Abstract: Embodiments of the present disclosure provide a method including forming a gate electrode over a substrate, forming a ferroelectric layer over the gate electrode, forming a channel layer over the ferroelectric layer, forming a capping layer over the channel layer, wherein the capping layer includes one or more of CeOx, BeOx, InOx, GaOx, AlOx, SnOx, VOx, WOx, TiOx, ZrOx, NbOx, HfOx, SiOx, TaOx, a binary metal oxide based on any combination of the preceding metal oxides, or a ternary metal oxide based on any combination of the preceding metal oxides, annealing, after forming the capping layer, at a temperature less than 350° C., forming a dielectric layer over the capping layer, and forming a source contact and a drain contact in the dielectric layer.

Abstract: A semiconductor structure is disclosed. The semiconductor structure includes a semiconductor substrate, a hydrogen sensing stacked layer disposed over the semiconductor substrate, and a protection layer disposed on the hydrogen sensing stacked layer. The hydrogen sensing stacked layer comprises a hydrogen-free oxide layer and a metal oxide layer disposed on the hydrogen-free oxide layer.

Abstract: A method for forming a semiconductor device is provided.

Abstract: A semiconductor device comprises a first conductive feature on a semiconductor substrate, a bottom electrode on the first conductive feature, a magnetic tunnel junction (MTJ) stack on the bottom electrode, and a top electrode on the MTJ stack. A spacer contacts a sidewall of the top electrode, a sidewall of the MTJ stack, and a sidewall of the bottom electrode. A conductive feature contacts the top electrode.

Abstract: A method for adjusting ambient contrast ratio and an electronic apparatus are provided. The electronic apparatus includes a transparent display and a transmittance adjustment plate disposed at the back of the transparent display. In the electronic apparatus, an adjustment transmittance used to adjust the transmittance adjustment plate and a luminance percentage used to adjust the transparent display are calculated, a grayscale layer is generated based on the luminance percentage; a voltage generator is used to control the transmittance of the transmittance adjustment plate to the adjustment transmittance, and in a case that the transmittance of the transmittance adjustment plate is the adjustment transmittance, a graphic controller is used to display a frame on the transparent display while display the grayscale layer on top of the frame.

Abstract: A semiconductor device comprises a first conductive feature on a semiconductor substrate, a bottom electrode on the first conductive feature, a magnetic tunnel junction (MTJ) stack on the bottom electrode, and a top electrode on the MTJ stack. A spacer contacts a sidewall of the top electrode, a sidewall of the MTJ stack, and a sidewall of the bottom electrode. A conductive feature contacts the top electrode.

Abstract: Various embodiments of the present disclosure are directed towards an integrated chip including a first conductive structure and a second conductive structure. A dielectric structure is arranged between the first conductive structure and the second conductive structure. The dielectric structure comprises an upper region over a lower region. The lower region comprises a first lateral surface and a second lateral surface on opposing sides of the upper region. A passivation layer overlies the second conductive structure and the dielectric structure. The passivation layer comprises a lateral segment contacting the first lateral surface. A height of the lateral segment is greater than a height of the upper region. A top surface of the lateral segment is below a top surface of the passivation layer.

Abstract: A reordering method performed by a receiving apparatus is provided. The receiving apparatus may receive a first PPDU from a transmitting apparatus, wherein the first PPDU includes a plurality of MPDUs, and the MPDUs correspond to the same BA window. The receiving apparatus may determine a traffic that each of the MPDUs belongs to according to an MPDU identification, wherein traffics that the plurality of MPDUs belonging to include a first traffic and a second traffic which is different from the first traffic. The receiving apparatus may perform a reordering operation for the MPDUs belonging to the first traffic, and a reordering operation for the MPDUs belonging to the second traffic, respectively. The receiving apparatus may transmit a BA frame in response to the first PPDU to the transmitting apparatus, wherein the BA frame includes information for indicating whether the MPDUs in the first PPDU have been successfully received.

Abstract: A log processing device and a log processing method thereof are provided. The log processing device divides the original log data into a plurality of block data, transforms a numeric variable of each of the block data into a representative code, and determines whether to perform a combination process for continuous block data to generate a plurality of combinational block data according to a data integrity of each of the block data. The log processing data takes the combinational block data as a log template, and each of the combinational block data corresponds to an event.

Abstract: An overhead hoist transfer system and an overhead hoist transfer. The overhead hoist transfer system includes a plurality of lower rails, a plurality of upper rail sets, and a plurality of overhead hoist transfers. The overhead hoist transfer includes a moving kit and a frame. The moving kit includes a control module, a drive wheel set, and a plurality of upper guide wheels. The control module controls the upper guide wheels to move between an upper position and a lower position. Before the overhead hoist transfer makes a turn along the lower rail and the upper rail set, the control module controls the upper guide wheels to move to the upper position or the lower position. When the plurality of upper guide wheels abut against the adjacent upper rail set, the overhead hoist transfer turns along the upper rail set.

