mhurhangee/ep-ind-claims huggingface dataset:
A structure of a high-heeled shoe comprising at least an upper, a midsole, a bottom support board, and a shoe heel; the upper being attached to the midsole, the upper comprising at least a wearing opening; the midsole comprising a midsole bed and a front pad, the midsole bed having a posterior portion that is recessed to form a first trough, the front pad being mounted to an anterior portion of the midsole bed, the front pad being recessed to form a second trough and a third trough; the bottom support board being attached to a bottom surface of the midsole, the bottom support board comprising an anterior end portion and a posterior end portion, the anterior end portion of the bottom support board being mounted to the bottom surface of the midsole in such a way as to partially overlap the front pad located on the anterior portion of the midsole bed; and the shoe heel being mounted to the posterior end portion of the bottom support board. the upper being attached to the midsole, the upper comprising at least a wearing opening; the midsole comprising a midsole bed and a front pad, the midsole bed having a posterior portion that is recessed to form a first trough, the front pad being mounted to an anterior portion of the midsole bed, the front pad being recessed to form a second trough and a third trough; the bottom support board being attached to a bottom surface of the midsole, the bottom support board comprising an anterior end portion and a posterior end portion, the anterior end portion of the bottom support board being mounted to the bottom surface of the midsole in such a way as to partially overlap the front pad located on the anterior portion of the midsole bed; and the shoe heel being mounted to the posterior end portion of the bottom support board.
An isolated antibody that binds to human LAG3, wherein the antibody comprises (a) a VH domain comprising (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO:1, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO:2, and (iii) HVR-H3 comprising an amino acid sequence selected from SEQ ID NO:3; and (b) a VL domain comprising (i) HVR-L1 comprising the amino acid sequence of SEQ ID NO:4; (ii) HVR-L2 comprising the amino acid sequence of SEQ ID NO:5 and (iii) HVR-L3 comprising the amino acid sequence of SEQ ID NO:6.
An automated analyzer comprising: a specimen nozzle that performs both the function of pipetting a specimen from a specimen container accommodating the specimen and the function of pipetting a specimen diluted by the analyzer; means for washing the specimen nozzle with a predetermined detergent; and a control portion that controls the means for washing the specimen nozzle; wherein the control portion is configured to determine, when a pipetting process of a high-concentration specimen not being diluted and a pipetting process of a low-concentration specimen diluted by the analyzer are consecutively performed for the same specimen by the specimen nozzle, whether or not washing of the specimen nozzle is required before pipetting of the low-concentration specimen; and wherein the control portion is configured to control the means for washing the specimen nozzle to perform a washing processing in which the specimen nozzle is washed with the predetermined detergent between the pipetting process of the high-concentration specimen and the pipetting process of the low-concentration specimen, when the control portion determines that washing of the specimen nozzle is required before pipetting of the low-concentration specimen. a specimen nozzle that performs both the function of pipetting a specimen from a specimen container accommodating the specimen and the function of pipetting a specimen diluted by the analyzer; means for washing the specimen nozzle with a predetermined detergent; and a control portion that controls the means for washing the specimen nozzle; wherein the control portion is configured to determine, when a pipetting process of a high-concentration specimen not being diluted and a pipetting process of a low-concentration specimen diluted by the analyzer are consecutively performed for the same specimen by the specimen nozzle, whether or not washing of the specimen nozzle is required before pipetting of the low-concentration specimen; and wherein the control portion is configured to control the means for washing the specimen nozzle to perform a washing processing in which the specimen nozzle is washed with the predetermined detergent between the pipetting process of the high-concentration specimen and the pipetting process of the low-concentration specimen, when the control portion determines that washing of the specimen nozzle is required before pipetting of the low-concentration specimen.
A method for making a wall element including a conduit section using a vertical mold, which vertical mold consists of casting space limiting walls, wherein - onto bottom part of the space limited by a front wall, end walls (3,4) and the bottom part are placed elements for positioning conduits in the conduit section, - at least one conduit in the conduit section is placed into position, - at least one laterally movable fill mold is placed into the void between the casting area of the face of wall part and at least one side wall of the conduit section, - a movable back wall is installed against the conduit section and the mounted fill mold or molds, - the front wall and the back wall are locked to each other, - the upper part of the at least one conduit in the conduit section is locked into place, and - the casting of the wall element is carried out. - onto bottom part of the space limited by a front wall, end walls (3,4) and the bottom part are placed elements for positioning conduits in the conduit section, - at least one conduit in the conduit section is placed into position, - at least one laterally movable fill mold is placed into the void between the casting area of the face of wall part and at least one side wall of the conduit section, - a movable back wall is installed against the conduit section and the mounted fill mold or molds, - the front wall and the back wall are locked to each other, - the upper part of the at least one conduit in the conduit section is locked into place, and - the casting of the wall element is carried out.
