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Journal of Pain Research logoLink to Journal of Pain Research
. 2018 Jun 19;11:1171–1180. doi: 10.2147/JPR.S160847

Chronic pain and geriatric syndromes in community-dwelling patients aged ≥65 years

Orly Liberman 1, Tamar Freud 2, Roni Peleg 2,3, Ariela Keren 1, Yan Press 2,4,5,
PMCID: PMC6016537  PMID: 29950889

Abstract

Background

In growing elderly populations, there is a heavy burden of comorbidity and a high rate of geriatric syndromes (GS) including chronic pain.

Purpose

To assess the prevalence of chronic pain among individuals aged ≥65 years in the Southern District of Israel and to evaluate associations between chronic pain and other GS.

Methods

A telephone interview was conducted on a sample of older adults who live in the community. The interview included the Brief Pain Inventory and a questionnaire on common geriatric problems.

Results

Of 419 elderly individuals who agreed to be interviewed 232 (55.2%) suffered from chronic pain. Of those who reported chronic pain, 136 participants (68.6%) noted that they had very severe or unbearable pain. There were statistically significant associations between the pain itself and decline in patient’s functional status, increased falls, reduced mood, and cognitive decline.

Conclusion

The results of this study show that chronic pain is very common in older adults and that it is associated with other GS. There is a need to increase awareness of chronic pain in older adults and to emphasize the important role that it plays in their care.

Keywords: pain, impact of pain, older adults, geriatric syndromes, community dwelling

Introduction

GS1,2 are clinical conditions in older adults that do not fit into discrete disease categories.3 Conditions such as delirium, pressure ulcers, falls, and incontinence are “widely known”,3,4 but other conditions, such as visual and hearing problems, elder abuse, malnutrition, sleep problems, and even dizziness and syncope too have been included under the heading of GS.5

Pain is a very common problem among adults. The prevalence of chronic pain in the adult population ranges from 20% to 50%, depending on the study population, the sampling method, the interview method, the definition of “chronicity” and the definition of the site of pain.610

Many studies have investigated associations between pain and specific GS, such as functional limitations,6,7,9,1115 affective disorders,6,10,14,1626 cognitive decline,2730 and falls.12 However, a literature review on the association between pain and GS and their mutual effect on outcomes, such as mortality, functional decline, falls, etc., did not yield a clear-cut picture. Lohman et al31 found that the inclusion of persistent pain as an additional criterion for frailty led to a potentially better prediction of incident adverse outcomes. Andrews et al32 looked at the cross-sectional relationship between pain and basic functional limitations and their effect on ADL disability after a 10-year follow-up. They found that pain itself is not an independent risk factor. They linked this finding to the possibility that pain and functional limitation, such as other GS, have common underlying risk factors and mechanisms. In one of the important studies that investigated the prevalence and co-occurrence of GS among community-dwelling people aged ≥75 years, the authors cited the fact that they did not assess the co-occurrence of pain GS as one of the study limitations.33 It should be noted that many of the studies that looked at the effect of GS on negative outcomes did not take pain into account.3436

In the present study, we assessed associations between chronic pain and GS among individuals aged ≥65 years. We hypothesized that GS are very common in our study population of older individuals with chronic pain.

Methods

Study population

This was a cross-sectional telephone survey of Hebrew-speaking men and women aged ≥65 years living in the community in Beer-Sheba and its surrounding area who were insured by the Clalit Healthcare Services. The Clalit Healthcare Service is the largest health care service in Israel and insures over two-thirds of the Israeli population.

Study design and sampling process

We conducted a random sampling from a roster of 1103 patients in clinics in the Jewish sector, ≥65 years, drawn from the Clalit Healthcare Services systematic databases. As part of their training course, nursing students from the Recanati School for Community Health Professions of the Faculty of Health Sciences of Ben-Gurion University of the Negev have a research seminar on the subject of pain in older adults. They also have three communication courses on how to interview patients through different media including by telephone and then have to pass a simulated test. Before the study interviews were conducted, the 51 students, who took part in the research seminar, underwent training by one of the investigators (TF) on how to conduct the study interview by telephone, how to address the participants, and how to fill in the questionnaire.

Each completed questionnaire was examined by two of the investigators (AK and OL) and those that were not completed correctly were not used in the study.

Interviewers contacted these patients and asked them to consent to participate in the study. Those who met the study criteria and agreed verbally to participate underwent a comprehensive telephone interview. At the beginning of the interview the patients were asked whether they had suffered from persistent or intermittent pain over the previous three months? Only those patients who answered this question in the affirmative underwent a full interview with the study questionnaire.

