Quantitative Original Article
1
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
Development of a proposed scale for assessing fall risk in older
adults in primary care
Anabela Schinck1*, Edmundo Sousa2
1 Master. Research2Care. Local HealthUnit of Almada Seixal - USF Costa do Mar, Almada, Portugal; orcid.org/0000-
0001-5627-4674
2 PhD. School of Nursing, University of Lisbon, Lisbon, Portugal; orcid.org/0000-0003-2136-4471
* Corresponding author: anabelaslc@gmail.com
Received: 26.03.2026
Revised: 30.06.2026
Accepted: 25.10.2026
Editor: Florinda Galinha
How to cite this article: Schinck A, Sousa E. Development of a proposed scale for assessing fall risk in older adults in primary care. Pensar Enf [Internet].
2026; 30 (1): e00509. Available from: https://doi.org/10.71861/pensarenf.v30i1.509.
Abstract
Introduction
Population aging has been accompanied by an increase in falls among older adults, constituting an important
public health problem, particularly in primary care; however, fall risk assessment continues to rely on
instruments developed for hospital settings that are poorly sensitive to the specific features of
community settings.
Objective
To develop an easy-to-use scale for assessing fall risk in older adults in primary care, based on the
identification of clinical, sociodemographic, and psychosocial factors associated with previous falls.
Methods
An observational, analytical, cross-sectional, quantitative study was initially conducted with a convenience
sample of 322 older adults to identify factors associated with falls. Based on these results, a methodological
study was conducted, enabling the construction of a fall risk assessment scale using coefficients from a
logistic regression model.
Results
Inferential analysis identified significant associations between falls and sociodemographic, clinical, and
functional variables that, after multicollinearity analysis, were used to define and fit a logistic regression
model. The final model included four predictors - history of falls, age, fear of falling, and living
arrangement—whose coefficients were converted into point values to construct a proposed fall risk
assessment scale.
Conclusion
Fall risk in older adults is multifactorial, and the lack of instruments specifically designed for primary care
hinders its early identification. This study enabled the development of a fall risk assessment scale with
potential for use in identifying fall risk in older adults; however, evaluation in the development sample limits
the generalizability of the findings, and future external validation is needed.
Keywords
Aged, Accidental Falls, Risk Assessment, Primary Health Care, Frail Elderly.
Introduction
Population aging is one of the major demographic and public health challenges of the 21st century.
In Portugal, the aging index increased from 121.6 in 2010 to 182.7 in 2023, reflecting a growing proportion
of older adults in the population.1 This phenomenon is associated with a higher prevalence of chronic
Quantitative Original Article
2
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
diseases, functional dependence, and vulnerability, making older adults particularly susceptible to adverse
events such as falls.
Falls are among the leading causes of morbidity, loss of independence, and institutionalization in older
adults.2 An estimated 28% to 35% of individuals older than 65 years fall at least once a year, a proportion that
may reach 42% after age 75.3,4 In Portugal, data from the EVITA system show that, in 2023, more than 70%
of accidents involving older adults were falls, with 63.9% occurring at home.5 International studies support
these findings, particularly among individuals older than 75 years.6
Falls among older adults are multifactorial events with clinical, social, and economic implications. In addition
to physical injuries such as fractures, falls may trigger fear of falling, social isolation, depression, functional
decline, and increased health care costs.7 Fall prevention should therefore be a priority in health care,
especially in primary care, where monitoring and early intervention are essential. The clinical complexity of
the older adult population reinforces the need for a fall risk assessment instrument specifically tailored to the
primary care setting.8
Despite the high prevalence of falls, fall risk assessment in primary care continues to rely on instruments
developed for hospital settings, such as the Morse Fall Scale. This highlights a gap in clinical practice, since
risk factors in community settings span social, environmental, and behavioral dimensions that are not
captured by hospital-based scales.9,10
The Morse Fall Scale was developed by Janice Morse in 1985 and, in Portugal, was adapted and validated for
the adult population by Costa-Dias in 2014 and is recommended by the Directorate-General of Health for
fall risk assessment in hospital settings.11 It is, however, the scale used in primary care, despite not being
specific to this setting. Other scales have been developed to assess fall risk, but few have been validated for
use in primary care. The systematic review by Meekes, published in BMJ Open, analyzed six tools applicable in
primary care—including the Timed Up and Go Test (TUGT), Gait Speed, Berg Balance Scale, POMA, and
history of falls—and concluded that none showed robust predictive performance, with most studies
reporting AUC values between 0.5 and 0.74. Other scales, such as STRATIFY and FRAT, have been tested in
Portugal but have not demonstrated sufficient validity for systematic use in primary care.9,12,13 In Savić's study,
the Tinetti Scale indicated that most older adults over 75 years of age were at high fall risk6, highlighting the
greater vulnerability of this population and reinforcing the need for more sensitive tools adapted to
community settings.
