6

 

A NOVEL AUGMENTED ANALYTICS SYSTEM FOR INTENSIVE CARE UNIT ADMISSION IN HOSPITAL USING THE FUZZY CLUSTERING C-REGRESSION LEAST QUARTILE DIFFERENCE MODEL (FCCRLM)

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Research

THIS PROJECT DEVELOPS AN INNOVATIVE AUGMENTED ANALYTICS SYSTEM FOR INTENSIVE CARE UNIT (ICU) ADMISSION THAT INTEGRATES THE NOVEL FUZZY CLUSTERING C-REGRESSION LEAST QUARTILE DIFFERENCE MODEL (FCCRLM) WITH K-MEAN CLUSTERING TECHNIQUES. THE SYSTEM AIMS TO IDENTIFY AND PRIORITIZE HIGH-RISK PATIENTS BEFORE ICU ADMISSION BY PREDICTING PATIENT SEVERITY AND CLASSIFYING RISK LEVELS USING SUPERVISED AND UNSUPERVISED MACHINE LEARNING. EXPECTED OUTCOMES INCLUDE A FULLY FUNCTIONAL INTERACTIVE DECISION-SUPPORT PROTOTYPE USING SMART APP WITH IMPROVED ICU BED ALLOCATION, REDUCED MORTALITY THROUGH TIMELY TREATMENT OF CRITICAL PATIENTS, ENHANCED HOSPITAL RESOURCE MANAGEMENT AND THE GENERATION OF PATENTABLE AND COMMERCIALIZABLE HEALTHCARE TECHNOLOGY.

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RM30,000.00

VIEW

7

 

PROTOTYPE EXOSKELETON HAND INTEGRATED COMPLIANCE CONTROL FOR PARALYZED FINGERS REHABILITATION

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Research

THIS RESEARCH PROPOSES AN INNOVATIVE HAND EXOSKELETON WITH ADAPTIVE COMPLIANCE CONTROL FOR STROKE REHABILITATION. THE SYSTEM INTEGRATES A VIRTUAL MASS-SPRING-DAMPER MODEL TO DYNAMICALLY REGULATE STIFFNESS AND DAMPING, ENABLING SAFER AND MORE NATURAL GRASPING OF OBJECTS WITH DIFFERENT SIZES AND PROPERTIES. EEG-BASED CONTROL ALLOWS USERS WITH SEVERE HAND PARALYSIS TO INITIATE MOVEMENTS THROUGH BRAIN SIGNALS, WHILE FORCE-SENSITIVE SENSORS PROVIDE REAL-TIME GRIP FORCE ADJUSTMENT. THE OBJECTIVE IS TO DEVELOP A SAFE, RESPONSIVE, AND USER-FRIENDLY REHABILITATION DEVICE THAT SUPPORTS REPETITIVE, TASK-SPECIFIC TRAINING. THE EXPECTED OUTCOME IS IMPROVED GRASPING CAPABILITY, REHABILITATION EFFECTIVENESS, AND FUNCTIONAL INDEPENDENCE AMONG STROKE SURVIVORS.

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RM180,780.00

VIEW

8

 

SOCIO-ECOLOGICAL DYNAMICS OF ZOONOTIC AND VECTOR-BORNE DISEASES IN CHANGING LANDSCAPES (SENSOR)

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Research

"THIS PROJECT DEVELOPS AN INNOVATIVE PLANETARY HEALTH SURVEILLANCE SYSTEM INTEGRATING REAL-TIME EARTH OBSERVATION, HEALTH, AND SOCIO-ECOLOGICAL DATA TO PREVENT ZOONOTIC AND VECTOR-BORNE DISEASE (ZVBD) SPILLOVER IN MALAYSIA. BY LINKING HUMAN MOBILITY AND SEROLOGICAL SURVEYS WITH A LARGE-SCALE TROPICAL FOREST MODIFICATION EXPERIMENT, THE INITIATIVE MODELS HOW LANDSCAPE, CLIMATE, AND DEMOGRAPHIC CHANGES DRIVE MALARIA, DENGUE, ZIKA, AND CHIKUNGUNYA DYNAMICS ACROSS SPATIAL AND TEMPORAL SCALES. EXPECTED OUTCOMES: PREDICTIVE, DATA-DRIVEN EARLY-WARNING TOOLS TO ENHANCE PUBLIC HEALTH SURVEILLANCE, OPTIMIZE OUTBREAK DETECTION, AND GUIDE SUSTAINABLE LAND-USE AND DEVELOPMENT STRATEGIES THAT MINIMIZE EPIDEMIC RISKS."

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VIEW

9

 

RAPID ADVANCE FUTURE (RAF) 3D PRINTED PROSTHETIC LEG

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Research

RAPID ADVANCE FUTURE (RAF) 3D PRINTED PROSTHETIC LEG IS AN INNOVATIVE PROJECT THAT DEVELOPS AFFORDABLE, LIGHTWEIGHT, AND CUSTOMIZABLE TRANSTIBIAL PROSTHETIC LEGS USING ADDITIVE MANUFACTURING TECHNOLOGY. THE PROJECT AIMS TO IMPROVE ACCESS TO QUALITY PROSTHETIC DEVICES FOR LOWER LIMB AMPUTEES, PARTICULARLY INDIVIDUALS FROM LOW-INCOME COMMUNITIES WITH LIMITED FINANCIAL SUPPORT. BY INTEGRATING REVERSE ENGINEERING, CAD MODELLING, AND SELECTIVE LASER SINTERING (SLS), THE RAF PROSTHETIC LEG REDUCES PRODUCTION TIME WHILE ENSURING COMFORT, FUNCTIONALITY, AND STRUCTURAL RELIABILITY. TO DATE, 11 RAF 3D PRINTED PROSTHETIC LEGS HAVE BEEN SUCCESSFULLY PROVIDED TO PATIENTS, RESTORING MOBILITY AND IMPROVING THEIR QUALITY OF LIFE. THE PROJECT ALSO ESTABLISHES A SUSTAINABLE LOCAL FRAMEWORK FOR PROSTHETIC MANUFACTURING WHILE STRENGTHENING COLLABORATION BETWEEN ACADEMIA, INDUSTRY, AND THE COMMUNITY.

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RM800,000.00

VIEW