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HCE-5710 Hitachi Data Systems Certified Expert - Replication solutions implementation

Exam Name : Replication Solutions Implementation Expert
Exam Number : HCE-5710 Replication Solutions Implementation
Exam Duration : 90 minutes
Questions in test : 60
Passing Score : 70%
Exam Registration : PEARSON VUE
Real Questions : Hitachi Vantara HCE-5710 Real Questions
VCE practice test : Hitachi Vantara Certified Expert - Replication Solutions Implementation Practice Test

Section Objectives Replication principles and fundamentals - Describe the features of synchronous remote replication.
- Describe the features of asynchronous remote replication.
- Demonstrate how clusters integrate with replication.
- Describe when to use Hitachi Thin Image vs. Hitachi ShadowImage in a replication solution. Understanding replication solutions - Identify anticipated outage causes and the appropriate protection.
- Describe the key elements of the customer environment that need to be taken into consideration when deploying a replication solution.
- Describe how replication solutions are deployed within a tiered storage infrastructure. Pre-deployment checks - Identify the required checks to be carried out prior to deploying a replication solution.
- Describe configuration, infrastructure and bandwidth requirements for remote replication solutions.
- Describe configuration requirements for in-system replication solutions. Hitachi replication common concepts - Describe how command devices are set up and used.
- Describe how to manage replication pairs.
- Describe how RAID manager/command control interface (CCI) is configured and used.
- Describe the purpose of having consistency groups and explain their benefits.
- Describe the differences between a CCI device group and a consistency group. Implementing Hitachi Universal Replicator - Describe the characteristics of a replication solution that uses Hitachi Universal Replicator software.
- Describe how to configure Hitachi Universal Replicator links between Hitachi storage systems.
- Describe the key steps to set up and configure a Hitachi Universal Replicator solution.
- Describe the requirements and the restrictions relating to mapping and pairing P-VOLs and S-VOLs for Hitachi Universal Replicator.
- Describe the purpose and the usage of RAID Manager/CCI commands with Hitachi Universal Replicator. Implementing Hitachi Thin Image - Describe the key steps to set up and configure a Hitachi Thin Image solution.
- Describe the requirements and the restrictions relating to mapping and pairing P-VOLs and V-VOLs for Hitachi Thin Image.
- Describe the purpose and the usage of RAID Manager/CCI commands with Hitachi Thin Image. Implementing Hitachi ShadowImage - Describe the characteristics of a replication solution that uses Hitachi ShadowImage software.
- Describe the key steps to set up and configure a Hitachi ShadowImage solution.
- Describe the requirements and the restrictions relating to mapping and pairing P-VOLs and S-VOLs for Hitachi ShadowImage.
- Describe the purpose and the usage of RAID Manager/CCI commands with Hitachi ShadowImage. Implementing Hitachi TrueCopy - Describe the characteristics of a replication solution that uses Hitachi TrueCopy software.
- Describe the key steps to set up and configure a TrueCopy solution.
- Describe the requirements and the restrictions relating to mapping and pairing P-VOLs and S-VOLs for TrueCopy.
- Describe the purpose and the usage of RAID Manager/CCI commands with TrueCopy. Implementing global-active device - Describe the characteristics of a replication solution that uses global-active device.
- Describe the key steps to set up and configure a global-active device solution.
- Describe the purpose and the usage of RAID Manager/CCI commands with global-active device.
- Describe the I/O modes in a global-active device environment. Advanced replication implementation techniques - Demonstrate how to set up replication and describe operations in a tiered storage environment with Hitachi Universal Volume Manager software.
- Describe how replication solutions are deployed within Hitachi Dynamic Provisioning environments.
- Demonstrate how to set up replication and describe operations in a three data center (3DC) configuration. Replication with Hitachi Replication Manager software - Describe how Hitachi Replication Manager can be used with in-system replication.
- Describe how Hitachi Replication Manager can be used with remote replication.
- Describe how to integrate an existing HORCM configuration into Hitachi Replication Manager. Testing and troubleshooting replication solutions - Describe the steps required to fix a "HORCM failed to start" error.
- Describe how to specify the environment parameters.
- Describe methods of troubleshooting "paircreate" errors.
- Describe the various replication pair states.
- Describe which logs are available for troubleshooting and how to access them.
- Describe how to troubleshoot in a global-active device environment.
- Describe how to troubleshoot mounting problems in replication environments.

Hitachi Data Systems Certified Expert - Replication solutions implementation
Hitachi implementation test Questions
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A.H. Ismail Center

Health and Human Sciences

The fitness center has aerobic and resistance machines that can be programmed to research protocols and capture exercise data.  Also available are dumbbells, cable station, and balance equipment for researchers to train and test subjects.  Fitness assessment labs house a metabolic cart, ECG, treadmill, and other equipment to assess body composition, muscular endurance & strength, and flexibility.  Trained and certified Ismail Center staff can  assist researchers.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Lane M. Yahiro

Website

Agronomy Center of Research and Education

Agriculture

field research on agronomic crops, soils, earth and plant imaging; solar agro-electric farming; agricultural robotics; field phenotyping or agronomic row crops

Location:
Recharge? Yes (Yes, depending on project)
Accessible to Non-Purdue Users? Yes (Yes, if collaborating with Purdue University)
Contact: Jim Beaty

Website iLab Page - External

Amy Instrumentation Facility

Science

The Jonathan Amy Facility for Chemical Instrumentation (JAFCI) is dedicated to the fusion of engineering expertise with the quest for scientific knowledge to further research and instructional efforts in the Department of Chemistry and School of Chemical Engineering at Purdue University. Our team of scientists and engineers provide assistance in the design / construction of specialized instrumentation not commercially available along with repair / modification of commercial systems.

Location:
Recharge? No
Accessible to Non-Purdue Users? No
Contact: Dr. Michael Everly

Website

Animal Sciences Research and Education Center

Agriculture

The mission of the Animal Sciences Research and Education Center (ASREC) is to provide animals, facilities, technical assistance and labor to conduct research, provide instruction, and assist in extension educational activities. Research trials vary from basic to applied and involve many disciplines -- nutrition, physiology, behavior, genetics, reproduction, animal health, and product quality. Faculty utilize the Research and Education Center to facilitate teaching several Animal Sciences courses and to help provide hands-on experience for students. Some Extension education activities are held at the center.

Location: 5675 W. 600 N., West Lafayette, IN
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Craig Williams

Website

Arthur Fungarium and Kriebel Herbarium

Agriculture

An Herbarium is a collection of carefully preserved plant and/or fungal specimens; a Fungarium is a collection of carefully preserved fungal specimens. The Department of Botany and Plant Pathology at Purdue University houses two herbaria of immense historical and scientific value. The Arthur Fungarium (herbarium acronym PUR) is the largest specialized Fungarium, containing the most important collection of plant rust fungi (order Pucciniales), in the world. The Kriebel Herbarium (acronym PUL) contains non-rust fungi, vascular plants, lichens, algae and bryophytes, and is the oldest herbarium in the state of Indiana. Together the collections contain close to 250,000 specimens dating as far back as 1769 and gathered from across the globe. The collections are an important global resource for scientists and researchers in the fields of botany, mycology, plant pathology, forestry and biology. PUR and PUL arrange for loans of material to other herbaria and researchers around the world, accept material for deposition to voucher scientific studies, and serve as a resource for identifying rust fungi and their host plants from around the world.

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: M. Catherine Aime

Website

Bioinformatics and Discovery Systems Lab

Technology

The lab is used to carry out common genomic biotechnology methods in collaboration w/ other groups on campus, as well as develop new methods for detecting DNA biomarkers and developing innovative information management systems in support of genomics research. The lab is equipped with a DNA microarray spotter, and DNA microarray scanner, most often used for gene expression studies.

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Michael Kane

Website

Bioinformatics Core

Agriculture

Facilitate, amplify, and accelerate biological research and discovery through application of bioinformatics. Deliver high quality analysis and consultation in a timely and economical manner. Support workshops and learning activities. Support computational resources.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Jyothi Thimmapuram

Website iLab Page - External

Biomolecular Cleanroom

Discovery Park

2,500 Sq. ft. Bio-Nanotechnology Integration Laboratory

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Guy Telesnicki

Website

Birck Nanotechnology Center BioNanotechnology Laboratories (BNC-BNL)

Discovery Park

BNC-BNL is located at the Birck Nanotechnology center. It provides researchers a place where they can take their drug delivery (e.g. BioMEMS/NEMS or Biosensor) device or nanoparticle-driven from idea stage to a viable prototype to invitro testing and basic sterility testing. A CTSI core facility.

Location: Birck Nano
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Steve Jurss

Website

Center for Analytical Instrumentation Development

Discovery Park

Develop the next generation of analytical instrumentation for chemistry, life science and point-of-need applications in medicine, industry, and public safety. Expand participation to other regional institutions. Prominent among these instrumental methods is the application of mass spectrometry to problems of national and world interest and the miniaturization of mass spectrometry to further those aims.

Location:
Recharge? Yes (Yes, for specialty prototype instruments)
Accessible to Non-Purdue Users? Yes
Contact: Brandy McMasters

Website

Center for Comparative Translational Research (CTR)

Veterinary Medicine

The CTR deploys a cluster of core laboratories in the College of Veterinary Medicine to support biomedical research. The laboratories are the Pre-Clinical Research Laboratory, the Histology Research Laboratory, and the Veterinary Clinical Trials Support Service. These laboratories support both human and animal translational research for investigators in various academic departments on campus, in Discovery Park, and in the private-sector. CTR also provides opportunities for graduate, undergraduate and professional students with an interest in comparative biomedical research. The CTR component laboratories are all core facilities for the Indiana Clinical and Translational Science Institute (CTSI).

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Gert Breur

Website

Center for Environmental and Regulatory Information Systems

Agriculture

The Center for Environmental and Regulatory Information Systems (CERIS) is a recognized center at Purdue University providing agricultural information resource technologies and applications in the form of searchable databases with web interfaces, collaborative web sites with updating, and dynamic map resources of pest survey and plant diagnostic data. Its content focuses on pest survey data, plant diagnostic data and pesticides and has collaborated with key federal and state agencies along with industry, extension and Purdue faculty. CERIS has worked extensively with Entomology and Plant Pathology faculty in creating the Purdue Plant Doctor series for both iOS and Android devices and provided the software support for the Isee App under the direction of a faculty member in Agronomy. Most recently, the BoilerApps program has been created as an extension of earlier applications development involving website and database design and iOS and Android Apps for the College of Agriculture to now service Purdue University.

Location:
Recharge? Yes (Yes, for some activities)
Accessible to Non-Purdue Users? Yes
Contact: Mike Hill

Website

Center for Global Trade Analysis

Agriculture

Quantitative global economic analysis

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Dominique van der Mensbrugghe

Website

Center for Materials Processing and Tribology - Metrology Laboratory

Engineering

Surface and mechanical property characterization

Location:
Recharge? No
Accessible to Non-Purdue Users? No
Contact: James B. Mann

Website

Center for Materials under eXtreme Environment (CMUXE)

Engineering

Center for Materials under extreme environments (CMUXE) is a research unit at Purdue University aimed at promoting nuclear, material science, plasma research, and education. Members of CMUXE perform basic and applied research in wide variety of interdisciplinary fields. The major thrust area is the interactions of high-intensity, modulated energy beams: electromagnetic radiation, plasma, electrons, ions and other particle sources (i.e. clusters, molecules) with matter. The CMUXE combines both advanced integrated computational tools, i.e., HEIGHTS simulation package and state-of-the art experimental devices.

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Ahmed Hassanein

Website

Center for Nursing Education and Simulation

Health and Human Sciences

The simulation lab has seven high-fidelity patient simulators, including a 6 month old baby, 7 year old child, a birthing mother, and fouradult models. These computerized, interactive manikins can be programmed to provide realistic patient responses to care. They breathe, vocalize, have changing vital signs and pulses, and have realistic heart, lung, and bowel sounds.

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Beth Milanowski

Website

Christopher and Susan Burke Hydraulics and Hydrology Laboratory

Engineering

Mechanics of Water Transport Processes in Environmental and Engineering Flows; field and laboratory investigations of water quantity and quality.

Location:
Recharge? No (Currently No)
Accessible to Non-Purdue Users? Yes (Available On Contractual Basis)
Contact: Cary Troy

Website

Clinical Research Center (CRC)

Health and Human Sciences

The Indiana CTSI Clinical Research Center (CRC) provides space, equipment, and support to conduct academic and industry sponsored clinical research studies for both inpatient and outpatient visits. The center maintains facilities at both Indiana and Purdue Universities and is available for use by researchers from both institutions. Medically trained staff provides services and support in phlebotomy, intravenous catheter placement, serial blood draws, infusions/injections, protocol development, and reference lab tests. The bionutrition staff supports CRC investigators' research by providing dietary expertise and nutrition research services including: budget consultation, diet development, meal preparation and service, nutritional counseling, dietary recalls and diaries, nutritional analysis, dietary homogenates, and facilities to support clinical research.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes (Available to Indiana University researchers)
Contact: Dennis Savaiano

Website

Community Clusters

ITaP

Information Technology at Purdue (ITaP) operates a significant shared cluster computing infrastructure. These community clusters are available for faculty to purchase access into and gain enormous benefits in computing capacity, professional system administration and user support.

