Abstract: An image positioning system capable of real-time positioning compensation includes a 3D marking device, a photographing device, a 3D scanning device, a beam splitter, and a processing unit. The 3D marking device has a polyhedral cube. The beam splitter is configured to cause the photographing device and the 3D scanning device to capture an image of and scan the 3D marking device respectively from the same field of view. The processing unit is configured to calculate image data and 3D scanning data generated respectively by the photographing device and the 3D scanning device to obtain a positioning compensation amount and perform positioning compensation.

Abstract: The invention provides a system and a method thereof for establishing an extubation prediction using a machine learning model capable of obtaining an extubation prediction model and key features used by the extubation prediction model through training and/or verification of a machine learning model, and analyzing key feature data of a patient in real time through the extubation prediction model in order to obtain a possibility of extubation of the patient and its related explanation. Accordingly, the system and the method thereof for establishing the extubation prediction using the machine learning model disclosed in the invention are used as a tool for clinical caregivers to evaluate extubation in order to reduce a possibility of reintubation due to inability to breathe spontaneously after extubation.

Abstract: A battery structure includes at least one electrode lamination layer, at least one first conductive member and at least one second conductive member. Each electrode lamination layer includes a plurality of first electrode layers, a plurality of second electrode layers and a plurality of insulating layers, wherein each insulating layer is disposed between any immediately-adjacent two of the first electrode layers and second electrode layers. The electrode lamination layer is disposed between the first conductive member and the second conductive member, wherein each first electrode layer or each second electrode layer is electrically connected with and substantially perpendicular to the first conductive member or the second conductive member.

Abstract: A torsion angle and rotation angle measurement device includes an input rotation disk, an output rotation disk, at least two torsion measuring modules and a rotation measuring module. The output rotation disk is coaxially and rotatably connected with the input rotation disk. At least two torsion measuring modules are disposed between the input rotation disk and the output rotation disk. Each torsion measuring module includes a rotary variable resistor and a torsion measuring arm. The rotary variable resistor is disposed on the output rotation disk. The torsion measuring arm is pivotally connected with the rotary variable resistor at a first end thereof, and is slidably connected with the input rotation disk at an second opposite end. When the input rotation disk rotates relative to the output rotation disk, the rotary variable resistor measures an angle indicating the input rotation disk rotating relative to the output rotation disk.

Abstract: A torsion angle and rotation angle measurement device includes an input rotation disk, an output rotation disk, at least two torsion measuring modules and a rotation measuring module. The output rotation disk is coaxially and rotatably connected with the input rotation disk. At least two torsion measuring modules are disposed between the input rotation disk and the output rotation disk. Each torsion measuring module includes a rotary variable resistor and a torsion measuring arm. The rotary variable resistor is disposed on the output rotation disk. The torsion measuring arm is pivotally connected with the rotary variable resistor at a first end thereof, and is slidably connected with the input rotation disk at an second opposite end. When the input rotation disk rotates relative to the output rotation disk, the rotary variable resistor measures an angle indicating the input rotation disk rotating relative to the output rotation disk.

Abstract: A battery structure includes at least one electrode lamination layer, at least one first conductive member and at least one second conductive member. Each electrode lamination layer includes a plurality of first electrode layers, a plurality of second electrode layers and a plurality of insulating layers, wherein each insulating layer is disposed between any immediately-adjacent two of the first electrode layers and second electrode layers. The electrode lamination layer is disposed between the first conductive member and the second conductive member, wherein each first electrode layer or each second electrode layer is electrically connected with and substantially perpendicular to the first conductive member or the second conductive member.

Abstract: For receiving an input data, a pattern data and a data clock signal and outputting a hit signal and an address signal, a content addressable memory includes a plurality of content addressable memory units connected in series, each content addressable memory unit being adapted to receive the input data and the data clock signal and to output a comparison result signal, and an encoder coupled to the comparison result signal of each content addressable memory unit and adapted for outputting a hit signal and a memory address signal subject to the comparison result signal received.

Abstract: For receiving an input data, a pattern data and a data clock signal and outputting a hit signal and an address signal, a content addressable memory is disclosed to include a plurality of content addressable memory units connected in series, each content addressable memory unit being adapted to receive the input data and the data clock signal and to output a comparison result signal, and an encoder coupled to the comparison result signal of each content addressable memory unit and adapted for outputting a hit signal and a memory address signal subject to the comparison result signal received.