Kettering University is a university in Flint, Michigan, focusing on STEM and Business fields. It offers bachelor's and master's degrees in engineering, math, science, and business. Kettering places a strong emphasis on experiential learning and cooperative education, with undergraduate students required to successfully complete at least five co-op terms to graduate. The campus is located along the Flint River on property that was formerly the main manufacturing location for General Motors. It is named after inventor and former head of research for General Motors Charles Kettering. The school's student population is approximately 2,000 students. Wikipedia.
Thomas N.,Kettering University
Journal of Computer Information Systems | Year: 2012
Now that providing individual customization of products is an effective way to compete in the global economy. smart manufacturers are finding the way to overcome traditional mass production limitations. As the benefits of mass customization are realized through well designed information systems that provide direct links among value chain partners and integrate various business activities, the importance of information systems architecture in the delivery of customized goods can hardly be overemphasized. Drawing on concepts from the interrelated literature streams of organizational process-view, this paper examines the information systems requirements for mass customization and proposes an information system architecture framework for customized goods. This information systems architecture enables enterprise -wide integration, reduces systems complexity as well as the Bullwhip effect, and streamlines business processes in mass customization environment. Source
Kudish I.I.,Kettering University
Lubrication Science | Year: 2013
The paper is devoted to the development of an asymptotic approach to solution of the steady isothermal problem of elastohydrodynamic lubrication (EHL) for heavily loaded point contacts. It is shown that the whole contact region can be subdivided into three subregions: the central one that is adjacent to the other two regions occupied by the ends of the horseshoe-shaped pressure/gap distribution zone. The central region, in turn, can be subdivided into the Hertzian region and its adjacent inlet and exit zones that, in turn, are adjacent to the inlet and exit boundaries of the contact, respectively. Moreover, in the central region, in the inlet and exit zones of heavily loaded point EHL contact, the EHL problem can be reduced to asymptotically valid equations identical to the ones obtained in the inlet and exit zones of heavily loaded line EHL contacts. The latter means that many of the well-known properties of heavily loaded line EHL contacts are also valid for heavily loaded point EHL contacts. These asymptotically valid equations can be analysed and numerically solved based on the stable methods using a specific regularisation approach that were developed for lubricated line contacts. Cases of pre-critical and over-critical lubrication regimes are considered. The by-product of this asymptotic analysis is an easy analytical derivation of formulas for the lubrication film thickness for pre-critical and over-critical lubrication regimes. The method is validated by the results of some experimental and numerical studies published by a number of researches. Copyright © 2013 John Wiley & Sons, Ltd. Source
Russell D.A.,Kettering University
American Journal of Physics | Year: 2010
The sound field resulting from striking a basketball is found to be rich in frequency content, with over 50 partials in the frequency range of 0-12 kHz. The frequencies are found to closely match theoretical expectations for standing wave patterns inside a spherical cavity. Because of the degenerate nature of the mode shapes, explicit identification of the modes is not possible without internal investigation with a microphone probe. A basketball proves to be an interesting application of a boundary value problem involving spherical coordinates. © 2010 American Association of Physics Teachers. Source
Kettering University | Date: 2014-03-14
A method and apparatus is provided for the modification of the surface chemistry of solid nano- and micro-particles in order to tailor the properties and functions of these particles. The method generally involves the generation of an atmospheric plasma glow discharge and energetic species that undergo chemical reaction with the surface of the primary particles. The process includes the generation of energetic species to initiate reaction, optional delivery of a precursor fluid, optional delivery of chemical species for grafting, and delivery of separated and de-agglomerated particles into the plasma discharge exiting the plasma generation chamber.
Agency: NSF | Branch: Standard Grant | Program: | Phase: | Award Amount: 452.00K | Year: 2015
This Major Research Instrument (MRI) grant will support the acquisition of a High Resolution Transmission Electron Microscope (HRTEM) to enhance Kettering Universitys efforts in interdisciplinary undergraduate education and research in nanotechnology and materials characterization. This instrument will be used by faculty, graduate and undergraduate students in a wide range of fields including biology, chemistry, chemical engineering, electrical engineering, mechanical engineering and physics for a large number of research projects and classroom activities. The availability of a HRTEM on the campus of Kettering University has a number of benefits including: (1) A stronger integration of the on-campus and co-op-mediated education (for which Kettering University has long been known) into a holistic educational model; (2) Strengthening Kettering Universitys role as a steady partner in the economic redevelopment of the state of Michigan and, in particular, the city of Flint; (3) Enabling original contributions to research in areas identified as national grand challenges with broad social impact; (4) Bolstering Kettering Universitys efforts to recruit and retain students; (5) Further expansion of professional development programs for in-service teaching professionals in the STEM disciplines; (6) The initiation of a program to develop a center for advanced materials characterization at Kettering University to provide services and training to industrial organizations. Furthermore, work resulting from the use of this instrument will allow a number of undergraduate students to attend and present original research at local, regional, national and international meetings. Most importantly, at least 15 courses offered across six academic departments will benefit from the use of this instrument in the development of new laboratory experiments and teaching aids.
The acquisition of a HRTEM will greatly benefit a number of ongoing research projects at Kettering University including investigations into the construction of reduced graphene oxide films for use in the development of a super-capacitor, characterization of novel materials for advanced solid oxide fuel cells, cathode materials for Na-ion batteries and characterization of magnetic nanoparticles for a number of biomedical applications. The proposed instrument will allow up to 0.1 nm crystal lattice resolution and up to 0.23 nm point-to-point resolution thus providing meaningful magnification for direct imaging of nanomaterials for size distribution and morphology determination for the applications outlined in the proposal. In addition, the ability to perform scanning transmission electron microscopy (STEM) in conjunction with its energy dispersive x-ray microanalysis system allows for elemental mapping at the nanoscale allowing for size determination and elemental mapping at grain boundaries and other locations within bulk materials. Highlighted ongoing research projects which will benefit from this instrument include: (1) The characterization of magnetic nanoparticles for use in targeted drug delivery and as mediators in the magnetic fluid hyperthermia treatment of malignant tumors, (2) The fabrication and characterization of reduced graphene oxide films using atmospheric plasma and surface annealing, (3) characterization of polymer and composite fibers and films for biomedical applications, (4) Synthesis and characterization of Na4Mn9O18 cathodes and iron oxide anodes for sodium ion batteries, (5) Synthesis and characterization of materials for advanced solid oxide fuel cells, (6) Growth and characterization of magnetosomes produced by magnetotactic bacteria for hyperthermia and micro- and nanorobotics, and (7) The study of the interactions of ligand-capped fold nanostructures with metal ions.