Abstract
Background and Significance
Ambient listening tools powered by generative artificial intelligence (GenAI) offer real-time, scribe-like support that reduce documentation burden and may help alleviate burnout. This study assesses physician-perceived benefits and challenges of ambient AI implementation through surveys and evaluates its effectiveness in clinical workflows using automatically recorded electronic health record (EHR) time-efficiency metrics.
Method and Materials
A quality improvement pilot has been underway at UCI Health since December 2023. Epic EHR Signal metrics were analyzed to assess changes in note length, documentation time, and same-day encounter closure rates. Matched pre- and post-implementation surveys evaluated physician-perceived changes in documentation burden, clinical efficiency, and care quality. We also examined open-ended survey responses using thematic analysis to supplement quantitative findings.
Results
Analysis on EHR usage data from 167 physicians showed significant reductions in note-writing time, despite an increase in note length. Survey responses (n = 65) also indicated statistically significant improvements across multiple domains. Physicians reported reduced cognitive demand (P = .031) and documentation effort (P = .014), alongside perceptions of enhanced clinical efficiency, patient-centered care, and EHR system usability. Thematic analysis confirmed these quantitative findings and identified opportunities for improvement, including specialty-specific customization and expanded AI functionality.
Discussion
Ambient AI tools demonstrated improved documentation efficiency, perceived care quality, and reduced cognitive workload. These benefits suggest potential to alleviate key burdens in clinical documentation.
Conclusion
Future development should prioritize customization for specialty-specific and individual physician needs, ensure the reliability and accuracy of AI-generated content, and integrate ethical and legal considerations to facilitate safe and scalable implementation in patient-centered care contexts.
Keywords: ambient listening, artificial intelligence, documentation, electronic health records [E05.318.308.940.968.625.500], efficiency, survey
Background and significance
The Health Information Technology for Economic and Clinical Health (HITECH) Act accelerated the widespread adoption of electronic health records (EHRs) and emphasized their meaningful use.1,2 Although EHRs have benefited many aspects of clinical workflow, their rapid implementation has also significantly increased physicians’ documentation burden.3–5 This added workload is closely associated with clinician dissatisfaction and has emerged as a major contributor to burnout, which affects not only clinician well-being but also the quality and safety of patient care.6,7
To reduce this burden, early solutions included digital scribes and voice dictation tools designed to automate routine notetaking.8 These systems predominantly relied on natural language processing (NLP) techniques for tasks such as clinical entity extraction, text classification, and summarization.9 While promising, these approaches often required manual correction and lacked the capacity to fully capture clinical nuance and context. More recently, ambient listening technologies have marked a significant advancement over traditional tools.10,11 By integrating large language models (LLMs) and generative artificial intelligence (GenAI), these systems can passively capture patient-clinician conversations and generate tailored, context-aware clinical notes.
Many large health systems in the United States have begun piloting ambient listening tools, prompting a growing body of research evaluating their impact on documentation efficiency, clinician burnout, patient experience, and adoption factors. Studies such as simulated outpatient consultations, the STREAMLINE pilot, and implementations in dermatology clinics have reported reduced documentation time and EHR interaction, along with improvements in note quality and clinician satisfaction.12–15 Paired surveys further demonstrated reductions in task load and burnout, as well as improvements in usability, work-life integration, and patient engagement among physicians.16–19 Additionally, qualitative interviews revealed clinician enthusiasm for ambient AI’s potential to enhance workflow and care delivery, while identifying key areas for refinement and better integration into clinical practice.20 Observational studies incorporating patient feedback have also shown general agreement with the use of ambient AI tools in the clinical setting.21
Building on this evidence base, our study contributes to the ongoing evaluation of ambient AI as part of a quality improvement pilot project at the University of California, Irvine (UCI) Health system in ambulatory settings. Ambient AI remains at an early stage of adoption in US healthcare, and few evaluations have combined early implementation across multiple specialties, a relatively large sample, extended duration of use, and mixed-method analysis within a single quality improvement framework. Using matched pre- and post-implementation surveys alongside Epic EHR time data, which automatically capture system usage logs, we assess changes in documentation time and length, as well as physician perceptions of ambient AI scribes’ impact on documentation burden, clinical efficiency, and care quality. We hypothesize that integrating ambient AI tools will improve work efficiency, reduce physician workload, and help mitigate burnout, offering critical insights into the scalability and sustainability of these technologies in routine clinical practice.
Materials and methods
Study setting and pilot recruitment
A pilot study was launched in December 2023 at the University of California, Irvine’s healthcare system (UCI Health), a major academic health system with broad regional coverage across Southern California, including locations in Irvine, Newport Beach, Orange, Fountain Valley. In partnership with Epic Systems Corporation, UCI Health recruited physicians from both primary care and specialty care clinics to implement 2 commercially available ambient listening tools; no advanced practice providers (APPs) participated in this pilot: DAX Copilot (Nuance Communications, Inc., Burlington, MA, USA) and Abridge (Abridge AI, Inc., Pittsburgh, PA, USA).22,23 The tools were offered to all eligible clinicians in specialties selected for initial rollout, and those willing to adopt the tool were enrolled. Clinicians accessed these ambient listening tools primarily via the Epic Haiku mobile application or an integrated web browser-based approach, and all participants used the tools in connection with the EHR, with generated documentation finalized within the EHR environment. The tools automatically generated draft clinical notes parsed into note sections such as physical exam, assessment, and follow-up plan. Physicians then review, edit, and finalize the notes before submitting them to the EHR system. For this pilot, clinicians obtained verbal consent at the point of care in accordance with institutional procedures, informing patients that their conversations might be transcribed to assist note generation, that all generated documentation would be reviewed and edited by the clinician, and that no identifiable audio would be stored. Clinicians accessed these ambient tools primarily through Epic Haiku (mobile app integration) or via a web browser-based approach, which required additional manual steps, such as switching between browser windows and Epic interfaces. Liability and regulatory considerations were addressed in collaboration with institutional compliance and IT. Physicians retained full responsibility for reviewing and signing all AI-generated notes, with the audit trail retaining the first draft and final submitted version.
