FoodTech start-up, BioBetter, Ltd., has assigned a new role for the much-maligned Nicotiana tabacum plant upon discovering it can overcome the greatest hurdle in cultured meat—that of scaled production. 

Meat processors can turn to automation and vary film gauge, among other strategies, to meet demand for holiday products.

Believer Meats has signed a strategic partnership agreement with GEA to co-develop technologies and processes to improve the unit economics and sustainability of cultivated meat production.

Located in Adelboden, Switzerland, The Brecon offers a luxurious escape in the Swiss Alps for ultimate relaxation and the alpine experience.

Research Internships 2021 – SLSS

Arm is the industry's leading supplier of microprocessor technology providing efficient, low-power chip intelligence making electronic innovations come to life.  Through our partners, our designs power everything from coffee machines to the fastest supercomputer in the world. Do you want to work on technology that enriches the lives of over 70% of the world’s population?   Our internship programme is now open for applications! We want to hear from curious and enthusiastic candidates interested in working with us on the future generations of compute.

About Arm and Arm Research

Arm plays a key role in our increasingly connected world. Every year, more than 20 billion products featuring Arm technology are shipped.  Our engineers design and develop CPUs, graphics processors, complex system technologies, supporting software development tools, and physical libraries.

At Arm Research, we develop new technology that can grow into new business opportunities. We keep Arm up to speed with recent technological developments by pursuing blue-sky research programmes, collaborating with academia, and integrating emerging technologies into the wider Arm ecosystem.  Our research activities cover a wide range of fields from mobile and personal computing to server, cloud, and HPC computing. Our work and our researchers span a diverse range from circuits to theoretical computer science. We all share a passion for learning and creating.

About the software and large-scale systems group and our work

The Software and Large-Scale Systems Research works on distributed systems, edge computing, compute-in-memory, and computer-in-network among other subjects. We are interested in High Performance Computing, Computational Engineering, and High-Performance Data Analytics.

Through our work we try to address three main questions: How do we balance hardware diversity with the software ecosystem? How do we evolve ARM technology to be relevant at large-scale (scale-up as well as scale-out)? What is the necessary infrastructure for evaluating large scale systems (in the absence of hardware)?

Our research is currently focussed on two threads. One is developing IoT Gateway Reference Design and Proof of concept deployments around various edge use cases (Cities, Agriculture, Rural, Telco). The second one is exploring edge computing, networking, and data centre scale cluster solutions.

The post Spanish Validation Frustration Discomfort Scale was curated by information for practice.

The Americans are using the experience they are currently gaining in Ukraine to be able to go to war with China in the future. The knowledge they have gained will be used to defend Taiwan, The NYT said. "The U. S. Army transforms itself, and its hundreds of thousands of young men and women, for yet another war, this one a potential conflict with China," the newspaper wrote. The upcoming conflict between such major nuclear powers as China and the US will be many times more dangerous. It may therefore lead to huge losses for both sides.

Toshiba Electronics Europe GmbH (Toshiba) has introduced its next-generation S300 Pro Surveillance Hard Disk Drives (HDDs) targeting the latest requirements in the surveillance storage market.

Omni-ID, the developer of passive industrial radio frequency identification (RFID) tags, used by major global organisations for monitoring the location and identity of assets, has appointed Amir Mobayen as Chief Revenue Officer.

First national-scale groundwater model in Great Britain developed  British Geological Survey

The electric field responses of the average and local lattice strains and polar nanoregions of relaxor ferroelectric PMN-30PT single crystals were revealed by multi-scale and time-resolved X-ray diffraction under DC and AC electric fields.

The article presents a non-invasive nanoscale imaging technique that can be used in screening crystallization conditions for protein micro- and nanocrystals.

Here we describe TOMOMAN (TOMOgram MANager), an extensible open-sourced software package for handling cryo-electron tomography data preprocessing. TOMOMAN streamlines interoperability between a wide range of external packages and provides tools for project sharing and archival.

