mhurhangee/ep-ind-claims huggingface dataset:
A T cell activating bispecific antigen binding molecule comprising (i) a first antigen binding moiety which is a Fab molecule capable of specific binding to CD3, and which comprises at least one heavy chain complementarity determining region amino acid sequence selected from the group consisting of SEQ ID NO: 37, SEQ ID NO: 38 and SEQ ID NO: 39 and at least one light chain CDR selected from the group of SEQ ID NO: 32, SEQ ID NO: 33, SEQ ID NO: 34; (ii) a second antigen binding moiety capable of specific binding to Folate Receptor 1 (FolR1); wherein the antigen binding moiety capable of specific binding to FolR1 comprises: a) the heavy chain CDR1 of SEQ ID NO: 16, the heavy chain CDR2 of SEQ ID NO: 17, the heavy chain CDR3 of SEQ ID NO:18, the light chain CDR1 of SEQ ID NO: 32, the light chain CDR2 of SEQ ID NO: 33, and the light chain CDR3 of SEQ ID NO:34; b) the heavy chain CDR1 of SEQ ID NO: 8, the heavy chain CDR2 of SEQ ID NO: 56, the heavy chain CDR3 of SEQ ID NO:57, the light chain CDR1 of SEQ ID NO: 59, the light chain CDR2 of SEQ ID NO: 60, and the light chain CDR3 of SEQ ID NO:65; or c) the heavy chain CDR1 of SEQ ID NO: 16, the heavy chain CDR2 of SEQ ID NO: 275, the heavy chain CDR3 of SEQ ID NO:315, the light chain CDR1 of SEQ ID NO: 32, the light chain CDR2 of SEQ ID NO: 33, and the light chain CDR3 of SEQ ID NO:34. (i) a first antigen binding moiety which is a Fab molecule capable of specific binding to CD3, and which comprises at least one heavy chain complementarity determining region amino acid sequence selected from the group consisting of SEQ ID NO: 37, SEQ ID NO: 38 and SEQ ID NO: 39 and at least one light chain CDR selected from the group of SEQ ID NO: 32, SEQ ID NO: 33, SEQ ID NO: 34; (ii) a second antigen binding moiety capable of specific binding to Folate Receptor 1 (FolR1); a) the heavy chain CDR1 of SEQ ID NO: 16, the heavy chain CDR2 of SEQ ID NO: 17, the heavy chain CDR3 of SEQ ID NO:18, the light chain CDR1 of SEQ ID NO: 32, the light chain CDR2 of SEQ ID NO: 33, and the light chain CDR3 of SEQ ID NO:34; b) the heavy chain CDR1 of SEQ ID NO: 8, the heavy chain CDR2 of SEQ ID NO: 56, the heavy chain CDR3 of SEQ ID NO:57, the light chain CDR1 of SEQ ID NO: 59, the light chain CDR2 of SEQ ID NO: 60, and the light chain CDR3 of SEQ ID NO:65; or c) the heavy chain CDR1 of SEQ ID NO: 16, the heavy chain CDR2 of SEQ ID NO: 275, the heavy chain CDR3 of SEQ ID NO:315, the light chain CDR1 of SEQ ID NO: 32, the light chain CDR2 of SEQ ID NO: 33, and the light chain CDR3 of SEQ ID NO:34.
An assembled and combined pallet, consists of several supporting beams arranged in parallel and several skids laid on the top of the supporting beams, and the length direction of the skids is vertical to the length direction of the supporting beams; wherein: the supporting beams are made of a hollow metal section bar, and the supporting beams are equipped with grooves along their length direction on the top, and groove walls of the grooves are set with seizing edges; each skid is set with two connection plates along its length direction and the two connection plates are arranged in parallel in the width direction of the skid; the skids are set with inserting blocks at the bottom in relation to the grooves on the top of the supporting beams, and the inserting blocks are inserted into the grooves along the length direction of the grooves, and the inserting blocks cooperate with the seizing edges along the vertical direction; additionally, each supporting beam is set with a locating lever in relation to each skid, and each locating lever is set on the supporting beam along the width direction of the supporting beam, characterized in that each locating lever is set in relation to a corresponding inserting block of each skid, wherein said inserting block is set with a locking hole in relation to the locating lever, and the locating lever passes through the corresponding locking hole of the inserting block to lock the skid; wherein: each connection plate of each skid is slotted to receive corresponding groove walls of the grooves of the corresponding supporting beams, the slots dividing each connection plate to define inserting connection parts relative to the groove of corresponding supporting beams, and each skid is set with inserting reinforcement blocks between corresponding inserting connection parts along its width direction.
