mhurhangee/ep-ind-claims huggingface dataset:
A TCR-anti-CD3 fusion molecule comprising a soluble TCR and an anti-CD3 antibody, or functional fragment thereof, which is covalently linked to the C- or N-terminus of the alpha or beta chain of the TCR, wherein the TCR has the property of binding to a SLLQHLIGL (SEQ ID NO: 1) HLA-A*02 complex and comprises a TCR alpha chain variable domain and a TCR beta chain variable domain, each of which comprises FR1-CDR1-FR2-CDR2-FR3-CDR3-FR4 where FR is a framework region and CDR is a complementarity determining region, wherein (a) the alpha chain CDRs have the following sequences: CDR1 - TISGTDY (SEQ ID NO: 39) CDR2 - GLTSN (SEQ ID NO: 40) CDR3 - CILILGHSRLGNYIATF (SEQ ID NO: 46) and (b) the beta chain CDRs have the following sequences: CDR1 - LNHDA (SEQ ID NO: 42) CDR2 - SQIMGDE (SEQ ID NO: 48) CDR3 - CASSWWTGGASPIRF (SEQ ID NO: 58). (a) the alpha chain CDRs have the following sequences: CDR1 - TISGTDY (SEQ ID NO: 39) CDR2 - GLTSN (SEQ ID NO: 40) CDR3 - CILILGHSRLGNYIATF (SEQ ID NO: 46) and CDR1 - TISGTDY (SEQ ID NO: 39) CDR2 - GLTSN (SEQ ID NO: 40) CDR3 - CILILGHSRLGNYIATF (SEQ ID NO: 46) and (b) the beta chain CDRs have the following sequences: CDR1 - LNHDA (SEQ ID NO: 42) CDR2 - SQIMGDE (SEQ ID NO: 48) CDR3 - CASSWWTGGASPIRF (SEQ ID NO: 58). CDR1 - LNHDA (SEQ ID NO: 42) CDR2 - SQIMGDE (SEQ ID NO: 48) CDR3 - CASSWWTGGASPIRF (SEQ ID NO: 58).
A kit for inflating and deflating a first expandable membrane, the kit comprising: a catheter; a first console an umbilical system coupling the console to the catheter and delivering pressurized coolant to the first expandable membrane; wherein the catheter further comprises a second expandable membrane, the first and second expandable membranes (6a, 6b) defining a safety vacuum space disposed between the first and second expandable membranes (6a, 6b); a flow switch for detecting volumes of gas; and a pressure sensing element in communication with the safety vacuum space; characterised in that the first console includes means for controllably inflating the first expandable membrane with a predetermined fixed amount of coolant in order to reach a target volume and for deflating the first expandable membrane. a catheter; a first console an umbilical system coupling the console to the catheter and delivering pressurized coolant to the first expandable membrane; wherein the catheter further comprises a second expandable membrane, the first and second expandable membranes (6a, 6b) defining a safety vacuum space disposed between the first and second expandable membranes (6a, 6b); a flow switch for detecting volumes of gas; and a pressure sensing element in communication with the safety vacuum space; characterised in that the first console includes means for controllably inflating the first expandable membrane with a predetermined fixed amount of coolant in order to reach a target volume and for deflating the first expandable membrane.
A method for authorizing a right of an operation command by a terminal, in a wireless communication system, the method comprising: receiving the operation command from a server; authorizing an access right for the received operation command using a first access control resource group based on the received operation command being an operation command for creating a resource group; and authorizing the access right for the received operation command using a second access control resource group based on the received operation command being not the operation command for creating the resource group, wherein the first access control resource group includes an access control list, ACL, resource specifying the access right of the operation command for creating the resource group and an access control owner resource indicating a server managed by a bootstrap interface, and wherein the second access control resource group includes the ACL resource specifying the access right of at least one operation command other than the operation command for creating the resource group and the access control owner resource indicating a short server identifier, ID, of a server which creates the resource group under authorization of the operation command for creating the resource group. receiving the operation command from a server; authorizing an access right for the received operation command using a first access control resource group based on the received operation command being an operation command for creating a resource group; and authorizing the access right for the received operation command using a second access control resource group based on the received operation command being not the operation command for creating the resource group, wherein the first access control resource group includes an access control list, ACL, resource specifying the access right of the operation command for creating the resource group and an access control owner resource indicating a server managed by a bootstrap interface, and wherein the second access control resource group includes the ACL resource specifying the access right of at least one operation command other than the operation command for creating the resource group and the access control owner resource indicating a short server identifier, ID, of a server which creates the resource group under authorization of the operation command for creating the resource group.
