mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pressing device comprising: a pair of rollers that rotate while pressing a battery cell of flattened rectangular form, in which is disposed a battery element having electrodes and separators layered inside an external packaging ; and transport means for transporting the battery cell at a speed that is synchronized with the rotational speed of the rollers when the battery cell is to be pressed by the rollers , wherein the transport means is adapted to transport the flattened battery cell in a state, in which a short edge of the rectangular form is standing vertically, and wherein the battery cell is pressed by sandwiching the battery cell in that state between the pair of rollers . a pair of rollers that rotate while pressing a battery cell of flattened rectangular form, in which is disposed a battery element having electrodes and separators layered inside an external packaging ; and transport means for transporting the battery cell at a speed that is synchronized with the rotational speed of the rollers when the battery cell is to be pressed by the rollers , wherein the transport means is adapted to transport the flattened battery cell in a state, in which a short edge of the rectangular form is standing vertically, and wherein the battery cell is pressed by sandwiching the battery cell in that state between the pair of rollers .
A method of detecting that a surgical instrument does not have a surgical cartridge in an unfired condition mounted to the surgical instrument , the surgical instrument including an actuation output that is actuated in a first direction to fire the surgical cartridge in the unfired condition when the surgical cartridge in the unfired condition is mounted to the surgical instrument , the method comprising: as part of an initial check to determine whether a surgical cartridge in an unfired condition is present for use in deploying staples from the surgical cartridge by actuating the actuation output in the first direction: commanding a movement of the actuation output by a predetermined amount in a second direction, the second direction being opposite to the first direction; detecting that the commanded movement of the actuation output in the second direction has produced movement of the actuation output by a threshold amount in the second direction; and in response to detecting the movement of the actuation output by the threshold amount in the second direction, determining that the surgical instrument does not have the surgical cartridge in the unfired condition mounted to the surgical instrument . commanding a movement of the actuation output by a predetermined amount in a second direction, the second direction being opposite to the first direction; detecting that the commanded movement of the actuation output in the second direction has produced movement of the actuation output by a threshold amount in the second direction; and in response to detecting the movement of the actuation output by the threshold amount in the second direction, determining that the surgical instrument does not have the surgical cartridge in the unfired condition mounted to the surgical instrument .
A drug delivery compartment, suitable for anchoring of an intrauterine device (IUD) or intrauterine system (IUS) to the fundus of a post-Cesarean section uterus, which drug delivery compartment comprises an IUD or IUS, and an anchoring knot , whereby said knot comprises a body and a noose, characterized in that said drug delivery compartment further comprises a biodegradable suture , and whereby threading of the biodegradable suture through said noose allows for a temporary fixation of the IUD or IUS to soft muscular tissue, as to prevent the IUD or IUS from being expelled from the uterus.
A system for treating a target site of body tissue the system comprising: a source electrode configured to be placed proximate to a target site of body tissue in vivo; a counter electrode in electrical communication with the source electrode; a power source configured to generate a potential difference between the source electrode and the counter electrode; J the counter electrode being configured to cooperate with the source electrode to form a localized electric field proximate to the target site; wherein the localized electric field is configured to deliver at least a portion of a cargo to the target site when said potential difference is applied across the source and counter electrodes to form the localized electric field; a reservoir configured to place the cargo in the localized electric field, wherein the reservoir is disposed at least partially about the source electrode and has an opening; a cellulose membrane disposed across the opening and configured to partially seal the reservoir such that upon activation of the electric field the cargo diffuses through the membrane out of the reservoir and toward the counter electrode; and a radiation source configured to apply a radiation to the target site from a position external to the body. a source electrode configured to be placed proximate to a target site of body tissue in vivo; a counter electrode in electrical communication with the source electrode; a power source configured to generate a potential difference between the source electrode and the counter electrode; J the counter electrode being configured to cooperate with the source electrode to form a localized electric field proximate to the target site; wherein the localized electric field is configured to deliver at least a portion of a cargo to the target site when said potential difference is applied across the source and counter electrodes to form the localized electric field; a reservoir configured to place the cargo in the localized electric field, wherein the reservoir is disposed at least partially about the source electrode and has an opening; a cellulose membrane disposed across the opening and configured to partially seal the reservoir such that upon activation of the electric field the cargo diffuses through the membrane out of the reservoir and toward the counter electrode; and a radiation source configured to apply a radiation to the target site from a position external to the body.
