mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: assigning dedicated resources of a serving cell to a mobile station for a circuit switched call; and sending to the mobile station a command containing a target cell identifier that instructs the mobile station to perform a cell change during the circuit switched call to a target cell and instructs the mobile station to re-establish the circuit-switched call within the target cell without performing a preparation phase, the command containing no description of resources for the circuit switched call in the target cell; wherein the preparation phase includes one or more of: a request for handover sent from a serving cell controller which is forwarded to a target cell controller; allocation of resources by the target cell controller in the target cell; and generation of a message identifying the reserved resources in the target cell. assigning dedicated resources of a serving cell to a mobile station for a circuit switched call; and sending to the mobile station a command containing a target cell identifier that instructs the mobile station to perform a cell change during the circuit switched call to a target cell and instructs the mobile station to re-establish the circuit-switched call within the target cell without performing a preparation phase, the command containing no description of resources for the circuit switched call in the target cell; wherein the preparation phase includes one or more of: a request for handover sent from a serving cell controller which is forwarded to a target cell controller; allocation of resources by the target cell controller in the target cell; and generation of a message identifying the reserved resources in the target cell. a request for handover sent from a serving cell controller which is forwarded to a target cell controller; allocation of resources by the target cell controller in the target cell; and generation of a message identifying the reserved resources in the target cell.
An apparatus for rehabilitation and training of an injured hand by using the corresponding functional healthy hand to control the motion of said injured hand, said apparatus comprising: a) a sensor system comprising sensors for measuring the relative motion of a bone on one side of a joint and the bone on the other side of said joint for each joint on the fingers of said functional healthy hand; b) a powered mechanism comprising actuators adapted to cause relative motion of a bone on one side of a joint and the bone on the other side of said joint for each joint on the fingers of said injured hand; c) a processing and communication module adapted to receive output signals from each of the sensors in said sensor system, to analyze said signals, and to produce and transmit to said powered mechanism signals comprising instructions related to the duration and magnitude of the force that should be applied by the components of the powered mechanism in order to force each bone on said injured hand to move in exactly the same way that the corresponding bone on the healthy hand moved; and d) a power supply adapted to supply power to the components of said sensor system, said powered mechanism, and said processing and communication module; wherein all components of said sensor system are mounted directly on the functional healthy hand and arm and all components of said powered mechanism are mounted directly on the injured hand and arm of a user of said apparatus. a) a sensor system comprising sensors for measuring the relative motion of a bone on one side of a joint and the bone on the other side of said joint for each joint on the fingers of said functional healthy hand; b) a powered mechanism comprising actuators adapted to cause relative motion of a bone on one side of a joint and the bone on the other side of said joint for each joint on the fingers of said injured hand; c) a processing and communication module adapted to receive output signals from each of the sensors in said sensor system, to analyze said signals, and to produce and transmit to said powered mechanism signals comprising instructions related to the duration and magnitude of the force that should be applied by the components of the powered mechanism in order to force each bone on said injured hand to move in exactly the same way that the corresponding bone on the healthy hand moved; and d) a power supply adapted to supply power to the components of said sensor system, said powered mechanism, and said processing and communication module;
A polycrystalline ceramic solely formed based on alumina, on chromium oxide and on magnesium oxide, characterized in that the polycrystalline ceramic comprises between 0.8% and 1.2% of chromium oxide by total weight of the polycrystalline ceramic and between 0.03% and 0.09% of magnesium oxide by total weight of the polycrystalline ceramic, making it possible to obtain a red ceramic with a toughness (K c) at least equal to 2.8 MPa.m 1/2.
Compressed air supply system (10, 10A, 10B, 10C, 10D) for operating a pneumatic device, especially a pneumatic spring unit of a vehicle, having: - an air feed and an air compressor for supplying a compressed air feed with compressed air, - a vent line with a vent valve arrangement in the form of a controllable solenoid valve arrangement (40.1, 40.2, 40A, 40B, 40C, 40D) and a vent port for discharging air, and - a compressed air supply line with an air drier and a compressed air port for supplying the pneumatic device with compressed air, characterized in that - the solenoid valve arrangement (40.1, 40.2, 40A, 40B, 40C, 40D) has a primary valve and a secondary valve, wherein - the primary valve and the secondary valve can be activated by a common control means of the solenoid valve arrangement (40.1, 40.2, 40A, 40B, 40C, 40D) which acts upon both valves. - an air feed and an air compressor for supplying a compressed air feed with compressed air, - a vent line with a vent valve arrangement in the form of a controllable solenoid valve arrangement (40.1, 40.2, 40A, 40B, 40C, 40D) and a vent port for discharging air, and - a compressed air supply line with an air drier and a compressed air port for supplying the pneumatic device with compressed air, characterized in that - the solenoid valve arrangement (40.1, 40.2, 40A, 40B, 40C, 40D) has a primary valve and a secondary valve, wherein - the primary valve and the secondary valve can be activated by a common control means of the solenoid valve arrangement (40.1, 40.2, 40A, 40B, 40C, 40D) which acts upon both valves.