The lack of a validated scale tailored to primary care justifies the development of a new instrument based on
data from noninstitutionalized older adults. This instrument incorporates risk factors identified in the
literature, including age over 65 years; sex; number of falls in the past 3 months; polypharmacy14,15; visual or
hearing impairment14; balance problems and other physical limitations15; and psychological factors such as
fear of falling.16 The availability of a simple, easy-to-use scale in primary care could help promote active
monitoring and the early implementation of preventive strategies.
The objective of this study is to develop an easy-to-use scale for assessing fall risk in older adults in primary
care, based on the identification of clinical, sociodemographic, and psychosocial factors associated with
previous falls.
Methods
A methodological study was conducted in two complementary stages. In the first stage, a cross-sectional
observational analysis of the data was performed following the STROBE recommendations to identify
factors associated with falls among older adults, a necessary step to support the development of the
instrument. In the second stage, the coefficients obtained from the logistic regression model were used to
develop a proposed fall risk assessment scale by assigning weights to the significant variables.
The discriminatory ability of the scale was subsequently evaluated in the same sample using a receiver
operating characteristic (ROC) curve.
Data were collected in 2019 at a Family Health Unit (FHU) in the Almada region. The study population
included all individuals aged 65 years or older registered with the FHU, and the sample was selected by
convenience using nonprobability sampling. All older adults who voluntarily agreed to participate during the
study period, either during an in-person consultation or a home visit, were included. Inability to sign the
informed consent form was considered an exclusion criterion.
A total of 322 valid questionnaires were collected from participants who met the inclusion criteria and agreed
to participate in data collection. This sample size was considered adequate for the statistical analysis
performed.17,18
The following variables were considered: a) sociodemographic variables (sex, age, educational attainment,
housing type, household composition, and marital status); b) clinical and functional variables (history of falls,
Quantitative Original Article
3
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
comorbidities, polypharmacy, fear of falling, balance, mobility, and Barthel Index); and fall risk (assessed
using the Morse Fall Scale).9,19
The self-administered questionnaire comprised four sections: 1) sociodemographic characteristics; 2) clinical
and functional variables; 3) Barthel Index; and 4) Morse Fall Scale. For participants who had difficulty reading
or writing, the questionnaire was administered with the assistance of a family member or a health care
professional, who read the questions and recorded the responses provided by the older adult.
Based on the factors identified and their clinical relevance, a fall risk assessment scale was constructed, with a
score assigned to each variable according to its relative weight in relation to the outcome.
For model construction, the variables were recorded as dichotomous. Age was recorded as <80 vs ≥80 years,
a cutoff supported by the literature indicating a significantly increased risk of falls among older adults aged
80 years or older. At this stage, it is important to distinguish the dependent variable (“falls in the past 3
months”) from the predictor variable “history of falls.” The outcome was recoded as 0 = up to one fall and 1
= two or more falls, whereas “history of falls” referred to previous falls and was entered into the model as an
independent predictor.
