Research about Wearable Computer Design Realization for Ubiquitous Space

2008 ◽  
Vol null (6) ◽  
pp. 127-134
Author(s):  
김문석 ◽  
Chikwon Choi
Keyword(s):  
Wearable Computer ◽  
Computer Design ◽  
Ubiquitous Space

Study on Wearable Computer Applications in the Industrial Field

2013 ◽  
Vol 389 ◽  
pp. 1008-1013
Author(s):  
Kai Wu ◽  
Qing Shui Li
Keyword(s):  
Data Acquisition ◽  
Computer Applications ◽  
Wearable Computer ◽  
Computer Design ◽  
Mobile Monitoring ◽  
Remote Collaboration ◽  
Industrial Areas ◽  
Design Specifications ◽  
Huge Impact ◽  
Complex Equipment

Wearable computer will give a huge impact on traditional industries, which can effectively overcome the traditional industrial areas in the mobile monitoring, data acquisition, and the difficulties encountered by the large and complex equipment installation, maintenance and breakdown maintenance, special industrial field operations, remote collaboration. This paper is to study the wearable computer applications in the industrial field, and wearable computer design specifications. The model of the hardware and software is designed based on these indicators, and study and design a complete design.

Ergonomics in wearable computer design

2001 ◽  
Vol 27 (4) ◽  
pp. 259-269 ◽  
Author(s):  
Rungtai Lin ◽  
John G. Kreifeldt
Keyword(s):  
Wearable Computer ◽  
Computer Design

scholarly journals Reflections on a concurrent design methodology: a case study in wearable computer design

1996 ◽  
Vol 28 (5) ◽  
pp. 393-404 ◽  
Author(s):  
Susan Finger ◽  
John Stivoric ◽  
Cristina Amon ◽  
Levent Gursoz ◽  
Fritz Prinz ◽  
...  
Keyword(s):  
Design Methodology ◽  
Concurrent Design ◽  
Wearable Computer ◽  
Computer Design

Thermal Management Strategies for Embedded Electronic Components of Wearable Computers

1999 ◽  
Vol 122 (2) ◽  
pp. 98-106 ◽  
Author(s):  
Eric Egan ◽  
Cristina H. Amon
Keyword(s):  
Numerical Simulations ◽  
Polymer Composite ◽  
Numerical Models ◽  
The Body ◽  
Thermal Design ◽  
Analytical Models ◽  
Conductive Heat ◽  
Wearable Computer ◽  
Computer Design ◽  
Wearable Computers

Wearable computers are rugged, portable computers that can be comfortably worn on the body and easily operated for maintenance applications. The recently developed process of Shape Deposition Manufacturing has created the opportunity to embed the electronics of wearable computers in a polymer composite substrate. As both a protective outer case and a conductive heat dissipating medium, the substrate satisfies two basic constraints of wearable computer design: ruggedness and cooling efficiency. One such application of embedded electronics is the VuMan3R, a wearable computer designed and manufactured at Carnegie Mellon University for aircraft maintenance. This paper combines finite element numerical simulations, physical experimentation, and analytical models to understand the thermal phenomena of embedded electronic design and to explore the thermal design space. Numerical models ascertain the effect of heat spreaders and polymer composite substrates on the thermal performance, while physical experimentation of an embedded electronic artifact ensures the accuracy of the numerical simulations and the practicality of the thermal design. Analytical models using thermal resistance networks predict the heat flow paths within the embedded electronic artifact as well as the role of conductive fillers used in polymer composites. [S1043-7398(00)00102-X]

Design, Entwicklung und Evaluation von Benutzerschnittstellen für Wearable Computer (Design, Development and Evaluation of User Interfaces for Wearable Computers)

i-com ◽  
2007 ◽  
Vol 6 (2) ◽  
pp. 4-10
Author(s):  
Hendrik Witt
Keyword(s):  
User Interfaces ◽  
Wearable Computing ◽  
Wearable Computer ◽  
Computer Design ◽  
Design Development ◽  
Wearable Computers ◽  
Desktop Computing

Benutzerschnittstellen für das Wearable Computing Paradigma unterscheiden sich signifikant von ihrem Pendant aus der Desktop Computing Welt. Dieser Artikel schlägt die Entwicklung eines systematischen Entwicklungsprozesses für die Erstellung von Benutzerschnittstellen für Wearable Computer und dessen Integrationsmöglichkeit in existierende und zukünftige Software-Entwicklungsmodelle vor. Zur Unterstützung der vorgeschlagenen Prozesse werden zwei spezielle Werkzeuge, das „WUI-Toolkit” und der „HotWire Primäraufgaben Simulator” verwendet, die speziell auf die Anforderungen des Wearable Computings im Bereich der Implementierungs- und anschließenden Evaluationsphase von Schnittstellen abgestimmt wurden.