Location: Young
Recharge? No (Some costs may apply)
Accessible to Non-Purdue Users? Yes (Yes - only if partnering with a Purdue faculty member)
Contact: RCAC Cluster Purchase

Website

Computational Life Sciences and Informatics

Discovery Park

Development and application of computational tools to solve complex life science problems. The core has expertise in proteomics, metabolomics, lipidomics, structural biology—and other types of biological data.

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Tiago Sobreira

Website

Confocal Laser Scanning Microscope

Science

Inverted Zeiss LSM 710 confocal laser scanning microscope with and environmental chamber appropriate for live cell imaging. Advanced methods available include spectral unmixing, time lapse, multi-target imaging, FRET, FRAP, photoactivation, and ratiometric imaging of ion indicator dyes.

Location: Lilly
Recharge? Yes
Accessible to Non-Purdue Users? No
Contact: Don Ready

Website

Cyberforensics Lab

Technology

The cyberforensics Lab that was officially opened Summer '04 focuses on (1) education and training for students, faculty, and law enforcement, (2) leading edge research in cyberforensics, and (3) operational support for federal, state, and local law enforcement. A memorandum of understanding is in place with the National White Collar Crime Center (NW3C), the Indiana State Police, the Center for Education and Research in Information Assurance and Security (CERIAS/CS Department) and ITaP.

Location: Knoy 228
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Marcus Rogers

Website

Electron Microscopy

Discovery Park

Electron Microscopy facility at Birck has Thermo Fisher Themis Z Double Corrected and Monochromated S/TEM 60-300 kV, equipped with a SuperX EDS Detector and a Quantum 965 EELS Spectrometer;  Thermo Fisher Helios 4G UX Dual Beam FE-SEM/FIB, with an ultra-high brightness electron source equipped UC+ monochromator, electron beam deceleration, as well as  SE, BSE, and STEM detectors, multiChem Gas Delivery System to deliver precise repeatable doses of W, C and Pt as well as a mix of C and W, an integrated EasyLift Nanomanipulator for high precision site specific lift out sample preparation, and a Oxford EDS detector; Hitachi S4800 cold FE-SEM, equipped with and Oxford EDS detector and STEM capability; Thermo Fisher Apreo S HiVac Schottky FE-SEM, features beam deceleration and unique in-lens detection and equipped with SE and BSE detectors

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Rosa Diaz

Website iLab Page - Internal

Envision Center

ITaP

The mission of Envision Center for Data Perceptualization is to serve, support, and collaborate with faculty, students, and industry to be a leader in scientific visualization, immersive environments and human computer interaction, through learning, discovery, and engagement.

Location: STEW B001
Recharge? Yes (Yes - for some services)
Accessible to Non-Purdue Users? Yes
Contact: RCAC Info

Website

Epitaxy

Discovery Park

The Epitaxy recharge center consists of three deposition tools for thin film research as well as a high resolution x-ray diffractometer for thin film characterization. Equipment in recharge center: Nitride Sputter System (PVD Products), Oxide Pulsed Laser Deposition (PVD Products), High resolution x-ray diffractometer HRXRD (PANalytical), chemical vapor deposition, Laser annealing (Lambda Physik), Laser lift-off (Lambda Physik).

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Ron Reger

Website

Evaluation and Learning Research Center

Education

The mission of the Evaluation and Learning Research Center (ELRC) is to enhance learning by conducting original research and evaluation that pushes the boundaries of our understanding of education . The Center supports research, education and engagement projects through our expertise in educational theory, research methodology, evaluation, and project management.

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes (Yes, if collaborating with Purdue University)
Contact: Wilella Burgess

Website

Flow cytometry and cell separation core facility

Discovery Park

The Bindley Bioscience Flow Cytometry and Cell Separation Core Facility provides advanced cell and particle analysis and sorting using flow cytometry based technology. The facility provides training in flow cytometry analysis and sorting techniques. The facility also provides expert consultation for assay and protocol development for flow cytometry analysis and cell separation.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Jill Hutchcroft

Website iLab Page - External iLab Page - Internal

Food Science Pilot Laboratory

Agriculture

food product development, food processing, process optimization, food manufacturing systems

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Erik Kurdelak

Website

Gamma Irradiator

Radiological and Environmental Management (REM)

Provide gamma irradiation/sterilization for cells, media, etc.

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes (Yes, when collaborating with Purdue faculty/staff)
Contact: Matthew Tang

High Performance Computer Graphics Laboratory

Technology

The research in the HPCG-Lab is divided into diverse projects, all having in common the use of High Performance Computer Graphics algorithms and tools as the means of providing high performance computation, real-time rendering, and scientific visualization research.

Location: Knoy
Recharge? No
Accessible to Non-Purdue Users? No
Contact: Bedrich Benes

Website

High-Performance Computing and Cyberinfrastructure Research Lab

Technology

a focal point for education, research, and collaboration in the development, deployment, and use of supercomputing, grid computing, and cyberinfrastructure. The HPC-CRL is the first College of Technology Exploration Center, which is designed to support and enhance teaching, research, and collaboration among faculty, students, and industrial partners. The lab consists of three areas: research, collaboration, and education.

Location: Knoy 208
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Thomas Hacker

Website

ICP-OES for Elemental Analysis of Liquids

Agriculture

ICP-OES for Elemental Analysis of liquids or liquid extracts/digests of solid samples

Location:
Recharge? Yes
Accessible to Non-Purdue Users? No
Contact: Linda Lee

IDEALab

Technology

The IDEALab is housed in Knoy Hall in room 376. Research conducted there focuses on animation, interactive media, serious games, visualization, simulation and innovative technologies for science, technology, engineering, and mathematics education. At the core of its activities is a desire to understand how the development and use of computer graphics impacts communication, education and learning.

Location: Knoy 376
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Nicoletta Adamo-Villani

Website

Impact Science Laboratory

Engineering

We develop innovative dynamic experimental techniques to determine the mechanical response of challenging materials and structures under impact loading conditions. We have extensive experiences in characterizing materials from as soft as gel rubbers to as hard as armor ceramics, from as small as a single spider silk to as large as instrumented concrete targets. A accurate book (Split Hopkinson (Kolsky) Bar by Springer) documents some of our previous work.

Location:
Recharge? No
Accessible to Non-Purdue Users? No
Contact: Weinong Chen

Website

Interdepartmental NMR Facility

Science Pharmacy

The Purdue Interdepartmental NMR Facility (PINMRF) is a university-wide resource dedicated to supporting NMR spectroscopy and to making this analytical technique available to researchers at Purdue and elsewhere in the scientific community. PINMRF currently has ten NMR spectrometers located in four buildings on the Purdue campus, with additional laboratory locations under consideration. PINMRF is set up to allow individual researchers direct access 24/7 to the spectrometers, after appropriate training and testing has been completed. However, we will gladly provide spectra of submitted samples, either on a service basis or as part of a collaborative research project.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Dr. John Harwood

Website iLab Page - External

Laboratory for Renewable Resources Engineering (LORRE)

Engineering

Carries out research, training, and discovery in transforming renewable resources into biofuels and bioproducts. Couples fundamental research in renewable resources to the art and science of scale-up for purposes of design, prototyping, and operation of industrial systems that are economic, environmentally friendly, and sustainable. Provides research services in microbiology, fermentation, liquid chromatography and biomass analysis.

Location:
Recharge? Yes (Yes, for some activities)
Accessible to Non-Purdue Users? Yes
Contact: Michael Ladisch

Website

Laser Research and Manufacturing Facilities, Mechanical Engineering

Engineering

High Power Femtosecond Laser System, Wavelength Coverage from 240 nm (UV) to 10,000 nm (Far IR)

Location:
Recharge? No
Accessible to Non-Purdue Users? No
Contact: Robert Lucht

Life Sciences Electron Microscopy Facility

Agriculture

The LSMF is a full service electron microscopy core with both service and individual use options. Equipment includes two field-emission SEMs (Nova NanoSEM and Quanta3D FEG) equipped with cryo, EDX, low vacuum and ESEM capability, and tensile stage. The Quanta 3D FEG is a dual beam instrument with an ion beam for milling, slicing and deposition. The Quanta is equipped with an Omniprobe 200 lift-out system for TEM lamella preparation.? Also available are 2 TEMs (Tecnai T12 and a Tecnai G2 T20) each with great CCD cameras. The 200KV Tecnai has STEM with an HAADF detector. This instrument is also set up with software for automated electron tomography acquisition for 3D reconstruction. In addition the Tecnai T20 is equipped with a SDD x-ray detector for elemental analysis and mapping. The lab has ultramicrotomes (room temperature and cryo), a microwave processing system and a vibratome. For cryo preparation there is a high pressure freezing device and automated freeze substitution. The staff are knowledgeable and friendly and happy to discuss projects and work with you on your science questions.

Location: WLSR
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Christopher Gilpin

Website

Lilly Animal Care Facility

Science

Users are BME, SLHS, Vet School, Pharmacy, Endocyte, OnTarget, along with Biological Sciences.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Sylvia Schlegel

Macromolecular Crystallography

Science

Macromolecular crystallography laboratory; crystallization and X-ray Diffraction. A core facility of the Purdue Center for Cancer Research.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Tim Schmidt

Website iLab Page - External

Maha Fluid Power Laboratory

Engineering

Fluid Power System Testing and Development Systems

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Andrea Vacca

Website

Metabolite Profiling Facility (MPF)

Discovery Park

The laboratory utilizes gas chromatography and liquid chromatography coupled with mass spectrometry for the analyses of small, biological molecules. We collaborate with research investigators who are conducting metabolomic studies, by providing technical assistance with sample preparation, data acquisition, analysis, and interpretation of experimental information. The lab performs both quantitative analysis and non-targeted molecular screening.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Bruce Cooper

Website iLab Page - Internal

Mobile Application Development Lab

Technology

Information systems are constantly evolving to use new technologies.? The types of technologies used in these systems now also include low-priced mobile computing and devices.? These mobile devices include smart phones, tablets, and other specialized hand-held computers.? These devices are being incorporated into modern information systems to collect and present data to workers who are otherwise too mobile to use a traditional PC. The mobile software development curriculum was established in fall 2002.

Location: Knoy 242
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Kyle Lutes

National Test Facility for Fuels and Propulsion

Technology

The National Test Facility for Fuels and Propulsion (NaTeF) was funded through a $2.7 million cooperative agreement with the Air Force Research Laboratory at Wright Patterson Air Force Base. ?The NaTeF facilities are located in the Niswonger Aviation Technology Building at the Purdue Airport, and include aircraft engine test cells and a Materials Testing Laboratory. The engine test cells are equipped to conduct exhaust emissions, collect engine operational data, and evaluate engine performance; the interaction and compatibility of new fuels with aircraft materials and components may be studied and evaluated in the Materials Testing Laboratory. The testing capabilities of these laboratories are currently focused on testing and development of new aviation fuels for both turbine (jet) engines and piston engine applications but may also be utilized in the future for testing of engine and aircraft hardware. NaTeF is the primary testing arm of the Air Transport Institute for Environmental Sustainability (AirTIES) Research Center at Purdue University, the overall mission of which is to support the development, testing, and implementation of new aviation fuels. AirTIES researchers are collaborating with faculty in other disciplines at Purdue and with industrial partners to advance the state of new, sustainable aviation fuels in projects that include identifying and optimizing candidate crops for bio-fuels, new processes to produce bio-fuels, economic and carbon footprint assessments of new fuels, and fit-for-performance testing of fuels in the NaTeF laboratories and test cells.

Location: Niswonger
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: David Stanley

Website

Optics and Spectroscopy

Discovery Park

Spectrophotometer Lambda 950; Micro-Sample Spectrometer; Raman Spectrometer T64000 with the excitation lasers: tunable Ar/Kr, CW 10 mW per wavlength, 10 wavelength accross the visible rangefemtosecond/picosecond regenerative amplifier-OPA system; Nanonics NSOM/ Luminescence Mapping with the excitations lasers: HeNe 633 nm, solid state 532 nm, Diode 785 nm.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Alexei Lagoutchev

Website iLab Page - Internal

Pankow Materials Laboratories

Engineering

Physical Structure, Serviceability, Durability and Non Destructive Testing of Infrastructure Materials

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Jason Weiss

Website

Physiological Sensing Facility

Discovery Park

Cellular and tissue metabolism, cell-signaling, neurophysiology, environmental toxicology, biosensing, bionanomaterials, lab-on-a-chip systems, bioMEMS, biophysical sensing

Location:
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Jenna Rickus

Website

Precision Machining

Science

Precision Machining in the Department of Chemistry is your one-stop-shop for the design and fabrication of mechanical parts in support of your research and teaching efforts.  We offer a wide range of services which include 3D modeling / drafting / printing in plastic and metal, conventional and CNC milling / turning, welding and soldering, surface grinding.  Parts can be fabricated from a wide range of materials including steel, aluminum, stainless steel, brass, copper, ceramics, and plastics. Vacuum chambers and high vacuum components are a specialty.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Dr. Michael Everly

Website iLab Page - External

Preparation and Characterization Recharge Center

Engineering

Specialized X-Ray Analysis, sample Preparation and Mechanical Testing

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Jameson Root

Website

Product Lifecycle Management (PLM) Center

Technology

The Product Lifecycle Management (PLM) Center is housed in Knoy 373. It is the hub for the product lifecycle management (PLM) activities in the College of Technology. It is linked to other College of Technology labs through high-speed network connections and through industry-class PLM suites of tools. Typical research activities in that lab include the areas of product lifecycle management, model-based definition, model-based enterprise, 3D data interoperability and collaboration, product data management methodologies, and workflows for the extended use of CAD data throughout the enterprise.