Patients who refused to participate, who did not speak Hebrew, who were not able to participate due to hearing or comprehension impairment, who resided in old age settings, who were hospitalized, or who were away from Israel were excluded from the study.

Study instruments

The patients underwent a structured personal telephone interview. The questionnaire included questions on chronic diseases including chronic pain, sociodemographic data, and the following formal questionnaires:

  • To measure pain intensity, we used a five-point verbal descriptor scale, which has been shown to have low error rates and good face convergent and criterion validity.37 Patients were asked to grade their pain in terms of the following response options: no pain, slight pain, moderate pain, severe pain, and unbearable pain.

  • A 10-point verbal numeric scale, which was found to have high correlation with a 10-point visual analog scale,38 has also been used to measure pain intensity. Patients were asked to grade their average pain during the previous 3 months on a scale from 0 (no pain) to 10 (unbearable pain).

  • The BPI39 has been used to measure pain interference. We extracted questions from this questionnaire related to the site of pain and its effect on the patient’s daily activity: overall activity, mood, walking capacity, amount and quality of sleep at night, relationships with others, need for bedrest, and routine work. The questionnaire was translated to and validated in Hebrew from previous research.40

  • A GS questionnaire including dichotomous questions (yes/no) on BADL (“Do you dress alone?”, “Do you wash alone?”), IADL (“Do you shop on your own?”, “Do you prepare your own meals?”), questions on falls (“Did you fall over the previous year? If yes, how many times?”), a question on weight loss (“Did you have an unplanned loss of weight of 5 kg or more over the last six months?”), a question on cognitive status (“Do you have memory problems?”), a question on mood (“Have you mostly felt depressed or sad over the last two months?”), and a question on polypharmacy (“Do you take six or more drugs on a regular basis?”). These questions were taken from a computerized screening questionnaire that is routinely filled in by nurses in the Clalit Healthcare Services clinics while screening patients with geriatric problems.41

Sample size calculation

The Southern District has 52,000 patients aged 65 years or above. Assuming that 25% suffer from chronic pain,6 the required sample size to assess the rate of patients with chronic pain with an accuracy of 10% would be 75 patients. It also has 27,000 elderly patients aged 75 years or above. Assuming that 50% of these have chronic pain,10 the required sample size to assess the rate of chronic pain with accuracy of 10% would be 96 patients. To cover both of these conditions with accuracy of 10% and under the assumption that we would need 96 patients 75 years or above and that this group represents about 50% of the patients aged ≥65 years (27000/52000), we would need 210 patients. To compensate for potential mistakes and missing values, the final sample size was 232 patients.

Statistical analyses

A descriptive analysis was performed with means and standard deviations for continuous variables and frequencies for categorical variables. The association between severity of pain and its effect on daily living with the presence of various GS was tested by Student’s t-test. The association between the number of GS and the severity of pain and its effect on daily living were analyzed by analysis of variance. Logistic regression models were used to find associations among chronic pain and GS. Statistical significance was determined at P < 0.05.

The study was approved by the Helsinki Committee of the Meir Medical Center (approval #095/2014k).

Results

Nine hundred and twenty-two patients, of the original random sample of 1103 individuals insured by the Clalit Healthcare Services, were located for an interview. Of these, 223 refused to be interviewed, 255 were not capable of being interviewed (77 due to hearing or other communication problems and the other 178 because they did not speak Hebrew), and 25 died before telephone contact with them. In all, 420 patients could be interviewed and consented to participate. Of these, 188 (44.8%) reported that they did not suffer from chronic pain, so the interview with them was discontinued. Chronic pain over the previous 3 months at least was reported by 232 patients (55.2%), and they underwent the full interview (Figure 1). The mean age was 73.7 ± 6.5 years and 89 (38.4%) were men. The sociodemographic characteristics of the study participants are shown in Table 1.

Figure 1.

Figure 1

Recruitment of study patients

Note: aCould not be interviewed: do not hear, do not communicate, nursing home, hospitalized, abroad, other problems.

Table 1.

