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Review

Researcher’s Perspective on Musculoskeletal Conditions in Primary Care Physiotherapy Units through the International Classification of Functioning, Disability, and Health (ICF): A Scoping Review

by
Héctor Hernández-Lázaro
1,2,3,
María Teresa Mingo-Gómez
1,2,
Sandra Jiménez-del-Barrio
1,2,*,
Silvia Lahuerta-Martín
1,
Ignacio Hernando-Garijo
1,2,
Ricardo Medrano-de-la-Fuente
1,2 and
Luis Ceballos-Laita
1,2
1
Faculty of Health Sciences, University of Valladolid, 42004 Soria, Spain
2
Clinical Research in Health Sciences Group, University of Valladolid, 42004 Soria, Spain
3
Ólvega Primary Care Health Center (Soria, Spain), Soria Health Care Management, Castilla y León Regional Health Management (SACYL), 47007 Valladolid, Spain
*
Author to whom correspondence should be addressed.
Biomedicines 2023, 11(2), 290; https://doi.org/10.3390/biomedicines11020290
Submission received: 22 December 2022 / Revised: 13 January 2023 / Accepted: 18 January 2023 / Published: 20 January 2023
(This article belongs to the Section Molecular and Translational Medicine)

Abstract

:
(1) Background: Musculoskeletal disorders are the second cause of disability in the world. The International Classification of Functioning Disability and Health (ICF) is a tool for systematically describing functioning. Outcome measures for musculoskeletal disorders and functioning concepts embedded in them have not been described under the ICF paradigm. The objective of this scoping review was to identify ICF categories representing the researcher’s perspective and to compare them with the ICF core set for post-acute musculoskeletal conditions. (2) Methods: This review was conducted as follows: (a) literature search using MEDLINE/PubMed, CINAHL, Web of Science, and Scopus databases; (b) study selection applying inclusion criteria (PICOS): musculoskeletal conditions in primary care, application of physiotherapy as a treatment, outcome measures related to functioning, and experimental or observational studies conducted in Western countries during the last 10 years; (c) extraction of relevant concepts; (d) linkage to the ICF; (e) frequency analysis; and (f) comparison with the ICF core set. (3) Results: From 540 studies identified, a total of 51 were included, and 108 outcome measures were extracted. In the ICF linking process, 147 ICF categories were identified. Analysis of data showed that 84.2% of the categories in the ICF core set for post-acute musculoskeletal conditions can be covered by the outcome measures analyzed. Sixty-eight relevant additional ICF categories were identified. (4) Conclusion: Outcome measures analyzed partially represent the ICF core set taken as a reference. The identification of additional categories calls into question the applicability of this core set in primary care physiotherapy units.

1. Introduction

Musculoskeletal disorders are a wide range of conditions that affect an estimated 1.7 billion people and are considered the second leading cause of disability worldwide [1]. This type of disease causes pain and physical deficits that limit the functional capacity of patients, impacting their social context and affecting their personal life. Furthermore, musculoskeletal pathology is also one of the main causes of chronic pain and contributes to the perpetuation of this clinical entity [2,3].
The high prevalence of these disorders constitutes one of the main reasons for assistance in primary care health services, reporting 18% of all general consultations [4]. Mainly the physiotherapy service is in charge of managing these alterations through conservative treatment and health education. The physiotherapeutic approach to musculoskeletal problems not only focuses on the functional status of the patient, but also takes into account a variety of contributors such as biomedical, psychological, or social factors [5].
The International Classification of Functioning (ICF) was proposed by the World Health Organization (WHO) in 2001 as a reference system for functioning. ICF combines categories and qualifiers to describe functioning and disability and relates these concepts to the patient’s context. In this way, ICF categories are structured with the following components: body structures and functions, activities and participation, environmental factors, and personal factors. Qualifiers provide a measure of the severity [6].
Since its approval, the clinical use of the ICF has been expanding, especially in rehabilitation and outcome assessment. However, their level of implementation is very heterogeneous when comparing countries, with Sweden and Australia reporting the most widespread use in clinical settings [7]. The development of ICF core sets promoted by the WHO and the ICF Research Branch has enhanced the likelihood of ICF use in multiple clinical settings [8]. Two ICF core sets were already developed for musculoskeletal conditions, targeting acute and post-acute stages [9,10,11]. However, there is a lack of an ICF-based tool for these disorders directly applicable at the community level. It is also not known whether the assessment instruments frequently used in this clinical setting cover the essential aspects of functioning in patients with musculoskeletal problems. In a recent study involving primary care physiotherapists, it was shown that current ICF core sets for musculoskeletal conditions only partially represented the perspective of these professionals, so the need to develop a tailored ICF core set for this clinical context was raised [12].
According to the methodology proposed by Selb et al., [13] preliminary studies for the development of ICF core sets aim to capture the perspectives of researchers, professionals, patients, and clinical settings. To describe the researcher’s perspective, a scoping review of outcome measures in the scientific literature is needed. It is assumed that researchers consider the functioning-related measures they use to be relevant.
The objective of this study was to describe the researcher’s perspective on the management of musculoskeletal conditions in a primary care physiotherapy clinical setting in terms of ICF. Specific objectives were:
1. To identify the most frequent functioning concepts embedded in outcomes measures used when studying the target clinical context;
2. To link functioning concepts to ICF and compare them with the ICF core set for post-acute musculoskeletal conditions;
3. To assess the ability of the identified outcome measures to cover functioning aspects included in the ICF core set taken as a reference; and
4. To contribute to the development of a tailored ICF core set for primary care physiotherapy units by identifying additional ICF categories from outcome measures.

2. Materials and Methods

2.1. Study Design

This review was conducted following the methodology described by the ICF Research Branch [13] and was composed of five parts: (1) literature search study selection, (2) extraction of relevant concepts, (3) linkage of the concepts to the ICF, and (4) frequency analysis. The selected search strategy and methods of analysis of this review were registered in the PROSPERO database (ref: CRD42020156209). This report was written following the guidelines of the Preferred Reporting Items for Systematic reviews and Meta-Analyses Extension for Scoping Reviews (PRISMA-ScR) checklist [14].

2.2. Literature Search

An extensive literature search was conducted using the following electronic databases: MEDLINE/PubMed, CINAHL, Web of Science, Scopus, and PEDro. The studies published between January 2012 and June 2022 in English or Spanish were considered for inclusion. Combinations and variations of keywords and medical subject headings were used in each database: musculoskeletal conditions, primary health care, physical therapy, body functions, body structures, activities and participation, environmental factors musculoskeletal disorders, physiotherapy, primary health care, and outcomes measures. The complete search strategy can be found in Appendix A.

2.3. Study Selection

Studies were included according to the PICOS framework (population, intervention, comparison, outcomes, study design). To focus on the goal of this review, we did not use “C” as it was not considered relevant.
Population: the participants included in the published study had to be from Western countries (United States of America, Canada, Australia, New Zealand, United Kingdom, European Union, and member countries of the European Free Trade Association, such as Norway or Switzerland), and the sample included people older than 18 years diagnosed with a musculoskeletal condition in a primary care health setting.
Intervention: a physiotherapy intervention in a primary care setting was applied.
Outcomes: the publications had to be related to functioning as defined by the ICF.
Study design: randomized controlled trials, clinical controlled trials, cross-sectional studies, observational studies, and qualitative studies published were included.
Studies were excluded if they were based solely on specific health problems, the sample was not representative of the general population (the study selected participants according to their age, sex, race, nationality, etc.), the study was conducted over hospitalized participants, or the research was a study protocol, a systematic review, a meta-analysis, a case report, a doctoral thesis, a letter, a comment, or an editorial.
Results from the searches were gathered in LibreOffice Calc, and duplicates were removed. In the first round, titles and abstracts were screened for eligibility. Subsequently, full-text articles of the included abstracts were retrieved and screened for eligibility.
Two authors (H.H.L. and S.J.D.B.) screened the titles and abstracts of the identified studies for eligibility. After independently reviewing the selected studies for inclusion, Cohen’s kappa statistic was calculated to measure inter- and intra-rater reliability. If it was not clear whether the study met the inclusion criteria, advice was sought from a third researcher (L.C.L.) and an opinion consensus was formed. Once the agreement was reached, a full-text copy of the selected studies was obtained.