Location: Knoy 373
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Nathan Hartman

Website

Purdue Animal Behavior Core

EVPRP

The Purdue Animal Behavior Core (PABC), part of the Purdue Institute for Integrative Neuroscience (PIIN), is a core facility that provides behavioral and physiological assays to aid in preclinical research using in vivo models. Using cutting-edge automated technologies, the facility supports internal and external investigators by providing assistance designing and implementing rodent behavioral tests. The PABC assists in research design, training, data analysis and the writing of grant proposals. The PABC offers a wide range of behavior tests designed to model neurodevelopmental disorders, psychiatric illnesses, neurodegenerative diseases, pain and spinal cord and traumatic brain injuries. The PABC will train individuals to perform assays independently or PABC staff can perform the assays in their entirety. The core also offers a testing environment for developing novel devices and new cutting-edge imaging tools to examine brain functioning while the rodent is performing behavioral tasks.  

Location: MJIS B079, LSA 06 and 08
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Wendy Koss, Facility Director

Website iLab Page - External

Purdue Cryo Electron Microscopy Facility

Science

The PCEMF operates several high resolution transmission electron microscopes equipped for cryo-microscopy of biological assemblies.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Valorie Bowman

Website iLab Page - Internal

Purdue Genomics Core Facility

Agriculture

The Purdue Genomics Core facility has more than a decade of experience in DNA sequencing and provides Illumina DNA and RNA library construction and sequencing services via both Illumina Nova Seq and MiSeq instruments. Further, a "WideSeq" service offers low-cost sequencing of smaller (less than 300kb) double-strand DNA samples.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Phillip SanMiguel

Website iLab Page - External iLab Page - Internal

Purdue Imaging Facility

Discovery Park

We provide the instruments and expertise needed to visualize molecules in preparations ranging from single cells to entire animals. All facility users receive individualized instrument training as well as project specific advice for optimal data acquisition. Consultation on sample preparation, image rendering, and data analysis are also available as our knowledge base permits.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Andy Schaber

Website iLab Page - External iLab Page - Internal

Purdue Malware Lab - FBI Cyber Crime Task Force

Technology

The Purdue Malware Lab, under the direction of Prof. Jim Goldman, conducts applied research in the identification, analysis, reverse engineering, and defensive strategies of malicious software, more commonly referred to as malware. In addition, operational support is provided to the Federal Bureau of Investigation through Prof. Goldman?s appointment to the FBI Cyber Crime Task Force.

Location: ENAD 111
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Jim Goldman

Purdue MRI Facility

Health and Human Sciences Engineering

The Purdue MRI Facility houses three research-dedicated MRI systems (two state-of-the-art 3T human MRI scanners and a 7T small animal MRI scanner) to facilitate the use of advanced magnetic resonance imaging techniques for research at Purdue University. Support staff for users include two operations managers and an MRI Technologist, who are available to get researchers trained to use the equipment, or help with data acquisition. A large variety of coils are available, as well as advanced auxiliary equipment for fMRI and other research studies. Please visit the website for more information on location, contacts, and links to iLab scheduling.

Location: MRI1 (aka PMRI)
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Ulrike Dydak, Ph.D.

Website

Purdue Polytechnic Precision Measurement Center

Technology

The Purdue Polytechnic Precision Measurement Center at the statewide location in Columbus, Indiana, is an environmentally-controlled (20 degrees C plus/minus 0.5 degrees C, Positive Pressure; Humidity < 35%) laboratory that is certified annually. Examples of calibrated equipment include a Zeiss Coordinate Measuring Machine, an Instron tensile test machine, a Zeiss surface finish tester, a Fluke dead-weight tester for calibrating pressure gauges, and sets of English and metric gauge blocks. Additionally, there are tools for measuring torque, force, hardness, and mass as well as numerous hand and optical tools for dimensional measurement.

Location: Room 137; Advanced Manufacturing Center of Excellence; Columbus, Indiana
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Joe Fuehne

Website

Purdue Proteomics Facility

Discovery Park

PPF provides state-of-the-art proteomics resources to the research community for identification, quantification, and characterization of proteins in diverse biological samples. The major goal of the facility is to provide innovate services and encourage collaborations that apply the tools of proteomics to cutting-edge biological and biomedical research. The facility enables both targeted and global proteomic analyses. It is equipped with Thermo Scientific Orbitrap Fusion Lumos, Q Exactive Orbitrap HF, LTQ Orbitrap XL, TSQ Endura Triple-Quad MS and AB-SCIEX Triple TOF 5600 system, and all are coupled to nano-flow HPLC systems. With over $2 million funding support from the EVPRP instruments grants in the last 3 years, the core has dramatically improved its capability in accurately identifying and quantifying proteins including their modification and complex formation in a high throughput manner.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Uma K. Aryal

Website iLab Page - Internal

Purdue Rare Isotope Measurement Laboratory (PRIME)

Science

The Purdue Rare Isotope Measurement Laboratory (PRIME Lab) is a research facility that provides measurements for long-lived radionuclides: 10Be (half-life 1,390,000 years), 14C (5700 years), 26Al (705,000 years), 36Cl (301,000 years), 41Ca (105,000 years), and 129I (16.7 million years). The isotopic abundances measured range from one part in 10^15 (a thousand million million) to one part in 10^11. Applications include geoscience and extraterrestrial studies of cosmic-ray-produced radionuclides, environmental tracer studies of radionuclides (soils and hydrology), and biomedical radionuclides. PRIME Lab also offers physical and chemical sample preparation of geologic and biomedical samples for all radionuclides. PRIME Lab also operates an ICP-OES, which is available for the measurement of ~ ppm level chemical abundances.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Marc Caffee

Website

Purdue Research Repository (PURR)

EVPRP ITaP Libraries

PURR utilizes HUBzero®, a software platform designed for scientific collaboration and sharing of research data on the web. Any Purdue student, faculty, or staff can create a project in PURR and receive a default allocation of storage. PURR provides capabilities currently required by the NSF and other funding agencies for digital data management such as workflows and tools for collaborating on data-driven research, publishing and archiving data, and ensuring data security, fidelity, backup, and mirroring. Purdue librarians consult with investigators to facilitate selection and ingestion of data with appropriate descriptive metadata and data standards and provide long-term digital preservation and stewardship. PURR comes with a set of default policies and functionality that addresses privacy and confidentiality, intellectual property, and access and use of research data. Datasets published using PURR are assigned Digital Objects Identifiers (DOIs) and exposed to the web using open standards to maximize their discoverability and scholarly reuse. Data producers receive reports of how often their published data are viewed, downloaded, and cited.

Location:
Recharge? No (No, but fees may apply depending on size of data requirements)
Accessible to Non-Purdue Users? Yes (Yes, only if Purdue faculty/staff originate project)
Contact: Michael Witt

Website

Purdue Stable Isotope Facility

Science

The Purdue Stable Isotope Facility houses 4 isotope ratio mass spectrometers (IRMS), each accompanied by peripheral devices for conversion of various compounds into analyzable gases.  We also operate standalone instrumentation for both concentration and isotopic analysis.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Janine Sparks

Website iLab Page - External

Purdue Translational Pharmacology Facility

Discovery Park

in vivo pharmacology with swine model and unique PigTurn monitoring and sampling system

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Robyn McCain

Purdue University Reactor Number 1 (PUR-1)

Engineering

operational nuclear reactor for research and education

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Robert Bean

Website

Research Instrumentation Center

Science

The Research Instrumentation Center is a core facility in the Department of Chemistry that manages the shared departmental instrumentation. Most of our thirty instruments are made available to trained users on a walkup basis. We also specialize in quantification of trace elements by ICP-MS, with a variety of services performed by our expert staff. Please visit the website below for more information regarding our wide variety of instrumentation and services..

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Dr. Pat Bishop

Website iLab Page - External

Research Machining Services

EVPRP

Precision machine shop, open to all departments, with both standard and CNC machining equipment, welding, and design services. Work with wide variety of materials, including steels, aluminums, stainless steels, and brass plus special-order metals and high-performance plastics. Able to satisfy needs for plating, anodizing, and water jetting services, along with many other services through vendors. Specialize in one-of-a-kind research equipment and/or modifications.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Kris Davis

Website

Ross Biological Reserve

Science

67 acres of forest managed mainly as a natural area for ecological research with modest indoor facilities.

Location:
Recharge? No
Accessible to Non-Purdue Users? No
Contact: Jeffrey Lucas

Website

SAXS/USAXS Facility

Engineering

Small Angle X-ray Scattering and Ultrasmall Angle X-ray Scattering for characterization of nanoparticles, nanomaterials, polymers, and nanostructures

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: B. W. Boudouris

Scientific Glass Blowing Lab

Science

The Scientific Glass Blowing Lab in Chemistry is fully equipped to provide the services expected from a glass shop and more.  In addition to consulting / designing and fabricating scientific apparatus such as reaction vessels and Schinke lines, the shop has capacities to cast 3D forms, evacuate / back fill glass vessels, and apply protective coatings to glassware.  The shop also offers student instruction and artistic pieces for awards / gifts for special occasions.  Additional capabilities include: on-site repair, surface grinding / polishing, optical windows, lenses, sealing / evacuation / backfilling of vessels, surface treatments such as silvering and plastic coating. 

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Dr. Michael Everly

Website iLab Page - External

Scientific Solutions

ITaP

The Scientific Solutions group works with Purdue faculty and staff to develop proposals and research solutions through software development, integration, and application/project/web site hosting.

Location:
Recharge? Yes (Yes - for some services)
Accessible to Non-Purdue Users? Yes
Contact: Carol Song

Website

Scifres Nanofabrication Cleanroom

Discovery Park

25,000 sq. ft. Class 1-10-100 Nanofabrication Laboratory

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Ron Reger

Website iLab Page - External

Sensory Evaluation Laboratory

Agriculture

Sensory evaluation ( appearance, aroma, flavor, etc.) testing of food and beverages

Location: Food Science
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Dr. Andrea Liceaga

Website

Soft Materials Characterization Laboratory

Engineering

This lab is dedicated to the characterization and analysis of polymeric and other soft materials. It currently contains TA Instruments Q2000 Dynamic Scanning Calorimeter (DSC) capable of -180C to 700C operation, a TA Instruments Q800 Dynamic Mechanical Analyzer (DMA) with humidity controller, and a TA instruments Q50 Thermogravimtric Analyzer (TGA).

Location:
Recharge? Yes ((Pending))
Accessible to Non-Purdue Users? Yes
Contact: Jeffrey Youngblood

Website

Statistical Consulting Service

Science

Provides free of charge statistical consulting services; addresses questions with statistical software, the design of experiments, and data analysis.

Location:
Recharge? No
Accessible to Non-Purdue Users? No
Contact: Bruce A. Craig

Website

Superresolution Imaging Lab

Veterinary Medicine

This facility in the Purdue Veterinary Medicine provides a high end confocal imaging system for versatile cell, whole mounted- tissue and animal microscope imaging. It provides 1) regular 5 color confocal imaging; 2) 4 channel multi-photon imaging; 3) forward and backward second harmonic generation; 4) 70 nM STED superresolution imaging; 5) Regular and resonnant scanners; 6) environmental control for temperature and gas controls; 7) anesthetic machine; 8) Imaris 3D-4D image analysis software

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Chang H Kim

Website

Transgenic and Genomic Editing Facility

Science

The Transgenic and Genome Editing Facility (TGEF) offers a variety of services to the Purdue University Center for Cancer Research community, including (1) Generation of Transgenic, Knock-Out, Knock-In and gene-edited mice and rats by pronuclear injection of DNA and/or CRISPR/cas9, (2) Gene Targeting of ES Cells, (3) Blastocyst Injection of ES Cells for the Generation of Knock-Out Mice, (4) Strain Rederivation, (5) In Vitro Fertilization, (6) Embryo Cryopreservation, (7) Sperm Cryopreservation, (8) Mouse Embryonic Fibroblast (MEF) Cell Line Production, (9) Speed Expansion, (10) Chromosome Counting, (11) Genotyping, (12) Mouse Production Colony.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Judy Hallett

Website

Videoconferencing

ITaP

Adobe Connect is a rich Web communication system that lets instructors reach an audience anytime with engaging multimedia content

Location: Web
Recharge? No
Accessible to Non-Purdue Users? Yes (Yes - only if partnering with a Purdue faculty member)
Contact: Customer Service Center

Website

Virginia Kelly Karnes Archives and Special Collections Research Center

Libraries

The Karnes Center collects, preserves, and provides access to scholarly research collections of unique primary source material such as rare books, archival documents and manuscripts, photographs, and artifacts. The Center staff provides assistance to researchers in accessing and using the collections, including digitization of collections and facilitating permissions to use collections in scholarly publications. Collections and services are available to Purdue faculty, staff, and students as well as researchers worldwide and the general public.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Sammie Morris

Website

Water Quality Field Station

Agriculture

Studies of the impact of agriculture and agricultural inputs on water and air quality; 54 tiled and instruments drainage plots

Location: ACRE
Recharge? No
Accessible to Non-Purdue Users? Yes
Contact: Nicole DeArmond

Website

X-ray Crystallography

Science

The X-ray Crystallography Facility provides services and resources related to X-ray diffraction analysis of crystalline materials for researchers at Purdue as well as off-site users and commercial customers. The facility offers full data collection and structure analysis services, and trains users to independently use the resources on site. Types of analysis include single crystal structure analysis for organic, inorganic, metal organic and hybrid materials (indexing, unit cell and structure determinations, absolute structure), powder and multicrystalline XRD (phase ID, Rietveld analysis, high temperature measurements, thin film measurements, X-ray reflectivity). Starting Fall 2019, we will also offer X-ray fluorescence analysis. - Panalytical Empyrean Powder X-ray Diffractometer. Equipped with both parallel beam and focusing optics, high speed PIXcel 3D Medipix detector and high temperature stage for analysis of powders, multicrystalline materials and thin films. - Two Bruker D8 Quest Single Crystal Diffractometers equipped with large Photon detectors and variable temperature devices. The Mo-wavelength instrument is ideal for fast, high throughput data collection of well to weakly diffracting samples, and for heavily absorbing samples. The Cu-wavelength microsource instrument is ideal for very weakly diffracting and small crystals and absolute structure determination.

