Vol.:(0123456789)1 3

European Geriatric Medicine (2022) 13:763–769 
https://doi.org/10.1007/s41999-022-00641-5

RESEARCH PAPER

The assessment of sarcopenia and the frailty phenotype 
in the outpatient care of older people: implementation and typical 
values obtained from the Newcastle SarcScreen project

R. M. Dodds1,2,3  · P. Heslop4  · J. Jaffar1 · K. Davies1  · J. M. Noble3 · F. E. Shaw3  · M. D. Witham1,2,3  · 
A. A. Sayer1,2,3 

Received: 22 December 2021 / Accepted: 23 March 2022 / Published online: 9 April 2022 
© The Author(s) 2022

Key summary points
Aim Is it possible to implement the Newcastle SarcScreen, an assessment of sarcopenia and physical frailty, as part of the 
outpatient care of older people?
Findings Grip strength measurement was possible in 98.2% and gait speed in 82.1%, with the latter typically not measured 
due to mobility impairment. We found a high prevalence of probable sarcopenia and the frailty phenotype across all age 
groups studied.
Message We successfully implemented the Newcastle SarcScreen. The proforma is available to download as part of this article.

Abstract
Purpose Sarcopenia and the frailty phenotype both indicate older adults at risk of adverse health outcomes and yet are not 
widely assessed in practice. We developed the Newcastle SarcScreen to enable assessment of these two ageing syndromes 
during clinical care. In the setting of our Older People’s Medicine Day Unit, our aims were to describe the implementation 
of the SarcScreen and to examine the typical values obtained.
Methods The SarcScreen comprised height, weight, questions (three on the Fried frailty phenotype and five on the SARC-F 
questionnaire), grip strength and gait speed. We analysed data from 552 patients completing the SarcScreen. We expressed 
grip strength as Z-scores (number of standard deviations above the mean expected for a patient’s age and sex).
Results It was possible to implement the SarcScreen. In 552 patients (65.9% females) with mean age 80.1 (7.7) years, grip strength 
was feasible in 98.2% and gait speed in 82.1%. Gait speed was typically not assessed due to mobility impairment. Most patients 
had weak grip strength (present in 83.8%), slow gait speed (88.8%) and the frailty phenotype (66.2%). We found a high prevalence 
of probable sarcopenia and the frailty phenotype across all age groups studied. This was reflected by low grip strength Z-scores, 
especially at younger ages: those aged 60–69 had grip strength 2.7 standard deviations (95% CI 2.5–2.9) below that expected.
Conclusion It is possible to implement an assessment of sarcopenia and the frailty phenotype as part of the routine outpatient 
care of older people.

Keywords Sarcopenia · Frailty · Grip strength · Walking speed · Implementation · Usual care

Introduction

The presence of sarcopenia and frailty has been exten-
sively shown to be important in the current and future 
health of older people [1, 2]. In 2018 the European Work-
ing Group on Sarcopenia in Older People 2 (EWGSOP2) 
consensus defined sarcopenia as a progressive and gen-
eralised skeletal muscle disorder, and made recommen-
dations for its assessment in clinical practice [3]. These 

 * A. A. Sayer 
 avan.sayer@newcastle.ac.uk

1 AGE Research Group, Newcastle University Institute 
for Translational and Clinical Research, Newcastle, UK

2 NIHR Newcastle Biomedical Research Centre, Newcastle 
University and Newcastle Upon Tyne NHS Foundation Trust, 
3rd Floor Biomedical Research Building, Campus for Ageing 
and Vitality, Newcastle NE4 5PL, UK

3 Department of Older People’s Medicine, Newcastle Upon 
Tyne Hospitals NHS Foundation Trust, Newcastle, UK

4 School of Design, Northumbria University, Newcastle, UK

http://orcid.org/0000-0003-4968-7678
http://orcid.org/0000-0001-9607-102X
http://orcid.org/0000-0002-2820-9397
http://orcid.org/0000-0002-9744-2977
http://orcid.org/0000-0002-1967-0990
http://orcid.org/0000-0003-1283-6457
http://crossmark.crossref.org/dialog/?doi=10.1007/s41999-022-00641-5&domain=pdf


