mhurhangee/ep-ind-claims huggingface dataset:
Use of an isolated monoclonal antibody or an antigen-binding fragment thereof that specifically binds to human neurogranin in an in vitro diagnostic assay for detecting brain injury in a human subject, wherein the brain injury is diagnosed in the assay by detecting a higher level of neurogranin in a body fluid sample comprising blood, serum or plasma obtained from the subject compared with the level in a comparable body fluid sample obtained from a control subject who does not have a brain injury, wherein the higher level of neurogranin in the body fluid sample is detected by detecting an increased amount of binding between the isolated monoclonal antibody or antigen binding fragment thereof and neurogranin in the body fluid sample from the subject compared with the amount of binding in a comparable body fluid sample obtained from the control subject who does not have a brain injury.
A method for the isolation of glycoprotein-rich fungal extract from sporulating mycelium of fungus Penicillium lanoso-viride 8D by disintegration and extraction of mycelium in phosphate buffered saline with following enrichment, wherein the sporulating mycelium for isolation of glycoprotein-rich fungal extract is cultivated on the surface of malt extract broth.
A bearer handover control method, comprising: receiving, by a serving gateway, a bearer modification request message from a mobility management entity, wherein the bearer modification request message corresponds to one packet data network, PDN, connection, the bearer modification request message comprises bearer contexts corresponding to all the bearers in the PDN connection; matching, by the serving gateway, fully qualified tunnel endpoint identifiers, F-TEIDs, in the bearer contexts in the bearer modification request message with F-TEIDs in bearer contexts that are stored by the serving gateway; determining, by the serving gateway, a bearer in the PDN connection needing to be handed over from a source base station to a target base station when the F-TEID of the bearer is not matched; sending, by the serving gateway, an end marker message to the source base station only for the bearer needing to be handed over. receiving, by a serving gateway, a bearer modification request message from a mobility management entity, wherein the bearer modification request message corresponds to one packet data network, PDN, connection, the bearer modification request message comprises bearer contexts corresponding to all the bearers in the PDN connection; matching, by the serving gateway, fully qualified tunnel endpoint identifiers, F-TEIDs, in the bearer contexts in the bearer modification request message with F-TEIDs in bearer contexts that are stored by the serving gateway; determining, by the serving gateway, a bearer in the PDN connection needing to be handed over from a source base station to a target base station when the F-TEID of the bearer is not matched; sending, by the serving gateway, an end marker message to the source base station only for the bearer needing to be handed over.
A three-dimensional printing system, for printing out an object, the three-dimensional printing system comprising: a support plate; a delivery module including a belt covering the support plate, the belt including a printing area above the support plate and including a separation section at one side of the support plate; at least one printing device disposed corresponding to the support plate, the object being formed layer by layer in the printing area via the printing device and being moved with the belt; characterized by further comprising: an object detaching member disposed under the belt and between the support plate and the separation section, the object detaching member including an abutment portion abutted against the belt, the abutment portion being at a position higher than a position of the separation section to form a height level difference (h) between the abutment portion and the separation section, so that the object is detached from the belt when the object is moved to the separation section, wherein the object detaching member is an extending plate extended from one side of the support plate, and the abutment portion is formed at one end of the extending plate at one side adjacent to the separation section. a support plate; a delivery module including a belt covering the support plate, the belt including a printing area above the support plate and including a separation section at one side of the support plate; at least one printing device disposed corresponding to the support plate, the object being formed layer by layer in the printing area via the printing device and being moved with the belt; characterized by further comprising: an object detaching member disposed under the belt and between the support plate and the separation section, the object detaching member including an abutment portion abutted against the belt, the abutment portion being at a position higher than a position of the separation section to form a height level difference (h) between the abutment portion and the separation section, so that the object is detached from the belt when the object is moved to the separation section, wherein the object detaching member is an extending plate extended from one side of the support plate, and the abutment portion is formed at one end of the extending plate at one side adjacent to the separation section. an object detaching member disposed under the belt and between the support plate and the separation section, the object detaching member including an abutment portion abutted against the belt, the abutment portion being at a position higher than a position of the separation section to form a height level difference (h) between the abutment portion and the separation section, so that the object is detached from the belt when the object is moved to the separation section, wherein the object detaching member is an extending plate extended from one side of the support plate, and the abutment portion is formed at one end of the extending plate at one side adjacent to the separation section.