The pilot remains ongoing at the time of this analysis. The data analyzed in this study were collected between December 2023 through April 2025. The project met institutional criteria for quality improvement and was exempt from IRB-mandated informed consent. All reporting followed the Standards for Quality Improvement Reporting Excellence (SQUIRE) guidelines. Results from both vendors were pooled to increase statistical power, recognizing that vendor-specific differences could not be assessed within the scope of this QI analysis.
EHR metrics analysis
Epic Signal metrics were analyzed for physicians who generated at least 10 clinical notes and who used ambient listening tools for a minimum of 4 weeks during the pilot period, defined as at least 4 consecutive weeks of tool activity, using Epic-defined measures of documentation time and length. Paired 2-sample t-tests were conducted to compare pre- and post-intervention means and medians across 5 Epic metrics: same-day encounter closure rate, average number of characters per note, average time spent per note, total daily documentation time, and time spent documenting per appointment. Time in Notes per Note represents the average time spent writing an individual note, whereas Time in Notes per Appointment captures total documentation time for an encounter, which may include multiple notes. Metrics were extracted across all types of notes generated within each appointment. Epic Signal metrics estimate active documentation time by recording user interactions in the Notes section and pausing measurement after brief inactivity (approximately 5 seconds). These measures may slightly undercount time spent reading or thinking without interacting and may still overcount shorter pauses due to system delays or multitasking, though extended idle periods are excluded from Signal. As such, recorded time may modestly exceed the actual time spent composing documentation.
Baseline values, representing pre-implementation usage, were calculated as the average of each metric during the 3 months preceding the introduction of ambient listening tools. These were compared with cumulative post-implementation averages at 1, 2, and 3 months following the pilot’s start. Normality of metric distributions was assessed using the Shapiro-Wilk test.24 Outliers were excluded using the Interquartile Range Method. When normality assumptions were met (P > .05), paired t-tests were applied; otherwise, the non-parametric Wilcoxon signed-rank test was used.
Pre- and post-implementation survey analysis
Physicians who participated in the ambient listening pilot received pre-implementation and post-implementation surveys approximately 4 months apart. The timing reflects the survey administration schedule and does not necessarily correspond to the exact duration of tool usage. The surveys were adapted from the KLAS Arch Collaborative’s standardized instrument, included a combination of 5-point Likert-scale items (ranging from strongly disagree to strongly agree), 1-10 scale ratings, and open-ended questions.25 Survey items assessed perceived changes across domains such as patient safety and care experience, clinical efficiency, EHR training and implementation support, system usability and reliability, and documentation burden. As part of the standardized KLAS Arch Collaborative survey instruments, these domains were retained to benchmark results against institutional and national data, providing context for potential broader shifts in EHR perceptions following ambient AI implementation. Items regarding EHR training and implementation support referred to perceptions of overall EHR support; no additional general EHR training occurred during the pilot beyond brief ambient AI onboarding (email instructions, short video, and optional voiceover guidance).
Only participants who completed both the pre- and post-surveys were included in the paired analysis to enable direct comparison. We analyzed survey responses across 3 groups: all participants, primary care physicians, and specialty care physicians. Wilcoxon signed-rank tests were used to assess changes in Likert-scale responses and 1-10 scale items.26 We also used difference-in-differences (DiD) tests to compare whether the magnitude of change differed between primary care and specialty care providers.27
To supplement the quantitative results, an exploratory qualitative analysis was conducted on open-ended responses collected at the end of each survey, where respondents could voluntarily provide additional comments. Due to the limited volume of open-ended question responses, thematic coding was performed by a single reviewer.28 These qualitative findings were intended to provide additional context and insights rather than serve as a matched pre-post comparison.
Results
A total of 319 physicians participated in the ambient listening tool pilot. Participants included those in primary care, various specialty care disciplines, and medical trainees. For the EHR metrics analysis, only participants who met the inclusion criteria, including a minimum duration of ambient tool usage and sufficient note volume, were included. A subset of enrolled physicians completed both the pre- and post-implementation surveys and were included in the corresponding survey analysis.
EHR metrics analysis results
A total of 167 participants met the inclusion criteria for EHR metrics analysis, defined as using the ambient listening tool for more than 4 weeks and generating at least 10 clinical notes. After removing outliers and missing data to ensure completeness across all 5 Epic metrics, final sample sizes varied by metric (Table 1).
Table 1.