2.4. Extraction of Relevant Concepts

Relevant information from the selected studies was gathered using a standardized data collection form designed for this purpose. The items included were (a) the country and region where it was carried out, (b) the research design, (c) the size sample, (d) the participant characteristics (age and condition), and (e) assessment instruments used as outcome measures.
Data were independently extracted by two authors (H.H.L. and S.J.DB.) using the form (above). All discrepancies were reviewed, and an agreement was reached through discussion. In the event of disagreement, a third reviewer (L.C.L.) was consulted.
All assessment instruments used in the included studies were recorded, and the number of studies in which the individual measures were used was documented. Outcome measures were classified following the next criteria: (a) they were single or multi-item (e.g., the visual analogic scale for pain is a single-item measure and the neck disability index is a multi-item measure), (b) they could be patient-oriented measures (e.g., self-report questionnaires), clinical assessment (including those requiring specialized equipment), or non-tool measures (often single-patient-oriented questions).
From the outcome measures, individual items were extracted to be linked to the ICF.

2.5. Linkage of the Concepts to the ICF

The linking process consists of translating relevant concepts found in measurement instruments into ICF second-level categories. To achieve this, Cieza’s work was taken as a reference [15], and the WHO eLearning tool (www.icf-elearning.com (accessed on 7 December 2022)) about ICF was also used.
Meaningful concepts were identified from each item extracted from the outcome measures. A concept was defined as one separate meaningful entity; one or more concepts could be identified from a single item. The meaningful concepts were then linked to the most precise ICF category in the components of “body functions”, “body structures”, “activities and participation”, and “environmental factors” (e). Concepts were also linked to “personal factors” (pf), although these are not yet classified in the ICF. In case a concept was too general or vague, the code “nd” was assigned (not definable). Similarly, if the information was beyond the scope of the ICF, code “nc” (not covered) was used.
The linking process was performed independently by the same two reviewers (H.H.L. and S.J.D.B.). Results were compared, and disagreements were resolved by discussion. Discrepancies were discussed with a third reviewer (L.C.L.) until a final agreement was reached. Inter-rater agreement of the independent linking conducted for second-level categories was calculated with Cohen’s kappa.

2.6. Frequency Analysis

Frequency analysis was carried out to examine the total number of outcome measures and identified ICF categories. If an ICF category was repeatedly assigned within one multiple-item measure, it was counted only once.

2.7. Comparison with the ICF Core Set for Post-Acute Musculoskeletal Conditions

A comparison was made between the ICF categories identified and the comprehensive ICF core set for post-acute musculoskeletal conditions [10]. This ICF core set is composed of 70 ICF categories (7 categories belonging to the component “body structures”, 23 from the ICF component “body functions”, 22 from “activities and participation”, and finally, 18 from “environmental factors”). This ICF core set was used as a reference standard to assess whether the identified outcome measures are adequate to cover the essential aspects of functioning in our target population. The decision to select this ICF core set was made based on their similarity to the target population.
Additional ICF categories were also recorded and were considered relevant if they were identified in 5% or more of the selected studies [13]. Additional ICF categories were defined as those identified in the outcome measures but not included in the ICF core set taken as a reference.

3. Results

3.1. Study Selection

The search of the scientific literature yielded a total of 540 potentially relevant publications. Ninety-five publications were eliminated because they were duplicates. In the screening process, 256 articles were discarded by title and 117 after reading the abstract. The remaining 72 articles were screened by a full-text reading and 51 were included in the analysis [16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66] (Figure 1 shows the flowchart of this process). The Cohen’s kappa coefficient for this process was 0.76 [95% CI: 0.67–0.85].

3.2. Study Characteristics

The included studies were conducted in 14 countries. European countries were the most frequent location, accounting for 66.7% of the total (34 studies distributed in the United Kingdom [10]; Norway, Spain, and Sweden [5 each]; Denmark [3]; the Netherlands [2] and Belgium, Germany, Ireland, and Italy [1 each]). Oceania accounted for 17.6% (9 in total, distributed in Australia [6] and New Zealand [3]), and the remaining 15.7% (8) were performed in North America (United States of America [7] and Canada [1]).
The pooled sample size of these studies included a total of 14,702 patients with a musculoskeletal condition. The most studied disorder corresponded to non-specific musculoskeletal pain (such as low back pain, neck pain, or shoulder pain), corresponding to 74.5% of the studies. The next most relevant health problem, accounting for 19.6% of the studies, was degenerative musculoskeletal disorders, such as osteoarthritis of the hip, knee, hand, etc. Finally, 5.9% of the studies focused on specific pain syndromes, such as subacromial syndrome, tennis elbow, and greater trochanteric pain syndrome.
Regarding study design, 38 (74.5%) corresponded to experimental studies, with the randomized controlled trial being the main type (94.7% of all experimental studies). Observational studies accounted for 25.5% of the total (13 studies), and cohort studies were the most frequent design (see Appendix B).

3.3. Outcome Measures

A total of 108 assessment instruments were identified from the 51 studies selected. Seventy-four of the outcome measures identified were multi-item (e.g., Oswestry Disability Index), whereas the remaining 34 were single-item (e.g., Visual analog scale) in nature (see Table 1 and Appendix C).
These instruments were classified according to the main aspect of functioning they were intended to assess, the most relevant being the following: (a) disability (28 outcome measures), (b) presence of psychosocial factors (17), (c) pain description (13), (d) physical measures (9), (e) physical performance (9), (f) quality of life (8), (g) global perception of change (2), and (h) others (22). Regarding the outcome measures, the most frequently used in relation to the areas of assessment described above were, respectively: (a) Roland Morris questionnaire (11 studies), (b) fear-avoidance beliefs questionnaire (8), (c) numeric pain rating scale (35), (d) range of motion measure (9), (e) physical activity level measure (3), (f) EuroQoL-5D (12), (g) global rating of change score (9) and (h) indirect measure of recovery (10).

3.4. Linking Results

A total of 1129 concepts were extracted from the selected assessment tools. Out of these, 1110 concepts were linked to second-level ICF categories. Nineteen concepts could not be assigned to a specific ICF category due to the concepts being ambiguously defined or beyond the scope of the classification. Linkable concepts were related to 147 ICF categories. The Kappa coefficient for this process was 0.72 [95% CI: 0.65–0.79]. Sixty-two (42.2%) of these categories belonged to the “activities and participation” component, 55 (37.4%) to the “body functions” component, 22 (15.0%) to the “environmental factors” component, and finally, 8 (5.4%) categories from the “body structures” component. The most frequently mentioned category for each ICF component were, respectively, d450 Walking (counted 90 times), b280 Sensation of pain (207), e355 Health professionals and e580 Health services, systems and policies (73 both), and s760 Structure of trunk (33).
Regarding not linkable concepts, 11 of them could not be linked because they corresponded to personal factors (pf) (e.g., age, gender, body mass index, etc.). Four concepts were classified as “nd” due to their ambiguity (e.g., the item “would you accept a handshake without reluctance?” from the functional index for hand arthropathies may lead to multiple interpretations and was not linked to a specific ICF category). Finally, 4 other concepts were related to ICF but did not fit into any category (e.g., adverse events or the number of general practitioner visits).

3.5. Comparison with Comprehensive ICF Core Set for Post-Acute Musculoskeletal Conditions

The ICF categories obtained from the concepts of functioning identified in the outcome measures coincide 84.2% with those present in the ICF core set taken as a reference standard. The outcome measures identified in our study were not able to cover eleven categories present in the ICF core set. These categories belonged to the components “environmental factors” (e125 Products and technology for communication, e225 Climate, e410 Individual attitudes of immediate family members, e420 Individual attitudes of friends, e440 Individual attitudes of personal care providers and personal assistants, e555 Associations and organizational services, systems and policies, e575 General social support services, systems and policies), “activities and participation” (d155 Acquiring skills, d310 Communicating with and receiving spoken messages), “body functions” (b435 Immunological system functions) and “body structures” (s810 Structure of areas of skin). Table 2 shows a relation between outcome measures and ICF categories in the brief ICF core set for post-acute musculoskeletal conditions (frequencies for the ICF categories in the comprehensive ICF core set can be found in Appendix D).
A total of 87 additional ICF categories were extracted from the outcome measures analyzed. Sixty-eight of these categories exceeded the 5% threshold and were considered relevant. Forty-one of these categories belonged to the component “activities and participation”, 19 to “body functions”, 7 to “environmental factors”, and 1 to “body structures”. The most relevant additional ICF category for each ICF component were, respectively, d859 Work and employment, other specified and unspecified (identified in 86.3% of the studies), b720 Mobility of bone functions (82.4%), e399 Support and relationships, unspecified (25.5%) and s770 Additional musculoskeletal structures related to movement (5.9%). A full list of additional ICF categories can be found in Appendix E.

