Integrating Three-dimensional Multicolour Holography in Endocrine Surgery: An Innovative Approach
Year: 2026
Type: article
Abstract: Sir, Surgical precision and accuracy, particularly for the treatment of endocrine gland neoplasms, have been improved due to advanced imaging technology. These neoplasms affect the thyroid gland, parathyroid and adrenal glands, which is a challenge these days due to tumour proximity. Complete tumour removal and preservation of surrounding healthy tissue are a primary goal in endocrine surgery. Traditional imaging methods such as ultrasound, computed tomography, and magnetic resonance imaging help to provide pre-operative data, but it lacks real-time intraoperative guidance. Surgeons are primarily dependent on experience and feedback during surgical procedures, which can lead to incomplete tumour excision or chances of damaging healthy tissues. Integrating three-dimensional (3D) multicolour holography into endocrine surgery provides an innovative solution with real-time, high-resolution visualisation that enhances accuracy in tumour differentiation and improves surgical outcomes. 3D multicolour holography creates interactive, colour-coded holograms that can be superimposed onto the patient’s tumour during surgery. This innovative approach can help surgeons to visualise and observe the tumour in 3D view from any angle for accurate differentiation between neoplastic and native tissues during surgery.[1] The holographic models provide an average alignment accuracy of 1.3 cm with patient anatomy. Such real-time visualisation significantly helps in surgical decision-making by allowing for accurate localisation of tumour margins. 3D multicolour holograms are beneficial for surgeons to differentiate between tumour tissue, nerves and vascular structures and study complex anatomical regions more effectively. This innovative approach helps in minimising damage to surrounding healthy tissues. This approach also reduces the risk of complications such as nerve injury in thyroidectomy or hypocalcaemia in parathyroid surgery. In addition, holographic models allow for detailed pre-operative planning, enabling surgeons to simulate different surgical outcomes.[2] 3D multicolour holography technology also uses as a transformative educational tool for students to interact with an accurate 3D view of endocrine gland neoplasms. This technology helps to understand students to visualise realistic surgical procedures for tumour management in a detailed manner, providing a detail learning experience that traditional two-dimensional imaging cannot match. Furthermore, pre-operative holographic briefings can be helpful for surgical teams to discuss procedural strategies collectively.[3,4] The accuracy of hologram alignment with patient anatomy needs refinement to maximise its effectiveness in surgical settings. In addition, the cost of implementing these advanced multicolour holographic systems is a key barrier for resource-constrained healthcare settings. However, as technology continues to evolve, the increased accessibility of such innovations will likely drive down costs and improve adoption rates. Proper training programs for surgeons and staff are needed, also ensuring appropriate patient consent and implementing strong safety measures will be essential for safe and ethical implementation of holographic technology into clinical settings.[5] In conclusion, integrating 3D multicolour holography provides an advancement in the surgical treatment of endocrine gland neoplasms. This 3D multicolour holography technology enhances surgical accuracy and reduces recurrence rates. This innovative approach can enhance knowledge of future surgeons regarding endocrine surgery. As holographic technology progresses, it has the potential to revolutionise endocrine surgery, making procedures safer, more accurate, more effective and improves patient outcomes. Financial support and sponsorship Nil. Conflicts of interest There are no conflicts of interest.
Authors: Ankit K. Badge, Brij Raj Singh, Nandkishor J. Bankar, Vaishnavi Ade
Language: English
Subfield: Biomedical Engineering
Field: Engineering
Domain: Physical Sciences
Open Access status: gold
Estimated APC paid: $150
OpenAlex ID: W7167019972