TechMorph |
Home | Editorial | Definitions | TechGenius | TechToons | TechMorph | TechCase |
Contact us | TechMatters | TechQuiz | TechLinks | TechTalk | IPR | IPR Links |
Technology Morphology | Toothbrush Morphology | Watch Morphology | Shoe Morphology | Umbrella Morphology |
Technology Morphology
The Morphological Analysis of Technology is explained here:
- Notes
- Table
Technology has two components:
1. Technology should be an entity (physical existence)
2. Technology should embody some knowledge (knowledge content)
A technology in which there is no apparent continuous energy transfer. Examples of passive technologies are duster and purse.
A technology in which there is continuous energy transfer. An example of active technology is a fan.
Embodied technology is encapsulated in products and physical equipment, such as manufacturing plant. The technology has what Glasser (1982) calls, a technical root structure which gives a product or process its performance and application characteristics. Some writers include in embodiment the training or retraining of labour.
Disembodied technology is mainly intangible; there are no specific products which give it its particular character. The scientific principles underlying disembodied technologies are the social or management sciences rather than the natural sciences. Industrial engineering and quality assurance are typical examples of a disembodied technology. Its practitioners use artefacts but these are generic, such as an operating manual or a computer software package.
A technology which supports the R&D, production and marketing of an industry. Expressions of infratechnologies are measurement and test methods, calibration procedures incorporated in technical standards, published scientific and engineering data.
A technology which has a wide range of applications throughout industry. Lubrication, electronic device design, optoelectronics and robotics are typical generic technologies.
A technology which is specific to a given process or industry.
The constituent technologies of a fusion of technologies (systems integration). Example: The systems technologies involved in multi-media telecommunications include hardware such as computers and telecommunication equipment, software such as digital systems and programming, transmission networks consisting of optical fibre links and interfaces.
A technology can be evaluated on a scale which starts from the practical and repetitive at one end to the complex and abstract at the other. For instance, Parker (1982) gives six levels of technology relevant to the development of a new product. A modified approach based on five levels is illustrated. The characteristics and context of technology at each level are given in the table.
Refer National Industrial Classification [All Economic Activities], Nabhi Publications (1999)
When a new technology emerges, particularly as a result of a group of key inventions, the products and processes involved are not yet fully developed. The nature and scope of the market are still tentative. The innovation context is fluid and there is a period of vigorous progress when innovations follow each other rapidly and new equipment evolves. A number of alternative product and process designs compete until a dominant design is established. A diversity of applications foster market growth and structure.
In this stage, the emphasis is on standardization, manufacturing efficiencies and, where feasible, the economies of scale of mass production. The innovation context becomes specific.
With time, the technology and its products become ‘mature’; the rate of innovation slows while further development is affected by diminished returns and rapid increases in costs. Markets become increasingly price-competitive and growth begins to level out. A natural limit is eventually reached when the cost of the further development of a product or process becomes prohibitive.
1. Presentation on Academic Activities in Technology Management pursued at the Indian Institute of Technology, Madras. Date: 4.12.1995
2. Paul Lowe, The Management of Technology: Perception and Opportunities, Chapman & Hall, London, 1995.
DIMENSIONS |
FUNCTIONAL CHARACTERISTICS CONSIDERED UNDER EACH DIMENSION |
OPTIONS |
|
Knowledge Content or Physical Entity |
Source |
* Indigenous Development * Obtained through Technology Transfer |
|
Disciplines Involved |
* Single * Multi-Disciplinary |
||
Industrial Category |
* Agriculture, Hunting and Forestry * Fishing * Mining and Quarrying * Manufacturing * Electricity, Gas and Water Supply * Construction * Wholesale and Retail Trade; Repair of Motor Vehicles, Motorcycles and Personal and Household Goods * Hotels and Restaurants * Transport, Storage and Communications * Financial Intermediation * Real Estate, Renting and Business Activities * Public Administration and Defence; Compulsory Social Security * Education * Health and Social Work * Other Community, Social and Personal Service Activities * Private Household and Employed Persons * Extra-Territorial Organisations and Bodies |
||
Level of Technology |
* LEVEL 1: Simple Artifacts and Techniques, Repetitive Activities, Mainly Craft Know-how, Rudimentary use of Scientific Principles * LEVEL 2: Main Technology Embodied in Equipment, Some Technical Know-how and Application of Scientific Principles * LEVEL 3: Considerable Process and Product Know-how, Some Technology Development, Use of Established Techniques * LEVEL 4: Extensive Know-how, Equipment with Advanced Technologies, Substantial R&D Programmes, Use of Advanced Commercial * LEVEL 5: Global Technological Leadership, Fusion of Advanced Technologies, Extension of Science Base, Strategy and Organization to Extend Competitive Advantage |
||
Other Features |
Product/Process Technology |
* Product * Process |
|
Manifestation of Technology |
* Embodied * Disembodied of Soft |
||
Generic/Specific Technology |
* Generic * Specific |
||
Active/Passive Technology |
* Active * Passive |
||
Is It a Systems Technology? |
* Yes * No |
||
Is it an Infratechnology? |
* Yes * No |
||
New/Obsolete Technology? |
* New * Obsolete |
||
Stage |
* Fluid/Innovative * Consolidation * Mature |
||
Geographic or Socio-Economic Scale |
* Planetary/Global * Continental/Regional * National/Sub-Regional * Zonal/Provincial * District/Local (Metropolis; City; Town; Village; Habitation) * Family/Individual |
||
Relevance/Impact |
* Social * Economic * Environmental * Political * Legal * Historical * Strategic |
||
Organizational Scale |
* Global/Multinational * Transnational * Regional * National * Local |
||
Sector of Deployment |
* Government, Judiciary * Agriculture (Primary) * Industry (Secondary) * Services (Tertiary) |
||
Functional Deployment |
* Resources Exploration * Manufacturing/Processing * R&D and Design * Defence * Data Collection and Information Services |
||
* Power Generation and Distribution * General Utilities: Water, Steam, and Compressed Air * Climate Control * Transportation * Communication |
|||
* Health Care and Medical Services * Education and Training * Environmental Protection * Entertainment |
|||
Managerial Concerns (Firm Specific) |
Internal |
* Profitability or Reach * Competitiveness * Innovation and Creativity * Productivity * Quality * Reliability * Cost |
|
* Delivery * Flexibility * Security * Obsolescence * Skills and Training * Employees' Welfare |
|||
External |
* Social Responsibility * Goodwill * Legal Conformity * Business Ethics |
© Indian Institute of Technology Madras and Department of Scientific and Industrial Research, Government of India |