764 European Geriatric Medicine (2022) 13:763–769

1 3

included the use of the SARC-F questionnaire [4] to 
identify those at risk of sarcopenia, and the assessment of 
muscle strength using grip strength [5] and/or the chair 
stand test [6], with weakness from either being a basis 
on which to assess potential causes of sarcopenia and 
start intervention. In the EWGSOP2 consensus, confir-
mation of the diagnosis of sarcopenia can then made by 
measurement of muscle mass if available, and severity of 
sarcopenia assessed using tools such as usual gait speed.

Frailty describes a state of diminished reserve across 
multiple physiological systems, such that a minor stressor 
can lead to a marked deterioration in health [2]. A range of 
approaches have been used to characterise frailty includ-
ing the frailty phenotype developed by Fried et al. [7]. The 
frailty phenotype incorporates grip strength and gait speed, 
as well as questions regarding weight loss, physical inactiv-
ity and exhaustion. Hence common to both sarcopenia and 
the frailty phenotype are the physical function measures of 
grip strength and gait speed. There is some evidence that 
sarcopenia and the frailty phenotype can be implemented 
in routine clinical care [8] but to date this has not been 
widespread [9].

The assessment of sarcopenia and the frailty phenotype 
in clinical care is important for several reasons. As above, 
it identifies patients at risk of poor health outcomes, as well 
as those who stand to benefit from current treatments for 
low muscle strength including progressive resistance exer-
cise training and increased dietary protein [10, 11]. The 
diagnosis of sarcopenia or frailty is also important to aid 
in the identification of patients who may be eligible for the 
growing number of trials in patients with these conditions 
[12]. Finally, most cut-points for measures of physical func-
tion are based on normative data from large community-
dwelling studies of older people [13, 14] and it is important 
to establish if such cut-points are helpful to identify older 
people in clinical care who are at greatest risk of adverse 
health outcomes.

Our Older People’s Medicine Day Unit sees older 
people referred from primary care, many of whom have 
complex multimorbidity as well as impairment of physi-
cal function. Patients receive a comprehensive geriatric 
assessment (CGA) delivered by a multidisciplinary team 
(MDT) [15]. In 2018 we developed and incorporated the 
Newcastle SarcScreen, an assessment of sarcopenia and 
the frailty phenotype, as part of the CGA process we 
deliver. The aims of this study were (i) to describe the 
implementation of sarcopenia and the frailty phenotype 
into the routine care of patients attending our Day Unit, 
and (ii) to compare the SarcScreen values obtained from 
a large sample of our patients to recommended cut-points 
and normative data.

Methods

Clinical setting and patients

Our Older People’s Medicine Day Unit is one of the special-
ist services provided by Newcastle Hospitals in northeast 
England. The SarcScreen proforma was completed by the 
Day Unit nurses as part of the routine assessments they car-
ried out on all new patients. We examined results from Sarc-
Screen proformas completed between June 2018 and March 
2020, at which time in-person clinical reviews were tempo-
rarily suspended due to the COVID-19 lockdown. The data 
were collected on a spreadsheet and stored within the Trust 
network with approval from the local Caldicott guardian. 
As the analysis used data already collected as part of rou-
tine clinical care, with no new patient contact or additional 
data collection, the project did not require evaluation by a 
research ethics committee. Data were anonymized within the 
trust before export for analysis.

