NURS FPX 6224 Assessment 2
Free Sample
Technology Evaluation and Needs Assessment
Student Name
Capella University
NURS FPX 6224
Professor Name
Submission Date
Introduction
Technological needs assessments and evaluation in healthcare have a crucial role, and a system is analysed in a systematic manner for identifying the gaps in service delivery. These processes are therefore a mix of stakeholder engagement, process evaluation, and performance monitoring to align with the goals of the institution.
When quantitative information is leveraged in conjunction with qualitative insights, a solid basis for evidence-based decisions and improvement is built. These assessments identify infrastructure gaps, training requirements, and innovation opportunities – and allocate resources and preparedness for the staff. Assessment of patient-generated data uploads via mobile application throughout Emory Healthcare’s ecosystem.
Relevance of Needs Assessment
The needs assessment is the basis for the successful change effort and is broken down into an organized process of determining the client’s current practice needs to be different from the desired outcomes in Emory Healthcare. By using systematic data collection and gathering, whether qualitative or quantitative, and indicators of patient satisfaction, clinical workflow indicators, staff feedback, or equipment stocks, nurse leaders receive a clear picture of the bottlenecks, resource limitations, and new needs that emerge.
The evidence-based foundation indicates that any intervention proposed, new technology, or staffing change to improve patient flow, will make an immediate decision on which intervention will be used to address the greatest “patient care gap” rather than based on anecdote or assumption. This type of needs assessment not only supports the pursuit of clinical excellence at Emory but is a way to maximize the allocation of time, budget, and training.
The nurse leaders implement needs assessment to determine the need for technology for improvements to the care delivery process. First steps involve conducting a system audit to identify current systems and find out if there are opportunities for existing digital resources, legacy platforms, or hardware constraints that can be leveraged and compared to workflows such as bedside charting, administration, or interprofessional handoffs.
At the same time, leaders conduct surveys and interviews with frontline workers to gauge a level of proficiency and map out areas of need for training that may impede adoption, Zemmel stated. In addition, a dual-faceted lens with human capability as well as technical ability can also be used by leaders to set particular solutions that they desire. A variety of potential applications for mobile technology could include the ability to record information as it happens; to add remote monitoring dashboards; to enrich clinical decision support algorithms with more up-to-date data to boost process efficiency, reduce errors, and enhance team coordination.
A basic skill for nurse leaders is the needs assessment process, and it is necessary to have a sound methodology in decision-making and resource allocation. Converting the data to an action plan priority may enable leaders to write compelling business cases to obtain executive support to invest in technology or training, and match priorities for leaders in their departments with priorities for Emory Healthcare to innovate and improve quality.
Also, any intervention that is based on a clearly communicated need would have a measurable impact on the staff resource allocation plan, operational efficiency, and patient outcomes. This fosters the sense of ongoing effective improvement in a continuous process based on evidence and enhances the credibility of leadership.
Assumptions
Prior to the need assessment, the following assumptions were deemed to be crucial. Every day, business and patient care activities may be missing out on the technology they have to improve their efficiency. Staff may not be prepared with the necessary skills and confidence for using digital devices. There is also a desire for patients to have a ‘seamless digital experience’ — but the current set-up might not be adequate for this. Finally, the actual user needs can differ wildly from requirements, and there may be significant mismatches between these and the resources made available, limiting the ability to achieve the targeted adoption and performance gains.
Technology Infrastructure in Healthcare
Emory Healthcare has a robust digital healthcare platform based on the Epic electronic health record (EHR) platform, with picture archiving and communication systems (PACS) enterprise-wide integration, lab information management, and pharmacy automation. A mobile workstation on wheels system allows secure, connected, and wirelessly mobile clinicians to have access to patient information, place orders, and communicate instantaneously. Telehealth platforms are available for virtual visits in primary, specialty, and post-surgical visits. A single analytics engine and data warehouse store all clinical, operational, and financial data for quality monitoring and predictive modelling.
The above-mentioned resources are all efficiency aids – they eliminate duplicate documentation, streamline order entry, and provide embedded clinical decision support to standardise the pathway of care. They improve the effectiveness by providing real-time alerts, such as early warning scores, drug-interaction alerts, and allowing multidisciplinary care coordination across the sites.
In spite of these positive attributes, challenges to equity persist, however, as with other types of telehealth: language barriers can hinder portal and telehealth use for those who don’t speak English, low digital health literacy disproportionately impacts older patients and socioeconomically vulnerable patients, and patients in rural and underserved areas may have poor broadband access. Occasional system downtime, slow legacy integrations, and such are also risks for care delays with complex cases.
The greatest need is the ability to have a patient-centric platform that will complement the EHR and provide a better mobile application for patients to upload their information to their provider or healthcare team. This solution needs to be able to handle multilingual interfaces, low bandwidth, and easy two-way exchange of data collected at home, such as home-measured vital signs and home symptom trackers.