An aqueous polymer dispersion comprising a) at least one dispersed copolymer CP, which is composed of at least two monomers selected from the group consisting of ethylene, propylene, butylene, isoprene, butadiene, styrene, acrylonitrile, acrylic acid, methacrylic acid, alkyl acrylate, alkyl methacrylate, vinyl acetate and vinyl chloride; and wherein b) at least one comb polymer KP having side chains that are bound to the main chain by ester or ether groups; and c) water. a) at least one dispersed copolymer CP, which is composed of at least two monomers selected from the group consisting of ethylene, propylene, butylene, isoprene, butadiene, styrene, acrylonitrile, acrylic acid, methacrylic acid, alkyl acrylate, alkyl methacrylate, vinyl acetate and vinyl chloride; and wherein b) at least one comb polymer KP having side chains that are bound to the main chain by ester or ether groups; c) water.
A method for manufacturing a package substrate having a through electrode formed in a through hole in a substrate, comprising the steps of: forming a through hole penetrating through a silicon substrate; forming, by etching the lower surface of the substrate an uneven portion (140; 340) including a recessed portion (180; 190; 400) and a projecting portion (200; 380; 390); whereby following the forming steps the uneven portion (140; 340) surrounds the periphery of the through hole; forming an insulating layer on the lower surface of the substrate including the surfaces of the uneven portion and the inner wall surface of the through hole; forming the through electrode in the through hole; forming a conductive contact layer on the surface of the uneven portion (140; 340) above the insulating layer; and forming an electrode layer on the surface of the uneven portion (140; 340) and on the through electrode such that the electrode layer is electrically insulated from the substrate by the insulating layer. forming a through hole penetrating through a silicon substrate; forming, by etching the lower surface of the substrate an uneven portion (140; 340) including a recessed portion (180; 190; 400) and a projecting portion (200; 380; 390); whereby following the forming steps the uneven portion (140; 340) surrounds the periphery of the through hole; forming an insulating layer on the lower surface of the substrate including the surfaces of the uneven portion and the inner wall surface of the through hole; forming the through electrode in the through hole; forming a conductive contact layer on the surface of the uneven portion (140; 340) above the insulating layer; and forming an electrode layer on the surface of the uneven portion (140; 340) and on the through electrode such that the electrode layer is electrically insulated from the substrate by the insulating layer.
A shower stall comprising a pan and walls, said pan having a peripheral rim that rises along the outside faces of said walls, and a network of channels situated towards the inside of said pan relative to said rim, said rim being suitable for preventing water oozing along said outside faces, and the network of channels being suitable for collecting the water and draining it towards the inside of said pan, said network of channels being constituted by a peripheral channel situated at the base of said rim and suitable for collecting water, and by converging channels connecting said peripheral channel to the inside of said pan, and suitable for draining water towards the inside of said pan, said peripheral channel possessing an inside rim, said stall being characterized in that said walls rest on the top face of said inside rim, said rim and said network of channels being molded together with said pan.
An apparatus for the shaping of plastics material preforms into plastics material containers with a blow mould device which forms a cavity inside which the plastics material preforms are capable of being expanded to form the plastics material containers, wherein the blow mould device has a first blow mould part and a second blow mould part as well as a base part, which are movable relative to one another in order to open or to close the blow mould device, with a blow mould carrier device for holding the blow mould device, wherein the blow mould carrier device has a first carrier part for holding the first blow mould part and a second carrier part for holding the second blow mould part, and wherein, in addition, the apparatus has a third carrier part for holding the base part, and wherein the apparatus has a centring mechanism in order to centre the base part at least for a time with respect to the blow mould parts (4a, 4b), wherein this centring mechanism has a first engagement element which is designed in the form of a projection and which is movable with respect to a second engagement element designed in the form of a recess, and one of these engagement elements is arranged on the third carrier part, wherein, in addition, the recess and the projection are designed in such a way that during a feed movement the projection can engage in the recess, wherein the engagement elements (42, 44) are in contact by way of a first contact face at least for a time during a shaping procedure, wherein the base part is supported by this contact in a longitudinal direction of the plastics material preforms, characterized in that the engagement elements (42, 44) are arranged in such a way that they do not come into contact with each other along the contact face at least for a time during a closing movement of the blow mould device, wherein a mould gap, which extends transversely to the longitudinal direction of the plastics material preforms, is present between at least one lateral part (4a, 4b) and the base part during the shaping procedure.