Location:
Recharge? Yes
Accessible to Non-Purdue Users? Yes
Contact: Matthias Zeller

Website

Wed, 30 Mar 2022 03:10:00 -0500 en text/html https://www.purdue.edu/research/oevprp/centers-and-institutes/cores-list.php
Killexams : Global Denitration Market Size 2022, Market Movements by Trend Analysis, Growth Status and Revenue Expectation to 2028 Research Report

Denitration Market Size 2022-2028 presents detailed competitive analysis including the market Share, Size, Future scope. This study categorizes the global Health and Safety Products breakdown data by manufacturers, region, type and applications, also analyzes the market drivers, opportunities and challenges. Denitration Market Report will add the analysis of the impact of COVID-19 on this industry. Top Key Players are – Hitachi, Cormethch, Topsoe, Ceram-Ibiden, JGC C & C, Zhejiang Hailiang, Hiyou EP Material, Longyuan Catalyst, Chengdu Dongfang.

Final Report will add the analysis of the impact of Pre and Post COVID-19 on this Denitration industry/market.

Global “Denitration Market” (2022-2028) Research Report is an expert and inside and out examination on the flow condition of the Global Denitration industry. In addition, investigate report sorts the worldwide Denitration market by top players/brands, area, type and end client. This report likewise examines the different Factors impacting the market development and drivers, further reveals insight into market review, key makers, key received by them, size, most accurate patterns and types, income, net edge with provincial examination and figure.

Get a sample PDF of the report athttps://www.researchreportsworld.com/enquiry/request-sample/20600588

List of TOP KEY PLAYERS in Denitration Market Report are –

  • Hitachi
  • Cormethch
  • Topsoe
  • Ceram-Ibiden
  • JGC C and C
  • Zhejiang Hailiang
  • Hiyou EP Material
  • Longyuan Catalyst
  • Chengdu Dongfang

COVID-19 Impact on Market:

The accurate COVID-19 outbreak first began in Wuhan (China) in December 2019, and since then, it has spread around the globe at a fast pace. China, Italy, Iran, Spain, the Republic of Korea, France, Germany, and the US are among the worst-affected countries in terms of positive cases and reported deaths, as of March 2020. The COVID-19 outbreak has affected economies and industries in various countries due to lockdowns, travel bans, and business shutdowns. The global food and beverage industry is one of the major industries facing serious disruptions such as supply chain breaks, technology events cancellations, and office shutdowns as a result of this outbreak. China is the global manufacturing hub, with the presence of and the largest raw material suppliers. The overall market break down due to COVID-19 is also affecting the growth of thebaconmarket due to shutting down of factories, obstacle in supply chain and downturn in world economy.

TO UNDERSTAND HOW COVID-19 IMPACT IS COVERED IN THIS REPORT – GET A sample REPORT

Denitration Market Analysis and Insights:

Desulfurisation is a chemical process for the removal of sulfur from a material.

Market Analysis and Insights: Global and United States Flue Gas Desulfurization Market

This report focuses on global and United States Flue Gas Desulfurization market, also covers the segmentation data of other regions in regional level and county level.

Due to the COVID-19 pandemic, the global Flue Gas Desulfurization market size is estimated to be worth USD 17960 million in 2022 and is forecast to a readjusted size of USD 24060 million by 2028 with a CAGR of 5.0% during the review period. Fully considering the economic change by this health crisis, by Type, Semi Dry Flue Gas Desulphurization accounting for % of the Flue Gas Desulfurization global market in 2021, is projected to value USD million by 2028, growing at a revised % CAGR in the post-COVID-19 period. While by Application, Cement Manufacturing Plants was the leading segment, accounting for over percent market share in 2021, and altered to an % CAGR throughout this forecast period.

Asia Pacific region is attributed to grow at the highest CAGR during the forecast period to meet with implementation of regulations continuously over the past couple of years therefore several manufacturers are availing for the FGD systems.

Global Flue Gas Desulfurization Scope and Market Size

Flue Gas Desulfurization market is segmented by region (country), players, by Type and by Application. Players, stakeholders, and other participants in the global Flue Gas Desulfurization market will be able to gain the upper hand as they use the report as a powerful resource. The segmental analysis focuses on revenue and forecast by region (country), by Type and by Application for the period 2017-2028.

For United States market, this report focuses on the Flue Gas Desulfurization market size by players, by Type and by Application, for the period 2017-2028. The key players include the global and local players, which play important roles in United States.

Competitive Landscape and Denitration Market Share Analysis:

Denitration market competitive landscape provides details and data information by players. The report offers comprehensive analysis and accurate statistics on revenue by the player for the period 2017-2028. It also offers detailed analysis supported by reliable statistics on revenue (global and regional level) by players for the period 2017-2028. Details included are company description, major business, company total revenue and the sales, revenue generated in Denitration business, the date to enter into the Denitration market, Denitration product introduction, accurate developments, etc.

Global Denitration Market Segmentation By Types, By Applications and By Region:

Global Denitration market is analyses and market size information is provided by regions (countries). Segment by Application, the Denitration market is segmented into United States, Europe, China, Japan, Southeast Asia, India and Rest of World. The report includes region-wise market size for the period 2017-2028. It also includes market size and forecast by players, by Type, and by Application segment in terms of sales and revenue for the period 2017-2028.

Denitration Market Segment by Type:

  • Cellular Type
  • Plate Type
  • Corrugated Type

Denitration Market Segment by Applications:

  • Thermal Power Plants
  • Chemical Plants
  • Waste Incinerators
  • Others

Denitration Market Segment by Region:

  • United States
  • Europe (Germany, UK, France, Italy, Spain, Russia, Poland)
  • China
  • Japan
  • India
  • Southeast Asia (Malaysia, Singapore, Philippines, Indonesia, Thailand, Vietnam)
  • Latin America (Brazil, Mexico, Colombia)
  • Middle East and Africa (Saudi Arabia, United Arab Emirates, Turkey, Egypt, South Africa, Nigeria)
  • Other Regions

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Key Questions Answered in The Report:

  • What will the Denitration market growth rate?
  • What are the key factors driving the global Denitration market?
  • Who are the key manufacturers in Denitration market space?
  • What are the market opportunities, market risk and market overview of the Denitration market?
  • What are sales, revenue, and price analysis of top manufacturers of Denitration market?
  • Who are the distributors, traders and dealers of Denitration market?
  • What are the Denitration market opportunities and threats faced by the vendors in the global Denitration Industry?
  • What are sales, revenue, and price analysis by types and applications of Denitration Industry?
  • What are sales, revenue, and price analysis by regions of Denitration industry?

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Major Points from Table of Contents:

1 Study Coverage
1.1 Denitration Product Introduction
1.2 Global Denitration Outlook 2017 VS 2022 VS 2028
1.2.1 Global Denitration Sales in USD Million for the Year 2017-2028
1.2.2 Global Denitration Sales in Volume for the Year 2017-2028
1.3 United States Denitration Outlook 2017 VS 2022 VS 2028
1.3.1 United States Denitration Sales in USD Million for the Year 2017-2028
1.3.2 United States Denitration Sales in Volume for the Year 2017-2028
1.4 Denitration Market Size, United States VS Global, 2017 VS 2022 VS 2028
1.4.1 The Market Share of United States Denitration in Global, 2017 VS 2022 VS 2028
1.4.2 The Growth Rate of Denitration Market Size, United States VS Global, 2017 VS 2022 VS 2028
1.5 Denitration Market Dynamics
1.5.1 Denitration Industry Trends
1.5.2 Denitration Market Drivers
1.5.3 Denitration Market Challenges
1.5.4 Denitration Market Restraints
1.6 Study Objectives
1.7 Years Considered
2 Market by Type
2.1 Denitration Market Segment by Type
2.1.1 Cellular Type
2.1.2 Plate Type
2.1.3 Corrugated Type
2.2 Global Denitration Market Size by Type
2.2.1 Global Denitration Sales in Value, by Type (2017, 2022 and 2028)
2.2.2 Global Denitration Sales in Volume, by Type (2017, 2022 and 2028)
2.2.3 Global Denitration Average Selling Price (ASP) by Type (2017, 2022 and 2028)
2.3 United States Denitration Market Size by Type
2.3.1 United States Denitration Sales in Value, by Type (2017, 2022 and 2028)
2.3.2 United States Denitration Sales in Volume, by Type (2017, 2022 and 2028)
2.3.3 United States Denitration Average Selling Price (ASP) by Type (2017, 2022 and 2028)
3 Market by Application
3.1 Denitration Market Segment by Application
3.1.1 Thermal Power Plants
3.1.2 Chemical Plants
3.1.3 Waste Incinerators
3.1.4 Others
3.2 Global Denitration Market Size by Application
3.2.1 Global Denitration Sales in Value, by Application (2017, 2022 and 2028)
3.2.2 Global Denitration Sales in Volume, by Application (2017, 2022 and 2028)
3.3.3 Global Denitration Average Selling Price (ASP) by Application (2017, 2022 and 2028)
3.3 United States Denitration Market Size by Application
3.3.1 United States Denitration Sales in Value, by Application (2017, 2022 and 2028)
3.3.2 United States Denitration Sales in Volume, by Application (2017, 2022 and 2028)
3.3.3 United States Denitration Average Selling Price (ASP) by Application (2017, 2022 and 2028)
4 Global Denitration Competitor Landscape by Company
4.1 Global Denitration Market Size by Company
4.1.1 Top Global Denitration Manufacturers Ranked by Revenue (2021)
4.1.2 Global Denitration Revenue by Manufacturer (2017-2022)
4.1.3 Global Denitration Sales by Manufacturer (2017-2022)
4.1.4 Global Denitration Price by Manufacturer (2017-2022)
4.2 Global Denitration Concentration Ratio (CR)
4.2.1 Denitration Market Concentration Ratio (CR) (2017-2022)
4.2.2 Global Top 5 and Top 10 Largest Manufacturers of Denitration in 2021
4.2.3 Global Denitration Market Share by Company Type (Tier 1, Tier 2, and Tier 3)
4.3 Global Denitration Manufacturing Base Distribution, Product Type
4.3.1 Global Denitration Manufacturers, Headquarters and Distribution of Producing Region
4.3.2 Manufacturers Denitration Product Type
4.3.3 Date of International Manufacturers Enter into Denitration Market
4.4 Manufacturers Mergers and Acquisitions, Expansion Plans
4.5 United States Denitration Market Size by Company
4.5.1 Top Denitration Players in United States, Ranked by Revenue (2021)
4.5.2 United States Denitration Revenue by Players (2020, 2021 and 2022)
4.5.3 United States Denitration Sales by Players (2020, 2021 and 2022)
5 Global Denitration Market Size by Region
5.1 Global Denitration Market Size by Region: 2017 VS 2022 VS 2028
5.2 Global Denitration Market Size in Volume by Region (2017-2028)
5.2.1 Global Denitration Sales in Volume by Region: 2017-2022
5.2.2 Global Denitration Sales in Volume Forecast by Region (2023-2028)
5.3 Global Denitration Market Size in Value by Region (2017-2028)
5.3.1 Global Denitration Sales in Value by Region: 2017-2022
5.3.2 Global Denitration Sales in Value by Region: 2023-2028
6 Segment in Region Level and Country Level
6.1 North America
6.1.1 North America Denitration Market Size Growth 2017-2028
6.1.2 North America Denitration Market Facts and Figures by Country (2017, 2022 and 2028)
6.1.3 U.S.
6.1.4 Canada
6.2 Asia-Pacific
6.2.1 Asia-Pacific Denitration Market Size Growth 2017-2028
6.2.2 Asia-Pacific Denitration Market Facts and Figures by Region (2017, 2022 and 2028)
6.2.3 China
6.2.4 Japan
6.2.5 South Korea
6.2.6 India
6.2.7 Australia
6.2.8 Taiwan
6.2.9 Indonesia
6.2.10 Thailand
6.2.11 Malaysia
6.2.12 Philippines

Continue…

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Killexams : A Revolution In Cruise Ship Design

Beau Mansfield Design and Sterling Design International are working together in the south of France to develop a new concept in cruise ship design - one that results in vessels being built more quickly, operating more efficiently and being more cost effective.

Beau Mansfield developed the new approach by observing the operation and construction of vessels firsthand, as an engineer and construction manager of large motor vessels. "Too often I have seen ships, and worked on them, where the working parts of the vessel have literally been crammed into spaces that were left over after the passenger accommodation areas were finished. Apart from annoying delays faced by the operators, it also results in higher than necessary costs, longer turn rounds, and unnecessary problems for the passengers," he said. Mr. Mansfield's method is to design the ship around the service and running point of view: incorporating innovative servicing and handling facilities to Excellerate efficiency and reduce running costs.