A named entity, NE, list generator for enhancing recognition of named entities, comprising: a NE identifier configured to receive information corresponding to a specific user from a plurality of different sources and to identify NEs in the information; and an analyzer configured to calculate a probability associated with each identified NE identified in the user specific information by the NE identifier and to obtain a user-specific NE list of identified NEs with associated probabilities, the NE list being for subsequent NE recognition, wherein the probabilities are based at least on a frequency with which the specific user uses a particular NE. a NE identifier configured to receive information corresponding to a specific user from a plurality of different sources and to identify NEs in the information; and an analyzer configured to calculate a probability associated with each identified NE identified in the user specific information by the NE identifier and to obtain a user-specific NE list of identified NEs with associated probabilities, the NE list being for subsequent NE recognition, wherein the probabilities are based at least on a frequency with which the specific user uses a particular NE.
A docking station (120, 300), comprising: a first interface to connect a client computing device to the docking station (120, 300); and at least one millimeter wave antenna to allow the client computing device and a head mounted display, HMD, to wirelessly access edge compute resources with latency of less than 10ms using two different high-bandwidth communication protocols with a bandwidth of greater than 2Gbps. a first interface to connect a client computing device to the docking station (120, 300); and at least one millimeter wave antenna to allow the client computing device and a head mounted display, HMD, to wirelessly access edge compute resources with latency of less than 10ms using two different high-bandwidth communication protocols with a bandwidth of greater than 2Gbps.
A process for producing silicon carbide single crystals, comprising: a step for growing single crystals of silicon carbide on a silicon carbide seed crystal by supplying a sublimed gas of a silicon carbide source material to the silicon carbide seed crystal arranged on a pedestal; wherein, a spacing member composed of silicon carbide is arranged between the pedestal and the silicon carbide seed crystal, the spacing member is non-adhesively held on the pedestal by a supporting member, the silicon carbide seed crystal is adhered to the surface of the spacing member on the opposite side of the pedestal, and the spacing member and the supporting member are relatively arranged so that the adhesive surface of the spacing member adhered with the silicon carbide seed crystal is separated by 5 mm or more in the vertical direction from the lowest position of the supporting member.
A crystal of 1-ethyl-7-methyl-3-{4-[(3-methyl-3H-imidazo[4,5-b]pyridin-2-yl)oxy]phenyl}-1,3-dihydro-2H-imidazo[4,5-b]pyridin-2-one showing an X-ray powder diffraction pattern having characteristic peaks at interplanar spacings (d) of 13.59±0.2 and 6.76±0.2 Angstroms in powder X-ray diffraction.
Dynamo-electric machine with a stator and a rotor which is rotatably arranged relative to the stator about an axis of rotation, wherein the stator and/or the rotor has a plurality of segments (4a, 4b) arranged one after another in the rotational direction of the rotor, wherein the segments (4a, 4b) have a flange (9a, 9b) at the side ends (13, 13b) thereof in the rotational direction for connection to segments (4a, 4b) arranged adjacent thereto in the rotational direction, wherein the flanges (9a, 9b) have at least one hole (10a, 10b) in the rotational direction, wherein flanges (9a, 9b) facing one another at the side ends (13a, 13b) in the rotational direction of segments (4a, 4b) arranged adjacent to one another are connected to one another by a screw connection passing through a hole (10a, 10b), wherein to connect the flanges (9a, 9b) facing one another, a sleeve having an external thread is arranged in the hole (10a, 10b) of at least one of the flanges (9a, 9b) facing one another at the side ends (13a, 13b) in the rotational direction, wherein the hole of at least one of the flanges (9a, 9b) facing one another at the side ends (13a, 13b) in the rotational direction has an internal thread, wherein the sleeve is screwed into the internal thread of the hole, wherein the sleeve creates a spacing between the flanges (9a, 9b) facing one another, wherein a screw passes through the holes (10a, 10b) of the flanges (9a, 9b) facing one another at the side ends (13a, 13b) in the rotational direction, and through the sleeve, wherein the screw, in particular the screw head, exerts a force on the flange and via the sleeve connects the flanges (9a, 9b) facing one another, wherein the force of the screw connection on the flange is implemented via a universal ball joint which consists of a spherical cup and a spherical disk.
Process for treating an off-gas from a lean burn marine engine comprising: - optionally cooling said off-gas using water injection, followed by - treating said off-gas in a catalytic converter by which NO is oxidized using oxygen present in said off-gas to NO 2, followed by - further cooling said off-gas using water injection, followed by - contacting said treated off-gas with ozone, thus producing oxidized NOx compounds at least in part in a non-catalyzed reaction, followed by - contacting the oxidized NOx compounds with water, by which at least part of said oxidized NOx compounds dissolves in said water. - optionally cooling said off-gas using water injection, followed by - treating said off-gas in a catalytic converter by which NO is oxidized using oxygen present in said off-gas to NO 2, followed by - further cooling said off-gas using water injection, followed by - contacting said treated off-gas with ozone, thus producing oxidized NOx compounds at least in part in a non-catalyzed reaction, followed by - contacting the oxidized NOx compounds with water, by which at least part of said oxidized NOx compounds dissolves in said water.
