Abstract: A continuous microwave curing system, includes a heating cavity with a microwave power source and an inlet opening and an outlet opening on opposite sides; a first microwave suppression cavity, connected to the inlet opening of the heating cavity; a second microwave suppression cavity, connected to the outlet opening of the heating cavity; a conveyor belt, used to transport a laminated structure that needs to be heated by microwave power; wherein the laminated structure includes at least one adhesive and two layers of objects, the adhesive is placed between the two layers of objects. A continuous microwave curing process includes placing an adhesive between two layers of objects to form a laminated structure and using a conveyor belt to send the laminated structure into a heating cavity for heating with microwave power for a period of time, so that the temperature of the adhesive reaches above 60 degrees.

Abstract: A method for puffing natural cheese includes the following steps of: step 1: subjecting a natural cheese to a physical pretreatment to form a target shape; step 2: placing the natural cheese after physical pretreatment into a bearing plate; step 3: sending the natural cheese placed in the bearing plate into a puffing cavity of a puffing equipment; step 4: setting multiple puffing process parameters for the puffing equipment; step 5: providing an electromagnetic energy by the puffing equipment to perform a puffing process on the natural cheese; and step 6: producing a puffed product after the puffing process is completed. A puffed product of natural cheese uses the process disclosed above. The technology of the method and the puffed product has great market potential for the puffed food production of natural cheese.

Abstract: The present invention discloses a microwave heating system for desorbing contaminated soil, comprising: a feeding module; a heating cavity; a first microwave suppression cavity; a second microwave suppression cavity; a conveyor belt; a feeding device; and an exhaust module. The feeding device is arranged above the first microwave suppression cavity or the second microwave suppression cavity, and the feeding device contains a microwave absorber material. The invention further discloses a microwave heating process for desorption of polluted soil. With the microwave heating system and process for desorbing contaminated soil, the contaminated soil can be heated quickly and uniformly, and quickly cooled and taken out smoothly.

Abstract: A biosensor includes a microstrip resonator, a collection actuator disposed adjacent to and spaced from the microstrip resonator, a port unit connected to a network analyzer and coupled with the microstrip resonator, and a substrate. The microstrip resonator includes a collecting portion provided with an analyte-specific reagent (ASR) for binding an analyte in a suspension. The collection actuator and the microstrip resonator are applied with alternating current (AC) electric energy to induce AC electrokinetic stirring in the suspension for actuating the binding. The microstrip resonator resonates at a resonant frequency associated with the binding so that the analyte can be quantified.

Abstract: A coplanar waveguide structure is provided, which includes a transparent substrate, a center conductor, a first ground conductor and a second ground conductor. The center conductor is disposed on the transparent substrate. The center conductor has a first light transmissive area. The first light transmissive area is greater than 80% of the area of the center conductor. The first ground conductor is disposed on the transparent substrate and opposite to a side of the center conductor. The first ground conductor has a second light transmissive area. The second light transmissive area is greater than 83% of the area of the first ground conductor. The second ground conductor is disposed on the transparent substrate and opposite to another side of the center conductor. The second ground conductor has a third light transmissive area. The third light transmissive area is greater than 83% of the area of the second ground conductor.

Abstract: A microstrip antenna structure is provided, which includes a substrate, a ring microstrip line and a signal transmission port. The substrate has opposite first and second surfaces. The ring microstrip line is disposed on the first surface of the substrate. The ring microstrip line has a short coupling gap ranged between 0.004?g and 0.06?g for forming a radiation bandwidth with high selectivity, where ?g represents a guided wavelength of an electromagnetic wave in the ring microstrip line corresponding to a center frequency of the radiation bandwidth. The signal transmission port is disposed on the second surface of the substrate. The signal transmission port penetrates through the substrate and is electrically connected to the ring microstrip line.