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SUBJECTIVE GLOBAL ASSESSMENT AND THE ROYAL FREE HOSPITAL GLOBAL EVALUATION IN CHRONIC LIVER
DISEASE
Paola María Valero Cubillán1https://orcid.org/0009-0002-3266-4074,Mareidys Cecilia Daza1https://orcid.org/0000-0003-1653-6566, Hazel Barboza
Zambrano1http://orcid.org/0000-0002-3519-6168 and Hazel Anderson Vásquez1http://orcid.org/0000-0001-8780-4332.
1Specialty in Clinical Nutrition, Division of Graduate Studies, Faculty of Medicine, University of Zulia, Venezuela.
Received: November 2, 2023
Accepted: December 29, 2023
ABSTRACT
Introduction: Malnutrition in patients with chronic liver disease
is common. Its prognostic value for life is indisputable due to its
impact on morbidity and mortality. However, to date there is no
ideal method for nutritional assessment in this pathology.
Objective: to compare the Subjective Global Assessment (SGA)
and the Royal Free Hospital Global Assessment (RFH-GA) as a
nutritional assessment tool in adults with liver disease. Methods:
Cross-sectional, field and correlational study. The non-
probabilistic random sample was made up of 65 subjects, to
whom both nutritional evaluation methods were applied. For
SGA, the Detski form was used and for the evaluation with the
Royal Free Hospital the Morgan algorithm was used. Results: In
the SGA, 52 subjects presented malnutrition (55.4% reflected
moderate malnutrition and 24.6% severe malnutrition). In the
RFH-GA, it was found that 47 subjects presented malnutrition
(46.2% moderate malnutrition and 26.2% severe malnutrition).
Regarding gender, in the SGA, women predominated in
moderate malnutrition in both methods; and in the RFH-GA, men
predominated in severe malnutrition. The SGA presented a
sensitivity of 97%, specificity of 60%; AUC 0.80; (95% CI 0.66 to
0.97), RFH-GA had a sensitivity of 95%, specificity 84% AUC
0.89 (95% CI 0.79 to 1.00). Conclusions: The SGA and RFH-GA
methods demonstrated a sensitivity greater than 90%. However,
the RFH-GA seems to better classify patients with normal
nutritional status, reflecting a greater specificity in relation to that
observed in the SGA.
Keywords: Nutritional assessment, liver cirrhosis, nutritional
status
Corresponding author: Ph.D. Hazel Anderson Vasquez. Email:hazelanderson2001@gmail.com
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INTRODUCTION
The liver is a vital organ that has various functions in the
metabolic processes of macro- and micronutrients, such as
protein synthesis. It has (1) activity as a detoxifying and immune
organ that detects and eliminates pathogens, a great
regenerative and vascular capacity (2). It should be noted that
when some pathogenic factors affect the liver, certain functions
are altered, producing liver disease, which can be acute or
chronic (1,2).
Chronic liver disease (CLD) is a continuous and progressive
process of liver fibrosis, with architectural distortion of the tissue
and formation of regeneration nodules. As it progresses it leads
to the activation of hepatic stellate cells, which lead to an
excessive tissue repair response, which favors liver fibrosis,
cirrhosis and finally liver cancer (3,4). During the course,
complications such as edema, jaundice, portal hypertension,
malnutrition, esophageal varices, ascites and encephalopathy
may appear (5).
The age group in which CLD predominates is between 40 and 60
years (6), according to Lebroc et al. They found in their study that
between 52 and 67 years was the average age at the diagnosis
of liver cirrhosis (7). On the other hand, among the most frequent
causes that lead to chronic liver failure are liver disease
associated with alcohol consumption (60-70%), followed by non-
alcoholic fatty liver, biliary obstruction and hemochromatosis (5-
10%). (5).
In Central European countries, alcohol and viral hepatitis
contribute equally to the disease burden, with alcohol being the
predominant cause in Western countries. Two-thirds of patients
with liver disease died before the age of 65 years. (8-10). It has
been reported that 844 million people in the world suffer from
cirrhosis, with a mortality rate of approximately 2 million per year.
Of those affected, about 20% have compensated cirrhosis and
between 65% to 95% of those who suffer from this pathology
have protein-calorie malnutrition (11).