Implementation of the Newcastle SarcScreen

The Day Unit nurses assessed the components of Sarc-
Screen, following training sessions delivered by an expe-
rienced researcher (KD) when the SarcScreen was intro-
duced. A standard operating procedure document was also 
provided. We used feedback from colleagues in the Day Unit 
and observation of the tool being used to refine the proforma, 
as described in the results. Height (cm) and weight (kg) were 
either measured or reported by the patient. Three questions 
covered the components of the Fried frailty phenotype as 
follows: (i) unintentional weight loss of more than 10 lb in 
the last year, (ii) frequency of physical activity requiring a 
low or moderate level of energy (with less than once a week 
considered to be low physical activity), and (iii) number of 
days in the past week where everything was an effort for 
a patient or they could not get going (with 3 or more days 
considered to represent exhaustion) [7]. Further questions 
addressed the five components of the SARC-F questionnaire, 
comprising difficulty in (i) lifting and carrying 10 pounds, 
(ii) walking across a room, (iii) transferring from a chair or 
bed, and (iv) climbing a flight of ten stairs, with all scored 
zero for no difficulty, one for some and two for those with a 
lot of difficulty/unable to perform the activity in question. 
A fifth question asked about the number of falls in the past 
year, scored zero for none, one for 1–3 times and two for 
four or more falls. A total score of four or more indicates a 
high risk of sarcopenia being present [4]. The SARC-F ques-
tions were not included in the initial version of the proforma 
(meaning that for the first 37 patients these questions were 
not attempted).



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Grip strength was measured using a Jamar hydraulic 
dynamometer in the seated position with the patient’s 
forearm rested on the arm of a chair, with the weight of 
dynamometer supported by the assessor [5]. In an initial 
version of the proforma we only attempted one trial in 
each hand (n = 37), but thereafter changed to two trials 
in each hand. We took the maximum of the available tri-
als. Males with a strength below 27 kg and females below 
16 kg, the cut-points for probable sarcopenia endorsed by 
the EWGSOP2 guideline, were considered to have weak 
grip strength [3]. Gait speed was attempted in patients who 
could usually walk without the assistance of another per-
son, and where the nurse carrying out the assessment con-
sidered it was safe to proceed. Patients were timed walking 
along a marked 3 m course, with the stopwatch started 
when their foot crossed the first marker and stopped when 
they crossed the second. A gait speed of 0.8 m/s or below 
was considered to be slow [14, 16]. There was space to note 
a reason if it was not possible to complete the grip strength 
and/or gait speed tests.

The presence of the three frailty questions, weak grip 
strength, and slow gait speed were used to create a Fried 
frailty score out of five. We classed patients unable to com-
plete tests due to health reasons as having poor performance 
for the purpose of the Fried frailty score [17]. Frailty was 
indicated by a score of three or more, and pre-frailty by a 
score of one or two. A copy of the proforma is provided in 
Supplementary Material 1.

Statistical analysis

We calculated the proportion of patients completing each 
component of the SarcScreen. We tested if there were age 
or sex differences in the SarcScreen components. T test 
was used for comparison of mean values, and a chi-square 
test for proportions. We compared our grip strength values 
to published British normative data [13], by expressing 
each patient’s value as a Z-score. Each Z-score is calcu-
lated as the patient’s grip strength value less the mean 
expected for their age and sex, divided by the grip strength 
standard deviation (SD) for their age and sex. As such 
Z-scores have no units (kg/kg). Z-scores of + 1 and − 1 
indicate grip strength values one standard deviation above 
and below, respectively, that expected for age and sex. 
We divided the sample into age groups by decade (60–69, 
70–79 and so on) and calculated the mean and 95% con-
fidence interval for the Z-score in each age group (having 
first checked by inspection of the data that the Z-scores 
were normally distributed). We performed all analyses 
using Stata version 14.0 [18].

Results

Implementation of the SarcScreen

We did not experience any adverse events related to the 
use of the SarcScreen. The assessment was readily incor-
porated into the range of other measures such as testing of 
cognition during a CGA. Feedback from colleagues in the 
MDT highlighted how measures such as grip strength gave 
an easy-to-interpret assessment of a person’s physical func-
tion, helpful for situations such as in discussion at an MDT 
meeting including as a means for identifying patients who 
might have particular benefit from Physiotherapy input. 
We explored the incorporation of multi-segmental bioim-
pedance to assess muscle mass, although did not proceed 
due to concerns that the step-up onto the device presented 
a falls risk. We developed a standard operating procedure 
document to accompany the original SarcScreen proforma. 
We found that in practice this was not always easy for team 
members to locate, and so modified the form to include a 
summary of the instructions for the grip strength and gait 
speed assessment. The SarcScreen proforma is provided in 
Supplementary Material 1.

