Relevance of Sarcopenia in Advanced Liver Disease (ACCESS-ESLD)

August 21, 2023 updated by: Mattias Ekstedt, Linkoeping University

A Rapid, Non-invasive, Clinical Surveillance for CachExia, Sarcopenia, Portal Hypertension and Hepatocellular Carcinoma in End-Stage Liver Disease

Patients with established liver cirrhosis, or end-stage liver disease (ESLD), are at high risk of developing liver cancer (hepatic carcinoma; HCC), portal hypertension, and sarcopenia, all which lead to significant morbidity and mortality. In this patient group the annual incidence of HCC is c. 2-8% and these patients are therefore included in ultrasound HCC screening programs every 6 months.

In this study, the investigators are aiming to assess sarcopenia, clinically significant portal hypertension (CSPH), and HCC with a single short magnetic resonance (MR) examination. A neck-to-knee MRI-examination will be acquired to derive body composition profile (BCP) measurements including visceral and abdominal subcutaneous adipose tissue (VAT and ASAT), thigh fat free muscle volume (FFMV) and muscle fat infiltration (MFI), as well as liver fat (PDFF), spleen volume, and liver stiffness. Images will be further processed by AMRA Medical AB. AMRA's solution includes FFMV in the context of virtual control groups (VCG; using AMRA's vast database) and MFI. Furthermore, the spleen volume will be used to monitor the development of portal hypertension and explored together with other BCP variables in relation to hepatic decompensation events. HCC screening will be performed using so-called abbreviated MRI (AMRI), which consists of time series of contrast-enhanced T1-weighted images. The AMRI images will be read by an experienced radiologist. In the literature the sensitivity of AMRI to detect HCC is above 80%, with a specificity of c. 95%, compared to ultrasound sensitivity of 60%.

In treating ESLD there is a desire of physicians to be able to predict future decompensation events in order to initiate treatment to prolong survival. Moreover, the ability to assess processes of sarcopenia in the patient would be highly valuable for clinical practice due its severe clinical impact. Finally, ultrasound-based HCC screening has poor diagnostic performance and a MR-based screening approach would significantly improve treatment outcome as more treatable and earlier HCC may be identified.

Study Overview

Detailed Description

150 patients with established or probable liver cirrhosis at the Department of Gastroenterology and Hepatology at Linköping University Hospital, as well as collaborating hospitals; District Hospital in Eksjö and County Hospital in Jönköping, will be included in the study. The study includes four visits every six months (in patients with LI-RADS 3 five visits will be performed); each patient participates actively in the study during a time period of approximately 24 months. All study visits are scheduled in conjunction with clinical routine visits.

During each study visit the following is performed:

  • A detailed clinical work-up
  • Assessment of medical history or changes in health status since last visit
  • FibroScan
  • Magnetic resonance (MR) examination
  • Comprehensive blood panels and blood samples for research
  • Muscle function and mobility assessments (SPPB and hand grip strength).
  • Quality of life assessment (EQ-5D-5L, QLDQ-cirrhosis and SHS-liver).
  • Hepatic encephalopathy assessment (ANT test).
  • Assessment of the development of symptoms

Study Type

Observational

Enrollment (Estimated)

150

Contacts and Locations

This section provides the contact details for those conducting the study, and information on where this study is being conducted.

Study Contact

Study Contact Backup

Study Locations

      • Eksjö, Sweden, 57581
        • Recruiting
        • Department of Gastroenterology), District Hospital in Eksjö
        • Contact:
        • Contact:
        • Principal Investigator:
          • Martin Rejler, PhD, MD
        • Sub-Investigator:
          • Daniel Sjögren, MD
      • Jönköping, Sweden, 55185
        • Recruiting
        • Department of gastroenterology, County Hospital in Jönköping
        • Contact:
        • Principal Investigator:
          • Henrik Stjernman, PhD, MD
      • Linköping, Sweden

Participation Criteria

Researchers look for people who fit a certain description, called eligibility criteria. Some examples of these criteria are a person's general health condition or prior treatments.

Eligibility Criteria

Ages Eligible for Study

18 years and older (Adult, Older Adult)

Accepts Healthy Volunteers

No

Sampling Method

Non-Probability Sample

Study Population

150 patients with established or probable liver cirrhosis at the Department of Gastroenterology and Hepatology at Linköping University Hospital as well as collaborating hospitals; District Hospital in Eksjö and County Hospital in Jönköping, will be included in the study. All etiologies of cirrhosis will be included except patients with primary sclerosing cholangitis.