Data was analyzed using IBM SPSS Statistics® 13.0. Descriptive statistics were initially used to characterize
the sample, and inferential statistics were used to identify factors associated with fall risk using binary logistic
regression and corresponding 95% confidence intervals.
The study was approved by the Ethics Committee of the Regional Health Administration of Lisbon and
Tagus Valley (ARSLVT) (Opinion No. 074/CES/INV/2019). All participants were informed about the
objectives, risks, and benefits of participation and signed the informed consent form. Anonymity and
confidentiality were ensured, and participants could withdraw at any time without affecting the care they
received. The scales used had previously been validated for the Portuguese population, and permission to use
them was requested from the respective authors.
Results
The sample consisted of 322 older adults with a mean age of 78.25 years (minimum 65, maximum 99). The
remaining sociodemographic characteristics are shown in Table 1.
Table 1. Sociodemographic characteristics of the sample.
Variable
Category
n
%
Sex
Female
Male
213
109
66.1%
33.9%
Marital status
Married
Single
Widowed
207
11
104
64.3%
3.4%
32.3%
Living arrangement
Alone
Spouse
More than 2 people
50
203
69
15.5%
63%
21.4%
Educational attainment
Illiterate
Primary education
Preparatory education
Secondary education
Higher education
47
210
40
15
10
14.6%
65.2%
12.4%
4.7%
3.1%
Housing type
Apartment with stairs/level changes
Apartment without stairs/level changes
Single-story house with stairs/level changes
Single-story house without stairs/level changes
115
76
63
68
35.7%
23.6%
19.6%
21.1%
Falls in the past 3
months
Yes
No
84
238
26.1%
73.9%
Polypharmacy (+4
medications/day)
Yes
No
264
58
82%
18%
Physical activity
Yes
No
17
305
5.3%
94.7%
Ability to climb a flight
of stairs
Yes
No
253
69
78.6%
21.4%
Ability to descend a
flight of stairs
Yes
No
232
90
72%
28%
Ability to walk 100 m
Yes
No
207
115
64.3%
35.7%
Fear of falling
Yes
No
259
63
80.4%
19.6%
Feeling unsteady
Yes
191
59.3%
Quantitative Original Article
4
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
No
131
40.7%
Before the inferential analysis, a normality analysis was performed. The Shapiro-Wilk test indicated a
non-normal distribution for age (p < 0.001), weight (p < 0.001), height (p = 0,002), and number of falls
(p < 0.001). The association between falls and several categorical variables was assessed using the
nonparametric chi-square test. Falls were more frequent among women (p = 0.011), individuals who were
illiterate or had only primary education (p = 0.005), widowed individuals (p < 0.001), those with
polypharmacy (p = 0.007), those who consumed alcohol (p = 0.024), those living alone or with more than 2
people (p < 0.001), and those with fear of falling (p < 0.001).
Falls occurred more frequently in the morning and at night (p < 0.001) and among older adults living in
homes with stairs or level changes (p = 0.030). Individuals who had difficulty climbing stairs (p = 0.002) or
descending stairs (p = 0.007) experienced more falls, as did those who reported feeling unsteady (p < 0.001).
Gait limitation, measured by difficulty walking 100 m, was also associated with higher fall risk (p = 0.001).
In contrast, no statistically significant association was found between physical activity (p = 0.167) and falls.
Spearman correlation indicated a very high positive correlation between “Ability to climb a flight of stairs”
and “Ability to descend a flight of stairs” (p = 0.788, p < 0.001), as well as a strong correlation between
“Ability to climb a flight of stairs” and “Ability to walk 100 m” (p = 0.622, p < 0.001). These variables were
initially included because they represented different dimensions of functional mobility, which is recognized as
a determinant of fall risk among older adults14; however, after collinearity analysis, only difficulty walking 100
m was retained because it reflects a broader aspect of functional mobility.