4. Discussion

This scoping review has identified the most relevant functioning features for the management of musculoskeletal conditions in primary care physiotherapy services from a researcher’s perspective. The aim was to obtain an ICF profile that best fits this specific clinical setting. According to our results, ICF categories belonging to the component “activities and participation” were the most numerous (62 out of 147, 42.2%). However, the most frequent ICF categories belonged to the component “body functions” (e.g., b280 Sensation of pain or b710 Mobility of joint functions were counted 207 and 104 times, respectively).
Pain assessment was considered the most important functional aspect, with up to 13 outcome measures identified for this purpose. Moreover, the outcome measures were not only addressed to the assessment of pain but also to identify features related to its chronification, such as tests to discriminate nociplastic pain (e.g., detection of pain thresholds, temporal summation, or conditional pain modulation) [67]. This finding is in accordance with the multidimensional definition of pain formulated by the International Association for the Study of Pain (IASP) [68] and the recommendations of the Initiative on Methods, Measurement, and Pain Assessment in Clinical Trials (IMMPACT) [69]. It also responds to the significant impact in terms of disability that chronic pain as a clinical entity is having on the world’s population in recent decades [70,71].
The assessment of movement was the second most relevant aspect considered in the outcome measures analyzed. In terms of ICF, movement can be described by means of a broad set of categories. Van Dijk et al. [72] have contributed to clarifying this issue through a study on the quality of movement in patients with low back pain. As these authors have observed, movement is a complex entity that not only includes structural (e.g., joints, muscles, etc.) and functional aspects (e.g., motor control, proprioception, etc.), but it also involves significant mental functions (e.g., insight, motivation, emotions, etc.). The same conclusion can be drawn from the findings of this review since all the second-level categories belonging to the ICF chapter b7 Neuromusculoskeletal and movement-related functions were identified in the outcome measures analyzed. This is particularly relevant because movement is the core expertise of physiotherapy as a profession and it can be concluded that it has a central role in the management of musculoskeletal disorders [73,74]. Moreover, this is consistent with the contribution of Finger et al. in describing within the ICF framework the profile of patients receiving healthcare by physiotherapists [75].
Psychosocial aspects also play an important role in the assessment of musculoskeletal disorders. ICF categories such as b130 energy and drive functions, b152 emotional functions, and b160 thought functions (which includes b1602 content of thought) are among the most frequently identified in the outcome measures used in musculoskeletal research. In the context of this review, these categories can be considered cross-cutting to the concepts of pain and movement described above. Catastrophism, kinesiophobia, and fear-avoidance beliefs are aspects that have been described in the context of chronic pain and can lead to behavioral changes that produce movement disorders. The relationship between pain, function, and psychosocial factors has already been established by some authors [76,77,78], and they are predictors of disability and work absence [79].
Regarding the “activities and participation” component, the categories belonging to the ICF chapters d4 Mobility, d5 Self-care, and d6 Domestic life are widely considered in the assessment instruments. These tools are typically patient-reported outcome measures (PROM), generally oriented to specific pathologies (e.g., neck disability index) or body regions (e.g., DASH). There is controversy in the scientific literature about the validity of such measures [80]. In terms of individual categories, d450 Walking was the most frequently identified. Gait speed has been proposed by some authors as a predictor of disability and quality of life [81,82].
In relation to the “environmental factors” component, a total of 22 ICF categories were identified, but with a substantially lower frequency than the above-mentioned components. Only 6 outcome measures were intended to assess an environmental factor, so the linking process to the ICF was made based on the outcome measures that address these factors indirectly. The most frequently identified aspect was the quality of health care (e.g., through an instrument such as the osteoarthritis quality indicator questionnaire), which was conceptualized as a combination of the following ICF categories: e355 Health professionals, e450 Individual attitudes of health professionals, and e580 Health services, systems and policies. The lack of specific outcome measures to assess environmental factors may be related to the difficulty in conceptualizing this component of the ICF. As Day et al. [83] stated, although the ICF is an advanced framework for describing functional status in relation to health, the current coding system may not be adequate to describe the facilitator–barrier continuum.
Additionally, the information related to the component “body structures” allowed linking all the categories of the ICF chapter s7 Structures related to movement and the ICF category s120 Spinal cord and related structures. However, we cannot consider this finding sufficiently relevant because the frequency for these categories was low. Furthermore, the identification of body regions is based on the target population of the selected studies. For example, the most frequent category was s760 Trunk structure, but this could be due to the fact that 18 studies (35.3%) included patients with low back pain. In our opinion, the ICF category s770 Additional musculoskeletal structures related to movement is more versatile and inclusive for the review purpose, because it considers body structures in a non-specifically manner rather than the other categories in this chapter.
Finally, personal factors were not analyzed in this review because this component has not yet been developed in the ICF. Authors such as Geyh et al. [84] have proposed the opening of a scientific discussion to develop this area and increase the potential of the ICF.
In the comparison with the ICF core set for post-acute musculoskeletal conditions, there was a high percentage of agreement (84.2%) with the ICF categories obtained from the outcome measures. However, assuming without further consideration that there is good coverage of the relevant aspects of functioning can be misleading. The assessment tools that account for the majority of ICF categories are PROMs, and some authors have questioned the content validity of these instruments [85]. In recent years, efforts have been made to improve the properties of these outcome measures [86], but as some authors recommend, caution must be taken in the selection of such tools [87].
Moreover, a large number of additional ICF categories have been identified, so there are several areas of functioning that are considered important from the researcher’s point of view but are not represented in the ICF core set taken as a reference standard. This could be due to the nature of this ICF core set, since it is intended to be used by multidisciplinary teams in rehabilitation facilities [11]. However, primary care teams are not only focused on rehabilitation and they could have specific needs in terms of functioning description. According to the results of our study, there are some poorly covered areas of functioning when the ICF core set for post-acute musculoskeletal conditions is oriented to a primary care context.
Additional ICF categories belonging to the component “activities and participation” were mainly related to chapters d4 Mobility, d6 Domestic life, and d8 Major life areas, including education, employment, and economic life. The most frequent categories were consistent with this finding and d859 Work and employment, other specified and unspecified (included in 86.3% of the studies), d640 Doing housework (72.5%), d920 Recreation and leisure (68.6%), and d455 Moving around (52.9%) were identified. Regarding “body functions”, ICF category b720 Mobility of bone functions was the most frequent (82.4%). The most relevant ICF chapter was d1 Mental functions, including categories such as b180 Experience of self and time functions (74.5%), b160 Thought functions (68.6%), and b126 Temperament and personality functions (49.0%). A broader description of pain seems necessary, taking into account the identification of b289 Sensation of pain, other specified and unspecified (56.9%). Finally, a myriad of “environmental factors” was also identified, but apparently with less relevance and more difficulty in reaching a clear consensus. This is the case for ICF categories e399 Support and relationships, unspecified (25.5%), e570 Social security services, systems and policies (23.5%), or e325 Acquaintances, peers, colleagues, neighbors and community members (17.6%).
In view of the above, the need to develop a tailored core set for primary care should be considered. The existing ICF core sets are adequate to describe the early stages of the rehabilitation process, starting in the acute hospital and continuing in rehabilitation centers [11]. However, there is a lack of a comparable ICF-based tool that can be used in the later stage of the continuum of care, where patients are reintegrated into the community. To some extent, some authors have already pointed to this need by calling for an ICF core set for chronic musculoskeletal conditions [88], which could also be applied in a primary care setting. The availability of a tailored ICF core set has deep implications, as it is the framework that allows the selection of the most appropriate assessment tools for a given clinical context.
Limitations of this study include potential biases arising from study selection, extraction of outcome measures, and those related to the ICF linking process. Regarding the selection of studies, only publications in English and Spanish were selected, so relevant information from studies published in another language may have been missed. The authors decided not to set a threshold for the selection of outcome measures in order to make the analysis as exhaustive as possible. However, this implied analyzing a high number of assessment instruments and resulted in linking ICF categories with very low frequency (e.g., there were 97 categories with a frequency of less than 20). This should be taken into account when interpreting the data. Finally, although there are established rules for the linking process [15], a certain degree of subjectivity on the part of researchers is inevitable. Therefore, the categories linked could be biased in some way.
In summary, the findings of this review provide relevant information about the researcher’s perspective on the most frequent tools used in the assessment of musculoskeletal conditions in a primary care physiotherapy setting. To our knowledge, this is the first study to address this issue in a comprehensive manner. This type of review is usually conducted as part of the preparatory studies carried out during the development of ICF core sets [89,90]. The aim of this exploratory phase is to capture the perspective of researchers, practitioners, patients, and the healthcare context [13]. Therefore, the results of this study not only allow for a better selection of outcome measures in clinical practice but also contribute to laying the foundations for the development of a tailored core set for physiotherapy units in primary care.

5. Conclusions

The findings of this study contribute to a better understanding of the most relevant aspects of functioning in the management of patients with musculoskeletal conditions from the researcher’s perspective. This knowledge is potentially useful for the development of ICF-based assessment tools.