Changes in epic documentation metrics averaged over a 3-month baseline and cumulative 1-3 month post-pilot periods.b
| Epic signal metrics | Avg. chars/note | Avg. time/note | Avg. time/day | Avg. time/appointment | Same-day note closure ratesa |
|---|---|---|---|---|---|
| N = 110 | N = 107 | N = 112 | N = 99 | N = 26 | |
|
7522.29 (3069.95) | a l6.37 (3.30) | 55.97 (29.20) | 9.91 (5.95) | 0.77 (0.30) |
|
7828.45 (3236.92)** | 5.60 (2.94)*** | 50.00 (26.86)*** | 8.90 (5.49)*** | 0.79 (0.32) |
|
7863.74 (3182.98)*** | 5.57 (2.89)*** | 49.73 (26.16)*** | 8.84 (5.45)*** | 0.79 (0.32) |
|
7862.85 (3154.88)*** | 5.58 (2.90)*** | 49.13 (26.19)*** | 8.82 (5.41)*** | 0.78 (0.32) |
Statistical significance:*P < .05,**P < .01,***P < .001.
Analysis includes only providers with an average of ≥40 notes per week during the study period.
Demographics unavailable due to de-identified signal data.
Statistically significant reductions in documentation time were observed following implementation, representing an approximate 14% relative decrease (about 7 minutes per day) from baseline, a magnitude that is meaningful for improving daily workflow efficiency for physicians using Epic. The average time spent writing a note decreased from 6.37 minutes at baseline to 5.58 minutes over the 3-month post-pilot period (P < .001). Similarly, total daily documentation time per provider declined from 55.97 minutes to 49.13 minutes (P < .001), and documentation time per appointment dropped from 9.91 to 8.82 minutes (P < .001). In contrast, note length slightly increased post-implementation. The average number of characters per note rose from 7522 to 7862, representing a statistically significant but modest increase (P < .001). For same-day encounter closure data, we had access to a limited 12-month dataset. To ensure meaningful analysis, we included only physicians who averaged more than 40 encounters per week during the study period. No statistically significant change was observed in same-day encounter closure rates across the baseline and post-implementation periods. The 4 Epic metrics that demonstrated statistically significant changes are visualized in Figure 1. These results show immediate reductions in documentation burden following pilot implementation, followed by relative stabilization over the subsequent months.
Figure 1.
Changes in epic signal metrics: 3-month baseline vs 3-month cumulative post-pilot period. (A) Progress note length—average characters in a progress note. (B) Time in notes per appointment—average cumulative minutes in notes during an encounter, which may include multiple notes and different note types. (C) Time in notes per note—average minutes spent writing a single note. (D) Time in notes per day—average total minutes in notes per provider per day.
Pre- and post-implementation survey analysis results
A total of 127 physicians completed the pre-implementation survey and 133 completed the post-implementation survey. Surveys were anonymous but included a unique identifier that allowed for matching pre- and post-responses. Among the respondents, 65 physicians completed both surveys and were included in the paired analysis. Table 2 summarizes the clinical characteristics of these 65 participants. Most were attending physicians (n = 44, 68%), followed by physician residents or fellows (n = 16, 25%) and advanced practice providers (n = 5, 8%). Clinical specialties included both primary care (n = 34, 52%) and a range of specialty care fields (n = 31, 48%). Participants reported varied experience with EHRs, with the largest group using EHRs for 6-9 years (n = 24, 37%). Use of ambient listening tools was evenly distributed between Abridge (n = 41, 63%) and Nuance DAX Copilot (n = 24, 37%).
Table 2.
Descriptive characteristics of physician survey participants.
| Clinicians, no. (%) |
||
|---|---|---|
| Count | Percentage | |
| Characteristic grouping | N = 65 | % |
| Ambient listening technology | ||
| Abridge | 41 | 63 |
| Nuance: DAX Copilot | 24 | 37 |
| Care type | ||
| Primary Carea | 34 | 52 |
| Specialty Careb | 31 | 48 |
| Clinical background | ||
| Advanced practice provider (PA or NP) | 5 | 8 |
| Physician | 44 | 68 |
| Physician resident or fellow | 16 | 25 |
| Years practicing medicine | ||
| 0-4 years | 9 | 14 |
| 15-24 years | 14 | 22 |
| 25+ years | 8 | 12 |
| 5-14 years | 32 | 49 |
| Years using EMR | ||
| Less than 1 year | 12 | 18 |
| 1-2 years | 8 | 12 |
| 3-5 years | 20 | 31 |
| 6-9 years | 24 | 37 |
| Average hours of clinical practice | ||
| 20-39 hours per week | 23 | 35 |
| 40-60 hours per week | 29 | 45 |
| 60+ hours per week | 7 | 11 |
Family Medicine, Geriatrics, Internal Medicine.
Allergy and Immunology, Dermatology, Emergency Medicine, Endocrinology, Gastroenterology, Obstetrics and Gynecology, Hematology/Oncology, Hospice/Palliative Medicine, Infectious Disease, Neurology, Neurosurgery, Orthopedics, Otolaryngology, Physical Medicine & Rehabilitation, Psychiatry, Rheumatology.
Below we present paired statistical analyses of pre- and post-implementation surveys assessing the impact of ambient listening tools on physicians’ experiences with EHRs. Survey questions included 5-point Likert-scale items, 0-10 numeric rating scales, and percentage-based estimates (Table 3). The results are organized by question domains, emphasizing significant pre- and post-implementation changes and highlighting differences between primary and specialty care providers as identified through DiD analysis.
Table 3.