LED MODULE WITH ELECTRONIC ILLUMINATION CONTROL

2019 ◽  
Vol 1 (12) ◽  
pp. 146-154
Author(s):  
V. Lisovenko ◽  
D. Lisovenko ◽  
O. Bazyk
Keyword(s):  
High Precision ◽  
Single Point ◽  
Dynamic Control ◽  
Directional Pattern ◽  
Current Strength ◽  
Design Parameters ◽  
Light Sources ◽  
Computer Design ◽  
Light Power ◽  
Electron Dynamic

Many energy saving tasks can be solved thanks to the current advances in LED technology in the production of semiconductor light sources. Modern production of solid-state LEDs guarantees high-precision compliance with the calculated design parameters of illumination devices. This opens up wide opportunities for high-precision control of the lighting parameters of a multicomponent module: light power, a directional pattern and a distribution of illumination. Today, the methodical issues of the preliminary modeling of LED illumination devices with the given parameters are fundamentally solved. There is a shift from manual calculations to computer design and need to develop and select the most effective mathematical modeling methods. The paper presents a consistent approach to the modeling of the distribution of illumination on a horizontal plane from the planar LED module, based on the Lambert type of radiation of a single point source. Simple mathematical expressions, programmed on a personal computer, are obtained. The example of a 25-LED floodlight has shown the ability of dynamic control the lighting characteristics of the module. Connecting patterns of separate LEDs or their groups allow to change the direction pattern of the lamp by the appropriate way of switching diodes with different aperture of radiation. The lighting power can be controlled within the linearity of the ampere-brightness characteristics by changing the current strength through the LED. The static selection of characteristics is controlled by the geometry of the location of discrete sources. The formation of uniform illumination of the plane is graphically illustrated. The electron-dynamic way of controlling the lighting parameters of the LED floodlight is confirmed by the inventor’s certificate.

3D Printing & Pharmaceutical Manufacturing: Opportunities and Challenges

2016 ◽  
Vol 5 (01) ◽  
pp. 4723 ◽  
Author(s):  
Bhusnure O. G.* ◽  
Gholve V. S. ◽  
Sugave B. K. ◽  
Dongre R. C. ◽  
Gore S. A. ◽  
...  
Keyword(s):  
Drug Delivery ◽  
Tissue Engineering ◽  
3D Printing ◽  
Computer Aided Design ◽  
Patient Specific ◽  
Computer Design ◽  
3D Scaffolds ◽  
Engineering Research ◽  
Advantages And Disadvantages ◽  
Computer Aided

Many researchers have attempted to use computer-aided design (C.A.D) and computer-aided manufacturing (CAM) to realize a scaffold that provides a three-dimensional (3D) environment for regeneration of tissues and organs. As a result, several 3D printing technologies, including stereolithography, deposition modeling, inkjet-based printing and selective laser sintering have been developed. Because these 3D printing technologies use computers for design and fabrication, and they can fabricate 3D scaffolds as designed; as a consequence, they can be standardized. Growth of target tissues and organs requires the presence of appropriate growth factors, so fabrication of 3Dscaffold systems that release these biomolecules has been explored. A drug delivery system (D.D.S) that administrates a pharmaceutical compound to achieve a therapeutic effect in cells, animals and humans is a key technology that delivers biomolecules without side effects caused by excessive doses. 3D printing technologies and D. D. Ss have been assembled successfully, so new possibilities for improved tissue regeneration have been suggested. If the interaction between cells and scaffold system with biomolecules can be understood and controlled, and if an optimal 3D tissue regenerating environment is realized, 3D printing technologies will become an important aspect of tissue engineering research in the near future. 3D Printing promises to produce complex biomedical devices according to computer design using patient-specific anatomical data. Since its initial use as pre-surgical visualization models and tooling molds, 3D Printing has slowly evolved to create one-of-a-kind devices, implants, scaffolds for tissue engineering, diagnostic platforms, and drug delivery systems. Fuelled by the recent explosion in public interest and access to affordable printers, there is renewed interest to combine stem cells with custom 3D scaffolds for personalized regenerative medicine. Before 3D Printing can be used routinely for the regeneration of complex tissues (e.g. bone, cartilage, muscles, vessels, nerves in the craniomaxillofacial complex), and complex organs with intricate 3D microarchitecture (e.g. liver, lymphoid organs), several technological limitations must be addressed. Until recently, tablet designs had been restricted to the relatively small number of shapes that are easily achievable using traditional manufacturing methods. As 3D printing capabilities develop further, safety and regulatory concerns are addressed and the cost of the technology falls, contract manufacturers and pharmaceutical companies that experiment with these 3D printing innovations are likely to gain a competitive edge. This review compose the basics, types & techniques used, advantages and disadvantages of 3D printing

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