New paper fresh off the press! 😀 In many industrial applications, there is a #fiber #network responsible for water absorption and liquid transport, thus operating under partly saturated conditions. #Xray #microtomography is a way of illustrating the details of the transport through the porous structure during compression. However, if the fibers have the same X-ray attenuation as the water, this becomes more complicated. In this work, our PhD student Patrick Wegele demonstrates how to visualize this by mixing potassium iodide (KI) into water to resolve this issue. 🙂 ☝ 💡 https://lnkd.in/dqCQUdiw Great work, Patrick! 🙌 and I feel nostalgic having been involved in a work regarding #µCT of partly saturated fiber networks again, which was the starting point of my research career 14 years ago! 😊
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✨Latest #research published in Polymers MDPI journal! 🧪This study, part of the #Smartfan project and Cost Essence initiative, explores the impact of geometric features and loadings of #carbon-based #nanomaterials on the strain-sensing capabilities of #epoxy-based #nanocomposites. 🔬 Our research reveals significant #insights into how reduced #graphene oxide (rGO) and carbon nanofibers (#CNFs) enhance the strain-sensing properties of #carbonfibre-reinforced polymer (#CFRP) #composites. 🔗 Dive into the full #publication here: https://lnkd.in/d9Xtqwmh
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Coaxial #electrospinning is a key technique for creating core-shell #nanofibers, allowing precise control over the structure and properties of materials. This approach is crucial in designing temperature #sensors, as the core-shell structure enhances sensitivity, stability, and response time. My recently published paper highlights the use of this method to develop advanced #thermochromic fibers for temperature sensing applications.
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Since the discovery of #graphene, extensive studies have revealed various types of novel two-dimensional #polymers such as transition metal dichalcogenides, covalent organic frameworks, and carbon allotropes. * Coordination #nanosheets (CONASHs) are bottom-up-type, two-dimensional polymers woven through coordination reactions of molecular, ionic, or atomic components. * Due to the diversity of their chemical and physical properties arising from an infinite variety of ligand and metal ions, CONASHs have attracted considerable attention. Functional CONASHs tethering 1,2-dithiolate and its analogues, carboxylate, dipyrromethine, and polypyridyl ligands have been developed. * In the article “A Bis(terpyridine)nickel(II)-Based Coordination Nanosheet: A Redox-Active Material with Flexibility and Transparency” Kenji Takada, Hiroaki Maeda and Hiroshi Nishihara report a novel functional bis(terpyridine)metal(II) complex coordination #nanosheet (CONASH) comprising a three-armed terpyridine ligand and Ni2+ ion. * The colourless Ni-terpyridine CONASH was synthesized by the method of interfacial coordination reaction at an interface of two immiscible liquids. * The synthesized CONASH was characterized with various microscopic observations such as TEM, SEM, and #AFM, and spectroscopic measurements such as XPS, IR, SEM/EDS, and UV–Vis spectroscopy. * The bis(terpyridine)nickel(II) complex nanosheet demonstrated redox-activity stemming from terpyridine complexes without distinctive colour change. Thus, the bis(terpyridine)nickel(II) coordination nanosheet is a potential redox-active material with colourlessness and flexibility, necessary for future #transparentelectronics.* NANOSENSORS™ Silicon PointProbe® Plus PPP-NCL #AFMprobes (long cantilever – typical length 225 µm, typical force constant 48 N/m, typical resonance frequency 190 kHz) https://lnkd.in/e3zbvwZx in high amplitude mode (Tapping Mode) under ambient conditions were used for the characterization by #AtomicForceMicroscopy (AFM). * Please have a look at the NANOSENSORS blog for the full citation and a direct link to the full article: https://lnkd.in/eygWRxMz #nanosheets #materialsresearch #AFMprobes #原子力显微镜探针 #AFMプローブ #AFM探针 #聚合物
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The next issue of Vol. 18 has been published (Vol. 18, No. 7). https://lnkd.in/dqTy5Spe Editorial corner – a personal view of Roland Petrény, Ádám Bezerédi, Laszlo Meszaros opens this issue: ’Electrically conductive polymer composites: Today’s most versatile materials?’. https://lnkd.in/d7X6_yv3 #polymer #polymercomposite #conductivepolymer #electricallyconductivepolymer #versatilematerial
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Discover the advantages of Moorfield’s load-lock and fast-entry chamber options for PVD systems. Designed to enhance vacuum processing, these features provide faster sample loading and unloading, reduce contamination risk, and maintain chamber vacuum integrity. Ideal for labs requiring high-throughput and clean environments, they improve overall efficiency and material quality during deposition. Key Benefits: - Quick Sample Access: Reduces downtime between processes. - Minimized Contamination: Keeps the main chamber isolated from external environments. - Enhanced Productivity: Ideal for high-volume workflows. Learn more about these options and their benefits. https://lnkd.in/esDrKKTm #PVD #ThinFilm #MaterialsScience #LabEfficiency
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Another valuable article I have published with Merve Şehnaz Akbulut and Prof.Dr. Engin Burgaz in #Materials_Today_Communications journal. In this work we designed a novel Cu-embedded core-shell carbon nanofiber mat via coaxial electrospinning approach. Then we studied the effect of press on its physical and electrical properties. The new design provides an electrical conductivity of about 100.7 S cm-1.