Pre- and post-perceived impact survey ratings by care group.
| Perceived impact questions a | Care group b | N | Pre, Mean (SD) | Post, Mean (SD) | P | DiD P c |
|---|---|---|---|---|---|---|
| Patient safety and care experience | ||||||
| 1. Does this EHR include alerts that prevent care-delivery mistakes? | All providers | 59 | 3.66 (0.84) | 3.44 (1.09) | .157 | |
| Primary | 30 | 3.83 (0.59) | 3.27 (1.05) | .012* | .040* | |
| Specialty | 29 | 3.48 (1.02) | 3.62 (1.12) | .593 | ||
| 2. Are you able to give patients your undivided attention during the encounter? | All providers | 56 | 2.70 (1.06) | 3.45 (1.14) | .000*** | |
| Primary | 27 | 2.74 (1.16) | 3.52 (1.09) | .007** | .87 | |
| Specialty | 29 | 2.66 (0.97) | 3.38 (1.21) | .002** | ||
| 3. Does this EHR help keep your patients safe? | All providers | 64 | 3.72 (0.79) | 4.03 (0.76) | .027* | |
| Primary | 34 | 3.79 (0.59) | 4.00 (0.74) | .22 | .399 | |
| Specialty | 30 | 3.63 (0.96) | 4.07 (0.78) | .057 | ||
| 4. Does this EHR allow you to deliver patient-centered care? | All providers | 62 | 3.68 (1.00) | 4.40 (0.73) | .000*** | |
| Primary | 33 | 3.64 (1.03) | 4.52 (0.71) | .001** | .325 | |
| Specialty | 29 | 3.72 (1.00) | 4.28 (0.75) | .033* | ||
| 5. Does this EHR enable you to deliver high-quality care? | All providers | 65 | 3.98 (0.94) | 4.54 (0.61) | .000*** | |
| Primary | 34 | 4.18 (0.80) | 4.74 (0.45) | .001** | .969 | |
| Specialty | 31 | 3.77 (1.06) | 4.32 (0.70) | .025* | ||
| Clinical efficiency and workflow | ||||||
| 6. Is your clinical practice enhanced through the use of this EHR? | All providers | 65 | 3.66 (0.97) | 4.28 (0.67) | .000*** | |
| Primary | 34 | 3.82 (0.72) | 4.44 (0.56) | .000*** | .986 | |
| Specialty | 31 | 3.48 (1.18) | 4.10 (0.75) | .021* | ||
| 7. Does this EHR make you as efficient as possible? | All providers | 65 | 3.42 (1.14) | 4.31 (0.86) | .000*** | |
| Primary | 34 | 3.50 (1.02) | 4.41 (0.66) | .000*** | .892 | |
| Specialty | 31 | 3.32 (1.28) | 4.19 (1.05) | .003** | ||
| 8. Does this EHR support your specialty-specific workflows? | All providers | 65 | 3.75 (0.97) | 4.23 (0.86) | .003** | |
| Primary | 34 | 4.03 (0.76) | 4.50 (0.51) | .003** | .965 | |
| Specialty | 31 | 3.45 (1.09) | 3.94 (1.06) | .107 | ||
| 9. Does this EHR have a fast system response time? | All providers | 65 | 3.82 (1.09) | 4.22 (0.84) | .021* | |
| Primary | 34 | 3.97 (0.97) | 4.29 (0.72) | .081 | .632 | |
| Specialty | 31 | 3.65 (1.20) | 4.13 (0.96) | .113 | ||
| EHR training and support | ||||||
| 10. Did your initial training prepare you well to use this EHR? | All providers | 62 | 3.52 (1.07) | 3.89 (1.04) | .016* | |
| Primary | 32 | 3.59 (0.98) | 4.06 (1.01) | .007** | .488 | |
| Specialty | 30 | 3.43 (1.17) | 3.70 (1.06) | .312 | ||
| 11. Is ongoing EHR training/education helpful and effective? | All Providers | 57 | 3.54 (1.13) | 3.88 (0.91) | .046* | |
| Primary | 28 | 3.75 (1.11) | 3.79 (1.03) | .837 | .069 | |
| Specialty | 29 | 3.34 (1.14) | 3.97 (0.78) | .016* | ||
| 12. Is this EHR easy to learn? | All providers | 65 | 3.62 (1.06) | 4.23 (0.70) | .000*** | |
| Primary | 34 | 3.85 (0.93) | 4.32 (0.64) | .007** | .276 | |
| Specialty | 31 | 3.35 (1.14) | 4.13 (0.76) | .002** | ||
| 13. Has your organization done a good job implementing, training, and supporting the EHR? | All providers | 64 | 3.58 (0.87) | 3.94 (0.77) | .004** | |
| Primary | 34 | 3.56 (0.96) | 4.15 (0.78) | .001** | .035* | |
| Specialty | 30 | 3.60 (0.77) | 3.70 (0.70) | .591 | ||
| 14. Have you personally learned the EHR well enough to be successful? | All providers | 65 | 3.78 (0.78) | 4.05 (0.72) | .005** | |
| Primary | 34 | 3.91 (0.67) | 4.24 (0.55) | .005** | .467 | |
| Specialty | 31 | 3.65 (0.88) | 3.84 (0.82) | .225 | ||
| 15. Were you trained on EHR workflows specific to your specialty area? | All providers | 60 | 3.32 (1.10) | 3.72 (1.04) | .019* | |
| Primary | 30 | 3.73 (0.91) | 3.97 (0.93) | .168 | .322 | |
| Specialty | 30 | 2.90 (1.12) | 3.47 (1.11) | .06 | ||
| System usability and reliability | ||||||
| 16. Does this EHR provide expected integration with outside organizations? | All providers | 49 | 3.18 (1.07) | 3.73 (0.93) | .010* | |
