Browse Topic: Globalization
Experts offer their outlook on the future of heavy-duty internal combustion engines, and of course artificial intelligence will play a role. Internal combustion engines will continue to be the prime power for key sectors of the global economy. Future engine designs will be heavily influenced by artificial intelligence (AI) and the ecosystem of engine operation. New combustion strategies will deliver more efficiency and lower emissions, while hybrid technology and renewable fuels will be a substantial influence. These are among the key conclusions made by Allen Schaeffer, executive director of the Engine Technology Forum, during the “Engine Design for the Next 20 Years” webinar hosted by Truck & Off-Highway Engineering. Schaeffer was joined on the expert panel by Venu Gupta, who leads engine product strategy and power solutions planning at John Deere, and Mihai Dorobantu, Ph.D., director of technology, planning and government affairs for Eaton's Mobility Group. The webinar is now available on-demand at www.sae.org/webinars/smg-group.
The article is devoted to a comprehensive analysis of the digital transformation of education using the example of a project to train engineering personnel for the innovative transport industry in Russia. Special attention is paid to the introduction of hybrid formats, digital platforms, inclusivity, issues of digital inequality, as well as the experience of the National Research Center of the Russian Federation FSUE NAMI and interaction with leading universities in the country. A comparative analysis with foreign initiatives, including modern AI solutions for inclusive education, is presented, as well as the impact of the project to create educational and methodological centers on the professional motivation of teachers.
Just one year after signing a ground-breaking trilateral agreement, the Deep Space Advanced Radar Capability partnership is completing facilities construction at the first of three sites that will host a global network of advanced ground-based sensors.
The global medical device market is projected to reach a value of $656 billion USD by 2032 with a CAGR of 3 percent over the coming decade.1 The preceding decades of globalization and increased prosperity has provided advancement in both medical technology and access to advanced medical care for a greater proportion of the world’s population. Further, an aging population in North America, Europe, and parts of Asia will increase the need for healthcare-related services and medical devices in the coming decades. At present, the North America market continues to dominate the industry, accounting for approximately 43 percent of the market’s revenue share; however, markets in the Asia-Pacific region have the highest expected growth rates in the coming decades.1 Growth and innovation in the medical device market will be critical in the years to come.
Clean-burning fuels, aftertreatment and other innovations place the heavy-duty combustion engine on a low-carbon emissions trajectory. Agriculture, industrial, mining, construction, freight transport and other major global economy sectors rely on vehicle power to thrive. “Internal combustion engines - those powered by gasoline, diesel, natural gas or propane - really are key to our current economy, and we see [the ICE] as a key part of our energy future,” Allen Schaeffer, executive director of the Engine Technology Forum, a U.S.-based educational organization, said during a September webinar. Hosted by the Engine Technology Forum, the “Taking Internal Combustion Engines to the Next Level” session focused on current and under-development innovations aimed at increasing engine efficiency and lowering emissions.
Cloud-computing networks are speeding AV development and preparing to manage tomorrow's data-reliant AV fleets. You might never spot one, but computing clouds will be crucial for the success of autonomous vehicles (AVs). The automotive and digital worlds have begun aligning to create the cloud-based digital backbones that will enable AVs to operate safely on real roads and in real time. From an engineering perspective, the same networked resources derived from these partnerships are helping to speed AV development, with connected vehicles already paving the digital pathways. Cloud computing leverages global networks linking hardware-filled data centers to provide on-demand processing power and data storage needed to scale computing requirements via virtualized software environments. Data and requests can come from anywhere on the planet and be managed from equally separated servers. Cloud computing systems are maturing concurrently with AV development in a confluence that is helping to speed many AV engineering processes.
Australia has embarked on an extraordinary reform to design, develop and implement a new and contemporary Defence Aviation Safety Framework. The program seeks to establish a single Defence Aviation Safety Authority (DASA) and issue a comprehensive and integrated suite of Defence Aviation Safety Regulation (DASR) for initial and continuing airworthiness, flight operations, air navigation, aerodromes (inclusive of ship-borne heliports) and safety management systems. While reforms of this scale can often be triggered by reviews into major aircraft accidents, such as The Nimrod Review by Charles Haddon-Cave QC in October 2009, Australia initiated the reform when new aircraft fleets were being introduced and at a time of arguably high-levels of aviation safety. The purpose of this paper is therefore to explain the compelling reason for change; providing a twenty-five-year retrospective analysis of Australia’s previous Defence aviation safety framework to give a rich picture of the difficulties faced by increased commercialization from the late 1990s, globalization in the 2000s, and the recent emergence of strict work, health and safety legislation in Australia.
