mhurhangee/patent-ind-claim-en huggingface dataset:
Filter element for a filter , wherein the filter element features a filter media and a first end disc connected to the filter media , wherein a first bayonet projection for gripping behind a bayonet holder of a filter housing of the filter is disposed or provided on the first end disc and wherein the first bayonet projection projects with respect to the longitudinal axis of the filter element at least sectionwise radially beyond the filter media and protrudes with its free end radially towards the longitudinal axis of the filter element .
A cover for a shaft of a medical scoping device, the cover comprising a tubular member arranged for application over a distal tip of the medical scoping device shaft with the tubular member , in use, extending along a portion of the length of the distal end of the shaft, the tubular member comprising a proximal circumferential edge , a distal circumferential edge , an inner surface at least a part of which grips the shaft, and an outer surface , the cover comprising a plurality of projecting elements spaced apart circumferentially around the tubular member , each projecting element having a base portion and an arm portion , the base portion comprising first and second mountings by which the projecting element is pivotably mounted on the tubular member about a pivot axis, characterised in that the base portion comprises a detent , and the tubular member comprises a protuberance that provides a region that is elevated relative to at least a part of the surrounding surface to provide a clearly defined contact region , said contact region being so located that on pivoting movement of the projecting element towards the distal direction, the detent will impact on the contact region , thereby hindering further pivoting movement of the base of the projecting element .
A first terminal device comprising: a communication unit configured to perform radio communication; and a control unit configured to perform control so that a response to transmission of data from a second terminal device via inter-device communication is to be transmitted to the second terminal device via the inter-device communication between the first and second terminal devices via a sidelink, wherein the control unit is configured to determine a resource to be used for transmission of the response based on a condition related to the inter-device communication, characterized in that the control unit is further configured to associate, with the response, a symbol usable for gain control in demodulation of the response, based on a predetermined condition. a communication unit configured to perform radio communication; and a control unit configured to perform control so that a response to transmission of data from a second terminal device via inter-device communication is to be transmitted to the second terminal device via the inter-device communication between the first and second terminal devices via a sidelink, wherein the control unit is configured to determine a resource to be used for transmission of the response based on a condition related to the inter-device communication, characterized in that the control unit is further configured to associate, with the response, a symbol usable for gain control in demodulation of the response, based on a predetermined condition.
Shrink-fit chuck tool holder for a shank tool with a fastening section for connecting to a machine tool, a thermally expandable shrink-fit section , which has a bore for preferably centrally mounting a tool shank , and an adjusting device which is arranged in the bore to be axially movable and by means of which the axial position of the shank tool is adjusted prior to a shrink-fitting process in the shrink-fit section , wherein the adjusting device has an adjusting section for preferably stepless, axial positioning in the shrink-fit chuck tool holder and on the side facing the shank tool has a compensating section for compensating or at least reducing changes in position and/or location of the shank tool caused by shrinkage, wherein the compensating section has a reduced degree of hardness and/or greater elasticity than the shrink-fit tool holder , the adjusting section and the shank tool , wherein the the adjusting section is a length setting screw, characterised in that the compensating section is designed either as an O-ring provided and projecting in the length setting screw , which O-ring is mounted in a corresponding groove on the end face of the length setting screw ; or as an O-ring which is located in a conical section of the length setting screw so that the tapered face of a tool shank end fits against the latter.
An IC label for prevention of forgery comprising: a label substrate which has an adhesive agent for affixing the same to an object; a non-contact IC medium which is provided on the label substrate and has an IC chip for storing predetermined identification information and an antenna for wireless transmission of the identification information; and a security function portion which is provided on the label substrate , characterized in that the label substrate includes at least one of: a solvent detection portion which is dissolved by a peeling solvent for peeling the label substrate affixed to the object, or reacts chemically with the peeling solvent; and a heat detection portion which undergoes color change when heated or reacts chemically by the effect of heat. a label substrate which has an adhesive agent for affixing the same to an object; a non-contact IC medium which is provided on the label substrate and has an IC chip for storing predetermined identification information and an antenna for wireless transmission of the identification information; and a security function portion which is provided on the label substrate , characterized in that the label substrate includes at least one of: a solvent detection portion which is dissolved by a peeling solvent for peeling the label substrate affixed to the object, or reacts chemically with the peeling solvent; and a heat detection portion which undergoes color change when heated or reacts chemically by the effect of heat. a solvent detection portion which is dissolved by a peeling solvent for peeling the label substrate affixed to the object, or reacts chemically with the peeling solvent; and a heat detection portion which undergoes color change when heated or reacts chemically by the effect of heat.