| Primary | 23 | 3.22 (0.90) | 3.61 (0.78) | .147 | .459 | |
| Specialty | 26 | 3.15 (1.22) | 3.85 (1.05) | .029* | ||
| 17. Does this EHR provide expected integration within your organization? | All providers | 65 | 3.98 (0.89) | 4.43 (0.73) | .002* | |
| Primary | 34 | 4.21 (0.64) | 4.47 (0.71) | .093 | .183 | |
| Specialty | 31 | 3.74 (1.06) | 4.39 (0.76) | .010* | ||
| 18. Is this EHR available when you need it (minimal downtime)? | All providers | 65 | 4.09 (0.98) | 4.52 (0.66) | .005** | |
| Primary | 34 | 4.32 (0.77) | 4.47 (0.75) | .356 | .047* | |
| Specialty | 31 | 3.84 (1.13) | 4.58 (0.56) | .004* | ||
| 19. Has the EHR vendor designed a high-quality system? | All providers | 65 | 3.85 (0.78) | 4.02 (0.54) | .134 | |
| Primary | 34 | 3.97 (0.46) | 4.09 (0.51) | .285 | .608 | |
| Specialty | 31 | 3.71 (1.01) | 3.94 (0.57) | .291 | ||
| Perceived documentation burden | ||||||
| 20. Mental demand (0-10): How demanding is it to write your notes? | All providers | 56 | 6.71 (1.86) | 6.11 (2.20) | .031* | |
| Primary | 27 | 6.81 (1.75) | 6.30 (2.00) | .203 | .740 | |
| Specialty | 29 | 6.62 (1.97) | 5.93 (2.40) | .066 | ||
| 21. Temporal demand (0-10): How rushed is the pace of your note writing? | All providers | 55 | 7.07 (1.59) | 6.58 (1.90) | .055 | |
| Primary | 26 | 6.92 (1.55) | 6.35 (1.85) | .082 | .767 | |
| Specialty | 29 | 7.21 (1.63) | 6.79 (1.95) | .311 | ||
| 22. Effort (0-10): How much effort is required to write your notes? | All providers | 56 | 6.75 (1.97) | 6.02 (1.91) | .014* | |
| Primary | 27 | 7.07 (2.18) | 5.93 (1.90) | .016* | .165 | |
| Specialty | 29 | 6.45 (1.72) | 6.10 (1.95) | .413 | ||
| 23. Ambulatory encounters (%): What percentage of charts do you complete during or right after patient visits? | All providers | 59 | 53.64 (24.36) | 55.75 (28.70) | .429 | |
| Primary | 33 | 53.67 (25.64) | 55.94 (29.74) | .652 | .954 | |
| Specialty | 26 | 53.62 (23.14) | 55.50 (27.91) | .628 |
Abbreviation: EHR, electronic health record.
Statistical significance: *P < .05, **P < .01, ***P < .001. Responses to survey questions 1-19 were recorded on a 5-point Likert scale (1 = Strongly Disagree, 5 = Strongly Agree). Questions 20-22 used a 0-10 numerical rating scale, and question 23 captured responses as percentages.
Care group: “Primary” = Primary care providers; “Specialty” = Specialty care providers; “Total” = All providers combined.
DID, difference-in-differences between Primary and Specialty change scores.
Patient safety and care experience
Survey results indicated significant improvements post-implementation across multiple aspects of patient safety and care experience (Table 3). Physicians reported an improved ability to give patients their undivided attention during encounters (Pre: 2.70 vs Post: 3.45; P < .001), enhanced delivery of patient-centered care (Pre: 3.68 vs Post: 4.40; P < .001), and improved perceptions of delivering high-quality care (Pre: 3.98 vs Post: 4.54; P < .001). Perceived patient safety also increased significantly (Pre: 3.72 vs Post: 4.03; P = .027). Notably, these improvements were consistent across both primary and specialty care providers, with no statistically significant differences in change scores between groups for most items. The only exception was related to alerts that prevent care-delivery mistakes, where a significant difference in change was observed between primary and specialty providers (DiD =−0.70, P = .040).
Clinical efficiency and workflow
Respondents reported statistically significant improvements in perceived clinical efficiency and workflow following implementation (Table 3). Clinical practice effectiveness was rated higher post-implementation (Pre: 3.66 vs Post: 4.28; P < .001), as was overall efficiency (Pre: 3.42 vs Post: 4.31; P < .001). Perceptions of specialty-specific workflow support also improved significantly (Pre: 3.75 vs Post: 4.23; P = .003), along with perceptions of system response time (Pre: 3.82 vs Post: 4.22; P = .021). No statistically significant differences in change scores were observed between primary and specialty care providers for any of the items.