“Fear of falling” and “feeling unsteady” showed moderate correlations (p = 0.400 and p = 0.356,
respectively), according to the classification proposed by Mukaka20, but were retained because they represent
distinct constructs (psychological and physical). Finally, the “living arrangement” variable showed a moderate
negative correlation with “marital status” (p=-0,151, p=0,007); the former was therefore selected because it
was considered to better reflect living arrangements. The remaining variables showed weak correlations (p <
0.40) and were retained for multivariable analysis.
A binary logistic regression model was used, and the variables were recorded as dichotomous variables to
identify factors associated with fall risk. Variables showing a statistically significant association (p < 0.05) with
the fall outcome were included in the model, and two approaches were considered. In the first
(Enter method), all variables were entered simultaneously. In the second (Forward method), only statistically
significant variables were entered sequentially.
In an attempt to avoid collinearity, the binary fall variable was recorded as (0) up to 1 fall in the past 3 months
and (1) two or more falls.
Table 2. Comparison of binary logistic regression models
Criterion
Enter
Forward Stepwise
Teste Omnibus
χ² = 369.633; p < 0.001
χ² = 101.057; p < 0.001
Hosmer-Lemeshowtest
p = 1.000 (perfect fit)
p = 0.930 (Excellent fit)
Correct classification (%)
100% (overfitting)
79.8%
Sensitivity
100%
22.6%
Specificity
100%
100%
Nagelkerke R²
1.000 (overfitting)
0.395
No. Of significant variables
11 (with colinearity)
4 (Without critical collinearity)
Statistical stability
No (perfect fit/collapse)
Yes (estimable model)
Both models showed overall statistical significance; however, the second showed better fit, greater predictive
ability, and a more efficient structure.
Based on the final coefficients, the following variables were included in the final model: “two or more falls”
(B = 23.024) was the strongest predictor and was associated with higher fall risk, whereas “younger age” (B =
–1.436), “no fear of falling” (B = –2.193), and “living with one other person” (B = –0.713) were associated
with lower fall risk.
Table 3 presents the B coefficients, odds ratios (Exp(B)), 95% confidence intervals, and p values for the
variables included in the final model.
Table 3. Final binary logistic regression model
Category
Coefficient (B)
Exp(B)
95% CI
pvalue
One or more falls
23.024
1E+010
0
.998
≥ 80 years
-1.436
0.238
0.110 – 0.514
0.000
Yes
-2.193
0.112
0.026 – 0.478
0.003
Yes
-0.713
0.490
0.269 – 0.893
0.020
Quantitative Original Article
5
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
The predictor “two or more falls” had a very high coefficient, reflecting a strong association with the
outcome, whereas the remaining variables showed protective effects, with ORs below 1. In constructing the
scale, the predictor “two or more falls” was operationalized as “history of falls (Yes/No),” maintaining the
direction and relative weight observed in the model while simplifying the category to facilitate clinical use.
To transform the logistic regression coefficients, the coefficient with the smallest absolute magnitude (living
with one other person = -0,713) was used in an attempt to preserve the relationship among the different
explanatory factors. This value indicates that living with one other person is a protective factor and may
reduce fall risk. A constant factor was used to normalize the weights of the variables in the model, thereby
avoiding decimal values and subsequently facilitating practical application and scoring of the scale.
Normalization of the items by dividing them by the coefficient with the smallest absolute magnitude is an
approach recommended by authors such as Hosmer, Lemeshow, and Sturdivant.21 The final scale score was
adjusted based on the clinical relevance of the identified predictors, following an approach similar to that
used by Morse19; for this reason, the variable “one or more falls” was retained despite having a substantially
higher score, given its recognized clinical relevance.19
Table 4. Normalization of coefficients for each variable
Variable
Coefficient (B)
B / Bmin (0,713)
Final score
Living with one other person
-0.713
1
1
Age
-1.436
2.01
2
Fear of falling
-2.193
3.08
3
One or more falls
23.024
32.29
32
To begin constructing the scale, the logistic regression coefficients (B) were normalized by dividing each
coefficient by the coefficient with the smallest absolute magnitude (|β| = 0.713). The resulting values were
then rounded to the nearest integer.
