The History of Digital Mammography

A Brief History of the Development of Mammography:

newsroom.gehealthcare.com History of Mamography

Stages in the Development of Digital Mammography:

1895: Wilhelm Roentgen discovers X-rays

1913: First attempt to identify breast cancer using X-rays

1949: First breast compression technique

1966: Introduction of dedicated X-ray system – Senographe

1976 – 1980: Modern mammography is almost determined

1987: GE acquires CGR

1990: Improved image quality

1999: A new era: Digital Mammography

2000 – 2013: Developing 3D mammography

2011: Launch of contrast enhanced spectral mammography [CESM]

Digital breast tomosynthesis (DBT) is an imaging technique that allows a volumetric reconstruction of the whole breast from a finite number of low-dose two-dimensional projections obtained by different X-ray tube angles, with a geometric principle very similar to that applied in stratigraphic technique.

Pioneers in the Development of Mammography:

1912 – Dr. Albert Saloman

“Major works followed that of A.Salomon, namely, Kleinschmidt, Warren, Vogel, Seabold, Gerson-Cohen, Leborgne, Egan, Gallagher, Martin, Dodd, Strax, and colleagues.

Roadmaps to the Future of Mammography Technology:

https://www.globenewswire.com/news-release/2020/01/10/1968828/0/en/2019-Study-on-Imaging-Innovations-for-Breast-Cancer-Diagnosis-Industry-Overview-Technology-Snapshot-Impact-Analysis-Technology-Roadmap-Growth-Opportunity.html

Industry Overview and Technology Snapshot
2.1 Emerging Demographic Trends of Breast Cancer
2.2 Advanced Innovations in Breast Cancer Imaging Address Industry Unmet Needs
2.3 Segmentation of Breast Cancer Imaging Technologies
2.4 Breast Tomosynthesis Addresses the Quality Challenges of Mammography Images
2.4.1 Low-dose Mammography System Producing High-definition Clear Images
2.4.2 Digital Breast Tomosynthesis Offers Better Images Compared to Conventional Mammography
2.4.3 Low-dose 3D Breast Mammography Detecting Sharp Microcalcification Images
2.4.4 3D Tomosynthesis for Specimen Imaging Defining Accurate Tumor Margins
2.5 Breast Ultrasound as an Adjunctive Tool to Mammography Screening
2.5.1 FDA-cleared Breast Imaging Ultrasound Technology
2.5.2 Ultrasound Technology for Breast Cancer Detection in Dense Breast Tissues
2.6 Magnetic Resonance Imaging (MRI) to Evaluate Abnormalities in Mammograms
2.6.1 Key MRI Systems Designed for Breast Imaging
2.7 Impact Analysis of Tomosynthesis, Ultrasound, and MRI for Breast Imaging
2.8 Artificial intelligence (AI) Improves the Efficiency and Accuracy of Breast Imaging Technology
2.8.1 Recent FDA-Cleared Artificial Intelligence Breast Cancer Diagnosis System for Mammograms
2.8.2 Recent FDA-cleared Artificial Intelligence Diagnosis System for Breast MRI and Ultrasound Imaging

REFERENCES:

https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4337127/

https://radiology.ucsf.edu/blog/advances-breast-imaging-evolution-history-mammography

https://pubs.rsna.org/doi/full/10.1148/radiol.14141233

https://www.ramsoft.com/history-of-mammography/

https://www.ramsoft.com/history-of-mammography/

https://pubs.rsna.org/doi/pdf/10.1148/radiographics.10.6.2259767