In this sense, an important aspect that must be evaluated and
monitored in patients with chronic liver disease is the nutritional
status, since, in the evolution of the disease, protein-calorie
malnutrition is the most observed at any stage of the disease and
it is associated with a high morbidity and mortality (12). Its origin
is multifactorial and three factors that contribute to it can be
identified, such as the limitation or reduction of food intake,
alteration in the digestion and absorption of nutrients, and
interference in nutrient metabolism (13,14).
The pathophysiological factors that lead patients with cirrhosis to
varying degrees of malnutrition are complex and very difficult to
be fully understood. As cirrhosis progresses, malnutrition
becomes more pronounced (15). Hence the importance of
evaluating the nutritional status of these patients, with the aim of
identifying whether malnutrition exists and directing therapeutic
measures to prevent the complications that arise from it (16).
Nutritional evaluation in chronic liver disease should be based on
anthropometric methods, which allow the evaluation of body size
and proportions. Likewise, non-anthropometric methods were
used, such as: the evaluation of body composition with a specific
focus on muscle mass, functional evaluation, dietary evaluation,
as well as applying screening tools that allow identifying
nutritional risk (17,18).
In this order of ideas, within the most used methods for detecting
malnutrition or nutritional risk, one of the most used is the Royal
Free Hospital Global Assessment (RFH-GA), as it is a
reproducible nutritional assessment method that correlates with
other measures of body composition and predicts complications
and post-transplant survival (19,20). Likewise, the Subjective
Global Assessment (SGA) is considered another diagnostic tool
for the nutritional status of these patients. It has a sensitivity of
96-98% and a specificity of 82-83% (21-23).
With this method, Nunes et al. (24) evaluated 130 patients with
chronic liver disease (80 men and 50 women aged between 22
to 89 years) through outpatient consultation. They found a
prevalence of malnutrition of 44%, of which 31% presented
moderate malnutrition and 10% were severely malnourished;
Likewise, Sharma et al. (25), in an unicenter cross-sectional
observational study, 251 cirrhotic patients (199 men and 52
women) with an average age of 51 years were evaluated. They
applied the SGA and reported that 65% of the subjects presented
malnutrition (42% moderate malnutrition and 23% severe
malnutrition).
The Royal Free Hospital Global Assessment (RFH-GA) was
developed specifically for use in patients with liver cirrhosis, it is
a global scheme that incorporates subjective and objective
variables (26). Regarding its application, Gottschall et al. (27)
carried out research where they applied different methods (BMI,
SGA, grip strength (HGS), RFH-GA) to evaluate the nutritional
status of 94 adult patients with the hepatitis C virus. The results
obtained reflected that the prevalence of malnutrition was highest
in the grip strength (HGS) 60.6% followed by RFH-GA 53.2%,
while the methods that identified malnutrition the least were the
VGS 16% and the BMI with 6.4%. These authors concluded that
both grip strength (HGS) and RFH-VG can be good methods to
detect malnutrition in subjects with liver disease.
In accordance with the above, it is necessary to carry out studies
that provide evidence on the most appropriate method for the
nutritional diagnosis of these patients. The present study aimed
to compare the Subjective Global Assessment (SGA) and the
Royal Free Hospital Global Assessment (RFH-GA) as a
nutritional assessment tool in adults with liver disease.
METHODS
This research was of a field, correlational and non-
experimental cross-sectional design. The population was
made up of patients who attended the outpatient Nutrition
consultation of the Gastroenterology Service of the University
Hospital of Maracaibo, Zulia state, Venezuela, during the months
of May to November 2019, from which a non-probabilistic random
sample was selected. made up of 65 patients.
This research was approved by the Academic Committee of the
Clinical Nutrition Specialty of the Division of Graduate Studies of
the Faculty of Medicine of the University of Zulia and by the
Ethics Committee of the University Hospital of Maracaibo.
Research procedures were carried out in accordance with the
Declaration of Helsinki (28). All subjects signed the informed
consent. The Inclusion criteria included: a) both genders, b)
age between 25-65 years and c) with a diagnosis of chronic liver
disease. The Exclusion criteria were a) Patients with a
diagnosis of liver failure or cancer b) patients with any acute
complication of the disease (gastrointestinal bleeding, peritonitis,
infections, encephalopathy).
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Procedures:
To collect data from the selected subjects, the following
evaluations were carried out: clinical, anthropometric and dietary
using the respective forms.