Author Contributions

Conceptualization, H.H.-L., S.J.-d.-B., L.C.-L. and M.T.M.-G.; methodology, H.H.-L., S.J.-d.-B., L.C.-L., I.H.-G. and R.M.-d.-l.-F.; software H.H.-L. and S.J.-d.-B.; formal analysis, H.H.-L., S.J.-d.-B. and L.C.-L.; investigation H.H.-L., S.J.-d.-B., L.C.-L. and I.H.-G.; resources, L.C.-L., S.J.-d.-B. and. H.H.-L.; writing, H.H.-L., S.J.-d.-B., L.C.-L. and M.T.M.-G.; writing—review and editing, H.H.-L., S.J.-d.-B., L.C.-L., S.L.-M.; M.T.M.-G., I.H.-G. and R.M.-d.-l.-F.; visualization and supervision, L.C.-L., M.T.M.-G. and S.J.-d.-B.; project administration, H.H.-L. All authors have read and agreed to the published version of the manuscript.

Funding

This work was supported by the Scientific Foundation of Caja Rural de Soria without influencing the development of the study or its results.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A. Search Strategy

Database: Medline/Pubmed
Search strategies:
  • ((("Musculoskeletal Diseases"[Mesh] AND "Primary Health Care"[Mesh])) AND "Physical Therapy Modalities"[Mesh]) AND ("Outcome Assessment, Health Care"[Mesh] OR "Patient Reported Outcome Measures"[Mesh] OR "International Classification of Functioning, Disability and Health"[Mesh])
  • (((musculoskeletal AND (disease* OR condition* OR disorder*)) AND (primary health care OR Community-Based Primary Care)) AND (physical therapy modalities OR physical therapy OR physiotherapy)) AND (body function* OR body structure* OR activit* OR participation* OR ICF OR international classification of functioning disability and health OR outcomes measures)
Filters applied: article type (Clinical Study, Clinical Trial, Comparative study, Controlled Clinical Trial, Multicenter Study, Observational Study, Pragmatic Clinical Trial, Randomized Controlled Trial), publication date (last 10 years), language (english, spanish)
Database: Scopus
Search strategies:
  • musculoskeletal condition AND physiotherapy AND primary health care AND outcomes measures (title-abs-key)
  • musculoskeletal disorder AND physiotherapy AND primary health care AND outcomes measures (title-abs-key)
  • musculoskeletal condition AND physical therapy AND primary health care AND outcomes measures (title-abs-key)
  • musculoskeletal disorder AND physical therapy AND primary health care AND outcomes measures (title-abs-key)
Filters applied: document type (article), language (english), year (from 2012).
Database: CINAHL
Search strategies:
  • musculoskeletal condition AND physiotherapy AND primary health care AND outcomes measures
  • musculoskeletal disorder AND physiotherapy AND primary health care AND outcomes measures
  • musculoskeletal condition AND physical therapy AND primary health care AND outcomes measures
  • musculoskeletal disorder AND physical therapy AND primary health care AND outcomes measures
Filters applied: publication date (from 2012)
Database: Web of Science
Search strategies:
  • musculoskeletal condition AND physiotherapy AND primary health care AND outcomes measures
  • musculoskeletal disorder AND physiotherapy AND primary health care AND outcomes measures
  • musculoskeletal condition AND physical therapy AND primary health care AND outcomes measures
  • musculoskeletal disorder AND physical therapy AND primary health care AND outcomes measures
Filters applied: publication date (from 2012)
Database: PEDro
Search strategies:
  • musculoskeletal disorder physical therapy primary health care outcomes measures
  • musculoskeletal disorder physiotherapy primary health care outcomes measures
  • musculoskeletal condition physical therapy primary health care outcomes measures
  • musculoskeletal condition physiotherapy primary health care outcomes measures