A method of selecting a binding partner of a GPCR, the method comprising: (a) providing one or more mutants of a parent GPCR; (b) selecting a ligand of a particular class, the ligand being one which binds to the parent GPCR when the GPCR is residing in a particular conformation; (c) determining whether the or each mutant GPCR has increased conformational stability with respect to binding the selected ligand compared to the conformational stability of the parent GPCR with respect to binding that ligand, by measuring denaturation as manifest by loss of ligand binding ability, under denaturing conditions such as heat, a detergent, a chaotropic agent or an extreme of pH; (d) selecting those mutants that have an increased conformational stability compared to the parent GPCR with respect to binding the selected ligand; wherein the particular conformation in which the GPCR resides in step (c) corresponds to the same class of ligand as the ligand selected in step (b); (e) providing one or more test compounds; (f) determining whether the or each test compound binds to the one or more mutant GPCRs selected in step (d) when residing in the particular conformation; and (g) isolating one or more test compounds that bind to the one or more mutant GPCRs selected in step (d) when residing in the particular conformation; (a) providing one or more mutants of a parent GPCR; (b) selecting a ligand of a particular class, the ligand being one which binds to the parent GPCR when the GPCR is residing in a particular conformation; (c) determining whether the or each mutant GPCR has increased conformational stability with respect to binding the selected ligand compared to the conformational stability of the parent GPCR with respect to binding that ligand, by measuring denaturation as manifest by loss of ligand binding ability, under denaturing conditions such as heat, a detergent, a chaotropic agent or an extreme of pH; (d) selecting those mutants that have an increased conformational stability compared to the parent GPCR with respect to binding the selected ligand; wherein the particular conformation in which the GPCR resides in step (c) corresponds to the same class of ligand as the ligand selected in step (b); (e) providing one or more test compounds; (f) determining whether the or each test compound binds to the one or more mutant GPCRs selected in step (d) when residing in the particular conformation; and (g) isolating one or more test compounds that bind to the one or more mutant GPCRs selected in step (d) when residing in the particular conformation;
A cooling module for electronic equiment comprising a first air inlet, a second air inlet, and an air discharge vent, the module having two check valves (130.1, 130.2), each mounted in register with a respective inlet and arranged to allow air to pass towards the inside of the module and to oppose a flow of air in the opposite direction, the second air inlet being an external air intake associated with a fan for injecting air into the common module, Characterized in that the first air inlet is connected to a pipe of air under pressure.
An elastomer gasket having a length along a contour and a cross section with a width and height taken in a transverse plane perpendicular to said length, the cross section having a continuously variable geometry in the length of the gasket, the gasket comprising at least one linear portion taken in the height of said gasket and along a linear profile in the length of the gasket, and at least one corrugated portion (POR2, POR3) taken in the height of said gasket, juxtaposed with the first portion in said height, having a cross section (S2, S3) with a width (l2, l3) less than the width of the gasket, and in a corrugated profile (OND2, OND3) in the length of the gasket, the gasket being characterised in that the step between two corrugations of the corrugated portion (POR2, POR3) is shorter at at least one portion taken in the length of the gasket than the step (STPO) between two corrugations outside said portion.
