Abstract: A substrate processing apparatus may be utilized, for example, for a horizontally fixed organic material deposition equipment for manufacturing large-area displays. A substrate processing apparatus may include a titanium cooling plate having an upper surface and a lower surface; an electrostatic chuck including a first dielectric layer provided on the lower surface, an electrode layer provided on the first dielectric layer, and a second dielectric layer provided on the first dielectric layer and the electrode layer, and chucking a glass substrate using an electrostatic force; and a yoke plate positioned on the upper surface and chucking a mask using a magnetic force. The titanium cooling plate may further includes a first channel provided from the upper surface, a second channel provided from the first channel, and a titanium cover plate coupled to the first channel. The titanium cooling plate may provide a cooling flow path using the second channel.

Abstract: A method for disease risk assessment includes a data acquiring step, a preprocessing step, and a determining step. In the data acquiring step, a medical record of a subject, a static physiological information of the subject measured, and a dynamic physiological information corresponding to different actions of the subject are obtained. In the preprocessing step, a terminal device is applied for integrating the aforementioned data to generate a current data. In the determining step, the current data is inputted into a prediction model for calculation, so as to generate a disease risk assessment result corresponding to the subject. The assessment result includes a disease category, an onset probability corresponding to the disease category, and an estimated time of the onset of the disease. Thus, the present invention accurately assesses the disease probability of the subject in the future for health improvement and disease prevention and postponement.

Abstract: An antenna structure with multiple frequency capabilities applied to an electronic device includes frame body, first feed point, a first switch point, and second switch point. The frame body has at least one portion made of metal material and defines two gaps. The frame body between gaps form a first radiation portion. The first feed point from a source feeds current and signal to the first radiation portion. The first switch point and the second switch point are located at two ends of the frame body adjacent to the first gap. The first switch point and the second switch point are grounded through a switch circuit.

Abstract: An antenna structure applied in a wireless communication device includes a metal frame, a first feed portion, a second feed portion, and a ground portion. The metal frame defines a first gap and a second gap. A portion of the metal frame positioned between the first gap and the second gap forms the first radiation portion. The first feed portion is electrically connected to the first radiation portion and a first signal feed point for feeding current and signals to the first radiation portion. The second feed portion is positioned apart from the first feed portion, electrically connected to the first radiation portion and a second signal feed point for feeding current and signal to the first radiation portion. The ground portion is positioned between the first feed portion and the second feed portion and is connected to the first radiation portion for grounding the first radiation portion.

Abstract: An antenna module includes a substrate, a radiation portion, and an active circuit. The radiation portion and the active circuit are both arranged on the substrate. The radiation portion is a complete sheet body made of conductive material, at least one signal feed point is arranged on one side of the radiation portion to feed electrical signals to the radiation portion. The radiation portion defines at least one slot, the slot divides the radiation portion into radiation branches arranged at intervals. Each radiation branch is electrically connected to a signal feeding point, so as to feed electric signals to the radiation branch. The active circuit is electrically connected to the radiation portion to switch radiation modes of the radiation portion. The application also provides an electronic device with the antenna module.

Abstract: A semiconductor structure and a manufacturing method thereof are provided. The manufacturing method includes: providing a substrate; forming an ion implantation area in the substrate, an upper surface of the ion implantation area having a distance from an upper surface of the substrate; forming an initial word line trench in the substrate, the initial word line trench extending from the upper surface of the substrate into the ion implantation area; widening the initial word line trench to form a word line trench, a width of a bottom of the word line trench being greater than a minimum width of the word line trench.

Abstract: Method for forming a capacitor includes following operations. A base is provided. First supporting layer and first sacrificial layer are formed on the base sequentially. First through holes penetrating first supporting layer and first sacrificial layer are formed to expose the base. First through holes are filled to form first filling structures. Second supporting layer covering remaining first sacrificial layer and first filling structures is formed. Second through holes penetrating second supporting layer are formed. Second sacrificial layer covering remaining second supporting layer and second through holes, and third supporting layer are formed. Third through holes penetrating third supporting layer and second sacrificial layer are formed. First filling structures are removed to communicate each of third through holes and corresponding one of first through holes.

Abstract: An antenna coupled feed module is received in a slit formed between a metal frame and at least one electronic component of an electronic device. The antenna coupled feed module includes a substrate, at least one coupled feed portion, an active circuit, a metal layer, and a non-conductive layer. The coupled feed portion and the active circuit are disposed on opposite surfaces of the substrate; the coupled feed portion couples the electrical signals to the metal layer, the metal layer conducts the electrical signals to the metal frame to radiate wireless signals; the non-conductive layer is arranged between the metal layer and the at least one coupled feed portion, and covers the coupled feed portion; the active circuit switches the electrical signals fed to the coupled feed portion. An electronic device with the antenna coupled feed module is also provided.

Abstract: A microminiaturized antenna feed module includes a substrate, a plurality of coupled feed portions, and an active circuit. The substrate defines a plurality of visa penetrating the substrate. The coupled feed portions, made of conductive material and have different coupling areas, are electrically connected to the active circuit through the holes, to feed in electrical signals, the coupled feed portions couple the electrical signals to the metal frame to radiate wireless signals; the active circuit controls the switching of radiation modes of the metal frame. The application also provides an electronic device with the microminiaturized antenna feed module.

Abstract: An electronic device includes a metal frame, a middle frame, and at least one antenna feed module. The metal frame includes an upper metal frame, a first side metal frame, a bottom metal frame, and a second side metal frame sequentially connected. The middle frame, spaced apart from the first side metal frame and the second side metal frame, forms a slit, the at least one antenna feed module is received in the slit.

