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Pub Date: |
2002-00-00 |
Pub Type(s): |
Reports - Descriptive |
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Descriptors:
Admission (School); Adult Education; Colleges; Continuing Education; Developed Nations; Education Work Relationship; Educational Cooperation; Educational Needs; Electricians; Electronic Technicians; Electronics Industry; Foreign Countries; Job Skills; Job Training; Labor Market; Postsecondary Education; Recruitment; School Business Relationship; Technical Education
Abstract:
A project examined skills shortages and gaps in the electrotechnical industry and to what extent stakeholders' training provision was addressing them in two areas in England--the eastern region, and Liverpool with the Wirral peninsula in the northwest. The national training organization called the National Electrotechnical Training (NET) and work-based learning providers were of particular interest. Findings on partnership issues indicated organizations involved in training varied in size and role, and it was found to be problematic when stakeholders competed for recruits while contracting with each other for provision. Other findings related to declining recruitment, deficiencies in the corporate culture, effects of colleges' wider responsibilities and the impact of funding. Findings on skill needs indicated NET had difficulty influencing training provision, and the main learning needs were updating of knowledge of regulations and legislation, maintaining and updating technology and workers' knowledge of it, and knowledge of how to manage people. Other findings were communication problems in the sector, skill gaps, skills shortages, and recruitment difficulties. Findings on provision or learning opportunities indicated problems in changes in qualifications, training relevance, responding to demand and gaps in provision, responsiveness to industry needs, progression and coherence, and integrated provision. A range of solutions were offered to solve recruitment difficulties, including using online learning, improving employers' knowledge of funding for training, and providing awards for students choosing to go into engineering. (YLB)
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Author(s): |
N/A |
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Pub Date: |
1998-06-00 |
Pub Type(s): |
Reports - General |
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Descriptors:
Demonstration Programs; Education Work Relationship; Educational Improvement; Electronics Industry; Elementary Secondary Education; Manufacturing Industry; School Business Relationship; Semiconductor Devices
Abstract:
The U.S. semiconductor industry, now the nation's largest manufacturing industry, displays its commitment to training its current workers and educating future workers by supporting educational efforts on the K-12 level. This catalog describes innovative actions by 16 Semiconductor Industry Association companies to improve education at the K-12 level. Examples of these programs include the following: an integrated classroom and internship program; involvement in developing state workplace skills standards; support of Public Broadcasting System television series; and an international science and engineering fair. Projects from the following companies are profiled: Advanced Micro Devices, Analog Devices, Harris, Hewlett-Packard, Intel, IBM, LSI Logic, Lucent Technologies, Micron Technology, Motorola, National Semiconductor, Rockwell Semiconductor, SEMATECH, Semiconductor Research Corporation, Texas Instruments, and VLSI Technology. An appendix describes the work of the Maricopa Advanced Technology Education Center, founded to promote the development of a world class semiconductor manufacturing work force. (KC)
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Pub Date: |
1997-00-00 |
Pub Type(s): |
Guides - Classroom - Teacher |
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Descriptors:
Career Development; Competence; Competency Based Education; Course Content; Course Organization; Electronic Control; Electronic Equipment; Electronic Technicians; Electronics; Electronics Industry; Foreign Countries; Integrated Curriculum; Robotics; Secondary Education; State Curriculum Guides; Teaching Methods; Technology Education; Vocational Education
Abstract:
With this Career and Technologies Studies (CTS) curriculum guide, secondary students in Alberta can do the following: develop skills that can be applied in their daily lives; refine career-planning skills; develop technology-related skills in electro-technologies; enhance employability skills, especially in electro-technologies industries; and apply and reinforce learning developed in other subject areas. The curriculum is organized in strands and modules. This guide encompassing the electro-technologies strand contains 37 modules that define what a student is expected to know and be able to do (competencies). The guide is organized in the following parts: (1) program rationale and philosophy, learner expectations, program organization, curriculum and assessment standards, and types of competencies in career and technology studies; (2) strand rationale and philosophy and strand organization for electro-technologies studies; (3) planning for instruction for career and technology studies and for electro-technologies courses; (4) module curriculum and assessment standards for introductory level electro-technologies competencies; (5) module curriculum and assessment standards for intermediate level electro-technologies competencies; (6) module curriculum and assessment standards for advanced level electro-technologies competencies; (7) assessment tools; (8) linkages and transitions; (9) learning resource guide; and (10) sample student learning guides. Modules cover the following broad topics: electro-assembly; conversion and distribution; power supply; digital technology; control systems; analog, electronic, and radio communication; security systems; robotics; circuit wiring; electro-optics; magnetic control; electronic servicing; generation/transformation; microprocessors; amplifiers; motors; and control applications. (KC)