Descriptive characteristics of the study population (N = 232)

N Percentage
Gender
 Male 89 38.4
 Female 142 61.2
 Total 231 (mis = 1)
Age (years)
 Mean ± SD 73.7 ± 6.5
 Range 65–101
 Total 232
Place of birth
 Israel 19 8.2
 Asia/North Africa 123 53.0
 Eastern Europe/former USSR 69 29.7
 Western Europe/North and South America 19 8.2
 Total 230 (mis = 2)
Marital status
 Single 0 0.0
 Married 142 61.2
 Divorced 14 6.0
 Widowed 74 31.9
 Separated 2 0.9
 Total 232
Education (years)
 Mean ± SD 10.95 ± 4.29
 Range 0–25
 Total 211 (mis = 11)
Employment
 Salaried 10 4.3
 Partially salaried 3 1.3
 Self-employed 10 4.3
 Retired 184 79.3
 Housewife 12 5.2
 Unemployed 6 2.6
 Total 225 (mis = 7)
Religious identity
 Agnostic 72 31.0
 Religious 37 15.9
 Traditional 123 53.0
 Total 232

Abbreviation: mis, missing data regarding some participants.

The characteristics of the pain and its effects

One hundred eighty-two (78.4%) reported a single pain site, 40 (17.2%) reported two sites, and 10 (4.4%) reported three or more sites. The three most common pain sites were the back (37.5%), the knee (26.7%), and the limbs (22.8%).

Based on the five-point verbal descriptor scale, 136 of 232 (58.6%) graded their pain as severe or unbearable. The mean pain severity on the 10-point numeric rating scale was 7.1 ± 2.1. Based on the BPI measure of the effect of pain on overall activity (pain interference), the mean score was 4.9 ± 2.4 on the scale from 0 to 10 (Table 2). Only 41.4% of the patients with chronic pain were treated with analgesics.

Table 2.

Pain characteristics and impact (N = 232)

N Percentage
Number of pain sites
 1 182 78.4
 2 40 17.2
 3 8 3.4
 4+ 2 0.9
 Total 232
Pain site (more than one is possible)
 Back 87 37.5
 Knee 62 26.7
 Limbs 53 22.8
 Shoulder 32 13.8
 Head 21 9.1
 Other 21 9.1
 Chest 10 4.3
 Abdomen 9 3.9
 Total 232
Pain level—five-point verbal descriptor scale
 No pain 0 0
 Mild pain 14 6.0
 Moderate pain 82 35.3
 Severe pain 95 40.9
 Unbearable pain 41 17.7
 Total 232
Pain intensity—10-point verbal numeric rating
Scale (0 = no pain,10 = unbearable pain)
 Mean ± SD 7.1 ± 2.1
 Range 1–10
 Total 230 (mis = 2)
Impact of pain on daily activity (0 = no impact, 10 = very high impact)
 General activity 5.7 ± 2.9
 Mood 5.1 ± 3.4
 Ambulation 5.3 ± 3.1
 Work 4.8 ± 3.3
 Relationships 2.7 ± 3.1
 Sleep 5.3 ± 3.4
 Pleasure 5.3 ± 3.3
Pain interference
 Mean ± SD 4.9 ± 2.4
 Range 0–10
 Total 223 (mis = 9)

Abbreviation: mis, missing data regarding some participants.

The prevalence of GS

The data on the prevalence of GS is presented in Table 3. One hundred ninety-eight (85.4%) reported any type of GS. The most common problem was dependency at grocery shopping, with 51.7% reporting this as a problem. The least common problem was dependency at dressing as only 15.5% of the participants were not capable of dressing themselves.

Table 3.

Rate of geriatric syndromes (N=232)

N Percentage
Independent with grocery shopping
 Yes 112 48.3
 No 120 51.7
 Total 232
Independent with preparing meals
 Yes 133 57.3
 No 99 42.7
 Total 232
Independent with bathing
 Yes 185 79.7
 No 47 20.3
 Total 232
Independent with dressing
 Yes 196 84.5
 No 36 15.5
 Total 232
Any dependency in ADLb
 Yes 200 86.2
 No 32 13.8
 Total 232
Falls in the past year
 Yes 84 36.8
 No 144 63.2
 Total 228 (mis = 4)
If yes, number of falls
 Mean ± SD 2.4 ± 1.8
 Range 1–10
 Total 79 (mis = 5)
Unplanned loss of weight of 5 kg or more over the last 6 months
 Yes 35 15.8
 No 186 84.2
 Total 221 (mis = 11)
Memory loss
 Yes 103 45.4
 No 124 54.6
 Total 227 (mis = 5)
Depressed or sad in the past 2 months
 Yes 97 43.1
 No 128 56.9
 Total 225 (mis = 7)
Six or more regular medications
 Yes 104 45.8
 No 123 54.2
 Total 227 (mis = 5)
Geriatric syndromesb
 0 34 14.7
 1–2 90 38.8
 3–6 108 46.6
 Total 232

Notes:

a

Any dependence on ADL—if the answer to one of the ADL questions (dressing, washing, shopping, or preparing food) was positive.

b

If the answer to one of the ADL questions was positive, ADL was considered to be impaired and none of the other questions in this category were taken into account for the calculation of the number of geriatric syndromes.