Next, to adapt the scale scoring and obtain a simple, easy-to-use instrument for clinical practice, the values
were adjusted to facilitate clinical use of the scale while preserving the relative importance of the predictors
identified in the model.
Table 5. Normalization of coefficients for each variable
Variable
Category
Final score
History of falls
Yes
No
6
0
Age
≥ 80 years
2
< 80 years
1
Fear of falling
Yes
No
3
0
Living arrangement
Alone or with +2 people
With 1 person
1
0
Because the “history of falls” variable had a larger coefficient than the other variables, the coefficients were
normalized to facilitate clinical application and assessment of the scale. Point assignment was intended to
preserve the order of importance of the predictors identified by the model while preventing a single factor
from disproportionately determining the overall risk classification.
The 6-point score assigned to history of falls was not mathematically derived (statistical score) but reflected a
clinical decision (clinical score). The intention was to reflect the clinical relevance of this factor as one of the
main predictors of subsequent falls without making the scale dichotomous or allowing this variable to nullify
the contribution of the remaining predictors. A weight of 32 points would mean that the presence of a
history of falls would, by itself, determine nearly the entire risk classification, substantially reducing the
contribution of the remaining variables to discrimination.
Thus, this variable was retained as the factor with the greatest weight in the scale, reflecting its recognized
clinical relevance, while a weighting scheme was adopted to incorporate all predictors in a balanced manner.
This adaptation therefore represents a decision based on clinical criteria and should be reevaluated in future
validation studies.
Quantitative Original Article
6
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
Figure 1. ROC curve for the final model
The logistic regression model had an area under the ROC curve (AUC) of 0.989 and showed high
discrimination in the study sample, suggesting that it may distinguish individuals at risk of falls from those
not at risk.
Based on the predictors identified by the model, a proposed scale was constructed for future clinical
application and validation.
Discussion
Fall risk is a multifactorial phenomenon influenced by clinical, functional, psychological, and social
characteristics13. The lack of a specific instrument for identifying older adults at higher fall risk poses a
relevant challenge in health care, since existing instruments are not adapted to the primary care setting.12,13
In the sample of 322 older adults, 26.1% had experienced at least one fall in the previous 3 months, a finding
consistent with the annual prevalence of falls reported in community-based studies, which ranges from 26%
to 35%6,22. Falls were significantly associated with sociodemographic and clinical variables. Despite the
multifactorial nature of falls, these findings enabled the identification of a set of variables independently
associated with higher fall risk, particularly comorbidities and functional and psychological factors.6,8
The need for a multifactorial scale has also been suggested by other authors4, 12, 13, who refer to the use of
“physical tests” within an approach that combines fall history with other domains.
The proposed scale includes “history of falls,” the variable with the greatest weight, a finding consistent with
evidence that a previous fall is one of the strongest individual predictors of future falls6, 8, 23; “age,” a robust
predictor after age 65, with risk increasing further after age 802, 6, 8, 24; “fear of falling,” recognized as a
determinant of fall risk16, 25, 26 and selected to combine physical and psychological factors16, 27; and “living
arrangement,” a key environmental variable in primary care.12, 13 Here, the “history of falls” item corresponds
to the predictor identified in the model (“two or more falls”) and was simplified to “Yes/No” to facilitate
clinical use.
After the independent predictors were identified, the proposed scale was constructed. The scoring was
adapted to facilitate clinical use of the scale while preserving the hierarchy of the predictors identified by the
model. The reduction in the weight assigned to history of falls reflected a clinical decision intended to
prevent a single predictor from dominating the overall risk classification. Risk categories should subsequently
be established and validated in future studies.