A method comprising: receiving at least one indicator corresponding to a cell, said at least one indicator being indicative of a difference, if any, regarding sub-frame allocation between the cell and neighbor cells; and, performing measurements in the cell according to the at least one indicator and also based on cell configuration characterized in that said at least one indicator is used for indicating whether location of unicast and/or multicast broadcast single frequency network sub-frames in the neighbor cells is the same as in the cell. receiving at least one indicator corresponding to a cell, said at least one indicator being indicative of a difference, if any, regarding sub-frame allocation between the cell and neighbor cells; and, performing measurements in the cell according to the at least one indicator and also based on cell configuration characterized in that said at least one indicator is used for indicating whether location of unicast and/or multicast broadcast single frequency network sub-frames in the neighbor cells is the same as in the cell.
An intravaginal urinary incontinence device having an insertion end and an opposed withdrawal end, the device comprising a resilient frame comprising: a working portion disposed proximate the withdrawal end comprising a resilient structure having a plurality of connected elongate elements arranged and configured to define opposed working surfaces for providing support to an associated urinary system; characterized by comprising an anchoring portion disposed proximate the insertion end and extending beyond the working portion comprising a plurality of connected elongate elements arranged and configured to expand laterally within a user's vagina wherein the elongate elements comprise a high modulus polymer selected from the group consisting of polyetherimides and/or polyetheretherketones, and combinations thereof, and having an elastic modulus of at least 2 GPa and an Initial Stress @ 3% Strain of at least about 30 MPa. a working portion disposed proximate the withdrawal end comprising a resilient structure having a plurality of connected elongate elements arranged and configured to define opposed working surfaces for providing support to an associated urinary system; characterized by comprising an anchoring portion disposed proximate the insertion end and extending beyond the working portion comprising a plurality of connected elongate elements arranged and configured to expand laterally within a user's vagina wherein the elongate elements comprise a high modulus polymer selected from the group consisting of polyetherimides and/or polyetheretherketones, and combinations thereof, and having an elastic modulus of at least 2 GPa and an Initial Stress @ 3% Strain of at least about 30 MPa.
A reverse-osmosis system comprising: a reverse-osmosis stage having a semi-permeable membrane, a feed inlet, a permeate outlet and a concentrate outlet, wherein the feed inlet is configured to receive feed water having a feed-water flow rate; a concentrate valve configured to control the pressure of the concentrate outlet; a sensor array (111, 112, 113) having: a feed pressure sensor; at least one of: a feed salinity and a conductivity sensor; a feed temperature sensor; at least two flow sensors configured to measure at least two of: feed flow, permeate flow, and concentrate flow; at least one of: a permeate salinity and a conductivity sensor; a differential pressure sensor configured to measure the difference between the feed pressure and the concentrate pressure; and a permeate pressure sensor; and a controller configured to receive information from the sensor array and determine the permeate flow, the permeate salinity and the energy use, wherein the controller is configured to enable control of the feed-water flow rate and the position of the concentrate valve based on the received information to meet predetermined permeate flow and permeate salinity criteria and to reduce energy consumption. a reverse-osmosis stage having a semi-permeable membrane, a feed inlet, a permeate outlet and a concentrate outlet, wherein the feed inlet is configured to receive feed water having a feed-water flow rate; a concentrate valve configured to control the pressure of the concentrate outlet; a sensor array (111, 112, 113) having: a feed pressure sensor; at least one of: a feed salinity and a conductivity sensor; a feed temperature sensor; at least two flow sensors configured to measure at least two of: feed flow, permeate flow, and concentrate flow; at least one of: a permeate salinity and a conductivity sensor; a differential pressure sensor configured to measure the difference between the feed pressure and the concentrate pressure; and a permeate pressure sensor; and a feed pressure sensor; at least one of: a feed salinity and a conductivity sensor; a feed temperature sensor; at least two flow sensors configured to measure at least two of: feed flow, permeate flow, and concentrate flow; at least one of: a permeate salinity and a conductivity sensor; a differential pressure sensor configured to measure the difference between the feed pressure and the concentrate pressure; and a permeate pressure sensor; and a controller configured to receive information from the sensor array and determine the permeate flow, the permeate salinity and the energy use, wherein the controller is configured to enable control of the feed-water flow rate and the position of the concentrate valve based on the received information to meet predetermined permeate flow and permeate salinity criteria and to reduce energy consumption.
