwaag, is now available in Open Access through the following link: https://lnkd.in/e6zVZDVm Stay tuned for more exciting developments! #tudelftaeroacoustics #vkiaeroacoustics #togetherstronger

Our ultra-high sensitivity NV probe means you can detect even the faintest magnetic fields without damaging your samples, revealing hidden properties and structures in your samples that were previously invisible, which is valuable for research and development in magnetism-related fields. Check more: https://lnkd.in/eAP7kqGy #NV #Magnetometer #magnetism #nvcenter #CIQTEK #detection

#TuesdayTours: Did you know we offer free tours from the comfort of your own space? Take ten and check out the Klystron Gallery virtually at Oak Ridge National Laboratory's #SpallationNeutronSource. You'll learn about all the cool science happening, like how the klystrons (vertical red cylinders) power 81 superconducting cavities inside the linear accelerator’s cryomodules. ⚛ #neutrons https://bit.ly/3suVxfH

This letter presented a novel low-profile method to improve the bidirectional gain of a #dual-#element #folded #dipole #antenna (#DFDA) is presented. The proposed technique employs surface current distribution conditioning using integrated parasitic elements while preserving the radiators. The authors introduce a middle layer consisting of a 1-D array of metal strips embedded between the upper and lower surfaces of the dipole, called #midstrips. The midstrips are designed as parallel resonators and play the key role of current polarizing of the dipole currents. At the presence of the midstrips, the cross currents on the dipole surface are polarized out of phase and cancel each other, improving radiation-polarization purity consequently. The co- components are changed from a distributed form to a triple current form, which leads to the excitation of a new resonance. The geometric-progression-based array factor is extracted to model the gain enhancement mathematically. ---- Ali Heidari, Reza Zaker, Ali Kheirdoost More details can be found at this link: https://lnkd.in/eApxXiBm

Discover the highly requested Axial Pushover Analysis feature in RSPile! Join Dr. Ahmed Mufty in this episode of Mastering RSPile as he delves into this essential tool to obtain the axial load response to applied axial head displacement. Find out more about this feature here: https://bit.ly/3sFhysd #Rocscience #PileAnalysis #NumericalAnalysis #GeotechnicalEngineering

This letter presented a novel low-profile method to improve the bidirectional gain of a #dual-#element #folded #dipole #antenna (#DFDA). The proposed technique employs surface current distribution conditioning using integrated parasitic elements while preserving the radiators. The authors introduce a middle layer consisting of a 1-D array of metal strips embedded between the upper and lower surfaces of the dipole, called #midstrips. The midstrips are designed as parallel resonators and play the key role of current polarizing of the dipole currents. At the presence of the midstrips, the cross currents on the dipole surface are polarized out of phase and cancel each other, improving radiation-polarization purity consequently. The co- components are changed from a distributed form to a triple current form, which leads to the excitation of a new resonance. The geometric-progression-based array factor is extracted to model the gain enhancement mathematically. ---- Ali Heidari, Reza Zaker, Ali Kheirdoost More details can be found at this link: https://lnkd.in/eApxXiBm

Step 3 of building a KM3NeT Neutrino Digital Optical Module (DOM) We follow the entire build at Nikhef (Nationaal instituut voor subatomaire fysica) from 2 empty glass hemispheres to a complete detector with 31 PMTs to measure Cherenkov light together with 17 other DOMs between 2.5-3.5 km below the Mediterranean sea level.