mhurhangee/patent-ind-claim-en huggingface dataset:
A bi-profiled fiber which (a) is composed of double-cross monofilaments and circular monofilaments simultaneously extruded from the same spinneret, (b) is made of modified polyester, and (c) is dispersed within by matte agents; wherein the modified polyester includes terephthalic acid segments, ethylene glycol segments and branched diol segments, and wherein said branched diol has a structural formula of in which R 1 and R 2 are separately selected from the linear alkylene with 1-3 carbon atoms, R 3 from the alkyl with 1-5 carbon atoms, and R 4 from the alkyl with 2-5 carbon atoms; wherein the matte agents are chosen as a mixture of amorphous titanium dioxide and amorphous silicon dioxide, or a mixture of calcium carbonate and amorphous silicon dioxide. (a) is composed of double-cross monofilaments and circular monofilaments simultaneously extruded from the same spinneret, (b) is made of modified polyester, and (c) is dispersed within by matte agents; wherein the modified polyester includes terephthalic acid segments, ethylene glycol segments and branched diol segments, and wherein said branched diol has a structural formula of in which R 1 and R 2 are separately selected from the linear alkylene with 1-3 carbon atoms, R 3 from the alkyl with 1-5 carbon atoms, and R 4 from the alkyl with 2-5 carbon atoms; wherein the matte agents are chosen as a mixture of amorphous titanium dioxide and amorphous silicon dioxide, or a mixture of calcium carbonate and amorphous silicon dioxide. wherein the modified polyester includes terephthalic acid segments, ethylene glycol segments and branched diol segments, and wherein said branched diol has a structural formula of in which R 1 and R 2 are separately selected from the linear alkylene with 1-3 carbon atoms, R 3 from the alkyl with 1-5 carbon atoms, and R 4 from the alkyl with 2-5 carbon atoms; wherein the matte agents are chosen as a mixture of amorphous titanium dioxide and amorphous silicon dioxide, or a mixture of calcium carbonate and amorphous silicon dioxide.
A method of non-contact printing composition(s) on a web , the method comprising the steps of: providing the web; forming a plurality of intermediate features in the web; capturing an image of a first group of the plurality of intermediate features; analyzing the image to determine a phase shift for the first group; non-contact printing a first composition to the web in a first plurality of composition sites , wherein the non-contact printing step is ink-jet printing, the first plurality of composition sites is in accordance with the image and each of the first plurality of compositions sites correspond to a corresponding intermediate feature; manipulating the web to form a plurality of apertures from the first plurality of intermediate features. providing the web; forming a plurality of intermediate features in the web; capturing an image of a first group of the plurality of intermediate features; analyzing the image to determine a phase shift for the first group; non-contact printing a first composition to the web in a first plurality of composition sites , wherein the non-contact printing step is ink-jet printing, the first plurality of composition sites is in accordance with the image and each of the first plurality of compositions sites correspond to a corresponding intermediate feature; manipulating the web to form a plurality of apertures from the first plurality of intermediate features.
A surface cleaning apparatus , comprising a housing including an upright handle assembly and a base mounted to the handle assembly and adapted for movement across a surface to be cleaned, a suction source , a suction nozzle assembly provided on the base , an agitator mounted within the suction nozzle assembly and defining a suction nozzle in fluid communication with the suction source , and a fluid delivery system provided on the housing and comprising a fluid supply chamber adapted to hold a supply of liquid, a fluid dispenser provided on the base in fluid communication with the fluid supply chamber , and a fluid delivery pathway between the fluid supply chamber and the fluid dispenser , the base including at least one integrated fluid delivery channel formed by a portion of the suction nozzle assembly , the integrated fluid delivery channel forming a portion of the fluid delivery pathway, and wherein the fluid dispenser is provided in the suction nozzle assembly to dispense fluid onto at least one of the agitator and the surface to be cleaned, characterized in that the fluid dispenser is provided to dispense fluid onto the agitator , which is in contact with the surface to be cleaned.
A method for irrigating a cannabis plant, the method comprising sequentially performing the steps of providing, before a pruning of the cannabis plant, water to the cannabis plant at a first rate, and changing, in a time window that extends from one hour before said pruning to one hour after said pruning, the rate of water provisioning to the cannabis plant from the first rate to a second rate, the second rate being lower than the first rate, and providing, after said pruning of the cannabis plant, water to the cannabis plant at the second rate for at least 15 minutes. providing, before a pruning of the cannabis plant, water to the cannabis plant at a first rate, and changing, in a time window that extends from one hour before said pruning to one hour after said pruning, the rate of water provisioning to the cannabis plant from the first rate to a second rate, the second rate being lower than the first rate, and providing, after said pruning of the cannabis plant, water to the cannabis plant at the second rate for at least 15 minutes.