A method of screening comprising; (i) providing a founder library of binding members, each binding member in the library comprising a fusion protein and optionally, a partner domain associated with the fusion protein, wherein the fusion protein comprises a donor diversity scaffold domain inserted within a recipient diversity scaffold domain, optionally wherein the N and C terminals of the donor diversity scaffold domain are linked to the recipient diversity scaffold domain with linkers of up to 4 amino acids, wherein the donor diversity scaffold domain is a cysteine-rich peptide consisting of 100 or fewer amino acids, comprising two or more disulphide bridges formed by four or more cysteine residues within said donor diversity scaffold domain, wherein the cysteine-rich peptide is an ion channel modulating peptide, a venom peptide or a knottin and comprises a donor scaffold and a donor interaction sequence, and the recipient diversity scaffold domain is an antibody variable domain and comprises a recipient scaffold and a recipient interaction sequence, and wherein one, two or all three of the donor interaction sequence, the recipient interaction sequence and the linkers are diverse in said founder library, (ii) screening the founder library for binding members which display a binding activity, and (iii) identifying one or more binding members in the founder library which display the binding activity. (i) providing a founder library of binding members, each binding member in the library comprising a fusion protein and optionally, a partner domain associated with the fusion protein, wherein the fusion protein comprises a donor diversity scaffold domain inserted within a recipient diversity scaffold domain, optionally wherein the N and C terminals of the donor diversity scaffold domain are linked to the recipient diversity scaffold domain with linkers of up to 4 amino acids, wherein the donor diversity scaffold domain is a cysteine-rich peptide consisting of 100 or fewer amino acids, comprising two or more disulphide bridges formed by four or more cysteine residues within said donor diversity scaffold domain, wherein the cysteine-rich peptide is an ion channel modulating peptide, a venom peptide or a knottin and comprises a donor scaffold and a donor interaction sequence, and the recipient diversity scaffold domain is an antibody variable domain and comprises a recipient scaffold and a recipient interaction sequence, and wherein one, two or all three of the donor interaction sequence, the recipient interaction sequence and the linkers are diverse in said founder library, (ii) screening the founder library for binding members which display a binding activity, and (iii) identifying one or more binding members in the founder library which display the binding activity.
Filtration unit intended for filtering a fluid comprising a rigid housing formed of a first housing element and a second housing element between which a filtration medium is disposed so as to define an inlet compartment for the fluid to be filtered and an outlet compartment for the filtered fluid, said housing including an inlet conduit opening onto the inlet compartment and an outlet conduit opening onto the outlet compartment, each of said housing elements (2, 3) comprising a base (9, 10) surrounded by a peripheral side wall (25, 26), the base (9, 10) of at least one of said housing elements comprising a main portion (11, 12) and at least one domed portion (13, 14) which is delimited by a perimeter having an inner wall (15, 16) extending from said perimeter to an apex (17, 18) and an outer wall (19, 20) extending from said apex (17, 18) to said perimeter, at least one of the inlet and outlet conduits (7, 8) opening out through the outer wall (19, 20), said filtration unit being characterised in that the inner (15, 16) and outer (19, 20) walls extend respectively in a median plane (P1, P2, P3, P4) forming therebetween an angle (α1, α2) strictly greater than 90°, the apex (17, 18) having a curved outer profile which extends between said median planes at the junction between the inner (15, 16) and outer (19, 20) walls.
Method for controlling controllable power semiconductor switches of a converter assembly with a multiplicity of switching modules having controllable power semiconductor switches, in which a control system (35, 40) is provided, which is set up to control the power semiconductor switches of the switching modules, wherein the control system is equipped with a central control device and - a multiplicity of control modules (32-34, 41-56), each of which is assigned to one of the switching modules to be controlled, wherein the central control device is set up to exchange digital data with each control module (32-34, 41-56), wherein the control modules (32-34, 41-56) form a connection network, wherein each control module (32-34, 41-56) is directly connected to more than one other control module (32-34, 41-56) via a communication line, so that data exchange between them is possible, one of the control modules (32-34, 41-56), as the master node (31, 46) of the connection network, is directly connected to the central control device, and wherein the control modules (32-34, 41-56) are set up to form a communication network within the connection network so that the data exchange between the central control device and each control module (32-34, 41-56) can be carried out via a communication path assigned to this control module (32-34, 41-56) within the communication network, wherein each of the control modules automatically defines one of all of the control modules connected to it as the superordinate control module, from which it receives data during operation of the control system, wherein a control module (32-34, 41-56) is assigned to each of the switching modules, and the control of the power semiconductor switches is carried out by means of the control system (35, 40), wherein the control modules (32-34, 41-56) form a hierarchical communication network with a tree structure within the connection network, and the data exchange between the central control device and each control module (32-34, 41-56) takes place via a communication path assigned to this control module (32-34, 41-56) within the communication network. - a multiplicity of control modules (32-34, 41-56), each of which is assigned to one of the switching modules to be controlled, wherein