A method of operating a battery comprising the following steps: the battery undergoing a first series of charge/discharge cycles, wherein the battery charging profile of the first series of charge/discharge cycles has a first regulation voltage; monitoring the overall charge input and overall charge output during the first series of charge/discharge cycles and calculating the charge factor of the first series of charge/discharge cycles, the charge factor being the ratio of the overall charge input during the first series of charge/discharge cycles to the overall charge output during the first series of charge/discharge cycles; the battery undergoing a second series of charge/discharge cycles, wherein the battery charging profile of the second series of charge/discharge cycles has a second regulation voltage; the second regulation voltage being determined in dependence on the calculated charge factor of the first series of charge/discharge cycles. the battery undergoing a first series of charge/discharge cycles, wherein the battery charging profile of the first series of charge/discharge cycles has a first regulation voltage; monitoring the overall charge input and overall charge output during the first series of charge/discharge cycles and calculating the charge factor of the first series of charge/discharge cycles, the charge factor being the ratio of the overall charge input during the first series of charge/discharge cycles to the overall charge output during the first series of charge/discharge cycles; the battery undergoing a second series of charge/discharge cycles, wherein the battery charging profile of the second series of charge/discharge cycles has a second regulation voltage; the second regulation voltage being determined in dependence on the calculated charge factor of the first series of charge/discharge cycles.
A dual-beam charged-particle microscope, comprising a vacuum chamber in which are provided: - A specimen holder for holding a specimen in an irradiation position (Pi); - An electron-optical column, for producing an electron beam and directing it so as to irradiate the specimen; - An ion-optical column, for producing an ion beam and directing it so as to irradiate the specimen; - A detector, for detecting a flux of radiation emanating from the specimen in response to irradiation by at least one of said beams, characterized in that: - Said vacuum chamber comprises an in situ magnetron sputter deposition module, comprising a magnetron sputter source for producing a vapor stream of target material; - A stage (A') is configured to move a sample comprising at least part of said specimen between said irradiation position (Pi) and a separate deposition position (Pd) at said deposition module; - Said deposition module is configured to deposit a layer of said target material onto said sample when held at said deposition position. - A specimen holder for holding a specimen in an irradiation position (Pi); - An electron-optical column, for producing an electron beam and directing it so as to irradiate the specimen; - An ion-optical column, for producing an ion beam and directing it so as to irradiate the specimen; - A detector, for detecting a flux of radiation emanating from the specimen in response to irradiation by at least one of said beams, - Said vacuum chamber comprises an in situ magnetron sputter deposition module, comprising a magnetron sputter source for producing a vapor stream of target material; - A stage (A') is configured to move a sample comprising at least part of said specimen between said irradiation position (Pi) and a separate deposition position (Pd) at said deposition module; - Said deposition module is configured to deposit a layer of said target material onto said sample when held at said deposition position.
A plating apparatus comprising: a holding member that holds a plated object specified as a cathode; a spacer that is stacked on the holding member via a first seal member in an annular shape surrounding the plated object, and has a through portion from which the plated object is exposed and which stores a plating solution; and an anode member that is stacked on the spacer via a second seal member in an annular shape surrounding the through portion, and has an anode layer arranged to face the plated object which is exposed from the through portion, wherein the spacer includes a spacer body made of an insulator and an anode-side conductive layer arranged on a face, which faces the anode member, of the spacer body, the anode member includes an anode member body made of an insulator and the anode layer specified as the anode arranged on a face, which faces the spacer, of the anode member body, the anode-side conductive layer is connected inside the second seal member to the anode layer, and the anode-side conductive layer is connected outside the second seal member to a power supply. a holding member that holds a plated object specified as a cathode; a spacer that is stacked on the holding member via a first seal member in an annular shape surrounding the plated object, and has a through portion from which the plated object is exposed and which stores a plating solution; and an anode member that is stacked on the spacer via a second seal member in an annular shape surrounding the through portion, and has an anode layer arranged to face the plated object which is exposed from the through portion, wherein the spacer includes a spacer body made of an insulator and an anode-side conductive layer arranged on a face, which faces the anode member, of the spacer body, the anode member includes an anode member body made of an insulator and the anode layer specified as the anode arranged on a face, which faces the spacer, of the anode member body, the anode-side conductive layer is connected inside the second seal member to the anode layer, and the anode-side conductive layer is connected outside the second seal member to a power supply.