In the present sample, the logistic regression model showed high discrimination (AUC = 0,989), a value
higher than those usually reported, as moderate AUC values are more common.4, 12, 13 However, this value
should be interpreted with caution because it may reflect overfitting to the dataset, as the model was
Quantitative Original Article
7
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
developed and tested in the same sample. In addition, the presence of a predictor with a very high weight in
the final scale score (history of falls) may influence the outcome, contributing to such an optimistic AUC
value, particularly because the scale was tested in the same sample in which it was developed; subsequent
external validation is therefore needed. Similar studies generally report lower values.4,12
The study has limitations that should be considered: convenience sampling and data collection at a single
health care unit, which may limit the generalizability of the findings because the sample may not be
representative of the older adult population in primary care; lack of longitudinal follow-up; and low internal
consistency, consistent with the multidimensional nature of falls. Given the sequence of procedures used and
because the proposed scale was evaluated in the same sample used to construct it, the results reflect only
internal validity and possible overfitting, rather than future predictive ability. Furthermore, the high weight of
history of falls may have influenced the observed discriminatory ability, an aspect that should be reevaluated
in future studies.
The study findings support the proposed scale as a potential instrument for assessing fall risk among older
adults in primary care; however, external validation is still needed. Its use in future studies conducted in
primary care is recommended to assess its predictive ability at 3, 6, and 12 months.
Conclusion
In this study, several factors associated with falls among older adults were identified, enabling the
development of a proposed fall risk assessment scale designed for primary care: history of falls, age, fear of
falling, and living arrangement.
The use of a limited set of variables significantly associated with fall risk allows the scale to be completed and
administered quickly, which may encourage its use by health care professionals and make it a useful tool in
primary care. Although promising, the scale was evaluated in the same sample used to develop it, limiting the
generalizability of the findings.
Nevertheless, the study makes relevant contributions. For research, it represents a first step toward
developing a multifactorial scale specifically designed for primary care, which should be further tested.
For clinical practice, the proposed scale may support the early identification of older adults at risk and guide
more targeted preventive interventions. In the area of education, the findings reinforce the need to train
health care professionals to assess fall risk systematically and comprehensively, taking physical, psychological,
and social dimensions into account and promoting a broader preventive approach.
Authorship and Contributions
AS: Conception/design, data collection, analysis and interpretation, writing the manuscript, critical revision;
approval of the final version, taking responsibility for it.
ES: Conception/design, writing the manuscript, critical revision; approval of the final version of the
manuscript and taking responsibility for it.
Conflicts of interest and Funding
No conflict of interest has been declared by the authors.
Acknowledgments
We acknowledge the contribution of nurse Ana Patrícia Martins.
Sources of support / Financing
The study was not funded.
Data availability statement
The dataset supporting the findings of this study is available from the authors upon reasonable request.
Access may be provided for academic or research purposes, subject to appropriate ethical and confidentiality
considerations.
References
1. Instituto Nacional de Estatística. Censos 2021: resultados definitivos. Lisboa: Instituto Nacional de
Estatística; 2023.
2. World Health Organization. Falls [Internet]. Geneva: World Health Organization; 2021 [citado 2025 dez
10]. Disponível em: https://www.who.int/news-room/fact-sheets/detail/falls
Quantitative Original Article
8
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
3. Franse CB, Rietjens JAC, Burdorf A, van Grieken A, Korfage IJ, van der Heide A, et al. A prospective
study on the variation in falling and fall risk among community-dwelling older citizens in 12 European
countries. BMJ Open[Internet]. 2017[citado 2025 dezembro 10];7(6):e015827. Disponível
em:https://bmjopen.bmj.com/content/7/6/e015827
4. Meekes WMA, van der Velde N, van der Cammen TJM, van de Goor IA. Practical and validated tool to
assess falls risk in the primary care setting: a systematic review. BMJ Open[Internet]. 2021[citado 2025
dezembro 10];11(9):e045431. Disponível em:https://bmjopen.bmj.com/content/11/9/e045431.long.