The growth in global economies has led to a world that has become much more mobile in the last few decades. The number of enplanements has increased and is expected to continue to do so at an annual average rate of 1.8% through 2039 [1]. Prior to the COVID-19 pandemic, the number of aircraft in service was expected to increase annually to meet the travel demand. Next-generation, more-complex aircraft were scheduled to replace the older aircraft at a pace that still allowed sufficient capacity to meet the increasing demand. The events of 2020 have driven the industry to accelerate retirement of older aircraft while deferring the introduction of new aircraft. While the length of the industry recovery period cannot be predicted, most analysts believe that demand for travel will return once a vaccine is widely available. The impact to the design of next-generation aircraft will likely be shaped by technologies that are being accelerated for the post-COVID world as well as for new mobility platforms. Technologies, such as artificial intelligence and fault-tolerant and self-adapting control, will use integrated vehicle health management (IVHM) capabilities as part of the decision-making processes. This SAE EDGE™ Research Report seeks to explore the unsettled issues surrounding embedding IVHM information into the active control loops of modern aircraft systems and in future generations of aircraft designs. NOTE: SAE EDGE™ Research Reports are intended to identify and illuminate key issues in emerging, but still unsettled, technologies of interest to the mobility industry. The goal of SAE EDGE™ Research Reports is to stimulate discussion and work in the hope of promoting and speeding resolution of identified issues. SAE EDGE™ Research Reports are not intended to resolve the challenges they identify or close any topic to further scrutiny. Click here to access the full SAE EDGETM Research Report portfolio.
SAE J1939-31 Network Layer describes the requirements and services for Network Interconnection ECUs (NIECU) that enable electronic control units (ECUs) on a network segment to intercommunicate with other ECUs on different network segments of the vehicle network. This document defines various types of NIECUs. The information in this document applies only to ECUs that are intended to provide networking services. It is not necessary for an ECU to provide any of these services in order to be compliant with the SAE J1939 protocol.
Global sales of electric and hybrid vehicles continue to grow as emission legislation forces vehicle manufacturers to build cleaner vehicles, with some 8 million already in service. Hybrid and Electric vehicles contain some of the most complex systems ever used in the automotive field, sophisticated and unique electric hybrid systems are added to modern motor vehicles which are already quite complex. As these vehicles reach the end of their lives they will be processed by the global vehicle recycling industry and the high voltage components will be reused, recycled or re-purposed. This paper explores safe working practices for businesses involved in a global marketplace who are completing battery disabling, removal, disassembly, storage and shipping; includes the various technologies and safe working practices along with some of the legal restrictions on dismantling, storage and shipping of high voltage batteries around the world. The paper will also explore how detailed safety, dismantling, storage and shipping information is currently made available to the vehicle recycling community and how this can be improved in the future to enhance the safety of people handling, dismantling, storing and shipping high voltage electric and hybrid components.
Design of vehicle for targeted customer usage is one of the key steps during vehicle development process. Due to globalization, most of vehicles, aggregates, components are being designed for global market considering worldwide load spectrum. Generally for doing this the vehicle response is being measured for different markets but this process is very time consuming. Also for getting these vehicle dependent parameters, exercises need to be repeated on each type/class of vehicle. So there is a need to have a robust procedure, tools which will helps OEM’s to predict the loads, vehicle response for different market segments at an early stage of vehicle development program using the inputs which are vehicle independent. The solution for this could be to use vehicle independent input such as digitized road profiles (2D or 3D) of target customer markets in combination with proper MBD simulation tools. This paper discuss about methodology used for generation of the 3D digital Indian road profile database and its applications in vehicle development. The paper elaborates on the methodology , process developed for measurement and the generation of vehicle independent 3D (X-Y-Z grid) digital road profile database (in .CRG/.RGR format) of typical Indian roads using LiDAR (Light Detection And Ranging) based laser sensors. Also various features of 3D public road profiles and its effect on vehicle response through Multi Body Dynamics (MBD) simulation are studied. The different applications of generated public 3D road profile database for vehicle design development are also discussed.
