In this paper, we proposed an intensity variation-based multiplexing system for angle and temperature measurement. Three sensors (sensor-1, sensor-2, and sensor-3) were integrated on a single light transmitting fiber in the multiplexi. In this paper, we proposed an intensity variation-based multiplexing system for angle and temperature measurement. Three sensors (sensor-1, sensor-2, and sensor-3) were integrated on a single light transmitting fiber in the multiplexing system. Each sensing probe consists of a twisted macro-bend in which the receiving fibers are twisted with transm. Various methods are presented to develop fiber optics sensors; among them, the multiplexing sensor technique requires a complex signal processing procedure that makes a complex system. In numerous methods, the intensity variation-based methods are much easier than other methods and are cost-effective due to simplicity. We present a multiplexing sen. ••Multiplexing technique for intensity variation-based sensors.••Integrating of three angle or temperature sensors on a single illuminating fiber.••Experimental validation for 3-DOF angle measurement using twisting macro-bending structure.••Technique validation for quasi-distributed array in multi-parameter applications.Multiplexing techniqueFiber optic sensorPolymer optical fiberCoupling methodIn recent years, polymer optical fibers (POFs) have received much attention due to their compactness, low-cost, lightweight, miniature, small size, electrically passive operation, immunity to electromagnetic and radio frequency interference, and it can be implemented in multiplexing schemes. All these promising abilities of POF have extended to the detection and measurement of almost all the physical parameters such as pressure, displacement, acceleration, force, angle, temperature, refractive index, level monitoring, humidity, and strain. POFs replace traditional silica counterparts because POFs offer more performance advantages and functionalities such as higher sensitivity, higher flexibility, fracture toughness, higher thermo-optic coefficient, lower Young's modulus, and h.