He has teamed up with Sterling Design to put the concept to the test with the building of a 460-ft. (140-m) cruise ship for an as yet undisclosed owner. The design should allow daily functions to be performed with minimal effort and without bothering the passengers. The vessel will have three boarding platforms, one each at port, starboard and stern. The two side platforms connect directly to a lift to the lower deck, which will have a service passageway between the storerooms, freezer facilities and workshops. The stern platform, including a fold out marina, will be used when at anchor to load and unload passengers from the tenders. The tenders will be housed in the stern when not in use and will be picked up simultaneously by a central overhead extending gantry crane. The result of having three separate boarding platforms is that however the ship may be berthed, bulk provisions may be loaded easily and quickly by a small number of crew without interference to the passengers.

Other features of the design include the use of diesel electric propulsion with ABB Azipod drive units; unmanned generator rooms with full monitoring in a separate control room and on the bridge; a designated storage room for passenger and crew luggage; spare parts storage and inventory system; underwater lighting at the stern and side boarding platforms; and high standards of crew accommodation. The ship will have a capacity for 200 passengers and more than 100 crew members. Designed for long distance self-sufficient cruising, the vessel will have large storage areas for extra food and drink as well as fuel and water. It will be fully air-conditioned and be fitted with extensive electronic systems including the latest navigation, steering and engine control systems as well as entertainment and communications systems.

"The exterior styling of the vessel has been proportioned so the vessel's length, height and beam are all in harmony to create a balance between classic and contemporary design that is so often overlooked in Cruise Ship design today," said Mr. Mansfield. The details of the interior design and furnishings have not been finalized to date.

Sterling Design International has worked with Chantiers de l'Atlantique in the past on the design of cruise ships, including Star Princess and Nordic Empress. The company, headed by Joel Bretecher, also designed the exterior and interior of the 328-ft. (100-m) cruise ship Le Levant, recently commissioned at Leroux & Lotz for Compagnie Des lies du Ponant.

Wed, 27 Jul 2022 12:00:00 -0500 en text/html https://www.marinelink.com/article/ship-electronics/revolution-cruise-ship-design-640
Killexams : Review: JYE Tech DSO150 Oscilloscope Kit
When men were men, and oscilloscopes were oscillographs.
When men were men, and oscilloscopes were oscillographs.

Do you remember your first oscilloscope? Maybe we have entered the era in which younger readers think of a sleek model with an LCD screen, but for the slightly older among us the image that will come to mind is likely to be a CRT-based behemoth. Mine was a 2MHz bandwidth Cossor from the 1950s, wildly outdated by the 1980s, but it came to me at no cost. It proudly proclaims itself as a “Portable Oscillograph”, but requires its owner to be a weightlifter to move it. I still have it, as a relic and curio.

For most of us a new ‘scope is still a significant investment. Even affordable current models such as the extremely popular Rigol instruments are likely to cost several hundred dollars, but offer measurement functions undreamed of by those 1950s engineers who would have looked on the Cossor as an object of desire.

Oscilloscope buyers on a budget may not have the cash for a Rigol, a Hantek, or any of the other affordable ‘scopes. Someone starting on the road of electronic engineering can scout around for a cheap or free second-hand CRT model, but thanks to the ever advancing march of technology they also have another option. Modern microprocessors and microcontrollers have analogue-to-digital converters and processor cores that are fast enough to provide the functions of a simple oscilloscope, and to that end a variety of very cheap ‘scopes and ‘scope kits have come on the market. These invariably have a rather small LCD screen and a relatively low bandwidth, but since they can be had for almost pocket-money prices their shortcomings can be overlooked in the name of value. It’s been a matter of curiosity for some time then: are these instruments any good? For around £16 ($21) and the minor effort of an online order from China, we decided to find out.

If you look at most stockists of electronic kits these days, you are likely to find an oscilloscope kit in their range. These are volume produced in China, and the same design trends appear across different models. You can buy surface mount or through-hole, and most of them feature a bare board with maybe a piece of laser-cut Perspex standing in for a case. There are one or two models appearing that come with a case though, and it was one of these that we ordered. The JYE Tech DSO150 is a single-channel ‘scope with a 2.4″ 320×240 pixel colour LCD screen and a 200kHz bandwidth. Its specification is typical of the crop of similar kits, though its smart case sets it apart and made it an easy choice.

In the Box

We ordered one, and when it arrived, it was packed in a small cardboard carton that had suffered some crushing in transit, but had protected the internal contents well enough that no harm had been done. A layer of foam protected the LCD, and the case parts appeared rigid enough to protect the rest of the components. There was a bag of discretes, the case parts, two PCBs, a test lead with crocodile clips, and two pages of instructions.

When looking at a kit, it’s best to start with the instructions, because no matter the quality of the kit itself it is the quality of the instructions that make or break a kit. If you can’t build it then it doesn’t matter how good it might be, it’s effectively junk.

The DSO150 instructions are two sheets of high quality double-sided colour print, with the emphasis on pictures rather than words, The front page introduces the kit and gives a quick soldering guide, then the next two pages step through each stage of construction. The final page has basic instructions for use, specification, and a troubleshooting guide. Our kit had all surface-mount parts already fitted, if we’d known the kit could also be had with SMD parts to fit we’d have bought that version instead.

Inside the DSO100.
Inside the DSO100.

The instruction steps are long on images and short on text, but there are sometimes few cues as to where the component in question lies on the board. Sometimes some careful examination of board and picture is necessary to ensure correct placement. The first step though doesn’t involve any soldering, wire the main board up to a 9V supply, and watch the LCD boot into the oscilloscope software. There is support via a forum on the JYE Tech website, we presume you’d go there if it failed to boot out of the box. A 9V PSU isn’t included, you’ll need to find one with a 2.1mm centre positive plug. Fortunately a suitable candidate was in the box of wall warts here, formerly being used by a router.

The main board assembly is straightforward enough, being the assembly of larger through-hole parts such as switches and connectors. The analogue board has a brace of small through-hole resistors and ceramic capacitors to fit, of these the resistors were of the tiny variety which made distinguishing between some of their colour stripes a little difficult. Bring your multimeter to check. There is a BNC connector that requires significant heat on there too, so make sure you have a suitably beefy iron to hand. Finally there is a small board for the rotary encoder, then the front of the case can be assembled to the main board, the analogue board attached, and the ‘scope set up. Verify on-board voltages, attach the test clip to the calibration output and adjust the compensation capacitors for a square wave, and the rest of the case can be added to complete the unit.

Functionality

The DSO150 showing the upper end of its bandwidth.
The DSO150 showing the upper end of its bandwidth.

In use, the DSO150 makes a simple and straightforward enough oscilloscope. The usual volts/division and timebase selection is easy enough, and the various trigger modes can quickly be selected. If you’ve used an oscilloscope before then you will have no problems getting started with it. But of course, the DSO150 isn’t just a simple oscilloscope, it’s a digital storage ‘scope. And with 1024 sampling points it can do the usual storage ‘scope thing of allowing the user to examine a stored waveform in great detail, scrolling back and forth through the stored points. Here the instruction sheet falls short, not mentioning that a double tap on the V/div or Sec/div buttons allows you to scroll.

Connecting the signal generator to our DSO150 allowed the exploration of its bandwidth. The claimed 200kHz is pretty spot-on, winding the signal generator far beyond that point showed a tail-off in displayed amplitude. Also the minimum 10µS per division limits the usefulness of a waveform display at these frequencies.

The DSO150 is supplied with a short test lead terminated in a pair of crocodile clips. This is somewhat less useful than the oscilloscope probes we’re used to, though happily it can also be used with a standard 1x/10x probe. Looking at the square wave on the test terminal through a standard probe reveals a sharp corner on the waveform, so there seems not to be any problems between the compensation on-board and that in the probe. It’s likely that either the DSO150 here will be used with a standard probe, or that the crocodile clip will swiftly be replaced with a probe of some kind.

Closing Thoughts

So then, the JYE Tech DSO150 oscilloscope kit. A nice little ‘scope within the limitations of the STM32F103C8 microcontroller that drives it. If you can put up with a 200kHz bandwidth and a 50V peak input voltage then it’s a useful pocket instrument. Its calibration will depend on the STM’s crystal and voltage reference, but as with the rest of its specification, when you consider its pocket-money price those become minor considerations. Add in that its software is open-source, and you have a very nice platform indeed. If we wanted to nitpick we’d ask for a battery compartment and a proper probe, but since both of those would put up the price we wouldn’t make too much noise about it. If you need a pocket ‘scope to supplement your bench scope when working on lower frequencies, or if you have a youngster in the family looking for their first ‘scope, buy one! Our review unit will definitely see some use rather than gathering dust.

Wed, 03 Aug 2022 11:59:00 -0500 Jenny List en-US text/html https://hackaday.com/2017/11/09/review-jye-tech-dso150-oscilloscope-kit/
Killexams : PhD projects

 

Intelligent composites forming - simulations for faster, higher quality manufacture

  StudentSiyuan Ch‌en

Supervisors: Jonathan Belnoue, Stephen Hallett, Adam Thompson, Tim Dodwell (University of Exeter)

Liquid composite moulding (LCM) techniques are a cheaper alternative to other composite manufacturing methods such as prepreg and autoclave moulding. Prior to the infusion phase, the dry fibrous reinforcement, which is typically difficult to handle, is formed to shape. Forming is a cheap and productive approach to handle the preformed fabric, however, the nature of fibrous reinforcement materials makes them highly susceptible to variation during the forming process. The variation, including aspects from geometry of tool, forming control, and material itself, may lead to a different level of defect, such as wrinkles and bridges.

To optimize the forming process, the finite element (FE) modelling approach has been explored to assist prediction and optimization, and has been able to simulate relatively complex component in a good accuracy. However, these models are typically time-consuming, especially for iterative design optimization. Thus, it will be meaningful for industry application to develop a quick method to evaluate the parameters (including material and geometry) of forming process to avoid unacceptable defects. Furthermore, a major challenge in FE modelling is to account for these variabilities into the simulations, so that the statistical spread of possible outcomes is considered rather than a single deterministic result. To achieve this, a probabilistic modelling framework is required. Machine learning (ML) is a possible direction for developing such a surrogate model framework based on learning from simulation data, which could skip time-consuming modelling process as well as provide a quantification to the variances and uncertainty. In the long run, this would allow the construction of a fully autonomous forming rig with embedded sensors and active controls where the manufacturing conditions are adapted on the fly and defect formation mitigated based on rich live experimental data feeding into real-time simulation and optimization of the process.

This project aims to explore an intelligent way to optimize and accelerate our computer assistant modelling tool which simulates the textile forming process. A machine learning (ML) based surrogate model is being developed, which aims to provide live prediction to fabric forming industry. This surrogate model is to be trained by a set of data points generated by FE model, thus in the first step a property FE constitutive model is selected for forming simulations. A shell-membrane hybrid FE modelling tool is adopted to simulate the behaviour of textile during forming on an industry-inspired tool. A series of springs or other controlling method will be adopted to adjust the forming controls in the FE model, in order to simulate the different wrinkling and bridging level under different forming parameters. In current research, the positions and stiffnesses, together with the pressure applied on the top, are regarded as input parameters and can be modified to control the deformation of textile during forming. By providing a set of combinations of input parameters, hundreds of simulations will be conducted to obtain a data set, which will be used as the training set for surrogate model.

The Gaussian Process Regression (GPR) method is used to develop the surrogate model, for its applicability on small data set problem. On the other hand, GPR method naturally features uncertainty quantification ability, which can be used to predict and quantify the potential variances in the forming process. In this project, a GPR emulator will be developed and tested by rich simulation and experimental data. In the future, this method will be developed as a tool for our industry partners, which is expected to greatly reduce forming defects as well as shorten the parameter test period.

With the maturation of this surrogate model, the model together with the entire method can be compiled into software and integrated in forming process equipment in the future. With the use of sensors, real-time parameters such as the local temperature, tensile force, and shear angle of fabrics and moulds can be detected and collected during the process. By importing these real-time data into the surrogate model, the software can calculate the point with the highest probability of producing the optimal result, so that the forming rig can fine-tune the control parameters to optimize the quality of the forming.

This technology can not only be applied in the forming process. In the various steps of composites part production, such as compaction, curing or AFP layup, this technology can be used for real-time optimization of processing quality. It can be said that this technology is an important way for the intelligent upgrading of the manufacturing industry.

Development of Morphing Fairing for Semi-Aeroelastic Hinge winglets

Student: Nuhaadh Mahid
Supervisors: Ben Woods, Mark Schenk, Brano Titurus, Tom Wilson (Airbus)

In accurate years, increasing emphasis has been placed on reducing aircraft emissions. One of the well-understood approaches to reduce emissions in civil aircraft is to increase the wingspan. This reduces the induced drag of the wing, hence, the fuel consumed. Two major constraints in the way of this approach are (1) the limited airport gate sizes and (2) the increased structural requirement of a longer wing.

The Semi-Aeroelastic Hinge concept is aimed at circumventing the above-mentioned two challenges by having a folding wingtip where the folding axis is at a flare angle outward to the freestream direction. The folding of the wingtip allows the aircraft to shorten the wing before approaching the airport gate and the flare angle allows the wing to reduce the maximum gust load on the wing root. Previous research in the literature has shown that the best gust load alleviation is achieved for wingtips with low folding stiffness, damping and mass along with a high flare angle.