A method of papermaking comprising filler, the method comprising the steps of: providing filler particles and cellulose fiber stock, treating the filler particles with a composition comprising at least one natural gum selected from xanthan gum or guar gum, treating the cellulose fiber stock with a wet web strength additive comprising GPAM, combining the filler particles and cellulose fiber stock, and forming a paper mat from the combination; wherein the cellulose fiber stock comprises a plurality of cellulose fibers and water, and the resulting paper has greater strength than the sum of the strength improvements that the natural gum composition and the wet web strength additive impart alone, and wherein the natural gum composition is added to the filler particles before they are added to the cellulose fiber stock. providing filler particles and cellulose fiber stock, treating the filler particles with a composition comprising at least one natural gum selected from xanthan gum or guar gum, treating the cellulose fiber stock with a wet web strength additive comprising GPAM, combining the filler particles and cellulose fiber stock, and forming a paper mat from the combination; wherein the cellulose fiber stock comprises a plurality of cellulose fibers and water, and the resulting paper has greater strength than the sum of the strength improvements that the natural gum composition and the wet web strength additive impart alone, and wherein the natural gum composition is added to the filler particles before they are added to the cellulose fiber stock.
An isolated caninized antibody that specifically binds interleukin-4 receptor alpha (IL4Rα) comprising a canine IgG heavy chain and a canine kappa light chain; wherein the canine kappa light chain comprises three light chain complementary determining regions (CDRs): CDR light 1 (CDRL1), CDR light 2 (CDRL2), and CDR light 3 (CDRL3), and the canine IgG heavy chain comprises three heavy chain CDRs: CDR heavy 1 (CDRH1), CDR heavy 2 (CDRH2) and CDR heavy 3 (CDRH3): (a) wherein CDRL1 comprises the amino acid sequence of SEQ ID NO: 43; (b) wherein CDRL2 comprises the amino acid sequence comprising SEQ ID NO: 44; (c) wherein CDRL3 comprises the amino acid sequence of SEQ ID NO: 45; (d) wherein CDRH1 comprises the amino acid sequence of SEQ ID NO: 46; (e) wherein CDRH2 comprises the amino acid sequence of SEQ ID NO: 47; and (f) wherein CDRH3 comprises the amino acid sequence of SEQ ID NO: 48; wherein the IgG heavy chain comprises an amino acid sequence selected from the group consisting of SEQ ID NO: 28, SEQ ID NO: 30, and SEQ ID NO: 32. (a) wherein CDRL1 comprises the amino acid sequence of SEQ ID NO: 43; (b) wherein CDRL2 comprises the amino acid sequence comprising SEQ ID NO: 44; (c) wherein CDRL3 comprises the amino acid sequence of SEQ ID NO: 45; (d) wherein CDRH1 comprises the amino acid sequence of SEQ ID NO: 46; (e) wherein CDRH2 comprises the amino acid sequence of SEQ ID NO: 47; and (f) wherein CDRH3 comprises the amino acid sequence of SEQ ID NO: 48;
A cover structure, in particular for a battery, having an SMC main body provided with a flame retardant coating , characterized in that the flame retardant coating realized from at least one molded part, and an SMC blank forming the SMC main body are pressed together in an SMC mold, wherein the flame retardant coating has a perforation in accordance with a predetermined grid, wherein openings formed by the perforation are designed in such a way that a plastic matrix of the SMC blank can pass through or enter said openings during the pressing together.
A modular dog toy comprising three disparately sized and shaped components, each of these three components having: - a male connector and a female connector spaced apart about their surface for engagement of one of the other components, each of the three components having - an internal cavity for reception of a foodstuff and a charging aperture in communication with the internal cavity for providing access to the cavity; and in which the three components further comprise a main component and a pair of auxiliary components , the main component having at least one additional connector spaced apart from the other connectors about its surface, and in which the male connector has a plurality of collars (11 (a), 11 (b), 11 (c), 11 (d)) surrounding the connector spaced apart from each other and the female connector has a plurality of inwardly depending flanges (9(a), 9(b)) spaced apart from each other, and in which one of the plurality of collars (11 (a), 11 (b), 11 (c), 11 (d)) and the plurality of inwardly depending flanges (9(a), 9(b)) are saw-tooth shaped such that when the female connector is disconnected from the male connector of one of the other components, access to the internal cavity of the first component is provided therefrom. - a male connector and a female connector spaced apart about their surface for engagement of one of the other components, each of the three components having - an internal cavity for reception of a foodstuff and a charging aperture in communication with the internal cavity for providing access to the cavity;
A coilover shock absorber comprising a damper element and a coil spring where the damper element comprises a damper cylinder and a piston , where the coilover shock absorber comprises a first mount for the damper element and a second mount for the damper element , and where the coilover shock absorber comprises a first seat for the coil spring and a second seat for the coil spring , where the first mount for the damper element is operatively separate from the first seat for the coil spring , wherein the second mount for the damper element is operatively separate from the second seat for the coil spring , characterized in that the second seat for the coil spring is arranged on an elongated springseat having a first end , a body and a second end wherein the length of the elongated springseat is 15 at least half of the length of the damper cylinder and wherein the body of the elongated springseat is circular.