Nutritional assessment
For the SGA, the form of Detski et al. was used. (29) that
classifies nutritional status into three categories based on five
parameters: (weight change, dietary intake relative to usual,
gastrointestinal symptoms, functional capacity and metabolic
stress of the underlying diagnosis) and three physical
examination parameters (loss of subcutaneous fat, loss of
muscle mass, and edema/ascites). The components are then
combined to obtain a rating of (A) well nourished, (B) moderately
malnourished, and (C) severely malnourished.
For the evaluation with the Royal Free Hospital SGA, the Morgan
et al. algorithm was used. (30), which includes an algorithm that
includes: Body Mass Index (BMI) greater and less than 20 kg/m2,
arm muscle circumference (greater and less than the 5th
percentile) and dietary intake (is is classified as adequate,
inadequate and insignificant depending on whether it meets the
requirements or is less or more than 500 kcal/day). After the
respective calculations it was classified into 3 categories:
adequately fed, moderately malnourished (or suspected of being
so) and severely malnourished.
Anthropometric indicators:
Weight: The patient with the minimum of clothing possible was
weighed on the scale balanced at zero. The subject remained
standing motionless in the center of the scale with the body
weight distributed between both feet (31). The estimate of dry
weight in ascites was estimated according to the severity of
ascites formulated by Carvalho et al (32), subtracting 2 kg in
patients with grade 1 ascites, 4 kg with grade 2 and 8 kg with
grade 3. To obtain body weight, a platform scale from the Health
Ometer brand Continental Scale Corporation, Bridgeview,
Illinois, USA, calibrated in kg (0.1 kg), was attached with a
stadiometer calibrated in cm (0.1 cm).
Size: They stood with their heels together forming a 45° angle.
The heels, buttocks, back and occipital region were in contact
with the vertical surface of the stadiometer. The recording was
taken in cm, with a forced inspiration of the subject, and with a
slight traction of the anthropometrist from the lower jaw, keeping
the subject with the head in the Frankfurt Plane (31).
Body Mass Index: The Quetelec equation was applied that
includes (BMI): mass (kg)/height (m2), according to which the
patients were classified BMI according to the Campillo criteria
(33), with the point of cut-off of 22 kg/m² patients without ascites,
adapting it to the WHO classification, in the following cut-off
points: Deficit <22, Normal: 22 24.9 Overweight: 25-29.9
Obesity I: 30-34, 9 Obesity II: 35.0 to 39.9 and obesity III: 40 or
more.
Mid-arm circumference: the level of the midpoint between the
acromial and radial points was measured. To take this perimeter,
the length of the arm was measured from the beginning; with the
right forearm bent forward (at a 90° angle) perpendicular to the
body and with the back of the hand facing away from the body.
The length was determined by placing the tape on the superior
vertex of the acromion of the scapula to the olecranon of the ulna
(and head of the radius). The individual remained relaxed,
uncovered (no sweater, shirt, etc.), upright, in profile, arms
resting on his thighs. Next, the subject's arm was extended to
pass the measuring tape horizontally (around the arm), without
pressure, and making contact with the skin. At that moment the
perimeter reading was taken (31). Taking into account the
different cut-off points for its assessment: the corresponding
percentile (34).
Dietary indicators:
Dietary intake: for the dietary evaluation, the 24-hour reminder
was used. It consisted of collecting the most detailed information
possible regarding the foods and drinks consumed (type,
quantity, method of preparation, etc.), for three non-consecutive
days (2 business days and one weekend day). The interview was
conducted by a clinical nutritionist who emphasized the quantities
and types of foods, as well as special preparations (recording
measurements and ingredients used). The size of the portions of
the preparations commonly used by each patient were estimated
with the help of modeled foods and measuring equipment
provided by said professional (35). To calculate the contribution
of energy and nutrients, a computer program was used with data
from the Food Composition Table of Venezuela (36). Individual
consumption of energy were expressed in Kcal/day and
macronutrients in grams of protein/day, grams of fat/day and
grams of carbohydrates/day (37).
Analysis of data
The statistical program Statistical Package for the Social
Sciences (IBM SPSS), version 23 for Windows, was used. These
data were previously entered into a database created in Microsoft
Excel for Windows. To verify the normal distribution of the data,
the Kolmogorov test was applied. -Smirnov. The qualitative
variables were expressed in the form of absolute and relative
frequencies. The mean was used as a measure of central
location, as well as the standard deviation.
