Abstract: A device and a method for calculating a swinging direction of a human face in an obscured human face image are provided. The method includes the following. An obscured human face image including a human face is captured. Non-obscured face detection technology is used to obtain a feature anchor point to be replaced in the obscured human face image, obscured face detection technology is used to obtain a plurality of candidate feature anchor points in the obscured human face image, and the plurality of candidate feature anchor points are used to determine an updated feature anchor point corresponding to the feature anchor point to be replaced. An adjustment operation is performed on a three-dimensional model to obtain an adjusted three-dimensional model. The updated feature anchor point and the adjusted three-dimensional model are used to calculate a swinging direction of the human face.

Abstract: A hot box device and an operating method thereof are provided. The hot box device includes a first shell, a reformer, a burner, and a cathode inlet pipe. The first shell has a first cavity. The reformer is disposed in the first cavity. The burner is disposed in the reformer and has an opening. The cathode inlet pipe is disposed in the first cavity and extends through the first shell. The cathode inlet pipe is in fluid communication with the first cavity, and the opening of the burner is in fluid communication with the first cavity.

Abstract: An electric signal reconstruction system includes a signal generator and a computing element. The signal generator has a time constant and is configured to generate a plurality of signal value corresponding to a plurality of time points within a time period, wherein the signal values include a designated value, the time points include a designated time point, and the designated value corresponds to the designated time point. The computing element is electrically connected to the signal generator and is configured to perform operations including: performing a differential calculation or an integral calculation according to the time points and the signal values to generate a fundamental value; calculating a correction constant associated with the time constant; calculating a product of the correction constant and the fundamental value as a correction value; calculating a sum of the correction value and the designated value as a reconstruction value; and outputting the reconstruction value.

Abstract: A data processing method for acoustic event includes: establishing a simulated acoustic frequency event module, a data capturing module, and a sound application decision module in a software manner, setting a simulated hardware parameter to the simulated acoustic frequency event module, inputting a sound signal to a frequency filtering module of the simulated acoustic frequency event module, and obtaining metadata from a frequency event quantizer of the simulated acoustic frequency event module, dividing each of the metadata into multiple frames according to a time interval by the data capturing module, accumulating an event number of each frame by the data capturing module, setting a label of each frame according to the event number, storing these frames, the event number and the label in a database, and training a decision model by the sound application decision module according to the database and a sound application.

Abstract: An intraocular pressure detecting device includes the following elements. A force-applying element is adapted to apply a force to a target surface on a cornea of an eyeball in a direction, so that the target surface is deformed. A force-sensing element, coupled to the force-applying element, is adapted to sense the force applied by the force-applying element in the direction. A displacement-sensing element, coupled to the force-applying element, is adapted to sense a displacement of the force-applying element in the direction. A processing element is electrically connected to the force-sensing element and the displacement-sensing element to obtain a relationship curve between applied force and displacement. In particular, the processing element analyzes the relationship curve to obtain a characteristic critical point, and obtains an intraocular pressure value of the eyeball according to the applied force corresponding to the characteristic critical point.

Abstract: Provided is a printing system with intelligent color-matching, including a storage device, a printing device, and a processing device. The storage device stores a program, a color-matching dataset, and a color-matching model. The color-matching dataset contains multiple pieces of color-matching data, and each piece of color-matching data includes an ink formula and a corresponding printing color value for the ink formula. The printing device is controlled to produce printed products. The processing device loads the program from the storage device to perform the following tasks: training the color-matching model using the color-matching dataset; inputting the expected color value into the trained color-matching model, and obtaining a predicted formula output by the trained color-matching model; and based on the predicted formula, controlling the printing device to produce the printed product.

Abstract: A lipid compound or a derivative thereof and a pharmaceutical composition employing the same are provided. The lipid compound has a structure represented by Formula (I): wherein Z1, Z2, Z3 and Z4 are as disclosed in the specification.

Abstract: A system, an apparatus, and a method for cloud resource allocation are provided. The cloud resource allocation system includes a plurality of worker nodes and a master node. The master node includes: an orchestrator configured to: obtain multiple node resource information respectively reported by a plurality the worker nodes through a resource manager; and parse a job profile of a job request obtained from the waiting queue through the job scheduler and decide to execute a direct resource allocation or a preemptive indirect resource allocation for a job to be handled requested by the job request based on the node resource information and the job profile.

Abstract: A polymer is formed by a reaction of phenolic epoxy resin or bisphenol epoxy resin and carboxylic acid, wherein the phenolic epoxy resin has a chemical structure of wherein W is H, alkyl group, or halogen. R1 is methylene, methylene diphenyl, dimethylene benzene, tetrahydrodicyclopentadiene, or n=1 to 8. The bisphenol epoxy resin has a chemical structure of wherein Z is H or alkyl group; R4 is methylene, methylmethylene, dimethylmethylene, ethylmethylmethylene, bi(trifluoromethyl)methylene, fluorenylidene, or sulfonyl group; and p=1 to 10. The carboxylic acid has a chemical structure of HOOC—Ar—(—X)m, HOOC—R2, or a combination thereof, wherein Ar is benzene or naphthalene; X is hydroxy group, alkoxy group, or alkyl group, and at least one X is hydroxy group; m=1 to 3, wherein R2 is C3-7 alkyl group.

Abstract: A system and a method for automatically collecting a stirrup are provided. The system includes a control unit, a stirrup device, and a robotic arm. The control unit receives work order information and automatically generates pickup point and placement point information of the stirrup according to the work order information. The stirrup device is electrically connected to the control unit and receives the work order information output by the control unit to shape the stirrup. The robotic arm is electrically connected to the control unit and receives the pickup point and placement point information, wherein the control unit controls the robotic arm to grab the stirrup from a pickup point and place the stirrup at a placement point.

