Literature DB >> 36176014

The Impact of COVID-19 Pandemic on Spine Surgeons Worldwide: A One Year Prospective Comparative Study.

Juan N Barajas1,2, Alexander L Hornung1,2, Timothy Kuzel1,2, Gary M Mallow1,2, Grant J Park1,2, Samuel S Rudisill1,2, Philip K Louie3, Garrett K Harada4, Michael H McCarthy5, Niccole Germscheid6, Jason Py Cheung7, Marko H Neva8, Mohammad El-Sharkawi9, Marcelo Valacco10, Daniel M Sciubba11, Norman B Chutkan12, Howard S An1,2, Dino Samartzis1,2.   

Abstract

STUDY
DESIGN: Survey.
OBJECTIVE: In March of 2020, an original study by Louie et al investigated the impact of COVID-19 on 902 spine surgeons internationally. Since then, due to varying government responses and public health initiatives to the pandemic, individual countries and regions of the world have been affected differently. Therefore, this follow-up study aimed to assess how the COVID-19 impact on spine surgeons has changed 1 year later.
METHODS: A repeat, multi-dimensional, 90-item survey written in English was distributed to spine surgeons worldwide via email to the AO Spine membership who agreed to receive surveys. Questions were categorized into the following domains: demographics, COVID-19 observations, preparedness, personal impact, patient care, and future perceptions.
RESULTS: Basic respondent demographics, such as gender, age, home demographics, medical comorbidities, practice type, and years since training completion, were similar to those of the original 2020 survey. Significant differences between groups included reasons for COVID testing, opinions of media coverage, hospital unemployment, likelihood to be performing elective surgery, percentage of cases cancelled, percentage of personal income, sick leave, personal time allocation, stress coping mechanisms, and the belief that future guidelines were needed (P<.05).
CONCLUSION: Compared to baseline results collected at the beginning of the COVID-19 pandemic in 2020, significant differences in various domains related to COVID-19 perceptions, hospital preparedness, practice impact, personal impact, and future perceptions have developed. Follow-up assessment of spine surgeons has further indicated that telemedicine and virtual education are mainstays. Such findings may help to inform and manage expectations and responses to any future outbreaks.

Entities:  

Keywords:  COVID-19; coronavirus; global; impact; spine surgeons; worldwide

Year:  2022        PMID: 36176014      PMCID: PMC9527127          DOI: 10.1177/21925682221131540

Source DB:  PubMed          Journal:  Global Spine J        ISSN: 2192-5682


Introduction

In 2020, the COVID-19 virus swept throughout the globe, drastically changing the way of life for billions of people. By March of 2020, almost all countries around the world enacted self-imposed quarantines on their citizens. As of January 2022, there have been over 300 million recorded cases and over 5.4 million reported COVID-19-related deaths worldwide.[1] Several systematic reviews have shown negative impacts on the health-related quality of life for those patients that were infected by the virus.[2,3] In addition to patients, healthcare workers have been greatly affected by the COVID-19 pandemic. Approximately 3607 healthcare workers in the USA died within the first year of the pandemic.[4] In a systematic review examining the psychological and mental impacts of COVID-19, Luo et al[5] found anxiety, depression, stress, insomnia, and posttraumatic stress symptoms/disorder to be present in both healthcare workers and the general population. Despite having a better understanding of the global impact of the pandemic, little is known about how individual subspecialties were and continue to be affected. In March/April of 2020, during the early stages of the COVID-19 pandemic, Louie et al[6] distributed the multi-dimensional AO Spine COVID-19 and Spine Surgeon Global Impact Survey to investigate the impact of COVID-19 on spine surgeons globally. This AO Spine-initiated study consisted of over 900 spine surgeons from 91 different countries and was 1 of the first to report upon the global variations of COVID-19 among healthcare workers, in this case spine surgeons.[6-13] This initiative noted that the pandemic significantly impacted the health, personal life, and professional life of spine surgeons worldwide. Since the original survey was distributed, individual countries and regions of the world have been affected differently, and therefore have responded differently throughout the pandemic. However, little is known as to how this pandemic has impacted spine surgeons prospectively. As such, the current study addressed the 1-year follow-up of the Louie et al[6] study, assessing the impact of COVID-19 on spine surgeons worldwide and its evolution over time.

Methods

Survey Design and Content

Following institutional review board approval (#21012505), a survey comparable to the original AO Spine COVID-19 and Spine Surgeon Global Impact Survey that was distributed in March/April of 2020[6] was constructed and redistributed in March/April of 2021. Question selection involved input from a survey panel composed of 5 regional Research Chairs of AO Spine representing seven global regions (i.e., Africa, Asia, Australia, Europe, Middle East, North America, and South America/Latin America). A Delphi-style approach was used to establish consensus after several rounds of review before finalization of the survey. Domains included in the survey consisted of demographics, COVID-19 observations, preparedness, personal impact, patient care, and future perceptions.

Survey Distribution

The 90-item survey, written in English, was distributed via email to the AO Spine membership who agreed to receive surveys (approximately 4700 spine surgeons at time of follow-up survey). The survey was created with SurveyMonkey Inc (San Mateo, CA, USA) and allowed the recipients 12 days to complete (26 March 2021 to 6 April 2021). Respondent participation was voluntary and anonymous.

Statistical Analyses

All statistical analyses were performed with JASP version .15. Percentages and means (± standard deviation) were reported for count data and rank-order questions, respectively. Statistical analyses were performed to assess significant differences in count data using a combination of Fisher’s exact and χ2 tests where applicable, depending on sample size. Differences in continuous variables between groups were assessed using analysis of variance (ANOVA). We compared our findings to the results based on the Louie et al[6] study. Unlike the original survey, this follow-up did not compare geographic regions because the sample size on the follow-up survey was smaller. P-values were 2-tailed, and a P < .05 was considered statistically significant.