A reaction method comprising a reaction step of reacting two or more substances with each other by using a pipette tip (A; 170), attached to a pipette nozzle (B; 116), for sucking or discharging a liquid to supply a liquid to a reaction field (C) and remove the liquid from the reaction field a plurality of times, the reaction method characterized by comprising: a first process of, prior to the reaction step, detecting (S120) an end height (h1) of the pipette tip (A; 170) and setting (S130) a reference height (h2) of the pipette nozzle (B; 116) on the basis of the end height of the pipette tip (A; 170); and a second process of correcting, in a course of the reaction step, the height (h2') of the pipette nozzle (B; 116) from the reference height so as to cancel out variation in the end height of the pipette tip (A; 170) due to a change in the temperature of the pipette tip (A; 170). a first process of, prior to the reaction step, detecting (S120) an end height (h1) of the pipette tip (A; 170) and setting (S130) a reference height (h2) of the pipette nozzle (B; 116) on the basis of the end height of the pipette tip (A; 170); and a second process of correcting, in a course of the reaction step, the height (h2') of the pipette nozzle (B; 116) from the reference height so as to cancel out variation in the end height of the pipette tip (A; 170) due to a change in the temperature of the pipette tip (A; 170).
A channel state information, CSI, measurement and feedback method, comprising: receiving, by a first network device, a second measurement pilot from a second network device; receiving (S302), by the first network device, a second signaling, where the second signaling carries configuration information of the second measurement pilot; measuring (S303), by the first network device, the second measurement pilot to obtain second CSI amd determining, by the first network device, a first signal according to the second CSI; sending (S304), by the first network device, the first signal to the second network device, wherein the first signal comprises second CSI, the second CSI comprises a range of a second RI and a second PMI, and wherein the first signal is used for the second network device to determine a first measurement pilot according to the first signal, and send the first measurement pilot to the first network device; receiving (S305), by the first network device, the first measurement pilot sent by the second network device; determining (S308), by the first network device, configuration information of the first measurement pilot; measuring (S309) the first measurement pilot to obtain first CSI, wherein the first CSI comprises a first rank indicator, RI, a first precoding matrix indicator, PMI, and a first channel quality indicator, CQI; and sending (S310), by the first network device, the first CSI to the second network device. receiving, by a first network device, a second measurement pilot from a second network device; receiving (S302), by the first network device, a second signaling, where the second signaling carries configuration information of the second measurement pilot; measuring (S303), by the first network device, the second measurement pilot to obtain second CSI amd determining, by the first network device, a first signal according to the second CSI; sending (S304), by the first network device, the first signal to the second network device, wherein the first signal comprises second CSI, the second CSI comprises a range of a second RI and a second PMI, and wherein the first signal is used for the second network device to determine a first measurement pilot according to the first signal, and send the first measurement pilot to the first network device; receiving (S305), by the first network device, the first measurement pilot sent by the second network device; determining (S308), by the first network device, configuration information of the first measurement pilot; measuring (S309) the first measurement pilot to obtain first CSI, wherein the first CSI comprises a first rank indicator, RI, a first precoding matrix indicator, PMI, and a first channel quality indicator, CQI; and sending (S310), by the first network device, the first CSI to the second network device.
A multi-well plate comprising: a top portion placed in a horizontal direction; a bottom portion opposing the top portion in a direction crossing the horizontal direction; and a plurality of wells of which each is formed so as to be recessed from the top portion toward the bottom portion , wherein the plurality of wells are horizontally arranged in a matrix with a plurality of rows and a plurality of columns, each of the wells has an opening formed at the top portion , and a peripheral wall extending from a periphery of the opening to the bottom portion , and at least two of the plurality of wells respectively include marks (S1; S2; S3; S4) of which each contains at least one symbol, the multi-well plate characterised in that each of the marks (S1; S2; S3; S4) is placed at an opening peripheral wall end portion of a corresponding one of the peripheral walls , each opening peripheral wall end portion being located close to a corresponding one of the openings . a top portion placed in a horizontal direction; a bottom portion opposing the top portion in a direction crossing the horizontal direction; and a plurality of wells of which each is formed so as to be recessed from the top portion toward the bottom portion , wherein the plurality of wells are horizontally arranged in a matrix with a plurality of rows and a plurality of columns, each of the wells has an opening formed at the top portion , and a peripheral wall extending from a periphery of the opening to the bottom portion , and at least two of the plurality of wells respectively include marks (S1; S2; S3; S4) of which each contains at least one symbol, the multi-well plate characterised in that each of the marks (S1; S2; S3; S4) is placed at an opening peripheral wall end portion of a corresponding one of the peripheral walls , each opening peripheral wall end portion being located close to a corresponding one of the openings .
