Abstract: Disclosed in the present application are a concrete protection material, and a preparation method and a construction method therefor. The concrete protection material consists of 50%-90% of a component A and 10%-50% of a component B in percentage by weight, where the component A is prepared from 30%-65% of organic silicon, 2%-5% of nano-silicon dioxide and the balance of an organic solvent in percentage by weight; and the component B is prepared from 20%-50% of an organic base and the balance of water in percentage by weight. The present application not only can form nano-particles having a strengthening effect in capillary channels of a concrete surface layer, but also can achieve a technical effect of superhydrophobicity on the concrete surface layer.

Abstract: Various embodiments relate generally to data science and data analysis, computer software and systems, and data-driven control systems and algorithms based on graph-based data arrangements, and, more specifically, to a computing platform configured to receive and analyze datasets to implement a data model with which to identify relevant data catalog data derived from graph-based data arrangements, whereby a processor may be configured to cause implementation of subsets of programmatic executable instructions based on relevant data catalog data, at least one example of which generates a concept interface portion adapted to an associated concept, among other things. In some examples, a method may include identifying attributes associated with data values linked to a conceptual entity, determining criteria data of a targeted application, selecting programmatic executable instructions based on the criteria data, and extracting data from a graph data arrangement as a function of the attributes, among other things.

Abstract: Disclosed is a method and an apparatus for packet forwarding, which relate to the network technology field and are applied to a network node. The method comprises: obtaining an SRV6 packet; if a function field in a target SID contains a security authentication instruction, obtaining a target argument based on an operation indicated by the security authentication instruction, and performing security authentication processing on the SRv6 packet based on the target argument; wherein, the target SID is an SID, corresponding to the network node, in a segment list carried by a header of the SRv6 packet, and the target argument is: an argument for the security authentication instruction recorded in the header; and forwarding the processed SRv6 packet to a next-hop device. By applying the solution for packet forwarding according to examples of the present disclosure, the security in forwarding the SRv6 packet along the SRv6 forwarding path can be improved.

Abstract: This disclosure relates to phase tracking reference signal (PTRS) resource pattern configuration and signaling. Multiple PTRS resource pattern types may be predefined. Various manners in which a PTRS resource pattern configuration of a particular PTRS resource pattern type is communicated and signaled are disclosed. The disclosed PTRS resource pattern configuration and signaling may facilitate more efficient and flexible PTRS implementations for phase noise compensation at high frequency radio bands.

Abstract: The present application discloses a docking station, which includes a docking body (100) and a male connector (200); the male connector (200) includes a connecting body (210), a male plug (220), a pushing button (230), and a limiting block (240); the male plug (220) is matched with the opening (1021), the pushing button (230) is fitted with the first sliding slot (1031) to drive the male connector (200) to switch between an accommodated state and an exposed state; and the male plug (220) is accommodated inside the opening (1021) and the limiting block (240) is elastically limited in the first limiting groove (1011), when the male connector (200) is in the accommodated state. The male plug (220) can be accommodated inside the opening (1021) when the docking station is accommodated, the accommodated state is stable, and the risk of damage to the male connector (200) is reduced.

Abstract: A surface mount device having features on contacts to prevent the surface mount device from tombstoning. The feature may be channel defined by the contact that helps balance a torque/force applied on each side of the surface mount device during a reflow soldering process. The feature may also be a solder mask that helps balance a torque/force applied on each side of the surface mount device during a reflow soldering process.

Abstract: Provided herein are KRAS modulating compounds, such as compounds of Formula (I), (II), (II*), (III) or pharmaceutically acceptable salts, solvates, stereoisomers, atom labelled, or tautomers of any of the foregoing, useful for modulating KRAS GD12 and/or other G12 mutants.

Abstract: The disclosure provides a border touch module, including a cover plate, a shielding layer, a first adhesive layer, a sensing electrode layer, a second adhesive layer, an opaque adhesive, and a backlight layer. The shielding layer is disposed below the cover plate. The first adhesive layer is disposed below the shielding layer. The sensing electrode layer is disposed below the first adhesive layer. The second adhesive layer is disposed below the sensing electrode layer. The opaque adhesive is disposed below the sensing electrode layer. The backlight layer is disposed below the opaque adhesive and is in the same plane as the second adhesive layer. The shielding layer has a backlight pattern, and the opaque adhesive has a light source hole. When the backlight layer is in the state of driving backlight, the light illuminates the backlight pattern of the shielding layer through the light source hole.

Abstract: A flexible display input device includes a flexible display layer and a keyswitch layer. The keyswitch layer is disposed under the flexible display layer and includes a first elastic film, a first electrode, a second elastic film, and a second electrode. The first electrode is disposed on a side of the first elastic film facing toward the flexible display layer. The second elastic film is located between the flexible display layer and the first elastic film. The second electrode is disposed on a side of the second elastic film facing toward the first elastic film and is opposite to the first electrode.

Abstract: A board connector includes a first housing including a base and two sidewalls and defining a receiving space, a plurality of first terminals and a first metallic shell including a first main portion and two extending portions extending from the first main portion and fitting covering outsides of the sidewalls. Each extending portion defines a locking hole. A cable connector includes a second housing, a plurality of second terminals and a second metallic shell comprising a second main portion covering a top of the second insulating housing and a pair of locking arms extending from the second main portion in the lateral direction. Each sidewall is sandwiched between the locking arm and an outside of the second housing and each locking arm is retained in the locking hole during the cable connector is engaged with the board connector.