To determine the suitability characteristics of the studied
methods, they were grouped by pathology. To compare the
methods, they were regrouped into two bivariate variables ESR
and HRF-GA, grouping at-risk and malnourished patients into a
single group. Differences between means were analyzed using
the t for independent samples or the Mann-Whitney test. In the
statistical analysis, the sensitivity (S), the specificity (Sp), the
positive predictive value (PV +) and the negative predictive value
(PV-), and the positive (RV+) and negative (RV-) likelihood ratio
were calculated. They were compared using the ROC (Receiver
operating characteristic) curve (38). The Cronbach method was
applied for reliability. Values of p<0.05 were considered
statistically significant results.
RESULTS
Table 1 shows the distribution of subjects by age and gender
groups. A total of 65 subjects (36 men and 29 women) were
evaluated. In relation to the distribution of age groups, it was
found that the highest prevalence in both genders corresponded
to the age group between 50-65 years, representing 76.9%, with
a predominance in both men and women, reflecting a significant
response in comparison. with the other two age groups.
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Table 2 shows the anthropometric characteristics of the subjects
according to gender, the average current weight in the group of
men was 77±23 kg and in women it was 61.48±13 kg. Likewise,
the dry weight in men was higher, at 70±34 kg, while in women it
was 54.91±12 kg. The height for the male gender was recorded
as 171±5.8 cm and for the female gender it was 157±8.4 cm.
Regarding BMI, in the male group this corresponded to 25.8 ±
7.1 kg/m2
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Table 3 presents the nutritional status determined by the subjective global assessment and the royal free hospital evaluation according
to gender, while in the female group the BMI was 23.13±4.0 kg/m2; In relation to weight loss in the last 3 months, it was very similar
in both groups, with men reflecting a weight loss of 5.94±5.7 kg while in women it was reflected at 5.68±5. .1kg; Finally, the arm
circumference in the male group was observed at 27.23±6.1 cm and in the female group 25.79±3.59 cm.
Table 3 shows the nutritional status determined by the ESR and
the RFH-GA according to gender. Observing in the SGA a total
of 52 patients (80%) presented malnutrition, of which 55.4%
reflected moderate malnutrition and 24.6% severe malnutrition.
Regarding the male gender, 50% presented moderate
malnutrition and 25% severe malnutrition and 25%; while in
women 62% were observed with moderate malnutrition and
24.1% with severe malnutrition. A predominance was observed
in both groups of the female gender for moderate malnutrition.
Severe malnutrition predominated in men. In the same table 3 it
is recorded that RFH-GA was applied to 65 patients of which 47
or 72.4% presented malnutrition, among them 46.2% had
moderate malnutrition, 26.2% severe malnutrition and 27.6% had
adequate nutritional status. In relation to gender distribution,
36.1% of men had moderate malnutrition, 33.3% had severe
malnutrition and 30.6% reflected good nutritional status.
Meanwhile, in women, 58.6% of moderate malnutrition was
evident, 17.2% of severe malnutrition and 24.2% were included
in the normal nutritional status.
Table 4 indicates the reliability of the SGA and the RFH-VG
according to Cronbach's Alpha. In the SGA, the Cronbach's
Alpha was 0.81, while in the RFH-GA, it corresponded to 0.89.
Graph 1 shows the comparison of the COR curve between the SGA Method and HRF-GA, observing that the HRF-GA method has
greater discriminative power for malnutrition, compared to the SGA method, since it has a sensitivity to detect malnutrition of 95%.
specificity of 84%, PV+ 93%, VP- 88%, RV+ 5.93, RV- 0.16. Area under the curve 0.89, with 95% confidence interval (CI 0.79- 1.00)
p<0.01; while SGA has a sensitivity to detect malnutrition of 97%, specificity of 60%; PV+ 84%; PV- 92%, RV+ 2.42, RV- 0.41; the
area under the curve 0.80; with a 95% confidence interval (0.66 0.97) p<0.01-
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DISCUSSION
Malnutrition is a common comorbidity in patients with cirrhosis.
Its prognostic value is indisputable since it greatly influences the
evolution of liver diseases, having a great impact on both
morbidity and mortality before and after liver transplantation.
