When a disaster occurs, those who provide health care are subject to the same challenges as others in the affected area; they may be injured, lose family members, suffer significant damage to their property or experience significant emotional issues. Disasters often result in additional health service challenges, placing increased demands on health workers. These may include longer hours, deployment in other locations or functions, and dealing with personal loss, confusion or grief.
Health care workers must be prepared to deal with a range of disasters, including natural disasters, infectious disease outbreaks or even bioterrorism-related events. If physically able to attend work, some health workers may not be willing to report due to illness of dependents, fear, or closure of childcare facilities and schools.
A recent survey in Australia concerning an influenza pandemic situation found that 83% of health workers surveyed were prepared to report to work if a patient in their ward/department had an influenza-like illness (Seale 2009). This is consistent with surveys of health care workers in Singapore, Japan and Canada following SARS, in which many health workers acknowledged that the risks associated with SARS were part of their work, although high levels of fear and anxiety were identified across all occupational groups (Campbell 2006, Imai 2005, Koh 2005). A survey of paramedics also performed in Australia found that not all paramedics were willing to report to work during disasters. Concerns identified included health and safety, communication issues, the need for accurate and timely information, and suitable training (Smith 2007).
Courtesy: NSW Nurses Association
It is essential to address potential barriers to healthcare workers’ participation in health emergencies.
While several studies focusing on willingness to report to work during public health disaster have been conducted in the United States (Balicer 2006, Barnett 2005, Chaffee 2009, Barnett 2009), their results may not be relevant to the Australia context. Reasons for the differences include the following: (1) different health care systems in the United States and Australia, (2) many of the US surveys focused on government public health workers, not frontline hospital staff, (3) different public health and healthcare professional culture in the United States and Australia, and (4) a differing perception and reality of the types of disasters or threats which may occur in Australia compared to the United States. We therefore conducted a survey of front line health staff in a large regional health workforce in Australia to determine their perceived willingness to report to work during three public health emergency scenarios (weather event, influenza pandemic and bioterrorism event).
If physically able to attend work, frontline hospital staff may not be willing to report due to illness of dependents, fear, or closure of childcare facilities and schools.
A cross sectional survey of Hunter New England Area Health Service (HNEAHS) employees defined as front line health staff for responding during a large scale public health disaster was conducted between 1 November 2007 and 30 January 2008. HNEAHS in Northern NSW covers both rural and metropolitan areas, with approximately 14,500 staff providing health care for approximately 840,000 people.
Front line health staff were defined as: hospital staff, selected community health staff (nurses, social workers, early childhood nurses, Aboriginal health workers and migrant interpreter services), all mental health staff and all pathology staff. In addition staff were only eligible for inclusion in the study if they were classified as full-time or permanent and thus had a contact number and payroll location. All staff meeting the inclusion criteria were identified in the HNEAHS human resource database.
A simple random sample of 1600 employees was selected using SAS version 9.1 (SAS institute Inc. Carey, NC, USA). Allowing for an expected response rate of 50% this number would allow precise estimation of outcomes of interest (i.e. 95% confidence intervals for proportions within ± 4%). It would also allow detection of difference in characteristics between those who were and were not willing to report to work of 10% for binary variables and 0.2 standard deviations for continuous variables, with a significance level of 5% and 80% power.
The public health infrastructure survey tool designed by the Johns Hopkins School of Public Health's Center for Public Health Preparedness and used in the US context (Balicer 2006) was adapted for the Australian health context. Pre-survey interviews were conducted with 25 staff meeting the inclusion criteria to ensure survey content was appropriate for the Australian environment. The survey tool was amended accordingly, including terminology changes; two questions were added to all three scenarios: willingness to work in a different location, and confidence in working in a different location; and two questions were added to the influenza pandemic scenario: awareness of appropriate infection control measures and access to vaccine would improve confidence. The survey included questions on personal characteristics, such as professional classification, gender, age and clinical status. The respondents were required to use a 10-point scale from 1 (agree) to 10 (disagree) when responding to questions.
