Plasma and cerebrospinal fluid ABeta42 for the differential diagnosis of Alzheimer's disease dementia in participants diagnosed with any dementia subtype in a specialist care setting - PubMed
- ️Fri Jan 01 2021
Meta-Analysis
. 2021 Feb 10;2(2):CD010945.
doi: 10.1002/14651858.CD010945.pub2.
Lucy C Beishon 2 , Nadja Smailagic 3 , Anna H Noel-Storr 4 , Chris Hyde 5 , Obioha Ukoumunne 6 , Rosemary E Worrall 7 , Anja Hayen 8 , Meera Desai 9 , Abhishekh Hulegar Ashok 1 10 , Eleanor J Paul 1 11 , Aikaterini Georgopoulou 12 , Tiziana Casoli 13 , Terry J Quinn 14 , Craig W Ritchie 15
Affiliations
- PMID: 33566374
- PMCID: PMC8078224
- DOI: 10.1002/14651858.CD010945.pub2
Meta-Analysis
Plasma and cerebrospinal fluid ABeta42 for the differential diagnosis of Alzheimer's disease dementia in participants diagnosed with any dementia subtype in a specialist care setting
Michelle Kokkinou et al. Cochrane Database Syst Rev. 2021.
Abstract
Background: Dementia is a syndrome that comprises many differing pathologies, including Alzheimer's disease dementia (ADD), vascular dementia (VaD) and frontotemporal dementia (FTD). People may benefit from knowing the type of dementia they live with, as this could inform prognosis and may allow for tailored treatment. Beta-amyloid (1-42) (ABeta42) is a protein which decreases in both the plasma and cerebrospinal fluid (CSF) of people living with ADD, when compared to people with no dementia. However, it is not clear if changes in ABeta42 are specific to ADD or if they are also seen in other types of dementia. It is possible that ABeta42 could help differentiate ADD from other dementia subtypes.
Objectives: To determine the accuracy of plasma and CSF ABeta42 for distinguishing ADD from other dementia subtypes in people who meet the criteria for a dementia syndrome.
Search methods: We searched MEDLINE, and nine other databases up to 18 February 2020. We checked reference lists of any relevant systematic reviews to identify additional studies.
Selection criteria: We considered cross-sectional studies that differentiated people with ADD from other dementia subtypes. Eligible studies required measurement of participant plasma or CSF ABeta42 levels and clinical assessment for dementia subtype.
Data collection and analysis: Seven review authors working independently screened the titles and abstracts generated by the searches. We collected data on study characteristics and test accuracy. We used the second version of the 'Quality Assessment of Diagnostic Accuracy Studies' (QUADAS-2) tool to assess internal and external validity of results. We extracted data into 2 x 2 tables, cross-tabulating index test results (ABeta42) with the reference standard (diagnostic criteria for each dementia subtype). We performed meta-analyses using bivariate, random-effects models. We calculated pooled estimates of sensitivity, specificity, positive predictive values, positive and negative likelihood ratios, and corresponding 95% confidence intervals (CIs). In the primary analysis, we assessed accuracy of plasma or CSF ABeta42 for distinguishing ADD from other mixed dementia types (non-ADD). We then assessed accuracy of ABeta42 for differentiating ADD from specific dementia types: VaD, FTD, dementia with Lewy bodies (DLB), alcohol-related cognitive disorder (ARCD), Creutzfeldt-Jakob disease (CJD) and normal pressure hydrocephalus (NPH). To determine test-positive cases, we used the ABeta42 thresholds employed in the respective primary studies. We then performed sensitivity analyses restricted to those studies that used common thresholds for ABeta42.
Main results: We identified 39 studies (5000 participants) that used CSF ABeta42 levels to differentiate ADD from other subtypes of dementia. No studies of plasma ABeta42 met the inclusion criteria. No studies were rated as low risk of bias across all QUADAS-2 domains. High risk of bias was found predominantly in the domains of patient selection (28 studies) and index test (25 studies). The pooled estimates for differentiating ADD from other dementia subtypes were as follows: ADD from non-ADD: sensitivity 79% (95% CI 0.73 to 0.85), specificity 60% (95% CI 0.52 to 0.67), 13 studies, 1704 participants, 880 participants with ADD; ADD from VaD: sensitivity 79% (95% CI 0.75 to 0.83), specificity 69% (95% CI 0.55 to 0.81), 11 studies, 1151 participants, 941 participants with ADD; ADD from FTD: sensitivity 85% (95% CI 0.79 to 0.89), specificity 72% (95% CI 0.55 to 0.84), 17 studies, 1948 participants, 1371 participants with ADD; ADD from DLB: sensitivity 76% (95% CI 0.69 to 0.82), specificity 67% (95% CI 0.52 to 0.79), nine studies, 1929 participants, 1521 participants with ADD. Across all dementia subtypes, sensitivity was greater than specificity, and the balance of sensitivity and specificity was dependent on the threshold used to define test positivity.
Authors' conclusions: Our review indicates that measuring ABeta42 levels in CSF may help differentiate ADD from other dementia subtypes, but the test is imperfect and tends to misdiagnose those with non-ADD as having ADD. We would caution against the use of CSF ABeta42 alone for dementia classification. However, ABeta42 may have value as an adjunct to a full clinical assessment, to aid dementia diagnosis.
Copyright © 2021 The Cochrane Collaboration. Published by John Wiley & Sons, Ltd.
Conflict of interest statement
None known.
Figures

Study flow diagram through the screening process.

