mhurhangee/patent-ind-claim-en huggingface dataset:
Material for use in preventing a surgical site from adhering after surgery, said material consisting of: a first agent comprising a gelatin derivative, the gelatin derivative (a) including a structure represented by the following formula, GltnNH-CHR 1 R 2 , in the formula, Gltn represents a gelatin residue, R 1 represents an alkyl group with 5 to 17 carbon atoms, and R 2 represents a hydrogen atom or an alkyl group with 5 to 17 carbon atoms; (b) having imino group/ amino group (molar ratio) of 1/99 to 30/70; and (c) having a weight average molecular weight of 10,000 to 50,000; and a second agent comprising a crosslinker for the gelatin derivative. a first agent comprising a gelatin derivative, the gelatin derivative (a) including a structure represented by the following formula, GltnNH-CHR 1 R 2 , in the formula, Gltn represents a gelatin residue, R 1 represents an alkyl group with 5 to 17 carbon atoms, and R 2 represents a hydrogen atom or an alkyl group with 5 to 17 carbon atoms; (b) having imino group/ amino group (molar ratio) of 1/99 to 30/70; and (c) having a weight average molecular weight of 10,000 to 50,000; and (a) including a structure represented by the following formula, GltnNH-CHR 1 R 2 , in the formula, Gltn represents a gelatin residue, R 1 represents an alkyl group with 5 to 17 carbon atoms, and R 2 represents a hydrogen atom or an alkyl group with 5 to 17 carbon atoms; (b) having imino group/ amino group (molar ratio) of 1/99 to 30/70; and (c) having a weight average molecular weight of 10,000 to 50,000; and a second agent comprising a crosslinker for the gelatin derivative.
An air communication system comprising: a network data processing system configured for use at an airport ; a policy manager configured to manage a number of policies based on a threat level for the airport , wherein the policy manager is further configured to identify a change to the threat level for the airport and update the number of policies in response to identifying the threat level for the airport ; and a number of agents configured to run on the network data processing system and to communicate with an aircraft network data processing system on an aircraft and configured to implement the number of policies on the network data processing system and the aircraft network data processing system , wherein in being configured to implement the number of policies on the network data processing system and the aircraft network data processing system , the number of agents is configured to manage communications with a data processing system on the aircraft ; wherein the policy manager is further configured to identify a number of undesired events for the network data processing system and identify a number of actions to be performed in response to the number of undesired events , wherein the undesired events are events that violate a policy of the number of policies . a network data processing system configured for use at an airport ; a policy manager configured to manage a number of policies based on a threat level for the airport , wherein the policy manager is further configured to identify a change to the threat level for the airport and update the number of policies in response to identifying the threat level for the airport ; and a number of agents configured to run on the network data processing system and to communicate with an aircraft network data processing system on an aircraft and configured to implement the number of policies on the network data processing system and the aircraft network data processing system , wherein in being configured to implement the number of policies on the network data processing system and the aircraft network data processing system , the number of agents is configured to manage communications with a data processing system on the aircraft ; wherein the policy manager is further configured to identify a number of undesired events for the network data processing system and identify a number of actions to be performed in response to the number of undesired events , wherein the undesired events are events that violate a policy of the number of policies .
An apparatus for processing a sample on a substrate , comprising: a substrate handler configured to move the substrate including the sample between a first position and a second position; and a platform positioned so that when the substrate is in the second position, the platform faces the substrate , characterized in that the platform comprises: a fluid delivery area having a second surface formed from a hydrophilic material for which a water contact angle is 40 degrees or less; and a first surface facing the substrate when the substrate is in the second position, formed from a hydrophobic material for which a water contact angle is 100 degrees or more; and a fluid outlet port positioned on the second surface . a substrate handler configured to move the substrate including the sample between a first position and a second position; and a platform positioned so that when the substrate is in the second position, the platform faces the substrate , characterized in that the platform comprises: a fluid delivery area having a second surface formed from a hydrophilic material for which a water contact angle is 40 degrees or less; and a first surface facing the substrate when the substrate is in the second position, formed from a hydrophobic material for which a water contact angle is 100 degrees or more; and a fluid outlet port positioned on the second surface . a fluid delivery area having a second surface formed from a hydrophilic material for which a water contact angle is 40 degrees or less; and a first surface facing the substrate when the substrate is in the second position, formed from a hydrophobic material for which a water contact angle is 100 degrees or more; and a fluid outlet port positioned on the second surface .