A wearable device comprising: - an electronic circuit , - a power supply , - a switching circuit coupled between the electronic circuit and the power supply, and - an electromagnetic field detection circuit coupled to the switching circuit for detecting an electromagnetic field generated by an NFC transmitter within the detection range of the electromagnetic field detection circuit and for generating a trigger signal if an electromagnetic field generated by an NFC transmitter is detected within the detection range of the electromagnetic field detection circuit, characterized in that said switching circuit comprises a flip-flop to switch the connection between the electronic circuit and the power supply on in response to the trigger signal. - an electronic circuit , - a power supply , - a switching circuit coupled between the electronic circuit and the power supply, and - an electromagnetic field detection circuit coupled to the switching circuit for detecting an electromagnetic field generated by an NFC transmitter within the detection range of the electromagnetic field detection circuit and for generating a trigger signal if an electromagnetic field generated by an NFC transmitter is detected within the detection range of the electromagnetic field detection circuit,
A condensate pump arrangement comprising: a housing; a reservoir portion formed within the housing; a pump portion formed within the housing; and a pump located within the pump portion and comprising a first fluid outlet and a fluid inlet ; wherein the fluid inlet is configured to draw fluid from the reservoir portion, wherein the first fluid outlet is configured to connect to a discharge line , characterized in that the pump comprises a second fluid outlet , the second fluid outlet is configured to selectively expel a jet of fluid into the reservoir portion, and the second fluid outlet is configured to expel the jet of fluid towards a filter within the reservoir portion a housing; a reservoir portion formed within the housing; a pump portion formed within the housing; and a pump located within the pump portion and comprising a first fluid outlet and a fluid inlet ; wherein the fluid inlet is configured to draw fluid from the reservoir portion, wherein the first fluid outlet is configured to connect to a discharge line , characterized in that the pump comprises a second fluid outlet , the second fluid outlet is configured to selectively expel a jet of fluid into the reservoir portion, and the second fluid outlet is configured to expel the jet of fluid towards a filter within the reservoir portion
A computer-implemented method for caching anticipated motion vectors for player input motion compensation comprising: transmitting a previously generated motion vector library from a server to a client, wherein the generated motion vector library comprises sets of anticipated motion vectors with an associated player input and wherein the motion vectors comprise a motion vector for each macroblock; instructing the client to: monitor for player input and compare incoming player inputs from a user to entries in the received motion vector library, and in response to an incoming player input matching an entry in the received motion vector library, use motion vectors associated with the matched entry to apply player input motion compensation by applying the motion vectors to a next available frame from the server in a graphic interface prior to receipt of actual motion vector data of a frame associated with the incoming player input; during runtime of a game instance, receiving a game event, wherein a game event comprises any game event that changes a relationship between player input and motion vectors in the received motion vector library; in response to receiving the game event, transmitting a context update to the client; and instructing the client to update the received motion vector library using the context update, wherein a context update enables, disables or changes the sets of anticipated motion vectors associated with a given player input. transmitting a previously generated motion vector library from a server to a client, wherein the generated motion vector library comprises sets of anticipated motion vectors with an associated player input and wherein the motion vectors comprise a motion vector for each macroblock; instructing the client to: monitor for player input and compare incoming player inputs from a user to entries in the received motion vector library, and in response to an incoming player input matching an entry in the received motion vector library, use motion vectors associated with the matched entry to apply player input motion compensation by applying the motion vectors to a next available frame from the server in a graphic interface prior to receipt of actual motion vector data of a frame associated with the incoming player input; during runtime of a game instance, receiving a game event, wherein a game event comprises any game event that changes a relationship between player input and motion vectors in the received motion vector library; in response to receiving the game event, transmitting a context update to the client; and instructing the client to update the received motion vector library using the context update, wherein a context update enables, disables or changes the sets of anticipated motion vectors associated with a given player input.