Results

Demographics

Similar to the 2020 survey, the majority of the 275 respondents in the 2021 survey were male (89.1%), practicing in academic centers (41.5%), and between the ages of 35 and 44 years (32.7%) (P = .208, PP = .314, and PP = .104, respectively). Moreover, survey groups did not differ by home demographics (e.g., spouse at home, number of children at home, etc.), medical comorbidities, or years since training completion (Tables 1 and 2). There was no difference in the geographic distribution of the respondents from Africa (2020 = 5.0% vs 2021 = 5.1%), Asia (2020 = 24.2% vs 2021 = 26.9%), Australia (2020=.9% vs 2021 = .7%), Europe (2020 = 27.5% vs 2021=27.3%), and South America/Latin America (2020 = 16.5% vs 2021=17.8%) (P = .816, P = .265, P = .801, P = .885, P = .495, respectively). However, there were statistically more respondents from the Middle East (2020 = 8.7% vs 2021 = 13.1%; P = .025) and fewer from North America (2020 = 17.3% vs 2021=9.1%; P < .002) in the 2021 follow up. More respondents reported themselves as orthopedic spine surgeons (2020= 70.6% vs 2021=62.5%; P = .011) compared to neurosurgery spine surgeons (2020= 27.3% vs 2021=33.8%; P < .05) in the follow-up. Fewer respondents were fellowship [ trained (2020= 71.5% vs 2021=65.1%; P < .02) in the follow-up (Table 2). Notably, there were more respondents in the 2020 cohort compared to the 2021 cohort who reported greater percent of practice devoted to clinical duties (P=.038); however, there were no differences in other practice strata (i.e., research or teaching; P = .760 and P = .220) respectively; Table 2).
Table 1.

Personal Demographics.

2020 Survey#%2021 Survey#%P-value
Age (Years)Age (Years)
 25-3413014.5 25-343312.311
 35-4434438.4 35-449032.7.104
 45-5424527.4 45-548731.6.149
 55-6415016.8 55-645118.5.460
 65+262.9 65+114.0.353
SexSex
 Female556.2 Female248.7.127
 Male82693.8 Male24589.1.208
Home demographicsHome demographics
 Spouse at home77386.5 Spouse at home23184.0.486
 Children at home Children at home
  025028.2  07728.0.927
  122124.9  15218.9.054
  226630.0  28229.8.917
  310912.3  33914.2.358
  4+414.6  4+196.9.119
Estimated home city populationEstimated home city population
 <100,000465.2 <100,000155.5.816
 100,000-500,00018520.7 100,000-500,0004516.4.129
 500,000-1,000,00013615.2 500,000-1,000,0004215.3.937
 1,000,000-2,000,00014416.1 1,000,000-2,000,0005118.5.314
 >2,000,00038242.8 >2,000,00011742.5.954
Geographic regionGeographic region
 Africa445.0 Africa145.1.886
 Asia21324.2 Asia7426.9.265
 Australia80.9 Australia20.7.801
 Europe24227.5 Europe7527.3.885
 Middle east778.7 Middle east3613.1.025
 North America15217.3 North America259.1<.002
 South America/Latin America14516.5 South America/Latin America4917.8.495
Medical comorbiditiesMedical comorbidities
 Obesity10311.4 Obesity3512.7.555
 Hypertension15617.3 Hypertension4616.7.827
 Tobacco use778.5 Tobacco use145.1.061
 Diabetes455.0 Diabetes165.8.587
 Respiratory illness353.9 Respiratory illness124.4.687
 Renal failure50.6 Renal failure41.5.269
 Cancer40.4 Cancer20.7.924
 Cardiac disease252.8 Cardiac disease72.5.992
 No comorbidities57063.2 No comorbidities18667.6.178
Total respondents902100Total respondents275100

Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA.

Bolded values indicate statistical significance at P < .05.

# = number of respondents/votes, % = percent, ± SD = standard deviation.

Table 2.

Practice Demographics.

2020 Survey#%2021 Survey#%P-Value
SpecialtySpecialty
 Orthopaedics63770.6 Orthopaedics17262.5.011
 Neurosurgery24627.3 Neurosurgery9333.8<.05
 Trauma10411.5 Trauma3010.9.777
 Pediatric surgery171.9 Pediatric surgery20.7.289
 Other353.9 Other41.5.076
Fellowship trainedFellowship trained
 Yes64571.5 Yes17965.1<.02
 No25728.5 No9333.8.091
Years since training completionYears since training completion
 Less than 5 Years16125.3 Less than 5 Years4315.6.396
 5 to 10 Years14122.2 5 to 10 Years4616.7.664
 10 to 15 Years10416.4 10 to 15 Years3111.3.907
 15 to 20 Years11718.4 15 to 20 Years279.8.162
 Over 20 Years11317.8 Over 20 Years3813.8.575
  Practice typePractice type
 Academic/Private combined20422.9 Academic/Private combined7125.8.272
 Academic40545.4 Academic11441.5.314
 Private14416.1 Private3713.5.312
 Public/Local hospital13915.6 Public/Local hospital4917.8.255
Practice breakdown (%)Practice breakdown (%)
 Research Research
  0-2573181.9  0-2522180.4.802
  26-5012914.5  26-503613.1.613
  51-75212.4  51-7593.3.515
  76-100121.3  76-10051.8.760
 Clinical Clinical
  0-25222.5  0-25176.2<.003
  26-50879.7  26-503713.5.072
  51-7519421.7  51-755620.4.685
  76-10059066.1  76-10016158.5.038
 Teaching Teaching
  0-2566874.9  0-2518768.0.05
  26-5015217.0  26-505720.7.141
  51-75505.6  51-75155.5.925
  76-100222.5  76-100134.7.220
Total respondents902100Total respondents275100

Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA.

Bolded values indicate statistical significance at P < .05.

# = number of respondents/votes, % = percent, ± SD = standard deviation.

Personal Demographics. Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA. Bolded values indicate statistical significance at P < .05. # = number of respondents/votes, % = percent, ± SD = standard deviation. Practice Demographics. Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA. Bolded values indicate statistical significance at P < .05. # = number of respondents/votes, % = percent, ± SD = standard deviation.