Lead-based relaxor ferroelectrics exhibit giant piezoelectric properties owing to their heterogeneous structures. The average and local structures measured by single-crystal X-ray diffraction under DC and AC electric fields are reviewed in this article. The position-dependent local lattice strain and the distribution of polar nanodomains and nanoregions show strong electric field dependence, which contributes to the giant piezoelectric properties.

The ForMAX beamline at the MAX IV Laboratory provides multiscale and multimodal structural characterization of hierarchical materials in the nanometre to millimetre range by combining small- and wide-angle X-ray scattering with full-field microtomography. The modular design of the beamline is optimized for easy switching between different experimental modalities. The beamline has a special focus on the development of novel fibrous materials from forest resources, but it is also well suited for studies within, for example, food science and biomedical research.

The infrared beamline at BESSY II storage ring was upgraded recently to extend the capabilities of infrared microscopy. The endstations available at the beamline are now facilitating improved characterization of molecules and materials at different length scales and time resolutions. Here, the current outline of the beamline is reported and an overview of the endstations available is given. In particular, the first results obtained by using a new microscope for nano-spectroscopy that was implemented are presented. The capabilities of the scattering-type near-field optical microscope (s-SNOM) are demonstrated by investigating cellulose microfibrils, representing nanoscopic objects of a hierarchical structure. It is shown that the s-SNOM coupled to the beamline allows imaging to be performed with a spatial resolution of less than 30 nm and infrared spectra to be collected from an effective volume of less than 30 nm × 30 nm × 12 nm. Potential steps for further optimization of the beamline performance are discussed.

To date, computed tomography experiments, carried-out at synchrotron radiation facilities worldwide, pose a tremendous challenge in terms of the breadth and complexity of the experimental datasets produced. Furthermore, near real-time three-dimensional reconstruction capabilities are becoming a crucial requirement in order to perform high-quality and result-informed synchrotron imaging experiments, where a large amount of data is collected and processed within a short time window. To address these challenges, we have developed and deployed a synchrotron computed tomography framework designed to automatically process online the experimental data from the synchrotron imaging beamlines, while leveraging the high-performance computing cluster capabilities to accelerate the real-time feedback to the users on their experimental results. We have, further, integrated it within a modern unified national authentication and data management framework, which we have developed and deployed, spanning the entire data lifecycle of a large-scale scientific facility. In this study, the overall architecture, functional modules and workflow design of our synchrotron computed tomography framework are presented in detail. Moreover, the successful integration of the imaging beamlines at the Shanghai Synchrotron Radiation Facility into our scientific computing framework is also detailed, which, ultimately, resulted in accelerating and fully automating their entire data processing pipelines. In fact, when compared with the original three-dimensional tomography reconstruction approaches, the implementation of our synchrotron computed tomography framework led to an acceleration in the experimental data processing capabilities, while maintaining a high level of integration with all the beamline processing software and systems.

Owing to their exceptional properties, hard materials such as advanced ceramics, metals and composites have enormous economic and societal value, with applications across numerous industries. Understanding their microstructural characteristics is crucial for enhancing their performance, materials development and unleashing their potential for future innovative applications. However, their microstructures are unambiguously hierarchical and typically span several length scales, from sub-ångstrom to micrometres, posing demanding challenges for their characterization, especially for in situ characterization which is critical to understanding the kinetic processes controlling microstructure formation. This review provides a comprehensive description of the rapidly developing technique of ultra-small angle X-ray scattering (USAXS), a nondestructive method for probing the nano-to-micrometre scale features of hard materials. USAXS and its complementary techniques, when developed for and applied to hard materials, offer valuable insights into their porosity, grain size, phase composition and inhomogeneities. We discuss the fundamental principles, instrumentation, advantages, challenges and global status of USAXS for hard materials. Using selected examples, we demonstrate the potential of this technique for unveiling the microstructural characteristics of hard materials and its relevance to advanced materials development and manufacturing process optimization. We also provide our perspective on the opportunities and challenges for the continued development of USAXS, including multimodal characterization, coherent scattering, time-resolved studies, machine learning and autonomous experiments. Our goal is to stimulate further implementation and exploration of USAXS techniques and inspire their broader adoption across various domains of hard materials science, thereby driving the field toward discoveries and further developments.