Combination of two consecutive trays and a butt-strap, each of said trays being a tray for electrical conductor with lid, made up of the association of a base body, which is straight channel shaped, with a lid body, that adjusts on the outside and fits in a releasable manner into the outer faces of the walls of said base body, which trays can be installed horizontally on cantilever supports or vertically abutting onto a wall and receive mutual association means that make it possible to place longitudinally, head to head, two of said consecutive trays leaving between them a free space serving as a joint to absorb any possible thermal expansion or contraction, and said butt-strap consisting of a complex annular body formed by the association of a clamping part and a closure part; wherein - said clamping part is straight channel shaped and in abutment covers, in the transverse direction, a first part of a peripheral transverse area of said consecutive trays, said peripheral transverse area being formed by the base body and the lid body of said trays, and the longitudinal margins of a second part of said peripheral transverse area by means of two inner cantilever wings that emerge from the walls of said clamping part, wherein the width of said clamping part is greater than that of said free space serving as joint existing between the edges of the ends of said consecutive trays; and wherein - said closure part is flat shaped and has the same width as said clamping part; said closure part can be coupled in a releasable manner by the two ends thereof to said cantilever wings at the ends of walls of said clamping part; characterised in that: said closure part abuts, under said cantilever wings, a third part of said peripheral transverse area, said third part being formed by the surface of one of the larger outer faces of said peripheral transverse area. - said clamping part is straight channel shaped and in abutment covers, in the transverse direction, a first part of a peripheral transverse area of said consecutive trays, said peripheral transverse area being formed by the base body and the lid body of said trays, and the longitudinal margins of a second part of said peripheral transverse area by means of two inner cantilever wings that emerge from the walls of said clamping part, wherein the width of said clamping part is greater than that of said free space serving as joint existing between the edges of the ends of said consecutive trays; and wherein - said closure part is flat shaped and has the same width as said clamping part; said closure part can be coupled in a releasable manner by the two ends thereof to said cantilever wings at the ends of walls of said clamping part; characterised in that: said closure part abuts, under said cantilever wings, a third part of said peripheral transverse area, said third part being formed by the surface of one of the larger outer faces of said peripheral transverse area.
A method comprising: receiving, at a first arrival time, from a first optical network device by a second optical network device, a first optical signal transmitted on a first optical fiber; receiving, at a second arrival time, from the first optical network device by the second optical network device, a second optical signal transmitted on a second optical fiber, wherein the first optical fiber is a forward path and the second optical fiber is a backward path of a bidirectional communication between the first optical network device and the second optical network device; calculating, by the second optical network device, a first time difference between the second arrival time of the second optical signal and the first arrival time of the first optical signal; and determining, by the second optical network device, a measure of asymmetry between the first optical fiber and the second optical fiber based on the first time difference and a second time difference between a first time of transmission by the first optical network device of the first optical signal and a second time of transmission by the first optical network device of the second optical signal. receiving, at a first arrival time, from a first optical network device by a second optical network device, a first optical signal transmitted on a first optical fiber; receiving, at a second arrival time, from the first optical network device by the second optical network device, a second optical signal transmitted on a second optical fiber, wherein the first optical fiber is a forward path and the second optical fiber is a backward path of a bidirectional communication between the first optical network device and the second optical network device; calculating, by the second optical network device, a first time difference between the second arrival time of the second optical signal and the first arrival time of the first optical signal; and determining, by the second optical network device, a measure of asymmetry between the first optical fiber and the second optical fiber based on the first time difference and a second time difference between a first time of transmission by the first optical network device of the first optical signal and a second time of transmission by the first optical network device of the second optical signal.
A method of modifying a plastic encapsulated microcircuit to make a stackable microcircuit layer comprising the steps of: (i) providing a PEM that includes (a) a microcircuit having an active surface containing integrated circuitry and bond pads, (b) conductive members, whereby each bond pad is bonded and electrically connected to one conductive member, and (c) an encapsulant being a plastic body in contact with the microcircuit, wherein the microcircuit and the conductive members are encapsulated inside the encapsulant, and wherein the PEM comprises leads of a lead frame which are electrically connected to the conductive members, said lead frame being partially encapsulated inside the encapsulant and said leads extending out from the encapsulant; (ii) modifying the PEM to produce a modified PEM having a modified surface by thinning from a first side of the PEM to remove the leads and expose the conductive members; and (iii) forming an electrical lead on the modified surface of the modified PEM that leads from a conductive member to an edge of the modified PEM. (i) providing a PEM that includes (a) a microcircuit having an active surface containing integrated circuitry and bond pads, (b) conductive members, whereby each bond pad is bonded and electrically connected to one conductive member, and (c) an encapsulant being a plastic body in contact with the microcircuit, wherein the microcircuit and the conductive members are encapsulated inside the encapsulant, and wherein the PEM comprises leads of a lead frame which are electrically connected to the conductive members, said lead frame being partially encapsulated inside the encapsulant and said leads extending out from the encapsulant; (ii) modifying the PEM to produce a modified PEM having a modified surface by thinning from a first side of the PEM to remove the leads and expose the conductive members; and (iii) forming an electrical lead on the modified surface of the modified PEM that leads from a conductive member to an edge of the modified PEM.