An integrated circuit , comprising: a processing region configured to run one instruction from a plurality of instructions; a first temperature sensor configured to measure a first temperature within a first temperature measuring region of the integrated circuit in response to the processing region running the one instruction; the processing region being configured to compare the measured first temperature with a predefined temperature at the first temperature measuring region when the processing region runs the one instruction and to trigger an event when the measured first temperature exceeds the predefined temperature by a threshold value; a second temperature sensor configured to measure a second temperature within a second temperature measuring region of the integrated circuit in response to the processing region running the one instruction, and the processing region is further configured to trigger the event when the difference between the measured first temperature and the measured second temperature exceeds a predefined temperature difference by a predetermined amount. a processing region configured to run one instruction from a plurality of instructions; a first temperature sensor configured to measure a first temperature within a first temperature measuring region of the integrated circuit in response to the processing region running the one instruction; the processing region being configured to compare the measured first temperature with a predefined temperature at the first temperature measuring region when the processing region runs the one instruction and to trigger an event when the measured first temperature exceeds the predefined temperature by a threshold value; a second temperature sensor configured to measure a second temperature within a second temperature measuring region of the integrated circuit in response to the processing region running the one instruction, and the processing region is further configured to trigger the event when the difference between the measured first temperature and the measured second temperature exceeds a predefined temperature difference by a predetermined amount.
A cassette attitude assessment system, comprising: a cassette receiver configured to couple with a cassette having positioning surfaces; two detectors mounted within an area defined by said cassette receiver , each of said detectors providing a depressible rod in the area defined by the cassette receiver , wherein each of the depressible rods is configured to be depressed by one of the positioning surfaces of the cassette ; characterised in that : the two detectors are mounted diagonally within the area defined by the cassette receiver ; and further characterised by : a comparator configured to compare, based on an electrical resistance reading from each of the detectors, an extent of the depression of one of the depressible rods with that of another of the depressible rods to assess at least one of an alignment and an attitude of the cassette with respect to the cassette receiver . a cassette receiver configured to couple with a cassette having positioning surfaces; two detectors mounted within an area defined by said cassette receiver , each of said detectors providing a depressible rod in the area defined by the cassette receiver , wherein each of the depressible rods is configured to be depressed by one of the positioning surfaces of the cassette ; characterised in that : the two detectors are mounted diagonally within the area defined by the cassette receiver ; and further characterised by : a comparator configured to compare, based on an electrical resistance reading from each of the detectors, an extent of the depression of one of the depressible rods with that of another of the depressible rods to assess at least one of an alignment and an attitude of the cassette with respect to the cassette receiver .
A robotic apparatus for investigating a confined area, said robotic apparatus comprising: an articulated robot for insertion into a confined area, the robotic apparatus further comprising a robot control system for controlling said articulated robot , said robot control system comprising a control unit , a robot driving means , a seal for isolating the confined area from the external environment and a plurality of transmission members , wherein said control unit is configured to send control signals to said robot driving means , wherein said plurality of transmission members extend from said robot driving means to connect to said articulated robot , characterised in that each transmission member within said plurality of transmission members extends through a separate aperture in said seal .. an articulated robot for insertion into a confined area, the robotic apparatus further comprising a robot control system for controlling said articulated robot , said robot control system comprising a control unit , a robot driving means , a seal for isolating the confined area from the external environment and a plurality of transmission members , wherein said control unit is configured to send control signals to said robot driving means , the robotic apparatus further comprising a robot control system for controlling said articulated robot , said robot control system comprising a control unit , a robot driving means , a seal for isolating the confined area from the external environment and a plurality of transmission members , wherein said control unit is configured to send control signals to said robot driving means , wherein said plurality of transmission members extend from said robot driving means to connect to said articulated robot , characterised in that each transmission member within said plurality of transmission members extends through a separate aperture in said seal ..