5. Alves T, Silva S, Braz P, Aniceto C, Mexia R, Dias CM. Quedas em pessoas idosas em Portugal: uma
abordagem epidemiológica a partir dos dados de 2023 do sistema EVITA.
BolEpidemiolObserv[Internet].2024[citado 2025 dezembro 11];13(35):91–96.Disponível em:
https://repositorio.insa.pt/entities/publication/010831c9-1b48-42bb-b7f5-fdbadbd51a67
6. Savić S, Gavran L, Stanetić K, Petrović V, Tešanović G, Batić-Mujanović O, et al. Assessment of the risk
of falls among elderly persons in primary care settings. MedGlas (Zenica)[Internet]. 2024[citado 2025
dezembro 11];21(2):398–403. Disponível em: https://medicinskiglasnik.ba/article/id/482/
7. Montero-Odasso M, van der Velde N, Martin FC, Petrovic M, Tan MP, Ryg J, et al. World guidelines for
falls prevention and management for older adults: a global initiative. Age Ageing[Internet]. 2022[citado
2025 dezembro 10];51(9):afac205.Disponívelem:https://doi.org/10.1093/ageing/afac205.
8. Lastrucci V, Lorini C, Rinaldi G, Bonaccorsi G. Identification of fall predictors in the active elderly
population from the routine medical records of general practitioners. Prim
HealthCareResDev[Internet].2018[citado 2025 dezembro 12];19(2):131–139. Disponível em:
https://doi.org/10.1017/S146342361700055X.
9. Costa-Dias M, Ferreira P, Oliveira A. Adaptação cultural e linguística e validação da Escala de Quedas de
Morse. RevEnfermRef[Internet]. 2014[citado 2025 dezembro 10];IV(2):7–17. Disponível
em:https://doi.org/10.12707/RIII1382.
10. Dixe MACR, Querido A, Mendonça S, Sousa P, Monteiro H, Carvalho D, et al. Psychometric properties
of the European Portuguese version of the Memorial Emergency Department Fall Risk Assessment
Tool. Healthcare (Basel) [Internet]. 2022 [citado 2025 dez 18];10(3):452. Disponível em:
https://doi.org/10.3390/healthcare10030452
11. Direção-Geral da Saúde (DGS). Norma nº 008/2019 de 09/12/2019: Prevenção e intervenção na queda
do adulto em cuidados hospitalares[Internet]. Lisboa: Direção-Geral da Saúde; 2019[citado 2025
novembro 28]. Disponível em: https://normas.dgs.min-saude.pt/2019/12/09/prevencao-e-intervencao-
na-queda-do-adulto-em-cuidados-hospitalares/
12. Strini V, Schiavolin R, Prendin A. Fall risk assessment scales: a systematic literature review.
NursRep[Internet]. 2021[citado 2025 novembro 28];11(2):430–443. Disponível em:
https://doi.org/10.3390/nursrep11020041.
13. de Clercq H, Naudé A, Bornman J. Factors included in adult fall risk assessment tools (FRATs): a
systematic review. AgeingSoc[Internet]. 2021[citado 2025 novembro 28];41(11):2558–2582. Disponível
em: https://doi.org/10.1017/S0144686X2000046X.
14. Kyrdalen IL, Thingstad P, Sandvik L, Ormstad H. Associations between gait speed and well-known fall
risk factors among community-dwelling older adults. PhysiotherResInt[Internet]. 2019[citado 2025
dezembro 18];24(1):e1743. Disponível em: https://doi.org/10.1002/pri.1743.
15. Kumar A, Carpenter H, Morris R, Iliffe S, Kendrick D. Which factors are associated with fear of falling
in community-dwelling older people? AgeAgeing[Internet]. 2014[citado 2025 novembro 28];43(1):76–
84.Disponível em: https://doi.org/10.1093/ageing/aft154.