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Pub Date: |
1997-00-00 |
Pub Type(s): |
Guides - Classroom - Learner; Guides - Classroom - Teacher |
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Descriptors:
Career Education; Career Exploration; Career Guidance; Critical Thinking; Electric Circuits; Electricity; Electronic Technicians; Electronics; Electronics Industry; Laboratory Procedures; Laboratory Safety; Learning Activities; Lesson Plans; Microcomputers; Occupational Safety and Health; Postsecondary Education; Secondary Education; Shop Curriculum; Teaching Guides; Teaching Methods; Technological Advancement; Technology Education; Thinking Skills; Units of Study; Vocational Education
Abstract:
These instructional materials include a teacher's guide designed to assist instructors in organizing and presenting an introductory course in general electronics focusing on logic circuits and microprocessors and a student guide. The materials are based on the curriculum-alignment concept of first stating the objectives, developing instructional strategies for teaching those objectives, and then evaluating based on the objectives. The course contains two units, each designed for use in more than one class period: Logic Devices and Circuits and Introduction to Microprocessors. Each unit in the teacher edition includes some or all of the following: suggested activities, answers to assignment sheets, answers to written test, written test, unit evaluation form, teacher supplements, and transparency masters. In addition, the teacher edition includes a section on use of the publication, a competency profile, instructional and task analyses, academic and workplace skill classifications and definitions, a related academic and workplace skills list, and a correlation to the Electronics Industries Foundation skills list. Each of the instructional units in the student edition includes some or all of the following components of a unit of instruction: objective sheet, information sheet, assignment sheets, and job sheets. (KC)
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Pub Date: |
1997-00-00 |
Pub Type(s): |
Guides - Classroom - Learner; Guides - Classroom - Teacher |
Peer Reviewed: |
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Descriptors:
Career Education; Career Exploration; Career Guidance; Critical Thinking; Electric Circuits; Electricity; Electronic Technicians; Electronics; Electronics Industry; Laboratory Procedures; Laboratory Safety; Learning Activities; Lesson Plans; Occupational Safety and Health; Postsecondary Education; Secondary Education; Semiconductor Devices; Shop Curriculum; Teaching Guides; Teaching Methods; Technological Advancement; Technology Education; Thinking Skills; Units of Study; Vocational Education
Abstract:
These instructional materials include a teacher's guide designed to assist instructors in organizing and presenting an introductory course in general electronics focusing on semiconductor devices and circuits and a student guide. The materials are based on the curriculum-alignment concept of first stating the objectives, developing instructional strategies for teaching those objectives, and then evaluating based on the objectives. The course contains three units, each designed for use in more than one class period: Discrete Semiconductor Devices and Circuits, Linear Integrated Devices and Circuits, and Power Supplies. Each unit in the teacher edition includes some or all of the following: suggested activities, answers to assignment sheets, answers to written test, written test, unit evaluation form, teacher supplements, and transparency masters. In addition, the teacher edition includes a section on use of the publication, a competency profile, instructional and task analyses, academic and workplace skill classifications and definitions, a related academic and workplace skills list, and a correlation to the Electronics Industries Foundation skills list. Each of the instructional units in the student edition includes some or all of the following components of a unit of instruction: objective sheet, information sheet, assignment sheets, and job sheets. (KC)
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Author(s): |
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Pub Date: |
1996-00-00 |
Pub Type(s): |
Reports - Descriptive |
Peer Reviewed: |
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Descriptors:
Biotechnology; Educational Objectives; Educational Technology; Electronics Industry; Engineering Education; Federal Programs; Higher Education; Industry; Information Industry; Interdisciplinary Approach; Manufacturing; Research and Development; Resource Allocation; Science Education; Scientific Research; Systems Approach; Technological Advancement
Abstract:
This publication consists of colorful data sheets on the National Science Foundation's Engineering Research Centers (ERC) Program, a program designed to strengthen the competitiveness of U.S. industries by bringing new approaches and goals to academic engineering research and education. The main elements of the ERC mission are cross-disciplinary and systems-oriented research, education and outreach, and industrial collaboration and technology transfer. Data sheets on each of the 20 ERCs are grouped into the following technological areas of emphasis: biotechnology and bioengineering; design and manufacturing; infrastructure; materials processing for manufacturing; optoelectronics: microelectronics and information technology; and resource use and recovery. Each data sheet typically includes the Center's name, associated institution, area of major emphasis, a summary of the research being done, summary of educational activities, summary of efforts in industrial collaboration/technology transfer, description of facilities, director's name, address, e-mail address, phone and fax numbers. (CK)
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