EHR training and implementation support
Participants reported statistically significant improvements in several areas related to EHR training and support (Table 3). Initial training preparedness improved (Pre: 3.52 vs Post: 3.89; P = .016), as did the ease of learning the EHR system (Pre: 3.62 vs Post: 4.23; P < .001). Participants also reported increased satisfaction with ongoing training and education (Pre: 3.54 vs Post: 3.88; P = .046). Perceptions of how well organizations supported EHR implementation improved (Pre: 3.58 vs Post: 3.94; P = .004), with a statistically significant difference between primary and specialty care providers in change scores (DiD =0.49, P = .035). Additionally, participants felt more confident in their personal mastery of the EHR (Pre: 3.78 vs Post: 4.05; P = .005) and perceived improvement in receiving training tailored to their specialty (Pre: 3.32 vs Post: 3.72; P = .019).
System usability and reliability
Significant improvements were noted in system integration, both within organizations (Pre: 3.98 vs Post: 4.43; P = .002) and with external organizations (Pre: 3.18 vs Post: 3.73; P = .010), the latter being particularly driven by improvements among specialty care providers (P = .029). System availability also improved significantly (Pre: 4.09 vs Post: 4.52; P = .005), with a significant difference in change scores between primary and specialty care providers (DiD =−0.59, P = .047). No statistically significant change was observed in perceptions of the EHR vendor’s overall system quality.
Perceived documentation burden
Responses to documentation burden questions demonstrated statistically significant improvements following implementation of the ambient listening tool (Table 3). Among all providers, mental demand decreased (Pre: 6.71 vs Post: 6.11; P = .031), and perceived effort required to write notes declined (Pre: 6.75 vs Post: 6.02; P = .014). Within the primary care group, effort scores also showed a significant reduction (Pre: 7.07 vs Post: 5.93; P = .016), although no statistically significant differences in change scores were observed between primary and specialty care providers (all DiD P-values > .1). Temporal demand and charting behavior (ie, the percentage of notes completed during or immediately after visits) did not show significant changes across any group.
Qualitative analysis of Open-Ended responses
We included an open-ended question—“Do you have any other related comments or concerns?”—to invite participants to share additional thoughts. As responses were optional and the number of comments was limited, an exploratory thematic analysis was conducted by one author (Y.G.) to supplement the quantitative findings. As shown in Table 4, 3 overarching themes emerged from the qualitative comments: (1) Positive perceptions of ambient AI, including reduced documentation burden, improved efficiency, and enhanced focus on patient interaction; (2) Identified limitations and areas for improvement, such as insufficient customization for individual and specialty-specific needs, workflow disruptions, and content accuracy concerns; and (3) Expectations for future AI integration, highlighting clinicians’ interest in expanding AI functionalities beyond documentation to areas such as inbox management, clinical summarization, and billing support.
Table 4.
Themes of identified benefits, limitations, and future expectations for ambient AI in clinical practice.
| Themes | Example quotationa |
|---|---|
| Positive Perceptions of Ambient AI | |
| Streamlined workflow and documentation efficiency | “I complete 90% of each note during or immediately after the visit, and it only takes 30 minutes to an hour after clinic to finish all documentation.” |
| “Ambient AI charts the visit and brings forward my last note, updates interval history, exam, and plan, which allows me to quickly review and sign off.” | |
| “Since using ambient AI, I’ve been able to complete charts more efficiently.” | |
| “I use as many personalized templates and speed buttons as possible. This tool has completely changed my ability to document in an efficient manner.” | |
| “Ambient AI has completely changed the way I do notes. Much more efficient.” | |
| Reduced mental fatigue and cognitive load | “Using ambient AI has lifted a huge mental load. I try to get my notes done quickly and close my encounters the same day.” |
| “Love the tool. It’s improved note-writing fatigue and burnout.” | |
| Enhanced focus on patient interaction | “This is the right step forward—letting the machine do the work, and the human do the thinking and analyzing.” |
| “Using ambient AI for dictation helps me pay more attention to the patients during the visit and write notes more efficiently.” | |
| I feel it does give me higher satisfaction with my ability to listen and interact with my patients. | |
| Identified Limitations and Desired Improvements for Ambient AI | |
| Need for specialty-specific customization | “There is a growing need for AI scribes to be tailored to each medical specialty. In my field, the neurologic exam is critical, but current outputs often fail to capture its complexity.” |
| “Ambient AI should support surgical workflows. It currently feels geared toward primary care or emergency visits.” | |
| “We need orthopedic-specific features. The ideal platform should evolve with departments and adapt to diverse types of encounters and documentation styles.” | |
| “In psychiatry, the tool often applies overly medicalized language and misses the nuance of patient interactions. A specialty-specific mode is needed.” | |
| Need for personalization to individual styles | “If we could train the tool to write notes a certain way, it would be much more useful. Right now, editing takes more time than typing from scratch.” |
| “It should learn from my preferences and evolve over time. More intelligent customization would reduce editing workload.” | |
| “The system should be ‘living software’—something users can refine and adapt to their individual style and needs.” | |
| Workflow disruptions | “Switching between app, browser, and room computer is inefficient. Seamless EHR integration is essential.” |
| “Even minor technical failures are disruptive. We rely on it heavily now, so stability is critical.” | |
| |
| Issues with note coherence, accuracy, and edit burden |
|
| “The transcription isn’t reliable enough for certain sections, so I’ve stopped using those features.” | |
| Need for expanded functional capabilities | “There should be support for multiple languages—especially in diverse clinical populations.” |
| “The tool is more helpful for new visits than follow-ups. It struggles to build on prior notes.” | |
| “Ambient AI doesn’t pull relevant chart data, like labs, demographics, or medical history, which limits its usefulness.” | |
| “It would help if it could generate documentation for things like medical necessity or align with problem-based note structures.” | |
| “Why doesn’t the tool recognize basic EHR info like patient age or sex?” | |
| Expectation of AI future Implementation into EHR beyond assisting documentation | |
| AI for EHR inbox management | “AI should assist with inbox management—triaging messages, handling refills, and reducing human error.” |
| “Assign AI to handle in-basket tasks and patient messages more effectively.” | |
| “AI inbox support exists but remains limited; I rarely use the suggested responses.” | |
| “More customizable AI tools are needed for in-basket workflows.” | |
| AI summarization of patient medical history and literature | “AI should help summarize notes from other providers or highlight key findings in the chart.” |
| “Integrate AI to summarize labs and imaging findings in the assessment section—flagging important positives and negatives.” | |
| “It would be useful to have AI support in constructing differential diagnoses or treatment plans through literature review.” | |
| “Use AI to generate succinct handoff or discharge summaries.” | |
| AI automation for administrative and workflow tasks | “AI could assist with billing, medication review, charge entry, and visit timing for time-based billing.” |
| “We are overburdened by non-clinical tasks like button-clicking and documentation for charges—AI should help streamline this.” | |
| “Would love to have AI-driven orders and billing assistance.” | |
| “Use AI to draft appeal letters and manage correspondence through the portal.” | |
| AI for chart structuring and problem list optimization | “AI-driven chart review would be beneficial—particularly to extract clinical relevance from lengthy records.” |
| “It would be helpful if the tool could push relevant findings directly into the problem list.” | |
| “Allow AI to mine notes or scan for HCC codes.” | |
Abbreviation: AI, artificial intelligence.
