mhurhangee/ep-ind-claims huggingface dataset:
Endosseous screw assembly for an internal fixation system, comprising: a stem extending longitudinally and having at least one threaded proximal portion for allowing anchoring to a bone site of a patient; a connection sleeve suitable for introduction inside a connection hole of a fixation member; the stem and the connection sleeve being formed as one piece or by two separate bodies with the stem partially inserted inside the connection sleeve and movable with respect to the connection sleeve; a ring nut rotatably mounted on the connection sleeve by means of a threaded connection and comprising a rim with teeth designed to cooperate by means of contact with a step formed on the fixation member, in the vicinity of the connection hole, so as to prevent rotation of said ring nut with respect to the fixation member when the connection sleeve is introduced into the connection hole of the fixation member; said ring nut further comprising a plurality of deformable interference means which lie along a conical portion of the connection sleeve; said conical portion being designed to be seated inside the connection hole when the connection sleeve is introduced inside said connection hole and being oriented so that relative sliding of the ring nut and the connection sleeve, due to screwing of the ring nut with respect to said connection sleeve, results in deformation of the deformable interference means so as to obtain a contact force between the fixation member and the ring nut inside the connection hole and lock the endosseous screw assembly inside said connection hole of the fixation member. a stem extending longitudinally and having at least one threaded proximal portion for allowing anchoring to a bone site of a patient; a connection sleeve suitable for introduction inside a connection hole of a fixation member; the stem and the connection sleeve being formed as one piece or by two separate bodies with the stem partially inserted inside the connection sleeve and movable with respect to the connection sleeve; a ring nut rotatably mounted on the connection sleeve by means of a threaded connection and comprising a rim with teeth designed to cooperate by means of contact with a step formed on the fixation member, in the vicinity of the connection hole, so as to prevent rotation of said ring nut with respect to the fixation member when the connection sleeve is introduced into the connection hole of the fixation member; said ring nut further comprising a plurality of deformable interference means which lie along a conical portion of the connection sleeve; said conical portion being designed to be seated inside the connection hole when the connection sleeve is introduced inside said connection hole and being oriented so that relative sliding of the ring nut and the connection sleeve, due to screwing of the ring nut with respect to said connection sleeve, results in deformation of the deformable interference means so as to obtain a contact force between the fixation member and the ring nut inside the connection hole and lock the endosseous screw assembly inside said connection hole of the fixation member.
An intervertebral implant comprising: a piston component comprising an endplate surface and an inner surface disposed in an opposing orientation relative to the endplate surface, the piston component extending between an anterior end and a posterior end; a base component comprising an endplate surface and an inner surface disposed in an opposing orientation relative to the endplate surface of the base component, the base component extending between the anterior end and the posterior end, the base component including an actuator; and a wedge disposed for engagement and being movable relative to the piston and base component, the wedge comprising at least a first ramp (90, 96) and a second ramp (92, 98) axially spaced apart from the first ramp (90, 96), the wedge further comprises an anterior rail including at least a portion of each of the first ramp and the second ramp, and a posterior rail including at least a portion of each of the first ramp and the second ramp, at least one of the ramp portions (90, 92) disposed with the anterior rail has a first height and at least one of the ramp portions (96, 98) disposed with the posterior rail has a second height, the first height being greater than the second height, wherein the actuator is engageable with the wedge to effect axial translation of the wedge such that the ramps (90, 96, 92, 98) engage the inner surface of the piston component to move the components between a first, collapsed configuration and a second, expanded configuration. a piston component comprising an endplate surface and an inner surface disposed in an opposing orientation relative to the endplate surface, the piston component extending between an anterior end and a posterior end; a base component comprising an endplate surface and an inner surface disposed in an opposing orientation relative to the endplate surface of the base component, the base component extending between the anterior end and the posterior end, the base component including an actuator; and a wedge disposed for engagement and being movable relative to the piston and base component, the wedge comprising at least a first ramp (90, 96) and a second ramp (92, 98) axially spaced apart from the first ramp (90, 96), the wedge further comprises an anterior rail including at least a portion of each of the first ramp and the second ramp, and a posterior rail including at least a portion of each of the first ramp and the second ramp, at least one of the ramp portions (90, 92) disposed with the anterior rail has a first height and at least one of the ramp portions (96, 98) disposed with the posterior rail has a second height, the first height being greater than the second height, wherein the actuator is engageable with the wedge to effect axial translation of the wedge such that the ramps (90, 96, 92, 98) engage the inner surface of the piston component to move the components between a first, collapsed configuration and a second, expanded configuration.