COVID-19 Perceptions

Compared to 6.7% in the original survey, 71.3% of 2021 respondents had undergone testing for COVID-19, of which 18.0% tested positive (P < .001). Moreover, 84.4% of participants indicated that they personally knew someone diagnosed with COVID-19 compared to 46.6% in 2020 (P < .001). Reasons for testing also differed significantly between groups (P < .001). In the 2020 survey, the most likely reason for getting tested was showing symptoms (49.3%), in contrast to having direct contact with a COVID-19 positive patient in 2021 (24.4%). Likewise, opinions of media coverage also significantly differed in that fewer respendats form the 2021 survery (36.7%) thought that the media was accurately covering the pandemic compared to the 2020 survey (48.5%), P = .013) and more respondents from the 2021 survey (21.8%) thought the media wasn’t providing enough coverage compared to the 2020 survey (16.1%; P = .007). There was no difference in media source utilized by respondents between cohorts (i.e., international vs national, internet vs television, etc.; P>.05) except respondants from the 2020 cohort were more likely to use social media (2020= 9.9% vs 2021=4.4%; P = .028) (Table 3).
Table 3.

COVID-19 Perceptions.

2020 SurveyOverall2021 SurveyOverallP-Value
#/Mean%#/Mean%
COVID-19 diagnosisCOVID-19 diagnosis
 Know someone diagnosed39246.6 Know someone diagnosed23284.4<.001
 Personally diagnosed91.1 Personally diagnosed4616.7<.001
COVID-19 testingCOVID-19 testing
 Know how to get tested70182.9 Know how to get tested0.0
 Personally tested576.7 Personally tested19671.3<.001
Reason for testingReason for testing
 Direct with COVID-19 positive patient4935.5 Direct with COVID-19 positive patient6724.4<.001
 Prophylactic128.7 Prophylactic2810.2<.001
 Demonstrated symptoms6849.3 Demonstrated symptoms4717.1<.001
 Ask to be tested96.5 Ask to be tested3010.9<.001
Mean worry about COVID-19 (1- Not worried to 5- very worried)3.7±1.2Mean worry about COVID-19 (1- Not worried to 5- very worried)3.5±1.1
Current stressorsCurrent stressors
 Personal health35842.5 Personal health9735.3.188
 Family health64076.0 Family health19169.5.6329
 Community health37043.9 Community health9133.1.0183
 Hospital capacity35241.8 Hospital capacity6925.1<.001
 Timeline to resume clinical practice37844.9 Timeline to resume clinical practice10437.8.227
 Government/Leadership15418.3 Government/Leadership7426.9<.001
 Return to non-essential activities11613.8 Return to non-essential activities6724.4<.001
 Economic issues38545.7 Economic issues10337.5.123
 Other111.3 Other20.7.494
Media perceptionsMedia perceptions
 Accurate coverage40748.5 Accurate coverage10136.7.013
 Excessive coverage29835.5 Excessive coverage9233.5.897
Not enough coverage13516.1 Not enough coverage6021.8.007
 Current media sourcesCurrent media sources
 International News- internet20226.0 International News- internet5921.5.896
 International News- television729.3 International News- television248.7.692
 National/Local News- internet22428.8 National/Local News- internet6222.5.438
 National/Local News- television17722.8 National/Local News- television5620.4.787
 Newspaper283.6 Newspaper124.4.312
 Social media759.6 Social media124.4.028
Total respondents902100Total respondents275100

Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA.

Bolded values indicate statistical significance at P < .05.

# = number of respondents/votes, % = percent, ± SD = standard deviation.

COVID-19 Perceptions. Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA. Bolded values indicate statistical significance at P < .05. # = number of respondents/votes, % = percent, ± SD = standard deviation.

Hospital Preparedness

Respondents of the 2021 survey were significantly more likely to have undergone mandatory or self-imposed quarantine compared to the 2020 respondents (2020= 22.9% vs 2021=32.4%; P < .001). Moreover, the interventions employed by the hospital (e.g., quarantine after travel, cancellation of in-person meetings, etc.) differed significantly between the two cohorts (P ≤ .049). Similarly, respondents from the 2021 survey noted greater hospital unemployment than those in 2020 (2020=8.8% vs 2021=19.6%; P < .001); however, furlough rates decreased from 2020 to 2021 (40.5% vs 25.8%; P = .01). Frequency of updates from the hospital also differed between groups (P ≤ .031). More specifically, in 2020, respondents were receiving updates more frequently from the hospital compared to a year later (Table 4).
Table 4.

Hospital Preparedness.

