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Key Activities (key + activity)
Selected AbstractsEuropean perspectives: a carer's viewACTA PSYCHIATRICA SCANDINAVICA, Issue 2001Ursula Brand Objective:,To present the work of the European Federation of Associations of Families of Mentally Ill People (EUFAMI) and discuss issues of concern to family carers. Method:,The problem areas identified and discussed by family carers are presented on the basis of questionnaire surveys organized by EUFAMI. Addresses of national organisations of family carers are included. Results:,A range of problem areas are identified; they include subsistence and welfare payments for the severely mentally ill, some shortage of general hospital units, problems of care co-ordination, issues of respect for family carers and family involvement. Conclusion:,The aim of best practice in mental health care throughout Europe has not yet been reached. Key activities of EUFAMI are aimed at empowerment of families and best practice in psychiatry in Europe. [source] Improving the quality of health information: the contribution of C-H-i-QHEALTH EXPECTATIONS, Issue 3 2002Tom Hain MSc RGN RSCN FAETC The quality of information should be the key driver in communicating health messages to the public. Staff at The Centre for Health Information Quality (C-H-i-Q) have worked with an extensive list of partner organizations from a range of disciplines. These stakeholders express a desire to see improvement in the standards of patient information, and display a willingness to embrace new approaches in order to achieve change. The result is an increasingly significant contribution in the development of the information-exchange model of health-care, where the aim is to maximize public confidence in health information. Key activities include defining principles of quality assurance, engaging with stakeholders, and developing tools and training for producers and providers of health information. [source] A Model of Supplier Integration into New Product Development*THE JOURNAL OF PRODUCT INNOVATION MANAGEMENT, Issue 4 2003Kenneth J. Petersen In many industries, firms are looking for ways to cut concept-to-customer development time, to improve quality, and to reduce the cost of new products. One approach shown to be successful in Japanese organizations involves the integration of material suppliers early in the new product development cycle. This involvement may range from simple consultation with suppliers on design ideas to making suppliers fully responsible for the design of components or systems they will supply. While prior research shows the benefit of using this approach, execution remains a problem. The processes for identifying and integrating suppliers into the new product development (NPD) process in North American organizations are not understood well. This problem is compounded by the fact that design team members often are reluctant to listen to the technology and cost ideas made by suppliers in new product development efforts. We suggest a model of the key activities required for successful supplier integration into NPD projects, based on case studies with 17 Japanese and American manufacturing organizations. The model is validated using data from a survey of purchasing executives in global corporations with at least one successful and one unsuccessful supplier integration experience. The results suggest that (1) increased knowledge of a supplier is more likely to result in greater information sharing and involvement of the supplier in the product development process; (2) sharing of technology information results in higher levels of supplier involvement and improved outcomes; (3) supplier involvement on teams generally results in a higher achievement of NPD team goals; (4) in cases when technology uncertainty is present, suppliers and buyers are more likely to share information on NPD teams; and (5) the problems associated with technology uncertainty can be mitigated by greater use of technology sharing and direct supplier participation on new product development teams. A supplier's participation as a true member of a new product development team seems to result in the highest level of benefits, especially in cases when a technology is in its formative stages. [source] China,Australia,Hong Kong tripartite community mental health training programASIA-PACIFIC PSYCHIATRY, Issue 2 2009Chee Hong Ng MBBS MD FRANZCP Abstract The present paper describes the unique mental health training cooperation between two countries involving three training sites to facilitate the improvement of mental health care and service delivery in China. The priority is to build workforce capacity to deliver appropriate mental health care and rehabilitation in the community. In response to this challenge, a training program was collaboratively planned between partners in both countries to provide a comprehensive training program for multiskilled case workers for mainland China. The development and key activities of the training and exchange program correspond to a diverse range of training programs across multiple levels of staff and sectors. The tripartite training program represents a unique, large scale training program that has contributed significantly to developing one of the largest global national mental health program of reform and building a national community mental health service system for China. Over their many years of cooperation, the Australian and Chinese partners have developed a model for successful collaboration, one based on mutual respect, exchange of expertise and a deep appreciation of cultural difference and its influences on broad aspects of health system development. [source] Application of Multivariate Data Analysis for Identification and Successful Resolution of a Root Cause for a Bioprocessing ApplicationBIOTECHNOLOGY PROGRESS, Issue 3 2008Alime Ozlem Kirdar Multivariate Data Analysis (MVDA) can be used for supporting key activities required for successful bioprocessing. These activities include process characterization, process scale-up, process monitoring, fault diagnosis and root cause analysis. This paper examines an application of MVDA towards root cause analysis for identifying scale-up differences and parameter interactions that adversely impact cell culture process performance. Multivariate data analysis and modeling were performed using data from small-scale (2 L), pilot-scale (2,000 L) and commercial-scale (15,000 L) batches. The input parameters examined included bioreactor pCO2, glucose, lactate, ammonium, raw materials and seed inocula. The output parameters included product attributes, product titer, viable cell density, cell viability and osmolality. Time course performance variables (daily, initial, peak and end point) were also evaluated. Application of MVDA as a diagnostic tool was successful in identifying the root cause and designing experimental conditions to demonstrate and correct it. Process parameters and their interactions that adversely impact cell culture performance and product attributes were successfully identified. MVDA was successfully used as an effective tool for collating process knowledge and increasing process understanding. [source] Product Technology Transfer in the Upstream Supply ChainTHE JOURNAL OF PRODUCT INNOVATION MANAGEMENT, Issue 6 2003Mohan V. Tatikonda This article addresses the transfer of new product technologies from outside the firm for integration into a new product system as part of a product development effort. Product technology transfer is a key activity in the complex process of new product development and is the fundamental link in the technology supply chain. Product technology transfer too often is dealt with in an ad-hoc fashion. Purposeful management of the product technology transfer process leads to more effective transfers in terms of timeliness, cost, functional performance, and competence building. Better management of product technology transfer gives firms access to a greater variety of new technology options, improves a firm's ability to offer significantly differentiated products, deepens the firm's competitive competencies, and positively influences sustained product development success. The central objective of this article is to gain insight into product technology transfer so that companies can manage this process more successfully and so that researchers can investigate this critical activity further. This article describes the technology supply chain as a unique form of a supply chain that poses a set of managerial challenges and requirements distinguishing it from the more traditional component supply chain. Because a single product technology transfer project is the fundamental piece in the technology supply chain, understanding this piece well is key to leveraging the extended technology supply chain and to improving overall product development performance. This article integrates literatures on new product development, supply chain management, and technology management and builds on organizational theory to present a conceptual model of determinants of product technology transfer success. The core proposition is that product technology transfer effectiveness is greatest when companies carefully match (or "fit") the type of technology to be transferred (the "technology uncertainty") with the type of relationship between the technology supplier and recipient (the "interorganizational interaction"). A quite detailed framework characterizing technology uncertainty along the dimensions of technology novelty, complexity, and tacitness is presented to help in assessing the challenges associated with transferring a particular product technology. This article also considers detailed elements characterizing the interorganizational interactions between the technology source and recipient firms. This helps firms consider the appropriate means to facilitate the interfirm process of technology transfer. Overall, this article provides practical insight into characterizing technologies and into improving the product technology transfer process. This article also provides a strong theoretical foundation to aid future research on product technology transfer in the technology supply chain. [source] |