Abstract: A signal feeding assembly to a radiating element which is not formed from a metal frame or casing includes a substrate, a signal coupling unit, a switching unit, and a transmission unit. The switching unit includes at least two switching output ends. The transmission unit can transmit and receive a baseband signal and an RF signal. The signal coupling unit is spaced from a radiation element and can generate a plurality of radiation modes. The signal coupling unit includes at least two coupling pieces. Each coupling piece is electrically connected to a switching output end. The switching unit controls switching of the coupling pieces through the switching output ends and can switch a plurality of radiation modes. The application also provides an antenna module and an electronic device.

Abstract: An antenna structure with multiple frequency and MIMO capabilities applied to an electronic device includes back board, side frame, first feed point, second feed point, and first ground point. The side frame defines at least a first gap and a second gap. The first and second gaps create first and second radiation portions from the side frame. The first feed point from a source feeds current and signal to the first radiation portion. The second feed point from a source feeds current and signal to the second radiation portion. The first ground point is positioned between the first and second feed points. When the first feed point and the second feed point supply current, the first radiation portion and the second radiation generate at least one common radiation frequency band together with others.

Abstract: A semiconductor device includes a silicon die having a first side and a second side, an adhesive layer attached to the first side of the silicon die, and a lead frame. The lead frame comprises a die attach pad having a mounting surface. The mounting surface has a smaller area than an area of the adhesive layer. The silicon die is mounted on the lead frame at the mounting surface so that edges of the silicon die and the adhesive layer overhang the die attach pad without touching the die attach pad. The semiconductor device further includes one or more leads that are spaced apart from the edges of the silicon die and the adhesive layer.

Abstract: The invention is a breath sensing device comprising a sensing pad, a plurality of coverage sensing units, and a signal processor, the coverage sensing units are disposed on the sensing pad, when a user lies down on the sensing pad, a plurality of coverage signals sensed by the coverage sensing units respectively produce a periodic change according to the deformation of a curve along the body of the user while breathing, the signal processor is electrically connected to the coverage sensing units to receive the coverage signals, and the signal processor calculates to obtain duration and proportion of the user's inspiration, expiration, and pause phase and depth information of breathing from a waveform of the coverage signals based on a signal-processing algorithm.

Abstract: An antenna structure applied in a wireless communication device includes a frame, a first feed portion, a second feed portion, and a ground portion. The frame defines at least a first gap and a second gap. The first gap and the second gap collectively divide the frame into a first radiation portion and a second radiation portion. The first feed portion is electrically connected to the first radiation portion and a first signal feed point for feeding currents and signals to the first radiation portion. The second feed portion is electrically connected to the second radiation portion and a second signal feed point for feeding currents and signals to the second radiation portion. When the first radiation portion and the second radiation portion supply currents, respectively, the first radiation portion and the second radiation portion generate radiation signals in at least one same frequency band.

Abstract: The present invention provides a use of a phillyrin/phillygenin composition which targets and inhibits 3CLpro protein of COVID-19 virus, in preparation of an anti-coronavirus drug or a drug for treating a disease caused by the coronavirus, wherein the coronavirus is COVID-19 virus, and the disease caused by the coronavirus is COVID-19.

Abstract: Systems and techniques are provided for generating one or more models. For example, a process can include obtaining a plurality of input images corresponding to faces of one or more people during a training interval. The process can include determining a value of the coefficient representing at least the portion of the facial expression for each of the plurality of input images during the training interval. The process can include determining, from the determined values of the coefficient representing at least the portion of the facial expression for each of the plurality of input images during the training interval, an extremum value of the coefficient representing at least the portion of the facial expression during the training interval. The process can include generating an updated bounding value for the coefficient representing at least the portion of the facial expression based on the initial bounding value and the extremum value.

Abstract: A method for forming a thin film by a deposition process, including: a substrate is placed in a deposition chamber; a precursor is introduced into the deposition chamber to form an adsorption layer on a surface of the substrate; a reactant is introduced into the deposition chamber and reacts with the adsorption layer to form a thin film layer on the surface of the substrate and generate reaction byproducts; a vacuuming operation is performed on the deposition chamber to decrease a chamber pressure therein to reduce desorption energy of the reaction byproducts formed at the surface of the thin film layer; plasma is introduced into the deposition chamber to increase energy of the surface of the formed thin film layer; a cleaning gas is introduced into the deposition chamber to discharge the reaction byproducts and the residual precursor and reactant in the deposition chamber.

Abstract: A preparation method for a semiconductor structure includes the following operations. A bit line structure, active pillars, and a word line structure are formed in turn on a substrate. Bottom ends of the active pillars are connected to the bit line structure, and the active pillars are connected with the word line structure. A pillar-shaped conductive structure is formed on the active pillars, and a cup-shaped conductive structure is formed on the pillar-shaped conductive structure. There is an electrode gap between the pillar-shaped conductive structure and the cup-shaped conductive structure, and the pillar-shaped conductive structure and the cup-shaped conductive structure form a lower electrode. A dielectric layer is formed on a surface of the lower electrode. An upper electrode is formed on a surface of the dielectric layer. The upper electrode fills the electrode gap.

Abstract: An antenna for a foldable electronic device which functions equally well in both folded and unfolded states includes a rotating shaft and a housing. The overall housing is made of metallic material and includes a first housing and a second housing. The first housing connects to the second housing through the rotating shaft. The housing further defines at least one group of slots to form at least one slot antenna. The at least one slot antenna crosses the rotating shaft and extends to the first housing and/or the second housing. By setting at least one slot antenna to correspond to the rotating shaft, the foldable electronic device achieves high radiation performance whether the first and second housing are folded or unfolded.