Abstract: A forward osmosis membrane having a low water resistance and an excellent mechanical strength includes a support unit and a selective layer. The support unit includes a plurality of nanostructures, and has opposite first and second surfaces which are defined by the nanostructures. Each of the nanostructures includes a carbon nanotube and a hydrophilic film coated around the carbon nanotube. The hydrophilic film includes a first hydrophilic polymeric material and a second hydrophilic polymeric material. The second hydrophilic polymeric materials of the nanostructures are cross-linked. The selective layer covers and contacts the first surface of the support unit.

Abstract: A threat detection system for a mobile communication system, and a global device and a local device thereof are provided. The threat detection system is used for detecting and defensing low and slow distributed denial-of-service (LSDDoS) attacks. The global device is located in a core network of the mobile communication system, and is used for training a tensor neural network (TNN) model to build a threat classifier. The threat classifier is used for the local device to identify a plurality of threat types. The local device inputs the to-be-identified data into the threat classifier to generate a classification result corresponding to one of the threat types.

Abstract: A log processing device and a log processing method thereof are provided. The log processing device divides the original log data into a plurality of block data, transforms a numeric variable of each of the block data into a representative code, and determines whether to perform a combination process for continuous block data to generate a plurality of combinational block data according to a data integrity of each of the block data. The log processing data takes the combinational block data as a log template, and each of the combinational block data corresponds to an event.

Abstract: A threat detection system for a mobile communication system, and a global device and a local device thereof are provided. The threat detection system is used for detecting and defensing low and slow distributed denial-of-service (LSDDoS) attacks. The global device is located in a core network of the mobile communication system, and is used for training a tensor neural network (TNN) model to build a threat classifier. The threat classifier is used for the local device to identify a plurality of threat types. The local device inputs the to-be-identified data into the threat classifier to generate a classification result corresponding to one of the threat types.

Abstract: A heat exchanger includes a chassis, and a mounting opening and an outer outlet formed at the bottom of the chassis. The cooling core is installed in the chassis and disposed above the mounting opening. The external circulation fan module is installed from the mounting opening into the chassis. The cover covers the mounting opening. External air flows through the cooling core and exchanges heat with the cooling core to simplify the method of mounting the external circulation fan module.

Abstract: A hidden-lock door panel for use in a container includes a door panel body, a covering lid, a first lock, and a second lock. The door panel body includes a hidden space. The covering lid is disposed corresponding to the hidden space and slidably connected to the door panel body. The first lock and the second lock are both disposed in the hidden space. The first lock is an electronic lock and is used to control whether the covering lid can be released to slide. The second lock is used to control the door panel body to be unlocked or locked with respect to the container. Accordingly, unknowing persons are prevented from opening or breaking the door lock.

Abstract: A hidden-lock door panel for use in a container includes a door panel body, a covering lid, a first lock, and a second lock. The door panel body includes a hidden space. The covering lid is disposed corresponding to the hidden space and slidably connected to the door panel body. The first lock and the second lock are both disposed in the hidden space. The first lock is an electronic lock and is used to control whether the covering lid can be released to slide. The second lock is used to control the door panel body to be unlocked or locked with respect to the container. Accordingly, unknowing persons are prevented from opening or breaking the door lock.

Abstract: A hidden-lock door panel for use in a container includes a door panel body, a covering lid, a first lock, and a second lock. The door panel body includes a hidden space. The covering lid is disposed corresponding to the hidden space and slidably connected to the door panel body. The first lock and the second lock are both disposed in the hidden space. The first lock is an electronic lock and is used to control whether the covering lid can be released to slide. The second lock is used to control the door panel body to be unlocked or locked with respect to the container. Accordingly, unknowing persons are prevented from opening or breaking the door lock.

Abstract: An equipment cabinet and a slidable-and-rotatable rack assembly are provided. The equipment cabinet includes a housing and a rack assembly. The rack assembly is disposed in the receiving space of the housing. The rack assembly comprises a first slidable tray, at least two first rail assemblies, a frame, and a first rotation shaft assembly. The first rail assemblies are connected with the first slidable tray and the housing respectively and configured for allowing the first slidable tray to be moved relative to the housing. The frame is carried by the first slidable tray and has a base plate. The first rotation shaft assembly is coupled with the base plate of the frame and the first slidable tray and configured for allowing the frame to be rotated relative to the first slidable tray after the frame carried by the first slidable tray is drawn out.

Abstract: A heat exchanger includes a chassis, and a mounting opening and an outer outlet formed at the bottom of the chassis. The cooling core is installed in the chassis and disposed above the mounting opening. The external circulation fan module is installed from the mounting opening into the chassis. The cover covers the mounting opening. External air flows through the cooling core and exchanges heat with the cooling core to simplify the method of mounting the external circulation fan module.