16. Rossler A, Wheeler JM, Thiamwong L. A multidimensional approach for nurse practitioners to screen
fall risk and fear of falling in community-dwelling older adults. J NursePract[Internet].2023[citado 2026
janeiro 08];19(1):104436. Disponível em: https://doi.org/10.1016/j.nurpra.2022.08.019.
17. Miot HA. Tamanho da amostra em estudos clínicos e experimentais. J VascBras[Internet]. 2011[citado
2026 março 10];10(4):275–278. Disponívelem:https://doi.org/10.1590/S1677-54492011000400001
18. Vaz-Carneiro A. Cálculo da dimensão da amostra em estudos clínicos: princípios metodológicos básicos.
RevPortCardiol[Internet]. 2003[citado 2026 março 10];22(12):1513–1521.Disponívelem:
http://hdl.handle.net/10451/33057
19. Morse JM, Morse RM, Tylko SJ. Development of a scale to identify the fall-prone patient. Can J
Aging[Internet]. 1989[citado 2026 janeiro 10];8(4):366–377. Disponível em:
https://doi.org/10.1017/S0714980800008576.
20. Mukaka MM. A guide to appropriate use of correlation coefficient in medical research. Malawi Med
J[Internet]. 2012[citado 2026 março 10];24(3):69–71. Disponível em:
https://pmc.ncbi.nlm.nih.gov/articles/PMC3576830/
Quantitative Original Article
9
Pensar Enfermagem / v.30 n.01 / Jan-Dec 2026 / DOI: 10.71861/pensarenf.v30i1.509 / e00509
21. Hosmer DW, Lemeshow S, Sturdivant RX. Applied logistic regression. 3rd ed. Hoboken, NJ: Wiley;
2013.
22. Todd C, Skelton D. What are the main risk factors for falls among older people and what are the most
effective interventions to prevent these falls? [Internet]. Copenhagen: WHO Regional Office for Europe;
2004[citado 2025 dezembro 18]. (Health Evidence Network report; 11).Disponívelem:
https://iris.who.int/server/api/core/bitstreams/d0f7d347-3799-4269-9106-e73e94f561ae/content
23. Tinetti ME, Speechley M, Ginter SF. Risk factors for falls among elderly persons living in the community.
N Engl J Med[Internet]. 1988[citado 2025 dezembro 08];319(26):1701–1707. Disponível em:
https://doi.org/10.1056/NEJM198812293192604.
24. Ambrose AF, Paul G, Hausdorff JM. Risk factors for falls among older adults: a review of the literature.
Maturitas [Internet]. 2013 [citado 2025 dez 28];75(1):51-61. Disponível em:
https://doi.org/10.1016/j.maturitas.2013.02.009
25. Zijlstra GAR, van Haastregt JCM, van Rossum E, van Eijk JTM, Yardley L, Kempen GIJM.
Interventions to reduce fear of falling in community-living older people: a systematic review. J
AmGeriatrSoc[Internet].2007[citado 2026 janeiro 10];55(4):603–615. Disponível em:
https://doi.org/10.1111/j.1532-5415.2007.01148.x.
26. Whipple MO, Hamel AV, Talley KMC. Fear of falling among older adults: a review of measurement and
predictive factors. J GeriatrPhysTher[Internet]. 2018[citado 2025 dezembro 18];41(1):1–14. Disponível
em: https://doi.org/10.1519/JPT.0000000000000123.
27. Suarez JRM, Park JH, Thiamwong L. Assessment of static balance metrics in community-dwelling older
adults categorized using the fall risk appraisal matrix. Int J EnvironResPublicHealth[Internet].
2025[citado 2026 janeiro 18];22(7):1079. Disponível em: https://doi.org/10.3390/ijerph22071079.