Abbreviations: ADL, activities of daily living; mis, missing data regarding some participants.

Table 4 shows the association between the presence of a GS and the severity of pain and its effect on overall activity. There was no statistically significant association between the severity of pain and falls over the previous year. A statistically significant association was found with the severity of pain and its effect on overall activity for all the other GS.

Table 4.

Association between the number of geriatric syndromes, the intensity of pain, and the effect of pain on overall activity

N Pain intensitya
Pain interferenceb
Mean SD n P Mean SD n P
Any dependency in ADLc
 Yes 145 7.4 2.1 144 0.004 5.7 2.2 139 <0.0001
 No 87 6.6 2.2 86 3.5 2.3 84
Falls over the previous year
 Yes 84 7.4 2.1 83 0.051 5.7 2.1 81 <0.0001
 No 144 6.9 2.2 143 4.3 2.5 139
Unplanned loss of weight of 5 kg or more over the last 6 months
 Yes 35 7.9 1.9 34 0.016 5.7 2.3 33 0.014
 No 186 6.9 2.1 185 4.6 2.4 180
Memory loss
 Yes 103 7.5 2.1 101 0.009 5.5 2.4 100 <0.0001
 No 124 6.7 2.2 124 4.3 2.4 119
Depressed or sad in the past 2 months
 Yes 97 7.5 2.1 95 0.005 6.2 2.1 91 <0.0001
 No 128 6.7 2.1 128 3.8 2.2 126
Six or more regular medications
 Yes 104 7.6 1.9 103 0.001 5.9 2.1 101 <0.0001
 No 123 6.7 2.2 122 3.9 2.3 118
Number of geriatric syndromes
 0 34 6.3 2.4 34 <0.0001 3.1 2.1 33 <0.0001
 1–2 90 6.7 2.1 90 3.9 2.3 85
 3–6 108 7.7 1.9 106 6.2 1.9 105

Notes:

a

10-point verbal numeric scale (0 = no pain, 10 = unbearable pain);

b

Effect of pain on overall activity (0 = usual activity, 10 = no activity);

c

Unable to perform at least one of the following activities independently: dressing, washing, preparing a meal, shopping.

Abbreviation: ADL, activities of daily living.

The severity of pain ranged from a mean of 6.3 ± 2.4 among participants without GS to 6.7 ± 2.1 for those with 1–2 GS and 7.7 ± 1.9 for those with three or more GS (P < 0.0001). Similarly, the mean score for the effect of pain on overall activity (pain interference) ranged from 3.1 ± 2.1 for participants without GS to 6.2 ± 1.9 among those with three or more GS (P < 0.0001).

To check the effect of pain on the spectrum of GS, we built logistic regression models with the following dependent variables: functional state (any dependency in IADL, any dependency in BADL, and any dependency in ADL), depressive mood, and memory loss (Table 5). The only variable that predicted pain intensity was any dependency in BADL (odds ratio = 1.41, 95% confidence interval: 1.15–1.71, P = 0.001).

Table 5.

Relationship between pain level and GS (IADL, BADL, any dependency in ADL, depression, and memory problems) by logistic regression analysis

Model Variable OR 95% CI
p-value
Lower Upper
Any dependency in IADLa Age 1.138 1.076 1.203 0.000
Gender (male) 1.330 0.683 2.589 0.402
Memory problems 1.386 0.712 2.699 0.337
Depression 5.028 2.466 10.252 0.000
Pain level (0–10) 1.129 0.967 1.317 0.124

Any dependency in BADLb Age 1.099 1.041 1.160 0.001
Gender (male) 0.609 0.284 1.307 0.203
Memory problems 0.737 0.343 1.584 0.434
Depression 6.330 2.924 13.700 0.000
Pain level (0–10) 1.405 1.154 1.711 0.001

Any dependency in ADLc Age 1.139 1.076 1.205 0.000
Gender (male) 1.421 0.721 2.802 0.310
Memory problems 1.349 0.684 2.660 0.388
Depression 6.024 2.877 12.611 0.000
Pain level (0–10) 1.157 0.989 1.353 0.069