A method for a radio network node (BS1, BS2) in a radio communications network, the radio network node providing service to a macro cell in which a pico cell is located, the method comprising: processing, with electronic circuitry (12, 14, 30, 34), data for or from a frame structure that includes: one or more subframes preconfigured as downlink subframes, one or more subframes preconfigured as uplink subframes, and one or more flexible subframes dynamically allocated to be an uplink subframe in one instance and a downlink subframe in another instance; determining whether transmitting using a flexible subframe in the macro cell will interfere with transmission in the pico cell, and using the flexible subframe for either uplink reception or downlink transmission when there is no need to protect transmissions in the pico cell during the flexible subframe; generating, with electronic circuitry (12, 14, 34), information for a user equipment indicating how the user equipment (MS1, MS2) should interpret or use one or more flexible subframes; and transmitting the information to the user equipment. one or more subframes preconfigured as downlink subframes, one or more subframes preconfigured as uplink subframes, and one or more flexible subframes dynamically allocated to be an uplink subframe in one instance and a downlink subframe in another instance; determining whether transmitting using a flexible subframe in the macro cell will interfere with transmission in the pico cell, and using the flexible subframe for either uplink reception or downlink transmission when there is no need to protect transmissions in the pico cell during the flexible subframe; generating, with electronic circuitry (12, 14, 34), information for a user equipment indicating how the user equipment (MS1, MS2) should interpret or use one or more flexible subframes; and transmitting the information to the user equipment.
A system comprising a disposable inserter and a reusable inserter, configured to accommodate the disposable inserter, wherein the disposable inserter comprises: a housing having arranged in a displaceable configuration an inserter assembly comprising a cannula assembly with a cannula, a manually operable member for displacing the inserter assembly from a retracted position to an advanced position in order to manually insert the cannula into the skin of a patient, a coupling arrangement for coupling the disposable inserter to the reusable inserter for automatically displacing the inserter assembly from the retracted position to the advanced position in order to automatically insert the cannula into the skin of the patient, wherein the reusable inserter comprises a release for activating a drive for automatically displacing the inserter assembly of the disposable inserter from a retracted position to an advanced position in order to automatically insert the cannula into the skin of a patient, characterized in that the disposable inserter further comprises a locking element for blocking or enabling displacement of the inserter assembly, wherein the locking element is configured to block displacement of the inserter assembly when the disposable inserter is not engaged with a baseplate of an infusion system, and to enable displacement of the inserter assembly when the disposable inserter is engaged with the baseplate of the infusion system. a housing having arranged in a displaceable configuration an inserter assembly comprising a cannula assembly with a cannula, a manually operable member for displacing the inserter assembly from a retracted position to an advanced position in order to manually insert the cannula into the skin of a patient, a coupling arrangement for coupling the disposable inserter to the reusable inserter for automatically displacing the inserter assembly from the retracted position to the advanced position in order to automatically insert the cannula into the skin of the patient, wherein the reusable inserter comprises a release for activating a drive for automatically displacing the inserter assembly of the disposable inserter from a retracted position to an advanced position in order to automatically insert the cannula into the skin of a patient, characterized in that the disposable inserter further comprises a locking element for blocking or enabling displacement of the inserter assembly, wherein the locking element is configured to block displacement of the inserter assembly when the disposable inserter is not engaged with a baseplate of an infusion system, and to enable displacement of the inserter assembly when the disposable inserter is engaged with the baseplate of the infusion system.
