Commentary - (2023)Volume 6, Issue 3
MicroRNAs: Emerging as Highly Promising Biomarkers for Early Breast Cancer Screening
Karl Krupp1*,
Jennifer M Segar2,
Juan Lewis Fernández-Martínez3 and
Purnima Madhivanan4
*Correspondence:
Dr.
Karl Krupp, Department of Public Health Practice, Policy, and Translational Research, University of Arizona, Phoenix, Arizona,
USA,
Email:
Author info »
Description
The excitement about the possibilities of cell-free tumor DNA
(ctDNA) for early diagnosis of Breast Cancer (BC) has waned as
doubts emerge about its utility as a biomarker [1]. In BC patients,
tumor DNA levels are variable in plasma and their estimated
half-life of 114 minutes make their measurement impractical for
most applications [2,3]. Studies examining ctDNA in patients
diagnosed with BC report high specificity (99%) but low
sensitivity (≤ 43%) in women with stage 1 disease, the primary
target for screening programs [4,5].
Tumor Deoxyribonucleic Acid (DNA) may have more promise as
a prognostic biomarker, but even there, it has limitations. In a
recent systematic review and meta-analysis, patients with
pretreatment plasma detection of ctDNA had 3.3 higher odds of
reduced disease-free survival [6]. Post treatment sampling for
ctDNA however, failed to achieve statistical significance. Other
studies have found no association between circulating ctDNA
levels prior to treatment, and Time To Recurrence (TTR) or
pathologic Complete Response (pCR) [7,8]. Mixed results may
be related to the variability of ctDNA detection [9]. Agassi, et al.
reported that circulating ctDNA expression in BC patients
varied widely by tumor size, nodal involvement, and cancer stage
[10]. Bettegowda and colleagues showed that ctDNA was found
in only about 50% of breast adenocarcinomas [3].
Circulating micro Ribonucleic Acid (RNAs) have been emerging
as an alternative to ctDNA, for detection of breast cancer. Short
non-coding RNAs are involved in post-transcriptional gene
expression [11,12], and microRNAs are remarkably stable and
feature in various cancer-related processes including cell
division, proliferation, differentiation, cell apoptosis and
angiogenesis, making them attractive biomarkers for cancer [12].
Other appealing qualities include detection in most peripheral
fluids, and upregulation in early BC stages [13,14]. A 2023
systematic review and meta-analysis found 34 microRNAs
substantially dysregulated in early-stage BC that have potential as
biomarkers [15]. Other research demonstrates the utility of
combining multiple microRNAs into panels for early BC diagnosis. Sharifi, et al. reported that three microRNAs
(miR-92a-3p, miR-23b-3p and miR-191-5p) discriminated
between patients with BC and healthy controls with an 89%
sensitivity and a 96% specificity [16]. Another multi-marker
panel developed by Sadeghi and colleagues that contained
hsa-miR-106b-5p, -126-3p, -140-3p, -193a-5p, and -10b-5p,
detected early-stage BC with 79%sensitivity, 86% specificity
and 82% accuracy [17]. These are only a few of the growing
number of studies showing the utility of microRNAs as a
biomarker in early-stage BC [18].
Equally exciting is research showing that microRNA expression
may guide treatment decisions at almost every stage of BC [19].
In a systematic review by Zografos, et al. 110 dysregulated
microRNAs were reportedly associated with BC progression [20].
As biomarkers, they are stable for up to four days and resist
degradation over multiple freeze-thaw cycles [21,22]. Growing
evidence also shows that they operate in multiple pathways
regulating BC initiation, progression, and recurrence [23]. The
miR-200 family for instance, is associated with tumor initiation,
cancer cell stemness, regulation of drug resistance, evasion of
immune response, and regulation of genomic instability and
mutations [23,24]. Research shows that more than 39
microRNAs are associated with BC recurrence or disease-free
survival [25].
What are the challenges moving forward with microRNA-based
diagnostics? Perhaps the biggest obstacle to translating current
research is the lack of consensus on the methods, samples and
platforms used to study microRNA expression [26]. For instance,
researchers have assessed microRNA dysregulation in cell lines,
serum, plasma, extracellular vesicles, and saliva [27]. Researchers
have also used quantitative Polymerase Chain Reaction (PCR), digital PCR, in situ hybridization microarrays, next-generation sequencing, and northern blot hybridization to measure
microRNA expression just to name a few [28,29]. Even
preanalytical and analytical methods are a subject of debate
[30,31]. How do we sort through all these evolving issues?
Research on the accuracy and inter-comparability of different
platforms for microRNA expression have demonstrated that quantitative PCR is the most accurate and comparable
method presently, although this may change [32,33]. As with all
research findings, microRNA studies should also come with a
disclaimer: empirical research requires extensive replication
before results should be trusted [34].
We should also ask whether microRNA diagnostics will
eventually reach people that don’t have access to large tertiary
hospitals. Here, there is also growing and hopeful research.
Quantitative PCR multiplex kits for microRNA are already on
the market and these will likely be the modality in which the
initial diagnostics could be implemented [35]. More exciting yet
is research on colorimetric nano-biosensors that will not require
sophisticated equipment for cancer detection [36-38]. Other
technologies being explored are too numerous to mention here,
but they are moving ahead at breakneck speed that will likely
match the pace of work on microRNA diagnostics [39].
In summary, circulating ctDNA is not there yet but there are
newer and more promising biomarkers that may take its place.
As we ponder the future of blood-based diagnostics for cancer,
microRNAs may have an exciting place in our future diagnostic
armamentarium.
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Author Info
Karl Krupp1*,
Jennifer M Segar2,
Juan Lewis Fernández-Martínez3 and
Purnima Madhivanan4
1Department of Public Health Practice, Policy, and Translational Research, University of Arizona, Phoenix, Arizona, USA
2Department of Medicine, University of Arizona Cancer Center, Tucson, Arizona, USA
3Department of Applied Mathematics, University of Oviedo, Oviedo, Spain
4Department of Health Promotion Sciences, University of Arizona, Tucson, Arizona, USA
Citation: Krupp K, Segar J, Fernández-Martínez JL, Madhivanan P (2023) MicroRNAs: Emerging as Highly Promising Biomarkers for Early
Breast Cancer Screening. J Clin Lab Med. 6.273.
Received: 07-Sep-2023, Manuscript No. JCCLM-23-25949;
Editor assigned: 09-Aug-2023, Pre QC No. JCCLM-23-25949 (PQ);
Reviewed: 23-Aug-2023, QC No. JCCLM-23-25949;
Revised: 30-Aug-2023, Manuscript No. JCCLM-23-25949 (R);
Published:
06-Sep-2023
, DOI: 10.35248/2736-6588.23.6.273
Copyright: © 2023 Krupp K. This is an open-access article distributed under the terms of the Creative Commons Attribution License,
which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.