Appendix B

Table A1. Characteristics of Included Studies.
Table A1. Characteristics of Included Studies.
StudyCountryDesignSample SizeParticipantsOutcome Measures *
Age
(Years)
Female/MalePathology
Abbot et al. (2019)New ZealandExperimental (RCT)20637-92114/92Hip or knee osteoarthritisPrimary: WOMAC
Secondary: NPRS, WT, STS, TUG, AdEv
Allen et al. (2017)United States of AmericaExperimental (RCT)537NR397/140Hip or knee osteoarthritisPrimary: WOMAC
Secondary: PHQ, SPPB, ATU, PAL
Amorim et al. (2019)AustraliaExperimental (RCT)68>1834/34Chronic low back painPrimary: CS, NPRS, RMDQ
Secondary: PAL, DASS, FABQ, IPAQ, PSQI
Arden et al. (2017)United KingdomObservational (RCS)62>1839/23Low back painPrimary: BQ, WT, ST, STS
Battista et al. (2021)ItalyObservational (DQS)11NR6/5Hip and knee osteoarthritisPrimary: DQ (3)
Benell et al. (2017)AustraliaExperimental (RCT)148>5083/65Chronic Knee PainPrimary: NPRS, WOMAC
Secondary: GROC, PCS, AQLI, ASES, CSQ, AdEv
Benell et al. (2014)AustraliaExperimental
(RCT)
78NR42/36Knee osteoarthritisPrimary: VAS, WOMAC
Secondary: Adh
Bornhöft et al. (2019)SwedenExperimental (RCT)5516-6734/21Musculoskeletal disordersPrimary: NPRS, DRI, EQL5, OMPQ
Secondary: ARM
Burns et al. (2018)United States of AmericaExperimental (RCT)90≥1837/53Low back painPrimary: NPRS, ODI, GROC
Chesterton et al. (2013)United KingdomExperimental (RCT)241NR109/132Tennis elbowPrimary: NPRS
Secondary: GROC, PRTEE, EQL5, IPQ, SF-12
Christiansen et al. (2018)DenmarkObservational (PCS)160>1890/70Neck, shoulder, and low-back painPrimary: DASH, NPRS, NDI, OMPQ, RMDQ, WHO5
Costa et al. (2022)PortugalExperimental (NCIS)343>18205/138Musculoskeletal painPrimary: NPRS
Secondary: ATU (2), GAD, PHQ, FABQ, WPAI, Adh
Crossley et al. (2015)AustraliaExperimental (RCT)92>4053/39Patelofemoral osteoarthritisPrimary: GROC, KOOS, VAS
Secondary: Adh, AdEv
Cuesta-Vargas et al. (2015)SpainExperimental (RCT)114NRNRChronic musculoskeletal disordersPrimary: SF-12, EQL5, VAS, RMDQ, NDI, WOMAC
Darlow et al. (2019)New ZealandExperimental (RCT)221NR105/116Low back painPrimary: RMDQ
Secondary: NPRS, DRS, PS, EQL5, OCCQ, PSEQ, PyScFQ (4)
Emilson et al. (2017)SwedenExperimental (RCT)4318-6530/10/22Musculoskeletal painPrimary: NPRS, PDI, TSK, PR
Ferrer-Peña et al. (2019)SpainObservational
(CSS)
49NR41/8Greater trochanteric pain syndromePrimary: PPSA, GCPS, PPT, TS, CPMI, VAS
Gohir et al (2021)United KingdomExperimental (RCT)105>4571/34Knee osteoarthritisPrimary: NPRS
Secondary: WOMAC, STS, TUG, MHQ, MVC, PPT, TS, CPM, SQM, PSQI, MUA
Goldberg et al. (2018)United States of AmericaObservational (CSS)853>18458/395Musculoskeletal painPrimary: TSK, SF-8
Hill et al. (2020)United KingdomExperimental (RCT)524NR318/206Musculoskeletal pain (back, neck, knee or multi-site pain)Primary: RMDQ, NDI, SPADI, KOOS, SF-12
Secondary: STMT, MHQ, TSK, ECRQ, EQL5, PS, GROC, WA, WP, PQ
Hopewell et al. (2021)United KingdomExperimental (RCT)708>18349/359A rotator cuff disorderPrimary: SPADI
Secondary: EQL5
Laslett et al. (2014)New ZealandObservational (PCS)161>18–8182/79Shoulder painPrimary: SPADI, VAS, FABQ, SF-8, DRS
Leaver et al. (2013)AustraliaObservational (PCS)18118-70117/64Cervical painPrimary: PR
Secondary: NPRS, NDI
Leemans et al. (2021)BelgiumExperimental (RCT)5025-8027/23Low back painPrimary: NPRS, BPS
Secondary: PPT, TS, CPM, FABQ, SF-36, CSI, ATU
Legha et al. (2020)United KingdomExperimental (RCT)1083NR619/464Knee osteoarthritisPrimary: WOMAC
Lentz et al. (2018)United States of AmericaObservational (PCS)440NR275/164Neck, low back, knee or shoulderPrimary: PQ (2), NPRS, NDI, ODI, DASH, IKDF, OSPRO-ROS, OSPRO-YF
Lewis et al. (2017)United KingdomExperimental (RCT)227>18109/118Subacromial pain syndromePrimary: OSS
Secondary: SPADI, VAS, DVAS, PQ, ROM, OT-NS, OT-HT
Lingner et al. (2018)GermanyExperimental (RCT)8718-5044/43Low back painPrimary: NPRS, VAS
Secondary: ATU (3), HFAQ, GROC, WA, PS
López-López et al. (2015)SpainExperimental (RCT)4818-6542/6Chronic neck painPrimary: VAS
Secondary: ROM, PPT, STAI, BDI, TSK, PCS
Marra et al. (2012)CanadaExperimental (RCT)139≥ 5079/60Knee osteoarthritisPrimary: OA-QI
Secondary: HUI3, LEFS, PAT5, WOMAC
Matarán-Peñarrocha et al. (2020)SpainExperimental (RCT)6418-6532/32Chronic non specific low back painPrimary: MQ-OT, FTFd, ODI, RMDQ, TSK, VAS
Miedema et al. (2016)NetherlandsObservational (PCS)68218-64286/396Musculoskeletal pain of arm, neck and shoulderPrimary: DASH, PR
Minns Lowe et al. (2020)United KingdomExperimental (RCT)41>1820/21Musculoskeletal disordersPrimary: WT
Secondary: PAL (2), NPRS, PANAS, GSES, SF-36 (1), PR, DAQ
Molgaard Nielsen et al. (2017)DenmarkObservational (PCS)92818-65418/510Low back painPrimary: NPRS, RMDQ
Secondary: PQ (3)
Moseng et al. (2020)NorwayExperimental (RCT)393≥45280/113Hip and/or knee osteoarthritisPrimary: NPRS, DQ (2), ROM, HOOS, KOOS
Murphy et al. (2013)IrelandObservational (PCS)1532NR958/574Low back painPrimary: VAS, RMDQ, DRAM, BBQ, ROM, MSPQ, SFAT
Noblet et al. (2020)EnglandExperimental (RCT)29>1817/12/22Low back painPrimary: NPRS, RMDQ
Secondary: EQL5, TSK, PAL, WA, ATU (2)
Østerås et al. (2014)NorwayExperimental (RCT)13040-79117/13Hand osteoarthritisPrimary: FIHOA, NPRS, PSFS, DQ
Secondary: ROM, GROC, DQ, MVC, MPU-OT, Adh, AdEv
Østerås et al. (2019)NorwayExperimental (RCT)393≥45279/114Hip and/or knee osteoarthritisPrimary: OA-QI
Secondary: PS, PAL, PR
Paanalahti et al. (2016)SwedenExperimental (RCT)105718–65740/317Neck pain and/or back painPrimary: CPQ, NPRS, DQ (3)
Secondary: PR, ATU
Palacín-Marín et al. (2013)SpainExperimental (RCT)15>1806/09Lumbar painPrimary: ROM, ST-OT, SLR-OT, ODI, VAS, SF-12, TSK
Sandal et al. (2021)DenmarkExperimental (RCT)461>18255/206Low back painPrimary: RMDQ
Secondary: NPRS, PSEQ, FABQ, IPQ, EQL5, GROC, SGPAL
Schroder et al. (2021)SwedenExperimental (RCT)46718-65204/263Low back painPrimary: NPRS, ODI
Secondary: IPQ, EQL5, PEI, GROC, PS
Schuetze et al. (2014)AustraliaExperimental (NCIS)1618-6512/04/22Low back painPrimary: OMPQ, ODI, DASS, MAAS, PCS, CPAQ, SF-36, ClSQ
Trulsson Schouenborg et al. (2021)SwedenObservational (PCS)274>18194/80Chronic musculoskeletal painPrimary: NPRS
Secondary: DRI, EQL5
Uhl et al. (2017)United States of AmericaObservational (RCS)128NR74/53Shoulder painPrimary: PQ, NPRS, Adh, ATU, DASH
Van der Maas et al. (2015)NetherlandsExperimental (RCT)94NR77/17Chronic musculoskeletal painPrimary: NPRS, BDI, SF-36, PDI, SBC, PSEQ, PCS
Vibe Fersum et al. (2019)NorwayExperimental (RCT)12118-6533/88Non-specific low back painPrimary: OMPQ
Secondary: ODI, HSC, FABQ
Vibe Fersum et al. (2013)NorwayExperimental (RCT)12118-6563/58Non-specific low back painPrimary: NPRS, ODI
Secondary: HSC, FABQ, ROM, PS, WA, CS
Williams et al (2019)United KingdomExperimental (RCT)440>18288/152Musculoskeletal disordersPrimary: PSFS
Secondary: EQL5, PAM, MRI
Xia et al. (2016)United States of AmericaExperimental (RCT)19221-5488/104Low back painPrimary: RMDQ
Secondary: VAS, FABQ, SF-36
RCT: randomized controlled trial; NCIS: not-controlled interventional study; RCS: retrospective cohort study; PCS: prospective cohort study; DQS: descriptive qualitative study; CSS: cross-sectional study; NR: not reported.* Abbreviations for assessment instruments: AdEv: adverse events reported; Adh: adherence to treatment; AQLI: assessment quality of life instrument; ARM: Attitudes regarding Responsibility for Musculoskeletal disorders scale; ASES: arthritis self-efficacy scale; ATU: analgesic and other therapies usage; BBQ: back beliefs questionnaire; BDI: Beck depression inventory; BPS: back performance scale; BQ: Bournemouth questionnaire; ClSQ: client satisfaction questionnaire; CPAQ: chronic pain acceptance questionnaire; CPM: conditional pain modulation; CPMI: conditioned pain modulation index; CPQ: chronic pain questionnaire; CS: care seeking; CSI: central sensitization inventory; CSQ: coping strategies questionnaire; DAQ: daily activities questionnaire; DASH: Disability of Arm Shoulder and Hand; DASS: depression anxiety stress scale; DQ: disability question; DRAM: distress and risk assessment method; DRI: disability rating index; DRS: disability rating scale; DVAS: visual analog scale for disability; ECRQ: Effective consultation and reassurance questionnaire; EQL5: Euro quality of life-5D; FABQ: fear avoidance beliefs questionnaire; FIHOA: functional index for hand ostheoarthritis; FTFd: finger to floor distance; GAD: generalized anxiety disorder questionnaire; GCPS: graded chronic pain scale; GROC: global rating of change; GSES: general self-efficacy scale; HFAQ: Hannover functional ability questionnaire; HOOS: hip disability and osteoarthritis outcome score; HSC: Hopkins symptoms checklist; HUI3: health utilities index-3; IKDF: International Knee Documentation Committee Subjective Knee Form; IPAQ: International physical activity questionnaire; IPQ: illness perception questionnaire; KOOS: Knee injury and osteoarthritis outcome score; LEFS: lower extremity functional scale; MAAS: mindful attention awareness scale; MHQ: musculoskeletal health questionnaire; MPU-OT: Mobert pick-up test; MQ-OT: McQuade orthopaedic test; MRI: MedRisk instrument; MSPQ: Modified somatic perception questionnaire; MUA: musculoskeletal ultrasonographic assessment; MVC: maximum voluntary contraction; NDI: neck disability index; NPRS: numeric pain rating scale; OA-QI: Quality indicators for the management of ostheoarthritis; OCCQ: Otago costs and consequences questionnaire for low back pain; ODI: Oswestry disability index; OMPQ: Örebro musculoskeletal pain screening questionnaire; OSPRO-ROS: OSPRO Review of Systems tool; OSPRO-YF: OSPRO Yellow Flag tool; OSS: Oxford shoulder scale; OT-NS: Neer sign orthopaedic test; OT-HT: Hawkins’s orthopaedic test; PAL: physical activity level; PAM: patient activation measure; PANAS: positive and negative affect schedule; PAT5: paper adaptative test-5D; PCS: pain catastrophizing scale; PDI: pain disability index; PEI: pain enablement instrument; PHQ: patient health questionnaire; PPSA: percentage pain surface area; PPT: pressure pain threshold; PQ: pain question; PR: perceived recovery; PRTEE: patient-reported tennis elbow evaluation; PS: patient satisfaction; PSEQ: Pain self-efficacy questionnaire; PSFS: patient-specific functional scale; PyScFQ: psychosocial factors question; PSQI: Pittsburgh sleep quality index; RMDQ: Roland Morris disability questionnaire; ROM: range of motion; SBC: scale of bdy connection; SF-8: 8-item short form survey; SF-12: 12-item short form survey; SF-36: 36-item short form survey; SFAT: Simmond’s functional assessment tool; SGPAL: Saltin-Grimby physical activity level scale; SLR-OT: straight leg raise orthopaedic test; SPADI: Shoulder Pain and Disability Index; SPPB: short physical performance battery; SQM: sleep quality measure; ST: step test; ST-OT: Sorensen orthopaedic test; STAI: state trait anxiety inventory; STMT: STarT-MSK tool; STS: sit-to-stand test; TC: treatment change; TS: temporal summation; TSK: Tampa kinesiophobia scale; TUG: timed-up and go; VAS: visual analog scale; WA: work absence; WHO5: WHO-5 well being index; WOMAC: Western Ontario McMaster Universities osteoarthritis index; WP: work productivity; WPAI: work productivity and activity impairment questionnaire; WT: walking test