A washing machine assembly , comprising: a body ; an outer drum connected to the body , the outer drum forming a receiving cavity and an opening groove in communication with receiving cavity therein; an inner drum located in the receiving cavity , the inner drum forming a washing tank ; a door assembly rotatably connected to the outer drum for opening or closing to the outer drum , the door assembly covering the outer drum to block the opening groove , and the door assembly forming a mounting hole therein; and an ultrasonic device located in the mounting hole and connected to the door assembly , and the ultrasonic device being at least partially located in the washing tank when the door assembly is closed; and characterized in that the ultrasonic device comprises an excitation plate and a vibrator provided on the excitation plate , the excitation plate is located in the mounting hole and connected to the door assembly , and the vibrator is located in the mounting hole . a body ; an outer drum connected to the body , the outer drum forming a receiving cavity and an opening groove in communication with receiving cavity therein; an inner drum located in the receiving cavity , the inner drum forming a washing tank ; a door assembly rotatably connected to the outer drum for opening or closing to the outer drum , the door assembly covering the outer drum to block the opening groove , and the door assembly forming a mounting hole therein; and an ultrasonic device located in the mounting hole and connected to the door assembly , and the ultrasonic device being at least partially located in the washing tank when the door assembly is closed; and characterized in that the ultrasonic device comprises an excitation plate and a vibrator provided on the excitation plate , the excitation plate is located in the mounting hole and connected to the door assembly , and the vibrator is located in the mounting hole .
A hydrodesulfurization catalyst for a hydrocarbon oil comprising at least one type of metal component selected from Groups VIA and VIII in the periodic table, supported on a silica-titania-alumina support where the total of the diffraction peak area indicating the crystal structure of anatase titania planes and the diffraction peak area indicating the crystal structure of rutile titania planes is 1/4 or less of the diffraction peak area indicating the aluminum crystal structure ascribed to y-alumina planes, as measured by X-ray diffraction analysis, the catalyst having (a) a specific surface area (SA) of 150 m 2 /g or greater, as measured by a BET method, (b) a total pore volume (PVo) of 0.30 ml/g or greater, as measured by a mercury intrusion technique with mercury contact angle: 135 degree and surface tension: 480 dyn/cm, (c) an average pore diameter (PD) of 6 to 15 nm (60 to 150 Å), wherein the PD is a pore diameter corresponding to 50 percent of the PVo, and (d) the ratio of the pore volume (PVp) of pores having diameters within ±30 percent of the average pore diameter (PD) being 70 percent or greater of the total pore volume (PVo); wherein said silica-titania-alumina support contains silica in the form of SiO 2 in an amount of 2 to 5 percent by mass, titania in the form of TiO 2 in an amount of 15 to 25 percent by mass, and alumina in the form of Al 2 O 3 in an amount of 70 to 83 percent by mass, all on the support basis.
A method for recovering uranium, comprising: (A) dissolving uranium hexafluoride directly into an ionic liquid at concentrations greater than or equal to 0.5 M to form a solid precipitate in an ionic liquid solution; separating the solid precipitate from the ionic liquid solution; and thermal processing the solid precipitate; or (B) dissolving uranium hexafluoride directly into an ionic liquid at concentrations greater than 0M and less than or equal to 0.5 M; and applying a potential to the ionic liquid to deposit uranium onto an electrode as a metal. (A) dissolving uranium hexafluoride directly into an ionic liquid at concentrations greater than or equal to 0.5 M to form a solid precipitate in an ionic liquid solution; separating the solid precipitate from the ionic liquid solution; and thermal processing the solid precipitate; or (B) dissolving uranium hexafluoride directly into an ionic liquid at concentrations greater than 0M and less than or equal to 0.5 M; and applying a potential to the ionic liquid to deposit uranium onto an electrode as a metal.
Use of a polymer for improving the cleanability of a surface coating or for reducing the dirt pick up of a surface coating, wherein the polymer is a non-crosslinked polymer having a polymer main chain comprising i) polysiloxane segments comprising repeating units of the formula (I) wherein R 1 independent of each occurrence represents a hydrocarbyl group and n is an integer in the range of 6 to 150, and ii) non-polysiloxane segments having at least one functional group comprising at least one of hydroxyl group, acryloyl group, methacryloyl group, acetyl group, urethane group, and methyl ether group, wherein the number of links between non-polysiloxane segments and polysiloxane segments in the polymer is less than 9.5 %, calculated on the average number of silicon atoms per polysiloxane segment, and wherein at least one non-polysiloxane segment is located between two polysiloxane segments. i) polysiloxane segments comprising repeating units of the formula (I) wherein R 1 independent of each occurrence represents a hydrocarbyl group and n is an integer in the range of 6 to 150, and ii) non-polysiloxane segments having at least one functional group comprising at least one of hydroxyl group, acryloyl group, methacryloyl group, acetyl group, urethane group, and methyl ether group,