One of the challenges in the physical realisation of such a device is the discontinuity of the wing skin between the inboard wing and the wingtip. This discontinuity of the surface is prone to the generation of vortices and the subsequent flow separation which erodes some of the aerodynamic benefits of the foldable wingtip. A compliant fairing around the joint will close the gap while allowing for the folding of the wingtip. This fairing could be an integrated primary structure that also acts as the joint; or a secondary skin around a hinge joint, which only carries the aerodynamic load. The choice of the latter is based on space efficiency and minimising the folding stiffness for better gust load alleviation.

This research project focuses on (1) studying the behaviour of the skin on a folding wing geometry and identifying the properties of the skin which optimise the desired characteristics, (2) identifying the architecture of skins that has the desired properties and (3) implementation of the identified skin architecture on a folding wingtip device.

In summary, the overarching research question could be summarised as “What benefits can compliance-based, stiffness tailored, morphing fairings provide to full-scale commercial airliners with Semi-Aeroelastic Hinge winglets?”.

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Modal Nudging and Elastic Tailoring for Blade-Stiffened Wing Structures

Student: Tom Pratt
Supervisors: Alberto Pirrera, Rainer Groh, Mark Schenk, Jiajia Shen

Aerospace requirements put an emphasis on developing lightweight structures to help reduce fuel consumption and related costs. Typically, designers in aerospace engineering use thin-walled structures which are periodically stiffened with ribs, frames and longerons, i.e. semi-monocoque structures, as an efficient solution. However, slender and thin-walled structures often exhibit undesirable elastic nonlinearities and instabilities that need to be remedied at the cost of mass efficiency. However, it has been demonstrated that incorporating well-behaved elastic nonlinearities offers the means to recuperate the baseline’s efficiency or even Excellerate upon it. Modal nudging is a recently introduced tailoring technique, whereby mode shapes from the post buckling regime are seeded as initial perturbations to the geometry of the perfect structure. The small alterations to the geometry of a structure can be used to connect stable pre-buckling responses to stable post-bucking ones. This characteristic increases the load carrying capability of the structure by removing critical bifurcations and stabilising the post-buckling response removing any of the undesirable instabilities which may typically be encountered post-bucking. As an additional benefit, in stabilising the post-buckling response, modal nudging also ameliorates imperfection sensitivity. Ultimately, the stabilisation of post-buckling responses, the increase in load-carrying capacity, and the reduction in imperfection sensitivity, are conducive to further lightweighting of aerospace, semi-monocoque structures.

Preliminary work has shown that modal nudging via geometric alterations can successfully be used to increase the load carrying capacity and the compliance of blade-stiffened wing structures. With a judicious selection of the post-buckling modes seeded onto the original geometry, the nonlinear load-displacement trajectory of a structure can be closely controlled and optimised for compliance, load-carrying capacity or additional functionality. The drawback of the geometric approach is that small perturbations to the initial geometry are difficult and costly to manufacture. Moreover, certain applications do not permit geometric changes. That is the case, for instance, in aerodynamic structures where any geometric alteration would disrupt flow and performance. A more suitable approach to nudging could then be controlling the nonlinear behaviour by elastic tailoring. This can, for example, be achieved by localised shifting of the neutral axis, by laminate design, or by smoothly varying the material properties using composite tow-steering. This project will investigate the efficacy of elastic tailoring through composite materials to replace geometric imperfection seeding for the modal nudging technique. The first objective is to demonstrate, by design and analysis of numerical prototypes, that semi-monocoque structures can be nudged through stiffness tailoring.

The second objective of the project is to verify the numerical findings in experimental tests, by designing, building and testing a prototype blade-stiffened aircraft panel. The challenge is to design and build a physical prototype that exhibits the desired structural behaviour, and which is robust to manufacturing imperfections. In order to achieve this objective, an understanding of the effect of manufacturing imperfections on the mechanical behaviour of the nonlinear structure is necessary. Accurate experimentation on the nudged prototype structures will enable the validation of the numerical analyses and will enable practical applications of well-behaved nonlinear structural responses.

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Redesigning composite repair process using induction heating

Student: James Uzzell
Supervisors: Dmitry Ivanov, Laura Pickard, Ian Hamerton, Ivana Partridge

The application of advanced composite materials in the aerospace industry, utilised for their superior mechanical properties, has grown exponentially over the last few decades. The largest limitation of these materials from both an economic and sustainability viewpoint are the inability for time and energy efficient repair. Traditionally, damaged plies are replaced with laminate patches or wet lay ups followed by a long cure cycle over the entire component. Therefore, there is a requirement for a more localised curing method which can produce repair patches cured in-situ in a fast and energy efficient manner.
To achieve this, induction heating will be testing by volumetrically heating composite laminates to gain a better understanding of its effects before producing repair patches cured in-situ. Preliminary experiments have achieved rapid heating in carbon fibre based laminates as well as glass fibre laminates containing metallic tufts. These experiments show heating patterns to be highly dependent on the geometry of the induction coil used. There is also a significant non uniformity in the heating of a composite panel both in plane and through thickness which could be improved using novel induction coil geometries as well has highly conductive susceptors.
This research aims to optimise the process of induction curing both in terms of rate of cure and uniformity of heating profile. Numerical modelling using the electromagnetic capabilities of Finite Element software, Abaqus, will form the basis for understanding the effect of coil geometries and materials parameters on the heating profile. These models will be used to manufacture an induction coil followed by an optimisation process to cure laminates quickly with high uniformity. This optimised process will be used to manufacture repair patches which will be compared to conventional methods.


The key objectives of this project are:
• Perform an optimisation of design variables to maximise the efficiency and uniformity of inductive heating using Finite Element modelling.
• Manufacture composite laminates using optimised process based on modelling.
• Apply experimental methods to produce repair patches cured in-situ.


The results of this work should allow manufacture of composite repair patches which can be cured in situ which will allow for repair of large laminate components significantly more time and energy efficient manner.

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Digital Engineering of Space Composites

Student: George Worden
Supervisors: Kate Robson-Brown, Ian Hamerton, Ian Bond

The aim of this project is to create a method to estimate the degradation of materials in hostile environments. Hostile conditions such as space or the deep sea make it difficult to actively monitor how a material or structure is performing. More accurate estimation of a material’s life cycle in such conditions lead to more efficient designs that are better suited to the intended application.
The primary method used in this project will be to create a digital twin model for a number of composite laminates that are to be sent to the International Space Station (ISS) and exposed to space. The composite laminates will be sent to the ISS in April 2021 and then be exposed on the Bartolomeo platform for 6 months as part of a project with the European Space Agency (ESA). Following exposure, the samples will be returned to Earth where they will be reanalysed to quantify the effects of LEO exposure on the material. This information can then be used to update the computer model.
The computer model will be created using data collected through analysing sample laminates using a variety of imaging, thermal, and mechanical techniques such as optical microscopy, CT scanning, and mechanical testing. The data analysis and model building will be done in cooperation with the Jean Golding Institute which is involved in data science and data-intensive research at the University of Bristol.
Conditions in low earth orbit (LEO) such as those present around the ISS are very hostile, particularly to polymer materials like those in the matrix of fibre-matrix laminates. The hazard that will be focused on in this project is the presence of atomic oxygen from the upper atmosphere. This oxygen oxidises the surface of the materials in LEO, leading to erosion and loss of material which could lead to a loss in material performance. Other significant hazards in LEO are high-energy radiation and impacts by micrometeoroids. It may be possible do some ballistic testing to simulate impact and build this into the digital twin as well.
The matrix material used for this project is a novel polybenzoxazine polymer mixed with polyhedral oligomeric silsesquioxane (POSS). The benzoxazine polymer provides improved mechanical and thermal performance compared to standard aerospace epoxies while the addition of POSS has been shown through previous research to increase resistance to atomic oxygen erosion in polymeric materials.
Ultimately, it is hoped that this model could be used to add functionality or develop new materials for use on structures in low earth orbit. Later in the PhD project, once the digital twin model is complete, self-healing functionality will be added to the benzoxazine-POSS material using the Diels-Alder self-healing system.

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Investigation of porous composite materials for hydrogen storage

Student: John Worth
Supervisors: Charl Faul, Valeska Ting

The depletion of traditional fossil fuels on such a comprehensive scale has led to calamitous global climate change and severe environmental concerns. Hydrogen is a promising candidate to replace existing finite petroleum-based energy sources because of its remarkable gravimetric energy density, clean combustion and abundance. However, the storing of hydrogen presents significant challenges because of its low volumetric density at ambient temperatures. Currently, the industry standard for storage is to highly compress hydrogen at ambient temperatures. This strategy suffers from eventual compression losses and demands lightweight, mechanically high performing and costly containment structures.

Nanoporous materials have demonstrated the ability to adsorb hydrogen allowing for it to be stored at high densities under specific conditions; often extremely low temperatures, high pressures, or both. As a result, their application to systems that require more modest working conditions (such as transportation applications) has been restricted. Designing and conceiving materials for adsorption that can successfully store and relinquish hydrogen at ambient conditions continues to be an important challenge.

A specific class of nanoporous polymer known as conjugated microporous polymers (CMPs) exhibit highly cross-linked three-dimensional porous networks in an amorphous fashion that results in both high thermal and chemical stability. CMPs have been used in a range of applications, including the adsorption and capture of  gases  such as carbon dioxide, but their hydrogen storage capabilities have received considerably less attention. This project aims to investigate the potential of CMPs and composites formed from these materials for safe and efficient hydrogen storage.

Design and synthesis of a range of CMPs using an established metal catalysed cross-coupling reaction (Buchwald—Hartwig coupling) will be conducted before characterisation of the physical properties of the resulting material using standardised techniques including gas sorption analysis (to determine specific surface area, pore volume and pore size), thermogravimetric analysis, X-ray diffraction, ultraviolet-visible spectroscopy, energy-dispersive X-ray spectroscopy, inductively coupled plasma atomic emission spectroscopy, scanning electron microscopy and transmission electron microscopy.

Selected high performing CMPs may be blended with various matrices to form a composite that offers numerous advantages over the raw powdered counterpart in terms of safety, handling and practical manufacturing. An evaluation of the performance of these materials in the composite form will be conducted, including an assessment of their stability and mechanical properties, in order to conclude if these materials could contribute to the hydrogen storage field by either increasing hydrogen storage capabilities or decreasing the required operating pressure in hydrogen storage vessels and ultimately contribute towards carbon neutrality/net zero.

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Layer-by-layer manufacturing of complex composites

Student: Axel Wowogno
Supervisors: James Kratz, Iryna Tretiak, Stephen Hallett

Autoclave moulding is one of the commonly used processes by the aerospace industry to
manufacture low weight and high-performance composite parts. This manufacturing process
is a robust and well-established production method that offers satisfactory consolidation and
supresses defects formation, by applying high pressure and temperature. However, it involves
high capital and operation costs, as well as long cycle times, creating process bottlenecks.
That is why a cost-effective and more versatile process is in a high demand by manufacturers.
Vacuum-Bag-Only (VBO) consolidation is one of the available Out-of-Autoclave (OOA)
techniques that is under consideration to replace autoclave moulding using a new generation
of OOA prepregs. Even without the autoclave, an additional oven moulding step after the
material deposition, often performed via Automated Fibre Placement (AFP), is nevertheless
still necessary. There is hence a need for a novel method that tackles altogether the issues of
process rate, cost, energy use, and part performance.
The main goal of this PhD is to develop a new single-stage additive manufacturing process by
combining material placement, consolidation and curing of thermosetting composites.
To achieve this, several objectives must be considered:

Materials: Investigation of materials behaviour and selection of the suitable material for
layer-by-layer curing.

Manufacturing process: Development of a procedure and selection of suitable process
parameters, i.e. contact time, temperature, deposition speed and pressure.

Part quality: Investigation of the mechanical performance of the manufactured samples,
achieved via defect analysis and mechanical testing.
This project is supported by Rolls-Royce.

Sun, 04 Feb 2018 12:31:00 -0600 en text/html https://www.bristol.ac.uk/composites/cdt/research-projects/phd/
Killexams : DC Switchgear Market Holds Average Growth Prospect With An Anticipated CAGR Of 6% During 2022-2032

As per a accurate report published by FMI, the DC switchgear market is expected to record an average CAGR of 6% during the forecast period. The region’s dominance in the global market is due to the implementation of innovative grid programs by several governments in this region and enormous investments for modernizing electricity transmission and distribution networks.

Over the forecast period, DC switchgear statistics lead towards the Asia Pacific as its market size is expected to rise significantly. The DC switchgear market in the Asia Pacific is now growing at the fastest rate, owing to many causes, including increased peak load demand, the expansion of micro-grid networks, and worries about grid stability and security of supply.

The DC switchgear industry growth is likely to be boosted by the shifting preference towards energy-efficient distribution networks, as well as increased concerns about transmission network stability, security, and reliability. Growing investments in renewable energy sector also holds high potential for creating lucrative DC switchgear market opportunities over the forecasted period.

Request A sample PDF @
https://www.futuremarketinsights.com/reports/sample/rep-gb-14262

Key Takeaways:

  • Contribution of railway segment is projected to be the most during the forecast period.
  • Sales of DC switchgear with a capacity of 750 V is anticipated to remain the highest, as end users seek high efficiency.
  • The DC switchgear market sizein the United States is expected to grow by more than 5% by 2025. The same can be attributed to government initiatives to replace and upgrade existing distribution networks.
  • By installation, the outdoor installation segment is expected to have a large DC switchgear market sharedue to its ability to withstand harsh climatic conditions while also providing reliable and cost-effective operations.