Depressed or sad in the past 2 months Age 1.007 0.960 1.057 0.771
Gender (male) 0.620 0.324 1.189 0.150
Memory problems 3.253 1.752 6.041 0.000
Depression 5.969 2.863 12.447 0.000
Pain level (0–10) 1.076 0.924 1.253 0.346

Memory loss Age 0.992 0.948 1.039 0.742
Gender (male) 0.770 0.423 1.402 0.393
Memory problems 3.248 1.749 6.031 0.000
Depression 1.396 0.708 2.755 0.336
Pain level (0–10) 1.114 0.968 1.281 0.132

Notes:

a

Any dependency in IADL—if the answer to one of the IADL (instrumental activities of daily living) questions (shopping or preparing food) was positive.

b

Any dependency in BADL—if the answer to one of the BADL questions (dressing, washing, shopping, or preparing food) was positive.

c

Any dependency in ADL—if the answer to one of the ADL questions (dressing, washing, shopping, or preparing food) was positive.

Abbreviations: ADL, activities of daily living; BADL, basic activities of daily living; BPI, Brief Pain Inventory; CI, confidence interval; GS, geriatric syndromes; IADL, instrumental activities of daily living; OR, odds ratio

Discussion

In a telephone survey of patients ≥65 years living in the community, we found that more than half of the participants reported pain that lasted for at least 3 months. We also found that the severity of chronic pain and its interference with overall activity were of significance in a large number of patients with GS (Table 4). The prevalence of pain in our results is similar to those of Raftery et al10 who reported that about 50% of patients in the ≥65 years age group living in the community reported pain for 3 or more months. Our results are higher than those of other studies.6,8,9,42 These differences stem from lack of uniformity among these studies in terms of age, setting, and definition of chronic pain. Thus, for example, Pereira et al9 found a rate of 30% among elderly patients who were hospitalized for rehabilitation, while Johannes et al8 reported a rate of 38.5% among patients in this age group living in the community. In our sample, 94% of patients with chronic pain reported at least a moderate severity of pain and almost 60% complained of severe or very severe pain that had a negative effect on their daily activity. However, only 41.4% participants with chronic pain took analgesics. Similar results have been reported in the past28,43 and they may be related to problems in the diagnosis of pain44,45 on the part of both the patients and the physicians and poor patient–doctor concordance in evaluation of the pain.12 These findings are of great concern since, according to the results of a recently published study,7 direct intervention in the treatment of joint pain can, theoretically, reduce functional impairment.

The findings of the present study on the association between chronic pain and GS is supported by the results of many previous studies, which also reported associations between chronic pain and functional impairment,6,7,9,1115 falls,12 cognitive problems,2730 and impaired mood.6,10,14,1626

The overlap between pain and cognition would appear to be the fact that pain has a clear cognitive element that necessitates recall of past experience and decision making,29 since these two processes (chronic pain and cognition) utilize the element of attention.46 In the review by Moriarty et al,29 the authors raised an important question as to the association between the treatment administered for chronic pain and cognitive impairment: in some cases, this treatment can cause cognitive impairment, while in others, not only does analgesic therapy not cause cognitive impairment but it might even improve it. In fact, cognitive impairment can lead to the failure of appropriate treatment for chronic pain.28

As noted, the association between chronic pain and affective changes has been investigated extensively in the past. Most of the longitudinal studies showed that the relationship between depression and chronic pain is bidirectional, where chronic pain can cause depression and depression can lead to development or exacerbation of chronic pain.18

The combination of pain and depression was found to be related to a negative health cognitive bias that makes patients more exposed to and more focused on their pain.47 Depression can lead patients to a negative and pessimistic perception of the future and can have a negative effect on the patient’s capacity to cope with pain.48 In neurobiologic terms, the main noradrenergic and serotonergic nuclei in the central nervous system are responsible for the chronicity of pain and development of depression.49,50

The finding in the present study of a high rate of chronic pain that is associated with a high prevalence of GS in the elderly population highlights the need for a comprehensive plan to actively identify elderly patients with these problems.

As noted above, the Clalit Healthcare Services has a computerized system for initial screening of the elderly for the identification of GS,41 but this system does not relate at all to the issue of pain. It should be upgraded to include this condition.

Many studies assessed associations between GS and pain, but each of these reported on only one or two GS.6,7,930 In contrast, studies that assessed multiple, rather than specific, GS usually did not assess the co-occurrence of pain.33,51 In the present study, we assessed the co-occurrence of chronic pain with multiple GS.