Suspension strut mount arrangement for a motor vehicle, comprising an adjustable strut bearing with an elastomer ring, the adjustable strut bearing being arranged firstly axially via a suspension strut mount on a chassis spring of a suspension strut, and secondly coming into contact via a base ring at least indirectly with a vehicle body of the motor vehicle, in order to connect the suspension strut to the vehicle body in a damping manner, characterized in that the base ring has at least two axial cut-outs for guiding a respective plunger (9a, 9b), the at least two plungers (9a, 9b) coming into contact axially between the elastomer ring and an adjusting ring in order to change the stiffness of the strut bearing.
Power tool, in particular sawing device, having a base which forms a workpiece support surface, and an adjusting part connected to the base in an adjustable manner, wherein a latching element and a clamping element are provided on one of the parts (3; 6), preferably on the base, and a counterpart catch that matches the latching element, and a clamping face are provided on the other of the parts (3; 6), preferably on the adjusting part, in at least one defined location, wherein the latching element and the counterpart catch together form a form-fitting latching fixing device, and wherein the clamping element and the clamping face together form a force-fitting clamping fixing device, characterized in that the latching element and the clamping element are each provided with or connected to a handle, wherein the clamping element has a protrusion which cooperates in a corresponding manner with a counterpart on the latching element such that the latching element and the clamping element are at least partially actuation-coupled together as a result of a relative pivoting movement and as a result are forcibly locked at least for some of their actuation positions.
Method for filling a tank with pressurised hydrogen via a filling station comprising at least one buffer container (1, 2) and a fluid circuit (11, 12, 4, 6) connected to said at least one buffer container (1, 2), the circuit (11, 12, 4, 6) of the filling station comprising a first end connected to at least one source of hydrogen gas to ensure the filling of the at least one buffer container (1, 2) by gas coming from the source, the circuit (11, 12, 4, 6) comprising a second end provided with a transfer pipe intended to be connected removably to the tank that is to be filled with hydrogen coming from the at least one buffer container (1, 2), the method comprising a step of cooling the hydrogen supplied to the tank by transferring frigories between a cold source and the hydrogen, the method comprising a step of purifying the hydrogen supplied by the source in a purification member (9, 10) and a step of transferring frigories from said cold source to the hydrogen before and/or during a purification step, characterised in that the purification step is carried out before the transfer of the hydrogen in the at least one buffer container, and uses at least one purification member from among: a device for separating by pressure swing adsorption (PSA or TSA).
A method, comprising: providing, by a first network node (250 κ), control signaling among the first network node (250 κ) and a first plurality of network nodes (250 1 -250 Q) configured in a data replication topology in a data layer; receiving, by the first network node (250 κ), data indicative of a plurality of relative replication latencies for instantiation of a specific data item at at least two of the first plurality of network nodes (250 1 -250 Q) in response to the control signaling; generating, by the first network node(250 κ), a data structure having the data indicative of the plurality of relative replication latencies for instantiation of the specific data item; receiving a request for the specific data item from at least one network node of a second plurality of network nodes (214 1 -214 P); and selecting a second network node of the first plurality of network nodes (250 1 -250 Q) to service the request for the specific data item based at least on accessing the data structure to select the second network node of the first plurality of network nodes (250 1 -250 Q) based on a first relative replication latency for instantiation of the specific data item at the second network node of the first plurality of network nodes with respect to a second relative replication latency for instantiation of the specific content at at least one other network node of the first plurality of network nodes. providing, by a first network node (250 κ), control signaling among the first network node (250 κ) and a first plurality of network nodes (250 1 -250 Q) configured in a data replication topology in a data layer; receiving, by the first network node (250 κ), data indicative of a plurality of relative replication latencies for instantiation of a specific data item at at least two of the first plurality of network nodes (250 1 -250 Q) in response to the control signaling; generating, by the first network node(250 κ), a data structure having the data indicative of the plurality of relative replication latencies for instantiation of the specific data item; receiving a request for the specific data item from at least one network node of a second plurality of network nodes (214 1 -214 P); and selecting a second network node of the first plurality of network nodes (250 1 -250 Q) to service the request for the specific data item based at least on accessing the data structure to select the second network node of the first plurality of network nodes (250 1 -250 Q) based on a first relative replication latency for instantiation of the specific data item at the second network node of the first plurality of network nodes with respect to a second relative replication latency for instantiation of the specific content at at least one other network node of the first plurality of network nodes.