A premounted fluid conveyance assembly for use with a cell expansion machine, the premounted fluid conveyance assembly comprising: a tubing-organizer comprising a shaft access aperture adapted for engaging a rotatable shaft of the cell expansion machine; and a fluid conveyance system at least partially attached to the tubing-organizer, the fluid conveyance system comprising: a gas transfer module attached to the tubing organizer; a length of tubing fluidly associated with the gas transfer module; and a bioreactor attached to the tubing organizer and fluidly associated with the length of tubing and the gas transfer module; wherein said bioreactor is attached to a bioreactor coupling that includes a shaft fitting, said shaft fitting including a spring member for engaging said shaft of the cell expansion machine; wherein the tubing-organizer and the fluid conveyance system are adapted to be detachably-attached to the cell expansion machine to facilitate a relatively quick exchange of a new or unused premounted fluid conveyance assembly. a tubing-organizer comprising a shaft access aperture adapted for engaging a rotatable shaft of the cell expansion machine; and a fluid conveyance system at least partially attached to the tubing-organizer, the fluid conveyance system comprising: a gas transfer module attached to the tubing organizer; a length of tubing fluidly associated with the gas transfer module; and a bioreactor attached to the tubing organizer and fluidly associated with the length of tubing and the gas transfer module; wherein said bioreactor is attached to a bioreactor coupling that includes a shaft fitting, said shaft fitting including a spring member for engaging said shaft of the cell expansion machine; a gas transfer module attached to the tubing organizer; a length of tubing fluidly associated with the gas transfer module; and a bioreactor attached to the tubing organizer and fluidly associated with the length of tubing and the gas transfer module; wherein said bioreactor is attached to a bioreactor coupling that includes a shaft fitting, said shaft fitting including a spring member for engaging said shaft of the cell expansion machine; wherein the tubing-organizer and the fluid conveyance system are adapted to be detachably-attached to the cell expansion machine to facilitate a relatively quick exchange of a new or unused premounted fluid conveyance assembly.
A pipe connection, particularly a gas-tight pipe screw connection, consisting of inner and outer parts (I, A), wherein the inner and outer parts (I, A) are an inner pipe part and an outer pipe part or two inner pipe parts and an outer collar, in which pipe connection the parts in the connecting region are connected by means of joining by way of contact-pressing and insert-pressing, wherein the pipe connection is established using three regions, wherein the connecting regions of the press fit and stop of the inner and outer parts (I, A) have cooperating press fit surfaces (1I, 1A) inclined in the end direction from the inner pipe part toward the pipe axis (x) and at the front have stop surfaces inclined towards these press fit surfaces (1I, 1A), wherein the press fit surfaces (1I, 1A) and the stop surfaces (21, 2A) have a truncated cone shape inclined oppositely directed, the outer part has an inclination of the press fit surface (1I, 1A) of approximately 1:10 in relation to the pipe diameter and the stop surface (2I, 2A) has an angle beta of 10° to 20°, preferably of approximately 15°, to the axis normal and wherein the transition is formed by the press fit and stop of the connected parts for said parts without contact with a coaxial intermediate space or hollow space through a coaxial recess from the inner wall surface in the outer part subject to the condition, that the quotient of length in the direction of the axis of the transition made without contact to the length of the press fit yields a value of 0.4 to 1.7.
Nebulizer for a fluid comprising: a replaceable container containing the fluid, a lock locking the nebulizer against further use in a first locked state when the container has to be replaced, wherein the first locked state is reset by resetting the lock if the container has been replaced, and a control member for controlling or driving the lock, wherein the control member is driven by the force of a spring, characterized in that the nebulizer is adapted to show one or more different or consecutive numbers alternately with one or more symbols indicating container replacement, and that the control member is ring-like and rotated stepwise by the force of the spring. a replaceable container containing the fluid, a lock locking the nebulizer against further use in a first locked state when the container has to be replaced, wherein the first locked state is reset by resetting the lock if the container has been replaced, and a control member for controlling or driving the lock, wherein the control member is driven by the force of a spring, characterized in that the nebulizer is adapted to show one or more different or consecutive numbers alternately with one or more symbols indicating container replacement, and that the control member is ring-like and rotated stepwise by the force of the spring.