A cartridge , comprising: a body adapted to contain a medicament; a bung slidably disposed in the body , the bung having a distal face and a proximal face ; a light element coupled to a component of the cartridge , wherein the light element is a light emitting device; characterized in that the light element is coupled to the proximal face of the bung and in that a power source is electrically, inductively or radio frequency coupled to the light element . a body adapted to contain a medicament; a bung slidably disposed in the body , the bung having a distal face and a proximal face ; a light element coupled to a component of the cartridge , wherein the light element is a light emitting device; characterized in that the light element is coupled to the proximal face of the bung and in that a power source is electrically, inductively or radio frequency coupled to the light element .
A pneumatic tire , comprising a belt formed of two inclined belt layers formed of a rubberized layer of cords extending in a manner inclined with respect to a tire circumferential direction, the cords crossing each other between the layers , wherein: at an unloaded condition, when the pneumatic tire is mounted to an applicable rim and is applied with a prescribed internal pressure, the two inclined belt layers have different tire widthwise widths (W1, W2); a tire radial outer side of the belt further includes a reinforcing belt formed of circumferential belt layers formed of a rubberized layer of cords extending along the tire circumferential direction; a circumferential rigidity of the reinforcing belt in a tire widthwise region between an end of one inclined belt layer and an end of the other inclined belt layer is higher than a circumferential rigidity of the reinforcing belt in a tire widthwise inner side of the region; characterised in that : among the two inclined belt layers, when W1 (mm) is a tire widthwise width of the one inclined belt layer having a larger tire widthwise width, W2 (mm) is a tire widthwise width of the other inclined belt layer , a ratio W2/W1 satisfies a relation expression 0.25 ≤ W 2 / W 1 ≤ 0.8 ; and in that the reinforcing belt is formed of two circumferential belt layers , wherein one circumferential belt layer is formed in a manner covering the entire belt and the other circumferential belt layer is separated with a tire equatorial plane (CL) as the boundary and disposed in merely a tire widthwise region between an end of the one inclined belt layer and an end of the other inclined belt layer . at an unloaded condition, when the pneumatic tire is mounted to an applicable rim and is applied with a prescribed internal pressure, the two inclined belt layers have different tire widthwise widths (W1, W2); a tire radial outer side of the belt further includes a reinforcing belt formed of circumferential belt layers formed of a rubberized layer of cords extending along the tire circumferential direction; a circumferential rigidity of the reinforcing belt in a tire widthwise region between an end of one inclined belt layer and an end of the other inclined belt layer is higher than a circumferential rigidity of the reinforcing belt in a tire widthwise inner side of the region;
A fiber optic connector for terminating a fiber optic cable, the connector comprising: an inner housing (120; 220a, 220b); an outer housing (140; 140'; 240) disposed radially outward of the inner housing (120; 220a, 220b); a connector sub-assembly (130; 230) that includes a ferrule basket (135; 235) configured to receive a ferrule (134; 234) that terminates a fiber of the fiber optic cable ; and a crimp sleeve (180; 280) that is configured to surround and to be crimped onto a rearward portion of the connector sub-assembly (130; 230) and configured to surround and to be crimped onto an end portion of the fiber optic cable , wherein the inner housing (120; 220a, 220b) is configured to be securely disposed about the crimp sleeve (180; 280), and wherein the outer housing (140; 140'; 240) is configured to be securely disposed about the inner housing (120; 220a, 220b), wherein the crimp sleeve (180; 280) is configured to be crimped onto a mandrel (138; 238) at a rear end of the connector sub-assembly (130; 230); and wherein the crimp sleeve extends over a rear portion of the mandrel (138; 238) to a shoulder portion (139; 239) of the mandrel (138; 238) and is configured to extend over a forward portion of the fiber optic cable ; characterized in that the crimp sleeve (180; 280) includes an annular barb (182; 282) or one or more circumferential barb portions at its rearward end that are configured to secure the inner housing (120; 220b) relative to the crimp sleeve (180; 280). an inner housing (120; 220a, 220b); an outer housing (140; 140'; 240) disposed radially outward of the inner housing (120; 220a, 220b); a connector sub-assembly (130; 230) that includes a ferrule basket (135; 235) configured to receive a ferrule (134; 234) that terminates a fiber of the fiber optic cable ; and a crimp sleeve (180; 280) that is configured to surround and to be crimped onto a rearward portion of the connector sub-assembly (130; 230) and configured to surround and to be crimped onto an end portion of the fiber optic cable , wherein the inner housing (120; 220a, 220b) is configured to be securely disposed about the crimp sleeve (180; 280), and wherein the outer housing (140; 140'; 240) is configured to be securely disposed about the inner housing (120; 220a, 220b), wherein the crimp sleeve (180; 280) is configured to be crimped onto a mandrel (138; 238) at a rear end of the connector sub-assembly (130; 230); and wherein the crimp sleeve extends over a rear portion of the mandrel (138; 238) to a shoulder portion (139; 239) of the mandrel (138; 238) and is configured to extend over a forward portion of the fiber optic cable ; characterized in that the crimp sleeve (180; 280) includes an annular barb (182; 282) or one or more circumferential barb portions at its rearward end that are configured to secure the inner housing (120; 220b) relative to the crimp sleeve (180; 280).