Abstract: A network apparatus controlling method includes: in a device configuration stage, causing the libraries of a plurality of node devices to have the same network key; electrically connecting to the intermediary node device; obtaining the device name of the intermediary node device; according to the device name, identifying the library of the intermediary node device and the content of the library to confirm an accessing encryption process used by the library; and switching to the accessing encryption process to complete the accessing encryption process between the network apparatus controlling device and the intermediary node device such that the network apparatus controlling device can send an order data to the plurality of node devices in the mesh network via the intermediary node device.

Abstract: An electrical connector assembly includes a board connector and a cable connector. The board connector includes a first seat comprising a base and two first sidewalls commonly defining a mating space, and a pair of first locking portions with locking heads projecting into the mating space, and a plurality of first terminals retained in the first seat and comprising contacting portions projecting into the mating space and leg portions. The cable connector includes a second seat including a pair of second locking portions to engage with the first locking portions and plural second terminals retained in the second seat. The first seat of the board connector further includes a second sidewall unitarily connecting with the base and first sidewalls at a same side and the second sidewall defines a first locking section to engage with a second locking section defined on the cable connector.

Abstract: A flexible display input device includes a flexible display layer and a keyswitch layer. The keyswitch layer is disposed under the flexible display layer and includes a first elastic film, a first electrode, a second elastic film, and a second electrode. The first electrode is disposed on a side of the first elastic film facing toward the flexible display layer. The second elastic film is located between the flexible display layer and the first elastic film. The second electrode is disposed on a side of the second elastic film facing toward the first elastic film and is opposite to the first electrode.

Abstract: A touch display module including a cover plate, a first adhesive layer, a thin glass layer, a second adhesive layer, a touch sensing layer, a third adhesive layer, a polarizing film, and an organic light emitting display layer is provided. A thickness of the cover plate is from 50 ?m to 70 ?m. A thickness of the first adhesive layer is from 40 ?m to 60 ?m. A thickness of the thin glass layer is from 40 ?m to 80 ?m. A thickness of the second adhesive layer is from 10 ?m to 60 ?m. A thickness of the touch sensing layer is from 28 ?m to 48 ?m. A plane located at half of a total thickness of the touch display module is defined as a stress neutral layer located in the touch sensing layer, third adhesive layer, polarizing film, or organic light emitting display layer.

Abstract: The disclosure provides a border touch module, including a cover plate, a shielding layer, a first adhesive layer, a sensing electrode layer, a second adhesive layer, an opaque adhesive, and a backlight layer. The shielding layer is disposed below the cover plate. The first adhesive layer is disposed below the shielding layer. The sensing electrode layer is disposed below the first adhesive layer. The second adhesive layer is disposed below the sensing electrode layer. The opaque adhesive is disposed below the sensing electrode layer. The backlight layer is disposed below the opaque adhesive and is in the same plane as the second adhesive layer. The shielding layer has a backlight pattern, and the opaque adhesive has a light source hole. When the backlight layer is in the state of driving backlight, the light illuminates the backlight pattern of the shielding layer through the light source hole.

Abstract: A board connector includes a first housing including a base and two sidewalls, plural first terminals retained in the base and located between the two sidewalls, and a first metallic shell enclosing the first housing and including a pair of first engaging portions at the sidewalls and a pair of first locking portions located in front of the sidewalls. A cable connector includes a second insulating housing and defining two opposite sides, plural second terminals retained in the second housing, and a second metallic shell enclosing the second housing and including a pair of second locking portions and a pair of second engaging portions behind the second locking portions. The first locking portions are locked with the second engaging portion, and the second locking portion are locked with the first engaging portions after the board connector and the cable connector is mated with each other.

Abstract: The disclosure provides a border touch module, including a cover plate, a shielding layer, a first adhesive layer, a sensing electrode layer, a second adhesive layer, an opaque adhesive, and a backlight layer. The shielding layer is disposed below the cover plate. The first adhesive layer is disposed below the shielding layer. The sensing electrode layer is disposed below the first adhesive layer. The second adhesive layer is disposed below the sensing electrode layer. The opaque adhesive is disposed below the sensing electrode layer. The backlight layer is disposed below the opaque adhesive and is in the same plane as the second adhesive layer. The shielding layer has a backlight pattern, and the opaque adhesive has a light source hole. When the backlight layer is in the state of driving backlight, the light illuminates the backlight pattern of the shielding layer through the light source hole.

Abstract: A firmware update method and a firmware update system thereof includes the steps of: executing a setting process, which includes writing a first identification code into a memory module, and setting a firmware update file on a firmware providing end to make the firmware update file include a second firmware image file and a second identification code and executing a determining process, which includes receiving the firmware update file and determining whether the firmware update file conforms to a custom structure according to the first identification code. If it does not, then prohibiting the firmware update image file from updating a computer system, and if it does, replacing a first firmware image file with the second firmware image file and writing the second firmware image file into the memory module of the computer system along with the second identification code.

Abstract: A low voltage control system, a low voltage protection method for an electronic device, and a computer program product thereof are disclosed. The electronic device includes a power supply and a memory. The low voltage protection method for the electronic device includes the following steps: detecting a current voltage of the power supply; determining whether the current voltage is lower than a first voltage threshold; and if the voltage is lower than the first voltage threshold, a control module cutting off multiple access channels.