It was possible to complete the body size and question-
naire measures in almost all patients: height and weight in 
99.3%, questionnaire components of the Fried frailty phe-
notype in 96.0%, and the SARC-F questionnaire in 94.2% 
of those attempted. It was possible to measure grip strength 
in 98.2% of patients, with a further 1.1% unable to attempt 
due to health reasons (in all cases due to pain in the wrist 
or hand such as from arthritis) and no reason recorded in 
0.7% of patients. It was possible to measure gait speed in 
82.1% of patients (of whom 38.4% used a walking aid). Gait 
speed was not completed in 8.3% of patients due to reduced 
mobility, 1.3% due to breathlessness and in a further 8.3% 
no reason was recorded. Non-completion of gait speed was 
more common in those with a SARC-F score of eight or 
more, and those reporting low physical activity or exhaus-
tion. A Fried frailty phenotype score could be assigned in 
87.9% of patients.

Examination of values obtained from the SarcScreen

We examined results from 552 patients (65.9% female) with 
mean age 80.1 (7.7) years assessed using the SarcScreen. 
There were no marked sex differences in the values obtained, 
as shown in Table 1. The mean BMI of participants was in 
the overweight range at 27.4 (6.93) kg/m2. A SARC-F score 
of 4 or more (present in 75.2%), weak grip strength (present 
in 83.8%), and slow gait speed (present in 88.8%) as per 



766 European Geriatric Medicine (2022) 13:763–769

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the EWGSOP2 cut-points were all common. Approximately 
one-quarter (24.4%) were below cut-points for two of the 
three measures, and approximately two-thirds (63.3%) were 
below the cut-points for all three. This is shown in the form 
of a Venn diagram in Fig. 1. The questionnaire components 
of the Fried frailty phenotype were also common, especially 
low physical activity (present in 38.0%) and exhaustion (pre-
sent in 54.9%). This combined with the grip strength and 
gait speed values meant that Fried frailty was present in 
66.2% of the sample. 

We did not find evidence of an increase in the prevalence 
of a positive SARC-F score, weak grip strength, slow gait 
speed or Fried frailty with age, but rather we observed simi-
lar values across the different age groups. For example, the 
prevalence of a positive SARC-F score was 74.1% below 
age 81 (the median age of the sample) and 75.6% at age 
81 and above. The Z-scores for grip strength by age group 
showed that all age groups had mean grip strength values 
below those expected for their age and sex based on exist-
ing British normative data. This was especially the case in 
younger patients, as shown in Fig. 2. For example, patients 
aged 60–69 had a mean grip strength 2.7 standard deviations 
(95% CI 2.5, 2.9) below that expected, compared to patients 
aged 90–98 where the mean was 1.0 standard deviations 
(95% CI 0.8, 1.3) lower. 

Discussion

We successfully implemented an assessment of sarcopenia 
and the frailty phenotype as part of the routine outpatient 
care of older people attending our Older People’s Medi-
cine Day Unit. We have shown that completion of relevant 
questionnaire measures and of grip strength was possible 
in nearly all patients. Measurement of gait speed was not 
completed in almost one-fifth of patients, although this was 
associated with a raised SARC-F score and hence is likely 
to be a marker of poor mobility. There was a high prevalence 
of poor performance such as weak grip strength and this was 
similar in both younger and older age groups.

The CGA process that we use in the Day Unit already 
included several questionnaire measures and so we antici-
pated that the SARC-F and Fried frailty questions would 
be possible to implement. We also found that grip strength 
measurement was possible, with only a small proportion of 
patients (approximately 1%) unable to complete the assess-
ment. This was less than in a study of the implementation 
of grip strength in acute hospital wards for older people, 
where a range of health issues including acute illness and 
severe confusion led to around one-fifth of patients being 
unable to complete grip strength [8]. In a similar manner, 
a research study conducted with older patients on acute 

Table 1  Summary values from 
Newcastle SarcScreen, by sex

All mean (SD) unless otherwise stated
*From a t test for comparison of mean values, and a chi-square test for proportions
† Includes those unable to perform the test due to health reasons

n All
(max n = 552)