Description

Inclusion Criteria:

  1. Established or probable liver cirrhosis according to clinical practice at the Department of Gastroenterology and Hepatology at Linköping University Hospital. This is not by necessity biopsy verified, it can be different criteria such as FibroScan, symptoms, biopsy, and radiology.
  2. Age ≥18 years
  3. Written informed consent from the participant

Exclusion Criteria:

  1. Contraindications for MRI
  2. Subjects suffering from primary sclerosing cholangitis (PSC)
  3. Subjects diagnosed with Hepatic carcinoma (HCC)
  4. Previous liver transplant

Study Plan

This section provides details of the study plan, including how the study is designed and what the study is measuring.

How is the study designed?

Design Details

  • Observational Models: Cohort
  • Time Perspectives: Prospective

What is the study measuring?

Primary Outcome Measures

Outcome Measure
Measure Description
Time Frame
Body composition (FFMVvcg)
Time Frame: Baseline
FFMVvcg is the thigh fat-free muscle volume in the context of virtual controls which effectively measures the deviation from expected thigh fat-free muscle volume normalized to height squared using sex and BMI matched virtual control groups.
Baseline
Body composition (FFMVvcg)
Time Frame: 6 months
FFMVvcg is the thigh fat-free muscle volume in the context of virtual controls which effectively measures the deviation from expected thigh fat-free muscle volume normalized to height squared using sex and BMI matched virtual control groups.
6 months
Body composition (FFMVvcg)
Time Frame: 1 year
FFMVvcg is the thigh fat-free muscle volume in the context of virtual controls which effectively measures the deviation from expected thigh fat-free muscle volume normalized to height squared using sex and BMI matched virtual control groups.
1 year
Body composition (FFMVvcg)
Time Frame: 18 months
FFMVvcg is the thigh fat-free muscle volume in the context of virtual controls which effectively measures the deviation from expected thigh fat-free muscle volume normalized to height squared using sex and BMI matched virtual control groups.
18 months
Change from baseline Body composition (FFMVvcg)
Time Frame: 6 months
FFMVvcg is the thigh fat-free muscle volume in the context of virtual controls which effectively measures the deviation from expected thigh fat-free muscle volume normalized to height squared using sex and BMI matched virtual control groups.
6 months
Change from 6 months Body composition (FFMVvcg)
Time Frame: 1 year
FFMVvcg is the thigh fat-free muscle volume in the context of virtual controls which effectively measures the deviation from expected thigh fat-free muscle volume normalized to height squared using sex and BMI matched virtual control groups.
1 year
Change from 1 year Body composition (FFMVvcg)
Time Frame: 18 months
FFMVvcg is the thigh fat-free muscle volume in the context of virtual controls which effectively measures the deviation from expected thigh fat-free muscle volume normalized to height squared using sex and BMI matched virtual control groups.
18 months
Muscle fat infiltration (%) [MFI]
Time Frame: Baseline
MFI is a measure, using MR, of percentage of fat infiltration in the muscles (%).
Baseline
Muscle fat infiltration (%) [MFI]
Time Frame: 6 months
MFI is a measure, using MR, of percentage of fat infiltration in the muscles (%).
6 months
Muscle fat infiltration (%) [MFI]
Time Frame: 1 year
MFI is a measure, using MR, of percentage of fat infiltration in the muscles (%).
1 year
Muscle fat infiltration (%) [MFI]
Time Frame: 18 months
MFI is a measure, using MR, of percentage of fat infiltration in the muscles (%).
18 months
Change from baseline Muscle fat infiltration (%) [MFI]
Time Frame: 6 months
MFI is a measure, using MR, of percentage of fat infiltration in the muscles (%).
6 months
Change from 6 months Muscle fat infiltration (%) [MFI]
Time Frame: 1 year
MFI is a measure, using MR, of percentage of fat infiltration in the muscles (%).
1 year
Change from 1 year Muscle fat infiltration (%) [MFI]