Method for manufacturing a metal part with bi-metallic characteristic in an additive manufacturing process, comprising the steps of: a) providing a first powder of a metal with a first thermal expansion coefficient; b) providing a second powder of a metal with a second thermal expansion coefficient different from said first thermal expansion coefficient; c) manufacturing a first pure metal layer by successively melting layers of said first powder alone; d) manufacturing on said first pure metal layer a mixed layer by successively melting layers of a third powder being a mixture of said first and second powders, whereby the percentage of said first powder decreases from 100% to 0% with increasing thickness of said mixed layer, and whereby the percentage of said second powder increases at the same time from 0% to 100%; and e) manufacturing a second pure metal layer by successively melting layers of said second powder alone; wherein the metal with the larger thermal expansion coefficient is used for a colder side of the metal part and the metal with the lower thermal expansion is used for a hotter side of the metal part, wherein the intended deformation in a hot state of the metal part defines the change point from one powder to the other, and wherein the intended deformation in the hot state is optimized to be zero with minimal deviation from the design geometry, or a certain intended deformation is generated to optimize contact pressure and wear. a) providing a first powder of a metal with a first thermal expansion coefficient; b) providing a second powder of a metal with a second thermal expansion coefficient different from said first thermal expansion coefficient; c) manufacturing a first pure metal layer by successively melting layers of said first powder alone; d) manufacturing on said first pure metal layer a mixed layer by successively melting layers of a third powder being a mixture of said first and second powders, whereby the percentage of said first powder decreases from 100% to 0% with increasing thickness of said mixed layer, and whereby the percentage of said second powder increases at the same time from 0% to 100%; and e) manufacturing a second pure metal layer by successively melting layers of said second powder alone;
A transducer module for analysing a whole blood sample, comprising: a relatively fixed flow cell configured to receive the whole blood sample; a relatively fixed laser light source configured to emit a laser beam for irradiation of the whole blood sample within the flow cell; a first lens proximate to the laser light source, wherein the first lens is mounted on a first flexure hinge configured to only adjust lateral alignment of the laser beam in the x-direction relative to the laser light source; and a second lens, for longitudinal alignment of the laser beam, wherein the second lens is mounted on a second flexure hinge mounted on a movable carrier and movement of the movable carrier axially positions a focal point of the laser beam in the z-direction relative to the laser light source; wherein the second flexure hinge is configured to only adjust longitudinal alignment of the laser beam in the y-direction relative to the laser light source. a relatively fixed flow cell configured to receive the whole blood sample; a relatively fixed laser light source configured to emit a laser beam for irradiation of the whole blood sample within the flow cell; a first lens proximate to the laser light source, wherein the first lens is mounted on a first flexure hinge configured to only adjust lateral alignment of the laser beam in the x-direction relative to the laser light source; and a second lens, for longitudinal alignment of the laser beam, wherein the second lens is mounted on a second flexure hinge mounted on a movable carrier and movement of the movable carrier axially positions a focal point of the laser beam in the z-direction relative to the laser light source; wherein the second flexure hinge is configured to only adjust longitudinal alignment of the laser beam in the y-direction relative to the laser light source.
A discrete semiconductor device package comprising: a semiconductor die (110, 410) having a first surface and a second surface opposite said first surface, said a second surface carrying a contact; a conductive body on said contact. wherein the conductive body has a lateral dimension smaller than the lateral dimension of the semiconductor die (110, 410); an encapsulation material formed on top of the second surface to laterally encapsulate said conductive body; a capping member (140, 610) in conductive contact with the conductive body, said capping member extending over the encapsulation material, wherein the capping member (140, 610) comprises a further semiconductor die and a solder cap, the solder cap on the further semiconductor die, and a further solder cap in conductive contact with the first surface. a semiconductor die (110, 410) having a first surface and a second surface opposite said first surface, said a second surface carrying a contact; a conductive body on said contact. wherein the conductive body has a lateral dimension smaller than the lateral dimension of the semiconductor die (110, 410); an encapsulation material formed on top of the second surface to laterally encapsulate said conductive body; a capping member (140, 610) in conductive contact with the conductive body, said capping member extending over the encapsulation material, wherein the capping member (140, 610) comprises a further semiconductor die and a solder cap, the solder cap on the further semiconductor die, and a further solder cap in conductive contact with the first surface.