Males
(max n = 188)

Females
(max n = 364)

P value for 
sex differ-
ence*

Age (years) 552 80.1 (7.7) 80.1 (7.7) 80.1 (7.7) 0.9
BMI (kg/m2) 548 27.4 (6.93) 27.2 (5.0) 27.5 (6.9) 0.6
SARC-F 485 0.09
 0–3 [n (%)] 122 (25.2) 51 (31.3) 71 (22.1)
 4–7 [n (%)] 234 (48.3) 72 (44.2) 162 (50.3)
 8–10 [n (%)] 129 (26.6) 40 (24.5) 89 (27.6)

Grip strength (kg) 542 Not reported 18.9 (7.1) 10.9 (5.7) Not tested
Weak grip strength [n (%)]† 548 459 (83.8%) 161 (86.1%) 298 (82.6%) 0.3
Gait speed (m/s) 453 0.5 (0.2) 0.6 (0.2) 0.5 (0.2) 0.048
Slow gait speed [n (%)]† 506 454 (89.7%) 149 (87.1%) 305 (91.0%) 0.2
Unintentional weight loss [n (%)] 542 142 (26.2%) 52 (28.1) 90 (25.2) 0.5
Low physical activity [n (%)] 547 208 (38.0%) 73 (39.5%) 135 (37.3%) 0.6
Exhaustion [n (%)] 545 299 (54.9%) 96 (51.6%) 203 (56.6%) 0.3
Fried phenotype 485 0.2
 0 (Non-frail) 12 (2.5%) 2 (1.2%) 10 (3.1%)
 1–2 (Pre-frail) 152 (31.3%) 59 (35.8%) 93 (29.1%)
 3+ (Frail) 321 (66.2%) 104 (63.0%) 217 (67.8%)



767European Geriatric Medicine (2022) 13:763–769 

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medicine wards found that gait speed was not possible in 
a much higher proportion of patients than seen in our Day 
Unit (66% compared to 18%) [19].

In terms of the typical values in our patient group, two 
findings stood out. First, we observed a high proportion 
of patients who fell below the relevant cut-points in the 
EWGSOP2 definition, or who met the criteria for the Fried 

frailty phenotype, or both. For example, 84% of patients 
fell below the EWGSOP2 cut-points for grip strength. This 
contrasts with a lower proportion of weak grip strength 
seen in a research study of sarcopenia prevalence in 
another Day Unit setting of 49% [20]. A range of factors 
are likely to explain this difference, but one possibility is 
that older people with low strength may be less likely to 

Fig. 1  Venn diagram showing 
overlap of sarcopenia compo-
nents. n = 439 with information 
on all three components. Based 
on cut-points for weak grip 
strength, slow gait speed, and a 
positive SARC-F score provided 
in the EWGSOP2 guidance

N=439 with information on all three components. Based on cut-points for weak grip strength, 
slow gait speed and a positive SARC-F score provided in the EWGSOP2 guidance.

Weak grip (84%)

Slow gait (89%)

SARC-F positive (75%)

Fig. 2  Grip strength values 
expressed relative to British 
normative data, by age group. 
The plot shows the mean grip 
strength Z-score for each age 
group. A grip strength Z-score 
is the number of standard devia-
tions above that expected for a 
patient’s age and sex, and hence 
negative values indicate lower 
grip strength than expected. For 
full description see “Methods” 
section

 

The plot shows the mean grip strength Z-score for each age group. A grip strength Z-score is 
the number of standard deviations above that expected for a patient’s age and sex, and hence 
negative values indicate lower grip strength than expected. For full description see methods 
section. 

-3
-2

-1
0

60-69 70-79 80-89 90-98
Age group (years)

Mean Z-score 95% CI



768 European Geriatric Medicine (2022) 13:763–769

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be recruited into research. The high prevalence of weak 
grip strength (and hence probable sarcopenia) highlights 
the importance of having access to resistance exercise 
interventions for this patient group [10]. Another benefit 
of identifying probable sarcopenia and/or the frailty phe-
notype in patients is that it may facilitate recruitment to 
the growing number of research studies including trials in 
this area [12].