A Computer Assisted Telephone Interviewing (CATI) system was used to contact randomly selected individuals. Employees were telephonically provided with a short background to the study and offered the choice of declining to participate, filling out the survey on-line or by email using a PDF version, or a paper version by fax or internal mail. If there was no contact with the employee at the first telephone call, up to six call-backs were made. Participants were excluded if they had resigned, were on long service leave, maternity leave or extended sick leave, if they were on secondment outside the health department or if they had relocated and their whereabouts were unknown. Participants received a follow-up telephone call or email if they had not returned the survey within three weeks. Ethics approval for the study was obtained from the Hunter New England Human Research ethics Committee.
The data was cleaned and quality checked using SAS, version 9.1 (SAS Institute, Carry, NC, USA). Questions about scenario-related attitudes and beliefs were dichotomised into those who definitely agreed (1, 2 and 3) and others (4-10). The proportion of individuals willing to report to work for each scenario was determined with 95% confidence intervals. For each scenario these proportions were compared across standard socio-demographic variables and attitudes / beliefs using chi square tests. Multivariable logistic regression was used to explore the association between socio-demographic variables, attitudes/beliefs and willingness to report to work, with variables included in the initial model if their p value was less than 0.2 in univariable analysis. A backward stepwise model was employed for removing variables with a p-value less than 0.1 on the likelihood ratio test. The Hosmer-Lemeshow test was used to assess the fit of the final models (Hosmer 2000).
Of the 14,000 HNEAHS employees 8,905 met the inclusion criteria for front line health workers during a public health emergency, and 1600 were randomly selected to participate in the survey. Two hundred and eighty seven were ineligible due to maternity leave (n=54,19%), long service leave (n=44,15%), annual leave (n=54,19%), extended sick leave (n=15, 5%), resignation (n=32, 11%), relocation/secondment (n=6, 2%), whereabouts unknown (n=42, 14%), uncontactable (n=32, 11%), changed work status to casual (n=6, 2%) and other leave (n=2, 1%). Of the 1313 eligible to participate, 868 (66%) returned completed questionnaires, 112 declined participation and 333 failed to return their questionnaire. The sample completing the questionnaire were from similar locations and settings as those not responding (Table 1) but there was a slightly higher proportion of patient support / administration staff and a slightly lower proportion of hospital support staff among those completing the questionnaire compared to those who did not.
Table 1. Demographic characteristics of Hunter New England Area Health front line disaster response staff who did and did not respond to the survey, 2008.
Characteristic |
Respondents |
Non-respondents |
Chi squared |
df |
p value# |
|
---|---|---|---|---|---|---|
Professional Classification |
Doctor |
46 (5%) |
36 (8%) |
|||
Nurse |
438 (50%) |
227 (51%) |
||||
Allied Health |
72 (8%) |
26 (6%) |
||||
Administration/Clerk |
155 (18%) |
51 (11%) |
||||
Pathology/Technical |
90 (10%) |
46 (10%) |
||||
Hospital Support Services* |
67 (8%) |
59 (13%) |
23.13 |
5 |
<0.01 |
|
Location |
Rural |
452 (52%) |
222 (50%) |
|||
Urban |
416 (48%) |
223 (50%) |
0.56 |
1 |
0.45 |
|
Facility Setting |
Acute |
406 (47%) |
218 (49%) |
|||
Community |
462 (53%) |
227 (51%) |
0.58 |
1 |
0.45 |
* including catering services, linen services
Willingness to respond if required differed by emergency scenario; 78% (95%CI 75%-81%) of participants indicated they would be willing to report to work during a weather related event compared to 67% (95% CI 64%-70%) during an influenza pandemic and 52% (95%CI 48%-55%) during a bioterrorism event. Willingness to report to work did not differ significantly by clinical status or professional classification, however rural participants were more likely than urban participants to indicate a willingness to report to work during a weather related or a bioterrorism event as shown in Table 2. Participants who worked in a community health facility were more likely to indicate a willingness to report to work during a influenza pandemic scenario.
