160 research outputs found

    Prospectus, July 12, 1995

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    https://spark.parkland.edu/prospectus_1995/1017/thumbnail.jp

    Prospectus, November 15, 1995

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    https://spark.parkland.edu/prospectus_1995/1029/thumbnail.jp

    Prospectus, November 29, 1995

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    https://spark.parkland.edu/prospectus_1995/1031/thumbnail.jp

    Prospectus, February 28, 1996

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    https://spark.parkland.edu/prospectus_1996/1006/thumbnail.jp

    Prospectus, September 20, 1995

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    https://spark.parkland.edu/prospectus_1995/1021/thumbnail.jp

    Prospectus, September 6, 1995

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    https://spark.parkland.edu/prospectus_1995/1019/thumbnail.jp

    Prospectus, December 6, 1995

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    https://spark.parkland.edu/prospectus_1995/1032/thumbnail.jp

    Prospectus, December 13, 1995

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    https://spark.parkland.edu/prospectus_1995/1033/thumbnail.jp

    CNN-Based Estimation of Sagittal Plane Walking and Running Biomechanics From Measured and Simulated Inertial Sensor Data

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    Machine learning is a promising approach to evaluate human movement based on wearable sensor data. A representative dataset for training data-driven models is crucial to ensure that the model generalizes well to unseen data. However, the acquisition of sufficient data is time-consuming and often infeasible. We present a method to create realistic inertial sensor data with corresponding biomechanical variables by 2D walking and running simulations. We augmented a measured inertial sensor dataset with simulated data for the training of convolutional neural networks to estimate sagittal plane joint angles, joint moments, and ground reaction forces (GRFs) of walking and running. When adding simulated data, the root mean square error (RMSE) of the test set of hip, knee, and ankle joint angles decreased up to 17 %, 27 % and 23 %, the RMSE of knee and ankle joint moments up to 6 % and the RMSE of anterior-posterior and vertical GRF up to 2 and 6 %. Simulation-aided estimation of joint moments and GRFs was limited by inaccuracies of the biomechanical model. Improving the physics-based model and domain adaptation learning may further increase the benefit of simulated data. Future work can exploit biomechanical simulations to connect different data sources in order to create representative datasets of human movement. In conclusion, machine learning can benefit from available domain knowledge on biomechanical simulations to supplement cumbersome data collections

    If you can’t measure it- you can’t change it – a longitudinal study on improving quality of care in hospitals and health centers in rural Kenya

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    Background: The Kenyan Ministry of Health- Department of Standards and Regulations sought to operationalize the Kenya Quality Assurance Model for Health. To this end an integrated quality management system based on validated indicators derived from the Kenya Quality Model for Health (KQMH) was developed and adapted to the area of Reproductive and Maternal and Neonatal Health, implemented and analysed. Methods: An integrated quality management (QM) approach was developed based on European Practice Assessment (EPA) modified to the Kenyan context. It relies on a multi-perspective, multifaceted and repeated indicator based assessment, covering the 6 World Health Organization (WHO) building blocks. The adaptation process made use of a ten step modified RAND/UCLA appropriateness Method. To measure the 303 structure, process, outcome indicators five data collection tools were developed: surveys for patients and staff, a self-assessment, facilitator assessment, a manager interview guide. The assessment process was supported by a specially developed software (VISOTOOL®) that allows detailed feedback to facility staff, benchmarking and facilitates improvement plans. A longitudinal study design was used with 10 facilities (6 hospitals; 4 Health centers) selected out of 36 applications. Data was summarized using means and standard deviations (SDs). Categorical data was presented as frequency counts and percentages. Results: A baseline assessment (T1) was carried out, a reassessment (T2) after 1.5 years. Results from the first and second assessment after a relatively short period of 1.5 years of improvement activities are striking, in particular in the domain ‘Quality and Safety’ (20.02%; p < 0.0001) with the dimensions: use of clinical guidelines (34,18%; p < 0.0336); Infection control (23,61%; p < 0.0001). Marked improvements were found in the domains ‘Clinical Care’ (10.08%; p = 0.0108), ‘Management’ (13.10%: p < 0.0001), ‘Interface In/out-patients’ (13.87%; p = 0.0246), and in total (14.64%; p < 0.0001). Exemplarily drilling down the domain ‘clinical care’ significant improvements were observed in the dimensions ‘Antenatal care’ (26.84%; p = 0.0059) and ‘Survivors of gender-based violence’ (11.20%; p = 0.0092). The least marked changes or even a -not significant- decline of some was found in the dimensions ‘delivery’ and ‘postnatal care’. Conclusions: This comprehensive quality improvement approach breathes life into the process of collecting data for indicators and creates ownership among users and providers of health services. It offers a reflection on the relevance of evidence-based quality improvement for health system strengthening and has the potential to lay a solid ground for further certification and accreditation
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