Abstract: A catalyst for methanation reaction and a method for preparing methane are provided. The catalyst for methanation reaction includes a core, a shell encapsulating the core, and an active metal. The core includes cerium dioxide (CeO2), the shell includes zirconium dioxide (ZrO2), and the active metal is in particle form and is disposed on an outer surface of the shell layer.

Abstract: Provided are a light color conversion material and a light color conversion ink. The light color conversion material includes a quantum dot and a cross-linkable cholesteric liquid crystal material. The cross-linkable cholesteric liquid crystal material encapsulates the quantum dot. The cross-linkable cholesteric liquid crystal material has Bragg diffraction characteristic after cross-linking, and blue light with a wavelength between 400 nm and 480 nm may be reflected by the cross-linked cholesteric liquid crystal material and transmitted through the cross-linked cholesteric liquid crystal material at the same time.

Abstract: A method of blind spot detection is provided. The method of blind spot detection is used for a vehicle including a first vehicle body and a second vehicle body dragged by the first vehicle body. The method of blind spot detection comprises the following steps: obtaining a turning angle information of the second vehicle body relative to the first vehicle body by a first sensor while the vehicle is moving; determining a predetermined information related to the vehicle and/or a second sensor; dynamically defining a blind spot area around the vehicle according to the turning angle information and the predetermined information; and receiving a sensing signal regarding an object around the vehicle from the second sensor to determine whether the object is located in the blind spot area.

Abstract: A fast charging lithium-ion battery includes a positive electrode plate, a negative electrode plate, a separator, and an electrolyte. The positive electrode plate includes a positive current collector and a positive active material layers. The negative electrode plate includes a negative current collector and negative active material layers. The negative active material layers include titanium niobium oxide, lithium titanate, or a combination thereof. The separator is disposed between the positive electrode plate and the negative electrode plate. The electrolyte contacts the positive electrode plate and the negative electrode plate. The negative active material layers have an effective area corresponding to the positive electrode plate. The negative active material layers have a thickness on one surface of the negative current collector. A ratio of the effective area to the thickness is greater than 2×105 mm.

Abstract: A photoelectric conversion compound is provided. The photoelectric conversion compound has a structure represented by formula (I): wherein D represents an inorganic luminescent group; each of R1, R2, and R3 independently represents a hydrogen atom or a C1-6 alkyl group; R4 represents a single bond or a C1-6 alkylene group; m represents an integer of 1-10; k represents an integer of 1-1,000; and n represents an integer of 1-10,000.

Abstract: An integrated antenna package structure includes a first redistribution structure, a first chip, a heat dissipation structure, a second chip, and an antenna structure. The first chip is located on a first side of the first redistribution structure, and is electrically connected to the first redistribution structure. The heat dissipation structure is thermally connected to the first chip, and the first chip is located between the heat dissipation structure and the first redistribution structure. The second chip is located on a second side of the first redistribution structure opposite to the first side, and is electrically connected to the first redistribution structure. The antenna structure is electrically connected to the first redistribution structure.

Abstract: A visual recognition based method for projecting patterned light includes: projecting a calibration image onto a projection screen by a projection module; capturing the calibration image by an image-capturing module to obtain a calibration information between the projection module and the image-capturing module; capturing an object by the image-capturing module to obtain a to-be-recognized image of the object; detecting the object in the to-be-recognized image and acquiring a plurality of feature points associated with a plurality of feature areas of the object in the to-be-recognized image; retrieving a plurality of target feature points corresponding to a target object from the feature points; obtaining a projection coordinate of the target feature points\ according to the calibration information and providing the projection coordinate to the projection module; and projecting a projection pattern with shape corresponding to the target object onto the object by the projection module according to the projecti

Abstract: A heterogeneous integration detecting method and a heterogeneous integration detecting apparatus are provided. The heterogeneous integration detecting method includes the following. Under the condition of maintaining the same relative distance between an interference objective lens and a sample, the relative posture of the interference objective lens and the sample is continuously adjusted according to the change of an image of the sample in the field of view of the interference objective lens until a first optical axis of the interference objective lens is determined to be substantially perpendicular to the surface of the sample according to the image. The interference objective lens is replaced with an imaging objective lens and the geometric profile of at least one via of the sample is detected. A second optical axis of the imaging objective lens after replacement overlaps with the first optical axis of the interference objective lens before replacement.

Abstract: A positioning system for providing an environmental positioning information of a field using monocular vision is disclosed. The positioning system is configured to provide an environmental positioning information of a field having a plurality of virtual floors corresponding to different heights, wherein each of the virtual floors has a plurality of marking positions. The positioning system includes a computing device configured to generate an environmental positioning information according to a first environmental image. The environmental positioning information has a positioning accuracy having various levels corresponding to the marking positions of each of the virtual floors. The computing device is further configured to divide each of the virtual floors into a plurality of work zones according to the positioning accuracy corresponding to the making positions.

Abstract: A coating die head includes a first die block, a second die block, a third die block, and a fourth die block that are sequentially arranged at intervals. The first die block and the second die block form a first slot therebetween, the second die block and the third die block form a second slot therebetween, and the third die block and the fourth die block form a third slot therebetween. Each of the first die block, the second die block, the third die block, and the fourth die block has a die lip at a surface thereof. A length of the die lip of the second die block ranges from 100 micrometers to 200 micrometers. A ratio of a length of the die lip of the third die block to the length of the die lip of the second die block ranges from 1.5 to 7.