Table 2a. Demographic characteristics, attitudes and belief associations with willingness to report to work if required during each emergency scenario, HNEAHS, 2008.
|
Weather-related event |
Influenza pandemic |
Bioterrorism event |
||||
---|---|---|---|---|---|---|---|
Characteristic |
n (%)@ |
p-value# |
n (%)@ |
p-value# |
n (%)@ |
p-value# |
|
Clinical Status |
Clinical |
423 (78%) |
361 (66%) |
277 (51%) |
|||
Non-clinical |
236 (78%) |
0.93 |
202 (68%) |
0.67 |
153 (52%) |
0.96 |
|
Professional Classification |
Doctor |
33 (79%) |
29 (67%) |
29 (67%) |
|||
Nurse |
324 (77%) |
275 (65%) |
207 (50%) |
||||
Allied Health |
71 (86%) |
59 (69%) |
42 (49%) |
||||
Hospital Support |
75 (84%) |
59 (63%) |
44 (48%) |
||||
Administration / Clerk |
87 (73%) |
79 (66%) |
59 (50%) |
||||
Pathology / technician |
75 (85%) |
0.25 |
69 (79%) |
0.20 |
53 (62%) |
0.11 |
|
Gender |
Male |
152 (81%) |
126 (67%) |
111 (60%) |
|||
Female |
512 (77%) |
0.24 |
442 (67%) |
0.89 |
320 (49%) |
0.01 |
|
Work Load |
Full time |
425 (79%) |
372 (69%) |
300 (57%) |
|||
Part Time |
234 (76%) |
0.23 |
195 (63%) |
0.08 |
132 (43%) |
0.13 |
|
Age (years) |
20-29 |
55 (73%) |
44 (59%) |
40 (54%) |
|||
30-39 |
111 (73%) |
91 (59%) |
60 (40%) |
||||
40-49 |
231 (76%) |
195 (65%) |
146 (49%) |
||||
50-59 |
223 (82%) |
198 (73%) |
153 (58%) |
||||
>60 |
48 (84%) |
0.14 |
44 (79%) |
0.01 |
34 (62%) |
<0.01 |
|
Dependents |
Yes |
359 (77%) |
306 (66%) |
226 (49%) |
|||
No |
300 (79%) |
0.59 |
260(69%) |
0.39 |
203 (55%) |
0.10 |
|
Location Type |
Urban |
297 (72%) |
264 (64%) |
194 (48%) |
|||
Rural |
371 (83%) |
<0.01 |
309 (69%) |
0.13 |
241 (55%) |
0.05 |
|
Facility type |
Acute |
301 (77%) |
224 (62%) |
192 (49%) |
|||
Community |
367 (79%) |
0.42 |
329 (71%) |
<0.01 |
243 (54%) |
0.17 |
*total numbers differ slightly due to missing data
@ number and % willing to report to work
# p values for chisquare test
Table 2b. Attitudes and belief associated with willingness to report to work if required during each emergency scenario, HNEAHS, 2008.