“Asia Pacific is anticipated to have a major share of the global switchgear market, owing to increased investments in the railway sector and the incorporation of renewable energy sources, particularly in countries like Australia, India, China, and Japan. The presence of a large potential for large industrial plant construction, combined with rapidly developing residential and commercial sectors, is also expected to increase the demand for DC switchgears and contribute to regional growth.” opines an FMI analyst.

Talk with our expert @
https://www.futuremarketinsights.com/ask-question/rep-gb-14262

Key Segments

By Voltage:

  • Up to 750 V
  • 750 V to 1,800 V
  • 1,800 V to 3,000 V
  • 3,000 V to 10 kV
  • Above 10 kV

By Deployment:

  • Fixed Mounting
  • Plug-In
  • Withdrawable Units

By Application:

  • Railways
  • Solar Farms
  • Battery Storage
  • EV Charging Infrastructure
  • Marine
  • Power Generation
  • Others

By Region:

  • North America
  • Latin America
  • Europe
  • Asia Pacific
  • Middle East and Africa (MEA)

Customization Before Buying, Visit @
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Competitive Landscape:

A few key players in the DC switchgear market are Toshiba Infrastructure Systems & Solutions Corporation (Japan), Siemens (Germany), Hitachi Energy Ltd. (Japan), ABB (Switzerland) and Eaton (Ireland), L & T (India), Lucy Electric (UK), Hubbell Incorporated (United States).

Explore wide-ranging Coverage of FMI’s Industrial Automation Market Insights Landscape

Building Automation Systems Market: Global building automation systems market to reach a valuation of US$ 44.6 Bn in 2021. After countering the initial impacts of COVID-19, the market is poised to grow at a robust 7.8% CAGR through 2031.

Water Treatment System Market : The global demand for water treatment market stood at US$ 66,094 Mn in 2022 and is slated to increase at a CAGR of 6.8% to reach a valuation of US$ 111,922 Mn by the end of their forecast period.

Elevator and Escalator Market: The global elevator and escalator market is valued at around US$ 59.03 Bn in 2022, registering Y-o-Y growth of 6.6%. The market is projected to increase at a CAGR of 4.5% and attain a valuation of US$ 100.12 Bn by the end of 2030.

Industrial Automation Market : The global Industrial Automation Market is expected to have a significant CAGR of 7% during the forecast period to reach a valuation of US$ 51 Bn by 2026, up from US$ 36 Bn in 2021.

Facility Management Services Market: During the projected period, the facility management services market is expected to increase at a CAGR of 12.6% during the forecast period, from US$ 42.2 billion in 2021 to US$ 76.3 billion in 2026.

Industrial Cyber Security Market: The industrial cybersecurity market is anticipated to record a CAGR of 7.7% during the forecast period (2022 – 2032). The global industrial cybersecurity market is forecasted to be valued at US$ 20.7 Bn in 2022 and is projected to reach US$ 43.5 Bn by 2032.

Test and Measurement Equipment Market: The global test and measurement equipment market is predicted to witness a moderate CAGR of 5.6% during the forecast period of 2022 to 2032.

Testing, Inspection and Certification Market: The testing, inspection and certification market is anticipated to register a CAGR of 1.8% during the forecast period.

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Killexams : 5G drives mobile data usage and revenue in India by 29% and 67% respectively: GlobalData

Despite concerns regarding radiation levels or worries on higher prices, 5G in India will drive mobile data usage in the country by 29% and data revenue by 67% between 2020 and 2026, forecasts data and analytics company GlobalData.

Telecom players Airtel, Reliance Jio, and Vodafone Idea are reportedly eager to participate in the 5G spectrum audition in India to expand their service and increase revenues.

The Indian government hopes that 5G networks will cover at least 20 towns and cities across the country by the end of 2022.

“Airtel is already testing 5G equipment. However, questions remain over whether it can afford to build 5G meaningfully,” says GlobalData analyst thematic intelligence team Priya Toppo.

“Reliance Jio's massive financial resources and existing market position will likely allow it to gain a market-leading position. Vodafone Idea, on the other hand, is likely to struggle due to its weakening customer base and financial position.”

GlobalData says majority of Indian consumers are still uncertain about 5G considering data charges and smartphone prices in rural regions.

Many are still accustomed to using 4G services.

As a result, GlobalData forecasts only 27% of the country’s mobile subscribers (around 329 million) will be using 5G services by 2026.

“Despite higher data prices, 5G promises superior service quality compared to the existing 4G networks. This should encourage digital businesses including edtech, healthtech, agritech, fintech, and e-commerce to further accelerate 5G adoption in India,” Toppo concludes.

This first appeared in the subscription newsletter CommsWire on 1 July 2022.

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Killexams : Railway Signaling Market 2022 : Global Industry Analysis by Top Countries Data, Size, Share and Forecast till 2026

The MarketWatch News Department was not involved in the creation of this content.

Jul 07, 2022 (The Expresswire) -- Rising Demand : In 2020, Railway Signaling Market is valued approximately at 6475.4 million USD and is anticipated to grow with a healthy growth rate of more than 6.5% CAGR and it is projected to reach 9448.5 Million USD over the forecast period 2022-2026.

"Railway Signaling Market" Research Report 2022 provides key analysis on the market status of the Railway Signaling manufacturers with best facts and figures, meaning, definition, SWOT analysis, expert opinions and the latest developments across the globe. The Report also calculate the market size, Railway Signaling Sales, Price, Revenue, Gross Margin and Market Share, cost structure and growth rate. The report considers the revenue generated and technologies by various application segments and Browse Market data Tables and Figures with in-depth TOC on Railway Signaling Market.

Railway Signaling Market Research Report is spread across 149 Pages and provides exclusive data, information, vital statistics, trends, and competitive landscape details in this niche sector.

What has been the impact of COVID-19 on the global Railway Signaling Market In 2022:

Sudden outbreak of the COVID-19 pandemic had led to the implementation of stringent lockdown regulations across several nations resulting in disruptions in import and export activities of Railway Signaling.

COVID-19 can affect the global economy in three main ways: by directly affecting production and demand, by creating supply chain and market disruption, and by its financial impact on firms and financial markets. Our analysts monitoring the situation across the globe explains that the market will generate remunerative prospects for producers post COVID-19 crisis. The report aims to provide an additional illustration of the latest scenario, economic slowdown, and COVID-19 impact on the overall industry.

Final Report will add the analysis of the impact of COVID-19 on this industry.

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Railway Signaling Market Development Strategy Pre and Post COVID-19, by Corporate Strategy Analysis, Landscape, Type, Application, and Leading 20 Countries covers and analyzes the potential of the global Railway Signaling industry, providing statistical information about market dynamics, growth factors, major challenges, PEST analysis and market entry strategy Analysis, opportunities and forecasts. The biggest highlight of the report is to provide companies in the industry with a strategic analysis of the impact of COVID-19. At the same time, this report analyzed the market of leading 20 countries and introduce the market potential of these countries.

It also provides accurate information and cutting-edge analysis that is necessary to formulate an ideal business plan, and to define the right path for rapid growth for all involved industry players. With this information, stakeholders will be more capable of developing new strategies, which focus on market opportunities that will benefit them, making their business endeavors profitable in the process.

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Who are the key Players in the Railway Signaling market?

● Alstom
● Bombardier
● Thales Group
● Hitachi
● CAF
● Nokia Corp
● Siemens
● Wabtec Corporation
● HUAWEI
● Belden
● Pintsch Bamag Gmbh
● Mermec
● CG

Short Description About Railway Signaling Market 2022:

Railway signaling is a system used to direct railway traffic and keep trains clear of each other at all times.

The leading manufactures mainly are Alstom, Bombardier, Thales Group, Hitachi and CAF. Alstom is the largest manufacturer; its revenue of global market exceeds 22% in 2017.

Global Railway Signaling Market Analysis and Insights :

The Global Railway Signaling market size is projected to reach USD 9448.5 million by 2026, from USD 6475.4 million in 2020, at a CAGR of 6.5% during 2021-2026.

Market Size and Segmentation Analysis of the Railway Signaling Market :

The Global Railway Signaling market is segmented by company, region (country), by Type, and by Application. Players, stakeholders, and other participants in The Global Railway Signaling market will be able to gain the upper hand as they use the report as a powerful resource. The segmental analysis focuses on sales, revenue and forecast by region (country), by Type and by Application for the period 2015-2026.

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Railway Signaling Market 2022 is segmented as per type of product and application. Each segment is carefully analyzed for exploring its market potential. All of the segments are studied in detail on the basis of market size, CAGR, market share, consumption, revenue and other vital factors.

Which product segment is expected to garner highest traction within the Railway Signaling Market In 2022:

Based on product, the Railway Signaling market is segmented intoCBTC, PTC, ATC and other. The Railway Signaling products segment dominated the Railway Signaling market in 2022. Rising incidences of diabetes and new product launches expected to drive the segment growth.

Which are the key drivers supporting the growth of the Railway Signaling market?

The increasing use of Railway Signaling In Inside the Station, Outside the Station and other industries is driving the growth of the Railway Signaling market across the globe.

Which region is expected to hold the highest market share in the Railway Signaling Market?

● North America (United States, Canada and Mexico) ● Europe (Germany, UK, France, Italy, Russia and Turkey etc.) ● Asia-Pacific (China, Japan, Korea, India, Australia, Indonesia, Thailand, Philippines, Malaysia and Vietnam) ● South America (Brazil, Argentina, Columbia etc.) ● Middle East and Africa (Saudi Arabia, UAE, Egypt, Nigeria and South Africa)

This Railway Signaling Market Research/Analysis Report Contains Answers to your following Questions

● Which Manufacturing Technology is used for Railway Signaling? What Developments Are Going On in That Technology? Which Trends Are Causing These Developments? ● Who Are the Global Key Players in This Railway Signaling Market? What are Their Company Profile, Their Product Information, and Contact Information? ● What Was Global Market Status of Railway Signaling Market? What Was Capacity, Production Value, Cost and PROFIT of Railway Signaling Market? ● What Is Current Market Status of Railway Signaling Industry? What’s Market Competition in This Industry, Both Company, and Country Wise? What’s Market Analysis of Railway Signaling Market by Taking Applications and Types in Consideration? ● What Are Projections of Global Railway Signaling Industry Considering Capacity, Production and Production Value? What Will Be the Estimation of Cost and Profit? What Will Be Market Share, Supply and Consumption? What about Import and Export? ● What Is Railway Signaling Market Chain Analysis by Upstream Raw Materials and Downstream Industry? ● What Is Economic Impact On Railway Signaling Industry? What are Global Macroeconomic Environment Analysis Results? What Are Global Macroeconomic Environment Development Trends? ● What Are Market Dynamics of Railway Signaling Market? What Are Challenges and Opportunities? ● What Should Be Entry Strategies, Countermeasures to Economic Impact, and Marketing Channels for Railway Signaling Industry?

Our research analysts will help you to get customized details for your report, which can be modified in terms of a specific region, application or any statistical details. In addition, we are always willing to comply with the study, which triangulated with your own data to make the market research more comprehensive in your perspective.

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Major Points from Table of Contents:

Global Railway Signaling Market Research Report 2022-2026, by Manufacturers, Regions, Types and Applications

1 Study Coverage
1.1 Railway Signaling Product Introduction
1.2 Market by Type
1.2.1 Global Railway Signaling Market Size Growth Rate by Type
1.3 Market by Application
1.3.1 Global Railway Signaling Market Size Growth Rate by Application
1.4 Study Objectives
1.5 Years Considered

2 Global Railway Signaling Production
2.1 Global Railway Signaling Production Capacity (2016-2026)
2.2 Global Railway Signaling Production by Region: 2016 VS 2022 VS 2026
2.3 Global Railway Signaling Production by Region
2.3.1 Global Railway Signaling Historic Production by Region (2016-2022)
2.3.2 Global Railway Signaling Forecasted Production by Region (2022-2026)

3 Global Railway Signaling Sales in Volume and Value Estimates and Forecasts
3.1 Global Railway Signaling Sales Estimates and Forecasts 2016-2026
3.2 Global Railway Signaling Revenue Estimates and Forecasts 2016-2026
3.3 Global Railway Signaling Revenue by Region: 2016 VS 2022 VS 2026
3.4 Global Top Railway Signaling Regions by Sales
3.4.1 Global Top Railway Signaling Regions by Sales (2016-2022)
3.4.2 Global Top Railway Signaling Regions by Sales (2022-2026)
3.5 Global Top Railway Signaling Regions by Revenue
3.5.1 Global Top Railway Signaling Regions by Revenue (2016-2022)
3.5.2 Global Top Railway Signaling Regions by Revenue (2022-2026)
3.6 North America
3.7 Europe
3.8 Asia-Pacific
3.9 Latin America
3.10 Middle East and Africa