A method performed by a network node for scheduling multiple bearers for transmission to or from one or more wireless devices, the one or more wireless devices being serviced by the network node, the method comprising: calculating a weight for each bearer of the multiple bearers established between the network node and the one or more wireless devices, based on an indication of a quality of service associated with information to be transmitted in each bearer of the multiple bearers, wherein a calculated weight corresponds to a Listen-Before-Talk, LBT, setting, the LBT setting comprising an LBT algorithm and corresponding one or more parameters; and scheduling the multiple bearers for transmission in unlicensed spectrum to or from the one or more wireless devices based on the calculated weights, wherein scheduling comprises a multi-carrier operation, the multicarrier operation comprising scheduling data associated with a higher indication of quality of service to be transmitted in one or more master carriers, and scheduling data associated with a lower indication of quality of service scheduled to be transmitted in one or more slave carriers, wherein transmission in the one or more slave carriers is only performed after an outcome of a period of observation of a radio channel for transmission is that the radio channel is idle. calculating a weight for each bearer of the multiple bearers established between the network node and the one or more wireless devices, based on an indication of a quality of service associated with information to be transmitted in each bearer of the multiple bearers, wherein a calculated weight corresponds to a Listen-Before-Talk, LBT, setting, the LBT setting comprising an LBT algorithm and corresponding one or more parameters; and scheduling the multiple bearers for transmission in unlicensed spectrum to or from the one or more wireless devices based on the calculated weights, wherein scheduling comprises a multi-carrier operation, the multicarrier operation comprising scheduling data associated with a higher indication of quality of service to be transmitted in one or more master carriers, and scheduling data associated with a lower indication of quality of service scheduled to be transmitted in one or more slave carriers, wherein transmission in the one or more slave carriers is only performed after an outcome of a period of observation of a radio channel for transmission is that the radio channel is idle.
Assembly comprising a system for immobilizing a removable cartridge in a housing and said removable cartridge, said system comprising a trigger which, in a first position, allows said cartridge to be held in said housing and, in a second position, allows said cartridge to be inserted/extracted with respect to said housing, characterized in that said trigger is actuable in translation in a direction transverse to a direction of insertion/extraction of the cartridge, said trigger comprising a bar for blocking the cartridge, said bar comprising at least one stop for blocking the cartridge, said stop(s) being intended to cooperate with one or more blocking studs of said cartridge, in which assembly said blocking stud(s) is (are) provided with a bevel intended to cause the bar to be actuated in translation when inserting the cartridge.
Formulation characterized in that it comprises: a) a component A, wherein said component A comprises at least one thermoplastic resin selected from i) acrylic resins in a percentage by weight in component A comprised between 20 and 65% and ii) a combination of epoxy resins in a percentage by weight in component A comprised between 1 and 16 % and acrylic resins in a percentage by weight in component A comprised between 40 and 48 %; cork in a percentage by weight in component A comprised between 5 and 25%; and least one additive selected from a group consisting of plasticizers, dispersants and mineral fillers, or any combination thereof; b) a component B, wherein said component B comprises at least one thermoplastic resin and at least one crosslinking additive. a) a component A, wherein said component A comprises at least one thermoplastic resin selected from i) acrylic resins in a percentage by weight in component A comprised between 20 and 65% and ii) a combination of epoxy resins in a percentage by weight in component A comprised between 1 and 16 % and acrylic resins in a percentage by weight in component A comprised between 40 and 48 %; cork in a percentage by weight in component A comprised between 5 and 25%; and least one additive selected from a group consisting of plasticizers, dispersants and mineral fillers, or any combination thereof; b) a component B, wherein said component B comprises at least one thermoplastic resin and at least one crosslinking additive.
Loudspeaker system comprising an amplifier element and at least one membrane for converting electrical energy into soundwaves, and connectors for a connection with at least one audio transducer, characterized in that the at least one membrane of the loudspeaker system is at least partly coated with an energy converter element which is connected to the amplifier element in such a way that the energy supply of the amplifier element is brought about by the energy converter element.