A computer-implemented method of generating a virtual depiction of an orthodontic treatment of a patient, the computer-implemented method comprising: receiving, from a digital imaging device , one or more 2D images of a patient's face comprising a mouth region, wherein the one or more 2D images comprise a depiction of the patient's teeth in an initial arrangement; processing the one or more received 2D images, wherein the processing comprises extracting teeth contours of the patient's teeth from within the mouth region of the one or more received 2D images of the patient's face; generating, using a neural network, a 2D rendering depicting a post-treatment arrangement of the patient's teeth based on the one or more received 2D images; and forming a realistic composite 2D image depicting the patient's face with the 2D rendering depicting the post-treatment arrangement of the patient's teeth, based on a comparison between the extracted teeth contours and teeth contours of the 2D rendering. receiving, from a digital imaging device , one or more 2D images of a patient's face comprising a mouth region, wherein the one or more 2D images comprise a depiction of the patient's teeth in an initial arrangement; processing the one or more received 2D images, wherein the processing comprises extracting teeth contours of the patient's teeth from within the mouth region of the one or more received 2D images of the patient's face; generating, using a neural network, a 2D rendering depicting a post-treatment arrangement of the patient's teeth based on the one or more received 2D images; and forming a realistic composite 2D image depicting the patient's face with the 2D rendering depicting the post-treatment arrangement of the patient's teeth, based on a comparison between the extracted teeth contours and teeth contours of the 2D rendering.
A method of fabricating a semiconductor structure, comprising: forming a nanocrystalline core from a first semiconductor material; forming at least one nanocrystalline shell from a second, different, semiconductor material that at least partially surrounds the nanocrystalline core, wherein the nanocrystalline core and the nanocrystalline shell(s) form a quantum dot; forming an insulator layer, comprising a silica layer, encapsulating the quantum dot to create a coated quantum dot; and forming at least one additional insulator layer, comprising a silica layer, on the coated quantum dot, wherein after forming the insulator layer encapsulating the quantum dot to create a coated quantum dot, and prior to forming the at least one additional insulator layer on the coated quantum dot, treating the coated quantum dot with a base, wherein after the treatment with the base removing an excess of the base, and wherein forming the insulator layer encapsulating the quantum dot to create a coated quantum dot comprises forming a first insulator layer encapsulating the quantum dot using a reverse micelle sol-gel reaction; and wherein forming the additional insulator layers on the coated quantum dot comprises forming an additional insulating layer encapsulating the quantum dot using a reverse micelle sol-gel process using Igepal, a direct micelle sol-gel process using dioctyl sodium sulfosuccinate (AOT), or a Stober sol-gel process. forming a nanocrystalline core from a first semiconductor material; forming at least one nanocrystalline shell from a second, different, semiconductor material that at least partially surrounds the nanocrystalline core, wherein the nanocrystalline core and the nanocrystalline shell(s) form a quantum dot; forming an insulator layer, comprising a silica layer, encapsulating the quantum dot to create a coated quantum dot; and forming at least one additional insulator layer, comprising a silica layer, on the coated quantum dot, wherein after forming the insulator layer encapsulating the quantum dot to create a coated quantum dot, and prior to forming the at least one additional insulator layer on the coated quantum dot, treating the coated quantum dot with a base, wherein after the treatment with the base removing an excess of the base, and wherein forming the insulator layer encapsulating the quantum dot to create a coated quantum dot comprises forming a first insulator layer encapsulating the quantum dot using a reverse micelle sol-gel reaction; and wherein forming the additional insulator layers on the coated quantum dot comprises forming an additional insulating layer encapsulating the quantum dot using a reverse micelle sol-gel process using Igepal, a direct micelle sol-gel process using dioctyl sodium sulfosuccinate (AOT), or a Stober sol-gel process.
A locking device for a container with a bottom wall and four foldable side walls which can be locked together in their upright position, wherein two opposing first side walls comprise latching elements , and wherein the two further opposing second side walls comprise counter latching elements , wherein, in a locked position of the locking device , latching elements of a first side wall cooperate with counter latching elements of an adjacent second side wall , wherein the locking device comprises an actuating element which is coupled to a latching element in such a way as to transfer the latching element from the locked position into an unlocked position, wherein the actuating element can be actuated by a lifting movement parallel to the first side wall , wherein the actuating element and the latching element are linearly translatably movable, with the locking device comprising a redirection mechanism such that the latching element is movable between the locked position and the unlocked position in a first direction which includes an angle unequal to 0° with a second direction of the lifting movement of the actuating element , characterised in that the redirection mechanism comprises at least two hinges and an intermediate piece, wherein the actuating element is articulated to the latching element by means of the at least two hinges , and wherein the redirection mechanism further comprises at least one spring element which resiliently bears the latching element and/or the actuating element and biases the same into the closed position.