Biological materials have outstanding properties. With ease, challenging mechanical, optical or electrical properties are realised from comparatively `humble' building blocks. The key strategy to realise these properties is through extensive hierarchical structuring of the material from the millimetre to the nanometre scale in 3D. Though hierarchical structuring in biological materials has long been recognized, the 3D characterization of such structures remains a challenge. To understand the behaviour of materials, multimodal and multi-scale characterization approaches are needed. In this review, we outline current X-ray analysis approaches using the structures of bone and shells as examples. We show how recent advances have aided our understanding of hierarchical structures and their functions, and how these could be exploited for future research directions. We also discuss current roadblocks including radiation damage, data quantity and sample preparation, as well as strategies to address them.

Single-crystal X-ray diffraction analysis of small molecule active pharmaceutical ingredients is a key technique in the confirmation of molecular connectivity, including absolute stereochemistry, as well as the solid-state form. However, accessing single crystals suitable for X-ray diffraction analysis of an active pharmaceutical ingredient can be experimentally laborious, especially considering the potential for multiple solid-state forms (solvates, hydrates and polymorphs). In recent years, methods for the exploration of experimental crystallization space of small molecules have undergone a `step-change', resulting in new high-throughput techniques becoming available. Here, the application of high-throughput encapsulated nanodroplet crystallization to a series of six di­hydro­pyridines, calcium channel blockers used in the treatment of hypertension related diseases, is described. This approach allowed 288 individual crystallization experiments to be performed in parallel on each molecule, resulting in rapid access to crystals and subsequent crystal structures for all six di­hydro­pyridines, as well as revealing a new solvate polymorph of nifedipine (1,4-dioxane solvate) and the first known solvate of nimodipine (DMSO solvate). This work further demonstrates the power of modern high-throughput crystallization methods in the exploration of the solid-state landscape of active pharmaceutical ingredients to facilitate crystal form discovery and structural analysis by single-crystal X-ray diffraction.

Developing semiconductor devices requires a fast and reliable source of strain information with high spatial resolution and strain sensitivity. This work investigates the strain in an axially heterostructured 180 nm-diameter GaInP nanowire with InP segments of varying lengths down to 9 nm, simultaneously probing both materials. Scanning X-ray diffraction (XRD) is compared with Bragg projection ptychography (BPP), a fast single-projection method. BPP offers a sufficient spatial resolution to reveal fine details within the largest segments, unlike scanning XRD. The spatial resolution affects the quantitative accuracy of the strain maps, where BPP shows much-improved agreement with an elastic 3D finite element model compared with scanning XRD. The sensitivity of BPP to small deviations from the Bragg condition is systematically investigated. The experimental confirmation of the model suggests that the large lattice mismatch of 1.52% is accommodated without defects.

Neutron spectroscopy uniquely and non-destructively accesses diffusive dynamics in soft and biological matter, including for instance proteins in hydrated powders or in solution, and more generally dynamic properties of condensed matter on the molecular level. Given the limited neutron flux resulting in long counting times, it is important to optimize data acquisition for the specific question, in particular for time-resolved (kinetic) studies. The required acquisition time was recently significantly reduced by measurements of discrete energy transfers rather than quasi-continuous neutron scattering spectra on neutron backscattering spectrometers. Besides this reduction in acquisition times, smaller amounts of samples can be measured with better statistics, and most importantly, kinetically changing samples, such as aggregating or crystallizing samples, can be followed. However, given the small number of discrete energy transfers probed in this mode, established analysis frameworks for full spectra can break down. Presented here are new approaches to analyze measurements of diffusive dynamics recorded within fixed windows in energy transfer, and these are compared with the analysis of full spectra. The new approaches are tested by both modeled scattering functions and a comparative analysis of fixed energy window data and full spectra on well understood reference samples. This new approach can be employed successfully for kinetic studies of the dynamics focusing on the short-time apparent center-of-mass diffusion.