Risk of bias and applicability concerns summary: review authors' judgements about each domain for each included study

Risk of bias and applicability concerns graph: review authors' judgements about each domain presented as percentages across included studies

Summary ROC Plot of CSF ABeta42 for differentiating ADD from non‐ADD (all studies). Summary statistics: sensitivity: 79% (95% CI 73%‐85%), specificity: 60% (95% CI 52%‐67%).

Forest plot of CSF ABeta42 for differentiating ADD from non‐ADD (all studies)

Summary ROC Plot of CSF ABeta42 for differentiating ADD from non‐ADD (threshold ≤ 500 pg/ml). Summary statistics: sensitivity: 77% (95% CI 68%‐86%), specificity: 58% (95% CI 45%‐70%).

Forest plot of CSF ABeta42 for differentiating ADD from non‐ADD (threshold ≤ 500 pg/ml).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from non‐ADD (threshold > 500 pg/ml). Summary statistics: sensitivity: 78% (95% CI 70%‐84%), specificity: 62% (95% CI 50%‐73%).

Forest plot of CSF ABeta42 for differentiating ADD from non‐ADD (threshold > 500 pg/ml).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from VaD (all studies). Summary statistics: sensitivity: 79% (95% CI 75%‐83%), specificity: 69% (95% CI 55%‐81%).

Forest plot of CSF ABeta42 for differentiating ADD from VaD (all studies).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from VaD (threshold ≤ 500 pg/ml). Summary statistics: sensitivity: 79% (95% CI 74%‐82%), specificity: 68% (95% CI 51%‐82%).

Forest plot of CSF ABeta42 for differentiating ADD from VaD (threshold ≤ 500 pg/ml).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from VaD (threshold > 500 pg/ml). Summary statistics: sensitivity: 86% (95% CI 74%‐93%), specificity: 65% (95% CI 37%‐85%).

Forest plot of CSF ABeta42 for differentiating ADD from VaD (threshold > 500 pg/ml).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from FTD (all studies). Summary statistics: sensitivity: 87% (95% CI 80%‐92%), specificity: 51% (95% CI 21%‐80%).

Forest plot of CSF ABeta42 for differentiating ADD from FTD (all studies).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from FTD (threshold ≤ 500 pg/ml). Summary statistics: sensitivity: 80% (95% CI 77%‐84%), specificity: 69% (95% CI 49%‐84%).

Forest plot of CSF ABeta42 for differentiating ADD from FTD (threshold ≤ 500 pg/ml).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from FTD (threshold > 500 pg/ml). Summary statistics: sensitivity: 83% (95% CI 71%‐91%), specificity: 76% (95% CI 58%‐87%).

Forest plot of CSF ABeta42 for differentiating ADD from FTD (threshold > 500 pg/ml).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from DLB (all studies). Summary statistics: sensitivity: 77% (95% CI 70%‐83%), specificity: 66% (95% CI 51%‐78%).

Forest plot of CSF ABeta42 for differentiating ADD from DLB (all studies).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from DLB ≤ 500 (pg/ml). Summary statistics: sensitivity: 79% (95% CI 69%‐86%), specificity: 68% (95% CI 45%‐85%).

Forest plot of CSF ABeta42 for differentiating ADD from DLB ≤ 500 (pg/ml).

Summary ROC Plot of CSF ABeta42 for differentiating ADD from vs NPH. Summary statistics: sensitivity: 84% (95% CI 79%‐88%), specificity: 42% (95% CI 26%‐60%).

Forest plot of CSF ABeta42 for differentiating ADD from vs NPH.

Summary ROC Plot of CSF ABeta42 for differentiating ADD from CJD. Summary statistics: sensitivity: 82% (95% CI 77%‐86%), specificity: 46% (95% CI 34%‐58%).

Forest plot of 1CSF ABeta42 for differentiating ADD from CJD.

CSF ABeta42 ADD vs non‐ADD (all studies)

CSF ABeta42 ADD vs non‐ADD (threshold ≤ 500 pg/ml)

CSF ABeta42 ADD vs non‐ADD (threshold > 500 pg/ml)

CSF ABeta42 ADD vs VaD (all studies)

CSF ABeta42 AD vs VaD (threshold ≤ 500 pg/ml)

CSF ABeta42 ADD vs VaD (threshold > 500 pg/ml)

CSF ABeta42 ADD vs FTD (all studies)

CSF ABeta42 ADD vs FTD (threshold ≤ 500 pg/ml)

CSF ABeta42 vs FTD (threshold > 500 pg/ml)

CSF ABeta42 ADD vs DLB (all studies)

CSF ABeta42 ADD vs DLB (threshold ≤ 500 pg/ml)

CSF ABeta42 ADD vs NPH

CSF ABeta42 ADD vs CJD

CSF ABeta42 ADD vs ARCD

CSF ABeta42 ADD vs bvFTD

CSF ABeta42 ADD vs PPA
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