Abstract: A deep neural network (DNN) processing device with a decompressing module, comprises a storage module, for storing a plurality of binary codes, a coding tree, a zero-point value and a scale; a decompressing module, coupled to the storage module, for generating a quantized weight array according to the plurality of binary codes, the coding tree and the zero-point value wherein the quantized weight array is generated according to an aligned quantized weight array and the zero-point value; and a DNN processing module, coupled to the decompressing module, for processing an input signal according to the quantized weight array and the scale.

Abstract: A detection method for a sensor membrane formed of europium titanium oxide as part of a biosensor by using PNIPAAm for wrapping enzymes includes adding 1.0 g of NIPAAm powder to 20 ml water, heating same at 60° C. to form NIPAAm solution, and cooling the NIPAAm solution; adding 200 ?l of 98.7 wt % of APS and 50 ?l of 99 wt % of TEMED to the NIPAAm solution, uniformly mixing same, and reacting the mixture for 30 hours to prepare a transparent, gel PNIPAAm; adding 5 mg enzymes to 100 ?l of 1×PBS buffer solution, uniformly mixing same, adding 100 ?l of PNIPAAm to the buffer solution, and uniformly mixing the buffer solution; placing a biosensor on a heater for heating at a constant temperature of 37° C. with the biosensor being an EIS sensor having a sensor membrane formed of EuTixOy; and taking a measurement.

Abstract: The present invention is related to a photosensitive resin composition containing: a vinyl-based copolymer (I) obtained by polymerizing a monomer mixture containing a monomer (a) having a phenolic hydroxyl group and a carboxyl group-containing vinyl monomer (b); a quinonediazide compound (II) and a compound (III) represented by the following formula (5), and to a photosensitive dry film and a method for forming a patter by using the photosensitive resin composition.

Abstract: A photosensitive resin composition comprising: a vinyl-based polymer (I) obtained by polymerizing a monomer mixture containing a monomer (a) having a phenolic hydroxyl group; a vinyl-based polymer (II) obtained by polymerizing a monomer mixture containing a carboxyl group-containing vinyl monomer (b), and having a weight average molecular weight of 20,000 to 100,000, provided that the vinyl-based polymer (I) is excluded; a quinonediazide compound (III); and a compound (IV) represented by following formula (5). [In the formula, Y is a hydrocarbon group of 1 to 6 carbon atoms; l and m are each independently an integer of 1 to 3; n is 1 or 2; p and q are each independently 0 or 1.].

Abstract: An exemplary wet processing apparatus includes a tank, a conveyor configured for conveying a substrate, and a spraying system. The tank receives a wet processing liquid. The conveyor includes a first conveying portion, a second conveying portion, and a third conveying portion. The first conveying portion is in the tank and conveys the substrate in the wet processing liquid. The second conveying portion is obliquely interconnected between the first and third conveying portions. The third conveying portion conveys the substrate above the wet processing liquid in the tank. The spraying system is above the third conveying portion, sprays the wet processing liquid onto the substrate on the third conveying portion.

Abstract: A detection method for a sensor membrane formed of EuTixOy as part of a biosensor by using PNIPAAm for wrapping enzymes is provided with adding 1.0 g of NIPAAm powder to 20 ml water, heating same at 60° C. to form NIPAAm solution, and cooling the NIPAAm solution; adding 200 ?l of 98.7 wt % of APS and 50 ?l of 99 wt % of TEMED to the NIPAAm solution, uniformly mixing same, and reacting the mixture for 30 hours to prepare a transparent, gel PNIPAAm; adding 5 mg enzymes to 100 ?l of 1× PBS buffer solution, uniformly mixing same, adding 100 ?l of PNIPAAm to the buffer solution, and uniformly mixing the buffer solution; placing a biosensor on a heater for heating at a constant temperature of 37° C. wherein the biosensor is an EIS sensor having a sensor membrane formed of EuTixOy; and taking a measurement.

Abstract: An exemplary wet processing apparatus includes a tank, a conveyor configured for conveying a substrate, and a spraying system. The tank receives a wet processing liquid. The conveyor includes a first conveying portion, a second conveying portion, and a third conveying portion. The first conveying portion is in the tank and conveys the substrate in the wet processing liquid. The second conveying portion is obliquely interconnected between the first and third conveying portions. The third conveying portion conveys the substrate above the wet processing liquid in the tank. The spraying system is above the third conveying portion, sprays the wet processing liquid onto the substrate on the third conveying portion.

Abstract: A reverse sensing system displaying an overhead vehicle image includes a plurality of fisheye lenses, a trip computer, and a screen. The fisheye lenses are disposed on all sides of the vehicle to shoot the surrounding scene images of the vehicle. The trip computer reads the scene images, and executes a plurality of built-in image processing procedures to combine the scene images into an overhead vehicle image. The radially distorted scene images are corrected into the normal scene images through a distorted image correction procedure. The corrected scene images are rotated into projection scene images through a planar transition procedure. The images are retrieved according to the positions of the shooting lenses of the projection scene images so as to generate the overhead vehicle image through an image combining procedure.

Abstract: A reverse sensing system displaying an overhead vehicle image includes a plurality of fisheye lenses, a trip computer, and a screen. The fisheye lenses are disposed on all sides of the vehicle to shoot the surrounding scene images of the vehicle. The trip computer reads the scene images, and executes a plurality of built-in image processing procedures to combine the scene images into an overhead vehicle image. The radially distorted scene images are corrected into the normal scene images through a distorted image correction procedure. The corrected scene images are rotated into projection scene images through a planar transition procedure. The images are retrieved according to the positions of the shooting lenses of the projection scene images so as to generate the overhead vehicle image through an image combining procedure.

Abstract: A method for processing an interlaced scanning image that can eliminate the interference problem. The method for processing an interlaced scanning image comprises the steps of: obtaining an interlaced scanning image; defining a target zone from the interlaced scanning image; retrieving a plurality of scan lines of a first field of the target zone, wherein the first field can be odd field or even field; copying the plurality of scan lines of the first field to replace a second field of the target zone; performing an image process to the target zone; performing an image process to the whole image except the target zone; and consolidating the two processed images to a new one.