Therefore, early detection and active management is essential
for the well-being and survival of these patients (26). To date,
there is no nutritional evaluation method that can be considered
an ideal model or Gold Standard to adequately classify the
nutritional status of patients with chronic liver disease (38). That
is why the present research aimed to compare both nutritional
assessment tools in adult patients with liver disease.
Different research groups have evaluated different tools for the
nutritional evaluation of cirrhotic patients; SGA being one of the
most studied and recommended. Both the European Association
for the Study of the Liver (EASL) and the European Society for
Enteral and Parenteral Nutrition (ESPEN) recommend its use in
the nutritional evaluation of liver patients (19,39). Taniguchi et al.
(40) report that SGA is one of the most used nutritional screening
tools in various diseases due to its simplicity and safety.
However, its validity to evaluate nutritional status in liver diseases
has been controversial.
Rosemary et al. (16); point out that the SGA is not an adequate
method to measure the risk of malnutrition due to excess, since
when assessing overweight or obese subjects it includes them
within the well-nourished group. So, although the SGA has not
been developed specifically for the nutritional evaluation of
patients with liver disease, some authors consider it as a reliable,
valid tool with predictive value for patients with cirrhosis (13,
41,42).
In the present study, the prevalence of both moderate and severe
malnutrition, determined by ESR, differs from the figures reported
by Moctezuma et al. (43); who applied the ESR to 315 patients
with CLD (66% men and 34% women) with an average age of 54
years, reflecting 60% of malnourished patients, 49% moderate
malnutrition and 11% with severe malnutrition.
On the other hand, Bunchhorntavakul et al. (44), evaluated 60
patients with CLD by SGA with an average age of 57.45 years
(42 men and 18 women), reporting a total of 91.7% malnourished
patients of which 66.7% subjects presented severe malnutrition
and 25% reflected moderate malnutrition. These results were
higher than those reported in the present investigation;
meanwhile El-Mohsen et al. (45), evaluated 125 subjects (72
men and 53 women) with liver cirrhosis by SGA, average age of
56.8 years, finding results similar to those observed in the
present research: 77.6% malnourished subjects, including 61.6%
with moderate malnutrition and 16% with severe malnutrition.
On the other hand, the results obtained through RFH-GA in the
present study were lower than those found by Naqvi et al. (46);
who applied the RFH-GA to 298 subjects (182 male and 116
female) with chronic liver disease, reporting a total of 85.56% of
malnourished subjects, 54.02% subjects with mild malnutrition
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and 31.54% subjects with severe malnutrition. Landa-Galvan et
al. (47); evaluated the nutritional status of 62 patients (51.6%
men and 48.4% women) through different nutritional evaluation
methods including the RFH-GA, reporting 45.2% subjects with
malnutrition, including 35.5% with malnutrition. moderate and
9.7% with severe malnutrition, figures lower than those reported
in this research work.
Regarding the RFH-GA, it could be observed that it classified
fewer patients with malnutrition in relation to the SGA method.
This could be because this nutritional assessment tool includes
the average arm circumference, which can be a good estimator
to calculate muscle reserves, since it is not affected by water
retention like other areas of the body (30). It could also be
explained by the fact that this assessment allows the
classification of nutritional status based on dietary factors, which
allows us to know specifically whether the daily dietary intake is
adequate, inadequate or insignificant and whether it is
contributing to the deterioration of nutritional status (19).
Regarding the validation of the SGA and RFH-GA methods for
detecting the nutritional status of patients with chronic liver
disease, in the present study it was found that the two tools
demonstrated a sensitivity greater than 90%. However, the RFH-
GA seems to better classify patients with normal nutritional
status, reflecting a greater specificity in relation to that observed
in the SGA. In this sense, Castellanos et al. (48) applied this
method to 116 patients (57 men and 64 women) with an average
age of 59 years, finding a sensitivity of 61.3%, and specificity
72.3%, results that differ from those obtained in the present
research work.
CONCLUSIONS
The SGA and RFH-GA methods demonstrated a sensitivity
greater than 90%. However, the RFH-GA seems to better classify
patients with normal nutritional status, reflecting a greater
specificity in relation to that observed in the SGA.
Finally, having simple and validated screening tools in the
nutritional assessment of liver patients is very useful since it
would allow the early detection of malnutrition and would favor
the application of strategies aimed at avoiding or minimizing the
impact of malnutrition on complications, an increase in morbidity
and mortality, hospital stay and healthcare costs.
INTEREST CONFLICT: None declared by the authors.
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