A battery monitoring device, comprising: a plurality of detectors (101-10n) provided corresponding to each of a plurality of battery modules (201-20n) constituting a battery pack , each including a detection circuit for detecting state data of the corresponding battery module (201-20n), and a first wireless circuit for wirelessly transmitting the detected state data; and a monitor including a second wireless circuit configured to receive the state data transmitted from the plurality of detectors (101-10n), wherein the first wireless circuit of a relay detector receives the state data wirelessly transmitted from another detector, and transmits wirelessly the received state data of the another detector to the second wireless circuit ; characterized in that each of the plurality of detectors (101-10n) is configured to transmit an update signal to the other detectors and receive reply signals via the first wireless circuit , update, as a relay detector, the detector with the highest received signal strength or smallest communication delay among the received reply signals, and transmit the updated relay detector to the monitor via the first wireless circuit ; and the monitor is configured to receive and store the updated relay detector. a plurality of detectors (101-10n) provided corresponding to each of a plurality of battery modules (201-20n) constituting a battery pack , each including a detection circuit for detecting state data of the corresponding battery module (201-20n), and a first wireless circuit for wirelessly transmitting the detected state data; and a monitor including a second wireless circuit configured to receive the state data transmitted from the plurality of detectors (101-10n), wherein the first wireless circuit of a relay detector receives the state data wirelessly transmitted from another detector, and transmits wirelessly the received state data of the another detector to the second wireless circuit ; characterized in that each of the plurality of detectors (101-10n) is configured to transmit an update signal to the other detectors and receive reply signals via the first wireless circuit , update, as a relay detector, the detector with the highest received signal strength or smallest communication delay among the received reply signals, and transmit the updated relay detector to the monitor via the first wireless circuit ; and transmit an update signal to the other detectors and receive reply signals via the first wireless circuit , update, as a relay detector, the detector with the highest received signal strength or smallest communication delay among the received reply signals, and transmit the updated relay detector to the monitor via the first wireless circuit ; and the monitor is configured to receive and store the updated relay detector.
A T cell activating bispecific antigen binding molecule comprising a first and a second antigen binding moiety, one of which is a Fab molecule capable of specific binding to CD3 and the other one of which is a Fab molecule capable of specific binding to a target cell antigen, and an Fc domain composed of a first and a second subunit capable of stable association; wherein the first antigen binding moiety is a crossover Fab molecule wherein either the variable or the constant regions of the Fab light chain and the Fab heavy chain are exchanged; and wherein (i) the second antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the Fab heavy chain of the first antigen binding moiety, and the first antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the first or second subunit of the Fc domain, or (ii) the first antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the Fab heavy chain of the second antigen binding moiety, and the second antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the first or the second subunit of the Fc domain.
A method implemented by a leader device of a mesh network, the method comprising: receiving over a secure connection, by a leader device, a petition to accept a commissioning device as a commissioner to commission joining devices to join the mesh network, the petition received as a request message including a commissioner identification string of the commissioning device; determining whether to accept or reject the received petition; transmitting a response including an indication of said determination; in response to said determination being an acceptance, updating an internal copy of a commissioning dataset of the leader device that tracks an active commissioner for the mesh network; and receiving, from the commissioning device, a command to initiate a joining mode for the mesh network. receiving over a secure connection, by a leader device, a petition to accept a commissioning device as a commissioner to commission joining devices to join the mesh network, the petition received as a request message including a commissioner identification string of the commissioning device; determining whether to accept or reject the received petition; transmitting a response including an indication of said determination; in response to said determination being an acceptance, updating an internal copy of a commissioning dataset of the leader device that tracks an active commissioner for the mesh network; and receiving, from the commissioning device, a command to initiate a joining mode for the mesh network.