A vector encoding a modified receptor, and an exogenous agonist for said receptor, for use in a method of treatment of a seizure disorder which is focal epilepsy in a patient suffering from said disorder, which treatment comprises: (a) administering to said patient said vector, wherein the modified receptor is the G protein-coupled receptor (GPCR) human muscarinic acetylcholine receptor M 4 which is coupled via a Gi-protein to a G protein-coupled inwardly rectifying potassium channel (GIRK) the receptor being characterised by (i) a decreased responsiveness to its endogenous activating ligand (ii) a retained or enhanced responsiveness to the exogenous agonist, in either case wherein the modified receptor is encoded by a nucleic acid operably linked to a neuronal cell type-specific promoter such that said modified receptor is expressed in neurons of a seizure focus in brain of the patient; (b) administering to said patient said exogenous agonist, whereby the presence of said agonist in the brain of the patient activates said modified receptor, whereby activation of said modified receptor reversibly inhibits the excitability of, and neurotransmission by, the neurons in the seizure focus. (a) administering to said patient said vector, wherein the modified receptor is the G protein-coupled receptor (GPCR) human muscarinic acetylcholine receptor M 4 which is coupled via a Gi-protein to a G protein-coupled inwardly rectifying potassium channel (GIRK) the receptor being characterised by (i) a decreased responsiveness to its endogenous activating ligand (ii) a retained or enhanced responsiveness to the exogenous agonist, in either case wherein the modified receptor is encoded by a nucleic acid operably linked to a neuronal cell type-specific promoter such that said modified receptor is expressed in neurons of a seizure focus in brain of the patient; (b) administering to said patient said exogenous agonist,
A pharmaceutically acceptable composition for oral administration, the composition comprising: (i) a solid dispersion, wherein the solid dispersion comprises: the amorphous form of a compound represented by Formula: and a pharmaceutically acceptable polymer; and (ii) one or more pharmaceutically acceptable excipients. (i) a solid dispersion, wherein the solid dispersion comprises: the amorphous form of a compound represented by Formula: and a pharmaceutically acceptable polymer; and the amorphous form of a compound represented by Formula: and a pharmaceutically acceptable polymer; and (ii) one or more pharmaceutically acceptable excipients.
A battery active material represented by a general formula of Li (2+x) Na 2 Ti 6 O 14, wherein x is within a range of 0 ≤ x ≤ 6, and comprising at least one element selected from the group consisting of Zr, Mo, W, V, Nb, Ta, P, Y, Al, Fe, and B in a content of 0.03 to 8.33 atom%.
Process to separate particles from a particles-containing gas-stream coming from a regenerator, the gas stream containing fluid catalytic cracking catalyst fines, by subjecting the particles-containing gas stream to a centrifugal separation step, wherein the particles-containing gas stream is separated in a gas rich flow and a particles-rich flow and wherein the particles-rich flow is cooled from a temperature in the range from 600 to 800°C to a temperature in the range from 200 to 450°C before it is subjected to a second separation step, wherein particles are separated from the particles-rich flow, which cooling is carried out by a heat exchanger, a conduit having a length of at least 30 meters and/or by use of a conduit with finned piping.