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"I'm thrilled to announce our latest publication in Scientific Reports (Nature Journal), titled "Comparative analysis of bulk ceramics and thin film coatings for optimized energy storage technologies"! This research explores the fabrication and characterization of lead-free ferroelectric BNT-SrF5 ceramics and their corresponding thick films, highlighting their potential in miniaturized electronic devices. (Impact Factor: ~4)" #ceramics #energy #piezoelectrics #coatings #leadfree #ferroelectric #mems #nems https://lnkd.in/dTxhtu-a
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I am thrilled to announce that our latest paper, titled "Microstructural behavior of CNT-PDMS thin-films for multifunctional systems," has just been published in the Journal of Composites: Part A. This paper provides the characterization of the large-strain mechanical behavior and the microstructure of various CNT-PDMS compositions to understand how CNT loading, agglomeration, distribution, and orientation affect CNT-PDMS unribbed systems' mechanical behavior and fracture. You can read the paper here: https://lnkd.in/eQWYhVfY #CNT #PDMS #Composites
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Not posted in a bit but here's a bumper-sized #graphene article for Avadain, Inc. - with some lovely graphics (not done by me) looking at the different types of graphene and their properties, showcasing where each type of graphene is useful - as well as discussing the benefits of Avadain's #LTDFgraphene. Been a lot of discussion around graphene of late on LinkedIn, so I think this has been well timed. It's been a big group effort with Bradley Larschan, Phil Van Wormer, Melissa Beall, Akanksha Urade, Ph.D., as well as many others who are noted at the bottom of the article (Dr. Julia Faeth, Dr. William Grieco, Dr. Sarah Roscher, Dr. Kevin Wyss) and contributed to reviewing the piece. #nanotechnology #nanomaterials #2dmaterials #LTDF #grapheneoxide #GO #graphenenanoplatelets #GNP #reducedgrapheneoxide #rGO #CVD #composites #coatings #advancedmaterials #materialsscience #nanoparticles #powder #scicomm
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💡Microfluidics : Small channels, big impact ! ⚙️ ✨ Microfluidic processes enable fluids to be manipulated and controlled in microscopic channels. They use specific physical phenomena at this scale to achieve highly precise mixing and reactions. 🧪✨ In these systems, fluids primarily flow in a laminar manner. This type of flow offers precise control of fluid behaviour, avoiding chaotic mixing. Mixing is therefore based on molecular diffusion and advection, mechanisms that are particularly effective in microscopic channels, where the diffusion distance is considerably reduced. This makes reactions faster and more controlled. ⏱️🔬 Passive microfluidic processes rely on the geometry of the channels without the need for an external energy source, with the exception of pumps or pressure differences. An example of a passive process is parallel lamination, a method that divides flows into extremely thin layers. This approach increases the interfaces between fluids, promoting rapid mixing and more efficient reactions.⚙️🔄 These processes are particularly well suited to the synthesis of advanced materials, such as crystallised nanoparticles. Thanks to precise control of critical parameters such as supersaturation, nucleation and homogeneity, they can produce uniform particles with optimal properties for a variety of applications. 💎🔍 At a time when industries are looking for innovative solutions to remain competitive, microfluidics is helping to intensify processes, paving the way for more sustainable and economically viable technologies. 🌍💡 #MicrofluidicProcesses #ProcessesEngineering #FluidDynamics #Microfluidics #AdvancedMaterials #Nanomaterials #ThinFilms #Coatings #Health #Environment #Energy #ProcessIntensification
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Technology Specialist @ Tetra Pak
6moThanks 🙏 for sharing Tomas Rosén and congratulations 🥳 to yet another great paper 🏅