Abstract: The present invention provides a reparation method of a tubular vascular graft, (a) immersing a tubular scaffold in a first light sensitivity gelatin solution, and irradiate the tubular scaffold by a first time period, to let surface of the tubular scaffold form a base layer; (b) immersing the tubular scaffold of the step (a) in a chitin gelatin solution, when the surface of the base layer form a film, then immersing the tubular scaffold into a sodium hydroxide solution to generate a middle layer of the surface of the base layer; (c) immersing the tubular scaffold of the step (b) in a second light sensitivity gelatin solution, wherein the second light sensitivity gelatin solution comprises a cell, the tubular scaffold is irradiated by a second time period to form a surface layer of the middle layer; (d) until the cell forms a tubular structure of the surface layer by the cell in the tubular scaffold of the step (c), heating the tubular scaffold by a temperature to solve the base layer into a solution, pulling

Abstract: A method for manufacturing a detection device includes dispensing a plurality of reagent droplets of a detection reagent to a fiber substrate by a dispensing unit, and absorbing the plurality of reagent droplets by the fiber substrate to form the detection device having at least one detection pore. The dispensing unit includes two plastic sheets and a water retention substrate, the water retention substrate contains the detection reagent, and one of the two plastic sheets has at least one opening.

Abstract: The present invention provides a manufacturing method for a detection device. The manufacturing method comprises dispensing a plurality of reagent droplets to a thin substrate by a dispensing unit and absorbing the plurality of reagent droplets by the thin substrate to form at least one detection area of the detection device.

Abstract: The present invention provides a reparation method of a tubular vascular graft, (a) immersing a tubular scaffold in a first light sensitivity gelatin solution, and irradiate the tubular scaffold by a first time period, to let surface of the tubular scaffold form a base layer; (b) immersing the tubular scaffold of the step (a) in a chitin gelatin solution, when the surface of the base layer form a film, then immersing the tubular scaffold into a sodium hydroxide solution to generate a middle layer of the surface of the base layer; (c) immersing the tubular scaffold of the step (b) in a second light sensitivity gelatin solution, wherein the second light sensitivity gelatin solution comprises a cell, the tubular scaffold is irradiated by a second time period to form a surface layer of the middle layer; (d) until the cell forms a tubular structure of the surface layer by the cell in the tubular scaffold of the step (c), heating the tubular scaffold by a temperature to solve the base layer into a solution, pulling

Abstract: The present invention provides a method of manufacturing biomedical molecular detection platform, comprising providing a plurality of reagent droplets on a first surface of a substrate; forming a plurality of hydrophilic regions and a water-repellant region on a second surface of a test paper, and the plurality of hydrophilic regions separated individually by the water-repellant region; and contacting the first surface of the substrate with the second surface of the test paper for transferring each reagent droplet on the substrate to each hydrophilic region of the test paper. The present invention also provides a biomedical molecular detection platform manufactured therefrom. The method of present invention can rapidly manufacture large quantity of biomedical molecular detection platforms, and the biomedical molecular detection platform can be used to any test that use pigmentation to determine results.