Geological formations provide a promising environment for the long-term and short-term storage of gases, including carbon dioxide, hydrogen and hydro­carbons, controlled by the rock-specific small-scale pore structure. This study investigates the nanoscale structure and gas uptake in a highly porous silica aerogel (a synthetic proxy for natural rocks) using transmission electron microscopy, X-ray diffraction, and small-angle and ultra-small-angle neutron scattering with a tracer of deuterated methane (CD4) at pressures up to 1000 bar. The results show that the adsorption of CD4 in the porous silica matrix is scale dependent. The pore space of the silica aerogel is fully accessible to the invading gas, which quickly equilibrates with the external pressure and shows no condensation on the sub-nanometre scale. In the 2.5–50 nm pore size region a classical two-phase adsorption behaviour is observed. The structure of the aerogel returns to its original state after the CD4 pressure has been released.

The increasing structural complexity and downscaling of modern nanodevices require continuous development of structural characterization techniques that support R&D and manufacturing processes. This work explores the capability of laboratory characterization of periodic planar nanostructures using 3D X-ray standing waves as a promising method for reconstructing atomic profiles of planar nanostructures. The non-destructive nature of this metrology technique makes it highly versatile and particularly suitable for studying various types of samples. Moreover, it eliminates the need for additional sample preparation before use and can achieve sub-nanometre reconstruction resolution using widely available laboratory setups, as demonstrated on a diffractometer equipped with a microfocus X-ray tube with a copper anode.

Small-angle neutron scattering is a widely used technique to study large-scale structures in bulk samples. The largest accessible length scale in conventional Bragg scattering is determined by the combination of the longest available neutron wavelength and smallest resolvable scattering angle. A method is presented that circumvents this limitation and is able to extract larger length scales from the low-q power-law scattering using a modification of the well known Porod law connecting the scattered intensity of randomly distributed objects to their specific surface area. It is shown that in the special case of a highly aligned domain structure the specific surface area extracted from the modified Porod law can be used to determine specific length scales of the domain structure. The analysis method is applied to study the micrometre-sized domain structure found in the intermediate mixed state of the superconductor niobium. The analysis approach allows the range of accessible length scales to be extended from 1 µm to up to 40 µm using a conventional small-angle neutron scattering setup.

Saudi Arabia-based fintech infrastructure platform Lean Technologies has raised USD 67.5 million in a Series B funding round to scale its Pay-by-Bank and Open Banking offerings.

Americas progress in arresting its obesity epidemic has been too slow, and the condition continues to erode productivity and cause millions to suffer from potentially debilitating and deadly chronic illnesses.

There is no substitute for dramatic reductions in greenhouse gas emissions to mitigate the negative consequences of climate change, a National Research Council committee concluded in a two-volume evaluation of proposed climate-intervention techniques.

As U.S. life expectancy falls and the nation struggles to achieve health outcomes on par with other high-income countries, the VA and HHS should collaborate to create a national Center for Whole Health Innovation to support, scale, and spread whole health care nationally across health systems.

For large enterprises, Conversational AI isn't just another digital tool; it's becoming a strategic imperative. Consider this: a typical Fortune 500 company handles over 50 million customer interactions annually across various channels – from social media and websites to mobile apps and contact centers.

Private banks including HDFC Bank, ICICI Bank and Axis have been spending a lot on expanding their operations into the hinterlands of the country, contrary to public sector banks which have been investing in building capabilities and enhancing their digital functions. What’s driving this change? Is phygital the new norm in banking? Find out more here.

Bright, integrated backlit display enables easy operation for weighing applications.

Pall Membralox Microfiltration System equipped with ceramic membranes with gradient permeability technology plays a critical role in purifying valuable protein.

Exclusive partnership will scale next generation chickpea proteins for North America.