|
Weather-related event |
Influenza pandemic |
Bioterrorism event |
|||
---|---|---|---|---|---|---|
Attitudes / Beliefs |
n (%)@ |
p-value# |
n (%)@ |
p-value# |
n (%)@ |
p-value# |
Likelihood of event occurring in region |
492 (81%) |
<0.01 |
253 (81%) |
<0.01 |
35 (53%) |
0.81 |
Public health consequence would be severe if occurred |
387 (83%) |
<0.01 |
510 (71%) |
<0.01 |
356 (56%) |
<0.01 |
Likelihood of being asked to report |
357 (89%) |
<0.01 |
365 (64%) |
<0.01 |
245 (56%) |
<0.01 |
Previous training |
85 (80%) |
0.58 |
88 (72%) |
0.24 |
19 (48%) |
0.60 |
Knowledge of public health impact |
184 (87%) |
<0.01 |
209 (75%) |
<0.01 |
69 (66%) |
<0.01 |
Confidence in area health service preparedness |
228 (87%) |
<0.01 |
196 (89%) |
<0.01 |
45 (73%) |
<0.01 |
Mentally prepared |
419 (90%) |
<0.01 |
317 (88%) |
<0.01 |
139 (85%) |
<0.01 |
Knowledge of role |
212 (89%) |
<0.01 |
179 (84%) |
<0.01 |
79 (77%) |
<0.01 |
Confidence in skills |
510 (89%) |
<0.01 |
399 (83%) |
<0.01 |
230 (79%) |
<0.01 |
Confidence safe to work |
251 (92%) |
<0.01 |
446 (80%) |
<0.01 |
258 (78%) |
<0.01 |
Confident will be safe while at work |
391 (92%) |
<0.01 |
276 (89%) |
<0.01 |
132 (86%) |
<0.01 |
Confident to perform duties |
463 (90%) |
<0.01 |
328 (82%) |
<0.01 |
190 (82%) |
<0.01 |
Family prepared to function in their absence |
363 (93%) |
<0.01 |
342 (87%) |
<0.01 |
219 (80%) |
<0.01 |
Discussed with family the possibility of working |
214 (90%) |
<0.01 |
130 (23%) |
<0.01 |
53 (12%) |
<0.01 |
Confident to work in a different location |
337 (89%) |
<0.01 |
306 (88%) |
<0.01 |
214 (85%) |
<0.01 |
Able to communicate with the public |
216 (92%) |
<0.01 |
165 (80%) |
<0.01 |
40 (67%) |
0.02 |
Importance of role in response |
242 (87%) |
<0.01 |
280 (81%) |
<0.01 |
165 (68%) |
<0.01 |
Successful performance of role is important |
345 (85%) |
<0.01 |
317 (76%) |
<0.01 |
188 (63%) |
<0.01 |
Awareness of infection control procedures |
373 (76%) |
<0.01 |
||||
Access to a vaccine will improve confidence |
381 (93%) |
<0.01 |
*total numbers differ slightly due to missing data
@ number and % willing to report to work
# p values for chisquare test
Multivariable analysis indicated that those factors associated with a respondent's willingness to report to work differed for the three scenarios. The three variables significantly associated with higher odds of willingness to report to work during all three scenarios were: perceived confidence in own skills, likelihood of being asked to respond and family preparedness (Table 3).
For a weather-related event, additional significant variables were working in a rural location, ability to communicate with public, confidence in personal safety while at work and confidence in ability to perform duties. For an influenza pandemic, additional significant variables were perceived likelihood of the event occurring in the region, confidence in being able to safely get to work, confidence in being able to work in a different location, ability to communicate with the public, confidence in the Area Health Service preparedness and access to vaccine would improve confidence. The final model for a bioterrorism event also included full-time work load, confidence in being able to safely get to work, confidence in personal safety while at work, confidence in ability to work in a different location, and ability to communicate with the public (Table 3).