A method of wireless communications by a user equipment, UE, in a subset of UEs, comprising: receiving a channel state information, CSI, decoder model and CSI encoder model from a base station on physical downlink control channel, PDSCH, or a media access control-control element, MAC-CE; training the CSI decoder model and CSI encoder model based on observed channel and interference conditions to obtain updated decoder coefficients and updated encoder coefficients; receiving an indication of resources for transmission of the updated encoder coefficients and the updated decoder coefficients; transmitting the updated decoder coefficients and the updated encoder coefficients to the base station in accordance with the indication of resources; and receiving updated common weights for an updated CSI decoder model and updated CSI encoder model from the base station, the updated common weights being for the subset of UEs for further training. receiving a channel state information, CSI, decoder model and CSI encoder model from a base station on physical downlink control channel, PDSCH, or a media access control-control element, MAC-CE; training the CSI decoder model and CSI encoder model based on observed channel and interference conditions to obtain updated decoder coefficients and updated encoder coefficients; receiving an indication of resources for transmission of the updated encoder coefficients and the updated decoder coefficients; transmitting the updated decoder coefficients and the updated encoder coefficients to the base station in accordance with the indication of resources; and receiving updated common weights for an updated CSI decoder model and updated CSI encoder model from the base station, the updated common weights being for the subset of UEs for further training.
An electrode, coated with a layer of a-C, wherein the layer of a-C comprises at least 10 each of first and second sub-layers, being (i) first sub-layers having high conductivity with a sp2 content of 60-95%, alternating with (ii) second sub-layers having high corrosion resistance with a sp2 content of 50-90%, wherein the sp2 content of the first sub-layers is at least 3% greater than the sp2 content of the second sub-layers. (i) first sub-layers having high conductivity with a sp2 content of 60-95%, alternating with (ii) second sub-layers having high corrosion resistance with a sp2 content of 50-90%, wherein the sp2 content of the first sub-layers is at least 3% greater than the sp2 content of the second sub-layers.
A microneedle unit , comprising: a microneedle (30; 100); and a microneedle container (20; 60), wherein the microneedle (30; 100) includes a base (31; 110, 120) having a projection forming surface (31; 110, 120a) on which a projection (32; 101) is formed and a supported surface (31b; 110b, 120b) which is an opposite side to the projection forming surface (31; 110, 120a), and a portion of the projection forming surface (31; 110, 120a), in which the projection (32; 101) is not provided, is an abutted section (31a1; 110c), the microneedle container (20; 60) includes a housing (22; 62) that houses the microneedle (30; 100) and a cover (21; 61) that covers the microneedle (30; 100) housed in the housing (22; 62), the housing (22; 62) includes a supporting section (22a; 62a) that supports the supported surface (31b; 110b, 120b), and the cover (21; 61) includes an abutment section that faces the abutted section (31a1; 110c), and a facing section that faces the projection (32; 101), and a distance (D1) between the abutment section and the facing section is larger than a distance (L) between the abutted section (31a1; 110c) and a distal end of the projection (32; 101) (32; 101) in an extending direction in which the projection extends, characterized in that a distance (D2) between the abutment section and the supporting section (22a; 62a) is smaller than a sum of a distance (T) between the abutted section (31a1; 110c) and the supported surface (31b; 110b, 120b) and a distance (L) between the abutted section (31a1; 110c) and the distal end of the projection (32; 101) in the extending direction. a microneedle (30; 100); and a microneedle container (20; 60), wherein the microneedle (30; 100) includes a base (31; 110, 120) having a projection forming surface (31; 110, 120a) on which a projection (32; 101) is formed and a supported surface (31b; 110b, 120b) which is an opposite side to the projection forming surface (31; 110, 120a), and a portion of the projection forming surface (31; 110, 120a), in which the projection (32; 101) is not provided, is an abutted section (31a1; 110c), the microneedle container (20; 60) includes a housing (22; 62) that houses the microneedle (30; 100) and a cover (21; 61) that covers the microneedle (30; 100) housed in the housing (22; 62), the housing (22; 62) includes a supporting section (22a; 62a) that supports the supported surface (31b; 110b, 120b), and the cover (21; 61) includes an abutment section that faces the abutted section (31a1; 110c), and a facing section that faces the projection (32; 101), and a distance (D1) between the abutment section and the facing section is larger than a distance (L) between the abutted section (31a1; 110c) and a distal end of the projection (32; 101) (32; 101) in an extending direction in which the projection extends, characterized in that a distance (D2) between the abutment section and the supporting section (22a; 62a) is smaller than a sum of a distance (T) between the abutted section (31a1; 110c) and the supported surface (31b; 110b, 120b) and a distance (L) between the abutted section (31a1; 110c) and the distal end of the projection (32; 101) in the extending direction.
A liquid phase refrigeration or heat pump cycle process with a liquid system wherein the process comprises: 1) absorbing heat by mixing two or more liquid phases endothermically in a phase transition; and 2) releasing heat exothermically by transforming a liquid phase into two or more liquid phases in a phase transition; and 3) adjusting the phase transition temperature such that the phase transition temperature of step 1) is different than the phase transition temperature of step 2). 1) absorbing heat by mixing two or more liquid phases endothermically in a phase transition; and 2) releasing heat exothermically by transforming a liquid phase into two or more liquid phases in a phase transition; and 3) adjusting the phase transition temperature such that the phase transition temperature of step 1) is different than the phase transition temperature of step 2).