Equipment manufacturers offering scales and checkweighers now offer systems that feature data connectivity, hygienic design, high speeds, improved accuracy, less waste and the ability to maintain traceability. And in addition to all these improvements, today’s scales and checkweighers are easier to use than earlier models.

Admix, Inc., global manufacturer of hygienic and industrial mixing equipment serving the food and beverage, chemical/industrial, cosmetic and pharmaceutical markets, has announced their newly redesigned RS-02 Pilot Scale Mixer is now available.

The partnership between Interplay and Peterman comes at a pivotal time as Peterman continues to expand its operations and scale its technical training efforts.

"Top Dawg 1V1" kicks off Feb 4 in Salt Lake City with finals in Draper April 8; Registration now open in four divisions: youth, teen, open and 40 Plus

Telcos are more than six years behind hyperscalers like Microsoft, Google or Meta when it comes to building strategic capabilities in the workforce for success in the future, according to the latest research by technology analyst firm STL Partners.

AutoNation Toyota Irvine Becomes Presenting Sponsor of Popular Orange County Race Benefiting Pediatric Cancer Research

Mayor Joon-pyo Hong of Daegu said that, "This event is an expo that was held by combining robots, automation devices, and parts and materials. It is a place where you can see the endless potential for development in the relevant fields."

XScale enables up to 24 channels from a single ATSC 1.0 encoder

Seamless Integration of Healthcare and Travel for a Holistic Patient Experience

The talks can be submitted from May 23rd to August 1st

Managing rapid growth is a huge challenge for young businesses. Even start-ups with glowing reviews and skyrocketing sales can fail. That’s because new ventures and corporate initiatives alike have to sustain profitability at scale, according to Harvard Business School senior lecturer Jeffrey Rayport. He has researched some of the biggest stumbling blocks to long-lasting success and explains how to make the tricky transition out of the start-up phase successfully. With professors Davide Sola and Martin Kupp of ESCP Business School, Rayport cowrote the HBR article “The Overlooked Key to a Successful Scale-Up.”

With all the hype in the startup world around unicorns and hypergrowth, entrepreneurs feel enormous pressure to raise massive amounts of cash from venture capitalists. But now, as interest rates have risen, a lot of that funding has dried up. And a growing number of founders are seeking ways to scale without burning through cash to acquire users. Mike Salguero is the CEO and founder of the meat subscription service ButcherBox. After a negative experience with venture capital at his prior company, Salguero pledged to grow his new startup without it. That meant a "Box One Profitable" strategy built on the creative leverage of influencers, laser focus on costs, and making tough decisions during the pandemic. Salguero shares how he grew a $600 million company in seven years without outside money.

The restaurant business is notoriously competitive and often propelled by passing fads. But, first at the helm of Au Bon Pain, and then as the founder of Panera Bread, Ron Shaich managed to create an entirely new category of dining between fast food and table service and then dominate that market in the United States. He says the strategies that brought him success can be applied in any type of organization:  listen to and observe customers so you know what they want, create a truly differentiated offering, execute with excellence, and find the right opportunities to grow. He’s employed this playbook as an investor in newer ventures like Cava and Tatte, as well. Shaich wrote the book Know What Matters: Lessons from a Lifetime of Transformations.

Ready to add the finishing touches to your design in Adobe Illustrator? But the objects aren’t properly aligned? Does your design look unprofessional because it isn’t adjusted properly? Well, worry no more! Because with just a few steps, this tutorial explains how to use Illustrator's Scale Tool to resize, adjust, and align your design perfectly.  ...

The post Scale Tool in Illustrator: What It Does and How to Use It  appeared first on Bittbox.

Discover top AI image upscalers to boost resolution and clarity without quality loss—perfect for designers, marketers, and content creators.

The Open University and UCL have been pursuing projects to deliver on-demand audio and video podcasting recording and distribution services primarily via Apple's iTunes U service. In this talk, Nicholas and Jeremy will discuss how the different approaches of two very different institutions impacted on the nature of the two projects, how challenges were addressed and how solutions were developed. The session was facilitated by Jeremy Speller, UCL and Nicholas Watson.