2020 Survey#%2021 Survey#%P-value
Quarantined19322.9Quarantine8932.4<.001
InstitutionInstitution
 Formal guidelines in place45260.4 Formal guidelines in place17061.8<.001
 Adequate PPE provided41549.6 Adequate PPE provided18667.6<.001
 N9545154.0 N9500.0
 Surgical mask73888.4 Surgical mask00.0
 Face shield41549.7 Face shield00.0
 Gown49158.8 Gown00.0
 Full face respirator9511.4 Full face respirator00.0
 Ventilators34341.0 Ventilators00.0
 Other556.6 Other00.0
 None334.0 None00.0
Hospital interventionsHospital interventions
 Quarantine after international travel50760.9 Quarantine after international travel13649.5.05
 Limitations on domestic travel48358.0 Limitations on domestic travel10638.5<.001
 Non-essential employees work from home55867.0 Non-essential employees work from home12746.2<.001
 Cancellation of all educational/Academic activities68982.7 Cancellation of all educational/Academic activities16961.5<.001
 Cancellation of hospital meetings67480.9 Cancellation of hospital meetings18266.2<.001
 Cancellation of elective surgeries71485.7Cancellation of elective surgeries16760.7<.001
 None of the above172.0None of the above217.6<.001
Medical staff furloughMedical staff furlough
 Yes30740.5Yes7125.8.011
 Potentially16521.8Potentially4917.8.858
 No28637.8No10237.1.096
Medical staff unemploymentMedical staff unemployment
 Yes678.8 Yes5419.6<.001
 Potentially10814.2 Potentially145.1.002
 No58677.0 No15456.0.007
Perception of hospital effectivenessPerception of hospital effectiveness
 Acceptable/Appropriate47761.4 Acceptable/Appropriate14151.3.639
 Excessive/Unnecessary172.2 Excessive/Unnecessary62.2.949
 Disarray/Disorganized688.8 Disarray/Disorganized165.8.402
 Not enough action21527.7 Not enough action6222.5.658
Frequency of updates from hospitalFrequency of updates from hospital
 Multiple times/Day16020.7 Multiple times/Day155.5<.001
 Once/Day36647.3 Once/Day6322.9<.001
 2-3 times/Week10613.7 2-3 times/Week4616.7.031
 Once/Week445.7 Once/Week4215.3<.001
 Less than once/Week101.3 Less than once/Week217.6<.001
 Not at all14218.4Not at all4917.8.413
GovernmentGovernment
 Cancel elective surgery64677.2 Cancel elective surgery15255.3<.001
 Shelter/Self-protection57068.1 Shelter/Self-protection11742.5<.001
 No gatherings >50 people36543.6 No gatherings >50 people11240.7.938
 No gatherings >100 people45858.3 No gatherings >100 people13950.5.946
 No gatherings > household37144.3 No gatherings > household9735.3.082
 Closure of non-essential business72786.9 Closure of non-essential business18667.6<.001
 Closure of schools/Universities79595.0 Closure of schools/Universities20474.2<.001
 Closure of dine-in restaurants71185.0 Closure of dine-in restaurants18366.5<.001
 Closure of public transportation23928.6 Closure of public transportation5218.9.011
 Restrict elderly to home42650.9 Restrict elderly to home9735.3<.001
Perception of government effectivenessPerception of government effectiveness
 Acceptable/Appropriate45658.5 Acceptable/Appropriate8029.1<.001
 Excessive/Unnecessary202.6 Excessive/Unnecessary82.9.665
 Disarray/Disorganized8811.3 Disarray/Disorganized6222.5<.001
 Not enough action21527.6 Not enough action7627.6.201
Total respondents902100Total respondents275100

Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA.

Bolded values indicate statistical significance at P < .05.

# = number of respondents/votes, % = percent, ± SD = standard deviation.

Hospital Preparedness. Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA. Bolded values indicate statistical significance at P < .05. # = number of respondents/votes, % = percent, ± SD = standard deviation.

Practice Impact

Compared to 2020, respondents of the 2021 survey were significantly more likely to be performing elective surgeries (2020= 18.5% vs 2021=67.6%; P < .001). Additionally, the percentage of cases cancelled secondary to COVID-19 also decreased from 2020 to 2021 (2020=67.1% vs 2021=12.0%; P < .001). Responses regarding impact on resident and fellow training differed significantly between surveys because training residents and fellows returned in 2021 (P < .001); however, on further analysis, the only significant changes were that respondents were more likely to return to training residents and fellows and that the COVID-19 impact had decreased in 2021 (P = .001 and P = .001, respectively). Interestingly, the likelihood of a surgeon to warn patients if he/she is COVID-19 positive also differed between surveys (P ≤ .001), with a significant decrease in the proportion of respondents who would “absolutely report” (2020 = 74.2% vs 2021 = 53.5%; P < .001) and an increase in the proportion responding “less likely to report” (2020 = 5.4% vs 2021 = 8.7%; P = .013). Percentage of personal income as well as hospital income also differed between surveys (P < .001 and P < .001, respectively). In 2021, both personal and hospital income were affected to a lesser extent than in 2020 (Table 5).
Table 5.

Practice Impact.

2020 Survey#%2021 Survey#%P-value
Still performing elective surgery14918.5Still performing elective surgery18667.6<.001
Essential/Emergency spine surgery70087.3Essential/Emergency spine surgery0.0<.001
% Cancelled surgical cases/Week% Cancelled surgical Cases/Week
 0-25698.6 0-2510638.5<.001
 26-5012315.3 26-505821.1.003
 51-75729.0 51-753512.7.017
 76-10053967.1 76-1003312.0<.001
Impact on clinical time spentImpact on clinical time spent
 Increased465.7 Increased3111.3<.001
 Decreased67584.0 Decreased12746.2<.001
 Stayed the same8310.3 Stayed the same7226.2<.001
Perceived impact on resident/Fellow trainingPerceived impact on resident/Fellow training
 Not currently training residents/Fellows26833.7 Not currently training residents/Fellows5419.6<.001
 Hurts training experience45056.5 Hurts training experience14352.0.539
 Improves training experience303.8 Improves training experience41.5.104
 No overall impact486.0 No overall impact3010.9.001
 Medical duties outside specialty18322.8 Medical duties outside specialty7226.2.038
Warning patients if the surgeon is COVID-19 positiveWarning patients if the surgeon is COVID-19 positive
 Absolutely59574.2 Absolutely14753.5<.001
 Likely10613.2 Likely3512.7.663
 Less likely435.4 Less likely248.7.013
 Not at all587.2 Not at all269.5.088
Research activities impactedResearch activities impacted
 No research engagement20627.0 No research engagement4717.1.042
 Complete stop12216.0 Complete stop279.8.105
 Decrease in productivity24732.4 Decrease in productivity8229.8.431
 No change10814.2 No change3813.8.416
 Increase in productivity8010.5 Increase in productivity2810.2.509
Surgery impactSurgery impact
 Advise against56170.4 Advise against18567.3.126
 Proceed with standard precautions13817.3 Proceed with standard precautions4315.6.892
 Absent during intubation/Extubation32240.4 Absent during intubation/Extubation3512.7<.001
 Additional PPE during surgery42843.7 Additional PPE during surgery5720.7<.001
Income impactIncome impact
 Losing income30840.5 Losing income7728.0.057
 No impact, salary24432.1 No impact, salary8832.0.111
 No impact, compensation-based70.9 No impact, compensation-based72.5.017
 Planned reduction, salary13818.1 Planned reduction, salary3512.7.291
 Planned reduction, compensation-based648.4 Planned reduction, compensation-based145.1.368
% personal income affected% Personal Income Affected
 0-2521928.9 0-2511943.3<.001
 26-5022629.9 26-507326.5.619
 51-7514218.8 51-75186.5<.001
 76-10017022.5 76-100103.6<.001
% hospital income affected% Hospital income affected
 0-2516922.3 0-259835.6<.001
 26-5019926.3 26-508932.4<.001
 51-7520727.3 51-75228.0<.001
 76-10018224.0 76-100114.0<.001
Total respondents902100Total respondents275100

Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA.