Table 3. Multivariate final models for front line health workers’ willingness to report to work if required during a weather related, influenza pandemic and bioterrorism emergency scenario, HNEAHS, 2008.£
|
Weather-related event model |
Influenza pandemic model |
Bioterrorism event model |
||||
---|---|---|---|---|---|---|---|
Characteristic |
OR* |
95%CI |
OR* |
95%CI |
OR* |
95%CI |
|
Work Location |
Urban |
1.0 |
|||||
Rural |
2.1 |
1.4-3.3† |
|||||
Work Load |
Full time |
1.6 |
1.0-2.3† |
||||
Part time |
1.0 |
||||||
Confident in their own skills |
Yes |
3.0 |
2.0-4.8†† |
1.9 |
1.2-3.0† |
2.5 |
1.6-3.8†† |
No |
1.0 |
1.0 |
1.0 |
||||
Family prepared to function during their absence |
Yes |
4.0 |
2.4-6.7†† |
2.5 |
1.6-4.0†† |
3.2 |
2.0-5.1†† |
No |
1.0 |
1.0 |
1.0 |
||||
Likelihood of event occurring in the region |
Yes |
2.8 |
1.8-4.4†† |
||||
No |
1.0 |
||||||
Confident that can safely get to work |
Yes |
3.3 |
1.5-3.6†† |
2.8 |
1.9-4.3†† |
||
No |
1.0 |
1.0 |
|||||
Confident to work in different location |
Yes |
2.1 |
1.3-3.5† |
4.8 |
2.9-7.9†† |
||
No |
1.0 |
1.0 |
|||||
Confidence in personal safety while at work |
Yes |
2.6 |
1.5-4.4† |
3.1 |
1.6-6.0†† |
||
No |
1.0 |
1.0 |
|||||
Communicate with public |
Yes |
1.9 |
1.0-3.5† |
0.5 |
0.3-0.9† |
0.3 |
0.1-0.7† |
No |
1.0 |
1.0 |
1.0 |
||||
Likelihood of being asked to respond |
Yes |
2.7 |
1.7-4.3† |
2.5 |
1.6-3.9†† |
3.4 |
2.3-5.1†† |
No |
1.0 |
1.0 |
1.0 |
||||
Confident to perform duties required |
Yes |
1.8 |
1.1-3.0†† |
||||
No |
1.0 |
||||||
Confidence in the Area Health Service’s preparedness |
Yes |
2.7 |
1.5-4.9† |
||||
No |
1.0 |
||||||
Access to vaccine will improve confidence** |
Yes |
8.2 |
4.9-13.7†† |
||||
No |
1.0 |
||||||
Discussed with family |
Yes |
0.4 |
0.2-0.8† |
||||
No |
1.0 |
£ Table only displays data for significant variables in the final model for each scenario
* Adjusted for professional classification, age and gender.
** Access to a vaccine will improve confidence” was only asked for the influenza pandemic scenario.
† p<0.05 †† p<0.001
On the basis of the Hosmer-Lemeshow goodness of fit test the final models for each scenario fitted the data well (weather event: x2=7.54, df=8, p=0.48, influenza pandemic: x2=6.29, df=8, p=0.61 and bioterrorism event: x2=6.90, df=8, p=0.55).
Willingness to report to work differed by scenario. A higher proportion of staff indicated willingness to report to work for a weather-related disaster than for other disasters. Previous studies, including an Australian study of paramedics, also found that willingness to present to work was greatest for conventional disasters, such as weather related events, and lowest for non-conventional disasters, such as those caused by infectious diseases (Qureshi 2005, Smith 2009). This may relate to familiarity, with most local health workers having some experience of working during a local natural disaster in the recent past (Cretikos 2007).
Frontline health workers were less willing to report to work if they reported a lack of confidence in their skills, lack of family preparedness or indicated a belief that their role may not be important. Staff confidence in their ability to perform their role and staff perception of likelihood of being asked to respond appear to be pivotal factors in their willingness to respond, requiring not only a clear role delineation but ideally prior opportunities to perform this role. Field or desktop exercises may assist in increasing familiarity with an individual’s roles during a response to a disaster (Collander 2008, Johns Hopkins University Evidence-based Practice Centre 2004).
Family preparedness has been a missing element in most disaster plans. Many health workers have other people to consider when making the decision to report to work (Dalton 2008). Staff need to be equipped with the skills to discuss such events with their family members, develop their own family plan and also be assured of reliable communication links and the welfare of family (Barnett 2005, Qureshi 2002, Chaffee 2009). During SARS, many family members of health workers working at affected hospitals were discriminated against in the community (Koh 2005, Campbell 2006). Communication plans need to address these broad family issues.
Previously-identified barriers to participation in responding to a disaster include transport problems, care for children, elderly or pets, lack of knowledge concerning risk and responders role, and fear or concern for family and self (Smith 2007, Cretikos 2007, Ehrenstein 2006). Where available, provision of appropriate vaccinations or antivirals and effective communication are important strategies for improving participation of health workforce during an influenza pandemic (Cretikos 2007).