All quotes have been paraphrased or minimally modified to deidentify respondents and maintain confidentiality.
Discussion
This study presents a mixed-method evaluation integrating Epic Signal metrics and survey data across multiple specialties in a real-world implementation setting. By analyzing automatically recorded EHR time-efficiency metrics, pre- and post-implementation survey data, and open-ended feedback, we found that ambient AI use was associated with reduced documentation burden, improved perceptions of clinical efficiency, and enhanced patient-centered care. Consistent findings across both self-reported experiences and system-generated metrics reinforce the potential of ambient AI to support clinician workflow and alleviate cognitive workload in everyday practice. While other recent studies have examined ambient AI tools in real-world settings, our evaluation is distinct in integrating multiple specialties, a larger and longer-duration cohort, and a mixed-method approach within a system-wide quality improvement initiative—providing a timely contribution to the emerging evidence base.
Survey results indicated meaningful decreases in mental and physical effort associated with note writing, alongside improved perceptions of system integration and training support. While overall improvements were consistent across provider types, only a few statistically significant differences emerged between primary and specialty care providers. One such difference was in perceptions of implementation and training support, with primary care providers reporting greater improvements. No other EHR system changes or general EHR training occurred during the pilot. Observed improvements in training effectiveness and system usability likely reflect broader shifts in user perception driven by satisfaction with documentation after ambient AI implementation. These changes suggest that clinicians perceived existing support structures more favorably in light of the new tool, rather than benefiting from new EHR training content or direct functional modifications to the EHR. This suggests that onboarding strategies and organizational support may have been better aligned with the workflows of primary care clinicians, highlighting the need for more tailored training approaches to maximize the impact of ambient AI tools across different specialties. Another notable difference was observed in perceptions of alerts that help prevent care-delivery mistakes. This aligns with qualitative feedback emphasizing the need for specialty-specific customization of ambient AI systems. For example, orthopedic surgeons noted differences in documentation needs between a shoulder evaluation and a spine evaluation, while psychiatry providers emphasized language that accurately reflects patient affect, thought process, and nuanced interpersonal observations. Providers in neurology, psychiatry, orthopedics, and surgery noted that current tools often fail to capture the complexity of their documentation, which remains closely tied to nuanced physical exams and specialty-specific narratives. These findings underscore the importance of developing adaptive, specialty-aware AI solutions that can flexibly accommodate diverse clinical workflows and accurately reflect domain-specific terminology and reasoning.29 However, this study was conducted within a single academic health system, which may limit generalizability to other care settings. While these accuracy limitations were qualitatively identified, we did not measure the time or cognitive burden associated with proofreading and editing AI-generated content. Quantifying this burden and its downstream effects on efficiency, documentation workload, and cognitive load represents an important direction for future research. Additionally, potential survey bias and the voluntary nature of participation may have influenced the representativeness of responses. Failure to address these limitations may result in unequal adoption and benefit across specialties, ultimately constraining the broader impact and scalability of ambient AI in clinical practice.