Time Frame: 18 months
MFI is a measure, using MR, of percentage of fat infiltration in the muscles (%).
18 months
Presence of previous decompensation
Time Frame: Baseline
If the patient previously has had ascites, bleeding esophageal varices, or encephalopathy.
Baseline
New episode of decompensation since baseline
Time Frame: 6 months
If the patient has had an episode of ascites, bleeding esophageal varices, or encephalopathy.
6 months
New episode of decompensation since 6 months
Time Frame: 1 year
If the patient has had an episode of ascites, bleeding esophageal varices, or encephalopathy.
1 year
New episode of decompensation since 1 year
Time Frame: 18 months
If the patient has had an episode of ascites, bleeding esophageal varices, or encephalopathy.
18 months
New episode of decompensation since 18 months
Time Frame: 2 years
If the patient has had an episode of ascites, bleeding esophageal varices, or encephalopathy.
2 years
Hepatocellular carcinoma
Time Frame: Baseline
Detection of HCC by AMRI
Baseline
Hepatocellular carcinoma
Time Frame: 6 months
Detection of HCC by AMRI
6 months
Hepatocellular carcinoma
Time Frame: 1 year
Detection of HCC by AMRI
1 year
Hepatocellular carcinoma
Time Frame: 18 months
Detection of HCC by AMRI
18 months
Hepatocellular carcinoma
Time Frame: 2 years
Chart review
2 years
Hand grip strength (kg)
Time Frame: Baseline
Measured at each visit with a hand-grip dynamometer
Baseline
Hand grip strength (kg)
Time Frame: 6 months
Measured at each visit with a hand-grip dynamometer
6 months
Hand grip strength (kg)
Time Frame: 1 year
Measured at each visit with a hand-grip dynamometer
1 year
Hand grip strength (kg)
Time Frame: 18 months
Measured at each visit with a hand-grip dynamometer
18 months
Muscle function
Time Frame: Baseline
Measured using the validated Short Physical Performance Battery.
Baseline
Muscle function
Time Frame: 6 months
Measured using the validated Short Physical Performance Battery.
6 months
Muscle function
Time Frame: 1 year
Measured using the validated Short Physical Performance Battery.
1 year
Muscle function
Time Frame: 18 months
Measured using the validated Short Physical Performance Battery.
18 months
Child-Pugh score
Time Frame: Baseline
A validated score to assess prognosis in liver cirrhosis. Includes: Albumin, Bilirubin, INR, Ascites, and Encephalopathy
Baseline
Child-Pugh score
Time Frame: 6 months
A validated score to assess prognosis in liver cirrhosis. Includes: Albumin, Bilirubin, INR, Ascites, and Encephalopathy
6 months
Child-Pugh score
Time Frame: 1 year
A validated score to assess prognosis in liver cirrhosis. Includes: Albumin, Bilirubin, INR, Ascites, and Encephalopathy
1 year
Child-Pugh score
Time Frame: 18 months
A validated score to assess prognosis in liver cirrhosis. Includes: Albumin, Bilirubin, INR, Ascites, and Encephalopathy
18 months
Child-Pugh score
Time Frame: 2 year
A validated score to assess prognosis in liver cirrhosis. Includes: Albumin, Bilirubin, INR, Ascites, and Encephalopathy
2 year
MELD-score
Time Frame: Baseline
A validated score to assess prognosis in liver cirrhosis. Includes: Creatinine, INR, Bilirubin, and Sodium
Baseline
MELD-score
Time Frame: 6 months
A validated score to assess prognosis in liver cirrhosis. Includes: Creatinine, INR, Bilirubin, and Sodium
6 months
MELD-score
Time Frame: 1 year
A validated score to assess prognosis in liver cirrhosis. Includes: Creatinine, INR, Bilirubin, and Sodium
1 year
MELD-score
Time Frame: 18 months
A validated score to assess prognosis in liver cirrhosis. Includes: Creatinine, INR, Bilirubin, and Sodium
18 months
MELD-score
Time Frame: 2 years
A validated score to assess prognosis in liver cirrhosis. Includes: Creatinine, INR, Bilirubin, and Sodium
2 years
Significant liver lesion
Time Frame: Baseline
LI-RADS 3-5
Baseline
Significant liver lesion
Time Frame: 6 months
LI-RADS 3-5
6 months
Significant liver lesion
Time Frame: 1 year
LI-RADS 3-5
1 year
Significant liver lesion
Time Frame: 18 months
LI-RADS 3-5
18 months