Bolded values indicate statistical significance at P < .05.

# = number of respondents/votes, % = percent, ± SD = standard deviation.

Practice Impact. Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA. Bolded values indicate statistical significance at P < .05. # = number of respondents/votes, % = percent, ± SD = standard deviation.

Personal Impact and Future Perceptions

Rates of sick leave significantly decreased between 2020 to 2021 (2020=50.0% vs 2021=13.1%; P < .001). Regarding personal time allocation (where 1 equaled most time and 8 equaled least time), there were significant changes in time allocated to resting (2020= 4.3 ± 2.0 vs 2021=4.7±1.8; P = .003), future planning (2020=4.6 ± 1.8 vs 2021=5.0 ± 1.8; P = .001), and practice/medical work (2020=4.1 ± 2.5 vs 2021=3.1 ± 2.4; P < .001). Moreover, there were significant differences in reported stress coping mechanisms between surveys (P = .002), specifically in decreased reading (2020=62.2% vs 2021=33.1%; P < .001), television (2020=53.5% vs 2021=30.5%; P < .001) and telecommunication with friends (2020=43.8% vs 2021=22.9%; P < .001; Table 6). With regards to future perceptions, specifically belief that future guidelines were needed, significant differences existed between the 2020 and 2021 cohorts (P < .001). Respondents from the 2021 (64%) survey were less likely to think that future guidelines are needed than those from the 2020 (94.7%) survey. Interestingly, no differences were reported from the perceived impact of COVID-19 between the two time points (P > .05). Interest in online spine education differed between groups (P < .001), with a statistically significant decrease in “very interested in online spine education” (2020=42.5% vs 2021=21.1%; P < .001); however, no significant differences were noted for the answer choices “Interested and “Not interested” although more respondents from the 2021 follow up reported being “Somewhat Interested” (20.4% vs 17.5%; P=.021) regarding online education (Table 7). Furthermore, there were significant differences in percentage of telecommunication visits between cohorts (P < .001), as the majority of respondents (64.4%) indicated that 25% or less of their visits were via telemedicine in 2021 compared to 50% in 2020 (Table 7).
Table 6.

Personal Impact.

2020 Survey#/Mean%/± SD2021 Survey#/Mean%/± SDP-Value
Sick leave for COVID-19450.0Sick leave for COVID-193613.1<.001
Hospitalization for COVID-19112.5Hospitalization for COVID-1972.5<.001
Intensive care unit (ICU) treatment112.5Intensive care unit (ICU) treatment10.4.373
Mean personal allocation of time (1- most time, 8- least time)Mean personal allocation of time (1- most time, 8- least time)
 Spending time with family2.7±2.2 Spending time with family2.8±1.9.496
 Personal wellness3.8±1.9 Personal wellness4±2.0.131
 Resting4.3±2.0 Resting4.7±1.8.003
 Future planning4.6±1.8 Future planning5±1.8.001
 Hobbies5.2±1.9 Hobbies5.3±1.8.439
 Academic projects/Research4.6±2.1 Academic projects/Research4.6±2.11.00
 Community outreach6.3±2.0 Community outreach6.3±2.21.00
 Spine practice/Medical center work4.1±2.5 Spine practice/Medical center work3.1±2.4<.001
Current stress coping mechanismsCurrent stress coping mechanisms
 Exercise46362.9 Exercise14452.4.764
 Music33044.8 Music8631.3.106
 Meditation/Mindfulness11816.0 Meditation/Mindfulness2910.5.265
 Tobacco293.9 Tobacco145.1.146
 Alcohol8912.1 Alcohol3412.4.236
 Research projects24433.2 Research projects5218.9.006
 Family57878.5 Family16660.4.263
 Spiritual/Religious activities11615.8 Spiritual/Religious activities3512.7.954
 Reading45862.2 Reading9133.1<.001
 Television39453.5 Television8430.5<.001
 Telecommunication with friends32243.8 Telecommunication with friends6322.9<.001
Total respondents902100Total respondents275100

Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA.

Bolded values indicate statistical significance at P < .05.

# = number of respondents/votes, % = percent, ± SD = standard deviation.

Table 7.

Future Perceptions.

2020 SurveyOverall2021 SurveyOverallP-Value
#%#%
Belief that future guidelines are neededBelief that future guidelines are needed
 Yes71094.7 Yes17664.0<.001
 No81.1 No196.9<.001
 Unsure324.3 Unsure238.4<.001
  Most effective method for hospital updatesMost effective method for hospital updates
 internet webinar37948.8 internet webinar9032.7.006
 Email48662.6 Email12545.5.143
 Text message22328.7 Text message6925.1.902
 Flyers496.3 Flyers114.0.344
 Automated phone calls435.5 Automated phone calls145.1.826
 Social media outlets21828.1 Social media outlets4616.7.001
Perceived impact in 1 YearPerceived impact in 1 Year
 No change13317.7 No change4315.6.716
 Heighted awareness of hygiene43557.9 Heighted awareness of hygiene12144.0.219
 Increase use of PPE34445.8 Increase use of PPE11341.1.378
 Ask patients to reschedule if sick28538.0 Ask patients to reschedule if sick11541.8.002
 Increase non-operative measures prior to surgery15020.0 Increase non-operative measures prior to surgery5821.1.089
 Increase digital options for communication31441.8 Increase digital options for communication9233.5.678
How likely to attend a conference in 1 yearHow likely to attend a conference in 1 Year
 Likely49666.3 Likely14552.7.509
 Not likely557.4 Not likely217.6.363
 Unsure19726.3 Unsure5218.9.297
% telecommunication clinical visits/Week% Telecommunication clinical Visits/Week
 0-2539850.0 0-2517764.4<.001
 26-5011814.7 26-503713.5.872
 51-75779.6 51-75114.0.017
 76-10020826.0 76-10072.5<.001
Interest in online spine educationInterest in online spine education
 Very interested31842.5 Very interested5821.1<.001
 Interested30040.1 Interested10136.7.288
 Somewhat interested13117.5 Somewhat interested5620.4.021
 Not interested233.1 Not interested93.3.665
Total respondents902100Total respondents275100

Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA.

