| Literature DB >> 34957007 |
Chaojie Liu1, Dan Wang2, Lixia Duan2, Xinping Zhang2, Chenxi Liu2.
Abstract
Background: Misuse of antibiotics is prevalent worldwide and primary care is a major contributor. Although a clear diagnosis is fundamental for rational antibiotic use, primary care physicians often struggle with diagnostic uncertainty. However, we know little about how physicians cope with this situation and its association with antibiotic prescribing.Entities:
Keywords: China; antibiotic use; diagnostic uncertainty; latent class analysis; physician; primary care
Mesh:
Substances:
Year: 2021 PMID: 34957007 PMCID: PMC8695689 DOI: 10.3389/fpubh.2021.741345
Source DB: PubMed Journal: Front Public Health ISSN: 2296-2565
Figure 1Matching process and characteristics of prescriptions in different groups. Participating physicians and their prescriptions over 2018 were first matched. Based on recorded diagnoses, prescriptions were divided into two groups, namely, illness without an indication for antibiotics (Group A) and illness with an indication conditional for antibiotics (Group B). The former group represents diagnoses that are unlikely to be caused by bacteria for which antibiotics should not be prescribed and the latter one covers diagnoses that antibiotic prescriptions may be needed conditional to a cause of bacterial infections, for example, acute tonsillitis. In either group, two sub-groups were further identified based on physicians' behavioral patterns to cope with diagnostic uncertainty. *Among all the excluded prescriptions, 70.93% prescriptions were excluded due to missing diagnosis, 18.70% were prescriptions with diagnosis requiring antibiotics and 10.37% were due to ineligible physicians (<100 prescriptions during 2018 or missing data of personal characteristics).
Characteristics of physician respondents (n = 583).
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|---|---|---|
| Age (years) | ||
| <40 | 184 | 31.56% |
| 40–59 | 377 | 64.67% |
| ≥60 | 22 | 3.77% |
| Gender | ||
| Male | 375 | 64.32% |
| Female | 208 | 35.68% |
| Educational attainment | ||
| Vocational diploma | 104 | 17.84% |
| Associate medical degree | 236 | 40.48% |
| Medical degree | 243 | 41.68% |
| Annual household income (Chinse Yuan ¥) | ||
| <40,000 | 120 | 20.58% |
| 40,000–79,999 | 268 | 45.97% |
| 80,000–119,999 | 131 | 22.47% |
| ≥120,000 | 64 | 10.98% |
| Professional title | ||
| Assistant physician | 295 | 50.60% |
| Attending physician | 220 | 37.74% |
| Senior consultant | 68 | 11.66% |
| Years of clinical experience | ||
| <10 | 166 | 28.47% |
| 10–19 | 181 | 31.05% |
| 20–29 | 181 | 31.05% |
| ≥30 | 55 | 9.43% |
| Workplace | ||
| Urban community health center | 188 | 32.25% |
| Rural township health center | 395 | 67.75% |
| Sub-specialty | ||
| General practitioner | 282 | 48.37% |
| Internist | 132 | 22.64% |
| Surgeon | 67 | 11.49% |
| Others (e.g., Pediatrician, Gynecologist) | 102 | 17.50% |
| Antibiotic training | ||
| Yes | 481 | 82.50% |
| No | 102 | 17.50% |
Strategies adopted by study participants (n = 583) in response to diagnostic uncertainty.
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|---|---|---|
| Collecting further information | 496 | 85.08 |
| Communication with patients | 472 | 80.96 |
| Referring patients to hospitals (specialists) | 402 | 68.95 |
| Seeking help from colleagues | 332 | 56.95 |
| Ordering more diagnostic tests | 232 | 39.79 |
| Acting on intuition or first impression | 110 | 18.87 |
| Adopting a “wait and see” strategy | 66 | 11.32 |
Figure 2Behavioral patterns of primary care physicians in dealing with diagnostic uncertainty. Two different behavioral patterns of physicians' coping strategies of diagnostic uncertainty were identified. Whether a physician adopted a high or a low openness and collaborativeness to cope with diagnostic uncertainty was classified based on to what likelihood the physician would use the seven approaches to deal with diagnostic uncertainty (presented as different lines). The likelihood of adopting different approaches in coping with diagnostic uncertainty were shown in dots.
Factors associated with antibiotic prescribing—results of multilevel logistic regression modeling.
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| Low (vs high) | 1.013 (1.002, 1.024) | 1.047 (1.035, 1.059) | 1.226 (1.117, 1.345) | 1.257 (1.118, 1.414) |
| Age group | 1.012 (0.998, 1.026) | 0.973 (0.959, 0.988) | 1.064 (0.930, 1.218) | 1.484 (1.270, 1.733) |
| Female gender (vs. male) | 0.886 (0.875, 0.898) | 0.792 (0.781, 0.803) | 0.900 (0.809, 1.000) | 0.928 (0.843, 1.021) |
| Level of education | 0.942 (0.934, 0.950) | 1.009 (1.000, 1.019) | 1.043 (0.927, 1.173) | 1.924 (1.741, 2.127) |
| Household annual income | 1.055 (1.048, 1.063) | 0.974 (0.967, 0.982) | 0.923 (0.871, 0.978) | 1.095 (1.031, 1.164) |
| Professional title | 0.994 (0.984, 1.004) | 1.009 (0.997, 1.020) | 0.674 (0.600, 0.756) | 0.630 (0.560, 0.708) |
| Years of experience | 1.000 (0.993, 1.007) | 1.004 (0.996, 1.011) | 1.117 (1.043, 1.198) | 1.058 (0.972, 1.152) |
| Rural workplace (vs urban) | 1.608 (1.583, 1.633) | 1.325 (1.303, 1.347) | 1.912 (1.630, 2.244) | 3.127 (2.657, 3.680) |
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| General practitioner | 1.244 (1.215, 1.273) | 1.196 (1.167, 1.226) | 2.341 (1.982, 2.765) | 2.803 (2.371, 3.313) |
| Internalist | 1.153 (1.125, 1.181) | 1.033 (1.007, 1.060) | 1.457 (1.277, 1.663) | 0.791 (0.695, 0.901) |
| Surgeon | 1.214 (1.175, 1.253) | 0.868 (0.838, 0.899) | 1.692 (1.425, 2.009) | 1.292 (1.006, 1.660) |
| Antibiotic training (vs no) | 1.176 (1.160, 1.192) | 1.339 (1.319, 1.359) | 0.955 (0.840, 1.085) | 0.709 (0.597, 0.840) |
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| 18–39 | 0.667 (0.656, 0.678) | 0.911 (0.699, 0.723) | 1.081 (1.034, 1.131) | 1.055 (1.012, 1.100) |
| 40–64 | 0.444 (0.438, 0.450) | 0.488 (0.481, 0.495) | 0.990 (0.951, 1.031) | 1.011 (0.974, 1.048) |
| ≥65 | 0.278 (0.274, 0.283) | 0.313 (0.318, 0.318) | 0.856 (0.818, 0.896) | 0.895 (0.859, 0.933) |
| Female gender (vs. male) | 0.967 (0.958, 0.976) | 1.000 (0.990, 1.010) | 0.998 (0.971, 1.025) | 1.032 (1.007, 1.059) |
P < 0.05;
P < 0.01;
P < 0.001.