Healthcare Decision-Making: Optimizing Negative Trends for Profitability
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Added on  2023/03/31
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This article discusses the usage of decision-tree models to optimize negative trends in healthcare organizations for improved profitability. It focuses on solutions to improve diagnostic imaging services and increase patient and physician satisfaction.
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Running head: HEALTHCARE DECISION-MAKING HEALTHCARE DECISION-MAKING Name of the Student: Name of the University: Author note:
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1HEALTHCARE DECISION-MAKING Introduction For mitigating shortcomings and deficits in the functioning of a healthcare organization, quantifying the quality of the patient and diagnostic services provided by the same, must be quantified into relevant outcomes or results which form the guiding principle for conductance of collective organization decision-making (Jothi & Husain, 2015). The following paper will focus on the usage of a decision-tree model for optimizing existing negative trends towards beneficial profitability in a concerned healthcare organization. Discussion Decision-tree Model For analyzing the current negative trends reflecting loss in profitability in a healthcare organization,the quantitative model deemed to be effective for fulfilling the purpose is a decision tree model. A decision tree is model of classification outlining observations and assumptions with high likelihood of future occurrence in the form of possible alternatives and decisions (Tang et al., 2019). A decision tree model acquires its title due to is characteristic categorization of decisions being represented as branches emerging from a chosen problem. Each branch represents a decision with further branches representing possible outcomes as a result of the taking the decision. The primary principles outlining a decision tree model in a healthcare model for example, will consisting of segmenting the stakeholders (nurses, patients), stratifying the outcomes of each decision (high, medium, low risk) and predicting the results of future occurrences underlying each decision (patient satisfaction: high or low) (Abdelaziz et al., 2018).
2HEALTHCARE DECISION-MAKING An example of a simple decision-tree model in healthcare in terms of increased diagnostic profitability would comprise of the following: Solutions As evident, the concerned healthcare organization’s profitability has been impacted negativelyintermsofthefunctioningofitsdiagnosticimagingcenter.Ahealthcare organization’s diagnostic imaging services is essential due to the ability of the procedure to visually and graphically represent patient health results for improved diagnosis and critical decision-making (Cha et al., 2016). Loss of functioning and profitability in diagnostic imaging can result in consequences in terms of: delayed diagnosis, disrupted emergency department functioning, patient and physician dissatisfaction, loss of outpatient flow, overall organizational losses (Dijkema, Leiner & Grotenhuis, 2017).Hence to combat the same, the following solutions can be recruited (See Figure 1): 1.Recruitment and Allocation of Diagnostic Team:Considering that diagnostic imaging forms the cruxof clinical decision–making, in adequate staffing may result in overall Diagnostic Imaging Allocationof Diagnostic team Reschedulingtofix hospitaltimesfor diagnosis Patient Satisfaction Physician Satisfaction Patient Satisfaction Physician Satisfaction High Low High Low High Low High Low Figure 1: Healthcare Decision-tree model using an example of Diagnostic Imaging (As designed by the author)
3HEALTHCARE DECISION-MAKING delayed functioning for every department of the organization. Hence additional workers may be recruited, delegated into specific teams (radiography, computer tomography etc.) followed by a separate diagnostic communication channel relaying information to the emergency department on a priority basis. This will result in increased profits in terms of reduceddelays,quickerdiagnosis,patientsatisfactionandincreasedpatientflow (Venderink et al., 2017). 2.StaffTrainingandEducationFramework:Implementationofatrainingand educational plan by diagnostic technicians will result in long term benefits in terms of improved equipment usage by staff, hastened diagnostic imaging and improvements in physician decision-making and patient satisfaction. However, short term losses in terms of expenditures in recruiting training personnel and equipment may be yield difficult-to- achieve financial targets in the organization’s break even report (Gregory et al., 2016). 3.Modifying Hospital Schedules:Rescheduling the hospital schedules to incorporate specific times for diagnostic imaging services will allow improved and organized patient flow and reallocation of staff functioning as per the specified timings. This will result in long term profits in terms of increased pre-diagnostic preparation time for staff and patients resulting in faster diagnostics and clinical decision-making. While rescheduling timings may yield staff and patient confusion and resistance to change, communicating such changes prior to actual implementation may mitigate these difficulties (Lugu et al., 2016). 4.Routine Auditing and Feedback:Considering optimum diagnostic imaging services is strongly associated with patient and physician satisfaction, obtaining feedback will assist in future profitability and improvements by recognizing preferences of both these
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4HEALTHCARE DECISION-MAKING stakeholders. Routine auditing procedures will produce long term profitability in terms of prompt identification and management of imaging and equipment errors as compared to longtermfinanciallossesduetoaggravationoferroneousstaffandmachinery functioning. Redirecting organizational financial resources to yield novel auditing and feedback frameworks may however yield short term losses (Bajre et al., 2017). Summary: Personal Improvement To conclude, the decision-tree proved to be beneficial in communicating with the board of directors on the strategies with which the negative trend in the profitability of the healthcare organization’s diagnostic imaging centre. The decision-tree model was helpful since it assisted in quantifying and summarizing probable outcomes of a decision into concise values, which further compelled the usage of organizational data and the resultant ease in communication to the board of directors. Hence, the decision-tree model proves to be helpful in future qualitative and quantitative assessments of the healthcare organization.
5HEALTHCARE DECISION-MAKING References Abdelaziz, A., Elhoseny, M., Salama, A. S., & Riad, A. M. (2018). A machine learning model for improving healthcare services on cloud computing environment.Measurement,119, 117-128. Bajre, M. K., Pennington, M., Woznitza, N., Beardmore, C., Radhakrishnan, M., Harris, R., & McCrone, P. (2017). Expanding the role of radiographers in reporting suspected lung cancer: a cost-effectiveness analysis using a decision tree model.Radiography,23(4), 273-278. Cha, M. J., Lee, K. S., Kim, H. S., Lee, S. W., Jeong, C. J., Kim, E. Y., & Lee, H. Y. (2016). Improvement in imaging diagnosis technique and modalities for solitary pulmonary nodules: from ground-glass opacity nodules to part-solid and solid nodules.Expert review of respiratory medicine,10(3), 261-278. Dijkema, E. J., Leiner, T., & Grotenhuis, H. B. (2017). Diagnosis, imaging and clinical management of aortic coarctation.Heart,103(15), 1148-1155. Gregory, S., Kuntz, K., Sainfort, F., & Kharbanda, A. (2016). Cost-effectiveness of integrating a clinical decision rule and staged imaging protocol for diagnosis of appendicitis.Value in Health,19(1), 28-35. Jothi, N., & Husain, W. (2015). Data mining in healthcare–a review.Procedia Computer Science,72, 306-313.
6HEALTHCARE DECISION-MAKING Lungu, A., Swift, A. J., Capener, D., Kiely, D., Hose, R., & Wild, J. M. (2016). Diagnosis of pulmonary hypertension from magnetic resonance imaging–based computational models and decision tree analysis.Pulmonary circulation,6(2), 181-190. Tang, V., Siu, P. K. Y., Choy, K. L., Lam, H. Y., Ho, G. T. S., Lee, C. K. M., & Tsang, Y. P. (2019). An adaptive clinical decision support system for serving the elderly with chronic diseases in healthcare industry.Expert Systems, e12369. Venderink, W., Govers, T. M., de Rooij, M., Fütterer, J. J., & Sedelaar, J. M. (2017). Cost- effectivenesscomparisonofimaging-guidedprostatebiopsytechniques:systematic transrectalultrasound,directin-bore MRI, andimagefusion.American Journalof Roentgenology,208(5), 1058-1063.