Data management using outcomes-based quality improvement

2001 ◽  
Vol 6 (6) ◽  
pp. 205-211
Author(s):  
Doris Mosocco
2014 ◽  
Vol 644-650 ◽  
pp. 2744-2750
Author(s):  
Hong Ji ◽  
Chen Liu ◽  
Yan Yan Tang ◽  
Ye Yuan

With the design teamdevelopment and the design data quality improvement, the problems in the process of design appear constantly, such as collaborative design, data security managementand dataremote processing.In order to solve these problems, we begin to research and implementation of design datamanagement andprocessing system (DDMP). The system adopts B/S architecture. Through online operations (accept task, review data, etc.), as well as strict management of the system data to realize long distance collaborative design. System respectively from the platform environment, data management, and user access control three aspects to ensure the safety of system. At last, DDMP integrates with rendering and 3D printing platform torealizeremoteprocessing ofdesign data.


2013 ◽  
Vol 31 (31_suppl) ◽  
pp. 34-34
Author(s):  
Patrick Samedy

34 Background: Research and quality improvement studies often involve an extensive amount of manual review of medical records. The effective management of this process is critical to the consistent, accurate, and cost effective collection and timely dissemination of quality data. Methods: The purpose of this paper is to introduce “OpenQA”, a data management tool designed specifically to help organize, track, and communicate data related to quality improvement studies. OpenQA is designed with ease of chart abstraction, efficiency of data collection, and data transparency as a goal, while providing reporting that support a range of activities related to data management tasks common to hospital quality management departments. The basic method behind OpenQA is to: (1) Provide a centralized online repository for measure related metadata; (2) automatically identify retrospective and prospective encounters that meet specified study inclusion/exclusion criteria; (3) extract key details from structured and unstructured data sources and then combine them to help quality auditors make compliance decisions; (4) provide a workflow engine that supports work lists, alerting and a feedback mechanism for metric stakeholders; (5) provide audit tracking to enable measurability of data collection efforts. Results: Favorable effects were realized post implementation across all measures of performance despite an increase in case volume. Results indicate a decrease in median audit turnaround time, defined as the time between the patient encounter and a decision is made by the auditor, by 23 days (85%). Results also indicate a decrease in the audit reporting turnaround time, defined as the time between the patient encounter and the compliance decision is made and reported. Both reductions were significant at a p value of < 0.05. Conclusions: We suggest that a tool designed to help streamline and standardize the quality improvement data collection process may offer the advantage of minimizing the resource utilization associated with data collection while improving data integrity and shortening the feedback loop.


2014 ◽  
Vol 556-562 ◽  
pp. 6487-6491
Author(s):  
Mei Qing Wang ◽  
Yun Hu

Quality in product lifecycle is a new focus in quality management, which holds the promise of seamlessly integrating all the quality data produced throughout the life of a product. By analyzing the process of quality management in product lifecycle, the hierarchical relationship among the quality processes, quality objects, quality activities, quality data and quality improvement is clarified. The definition of quality BOM (Bill of Material) is specified in quality domain. The mapping relationship between quality BOM and product BOM is established. Based on quality BOM evolution process, an integrated organization model for quality data is put forward.


2021 ◽  
Vol 111 (05) ◽  
pp. 286-290
Author(s):  
D. Alexander Kies ◽  
Jonathan Krauß ◽  
Arno Schmetz ◽  
Christoph Baum ◽  
H. Robert Schmitt ◽  
...  

Der digitale Zwilling birgt große Potenziale hinsichtlich der Qualitätssteigerung in der Produktion. Die Implementierung eines solchen ist jedoch in hohem Maße abhängig vom spezifischen Anwendungsfall und die Übertragung theoretischer Modelle in die Praxis geht häufig mit großem Aufwand einher. In diesem Beitrag wird die Konzeptionierung eines digitalen Zwillings in der Batteriezellfertigung thematisiert und evaluiert. &nbsp; The digital twin has great potential with regard to quality improvement in production. However, the implementation of such a twin is highly dependent on the specific use case and the transfer of theoretical models into the real world often involves a great degree of effort. This article addresses and evaluates the conceptualization of a digital twin in battery cell manufacturing.


Author(s):  
Dinesh Bala ◽  
Robert G. Batson ◽  
Gary P. Moynihan ◽  
Paul S. Ray

Sign in / Sign up

Export Citation Format

Share Document