Appendix C

Table A2. Supplementary List of Assessment Instruments (Identified in 3 or Less Studies).
Table A2. Supplementary List of Assessment Instruments (Identified in 3 or Less Studies).
Assessment InstrumentNo of StudiesTypeMain Theme
Illness Perception Questionnaire3Multi-itemOther
Knee injury and Osteoarthritis Outcome Score (KOOS)3Multi-itemDisability
Pain self-efficacy questionnaire (PSEQ)3Multi-itemDisability
Sit-to-stand test3Single-itemPhysical performance
Temporal summation3Single-itemPain description
Walking test3Single-itemPhysical performance
Beck Depression Inventory2Multi-itemPsychosocial factors
Care seeking2Single-itemOther (indirect recovery)
Conditional pain modulation2Single-itemPain description
Depression Anxiety Stress Scales (DASS)2Multi-itemPsychosocial factors
Disability Rating Index (DRI)2Multi-itemDisability
Disability Rating Scale2Single-itemDisability
Hopkins Symptoms Checklist2Multi-itemPsychosocial factors
Musculoskeletal Health Questionnaire2Multi-itemDisability
OsteoArthritis Quality Indicator questionnaire2Multi-itemOther (environmental factor)
Pain Disability Index2Multi-itemDisability
Patient Health Questionnaire (PHQ)2Multi-itemPsychosocial factors
Patient-Specific Function Scale (PSFS)2Multi-itemDisability
Peak muscle strength2Single-itemPhysical measure
Pittsburgh Sleep Quality Index2Multi-itemOther (sleep)
Short Form Health Survey 8 questionnaire (SF-8)2Multi-itemQuality of life related to health
Timed up and go (TUG)2Single-itemPhysical performance
Arthritis Self-Efficacy Scale1Multi-itemDisability
Assessment Quality of Life Instrument (AQLI)1Multi-itemQuality of life related to health
Attitudes regarding Responsibility for Musculoskeletal disorders scale (ARM)1Multi-itemOther (environmental factor)
Back Beliefs Questionnaire (BBQ)1Multi-itemPsychosocial factors
Back Performance Scale (BPS)1Multi-itemDisability
Bournemouth Questionnaire1Multi-itemPain description
Central Sensitization Inventory (CSI)1Multi-itemPain description
Chronic Pain Acceptance Questionnaire (CPAQ)1Multi-itemPsychosocial factors
Chronic Pain Assessment Questionnaire (CPQ)1Multi-itemPain description
Client Satisfaction Questionnaire (CSQ)1Multi-itemOther
Conditioned Pain Modulation Index (CPMI)1Multi-itemPain description
Coping Strategies Questionnaire1Multi-itemPsychosocial factors
Daily Activities Questionnaire1Multi-itemDisability
Disability Visual Analog Scale1Single-itemDisability
Distress and Risk Assessment Method (DRAM)1Multi-itemPsychosocial factors
Effective Consultation and Reassurance Questionnaire (ECRQ)1Multi-itemOther (environmental factor)
Finger-to-floor distance1Single-itemPhysical measure
Functional Index for Hand OsteoArthritis1Multi-itemDisability
General Self-Efficacy Scale1Multi-itemDisability
Generalized Anxiety Disorder (GAD)1Multi-itemPsychosocial factors
Graded Chronic Pain Scale (GCPS)1Multi-itemPain description
Hannover functional ability questionnaire (FfbH-R)1Multi-itemDisability
Hawkin’s test1Single-itemPhysical measure (orthopaedic)
Health Utilities Index Mark 3 (HUI3)1Multi-itemQuality of life related to health
Hip disability and Osteoarthritis Outcome Score (HOOS)1Multi-itemDisability
International Knee Documentation Committee Subjective Knee Form (IKDC)1Multi-itemDisability
International Physical Activity Questionnaire1Multi-itemPhysical performance
Lower Extremities Function Scale (LEFS)1Multi-itemDisability
McQuade test1Single-itemPhysical measure (orthopaedic)
MedRisk instrument1Multi-itemOther (environmental factor)
Mindful Attention Awareness Scale (MAAS)1Multi-itemOther (self-perception)
Moberg Pick-up Test1Single-itemPhysical measure (orthopaedic)
Modified somatic perception questionnaire1Multi-itemOther (self-perception)
Musculoskeletal ultrasonographic assessment1Single-itemOther
Neer sign1Single-itemPhysical measure (orthopaedic)
OSPRO Review of Systems tool (OSPRO-ROS)1Multi-itemPsychosocial factors
OSPRO Yellow Flag tool (OSPRO-YF)1Multi-itemPsychosocial factors
Otago Costs and Consequences Questionnaire for Low Back Pain1Multi-itemOther (environmental factor)
Oxford Shoulder Score1Multi-itemDisability
Pain Enablement Instrument1Multi-itemOther (self-management)
Paper Adaptive Test-5D (PAT- 5D)1Multi-itemQuality of life related to health
Patient Activation Measure1Multi-itemOther (self-management )
Patient-rated Tennis Elbow Evaluation (PRTEE)1Multi-itemDisability
Percentage Pain Surface Area (PPSA)1Single-itemPain description
Positive and negative affect schedule (PANAS scale)1Multi-itemPsychosocial factors
Question about work productivity1Single-itemOther (environmental factor)
Saltin-Grimby Physical Activity Level Scale1Multi-itemPhysical performance
Scale of Body Connection (SBC)1Multi-itemOther (self-perception)
Short Physical Performance Battery (SPPB)1Multi-itemPhysical performance
Simmond’s functional assessment tool1Multi-itemPhysical performance
Sleep quality measure1Single-itemOther (sleep)
Sorensen test1Single-itemPhysical measure (orthopaedic)
StarT MSK tool1Multi-itemDisability
State Trait Anxiety Inventory (STAI)1Multi-itemPsychosocial factors
Step test1Single-itemPhysical performance
Straight leg raise1Single-itemPhysical measure (orthopaedic)
WHO 5 Well-being Index1Multi-itemQuality of life related to health
Work Productivity and Activity Impairment (WPAI)1Multi-itemOther (environmental factor)

