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

Thesis Abstract

Abstract
The aim of this project is to design and construct a battery-powered dual face radiographic viewing box with a rotatable neck and adjustable stand for enhanced convenience and efficiency in medical imaging facilities. The traditional radiographic viewing boxes are typically fixed in position, limiting flexibility and accessibility for healthcare professionals during the interpretation of radiographic images. By developing a viewing box with dual faces, a rotatable neck, and an adjustable stand, this project seeks to provide a versatile solution that can cater to different viewing angles and user preferences. The construction of the viewing box involves the integration of LED light panels for uniform illumination, ensuring optimal image quality and clarity. The use of batteries as a power source eliminates the need for external power supply, enhancing portability and enabling the viewing box to be easily moved to different locations within a medical facility. Additionally, the rotatable neck allows for easy adjustment of the viewing angle, accommodating the preferences of healthcare professionals for comfortable image interpretation. The adjustable stand provides further customization options, allowing the viewing box to be positioned at the desired height and angle for improved ergonomics and user experience. The design also includes a sturdy and durable construction to ensure long-term reliability and functionality in a clinical setting. Furthermore, the use of high-quality materials and components ensures the safety and performance of the viewing box during daily operation. Overall, the development of a battery-powered dual face radiographic viewing box with a rotatable neck and adjustable stand represents a significant advancement in medical imaging technology. The enhanced flexibility and convenience offered by this innovative design have the potential to improve workflow efficiency, accuracy of image interpretation, and overall user satisfaction in healthcare settings. This project contributes to the ongoing efforts to enhance the quality of patient care through the integration of advanced technologies in medical imaging equipment.