Bolded values indicate statistical significance at P < .05.

# = number of respondents/votes, % = percent, ± SD = standard deviation.

Personal Impact. Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA. Bolded values indicate statistical significance at P < .05. # = number of respondents/votes, % = percent, ± SD = standard deviation. Future Perceptions. Calculation of P-values was performed using chi-square, Fisher's exact test, and ANOVA. Bolded values indicate statistical significance at P < .05. # = number of respondents/votes, % = percent, ± SD = standard deviation.

Discussion

Since the initial AO Spine COVID-19 and Spine Surgeon Global Impact Survey was distributed in 2020, different parts of the world have responded to the pandemic in unique ways. With multiple waves of new COVID-19 variants and recent controversial guidelines released by governing public heathcare bodies (e.g. United States Center for Disease Control, World Heath Organization), it is certain that the COVID-19 pandemic remains a global headline whose end remains uncertain. The goal of this follow-up survey was to elucidate how the reactions and perceptions to this global crisis have evolved, noting distinct changes in various practice and personal domains, presenting a quantifiable 1-year follow-up metric of pandemic impact upon the spine surgeon community.

COVID-19 Survey

The original survey was the first to assess the multidimensional impact of COVID-19 on spine surgeons worldwide.[6] Since then, numerous other groups conducted their own assessment of the impact of the pandemic across other physician populations. Jain et al[14] examined the impact of the COVID-19 lockdown on 611 orthopedic surgeons in India and highlighted the lockdown’s psychological impact. Chan et al[15] surveyed 222 spine surgeons from 19 different Pacific Asian countries concerning the pandemic’s effects on clinical and surgical practice. These surveys, in addition to numerous others published over the past year, provide valuable insight into the knowledge and opinions of surgeons. Nevertheless, the original survey by Louie et al[6] and its current follow-up survey remain the only comprehensive and multidimensional assessments of the impact of COVID-19 on spine surgeons on a global scale.

Resources, Testing, and Vaccinations

At the time of the original survey, the COVID-19 pandemic remained in early stages, and testing and other resources were very scarce. Widespread active COVID-19 viral and antibody testing had not yet been employed, and infections were being inconsistently tracked and counted. Since then, there have been massive global efforts to provide affordable and accessible forms of testing, evidenced by the results of this follow-up survey. Not only did rates of testing amongst surgeons increase, but a much higher percentage of the respondents had tested positive or knew someone who had tested positive by the time of this follow-up survey. Direct contact with a COVID-19 positive patient was the most likely reason for the getting tested in the follow-up survey, further illustrating the personal and professional impact the pandemic has had globally. The original 2020 survey also preceded the development of COVID-19 vaccines. By 2021, vaccines had become widely available, and the vast majority (95%) of respondents had received at least 1 dose by the time of this follow-up survey. However, vaccination rates and overall perception of vaccine efficacy have varied across the world. Governmental and employer vaccination mandates have generated substantial controversy. Even throughout the pandemic, the perception on proper vaccine protocols has changed. Half of the respondents at the time of survey completion said they were required to be vaccinated against COVID-19, and even more said they would require the members of their team to be vaccinated. As we have learned more about the virus, government and private policies have adjusted accordingly.

Surgeon Well-Being

A goal of the survey was to assess how the surgeons’ health status has evolved throughout the pandemic and what factors play a role. In 2020, most of the world was in lockdown and respondents were quarantining at home, with less than 1% having been hospitalized for COVID-19. By the time of the 2021 survey, over 13.1% had taken sick leave for COVID, 2.5% had been hospitalized for COVID, and .4% had required ICU treatment. The pandemic has had a profound impact not only on the physical health of those that have become infected with the virus, but also the psychological and social health of everyone else.[16,17] Although waves of new variants have come and gone, the heightened sense of anxiety and stress throughout the world has remained. Healthcare professionals, specifically surgeons, have been no exception. A look into the state of mental health of clinicians in China found the prevalence of stress and anxiety disorders were 27% and 23%, respectively.[18] In a cohort of UK surgeons, over 56% were classified at high risk of developing psychological comorbidity from the stress and disruption caused by COVID-19, with a greater likelihood of developing burnout in the future.[19,20] As the pandemic has continued to evolve, so has the way surgeons have decided to allocate their time. Specifically increasing their time resting and planning for the future, and decreasing time on practice and medical work. The global crisis has caused many people to re-evaluate many aspects of life, and spine surgeons are no different. Similar to free time, the stress coping mechanisms of the respondents changed over the year. The most common coping strategies employed here by the respondents in order include spending time with family, exercising, reading, listening to music, and watching TV. Although it has always been important, the impact of the pandemic has really highlighted the importance of finding an appropriate coping strategy for every spine surgeon to help deal with the stresses of everyday life and prevent burnout.

Patient Care

Hospitals and healthcare facilities worldwide implemented interventions to protect their employees and prioritize the health of their patients.[21-25] In the beginning stages of the pandemic when the original survey was distributed, outpatient centers had begun transitioning to a virtual platform and most elective procedures were put on pause. The most frequent intervention was the cancellation of elective surgeries (86%), largely to allocate limited materials, such as hospital beds and medical staff, to provide perioperative care and support for patients requiring an emergent operation. In the present follow-up survey, the number of elective surgery cancellations dropped to 61%. Other common hospital interventions included cancellations of hospital meetings (66%) and cancellations of educational/academic activities (62%). Our results also indicated that many individuals felt adequate PPE was provided in their institutions. Less than half of respondents reported adequate PPE in the original survey, which likely indicates a vast improvement in the response to the global health crisis by the medical community. When evaluating the perceptions of effectiveness of responses to the pandemic by hospitals, the respondents in the 2021 survey were more likely to believe that acceptable actions were being taken compared to their 2020 conterparts, suggesting an overall improvement in responses made by the healthcare systems. Despite many spine procedures being considered non-emergent and thus delayed, numerous patients may experience prolonged pain and debilitations by postponing their treatment. Studies have already reported psychological and economic impacts that result from a decrease in physical function and the inability to work.11 Further studies will be required to evaluate the full impact of treatment delay caused by the COVID-19 pandemic on overall patient well-being.