Appendix D

Table A3. Comparison with the Comprehensive ICF Core Set for Post-Acute Musculoskeletal Conditions.
Table A3. Comparison with the Comprehensive ICF Core Set for Post-Acute Musculoskeletal Conditions.
ICF CategoryICF Chapter (Theme) *Count
b130 Energy and drive functionsb1 Mental functions (global mental functions)73
b134 Sleep functions (B)b1 a, b58
b152 Emotional functionsb1 Mental functions (specific mental functions)104
b260 Proprioceptive function (B)b2 Sensory functions and pain (additional sensory functions)4
b270 Sensory functions related to temperature and other stimulib2 Sensory functions and pain b3
b280 Sensation of pain (B)b2 Sensory functions and pain (pain)207
b415 Blood vessel functionsb4 Functions of the cardiovascular, haematological, immunological and respiratory systems (functions of the cardiovascular system)1
b435 Immunological system functions (B)b4a (functions of the haematological and immunological systems)0
b440 Respiration functionsb4 a (functions of the respiratory system)11
b455 Exercise tolerance functionsb4 a (additional functions and sensations of the cardiovascular and respiratory systems)45
b525 Defecation functionsb5 Functions of the digestive, metabolic and endocrine systems (functions related to the digestive system)2
b530 Weight maintenance functions (B)b5 a,b11
b620 Urination functions (B)b6 Genitourinary and reproductive functions (urinary functions)4
b710 Mobility of joint functionsb7 Neuromusculoskeletal and movement-related functions (functions of the joints and bones)104
b715 Stability of joint functionsb7 a,b92
b730 Muscle power functions (B)b7a (muscle functions)104
b735 Muscle tone functionsb7 a,b99
b740 Muscle endurance functions (B)b7 a.b99
b755 Involuntary movement reaction functions (B)b7 a (movement functions)93
b760 Control of voluntary movement functionsb7 a,b94
b770 Gait pattern functionsb7 a,b66
b780 Sensations related to muscles and movement functions (B)b7 a,b29
b810 Protective functions of the skinb8 Functions of the skin and related structures (functions of the skin)1
d155 Acquiring skills (B)d1 a (basic learning)0
d177 Making decisions (B)d1 a (applying knowledge)5
d230 Carrying out daily routine (B)d2 General tasks and demands23
d240 Handling stress and other psychological demands (B)d2 a41
d310 Communicating with - receiving - spoken messagesd3 Communication (communicating with – receiving – spoken messages)0
d410 Changing basic body position (B)d4 Mobility (changing and maintaining body position)46
d415 Maintaining a body position (B)d4 a,b64
d420 Transferring oneselfd4 a,b13
d430 Lifting and carrying objects (B)d4 Mobility (carrying, moving and handling objects)43
d440 Fine hand used4 a,b32
d445 Hand and arm use (B)d4 a,b16
d450 Walking (B)d4 Mobility (walking and moving)90
d460 Moving around in different locationsd4 a,b44
d465 Moving around using equipment (B)d4 a,b29
d510 Washing oneself (B)d5 Self-care (theme not available)70
d520 Caring for body parts (B)d5 a,b12
d530 Toileting (B)d5 a,b19
d540 Dressing (B)d5 a,b83
d550 Eating (B)d5 a,b18
d560 Drinkingd5 a,b18
d570 Looking after one’s healthd5 a,b49
d760 Family relationshipsd7 Interpersonal interactions and relationships (particular interpersonal interactions)48
e110 Products or substances for personal consumption (B)e1 Products and technology (theme not available)36
e115 Products and technology for personal use in daily living (B)e1 a,b24
e120 Products and technology for personal indoor and outdoor mobility and transportation (B)e1 a,b37
e125 Products and technology for communicatione1 a,b0
e150 Design, construction and building products and technology of buildings for public usee1 a,b1
e225 Climate (B)e2 Natural environment and human-made changes to environment (theme not available)0
e310 Immediate familye3 Support and relationships (theme not available)13
e320 Friendse3 a,b14
e340 Personal care providers and personal assistantse3 a,b14
e355 Health professionals (B)e3 a,b73
e410 Individual attitudes of immediate family memberse4 Attitudes (theme not available)0
e420 Individual attitudes of friendse4 a,b0
e430 Individual attitudes of people in positions of authoritye4 a,b6
e440 Individual attitudes of personal care providers and personal assistantse4 a,b0
e450 Individual attitudes of health professionals (B)e4 a,b63
e555 Associations and organizational services, systems and policiese5 Services, systems and policies (theme not available)0
e575 General social support services, systems and policiese5 a,b0
e580 Health services, systems and policiese5 a,b73
s710 Structure of head and neck regions7 Structures related to movement8
s720 Structure of shoulder regions7 a19
s730 Structure of upper extremitys7 a12
s740 Structure of pelvic regions7 a1
s750 Structure of lower extremitys7 a15
s760 Structure of trunks7 a33
s810 Structure of areas of skins8 Skin and related structures0
* Initial letters show ICF component (“b” for “body functions”; “d” for “activities and participation”, “e” for “environmental factors” and “s” for “body structures”). (B) indicates that the category also belongs to the brief version of the ICF Core Set. a Same chapter as category above. b Same theme as category above.

Appendix E

Table A4. Additional ICF Categories (Second-Level) Linked to Concepts Identified in the Assessment Instruments.
Table A4. Additional ICF Categories (Second-Level) Linked to Concepts Identified in the Assessment Instruments.
ICF codeDescriptionCountIncluded in studies (%)
d859Work and employment, other specified and unspecified8986.3
b720Mobility of bone functions9382.4
b180Experience of self and time functions8274.5
d640Doing housework5472.5
b160Thought functions7068.6
d920Recreation and leisure6568.6
d455Moving around4452.9
d649Household tasks, other specified and unspecified4051.0
b126Temperament and personality functions4249.0
d299General tasks and demands, unspecified3245.1
d910Community life3741.2
d620Acquisition of goods and services2837.3
d999Community, social and civic life, unspecified3835.3
d160Focusing attention1433.3
b289Sensation of pain, unspecified
Sensation of pain, other specified (conditional pain modulation)
Sensation of pain, other specified (temporal summation)
23
3
3
29.4
5.9
5.9
d899Major life areas, unspecified3325.5
d770Intimate relationships1725.5
e399Support and relationships, unspecified1425.5
e570Social security services, systems and policies2323.5
d429Changing and maintaining body position, other specified and unspecified1923.5
b140Attention functions1623.5
d159Basic learning, other specified and unspecified523.5
d699Domestic life, unspecified2521.6
d850Remunerative employment1821.6
d750Informal social relationships1421.6
d650Caring for household objects1221.6
d163Thinking1819.6
d740Formal relationships1119.6
d599Self-care, unspecified1019.6
e325Acquaintances, peers, colleagues, neighbours and community members1117.6
d630Preparing meals1115.7
b122Global psychosocial functions1015.7
d730Relating with strangers913.7
d449Carrying, moving and handling objects, other specified and unspecified713.7
e499Attitudes, unspecified713.7
d820School education711.8
b265Touch function611.8
d845Acquiring, keeping and terminating a job611.8
d110Watching511.8
d799Interpersonal interactions and relationships, unspecified511.8
d855Non-remunerative employment199.8
d166Reading139.8
b164Higher-level cognitive functions79.8
b765Involuntary movement functions69.8
d879Economic life, other specified and unspecified (economic charge for the family)97.8
e330People in positions of authority67.8
b144Memory functions57.8
b210Seeing functions57.8
d170Writing57.8
d330Speaking57.8
e425Individual attitudes of acquaintances, peers, colleagues, neighbours and community members57.8
b110Consciousness functions47.8
b240Sensations associated with hearing and vestibular function47.8
d475Driving47.8
d489Moving around using transportation, other specified and unspecified47.8
e315Extended family47.8
s770Additional musculoskeletal structures related to movement95.9
d138Acquiring information65.9
d175Solving problems65.9
d930Religion and spirituality65.9
d470Using transportation55.9
d720Complex interpersonal interactions55.9
b114Orientation functions35.9
b410Heart functions35.9
b449Functions of the respiratory system, other specified and unspecified35.9
b510Ingestion functions35.9
d660Assisting others35.9
b450Additional functions of the respiratory system25.9
b156Perceptual functions33.9
b230Hearing functions33.9
d710Basic interpersonal interactions33.9
b235Vestibular functions23.9
d729General interpersonal interactions, other specified and unspecified23.9
d779Particular interpersonal relationships, other specified and unspecified23.9
b749Muscle functions, other specified and unspecified (flexibility)13.9
e398Support and relationships, other specified13.9
b139Global mental functions, other specified and unspecified32.0
d179Applying knowledge, other specified and unspecified (disease prevention)22.0
b117Intellectual functions12.0
b460Sensations associated with cardiovascular and respiratory functions12.0
b599Functions of the digestive, metabolic and endocrine systems, unspecified12.0
b830Other functions of the skin12.0
b840Sensation related to the skin12.0
e455Individual attitudes of other professionals12.0
e498Attitudes, other specified (criticism)12.0
e590Labour and employment services, systems and policies12.0
s120Spinal cord and related structures12.0
ICF: International Classification of Functioning, Disability and Health.