A previous study of local public health workers from four health regions in the United States found that “concerned and confident” workers – i.e., those with a sense of threat, coupled with a sense of efficacy toward responding to that threat – had the highest rates of willingness to respond to an influenza pandemic (Barnett 2009). Our study found similar findings, with those believing an influenza pandemic was likely in the region having higher odds of reporting to work (OR2.8 95%CI 1.8-4.4). Our study also found similar scenario-specific trends, with a terrorism event producing the lowest willingness to respond.
While willingness to report to work differed by scenario, our research indicated that a similar framework for preparing staff and their families could apply across disaster scenarios. When developing disaster response plans, health authorities should consider the following six areas: 1) determine roles and type of staff required, 2) accurately determine likely threats to staff and their families resulting from fulfilling their role (predict concerns), 3) provide basic education on disaster response, the threat of different types of disasters and the roles staff may be asked to fulfil (do not assume health workers know their role), 4) develop strategies to ensure staff confidence in their role and to mitigate risk in the workplace, 5) develop strategies to assure staff members of the importance of their role and to assist them to assist their families to function during a disaster, and 6) develop strategies to maintain knowledge and engagement of health workforce. Similar strategies have been proposed in the United States focusing on role education and role importance (Barnett 2009).
While this study is limited by its cross sectional design, the results provide a starting point to engage health workers in the response planning process. The information gathered will guide planning activities. As is common with similar study designs, results reflect respondents’ intentions rather than actual responses but do provide a baseline against which actual responses should be measured following the occurrence of a public health emergency. This will be of particular interest after the widespread introduction of pandemic H1N109 influenza in Australia.
Health workers may be required to work during a number of different disasters scenarios. To ensure they will report to work when they are most needed, response plans need to ensure personal confidence of frontline health staff in their defined role, emphasise the value of their role and address their family concerns.
I would like to acknowledge, Megan Valentine and John Fejsa from Hunter New England Health for their technical support in producing the survey tool and collecting the data and Carol B thompson from the Department of Statistics, Johns Hopkins Bloomberg School of Public Health and Natalie L Semon, Executive Director, Public Health Preparedness Programs, Johns Hopkins Bloomberg School of Public Health for their assistance and support during the project. The authors also acknowledge the funding support provided by NSW Health through the Hunter Medical Research Institute.
The co-development of this manuscript by the Johns Hopkins Center for Public Health Preparedness [CDC/Cooperative Agreement# U90TP324236; Grant# 906860] and the Johns Hopkins Preparedness and Emergency Response Research Center [CDC/Cooperative Agreement# 1P01tP00288-01; Grant# 104264] was supported in part through funding from the U.S. Centers for Disease Control and Prevention (CDC). All aspects of all authors' work were independent of the funding source.
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Miss Kirsty Hope, Research Fellow, Hunter New England Population Health, Newcastle Institute of Public Health, University of Newcastle
Dr David Durrheim, Service Director and Conjoined Professor in Public Health Hunter New England Population Health, University of Newcastle
Dr Daniel Barnett, Assistant Professor, Department of Environmental Health services, Johns Hopkins Bloomberg School of Public Health
Professor Catherine D’Este, Professor in Biostatistics and Deputy Head (Public Health) School of Medicine and Public Health Centre for Clinical Epidemiology and Biostatistics, School of Medicine and Public Health, Faculty of Health, The University of Newcastle
Mr Christopher Kewley, Area Director of Nursing and Midwifery and Associate Conjoint Professor of Nursing, Hunter New England Health and University of Newcastle.
Dr Craig Dalton, Public Health Physician and Conjoint Senior Lecturer, Hunter New England Population Health and School of Medical Practice and Population Health, University of Newcastle
Mrs Nadine White Manager, HR Advisory and Change Services, The Australian National University
Mrs Julie Kohlhagen, Clinical Nurse Consultant Communicable Diseases, Hunter New England Population Health
Dr Jonathan Links, Professor and Director, Johns Hopkins Center for Public Health Preparedness, Johns Hopkins Bloomberg School of Public Health
Corresponding author can be contacted at Kirsty.Hope@hnehealth.nsw.gov.au