4 Competition by Manufactures
4.1 Global Railway Signaling Supply by Manufacturers
4.1.1 Global Top Railway Signaling Manufacturers by Production Capacity (2021 VS 2022)
4.1.2 Global Top Railway Signaling Manufacturers by Production (2016-2022)
4.2 Global Railway Signaling Sales by Manufacturers
4.2.1 Global Top Railway Signaling Manufacturers by Sales (2016-2022)
4.2.2 Global Top Railway Signaling Manufacturers Market Share by Sales (2016-2022)
4.2.3 Global Top 10 and Top 5 Companies by Railway Signaling Sales in 2021
4.3 Global Railway Signaling Revenue by Manufacturers
4.3.1 Global Top Railway Signaling Manufacturers by Revenue (2016-2022)
4.3.2 Global Top Railway Signaling Manufacturers Market Share by Revenue (2016-2022)
4.3.3 Global Top 10 and Top 5 Companies by Railway Signaling Revenue in 2021
4.4 Global Railway Signaling Sales Price by Manufacturers
4.5 Analysis of Competitive Landscape
4.5.1 Manufacturers Market Concentration Ratio (CR5 and HHI)
4.5.2 Global Railway Signaling Market Share by Company Type (Tier 1, Tier 2, and Tier 3)
4.5.3 Global Railway Signaling Manufacturers Geographical Distribution
4.6 Mergers and Acquisitions, Expansion Plans

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5 Market Size by Type
5.1 Global Railway Signaling Sales by Type
5.1.1 Global Railway Signaling Historical Sales by Type (2016-2022)
5.1.2 Global Railway Signaling Forecasted Sales by Type (2022-2026)
5.1.3 Global Railway Signaling Sales Market Share by Type (2016-2026)
5.2 Global Railway Signaling Revenue by Type
5.2.1 Global Railway Signaling Historical Revenue by Type (2016-2022)
5.2.2 Global Railway Signaling Forecasted Revenue by Type (2022-2026)
5.2.3 Global Railway Signaling Revenue Market Share by Type (2016-2026)
5.3 Global Railway Signaling Price by Type
5.3.1 Global Railway Signaling Price by Type (2016-2022)
5.3.2 Global Railway Signaling Price Forecast by Type (2022-2026)

6 Market Size by Application
6.1 Global Railway Signaling Sales by Application
6.1.1 Global Railway Signaling Historical Sales by Application (2016-2022)
6.1.2 Global Railway Signaling Forecasted Sales by Application (2022-2026)
6.1.3 Global Railway Signaling Sales Market Share by Application (2016-2026)
6.2 Global Railway Signaling Revenue by Application
6.2.1 Global Railway Signaling Historical Revenue by Application (2016-2022)
6.2.2 Global Railway Signaling Forecasted Revenue by Application (2022-2026)
6.2.3 Global Railway Signaling Revenue Market Share by Application (2016-2026)
6.3 Global Railway Signaling Price by Application
6.3.1 Global Railway Signaling Price by Application (2016-2022)
6.3.2 Global Railway Signaling Price Forecast by Application (2022-2026)

7 Railway Signaling Consumption by Regions
7.1 Global Railway Signaling Consumption by Regions
7.1.1 Global Railway Signaling Consumption by Regions
7.1.2 Global Railway Signaling Consumption Market Share by Regions
7.2 North America
7.2.1 North America Railway Signaling Consumption by Application
7.2.2 North America Railway Signaling Consumption by Countries
7.2.3 United States
7.2.4 Canada
7.2.5 Mexico
7.3 Europe
7.3.1 Europe Railway Signaling Consumption by Application
7.3.2 Europe Railway Signaling Consumption by Countries
7.3.3 Germany
7.3.4 France
7.3.5 UK
7.3.6 Italy
7.3.7 Russia
7.4 Asia Pacific
7.4.1 Asia Pacific Railway Signaling Consumption by Application
7.4.2 Asia Pacific Railway Signaling Consumption by Countries
7.4.3 China
7.4.4 Japan
7.4.5 South Korea
7.4.6 India
7.4.7 Australia
7.4.8 Indonesia
7.4.9 Thailand
7.4.10 Malaysia
7.4.11 Philippines
7.4.12 Vietnam
7.7 Central and South America
7.7.1 Central and South America Railway Signaling Consumption by Application
7.7.2 Central and South America Railway Signaling Consumption by Countries
7.7.3 Brazil
7.7 Middle East and Africa
7.7.1 Middle East and Africa Railway Signaling Consumption by Application
7.7.2 Middle East and Africa Railway Signaling Consumption by Countries
7.7.3 Turkey
7.7.4 GCC Countries
7.7.5 Egypt
7.7.6 South Africa

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12 Corporate Profiles
12.1.1 Company Corporation Information
12.1.2 Company Overview
12.1.3 Company Railway Signaling Sales, Price, Revenue and Gross Margin (2016-2022)
12.1.4 Company Railway Signaling Product Description
12.1.5 Company Related Developments

13 Industry Chain and Sales Channels Analysis
13.1 Railway Signaling Industry Chain Analysis
13.2 Railway Signaling Key Raw Materials
13.2.1 Key Raw Materials
13.2.2 Raw Materials Key Suppliers
13.3 Railway Signaling Production Mode and Process
13.4 Railway Signaling Sales and Marketing
13.4.1 Railway Signaling Sales Channels
13.4.2 Railway Signaling Distributors
13.5 Railway Signaling Customers

14 Market Drivers, Opportunities, Challenges and Risks Factors Analysis
14.1 Railway Signaling Industry Trends
14.2 Railway Signaling Market Drivers
14.3 Railway Signaling Market Challenges
14.4 Railway Signaling Market Restraints

15 Key Finding in The Global Railway Signaling Study
16 Appendix
16.1 Research Methodology
16.1.1 Methodology/Research Approach
16.1.2 Data Source
16.2 Author Details

Continued...

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Killexams : Automotive Electronic Control Unit Market Worth $156.0 Billion by 2030: Grand View Research, Inc.

SAN FRANCISCO, July 6, 2022 /PRNewswire/ -- The global automotive electronic control unit market size is expected to reach USD 156.0 billion by 2030, according to a new report by Grand View Research, Inc. It is expected to expand at a CAGR of 5.8% from 2022 to 2030. Growing demand for less carbon-emitting and air combating commute is raising the sales of hybrid and battery-powered vehicles in the market. The rising deployment of infotainment, autonomous driving, ADAS, and other body electronics in hybrid, ICE, and battery-powered vehicles is creating demand for electronic controlling devices such as electronic control units in the market. In addition, the rising consumer preference for technologically advanced luxury vehicles is fueling the sales of automotive electronic control units in the market.

Grand View Research Logo

Key Industry Insights & Findings from the report:

  • The growing popularity of Automotive Driver-Assisted System (ADAS) technology, including parking assistance, Automatic Emergency Braking (AEB), and Adaptive Cruise Control (ACC), has been fueling the growth of the market.

  • By capacity, the 32-Bit segment dominated the market with over 40.0% share in 2021 owing to the increased demand for these components due to their advantages such as decreased design complexity and low energy consumption.

  • Based on vehicle, the increased popularity of luxury vehicles, rise in disposable income, and improved lifestyle of consumers have been propelling the growth of the passenger cars segment.

Read 150-page market research report for more Insights, "Automotive Electronic Control Unit Market Size, Share & Trends Analysis Report By Application (Powertrain, ADAS & Safety System), By Propulsion, By Capacity, By Vehicle, By Region, And Segment Forecasts, 2022 - 2030", published by Grand View Research.

Automotive Electronic Control Unit Market Growth & Trends

Moreover, governments across the world are taking various initiatives to Excellerate road safety by mandating the installation of ADAS systems, adaptive cruise control, anti-lock braking system, adaptive front lighting, and others in passenger cars and heavy-duty vehicles. For instance, in April 2016, Europe's new car assessment program was introduced to reduce the possibility of road accidents, thus it was mandatory to integrate the anti-lock braking system during production. Increasing implementation of safety systems is creating demand for system-controlling devices; thus, to control these systems, there is an increase in the usage of an automotive electric control unit, which is fostering the growth of the market. Additionally, consumers' growing preference for luxury vehicles boosts spending on the research & development of automotive ECUs, which is expected to create new growth opportunities for the market.

The rising demand for personal vehicles and increasing disposable income of consumers based in the emerging nations of the world are encouraging automobile manufacturers to develop and integrate advanced systems in the vehicle. They are incorporating advanced automotive electronic systems for controlling and proper functioning of these systems, which is expected to fuel the growth of the market. However, the growth of the market is negatively affected due to an increase in the number of electronic control unit failures in the vehicle, which is creating unwanted disruptions and severe accidents. Besides, the market expansion is anticipated to be limited by the high costs of repair of electronic control units and the cost of programming and installation. These factors are expected to restrain the growth of the market.

Automotive Electronic Control Unit Market Segmentation

Grand View Research has segmented the global automotive electronic control unit market based on capacity, vehicle, application, propulsion, and region:

Automotive Electronic Control Unit Market - Capacity Outlook (Revenue, USD Billion, 2018 - 2030)

Automotive Electronic Control Unit Market - Vehicle Outlook (Revenue, USD Billion, 2018 - 2030)

  • Passenger Cars

  • Commercial Vehicle

Automotive Electronic Control Unit Market - Application Outlook (Revenue, USD Billion, 2018 - 2030)

  • ADAS & Safety System

  • Body Electronics

  • Powertrain

  • Infotainment

  • Others

Automotive Electronic Control Unit Market - Propulsion Outlook (Revenue, USD Billion, 2018 - 2030)

Automotive Electronic Control Unit Market - Regional Outlook (Revenue, USD Million, 2018 - 2030)

  • North America

  • Europe

  • Asia Pacific

  • Latin America

  • MEA

List of Key Players of Automotive Electronic Control Unit Market

  • Robert Bosch GmbH

  • ZF Friedrichshafen AG

  • Autoliv Inc.

  • Continental AG

  • Delphi Technologies

  • Denso Corporation

  • Hella KGaA Hueck & Co. (Hella)

  • Panasonic Corporation

  • Hitachi Automotive Systems, Ltd.

Check out more related studies published by Grand View Research:

  • Automotive Electronics Market - The global automotive electronics market size is expected to reach USD 392.49 billion by 2028, according to a new report by Grand View Research, Inc. It is anticipated to register a CAGR of 7.9% from 2021 to 2028. Increasing safety and security concerns to curb the rising road fatalities in developed and developing economies across the globe are the factors anticipated to drive the demand for automotive electronics. The rising demand for electric vehicles, autonomous vehicles, and state-of-the-art vehicle technology is also expected to fuel the market growth. Accident data recorder systems, emergency call systems, and alcohol ignition interlocks are some of the prominent technologically advanced features that are expected to drive the market growth over the forecast period.

  • Automotive Semiconductor Market - The global automotive semiconductor market size is expected to reach USD 63.92 billion by 2028, according to a new report by Grand View Research, Inc. The market is expected to expand at a CAGR of 6.2% from 2021 to 2028. The growing focus on vehicle safety systems and a significant increase in the adoption of engine control units (ECUs) in modern automobiles are anticipated to drive the demand for automotive semiconductors. Moreover, emerging technologies such as 5G and IoT are expected to play an instrumental role in increasing the demand for automotive semiconductors. Additionally, electric vehicles and all levels of assisted driving technologies are expected to create considerable growth opportunities over the next eight years.

  • Germany Automotive Aftermarket - The Germany automotive aftermarket size is expected to reach USD 23.4 billion by 2025, registering a 1.1% CAGR from 2019 to 2025, according to a new study by Grand View Research, Inc. The market is expected to be driven by technological advancements, shift in competitive power with the rise of new players, and evolving customer expectations.

Browse through Grand View Research's Automotive & Transportation Industry Research Reports.

About Grand View Research

Grand View Research, U.S.-based market research and consulting company, provides syndicated as well as customized research reports and consulting services. Registered in California and headquartered in San Francisco, the company comprises over 425 analysts and consultants, adding more than 1200 market research reports to its vast database each year. These reports offer in-depth analysis on 46 industries across 25 major countries worldwide. With the help of an interactive market intelligence platform, Grand View Research Helps Fortune 500 companies and renowned academic institutes understand the global and regional business environment and gauge the opportunities that lie ahead.

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SOURCE Grand View Research, Inc.

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Killexams : umlaut opens 5G Campus Lab to stimulate 5G use cases

umlaut, a subsidiary of Accenture, has opened a private 5G standalone Open RAN network Campus Lab in Aachen Germany.

Companies may use the 5G Campus Lab to design, test, and implement connectivity solutions faster without building their own network.

It offers the following capabilities and services:

Companies can validate their existing 5G use cases to identify and resolve issues up-front, such as ensuring that different end-devices and sensors work together.

Companies can experiment with umlaut’s use cases. These include but aren’t limited to the following areas: smart manufacturing, including process automation and predictive maintenance; telemedicine with a digitised rescue chain; software-defined vehicles; and real-time augmented reality for digital twins.

umlaut helps companies develop and deploy new individual 5G use cases, which leverage technologies, apply security-by-design, and support energy efficiency.

umlaut supports clients looking to build their own private network with its deep understanding of the challenges behind the integration and interoperability of network devices and technologies such as Open RAN.

The 5G Campus Lab covers indoor and outdoor areas and provides 100MHz of C-Band spectrum.

As a 5G standalone network, it doesn’t require LTE technology for signalling and information transfer. It is supported by Open RAN; it uses open interfaces that allow communication of software and hardware components from different vendors to provide wireless communication.

“Our 5G Campus Lab is the ideal testing ground for companies wanting to capitalise on latest wireless connectivity technologies, cloud-based Open RAN virtualised infrastructure, and massive Multi-Input, Multi-Output (MIMO) antennas,” umlaut telecommunication CEO Hakan Ekmen concludes.

This first appeared in the subscription newsletter CommsWire on 1 July 2022.

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