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Figure 1. Flowchart diagram.
Figure 1. Flowchart diagram.
Biomedicines 11 00290 g001
Table 1. Frequency and thematic focus of assessment instruments included (identified in 4 or more studies).
Table 1. Frequency and thematic focus of assessment instruments included (identified in 4 or more studies).
Assessment InstrumentMain ThemeTypeNo of Studies
11-points numeric pain rating scale (NPRS)Pain descriptionSingle-item27
0–100 mm. Visual analog scale (VAS)Pain descriptionSingle-item11
Question about painPain descriptionSingle-item7
Örebro Musculoskeletal Pain Screening questionnaire (OMPQ)Pain descriptionMulti-item4
Pressure pain detection threshold (PPT)Pain descriptionSingle-item4
Roland Morris Disability questionnaire (RMDQ)DisabilityMulti-item11
Question about disabilityDisabilitySingle-item10
Oswestry Disability Index (ODI)DisabilityMulti-item8
Western Ontario and McMaster Universities Arthritis Index (WOMAC)DisabilityMulti-item8
Neck disability index (NDI)DisabilityMulti-item5
Disabilities of the arm, shoulder, and hand (DASH)DisabilityMulti-item4
Shoulder pain and disability index (SPADI)DisabilityMulti-item4
Work absence reportedDisabilitySingle-item4
Fear avoidance beliefs questionnaire (FABQ).Psychosocial factorsMulti-item8
Tampa Scale for Kinesiophobia (TSK)Psychosocial factorsMulti-item7
Pain catastrophizing scale (PCS)Psychosocial factorsMulti-item4
Question about psychosocial factorsPsychosocial factorsSingle-item4
EuroQoL 5 dimensions (EQ5D)Quality of life related to healthMulti-item11
Short form health survey 36 questionnaire (SF-36)Quality of life related to healthMulti-item5
Short form health survey 12 questionnaire (SF-12)Quality of life related to healthMulti-item4
Global rating of change (GROC)Global perception of changeSingle-item9
Perceived recoveryGlobal perception of changeSingle-item7
Range of movement measure (ROM)Physical measureSingle-item7
Physical activity level measurePhysical performanceSingle-item7
Variation in the use of analgesics or other therapiesOther (indirect measure of recovery)Single-item10
Patient Satisfaction questionnaireOther (patient satisfaction)Multi-item6
Adherence to treatmentOther (personal factor)Single-item5
Adverse events reportedOther (adverse events)Single-item4
This list continues in Appendix C.
Table 2. Comparison with the Brief ICF Core Set for Post-Acute Musculoskeletal Conditions.
Table 2. Comparison with the Brief ICF Core Set for Post-Acute Musculoskeletal Conditions.
ICF Category *CountOutcome Measures
b134 Sleep functions58PSQI, SQM (actigraphy)
b260 Proprioceptive function4Physical performance measures (e.g., SPPB)
b280 Sensation of pain207NPRS, VAS, OMPQ, PPDT, TS, CPM, BC, CSI, CPAQ, FABQ, GCPS, PCS, TSK
b435 Immunological system functions0-
b530 Weight maintenance functions11IPQ, DRAM, PHQ
b620 Urination functions4DRAM, CSI
b730 Muscle power functions104Physical measure (e.g., dynamometer)
b740 Muscle endurance functions99Physical measure (e.g., McQuade test)
b755 Involuntary movement reaction functions93Region-specific functional scales (e.g., BPS) or physical performance measures (e.g., TUG)
b780 Sensations related to muscles and movement functions29HSC, MHQ, OSPRO-YF, IPQ, CSI, region-specific functional scales (e.g., DASH)
d155 Acquiring skills0-
d177 Making decisions5DRAM, BDI
d230 Carrying out daily routine23Quality of life scale (e.g., SF-36), pain-related questionnaires (e.g., CPAQ or PEI), CSQ, DRAM, MHQ
d240 Handling stress and other psychological demands41AQLI, BDI, CSQ, DASS, GAD, OSPRO-YF, PCS, PAM, PHQ, SF-36, STAI
d410 Changing basic body position46LEFS, region-specific functional scale (e.g., HOOS)
d415 Maintaining a body position64DRI, region-specific functional scales
d430 Lifting and carrying objects43DAQ, DRI, PAT5, region-specific functional scales (e.g., ODI or SPADI),
d445 Hand and arm use16DASH, FIHOA, OSS, PRTEE, SPADI
d450 Walking90TUG, LEFS, ASES, DRI, DAQ, quality of life scales (e.g., EQL5), region-specific functional scale (e.g., KOOS)
d465 Moving around using equipment29DAQ, IPAQ, SGPAL
d510 Washing oneself70SF-36, AQLI, DRI, EQL5, MHQ, PDI, region-specific functional scale (e.g., DASH)
d520 Caring for body parts12AQLI, region-specific functional scale (e.g., DASH)
d530 Toileting19AQLI, PAT5, region-specific functional scale (e.g., WOMAC)
d540 Dressing83ASES, AQLI, DRI, EQL5, MHQ, PDI, PAT5, region-specific functional scale (e.g., PRTEE)
d550 Eating18AQLI, DRAM, PDI, PAT5, region-specific functional scale (e.g., DASH)
e110 Products or substances for personal consumption36BBQ, OSPRO-ROS, OCCQ, PAM
e115 Products and technology for personal use in daily living24ASES, HUI3
e120 Products and technology for personal indoor and outdoor mobility and transportation37BBQ, HUI3, OA-QI
e225 Climate0-
e355 Health professionals73AdEv, ARM, BBQ, CSQ, ECRQ, MRI, OA-QI
e450 Individual attitudes of health professionals63CSQ, ECRQ, MRI, OA-QI, PSEQ
* Initial letters show ICF component (“b” for “body functions”; “d” for “activities and participation”, “e” for “environmental factors” and “s” for “body structures”). AdEv: adverse events reported; AQLI: assessment quality of life instrument; ARM: attitudes regarding responsibility for musculoskeletal disorders scale; ASES: arthritis self-efficacy scale; BBQ: Back Beliefs questionnaire; BDI: Beck Depression Inventory; BPS: back performance scale; BC: Bournemouth Questionnaire; CPAQ: chronic pain acceptance questionnaire; CPM: conditional pain modulation; CSI: central sensitization inventory; CSQ: coping strategies questionnaire; DAQ: daily activities questionnaire; DASH; disability of arm shoulder and hand; DASS: depression anxiety stress scale; DRAM: distress and risk assessment method; DRI: disability rating index; ECRQ: effective consultation and reassurance questionnaire; EQL5: Euro quality of life-5D; FABQ: fear avoidance beliefs questionnaire; FIHOA: functional index for hand ostheoarthritis; GAD: generalized anxiety disorder questionnaire; GCPS: graded chronic pain scale; HOOS: hip disability and osteoarthritis outcome score; HSC: Hopkins symptoms checklist; HUI3: health utilities index-3; IPAQ: international physical activity questionnaire; IPQ: illness perception questionnaire; KOOS: knee injury and osteoarthritis outcome score; LEFS: lower extremity functional scale; MHQ: musculoskeletal health questionnaire; MRI: MedRisk instrument; NPRS: numeric pain rating scale; OA-QI: quality indicators for the management of ostheoarthritis; OCCQ: Otago Costs and Consequences questionnaire for low back pain; ODI: Oswestry Disability Index; OMPQ: Örebro Musculoskeletal Pain Screening questionnaire; OSPRO-ROS: OSPRO Review of Systems tool; OSPRO-YF: OSPRO Yellow Flag tool; OSS: Oxford shoulder scale; PAM: patient activation measure; PAT5: paper adaptative test-5D; PCS: pain catastrophizing scale; PDI: pain disability index; PEI: pain enablement instrument; PHQ: patient health questionnaire; PPT: pressure pain threshold; PQ: pain question; PR: perceived recovery; PRTEE: patient-reported tennis elbow evaluation; PSEQ: pain self-efficacy questionnaire; PSQI: Pittsburgh Sleep Quality Index; SF-36: 36-item short form survey; SGPAL: Saltin–Grimby physical activity level scale; SPADI: shoulder pain and disability index; SPPB: short physical performance battery; SQM: sleep quality measure; STAI: state trait anxiety inventory; TS: temporal summation; TSK: Tampa Scale for Kinesiophobia; TUG: timed-up and go; VAS: visual analog scale; WOMAC: Western Ontario McMaster Universities Osteoarthritis Index.
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Hernández-Lázaro, H.; Mingo-Gómez, M.T.; Jiménez-del-Barrio, S.; Lahuerta-Martín, S.; Hernando-Garijo, I.; Medrano-de-la-Fuente, R.; Ceballos-Laita, L. Researcher’s Perspective on Musculoskeletal Conditions in Primary Care Physiotherapy Units through the International Classification of Functioning, Disability, and Health (ICF): A Scoping Review. Biomedicines 2023, 11, 290. https://doi.org/10.3390/biomedicines11020290

AMA Style

Hernández-Lázaro H, Mingo-Gómez MT, Jiménez-del-Barrio S, Lahuerta-Martín S, Hernando-Garijo I, Medrano-de-la-Fuente R, Ceballos-Laita L. Researcher’s Perspective on Musculoskeletal Conditions in Primary Care Physiotherapy Units through the International Classification of Functioning, Disability, and Health (ICF): A Scoping Review. Biomedicines. 2023; 11(2):290. https://doi.org/10.3390/biomedicines11020290

Chicago/Turabian Style

Hernández-Lázaro, Héctor, María Teresa Mingo-Gómez, Sandra Jiménez-del-Barrio, Silvia Lahuerta-Martín, Ignacio Hernando-Garijo, Ricardo Medrano-de-la-Fuente, and Luis Ceballos-Laita. 2023. "Researcher’s Perspective on Musculoskeletal Conditions in Primary Care Physiotherapy Units through the International Classification of Functioning, Disability, and Health (ICF): A Scoping Review" Biomedicines 11, no. 2: 290. https://doi.org/10.3390/biomedicines11020290

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