Government, Media, and Future Guidelines

From the onset of the pandemic to now, governments have instituted numerous public health policies to curb the spread of the virus. The most common interventions included closures of schools/universities (81%), closure of non-essential businesses (74%), closure of dine-in restaurants (72%), and the cancellation of elective surgeries (60.3%). Responses from the governments were consistent between surveys. Although the effectiveness of these interventions are still uncertain, overall sentiment on effectiveness of governmental policies may be approximated by using survey responses that probe perceptions on how governments have responded to the pandemic, media portrayal and coverage of the pandemic, and current stressors individuals deal with because of the pandemic. Perceptions of government handling of the pandemic changed drastically over the span of a year between surveys. Nearly 60% of the respondents of the original survey thought the government’s efforts were effective while just 35% shared the same belief a year later in the follow-up. Similarly, there was an increase in the percentage of people that belief that futher guidelines are needed, suggesting more than just a year is needed for changes to take effect. It is evident that the outbreak has not only impacted surgeons in their private lives but also professionally, as our results indicate decreases in elective surgeries, clinical time, research productivity, and training experiences overall since the start of the pandemic yet increases in each domain from the 2020 survey to the 2021 follow-up. To continue professional growth and provide quality patient care, continued utilization of technological resources is evident. Most respondents reported interest in online spine education and have already incorporated recommended alternatives for clinical visits, such as telecommunication,12 into their practice. However, proper infrastructure must first be implemented to allow general access to these resources to hospitals and patients.

Telemedicine and Virtual Education

After government/public health agencies urged that all outpatient clincs, hospitals, and ambulatory surgical centers limit non-essentail activity in April of 2020, some healthcare centers experienced a decrease of more than 80% of in-person visits.[26,27] This caused healthcare providers to adjust the way they traditionally delivered services to their patients and implement new strategies to keep up with the evolving landscape. Telemedicine rapidly became a tool that allowed providers to manage patients’ healthcare from a distance while maintaining social distance and minimizing spread.[28] Although there were geographical differences in the rate of telemedicine adoption and utilization, Riew et al[24] reported a significant increase in the use of telemedice globally by spine surgeons in the early stages of the pandemic. Similar to these findings and the global trend, the spine surgeons in the original Louie et al[6] survey experienced a rapid rise in telehealth visits in the initial wave of the COVID-19 pandemic.[10] However, in our follow-up survey, spine surgeons reported a significant decrease in the amount of percent of clinical visits they conducted over telecommunication per week. Drastically, in 2020 over 25% of the spine surgeons reported that 76-100% of their clinical visits occurred using telecommunication where as only 2.5% of the respondents from the 2021 follow-up attested to more than 76% of their clinical visits occurred using telecommunication. Depite the drop in total percentage of cases occurring over telehealth, 64% of spine surgeons still reported that 0-25% of their weekly clinical visits occurred over telecommunicationin during this period. Our results support those of a Delphi study examining telemedicine utilization in spine surgery by Iyer et al[21] that telemedicine was initially introduced out of necessity but because of patient satisfaction and cost savings, it is a mainstay. According to Mann et al,[29] telehealth has transformed the clinical practices of providers across multiple specialties globally. Patients have become accustomed to sharing biometric data and communicating with their provider over electronic platforms with consistently high patient satisfaction levels.[29,30] Initially, hesistant to adopt telehealth because of the challenges of conducting a proper neurological exam without direct surgeon-to-physician contact, spine surgeons are confident in the ability of telemedicine to communicate with patients as concluded by Lovecchio et al[22] Based on a global study of spine surgeons by Riew et al,[24] imaging review, initial visits, and follow-up visits were considered feasible to conduct over telemedice, and, interestingly, the vast majority of surgeons still preferred at least on in-person pre-operative visit. Although limitations exist, telehealth appears to be part of the management options of the spine specialist because of the way it has transformed how providers can offer care to their patients. Similar to telemedicine, virtual education has transformed due to the COVID-19 pandemic. A consequence of the social distancing and quarantine mandates imposed by public and private governing bodies, essentially all major spine educational confrences were suspended for most of 2020 and into 2021. Originally reported by Louie et al,[6] spine surgeons’ initial interest in online spine education increased in the early stages of the pandemic. In response to increased demand and decreased supply of spine education, virtual or hybrid spine conferences by various societies as well as webinars were developed.[31] Participants of such initiatives have in large part viewed the content as highly valuable to their practice and would continue participating post COVID-19. In a worldwide study by Swiatek et al[10] found that dedicating more than 25% of their practice to teaching was a predictor for increased interest in online education amoung spine surgeons. Because most conferences and lectures have returned to being in-person, our follow-up study found that interest in online spine education decreased in 2021. However, clinicians want to see “virtual” education continue post COVID-19,[31] as virtual options would help offset costs of travel to locations, decrease time away from work, and provide more flexible learning options.