Second, we observed similar grip strength values in 
young-old and older patients, in contrast to findings from 
normative data from the general population where mean 
grip strength tends to decline from mid-life onwards [13]. 
This was highlighted by our finding of a significantly lower 
mean Z-score among the young-old compared to the older 
age groups, and may reflect the nature of patients seen in our 
Day Unit, where functional impairment (including mobility 
impairment) is a key reason for referral regardless of age. 
These two findings highlight the importance of analysing 
data collected during routine care, which may in turn sug-
gest lower cut-points to identify those most at risk. Related 
to this, recent analyses performed by the Sarcopenia Defini-
tions and Outcomes Consortium suggest that a cut-point for 
gait speed of 0.6 m/s performs better than 0.8 m/s in identi-
fying individuals with mobility limitation [21].

Limitations of the present study include that we did not 
assess chair stand test performance [6] or muscle mass. 
These are areas for future work in the development of the 
SarcScreen. The results of the paper proforma were also not 
directly stored in our hospital’s electronic healthcare record. 
We have recently implemented a version of the SarcScreen 
with direct storage of results in the electronic healthcare 
record and in the future this should enable further analyses 
including associations with outcomes [22]. We used infor-
mation from saved copies of the SarcScreen proforma and it 
is possible that some patients attending did not have a form 
completed, although to our knowledge this was uncommon. 
A strength is that we collected and analysed a large sample 
of routine data relevant to the outpatient care of older peo-
ple. This included the reasons for non-completion of physi-
cal performance tests, with health-related reasons having 
previously been shown to be associated with adverse health 
outcomes including reduced survival times [17].

In conclusion, it is possible to implement an assessment 
of sarcopenia and the frailty phenotype as part of the routine 
care of older people attending an Older People’s Medicine 
Day Unit. The Newcastle SarcScreen can be used to identify 
these ageing syndromes which are amenable to treatments 
such as progressive resistance exercise training, and are 
also the focus of a growing number of clinical trials. Most 
patients fell below cut-points proposed in the EWGSOP2 
definition, and hence an area for future work is to examine 
these and other cut-points in the clinical prediction of key 
health outcomes.

Supplementary Information The online version contains supplemen-
tary material available at https:// doi. org/ 10. 1007/ s41999- 022- 00641-5.

Acknowledgements We would like to thank all members of the Older 
People’s Medicine Day Unit team including the nursing staff who 
undertook the data collection.

Funding AAS is Director of the NIHR Newcastle Biomedical Research 
Centre. The research was supported by the National Institute for Health 
Research (NIHR) Newcastle Biomedical Research Centre based at 
Newcastle upon Tyne Hospitals NHS Foundation Trust and Newcastle 
University. The views expressed are those of the author(s) and not 
necessarily those of the NHS, the NIHR or the Department of Health.

Declarations 

Conflict of interest None of the authors have conflicts of interest to 
declare.

Ethical approval  As the analysis used data already collected as part 
of routine clinical care, with no new patient contact or additional data 
collection, the project did not require evaluation by a research ethics 
committee. Data were anonymized within the trust before export for 
analysis.

Informed consent As the study used data collected as part of routine 
clinical care, with no new patient contact or additional data collection, 
formal consent was not required.

Open Access This article is licensed under a Creative Commons Attri-
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https://www.bgs.org.uk/sites/default/files/content/resources/files/2018-05-23/fff_full.pdf
https://www.bgs.org.uk/sites/default/files/content/resources/files/2018-05-23/fff_full.pdf

	The assessment of sarcopenia and the frailty phenotype in the outpatient care of older people: implementation and typical values obtained from the Newcastle SarcScreen project
	Key summary points
	Aim 
	Findings 
	Message 

	Abstract
	Purpose 
	Methods 
	Results 
	Conclusion 

	Introduction
	Methods
	Clinical setting and patients
	Implementation of the Newcastle SarcScreen
	Statistical analysis

	Results
	Implementation of the SarcScreen
	Examination of values obtained from the SarcScreen

	Discussion
	Acknowledgements 
	References