This kind of technology would minimize the paperwork for registration personnel as well as the time it takes to transcribe information, and minimize transcription errors. The strategy allows for all patients—be they language or literacy barriers or geographically located—full and active engagement in their care, meeting Emory Healthcare’s objectives of efficiency, quality, and equity.
Conflicting Data
Patient data can be accessed in real-time, and engagement can be increased through mobile apps for data upload, but there are security and interoperability issues. An enhanced patient-centered mobile application at Emory Healthcare would alleviate some of the clinicians’ concerns about workflows, cognitive load, and address longstanding issues in the continuity, timeliness, and quality of care data that impact clinical outcomes and nurse performance. Real-time upload to the app of home monitored vitals, symptom diaries, and pre-visit questionnaires reduces delays in identifying clinical deterioration and shortens the time taken to transcribe vitals and symptoms onto paper systems.
Routine data feeds can enable nurses to detect warning signs before the heart failure exacerbates and to alert the prescriber if the patient hasn’t been taking the medicines as prescribed, said Samal’s study. Having a patient cohort that doesn’t have so many in-person follow-ups can be a challenge for care teams who are trying to ensure health equity. Extending monitoring beyond the hospital could help reduce preventable adverse events and disease readmissions.
Technology’s Impact on Outcomes
The app needs to connect with Emory’s Epic EHR system and use application programming interface (APIs) with bidirectional interoperability to retrieve patient data and immediately populate a nurse’s dashboard; and to transmit alerts to the nursing team’s clinical decision support system without the need for redundant manual data entry. The targeted pilot will be the first to be adopted at the heart-failure clinic and will be followed by fast iterative cycles of feedback with front-line nurses or information technology experts until implementation becomes enterprise-wide, with a system release every quarter or year, leading to a seamless adoption.
Complementary e-learning modules and hands-on workshops will equip both nurses and patients with the skills they need, while unit-based designated champions/drug representatives by mobile use will help with change management to maximize the adoption of the new mobile workflow without issues. Once implemented, the improved mobile data upload will allow for patient engagement in their care, promoting self-management, satisfaction, and trust. Up-to-date and comprehensive information is readily available to clinicians to help create individual care plans, minimizing complications and decreasing length of stay.
The result is cost savings and better throughput in an organization because of reduced avoidable admissions and streamlined charting. For the nursing team, having access to instant measurements of patient reports results in more efficient care planning, prioritization, and handoff, giving more time to the patient, allowing more autonomy for the nurse, and improving job satisfaction. To sum up, this technology will come in at the exact moment Emory Healthcare is dedicated to a streamlined, high-quality, and equitable healthcare setting – evidenced by decreased readmission rates, better patient experience scores, and nursing employee engagement.
On the other hand, Solomou et al. (2025) state that with targeted training, considered implementation, and robust privacy protection, these can be overcome. To be widely deployed, policymakers need to consider and evaluate potential benefits, costs, and equity issues while being mindful of the fact that they need to make a decision that is fair and impartial.
Improving Collaboration and Efficiency
By having a mobile application to share the patient’s generated information, one stream of information is delivered in real-time and available to all Emory Healthcare staff, including nurses, physicians, pharmacists, and care coordinators. The FHIR-based integration manages the app to deliver structured entries straight to Epic dashboards (instead of the current variety of portal messages and paper logs that are frequently delivered late or in siloes).
This common view makes handoffs easier, enables the efficient conduct of huddles with other disciplines and delays, and cuts unnecessary outreach duplication. The app helps create a unified care plan and consensus on treatment adjustments by allowing all members of the treatment team to have access to the same, timely, and time-stamped vital and symptom data.
The app automates and streamlines data capture – especially the capturing of data from phones, which is often inconsistent – thanks to its standardized data structure and thresholds as well as auto-generating alerts (e.g., abnormal blood pressure, rising weights). These notifications then initiate immediate clinical decision support into the EHR, leading to earlier interventions like sepsis protocols, medication reviews, or other interventions that were not typically part of the existing retrospective review workflows. Electronically validated data are consistent and accurate, which lessens the risk of transcription error and information gaps, and helps prevent adverse events and protect vulnerable patients.
The mobile app cuts down on paperwork and duplicate charting of registration and nursing staff. Handwritten logs upload automatically, instead of the patient having to fax or take them with them to complete, saving hours of lag time while completing charts.
Knowledge Gaps
Even with good design, there is an unknown about patient adoption rates, and about digital literacy on each level of demographics. The implications of changes in network bandwidth in rural, underserved areas are unknown. There is still a need for more validation of data privacy and cybersecurity processes to guarantee adherence and build users’ confidence. The impacts of ongoing remote monitoring of clinician workload and alert fatigue are yet to be investigated.
Supporting Equitable Patient Care
Patient-generated data submitted via a mobile app enables fair and equitable access to care in Emory, with user interfaces in multiple languages, font sizes, and low-bandwidth modes for patients who don’t know English or have visual impairments or are without internet access in their rural areas. The technology’s design will ensure that every patient can send vitals and symptoms reports in a preferred language and format, reducing technical and linguistic barriers for patients to participate and consistent with Emory’s dedication to health equity, unlike the current combination of MyChart and paper records, which is often not available for non-English speakers and for patients without reliable internet.