A communications apparatus, wherein the communications apparatus is applied to a transceiver, and the communications apparatus comprises a digital front end unit and an analog front end drive unit ; a first port of the digital front end unit is configured to receive a first to-be-sent signal, and a second port of the digital front end unit is connected to a first port of the analog front end drive unit ; the digital front end unit receives the first to-be-sent signal, performs modulation processing on the first to-be-sent signal to obtain a second to-be-sent signal, and sends the second to-be-sent signal to the analog front end drive unit ; wherein a plurality of second ports of the analog front end drive unit are connected to a plurality of twisted pairs in a one-to-one manner; the analog front end drive unit performs conversion and duplication processing on the second to-be-sent signal to obtain a plurality of third to-be-sent signals, and sends the plurality of third to-be-sent signals to the plurality of twisted pairs through the plurality of second ports of the analog front end drive unit in a one-to-one manner; and the plurality of third to-be-sent signals are respectively sent through the plurality of twisted pairs . a first port of the digital front end unit is configured to receive a first to-be-sent signal, and a second port of the digital front end unit is connected to a first port of the analog front end drive unit ; the digital front end unit receives the first to-be-sent signal, performs modulation processing on the first to-be-sent signal to obtain a second to-be-sent signal, and sends the second to-be-sent signal to the analog front end drive unit ; wherein a plurality of second ports of the analog front end drive unit are connected to a plurality of twisted pairs in a one-to-one manner; the analog front end drive unit performs conversion and duplication processing on the second to-be-sent signal to obtain a plurality of third to-be-sent signals, and sends the plurality of third to-be-sent signals to the plurality of twisted pairs through the plurality of second ports of the analog front end drive unit in a one-to-one manner; and the plurality of third to-be-sent signals are respectively sent through the plurality of twisted pairs .
Aboard edge connector to which a board is inserted along an oblique direction relative to its fixed posture, wherein the connector comprises: a main body ; and a plurality of contacts arranged in juxtaposition on the main body along a direction perpendicular to an insertion direction of a board ; the contacts include contact portions projecting from the upper face of the main body , characterized in that the main body includes a convex portion formed as a projection from its upper face, the convex portion restricting insertion of the board to the main body at an angle exceeding a predetermined angle. a main body ; and a plurality of contacts arranged in juxtaposition on the main body along a direction perpendicular to an insertion direction of a board ; the contacts include contact portions projecting from the upper face of the main body , characterized in that the main body includes a convex portion formed as a projection from its upper face, the convex portion restricting insertion of the board to the main body at an angle exceeding a predetermined angle.
A method for forming a composite component , comprising: laying up a plurality of composite plies to form a composite ply layup ; partially processing the composite ply layup to form a green state layup ; machining the green state layup to define a machined surface along the machined green state layup; machining a sub-assembly in a green state to form a machined sub-assembly having a machined surface ; assembling the machined green state layup with the machined sub-assembly ; and processing the assembled machined green state layup and the machined sub-assembly to form the composite component , wherein machining the green state layup comprises removing at least a portion of a ply of the green state layup to shape the machined surface along the_machined green state layup to complement a contour of the machined sub-assembly against which the machined surface along the machined green state layup is positioned, wherein machining the sub-assembly comprises removing at least a portion of the sub-assembly to form the machined surface of the machined sub-assembly, and wherein assembling the machined green state layup with the machined sub-assemblies comprises positioning at least a portion of the machined surface of the machined green state layup against at least a portion of the machined surface of the machined sub-assembly to form an assembly having an interior machined interface comprising the machined surface of the machined green state layup and the machined surface of the machined sub-assembly. laying up a plurality of composite plies to form a composite ply layup ; partially processing the composite ply layup to form a green state layup ; machining the green state layup to define a machined surface along the machined green state layup; machining a sub-assembly in a green state to form a machined sub-assembly having a machined surface ; assembling the machined green state layup with the machined sub-assembly ; and processing the assembled machined green state layup and the machined sub-assembly to form the composite component , wherein machining the green state layup comprises removing at least a portion of a ply of the green state layup to shape the machined surface along the_machined green state layup to complement a contour of the machined sub-assembly against which the machined surface along the machined green state layup is positioned, wherein machining the sub-assembly comprises removing at least a portion of the sub-assembly to form the machined surface of the machined sub-assembly, and wherein assembling the machined green state layup with the machined sub-assemblies comprises positioning at least a portion of the machined surface of the machined green state layup against at least a portion of the machined surface of the machined sub-assembly to form an assembly having an interior machined interface comprising the machined surface of the machined green state layup and the machined surface of the machined sub-assembly.