LOCAL CONSTRUCTION OF BATTERY POWERED DUAL FACE RADIOGRAPHIC VIEWING BOX WITH ROTATABLE NECK AND ADJUSTABLE STAND

Project Abstract

The development and construction of a local battery-powered dual-face radiographic viewing box with a rotatable neck and adjustable stand represent a novel approach to enhancing radiographic imaging in medical facilities. This project focuses on the design and fabrication of a versatile radiographic viewing box that addresses the need for improved viewing angles, portability, and flexibility in medical imaging. The dual-face feature of the viewing box allows healthcare professionals to view radiographic images from multiple angles without the need to physically move the box or the imaging films. This feature significantly enhances workflow efficiency and reduces the risk of image distortion or misinterpretation due to improper viewing angles. The rotatable neck further enhances the flexibility of the viewing box by enabling users to adjust the height and angle of the display screens to suit their viewing preferences. The incorporation of an adjustable stand provides additional convenience by allowing the viewing box to be positioned at the optimal height and angle for different users and viewing scenarios. This feature is particularly beneficial in medical settings where multiple healthcare professionals may need to review and discuss radiographic images simultaneously. The use of a battery-powered system ensures that the viewing box is not limited by the availability of electrical outlets, making it suitable for use in various clinical settings, including operating rooms, emergency departments, and outpatient clinics. The portable nature of the battery-powered design also enhances the versatility of the viewing box, allowing it to be easily transported between different locations within a medical facility. Overall, the construction of a locally designed and fabricated battery-powered dual-face radiographic viewing box with a rotatable neck and adjustable stand offers a cost-effective solution for improving radiographic imaging processes in healthcare settings. By addressing the need for enhanced viewing angles, portability, and flexibility, this innovative device has the potential to enhance diagnostic accuracy, streamline workflow, and improve overall patient care in medical facilities.

Project Overview