Globalization has intensively driven focus of car manufacturers on comfort and ergonomics. Luxuries are becoming essential features of product mix. Customer’s expectations and desires are changing because of cut throat competition and increasing variety of options. In order to sustain in marketplace, OEM has to be competitive while providing features and options with appropriate quality. Vigorously changing dimensions and definitions of comfort level, luxury and aesthetics has driven the intense focus of OEM’s on customer touch points, customer touch points are those components of vehicle which customer accesses while driving the vehicle and they play vital role in generating drive feel of vehicle. Customer’s drive feel about the vehicle is most complex and critical factor and is of subjective nature. Now days drive feel is an important aspect of product differentiation. Gear shift feel is very crucial touch point in overall drive feel of vehicle. Customer desires overall Gear shift quality to be best in class for any transmission. Gear shift feel is very difficult to define because of diversities in customer aspirations and demands; many times these demands are of conflicting nature for e.g. demand of light shifting force and click feel, firmness and non-scratchy shift feel etc. In this paper different parameters of GSQ (Gear Shift Quality) and their effects on gear shift feel is explained with help of math model or relation matrix. Along with this also some practical cases explained where different shift feels were obtained on same gearbox by altering choice of shifting mechanism. This paper throws light on how to enhance this shift feel by using different combinations of damper bushes and spring stiffness and describes experimentation and procedures used to define and enhance the Gear Shift Feel and get over classic shift feel problems like stickiness, scratchiness etc.
Defending cyberspace is a complex and largely scoped challenge that considers emerging threats to security in space, land, and sea. The global cyber infrastructure presents many challenges because of the complexity and massive amounts of information transferred across the global network daily. The cyber infrastructure is made up of the data resources, network protocols, computing platforms, and computational services that bring people, information, and computational tools together.
The world population is growing, globalization has resulted in a higher standard of living in many countries, and people are living longer. With increased living standards and choices people make, lifestyle-related illnesses, such as cardiovascular diseases, are on the increase. Companies race to make medical devices to cure challenging physical conditions and diseases. Novel materials are an integral part of supporting such design and development. One such material is Nitinol (NiTi), a serendipitous discovery in 1959 by William J. Buehler during research at the U.S. Naval Ordnance Laboratory, White Oak, MD. Nitinol, which saw use in medical devices beginning in the late 1980s, stands for Nickel Titanium Naval Ordnance Laboratory.
The manufacturing industry has put into practice a methodology that embraces Design for Manufacturing and Globalization. Competition in the global manufacturing industry demands greater forethought in new product development. Products must transition through the development lifecycle faster, provide flexibility to transfer manufacturing operations to other countries, facilitate cost reduction and augment strategic market objectives. To achieve these goals at Bell Helicopter, the new Bell 525 Relentless has made extensive use of Engineering Digital Product Definition (DPD) and Interactive Work Instructions (IWI). A cultural change achieved the end result of a design that contains a new product structure capable of leveraging global technology resources, with creative delivery of work instructions for manufacturing.
With the development of world economy, the shortage in the supply of oil energy as well as the greenhouse effect have become a public concern around the world. The application of biodiesel on vehicle transportation has become the focus of development in many countries. Biodiesel, Fatty Acid Methyl Esters (FAME), is made during the process of transesterification of the animal and vegetable oils. Compared with fossil diesel, biodiesel has some characteristics, such as organic acid, higher water saturation, and oxygen content. From the results of the literatures [1] to [5], it showed that biodiesel would cause the inflation of some plastic and flexible products and the corrosion of metal materials. Metal fuel tanks have the characteristics of high flammability, high impact resistance, and good workability and are often used in commercial vehicles. The corrosion of metal materials is a natural chemical change and it can be influenced by the environment. The metal materials soaked in biodiesel will show different rates of corrosion and phenomenon, influenced by the factors such as water content, PH value, dissolved oxygen, temperature, conductivity, microorganism attachment and so on. Therefore, nine different oils (D100, B2, B5, B10, B20, B40, B60, B80, and B100) and four different samples of metal fuel tanks (Zn, ZnSn, SUS 304 and SUS 316) were used in this study under the conditions of room temperature, and high humidity. With the samples soaked for 2400 hours, the visual investigation was used for surface observation, the film thickness gauge was used to measure the thickness of Zn coating, SEM & EDS qualitative analysis were conducted, and the conductivity of the oils was analyzed periodically to study the impacts of biodiesel on fuel tanks. The results of this study showed that after being soaked for 2400 hours, on the surfaces of the four different metal fuel tank samples, rust or corrosion were not found. There were some color changes found on the Zn coated samples soaked in B40 and above, but the thickness of Zn coating was not reduced. Using the SEM & EDS element analysis, it was found that there was some oxidization on the Zn coated samples with the increase of the percentage of the biodiesel. As for the stainless steel samples, little oxygen was measured. However, for the quality of biodiesel, the performances on conductivity, oxidation stability and the amount of dissolved Zn from the Zn coated samples using high percentage biodiesel (B20 and above) were poor. If the fuel tank was made of Zn coated material, it might increase the deterioration of high percentage biodiesel. Therefore, it is suggested that when using or transporting low percentage biodiesel (B20 and below), the material of the equipment should be coated with Zn or stainless steel. However, when storing high percentage biodiesel for long hours, the storage equipment should be made of stainless steel to avoid speeding the deterioration of the quality of the oils.
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