Recogneyes: a raspberry pi-based philippine banknote and coin value recognition system using vision-language model with audio and vibrotactile feedback for the visually impaired/ Sharia Dolce B. Barruga, Roldan Jr. C. Baruel, Federico III D. Chavez, Micko B. Fortes, Richell Mark B. Miguel, and Mercedez D. Pestelos.--
Material type:
TextPublication details: Manila: Technological University of the Philippines, 2025.Description: xv, 204pages: 29cmContent type: - BTH TK 870 B37 2025
| Item type | Current library | Shelving location | Call number | Copy number | Status | Date due | Barcode |
|---|---|---|---|---|---|---|---|
Bachelor's Thesis COE
|
TUP Manila Library | Thesis Section-2nd floor | BTH TK 870 B37 2025 (Browse shelf(Opens below)) | c.1 | Not for loan | BTH0006442 |
Browsing TUP Manila Library shelves, Shelving location: Thesis Section-2nd floor Close shelf browser (Hides shelf browser)
Bachelor's thesis
College Of Engineering.--
Bachelor of science in electronics engineering: Technological University of the Philippines,
2025.
Includes bibliographic references and index.
Visual impairment affects millions globally, with many cases remaining untreated
despite advancements in modern medicine. As a result, individuals often rely on assistive
technologies; however, there is a limited number of tools specifically designed for currency
recognition. This study presents RecognEYES, a wearable, Raspberry Pi–based
recognition system for Philippine banknotes and coins, integrating a Vision-Language
Model with audio and vibrotactile feedback. It utilizes Pi Camera v2 to capture images and
process it through Raspberry Pi 4B. The data is sent to a trained GPT-4o — the VLM with
the highest mAP upon benchmark. Output is presented via speakers and gloves for audio
and vibrotactile feedback, respectively. The system was deployed at RM Massage Clinic
and evaluated by 15 visually impaired working adults. Feedback collected via a Likert scale
indicated mean scores of 3.76 for usability, 3.68 for comfort, and 4.31 for marketability,
suggesting high potential for real-world application. Accuracy testing, validated by a
Professional Electronics Engineer (PECE), demonstrated optimal detection distances of
15–20 cm for coins with accuracies of 88.10% and 90.48%, and 10–40 cm for banknotes
with 100% accuracy. For optimal performance, it is recommended that the device is used
in well-lit or outdoor environments.
There are no comments on this title.