MEDICAL COMMAND CODER STUDY. Lee B Smith, MD, JD, Theodore Avtgis, PhD, David Kappel, MD, Alison Wilson, MD,

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MEDICAL COMMAND CODER STUDY Lee B Smith, MD, JD, Theodore Avtgis, PhD, David Kappel, MD, Alison Wilson, MD, Jennifer Knight, MD, E Phillips Polack, MD OBJECTIVE: This study sought to assess the communication exchange between field personnel and medical command personnel, assess the effectiveness of the MISER acronym, as the ability to determine Priority I or Priority II status of the patient based on the information given, and whether redundancy in the communication system would result in improved information exchange/coding. This study was an experimental design where coder and condition were randomized to control for any systematic error that could be present based on coder ability or interest. - Coders underwent two iterations of training in the MISER acronym and Priority classification of trauma patients. - Coders were then randomly assigned into one of three conditions; C1 = s of the communication, C2 = audio of the communication, and C3 = both and audio versions of the communication. Each coder was provided the white-washed cases in four different batches at four different times throughout a two month period. The coders used the coding sheet (see attached) designed to assess the degree to which the field personnel and medical command; a) addressed each of the MISER categories, b) were effective in the communication exchange, c) were appropriate in their communication exchange, and d) the overall quality or synchrony of the communication exchange. GENERAL FINDINGS The general findings indicate that overall, particular aspects of the MISER acronym are not being effectively relayed. In fact, this lack of information exchange was present throughout all

three experimental conditions. The tables that follow illustrate the data indicating such deficiencies. The Medical Command Coder study was a quasi-experimental design where coder and condition were - The Audio condition was by far the most effective format in terms of priority designation and overall information for each of the MISER categories. However, all conditions were relatively low in addressing all of the MISER categories. - Dividing of the data by correct priority designation appears to be most fruitful in determining effective from ineffective information exchange. As indicated by the data, when controlling for incorrect responses, all three conditions improved on their ability to identify MISER and rated the overall effectiveness, appropriateness and quality as significantly better than those who incorrectly identified the priority status of the patient. Recommendations based on this data set: 1. The audio only transmission of information between the field and medical command personnel is the most effective medium of those tested and technological improvement should be based on enhancing the existing audio technology as opposed to pursuing entirely new technology. As can be seen in the analyses, the lowest performing group was those in the and audio (i.e., both) condition. One can speculate that too much information may confound the effective identification of MISER criteria and further, given that the audio group far out performed the group, there are paralanguage indicators that are vital in the information exchange process and need to be included in the information exchange process. For

example, tentative inflection may trigger a follow-up question from the medical command operator. 2. There needs to be training in priority designation. As indicated by the data, there needs to be more/relevant information exchanged in order for proper designation of priority status. The lack of information, according to the protocol for determining priority status, adversely affects the accuracy of the priority determination. This is evidenced in the 71% correct designation rate for the audio only condition as opposed to the 69% and 48% for the only and audio and (i.e., both) conditions respectively. The over all MISER total (based on a total possible score of 150) indicated means of 102.22 (68% out of 100%) for audio, 94.00 (63% out of 100%) for, and 68.06 (45% out of 100%) for both audio and. Table 1.1 reports these results. 3. In breaking down the sample distinguishing between correct priority designation and incorrect priority designation, the following findings were observed. a. For correct priority designation the following were observed: The audio condition was significantly higher in the overall MISER (96.24), injury (23.94), signs (23.62), and response (15.35) than and/both. Table 1.14 reports the results. Across MISER categories the audio condition yielded significantly higher levels of overall quality (31.59), effectiveness (32.20), and appropriateness (32.45) than both and/or. Table 1.15 reports the results. b. For incorrect priority designation the following were observed:

The only significant difference was that of environment ( audio and both, this finding was not particularly strong). All of the findings were not statistically significant. There were also no significant differences observed across all MISER categories. COMPARISON OF CORRECT PRIORITY VERSUS INCORRECT PRIORITY DESIGNATION Priority designation indicated significant differences in MISER total (F[1, 1256] = 5.39, p <. 05), environment (F[1, 1257] = 9.43, p <.01), overall quality (F[1, 1257] = 4.77, p <.05), effectiveness (f[1, 1257] = 5.07, p <.05), and appropriateness (F[1, 1257] = 5.76, p <.05) with correct priority scores being significantly higher means on each of these criteria. SPECIFIC DIFFERENCES REGARDING MISER COMPONENTS Mechanism: The condition yielded significantly lower quality of information (6.70) and lower effectiveness than audio and/or both. Table 1.2 reports the results. Injury: The audio condition yielded significantly higher quality of information (7.92), effectiveness (7.98), appropriateness (8.05), and overall performance (23.95) than or both. Table 1.3 reports the results. Vital Signs: The condition yielded significantly lower quality of information (6.87), and overall performance (21.40) than both and/or audio. Table 1.4 reports the results. Environment: The audio and conditions yielded significantly higher quality of information (2.94, 2.86), effectiveness (3.15, 2.98), appropriateness (3.16, 3.17), and overall performance (9.25, 9.00) than both. Table 1.5 reports the results.