Secondary Outcome Measures

Outcome Measure
Measure Description
Time Frame
Death
Time Frame: 6 months
Chart review
6 months
Death
Time Frame: 1 year
Chart review
1 year
Death
Time Frame: 18 months
Chart review
18 months
Death
Time Frame: 2 years
Chart review
2 years
Esophageal varices
Time Frame: Baseline
Assessed by gastroscopy and captured through chart review.
Baseline
Development of Esophageal varices
Time Frame: 6 months
Assessed by gastroscopy and captured through chart review.
6 months
Development of Esophageal varices
Time Frame: 1year
Assessed by gastroscopy and captured through chart review.
1year
Development of Esophageal varices
Time Frame: 18 months
Assessed by gastroscopy and captured through chart review.
18 months
Development of Esophageal varices
Time Frame: 2 years
Assessed by gastroscopy and captured through chart review.
2 years
Liver stiffness by Fibroscan (kPa)
Time Frame: Baseline
Liver stiffness is a surrogate marker for fibrosis stage, portal hypertension, and a prognostic marker.
Baseline
Liver stiffness by Fibroscan (kPa)
Time Frame: 6 months
Liver stiffness is a surrogate marker for fibrosis stage, portal hypertension, and a prognostic marker.
6 months
Liver stiffness by Fibroscan (kPa)
Time Frame: 1 year
Liver stiffness is a surrogate marker for fibrosis stage, portal hypertension, and a prognostic marker.
1 year
Liver stiffness by Fibroscan (kPa)
Time Frame: 18 months
Liver stiffness is a surrogate marker for fibrosis stage, portal hypertension, and a prognostic marker.
18 months
Liver stiffness by MRE (kPa)
Time Frame: Baseline
Liver stiffness is a surrogate marker for fibrosis stage, portal hypertension, and a prognostic marker.
Baseline
Liver stiffness by MRE (kPa)
Time Frame: 6 months
Liver stiffness is a surrogate marker for fibrosis stage, portal hypertension, and a prognostic marker.
6 months
Liver stiffness by MRE (kPa)
Time Frame: 1 year
Liver stiffness is a surrogate marker for fibrosis stage, portal hypertension, and a prognostic marker.
1 year
Liver stiffness by MRE (kPa)
Time Frame: 18 months
Liver stiffness is a surrogate marker for fibrosis stage, portal hypertension, and a prognostic marker.
18 months
Spleen volume (ml)
Time Frame: Baseline
A surrogate marker for portal hypertension and measured by MR.
Baseline
Spleen volume (ml)
Time Frame: 6 months
A surrogate marker for portal hypertension and measured by MR.
6 months
Spleen volume (ml)
Time Frame: 1 year
A surrogate marker for portal hypertension and measured by MR.
1 year
Spleen volume (ml)
Time Frame: 18 months
A surrogate marker for portal hypertension and measured by MR.
18 months
Quality of life (Questionnaire)
Time Frame: Baseline
EQ-5D-5L
Baseline
Quality of life (Questionnaire)
Time Frame: 6 months
EQ-5D-5L
6 months
Quality of life (Questionnaire)
Time Frame: 1 year
EQ-5D-5L
1 year
Quality of life (Questionnaire)
Time Frame: 18 months
EQ-5D-5L
18 months
Quality of life (Questionnaire)
Time Frame: Baseline
Short Health Scale-liver
Baseline
Quality of life (Questionnaire)
Time Frame: 6 months
Short Health Scale-liver
6 months
Quality of life (Questionnaire)
Time Frame: 1 year
Short Health Scale-liver
1 year
Quality of life (Questionnaire)
Time Frame: 18 months
Short Health Scale-liver
18 months

Collaborators and Investigators

This is where you will find people and organizations involved with this study.

Collaborators

Investigators

  • Principal Investigator: Mattias Ekstedt, MD, PhD, Linkoeping University

Study record dates

These dates track the progress of study record and summary results submissions to ClinicalTrials.gov. Study records and reported results are reviewed by the National Library of Medicine (NLM) to make sure they meet specific quality control standards before being posted on the public website.

Study Major Dates

Study Start (Actual)

February 1, 2021

Primary Completion (Estimated)

June 30, 2025

Study Completion (Estimated)

June 30, 2030

Study Registration Dates

First Submitted

February 15, 2022

First Submitted That Met QC Criteria

August 12, 2022

First Posted (Actual)

August 16, 2022

Study Record Updates

Last Update Posted (Actual)

August 24, 2023

Last Update Submitted That Met QC Criteria

August 21, 2023

Last Verified

August 1, 2023

More Information

Terms related to this study

Plan for Individual participant data (IPD)

Plan to Share Individual Participant Data (IPD)?

UNDECIDED

Drug and device information, study documents

Studies a U.S. FDA-regulated drug product

No

Studies a U.S. FDA-regulated device product

No

This information was retrieved directly from the website clinicaltrials.gov without any changes. If you have any requests to change, remove or update your study details, please contact register@clinicaltrials.gov. As soon as a change is implemented on clinicaltrials.gov, this will be updated automatically on our website as well.

Clinical Trials on Liver Cirrhosis

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