17,260
Views
1
CrossRef citations to date
0
Altmetric
Review

Innovative technological advancements in laboratory medicine: Predicting the lab of the future

, &
Pages S9-S21 | Received 26 Oct 2021, Accepted 22 Nov 2021, Published online: 18 Apr 2022

Figures & data

Figure 1. Laboratory medicine is defined by advanced analytical innovations, and the promise of precision and personalized medicine is found at the intersection of the data derived from these novel techniques and the computational analyses required to derive clinical meaning. In amalgamating the extensive data derived from advanced sample analytics, sophisticated information technology may facilitate a new, patient-centered, era of laboratory medicine.

Figure 1. Laboratory medicine is defined by advanced analytical innovations, and the promise of precision and personalized medicine is found at the intersection of the data derived from these novel techniques and the computational analyses required to derive clinical meaning. In amalgamating the extensive data derived from advanced sample analytics, sophisticated information technology may facilitate a new, patient-centered, era of laboratory medicine.

Figure 2. Laboratory methods and clinical applications of liquid biopsy in cancer screening, monitoring, therapeutic prediction, and treatment selection. From a liquid biopsy (i.e. blood sample), circulating tumour cells, point mutations, amplifications and deletions, chromosomal abnormalities, protein expression and phosphorylation, translocations, and epigenetic modifications can be detected using a variety of genetic sequencing technologies. Followed with sophisticated computational analyses, this novel laboratory technique can be used in early cancer detection, disease monitoring, prognosis, predicting response to therapy, and providing personalized drug selection.

Figure 2. Laboratory methods and clinical applications of liquid biopsy in cancer screening, monitoring, therapeutic prediction, and treatment selection. From a liquid biopsy (i.e. blood sample), circulating tumour cells, point mutations, amplifications and deletions, chromosomal abnormalities, protein expression and phosphorylation, translocations, and epigenetic modifications can be detected using a variety of genetic sequencing technologies. Followed with sophisticated computational analyses, this novel laboratory technique can be used in early cancer detection, disease monitoring, prognosis, predicting response to therapy, and providing personalized drug selection.

Figure 3. Relative advantages, disadvantages, and optimal clinical applications for mass spectrometry and nuclear magnetic resonance spectroscopy technologies in laboratory medicine.

Figure 3. Relative advantages, disadvantages, and optimal clinical applications for mass spectrometry and nuclear magnetic resonance spectroscopy technologies in laboratory medicine.

Figure 4. Emerging and novel technological applications for point-of-care testing.

Figure 4. Emerging and novel technological applications for point-of-care testing.

Data availability statement

Data sharing is not applicable to this article as no new data were created or analyzed in this study.