A cleaner comprising: a first cleaning module comprising a left spin mop and a right spin mop configured to come into contact with a floor while rotating; a second cleaning module being in front of the first cleaning module ; and a body supported by the first cleaning module and the second cleaning module , characterized in that a point (Pla) on a bottom surface of the left spin mop that receives largest frictional force from the floor is located on a left-front side of a rotation center of the left spin mop , and a point (Plb) on a bottom surface of the right spin mop that receives largest frictional force from the floor is located on a right-front side of a rotation center of the right spin mop . a first cleaning module comprising a left spin mop and a right spin mop configured to come into contact with a floor while rotating; a second cleaning module being in front of the first cleaning module ; and a body supported by the first cleaning module and the second cleaning module , characterized in that a point (Pla) on a bottom surface of the left spin mop that receives largest frictional force from the floor is located on a left-front side of a rotation center of the left spin mop , and a point (Plb) on a bottom surface of the right spin mop that receives largest frictional force from the floor is located on a right-front side of a rotation center of the right spin mop .
A method of generating a circular frame (920; 1020) for finding a path in each layer of a multilayered structure comprising one of a building with several floors, a printed circuit board, PCB, and a semiconductor chip, which is performed by a computing device comprising one or more processors and a memory storing one or more programs that can be executed by the one or more processors , the method comprising: identifying a plurality of path connection elements included in each layer of a multilayered structure including a plurality of layers and one or more links formed between adjacent layers; generating , for each layer of the multilayered structure , an embedded frame (410, 420, 430; 510) including the plurality of path connection elements identified in each layer of the multilayered structure ; generating , for each layer, a topological frame including an outer boundary surrounding one or more punctures formed by the one or more links among the plurality of path connection elements included in the embedded frame (410, 420, 430; 510) and one or more local path points arranged on a boundary of each of the one or more punctures , wherein the one or more local path points comprise one or more starting points and end points of partial paths of a global path connecting a global path start point and a global path end point ; generating , for each layer, a circular frame (920; 1020) composed of a circular closed curve by merging the boundary of each of the one or more punctures and the outer boundary of the topological frame; and computing a path by connecting a straight line between points on the circular frame. identifying a plurality of path connection elements included in each layer of a multilayered structure including a plurality of layers and one or more links formed between adjacent layers; generating , for each layer of the multilayered structure , an embedded frame (410, 420, 430; 510) including the plurality of path connection elements identified in each layer of the multilayered structure ; generating , for each layer, a topological frame including an outer boundary surrounding one or more punctures formed by the one or more links among the plurality of path connection elements included in the embedded frame (410, 420, 430; 510) and one or more local path points arranged on a boundary of each of the one or more punctures , wherein the one or more local path points comprise one or more starting points and end points of partial paths of a global path connecting a global path start point and a global path end point ; generating , for each layer, a circular frame (920; 1020) composed of a circular closed curve by merging the boundary of each of the one or more punctures and the outer boundary of the topological frame; and computing a path by connecting a straight line between points on the circular frame.
A mold comprising a passage and a physical stop defined as part of the mold the mold being configured to be actuated between: a first, standard molding configuration in which the passage allows passage of air and prevents passage of the melt; and characterised by a second, cleaning configuration in which the passage is actuated such as to become part of a molding surface and in which the physical stop is actuated, in use, by the motion of the mold halves for stopping, at a predefined point, a melt front of the melt entering the passage . a first, standard molding configuration in which the passage allows passage of air and prevents passage of the melt; and characterised by a second, cleaning configuration in which the passage is actuated such as to become part of a molding surface and in which the physical stop is actuated, in use, by the motion of the mold halves for stopping, at a predefined point, a melt front of the melt entering the passage .