A communication method, comprising: reporting, by a user equipment, UE, group communication capability information of the UE to a cellular network access device; obtaining, by the UE, address information of the UE in a short range wireless communications network and a group identifier of the UE after the UE joins a UE group, wherein the group identifier is an identifier of the UE group, each UE in the UE group joins the same short range wireless communications network; and the address information of the UE in the short range wireless communications network and the group identifier of the UE are allocated by a server in the short range wireless communications network, wherein the server in the short range wireless communications network is a beacon device or a routing device, the beacon device is a UE in the UE group, and is a router or a WiFi server in the short range wireless communications network; reporting, by the UE, the group identifier of the UE to the cellular network access device, and receiving cellular network identity information allocated by the cellular network access device; and obtaining, by the UE, short range wireless communications network address information and cellular network identity information of one or more other UEs in the UE group except the UE; or reporting the short range wireless communications network address information and the cellular network identity information of the UE to the routing device in the short range wireless communications network. reporting, by a user equipment, UE, group communication capability information of the UE to a cellular network access device; obtaining, by the UE, address information of the UE in a short range wireless communications network and a group identifier of the UE after the UE joins a UE group, wherein the group identifier is an identifier of the UE group, each UE in the UE group joins the same short range wireless communications network; and the address information of the UE in the short range wireless communications network and the group identifier of the UE are allocated by a server in the short range wireless communications network, wherein the server in the short range wireless communications network is a beacon device or a routing device, the beacon device is a UE in the UE group, and is a router or a WiFi server in the short range wireless communications network; reporting, by the UE, the group identifier of the UE to the cellular network access device, and receiving cellular network identity information allocated by the cellular network access device; and obtaining, by the UE, short range wireless communications network address information and cellular network identity information of one or more other UEs in the UE group except the UE; or reporting the short range wireless communications network address information and the cellular network identity information of the UE to the routing device in the short range wireless communications network.
A communication method, comprising: receiving, by a serving base station, identification information of a terminal, allocated by an anchor base station, from the terminal in an inactive state, where in the inactive state there is an existing path corresponding to the terminal between the anchor base station and a core network and there is an existing terminal context of the terminal in the anchor base station; determining, by the serving base station, the anchor base station of the terminal based on the received identification information; and sending, by the serving base station, a new cell radio network temporary identifier, C-RNTI, allocated by the serving base station to the terminal, to the determined anchor base station to update a C-RNTI, corresponding to the identification information of the terminal, stored in the existing terminal context in the anchor base station. receiving, by a serving base station, identification information of a terminal, allocated by an anchor base station, from the terminal in an inactive state, where in the inactive state there is an existing path corresponding to the terminal between the anchor base station and a core network and there is an existing terminal context of the terminal in the anchor base station; determining, by the serving base station, the anchor base station of the terminal based on the received identification information; and sending, by the serving base station, a new cell radio network temporary identifier, C-RNTI, allocated by the serving base station to the terminal, to the determined anchor base station to update a C-RNTI, corresponding to the identification information of the terminal, stored in the existing terminal context in the anchor base station.
A portable dental test apparatus for detecting dental states or conditions, the apparatus comprising: (i) a test equipment comprising signal generation means, signal receiving means, signal processing means, and (ii) electrode means which are adapted to be applied to a tooth in a non-invasive and non-destructive manner wherein, the signal generation means is adapted to generate a signal to be applied to the tooth to be tested using the electrode means and the signal receiving means is adapted to receive a response signal of the tooth using the electrode means, the signal processing means being further adapted to process the generated and response signals so as to provide a measure of a characteristic of the tooth, wherein further the generated signal comprises a plurality of periodic signals each of different frequency and phase and which are applied to the tooth simultaneously, wherein the signal generation means is adapted to generate a multi-sine voltage signal, which has a root mean square voltage of 35% of the selected peak amplitude of the signal. (i) a test equipment comprising signal generation means, signal receiving means, signal processing means, and signal generation means, signal receiving means, signal processing means, and (ii) electrode means