In the univariate analysis, we found a high rate of co-occurrence of pain in all the GS that were evaluated. In the logistic regression analysis, we found that chronic pain, as an independent variable, along with more advanced age and the presence of depression, predicts dependency in BADL. Although it is not possible, using a cross-sectional research design, to determine whether chronic pain predicts dependency in BADL or whether the association is bidirectional, our finding does strengthen the assumption of Andrews et al, on common underlying risk factors and mechanisms between pain and the other GS.32

Our study has some advantages. It was conducted in a population of elderly individuals living in the community who were selected at random, so it is reasonable to assume that the results can be generalized to other elderly populations.

However, it also has several limitations. First, the evaluation was conducted by telephone interview and not face to face, and the data received from the patient, such as medication or cognitive state, were not confirmed vis-a-vis data from the medical records. The large number of interviewers in this study is also a potential limitation. Even though all the students who conducted the interviews underwent intensive training, the large number of interviewers (51) made it impossible to ensure the quality of all the interviews.

In the present study we cannot rule out the possibility of systematic biases, such as selection or information bias. Because of the study design, our data were based on subjective reporting of pain without any objective assessment, so we cannot confirm that the patients included in the study actually suffered from chronic pain as they reported. Therefore, we cannot rule out information bias. The study was conducted on a random sample of patients registered in the Clalit Healthcare Services, which provides medical care for two-thirds of Israel’s aged ≥ 65 years population. This reduces the risk of selection bias but does not totally eliminate the possibility that proper randomization was not achieved.

Another significant limitation is the less than optimal planning of the study. Of the 419 patients who agreed to participate in and completed the interview, 188 (44.8%) did not report any chronic pain so they were not asked to answer questions on co-morbid conditions or GS. In addition, 223 of the 922 elderly patients (24.2%) refused to be interviewed and another 255 (27.7%) could not be interviewed because they did not speak Hebrew (N = 178) or because communication with them was impossible (N = 77), usually due to impaired hearing. We cannot rule out the possibility that the prevalence of GS among those who did not participate may have been different from those who did participate.

Furthermore, over 25% of the study participants reported cognitive decline or a depressed mood, both of which could have affected their self-assessment of chronic pain. The patients were not asked about specific drug therapy in the interview, except indirectly through the questions of poly-pharmacy and chronic co-morbidity. Clearly, medications and medical history are important information in a study on pain, but these areas were not covered in the study questionnaire out of concern that the questionnaire would become too long and difficult to complete. The absence of this important information is an additional limitation of the study.

Another weakness is that the presence of GS was determined by means of a single dichotomous question and not by a more comprehensive assessment, for example, a full functional assessment or a formal cognitive assessment. Thus, the true rate of GS in the community may be different from the data that we presented here. Furthermore, we used the standard screening questionnaire of Clalit Healthcare Services, which did not include well-recognized GS, such as delirium, pressure sores, and incontinence, making the drawing of general conclusions more problematic.

Because of the cross-sectional design of the study, we can only discuss association, not causality, between chronic pain and GS.

Conclusion

In a random study of individuals aged ≥65 years living in the community, we found a high rate of chronic pain and GS as well as an association between them. There is a need for further studies to investigate these issues in depth, using accepted geriatric instruments for the determination of GS. This will facilitate more optimal care for the elderly population.

Acknowledgments

We would like to thank the nursing students of the Recanati School for Community Health Professions of Ben-Gurion University of the Negev for conducting the study interviews. This study was partially supported by a grant from the Recanati School for Community Health Professions, Faculty of Health Sciences, Ben-Gurion University of the Negev, Israel.

Abbreviations

ADL

activities of daily living

BADL

basic activities of daily living

BPI

Brief Pain Inventory

GS

geriatric syndromes

IADL

instrumental activities of daily living

Footnotes

Author contributions

Orly Liberman designed the study, supervised the data collection, and wrote the article. Tamar Freud was responsible for the statistical design of the study and for carrying out the statistical analysis. Roni Peleg designed the study and assisted with writing the article. Ariela Keren supervised the data collection and assisted with writing the article. Yan Press designed the study and wrote the article. All authors contributed toward data analysis, drafting and critically revising the paper, gave final approval of the version to be published, and agree to be accountable for all aspects of the work.

Disclosure

Orly Liberman and Ariela Keren are employed at the Recanati School for Community Health Professions. The authors report no other conflicts of interest in this work.

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