Table 1.1 PRIORITY DESIGNATION BY CONDITION Audio Only Correct priority designation = 71% Miser Total M = 102.22 SD = 32.36* Mechanism M = 21.55 SD = 9.19 Injury M = 21.50 SD = 7.34 Signs M = 21.43 SD = 8.46 Environment M = 16.94 SD = 11.62* Response M = 20.79 SD = 8.13 Transcript Only Correct priority designation = 69% Miser Total M = 94.00 SD = 33.55* Mechanism M = 19.44 SD = 8.55* Injury M = 21.69 SD = 6.96 Signs M = 20.28 SD = 9.48 Environment M = 12.14 SD = 11.86* Response M = 20.52 SD = 8.10 Both Audio and Transcript Correct priority designation = 48% correct Miser Total M = 68.06 SD = 21.91* Mechanism M = 21.19 SD = 9.58 Injury M = 22.60 SD = 7.11 Signs M = 21.56 SD = 8.42 Environment M =.19 SD = 1.83* Response M = 2.54 SD = 6.50

Table 1.2 ANOVA FULL SAMPLE MECHANISM Quality of Effectiveness Appropriateness Mechanism Total 1259 2, 1257 7.86 <.001 (6.70) significantly less quality than audio (7.29) and both (7.48) p<.05 1259 2, 1257 4.26 <.05 Transcript (6.94) significantly less effectiveness than audio (7.49) no differences with both (7.42) p<.05 1259 2, 1257.90 =.41 ND 1259 2, 1257 3.70 <.05 ND

Table 1.3 ANOVA FULL SAMPLE INJURY Quality of Effectiveness Appropriateness 1258 2, 1256 11.62 <.001 Audio (7.92) significantly (7.08) and both (7.45) p<.05 1258 2, 1256 11.34 <.001 Audio (7.98) is both (7.18) and both (7.40) p- <.05 1259 2, 1257 4.72 <.01 Audio (8.05) both (7.49) no difference with (7.80) p<.05 Injury Total 1258 2, 1256 7.83 <.001 Audio (23.95) is both (22.35) and (22.06) p<.05

Table 1.4 ANOVA FULL SAMPLE VITAL SIGNS Quality of Effectiveness Appropriateness Vital Signs Total 1259 2, 1257 8.05 <.001 Transcripts (6.87) less than audio (7.51) and both (7.65) 1259 2, 1257 4.13 <.05 ND 1259 2, 1257.46 =.63 ND 1259 2, 1257 3.53 <.05 Transcript (21.40) less than both (22.92) no difference for audio (22.64)

Table 1.5 ANOVA FULL SAMPLE ENVIRONMENT Quality of Effectiveness Appropriateness Environment Total 1259 2, 1257 28.08 <.001 Transcript (2.86) and audio (2.94) were higher than both (1.28) 1259 2, 1257 32.29 <.001 Transcript (2.98) and audio (3.15) both (1.26) 1258 2, 1256 32.81 <.001 Transcript (3.17) and audio (3.16) both (1.29) 1258 2, 1258 31.23 <.001 Transcript (9.00 and audio (9.25) both (3.84)

Table 1.6 ANOVA FULL SAMPLE RESPONSE Quality of Effectiveness Appropriateness 1259 2, 1257 6.94 <.01 Audio (4.90) (4.00) and both (4.03) 1259 2, 1257 6.50 <.01 Audio (4.97) (4.20) and both (4.01) 1259 2, 1257 4.40 <.05 Audio (5.03) (4.60) and both (4.15) Response Total 1259 2, 1257 5.63 <.01 Audio (14.90) (12.80) and both (12.19)

Table 1.7 ANOVA FULL SAMPLE MISER COMBINED TOTAL MECHANISM 1259 2, 1255 9.10 <.001 Audio (93.04) (86.18) and both (83.62) INJURY 1258 2, 1256 7.83 <.001 Audio (23.95) (22.06) and both (22.35) VITAL SIGNS 1259 2, 1257 3.52 <.05 ND ENVIRONMENT 1258 2, 1256 31.23 <.001 Audio (9.25) and (9.00) higher than both (3.84) RESPONSE 1259 2, 1257 5.63 <.01 Audio (14.90) (12.80) or both (12.19)

Table 1.8 ANOVA IF PRIORITY WAS INCORRECTLY DETERMINED MISER 454 2, 452 1.19 =.31 ND MECHANISM 455 2, 453.88 =.42 ND INJURY 455 2, 453 2.79 =.06 ND SIGNS 455 2, 453 1.02 =.36 ND ENVIRONMENT 454 2, 452 3.49 <.03 Transcript (7.27) higher than both (4.18) no audio (6.67) RESPONSE 455 2, 453 2.52 =.08 Table 1.9 ANOVA IF PRIORITY WAS INCORRECTLY DETERMINED ACROSS MISER CATEGORIES Quality of MISER Effectiveness of MISER Appropriateness of MISER 455 2, 453 1.62 =.19 ND 455 2, 453 1.62 =.20 ND 454 2, 452 1.28 =.28 ND