Epic usage data further demonstrated significant reductions in documentation time. These results are consistent with existing studies and further validate the effectiveness of ambient AI in a larger, multispecialty sample.13,14,30 Documentation length, which slightly increased post-implementation, is an important complement to time metrics. While this trend may reflect additional work or information captured, further research is needed to determine whether increased length contributes to note completeness and clinical clarity. Besides, several limitations warrant consideration. First, because participation was voluntary, our sample may reflect physicians more receptive to AI adoption, which could bias perceptions toward more favorable views of the tool. Second, time spent on notes may not accurately represent active documentation time, as delays related to system performance or clinicians leaving notes open while multitasking may inflate these metrics. Ambient AI use was not mandatory for all encounters; even among physicians with access, usage varied depending on personal preference and clinical context. Notably, post-implementation Epic data captured all encounters, regardless of whether the ambient tool was used, which may have diluted the observed effects. Third, no statistically significant change was detected in same-day encounter closure rates. This outcome may be attributed to the constrained analytic sample, limited to physicians with at least 40 weekly encounters within a single institution, and to the high baseline same-day closure rate of approximately 70%, which reduced the potential for improvement. It may also reflect that certain workflow indicators, such as encounter closure, are less sensitive to documentation tools like ambient AI and more dependent on external operational factors, including clinic schedules and staffing patterns.29 While Epic Signal metrics showed modest time reductions, the self-reported percentage of encounters documented during or immediately after visits did not change significantly, suggesting that efficiency gains may not have shifted the timing of documentation or may reflect limitations in self-reported recall. Additionally, some clinicians may not yet be fully familiar with or trained to leverage the full capabilities of the ambient scribe tool, instead using it in its default configuration without customization or optimization, which may have limited its observed impact.
The findings of this study highlight both the potential benefits and current limitations of ambient AI tools in clinical practice. Beyond improvements in documentation burden and efficiency, thematic analysis revealed strong interest in expanding the role of ambient AI to include tasks such as inbox management, billing, chart summarization, and clinical decision-making.31,32 Participants also emphasized the need for greater personalization, both at the individual clinician level and across specialties, to ensure the tool aligns with varying documentation styles and workflow demands.
These insights suggest that future research should focus on refining ambient AI systems to better support diverse clinical workflows, enable flexible customization, improve integration with historical medical records, and expand core functionalities to address broader administrative burdens. As ambient AI becomes more deeply integrated into clinical environments, developers must also account for ethical, legal, and regulatory considerations.33–37 While these safeguards mitigated immediate liability concerns during the pilot, uncertainty around responsibility for AI-generated inaccuracies and transparency of ongoing model updates remains relevant as the technology scales. Ensuring transparency, safeguarding patient privacy, and clarifying liability for AI-generated documentation will be essential to building clinician trust and enabling responsible adoption.38 In parallel, investigating patient perspectives through surveys or interviews will be important to assess perceived communication quality, trust, and acceptance of AI-assisted documentation. Long-term evaluations will be essential to determine whether the benefits of ambient AI, such as improved efficiency and reduced burden, are sustained over time and whether they lead to measurable improvements in clinical outcomes, provider satisfaction, and burnout.
Conclusion
This quality improvement study at UCI Health provides real-world evidence supporting the potential of ambient AI tools to reduce documentation burden, enhance workflow efficiency, and improve patient experiences. By analyzing pre- and post-implementation surveys and EHR usage metrics, our findings demonstrate that ambient AI effectively supports physician productivity and addresses key contributors to burnout. Nevertheless, several areas for further improvement were identified, including specialty-specific customization, integration with historical patient data, and enhanced accuracy of AI-generated content. Future implementation efforts should emphasize thoughtful scalability, adaptability to diverse clinician needs, and careful consideration of clinical, ethical, and legal requirements. Ongoing evaluation and iterative optimization will be crucial for building clinician trust, promoting equity in AI-supported care, and fully leveraging ambient technologies to facilitate patient-centered healthcare.
Acknowledgments
We would like to thank all participating physicians for their time and valuable insights. We also acknowledge the institutional support from UCI Health, which made this quality improvement project possible.
Contributor Information
Yawen Guo, Department of Informatics, University of California, Irvine, Irvine, CA 92617, United States.
Jiayuan Wang, Department of Informatics, University of California, Irvine, Irvine, CA 92617, United States.
Di Hu, Department of Informatics, University of California, Irvine, Irvine, CA 92617, United States.
Steven Tam, Department of Medicine, University of California, Irvine, Irvine, CA 92617, United States.
Charles Gilman, UCI Health, University of California, Irvine, Orange, CA 92868, United States.
Emilie Chow, Department of Medicine, University of California, Irvine, Irvine, CA 92617, United States.
Danielle Perret, Department of Physical Medicine & Rehabilitation, University of California, Irvine, Irvine, CA 92697, United States.
Deepti Pandita, Department of Medicine, University of California, Irvine, Irvine, CA 92617, United States.
Kai Zheng, Department of Informatics, University of California, Irvine, Irvine, CA 92617, United States.
Author contributions
Yawen Guo (Conceptualization, Data curation, Formal analysis, Investigation, Methodology, Project administration, Validation, Writing—original draft, Writing—review & editing), Jiayuan Wang (Data curation, Methodology, Writing—review & editing), Di Hu (Conceptualization, Methodology, Writing—review & editing), Steven Tam (Conceptualization, Project administration, Supervision, Writing—review & editing), Charles Gilman (Project administration, Resources, Writing—review & editing), Emilie Chow (Supervision, Writing—review & editing), Danielle Perret (Supervision, Writing—review & editing), and Deepti Pandita (Supervision, Writing—review & editing), and Kai Zheng(Conceptualization, Supervision, Writing—review & editing)
Funding
This research received no specific grant from any funding agency in the public, commercial or not-for-profit sectors.
Conflicts of interest
The authors have no competing interests to declare.
Data availability
De-identified survey data supporting the findings of this study are available from the corresponding author upon reasonable request.
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Associated Data
This section collects any data citations, data availability statements, or supplementary materials included in this article.
Data Availability Statement
De-identified survey data supporting the findings of this study are available from the corresponding author upon reasonable request.