Having the uniform and time-stamped data provided by the app helps ensure that care is uniform across patient populations to reduce care variability and trigger clinical decisions. Unlike handwritten log books and delayed phone updates, which can create transcription mistakes and be subject to bias, out-of-range alerts will encourage timely corrective action for all patients, irrespective of their background. This real-time monitoring can help to close the outcome gap of chronic disease (such as hypertension, diabetes), as especially vulnerable patients can be directed to receive the same proactive care as more digitally equipped patients.
Being able to post data asynchronously, the app can also help extend Emory’s reach beyond the four walls of the classroom and geographical constraints to ensure patients can access certain remote monitoring features or provider feedback in a timely manner. The app’s low data usage and optional SMS notifications also provide an opportunity for resource-limited patients to interact without the need for high-speed, live video; doing so helps to ensure they can access the benefits of Emory’s clinical resources, such as follow-up care, patient education modules, and care-coordinator outreach.
Assumptions
There are a number of assumptions that underlie this explanation. Nearly all patients, regardless of their age or literacy, have smartphones and understand how to use them; a multilingual display will help bridge language divides, and short-term connectivity will be adequate in low data/bandwidth applications. It also assumes that there will be consistent clinical data inputs that will be observed and acted upon by clinicians. It assumes that trust of the patients increases when there is a protection of data privacy. Last but not least, it requires organisational support for the needed training and infrastructure.
Conclusion
Needs assessments can empower Emory nurse leaders to recognize the technology gaps, inform evidence-based interventions, and resource allocations to meet strategic goals. It improves patient outcomes, experience, safety, efficiency, and access to healthcare, increasing the quality of care provided, decreasing readmission rates, and increasing satisfaction of the nursing workforce. An informatics approach and the commitment to the inclusive design process allow Emory to deploy the system efficiently, measure its impact, and achieve a patient-focused care experience across variations in population.
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References for
NURS-FPX 6224 Assessment 2
Below are the references for NURS FPX 6224 Assessment 2: Technology Evaluation and Needs Assessment:
Baron, R., & Haick, H. (2024). Mobile diagnostic clinics. American Chemical Society Sensors, 9(6), 2777–2792. https://doi.org/10.1021/acssensors.4c00636
Briggs, J., Kostakis, I., Meredith, P., Dall’ora, C., Darbyshire, J., Gerry, S., Griffiths, P., Hope, J., Jones, J., Kovacs, C., Lawrence, R., Prytherch, D., Watkinson, P., & Redfern, O. (2024). Health and Social Care Delivery Research, 12(6), 1–143. https://doi.org/10.3310/HYTR4612
Emory Healthcare. (2020). Telehealth, telemedicine and online doctor visits at Emory Connected Care. https://www.emoryhealthcare.org/patients-visitors/patient-resources/emory-connected-care
Emory Healthcare. (2023). MyChart frequently asked questions FAQs and answers—Emory Healthcare. Emoryhealthcare.org. https://www.emoryhealthcare.org/patients-visitors/patient-resources/mychart-faq
Giebel, G. D., Speckemeier, C., Abels, C., Plescher, F., Börchers, K., Wasem, J., Blase, N., & Neusser, S. (2023). Journal of Medical Internet Research, 25, e43808. https://doi.org/10.2196/43808
Giordan, L. B., Ronto, R., Chau, J., Chow, C., & Laranjo, L. (2022). Use of mobile apps in heart failure self-management: Qualitative study exploring the patient and primary care clinician perspective. Journal of Medical Internet Research Cardio, 6(1), e33992. https://doi.org/10.2196/33992
Kreuter, M. W., Thompson, T., McQueen, A., & Garg, R. (2021). Annual Review of Public Health, 42, 329–344. https://doi.org/10.1146/annurev-publhealth-090419-102204
Murabito, J. M., Faro, J. M., Zhang, Y., DeMalia, A., Hamel, A., Agyapong, N., Liu, H., Schramm, E., McManus, D. D., & Borrelli, B. (2024). Journal of Medical Internet Research Human Factors, 11, e56653. https://doi.org/10.2196/56653
Saeed, S. A., & Masters, R. M. (2021). Disparities in health care and the digital divide. Current Psychiatry Reports, 23(9), 61. https://doi.org/10.1007/s11920-021-01274-4
A fuzzy logic-based ehealth mobile app for activity detection and behavioral analysis in remote monitoring of elderly people: A pilot study. Symmetry, 17(7), 7. https://doi.org/10.3390/sym17070988
Samal, L., Fu, H. N., Camara, D. S., Wang, J., Bierman, A. S., & Dorr, D. A. (2021). Health information technology to improve care for people with multiple chronic conditions. Health Services Research, 56(1), 1006–1036. https://doi.org/10.1111/1475-6773.13860
Capella Best Professor to Choose for Class:
Nurs FPX6224
Robert Atchley (DNP, MSN)
Shanea Byers (DNP, MBA, MSN)
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