Strengths and Limitations

As with any survey study, this follow-up study is not without limitation. The survey was distributed to the current AO Spine surgeon members’ network and received a 7% response rate, a reduction from 23.7% in the original survey. However, there were no significant differences in the respondents’ demographics between the two surveys. Due to the anonymous nature of the surveys, it was impossible to know if any of the same respondents from the original Louie et al[6] survey also responded to this follow-up; however, demographic findings were promising because it allowed us to compare between the two different time points. Selection bias could be a possible limitation and explanation for the low response rate. Because of the smaller number of respondents in this follow-up, we did not statistically analyze the geographical differences withing this second survey. Ultimately, a possible explanation for the difference in response rate is the fact that when the original survey was distributed, a large majority of the respondents had paused their clinical and surgical responsibilities and were quarantined at home, and therefore more likely to take the time to respond. Another limitation is the size of the survey itself. In the follow-up survey, we included 90 questions, up from 73 in the original, which may contribute to survey fatique and lead to fewer responders. In the original Louie et al[6] survey there was a completion rate of 24% whereas in this follow up there was a completion rate of approximately 6%. We attribute this disparity to surgeons not being in quarantine and returning to their clinical duties by the time this follow-up survey was distributed, as well as an increased number of AO Spine members by almost 1000 more member for this follow-up. Although the responses in resource allocation has changed, various countries were still experiencing waves of COVID-19 and its variants; hence, the level of restrictions and lockdowns may be variable. In addition, the current study presents a univariate analytical approach to the data analyses; however, future efforts will consist of more multivariate approaches to identify unique determinants to impact outcomes. Despite its limitations, this follow-up survey still provides invaluable information on the changing prospective impact the COVID-19 pandemic has had on spine surgeons worldwide, providing quantifiable metrices and documented testament of what the community has sustained throughout a public health ordeal.

Conclusion

The original survey by Louie et al[6] was the first international study to assess the COVID-19 impact among spine surgeons and in fact among any healthcare professionals worldwide. Since that time, there have been many laws and regulations implemented worldwide as a response to minimize mortality and morbidity from the virus. Our follow-up, prospective survey, the first of its kind, highlights distinct personal and practice-based platforms that spine surgeons have responded to or been impacted upon by the pandemic throughout 1 year. Our study also discusses the evolving impact the pandemic has had on telemedice and virtual education for spine surgeons, which appears to be a mainstay moving forward. Our study provides documented and evolving metrices that may help mitigate and direct handling or expectations of future pandemics among spine surgeons.
  25 in total

1.  [Mental health survey of medical staff in a tertiary infectious disease hospital for COVID-19].

Authors:  J Z Huang; M F Han; T D Luo; A K Ren; X P Zhou
Journal:  Zhonghua Lao Dong Wei Sheng Zhi Ye Bing Za Zhi       Date:  2020-03-20

2.  The Impact of COVID-19 Pandemic on Spine Surgeons Worldwide.

Authors:  Philip K Louie; Garrett K Harada; Michael H McCarthy; Niccole Germscheid; Jason P Y Cheung; Marko H Neva; Mohammad El-Sharkawi; Marcelo Valacco; Daniel M Sciubba; Norman B Chutkan; Howard S An; Dino Samartzis
Journal:  Global Spine J       Date:  2020-05-06

3.  Are ENT surgeons in the UK at risk of stress, psychological morbidities and burnout? A national questionnaire survey.

Authors:  Ananth Vijendren; Matthew Yung; Uttam Shiralkar
Journal:  Surgeon       Date:  2016-03-16       Impact factor: 2.392

4.  Personal Health of Spine Surgeons Can Impact Perceptions, Decision-Making and Healthcare Delivery During the COVID-19 Pandemic - A Worldwide Study.

Authors:  Arash J Sayari; Garrett K Harada; Philip K Louie; Michael H McCarthy; Michael T Nolte; Gary M Mallow; Zakariah Siyaji; Niccole Germscheid; Jason P Y Cheung; Marko H Neva; Mohammad El-Sharkawi; Marcelo Valacco; Daniel M Sciubba; Norman B Chutkan; Howard S An; Dino Samartzis
Journal:  Neurospine       Date:  2020-06-30

5.  The psychological and mental impact of coronavirus disease 2019 (COVID-19) on medical staff and general public - A systematic review and meta-analysis.

Authors:  Min Luo; Lixia Guo; Mingzhou Yu; Wenying Jiang; Haiyan Wang
Journal:  Psychiatry Res       Date:  2020-06-07       Impact factor: 3.222

6.  Provider confidence in the telemedicine spine evaluation: results from a global study.

Authors:  Francis Lovecchio; Grant J Riew; Dino Samartzis; Philip K Louie; Niccole Germscheid; Howard S An; Jason Pui Yin Cheung; Norman Chutkan; Gary Michael Mallow; Marko H Neva; Frank M Phillips; Daniel M Sciubba; Mohammad El-Sharkawi; Marcelo Valacco; Michael H McCarthy; Melvin C Makhni; Sravisht Iyer
Journal:  Eur Spine J       Date:  2020-11-22       Impact factor: 3.134

7.  Impact of COVID-19 on Clinical Practices during Lockdown: A pan India Survey of Orthopaedic Surgeons.

Authors:  V K Jain; G K Upadhyaya; K P Iyengar; M K Patralekh; H Lal; R Vaishya
Journal:  Malays Orthop J       Date:  2021-03

8.  Telemedicine in research and training: spine surgeon perspectives and practices worldwide.

Authors:  Karim Shafi; Francis Lovecchio; Grant J Riew; Dino Samartzis; Philip K Louie; Niccole Germscheid; Howard S An; Jason Pui Yin Cheung; Norman Chutkan; Gary Michael Mallow; Marko H Neva; Frank M Phillips; Daniel M Sciubba; Mohammad El-Sharkawi; Marcelo Valacco; Michael H McCarthy; Melvin C Makhni; Sravisht Iyer
Journal:  Eur Spine J       Date:  2021-01-22       Impact factor: 3.134

9.  Spine Surgery and COVID-19: The Influence of Practice Type on Preparedness, Response, and Economic Impact.

Authors:  Joseph A Weiner; Peter R Swiatek; Daniel J Johnson; Philip K Louie; Garrett K Harada; Michael H McCarthy; Niccole Germscheid; Jason P Y Cheung; Marko H Neva; Mohammad El-Sharkawi; Marcelo Valacco; Daniel M Sciubba; Norman B Chutkan; Howard S An; Dino Samartzis
Journal:  Global Spine J       Date:  2020-08-07

10.  Spine Patient Satisfaction With Telemedicine During the COVID-19 Pandemic: A Cross-Sectional Study.

Authors:  Alexander M Satin; Kartik Shenoy; Evan D Sheha; Bryce Basques; Gregory D Schroeder; Alexander R Vaccaro; Isador H Lieberman; Richard D Guyer; Peter B Derman
Journal:  Global Spine J       Date:  2020-10-22
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