Table 1.10 CONDITION BY PRIORITY MEANS AND STANDARD DEVIATIONS CONDITION AUDIO/INCORRECT PRIORITY Sample size = 150 MISER Total M = 87.93 SD = 34.61 Mechanism M = 22.02 SD = 9.60 Injury M = 23.93 SD = 7.74 Signs M = 21.08 SD = 10.62 Environment M = 6.67 SD = 11.00 Response M = 14.19 SD = 12.26 Quality Total M = 28.91 SD = 11.62 Effectiveness Total M = 29.41 SD = 11.68 Appropriateness Total M = 29.61 SD = 11.47 Table 1.11 CONDITION BY PRIORITY MEANS AND STANDARD DEVIATIONS CONDITION TRANSCRIPT/INCORRECT PRIORITY Sample size = 178 MISER Total M = 83.61 SD = 32.33 Mechanism M = 20.61 SD = 9.64 Injury M = 22.36 SD = 6.48 Signs M = 22.14 SD = 8.29 Environment M = 7.27 SD = 11.41 Response M = 11.27 SD = 12.25 Quality Total M = 26.80 SD = 10.64 Effectiveness Total M = 27.66 SD = 10.77 Appropriateness Total M = 29.21 SD = 11.28

Table 1.12 CONDITION BY PRIORITY MEANS AND STANDARD DEVIATIONS CONDITION BOTH AUDIO AND TRANSCRIPT/INCORRECT PRIORITY Sample size = 127 MISER Total M = 82.49 SD = 26.96 Mechanism M = 21.39 SD = 9.78 Injury M = 22.09 SD = 8.08 Signs M = 22.64 SD = 9.28 Environment M = 4.18 SD = 7.85 Response M = 12.18 SD = 10.75 Quality Total M = 27.55 SD = 9.34 Effectiveness Total M = 27.31 SD = 9.16 Appropriateness Total M = 27.63 SD = 9.13

Table 1.13 ANOVA IF PRIORITY WAS CORRECTLY DETERMINED MISER 802 2, 800 9.34 <.001 Audio (96.24) s (87.67) and both (84.18) MECHANISM 803 2, 801 3.24 <.05 ND INJURY 802 2, 800 5.33 <.01 Audio (23.94) s (21.88) no both (22.47) SIGNS 803 2, 801 6.91 <.01 Audio (23.62) and both (23.06) (20.97) ENVIRONMENT 803 2, 801 32.56 <.001 Both (3.67) lower than audio (10.87) or (10.00) RESPONSE 803 2, 801 4.37 <.05 Audio (15.35) both (12.20) no both (13.69)

Table 1.14 ANOVA IF PRIORITY WAS CORRECTLY DETERMINED ACROSS MISER CATEGORIES Quality of MISER Effectiveness of MISER Appropriateness of MISER 802 2, 800 9.41 <.001 Audio (31.59) (27.97) or both (28.08) 802 2, 800 10.89 <.001 Audio (32.20) (28.84) or both (27.97) 803 2, 801 10.00 <.001 Transcript (30.83) and audio (32.45) lower than both (28.14)

Table 1.15 CONDITION BY PRIORITY MEANS AND STANDARD DEVIATIONS CONDITION AUDIO/CORRECT PRIORITY Sample size = 239 MISER Total M = 96.24 SD = 31.76 Mechanism M = 22.46 SD = 8.67 Injury M = 23.94 SD = 6.80 Signs M = 23.62 SD = 8.12 Environment M = 10.87 SD = 12.38 Response M = 15.35 SD = 11.92 Quality Total M = 31.59 SD = 10.81 Effectiveness Total M = 32.20 SD = 10.60 Appropriateness Total M = 32.45 SD = 10.63 Table 1.16 CONDITION BY PRIORITY MEANS AND STANDARD DEVIATIONS CONDITION TRANSCRIPT/CORRECT PRIORITY Sample size = 305 MISER Total M = 87.67 SD = 36.73 Mechanism M = 21.05 SD = 8.83 Injury M = 21.88 SD = 6.85 Signs M = 20.97 SD = 8.89 Environment M = 10.00 SD = 12.29 Response M = 13.69 SD = 12.03 Quality Total M = 27.97 SD = 12.18 Effectiveness Total M = 28.84 SD = 12.24 Appropriateness Total M = 30.83 SD = 12.64

Table 1.17 CONDITION BY PRIORITY MEANS AND STANDARD DEVIATIONS CONDITION BOTH AUDIO AND TRANSCRIPT/CORRECT PRIORITY Sample size = 259 MISER Total M = 84.18 SD = 25.45 Mechanism M = 22.78 SD = 8.37 Injury M = 22.47 SD = 8.47 Signs M = 23.06 SD = 9.56 Environment M = 3.67 SD = 7.90 Response M = 12.20 SD = 11.62 Quality Total M = 28.08 SD = 8.46 Effectiveness Total M = 27.97 SD = 8.51 Appropriateness Total M = 28.14 SD = 8.77