A method for manufacturing a bonded wafer comprising a semiconductor film on a surface of a handle substrate, the method comprising the steps of: implanting ions into a semiconductor substrate from a surface of the semiconductor substrate to form an ion-implanted layer ; subjecting at least one of the surface of the ion-implanted semiconductor substrate and the surface of the handle substrate to a surface activation treatment; bonding, after the surface activation treatment, the surface of the semiconductor substrate to the surface of the handle substrate at a temperature of from 50°C to 350°C; heating the bonded substrates at a maximum temperature of from 200°C to 350°C to obtain a bonded body ; and transferring the semiconductor film to the handle wafer by subjecting the bonded body to a temperature higher by 30°C to 100°C than the bonding temperature in the step of bonding, and to annealing by irradiating the bonded body with visible light having a peak wavelength in the wavelength region of 400 to 700 nm from a handle substrate side or a semiconductor substrate side toward the ion-implanted layer of the semiconductor substrate to make an interface of the ion-implanted layer brittle, the temperature of the bonded body during irradiation with visible light being higher by 30°C to 100°C than the bonding temperature in the step of bonding. implanting ions into a semiconductor substrate from a surface of the semiconductor substrate to form an ion-implanted layer ; subjecting at least one of the surface of the ion-implanted semiconductor substrate and the surface of the handle substrate to a surface activation treatment; bonding, after the surface activation treatment, the surface of the semiconductor substrate to the surface of the handle substrate at a temperature of from 50°C to 350°C; heating the bonded substrates at a maximum temperature of from 200°C to 350°C to obtain a bonded body ; and transferring the semiconductor film to the handle wafer by subjecting the bonded body to a temperature higher by 30°C to 100°C than the bonding temperature in the step of bonding, and to annealing by irradiating the bonded body with visible light having a peak wavelength in the wavelength region of 400 to 700 nm from a handle substrate side or a semiconductor substrate side toward the ion-implanted layer of the semiconductor substrate to make an interface of the ion-implanted layer brittle, the temperature of the bonded body during irradiation with visible light being higher by 30°C to 100°C than the bonding temperature in the step of bonding.
A system comprising: a microprocessor; and a computer readable medium, coupled with the microprocessor and comprising microprocessor readable and executable instructions that, when executed by the microprocessor, cause the microprocessor to: receive, from a user communication device , a first request to establish a first communication session with a contact center ; identify, based on a machine learned model of prior communication sessions with the contact center, a first set of one or more sensors (106A-106N) that are external to the user communication device; receive first external sensor information, wherein the first external sensor information is from the first set of one or more sensors that are external to the user communication device; and route the first communication session in the contact center based on the received first external sensor information. a microprocessor; and a computer readable medium, coupled with the microprocessor and comprising microprocessor readable and executable instructions that, when executed by the microprocessor, cause the microprocessor to: receive, from a user communication device , a first request to establish a first communication session with a contact center ; identify, based on a machine learned model of prior communication sessions with the contact center, a first set of one or more sensors (106A-106N) that are external to the user communication device; receive first external sensor information, wherein the first external sensor information is from the first set of one or more sensors that are external to the user communication device; and route the first communication session in the contact center based on the received first external sensor information. receive, from a user communication device , a first request to establish a first communication session with a contact center ; identify, based on a machine learned model of prior communication sessions with the contact center, a first set of one or more sensors (106A-106N) that are external to the user communication device; receive first external sensor information, wherein the first external sensor information is from the first set of one or more sensors that are external to the user communication device; and route the first communication session in the contact center based on the received first external sensor information.
A cap construction for a container, said cap construction comprising a storage space for dispersing a product into said container, said cap construction comprising a screw cap with a foil for closing said storage space ; wherein said cap construction furthermore comprises a support structure which is embodied for on the one hand by means of mutual screw-thread coupling same in a rotatable manner with the screw cap and, on the other hand, coupling the cap construction with the container and which is provided with a cutting element for cutting the foil , wherein said cutting element cuts through the foil upon rotating the screw cap with respect to the support structure , wherein the screw cap and the support structure are embodied for a mutual relative displacement in a screw direction for cutting the foil , characterized in that said support structure comprises a stop means for collecting the foil that was cut by said cutting element , and in that the stop means comprises a recess for collecting therein the foil , the access opening thereof being substantially directed into the screw direction of the support structure .
Composition comprising a) at least one epoxy resin, b) at least one amine having at least two secondary amino groups that are both part of an organic ring system, and c) at least one alkyl alcohol optionally substituted by at least one aromatic radical and/or by at least one alkenyl radical, where the contribution of the alcohol to the total concentration of OH groups is at least 1.3 mol/l. a) at least one epoxy resin, b) at least one amine having at least two secondary amino groups that are both part of an organic ring system, and c) at least one alkyl alcohol optionally substituted by at least one aromatic radical and/or by at least one alkenyl radical,