An aircraft wing assembly comprising - a main wing portion, - a high-lift device comprising a flow surface with an upper skin portion and a lower skin portion, wherein the high-lift device is movable between a retracted position at the main wing portion and a deployed position defining a gap between the high-lift device and the main wing portion, wherein the main wing portion and the high-lift device in the retracted position define an airfoil having a local chord (c(y)) between a trailing edge and a leading edge, wherein the leading edge is on the flow surface of the high-lift device between the upper skin portion and the lower skin portion, wherein the flow surface of the high-lift device comprises a first flow surface portion, a second flow surface portion and a third flow surface portion, characterized in that the first flow surface portion is micro-perforated for an air inflow, wherein the first flow surface portion extends on the upper skin from the leading edge in chordwise direction for 2% or less of the local chord and extends on the lower skin from the leading edge in chordwise direction for 2% or less of the local chord, and wherein the second flow surface portion is not micro-perforated and extends over the rest of the upper skin portion, and wherein the third flow surface portion is not micro-perforated and extends over the rest of the lower skin portion. - a main wing portion, - a high-lift device comprising a flow surface with an upper skin portion and a lower skin portion,
Assembly station of Venetian blinds with complete support ladders, comprising a plurality of stacking units of the slats on complete support ladders, wherein said stacking units are aligned with each other along an insertion axis of the slats and are slidingly associated to a shared support structure which extends parallel to said insertion axis, wherein each stacking unit comprises: - an insertion seat of the slats, at which in use one slat at a time is associated to a complete ladder; - a positioning device for positioning a ladder transversally to said insertion axis at said insertion seat, - guiding means for guiding the slat towards said insertion seat, arranged upstream of said positioning device of the ladder, wherein the insertion seats of said stacking units jointly define a sliding lane of the slat along said insertion axis inside the assembly station, characterized in that it comprises at least one cable passing through the assembly station - in suspension relative to said shared support structure - along a path which is superposed to said sliding lane at the empty spaces between one stacking unit and another and which instead deviates from said sliding lane at each stacking unit so that said at least one cable does not cross the relative positioning device of the ladder, and in that said at least one cable is placed near the inlet to each stacking unit at a height such as to ensure the inlet of the slat in the aforesaid guide means however without interfering with them, defining a support structure for the slat in the empty spaces between one stacking unit and the other. - an insertion seat of the slats, at which in use one slat at a time is associated to a complete ladder; - a positioning device for positioning a ladder transversally to said insertion axis at said insertion seat, - guiding means for guiding the slat towards said insertion seat, arranged upstream of said positioning device of the ladder, wherein the insertion seats of said stacking units jointly define a sliding lane of the slat along said insertion axis inside the assembly station, characterized in that it comprises at least one cable passing through the assembly station - in suspension relative to said shared support structure - along a path which is superposed to said sliding lane at the empty spaces between one stacking unit and another and which instead deviates from said sliding lane at each stacking unit so that said at least one cable does not cross the relative positioning device of the ladder, and in that said at least one cable is placed near the inlet to each stacking unit at a height such as to ensure the inlet of the slat in the aforesaid guide means however without interfering with them, defining a support structure for the slat in the empty spaces between one stacking unit and the other.
An adjuvant composition comprising: (1-i) a human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3 or (1-ii) a human Granzyme A having an amino acid sequence having a 95% or more sequence homology with human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3; or a vector comprising a nucleic acid encoding (2-i) human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3 or (2-ii) a human Granzyme A having a 95% or more sequence homology with human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3, wherein the adjuvant composition optionally comprises an immunogenic substance, preferably a peptidic immunogenic substance, or wherein, when the immunogenic substance is a peptidic immunogenic substance, the adjuvant composition comprises a vector comprising a nucleic acid encoding the peptidic immunogenic substance, for use in a method of activating antigen-specific immunity against an immunogenic substance in a subject, comprising administering the human granzyme A of (1-i) or (1-ii) or the vector of; and optionally the immunogenic substance of or the vector of to the subject. (1-i) a human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3 or (1-ii) a human Granzyme A having an amino acid sequence having a 95% or more sequence homology with human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3; or a vector comprising a nucleic acid encoding (2-i) human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3 or (2-ii) a human Granzyme A having a 95% or more sequence homology with human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3, wherein the adjuvant composition optionally comprises an immunogenic substance, preferably a peptidic immunogenic substance, or wherein, when the immunogenic substance is a peptidic immunogenic substance, the adjuvant composition comprises a vector comprising a nucleic acid encoding the peptidic immunogenic substance,