A method for fast starting an application in an operating system, the method comprising: starting a plurality of applications during a boot up sequence of the operating system; adding at least one of the plurality of applications to a suspended list, indicating that the at least one of the plurality of applications is in a suspend mode; monitoring a plurality of application programming interface, API, calls made from the plurality of applications to one or more graphic rendering modules; determining that at least one of the plurality of API calls is made by the at least one of the plurality of applications on the suspended list; blocking the determined at least one of the plurality of API calls from executing, as made by the at least one of the plurality of applications on the suspended list; and processing API calls of the plurality of API calls to the one or more graphic rendering modules made by applications of the plurality of applications not on the suspended list. starting a plurality of applications during a boot up sequence of the operating system; adding at least one of the plurality of applications to a suspended list, indicating that the at least one of the plurality of applications is in a suspend mode; monitoring a plurality of application programming interface, API, calls made from the plurality of applications to one or more graphic rendering modules; determining that at least one of the plurality of API calls is made by the at least one of the plurality of applications on the suspended list; blocking the determined at least one of the plurality of API calls from executing, as made by the at least one of the plurality of applications on the suspended list; and processing API calls of the plurality of API calls to the one or more graphic rendering modules made by applications of the plurality of applications not on the suspended list.
A vehicle interior storage pocket, comprising: a retaining sheet comprising a first side piece, a second side piece, and a resilient material extending between the first side piece and the second side piece, wherein the resilient material is configured to bias the first and second side pieces toward one another, the retaining sheet comprises a show surface facing a vehicle interior, the first side piece comprises a first side edge on a first lateral side of the retaining sheet, and the second side piece comprises a second side edge on a second lateral side of the retaining sheet, opposite the first lateral side; and a sleeve disposed about the resilient material, at least a portion of the first side piece, and at least a portion of the second side piece, wherein the sleeve extends in a vertical direction around a bottom edge of the retaining sheet and around a top edge of the retaining sheet, and the sleeve is configured to conceal the resilient material without concealing a first portion of the show surface positioned proximate to the first side edge and a second portion of the show surface positioned proximate to the second side edge. a retaining sheet comprising a first side piece, a second side piece, and a resilient material extending between the first side piece and the second side piece, wherein the resilient material is configured to bias the first and second side pieces toward one another, the retaining sheet comprises a show surface facing a vehicle interior, the first side piece comprises a first side edge on a first lateral side of the retaining sheet, and the second side piece comprises a second side edge on a second lateral side of the retaining sheet, opposite the first lateral side; and a sleeve disposed about the resilient material, at least a portion of the first side piece, and at least a portion of the second side piece, wherein the sleeve extends in a vertical direction around a bottom edge of the retaining sheet and around a top edge of the retaining sheet, and the sleeve is configured to conceal the resilient material without concealing a first portion of the show surface positioned proximate to the first side edge and a second portion of the show surface positioned proximate to the second side edge.
An additive manufacturing apparatus comprising: a support surface that supports an object; a manufacturing unit comprising a nozzle being changeable in orientation, the nozzle configured to move relative to the support surface, eject powder, and output an energy ray to melt or sinter the powder, thereby forming a layer of the object; and a control unit configured to change a layer forming condition for the nozzle in accordance with a change in the orientation of the nozzle, wherein the layer forming condition includes at least one of movement speed of the nozzle with respect to the support surface, an amount of the powder ejected from the nozzle per unit time, output of the energy ray, a diameter of a focal point of the energy ray, and a position of the nozzle relative to the support surface, characterized in that the control unit is configured to change, in response to an increase in an inclination angle of the orientation of the nozzle with respect to a normal direction of the support surface, the layer forming condition such that the nozzle forms the layer of an increased thickness in the normal direction of the support surface from a thickness (T2, T3, T4) before changing the layer forming condition. a support surface that supports an object; a manufacturing unit comprising a nozzle being changeable in orientation, the nozzle configured to move relative to the support surface, eject powder, and output an energy ray to melt or sinter the powder, thereby forming a layer of the object; and a control unit configured to change a layer forming condition for the nozzle in accordance with a change in the orientation of the nozzle, wherein the layer forming condition includes at least one of movement speed of the nozzle with respect to the support surface, an amount of the powder ejected from the nozzle per unit time, output of the energy ray, a diameter of a focal point of the energy ray, and a position of the nozzle relative to the support surface, characterized in that the control unit is configured to change, in response to an increase in an inclination angle of the orientation of the nozzle with respect to a normal direction of the support surface, the layer forming condition such that the nozzle forms the layer of an increased thickness in the normal direction of the support surface from a thickness (T2, T3, T4) before changing the layer forming condition.
An antimicrobial coating composition for coating articles comprising: a cecropin-mellitin peptide wherein said cecropin-mellitin peptide has a cysteine at C-terminal; a nanoparticle bound to said cecropin-mellitin peptide wherein said nanoparticle is a metal nanoparticle or a nanoparticle covered by a metal layer, and wherein said metal is gold, titanium, or mixtures thereof; a thiol-PEG-amine; wherein the nanoparticle is functionalized by cysteine and thiol-PEG-amine and wherein the composition is suitable to be bonded to the surface of the article. a cecropin-mellitin peptide wherein said cecropin-mellitin peptide has a cysteine at C-terminal; a nanoparticle bound to said cecropin-mellitin peptide wherein said nanoparticle is a metal nanoparticle or a nanoparticle covered by a metal layer, and wherein said metal is gold, titanium, or mixtures thereof; a thiol-PEG-amine; wherein the nanoparticle is functionalized by cysteine and thiol-PEG-amine and wherein the composition is suitable to be bonded to the surface of the article.
A switch configuration comprising at least two switch units, each of which is arranged so as to achieve a switch function, wherein each respective switch unit comprises an activating device arranged to perform said switch function and to be push-actuated by means of a control device (60, 70), wherein each respective activating device is displaceably arranged in a module part (30, 40) and arranged so as to support and be actuated by means of a first type of control device and to be actuated by means of a second type of control device arranged so as to actuate activating devices in two adjacent switch units, wherein said module part (30, 40) is arranged so as to support said second type of control device, characterised in that said first type of control device comprises a button part arranged on the activating device to form a pushbutton and wherein said second type of control device comprises a toggle button part mounted on the module part (30, 40) to form a toggle button.
A method for producing a diamine comprising the step of purifying a diamine from an aqueous solution containing a diamine salt, said method comprising the step of adding an alkaline substance to the aqueous solution and then filtering the resulting solution by allowing the solution to pass through a nanofiltration membrane to remove the salt from the non-permeated solution side, thereby obtaining an aqueous diamine solution as a filtrate from the permeated solution side, wherein said diamine salt is a salt of a diamine represented by Chemical Formula: H 2 N-(CH 2) n -NH 2 wherein n represents an integer of 1 to 10.
A method comprising: receiving content within a network at a content receiver that is communicated from a content source based upon fetch requests by the content receiver, wherein the fetch requests for content are based upon a first adaptation logic scheme to fill a buffer of the content receiver at a selected rate and to download segments of content at selected encoding rates; detecting a network priority at the content receiver, wherein the network priority comprises an observed download rate at the content receiver that is greater than a fair share rate for other content receivers in the network; and revising fetch requests for content in response to detection of the network priority, wherein the revised fetch requests are based upon a priority adaptation scheme that results in at least one of filling the buffer at a faster rate and downloading segments of content at higher encoding rates in relation to the first adaptation logic scheme. receiving content within a network at a content receiver that is communicated from a content source based upon fetch requests by the content receiver, wherein the fetch requests for content are based upon a first adaptation logic scheme to fill a buffer of the content receiver at a selected rate and to download segments of content at selected encoding rates; detecting a network priority at the content receiver, wherein the network priority comprises an observed download rate at the content receiver that is greater than a fair share rate for other content receivers in the network; and revising fetch requests for content in response to detection of the network priority, wherein the revised fetch requests are based upon a priority adaptation scheme that results in at least one of filling the buffer at a faster rate and downloading segments of content at higher encoding rates in relation to the first adaptation logic scheme.
Method for generating an alkene, in which a hydrocarbon-comprising feed material is subjected to a dehydrogenation in a dehydrogenation reactor and a product material comprising at least one alkene is generated, having the following steps: - cooling a gas stream coming from an adsorber arranged downstream of the dehydrogenation reactor for adsorption of water by a gas stream which comprises the feed material, and by a condensed component of the gas stream coming from the adsorber in a first cooling phase and - cooling the feed material in a second cooling phase by a condensed component of the gas stream coming from the adsorber, characterized in that the volumetric stream of the condensed component of the gas stream coming from the adsorber, which condensed component is fed to the first cooling phase and/or the second cooling phase, is varied in dependence on the temperature of the gas stream leaving the first cooling phase which comprises the feed material and which is fed to the dehydrogenation reactor. - cooling a gas stream coming from an adsorber arranged downstream of the dehydrogenation reactor for adsorption of water by a gas stream which comprises the feed material, and by a condensed component of the gas stream coming from the adsorber in a first cooling phase and - cooling the feed material in a second cooling phase by a condensed component of the gas stream coming from the adsorber,