A method of forming an engineered substrate assembly, the method comprising: forming a first semiconductor material at a front surface of a donor substrate by heteroepitaxial growth; transferring at least a portion (P 0) of the first semiconductor material to a first handle substrate, wherein the first handle substrate includes a first substrate material and a first bonding material encapsulating the first substrate material, wherein transferring the portion of the first semiconductor material includes bonding the first semiconductor material and the first bonding material, and separating the portion of the first semiconductor material from the donor substrate, and wherein the portion of the first semiconductor material forms a first formation structure at the first handle substrate; forming a second formation structure that includes the first formation structure and a second semiconductor material homoepitaxially grown on the first formation structure; and transferring a second portion (P 2) of the second formation structure to a second handle substrate such that a first portion (P 1) of the second formation structure remains at the first handle substrate, wherein the second handle substrate includes a second substrate material and a second bonding material encapsulating the second substrate material, and wherein transferring the second portion (P 2) of the second formation structure includes bonding the second formation structure and the second bonding material, and separating the first portion (P 1) of the second formation structure from the second portion (P 2) of the second formation structure. forming a first semiconductor material at a front surface of a donor substrate by heteroepitaxial growth; transferring at least a portion (P 0) of the first semiconductor material to a first handle substrate, wherein the first handle substrate includes a first substrate material and a first bonding material encapsulating the first substrate material, wherein transferring the portion of the first semiconductor material includes bonding the first semiconductor material and the first bonding material, and separating the portion of the first semiconductor material from the donor substrate, and wherein the portion of the first semiconductor material forms a first formation structure at the first handle substrate; forming a second formation structure that includes the first formation structure and a second semiconductor material homoepitaxially grown on the first formation structure; and transferring a second portion (P 2) of the second formation structure to a second handle substrate such that a first portion (P 1) of the second formation structure remains at the first handle substrate, wherein the second handle substrate includes a second substrate material and a second bonding material encapsulating the second substrate material, and wherein transferring the second portion (P 2) of the second formation structure includes bonding the second formation structure and the second bonding material, and separating the first portion (P 1) of the second formation structure from the second portion (P 2) of the second formation structure.
A rotor for a hybrid aerodyne having a fixed wing and a rotary wing suitable for being held stationary in cruising flight of the aerodyne, the rotor being suitable for producing lift by rotating during a stage of vertical flight and for being held stationary and stored longitudinally during a stage of cruising flight, the rotor being of the type comprising at least one single-blade with a counterweight, said single-blade comprising: - an active blade that generates the lift of the rotor during rotation; - a first portion that carries said active blade and that constitutes the connection between the active blade and the rotor mast; and - a second portion that carries said counterweight and that constitutes the connection between the counterweight and said rotor mast, the length of the active blade in its span direction being less than the radius R of the rotor; said portion carrying the active blade being a portion that is structurally rigid, in particular against bending and twisting; said portion carrying the active blade presenting a cross-section of aerodynamic profile having zero or almost zero lift when the rotor is in rotation; and the assembly constituted by the active blade and the rigid portion carrying the active blade is hinged about a transverse axis perpendicular to the axis of rotation of the rotor, substantially at said axis of rotation of the rotor mast, and the longitudinal axis of said active blade and of said rigid portion carrying the active blade intersects said axis of rotation; the rotor being characterized in that it comprises at least two substantially identical single-blades (20, 21) rotating in opposite directions, each about a respective one of axes of rotation that are longitudinally spaced apart along the roll axis of the aerodyne, or that are contrarotating about a common axis of rotation of the rotor mast; and in that, during cruising flight, each single-blade (20, 21) is stopped and locked longitudinally in such a manner that the counterweight (20d, 21d) is oriented towards the front of the aerodyne and the active blade (20a, 21a) is oriented towards the rear of the aerodyne, substantially in the direction of the roll axis of the aerodyne, and in that, during vertical flight, the single-blades (20, 21) rotate in opposite directions as the same angular speed from an initial zero position, which is said longitudinally stopped position. - an active blade that generates the lift of the rotor during rotation; - a first portion that carries said active blade and that constitutes the connection between the active blade and the rotor mast; and - a second portion that carries said counterweight and that constitutes the connection between the counterweight and said rotor mast,
A turbine housing which is applied to a turbine incorporated in a turbocharger, the turbine housing including a main body, in which a wheel housing chamber housing a turbine wheel and an exhaust passage are provided, the exhaust passage having one end communicating with an outlet of the wheel housing chamber and the other end providing an exhaust port, and gas passing through the wheel housing chamber being discharged from the exhaust port to outside through the exhaust passage, wherein the main body is provided with an upstream-side inner pipe and a downstream-side inner pipe therein, the upstream-side inner pipe having a shroud portion which is located in the wheel housing chamber and extends along edges of turbine blades of the turbine wheel, the downstream-side inner pipe being arranged in the exhaust passage so as to be located on a downstream side with respect to a direction of gas flow to the upstream-side inner pipe, and a thickness of the downstream-side inner pipe is thinner than a thickness of the upstream-side inner pipe, the turbine housing being characterized in that the downstream-side inner pipe is separated from the main body so that a clearance is provided between the downstream-side inner pipe and the main body, and also separated from the upstream-side inner pipe.
Seal arrangement in an intermediate piece, for a pivotable boat drive, the boat drive comprising a pivotable control device, the pivotable control device being mounted such that it can be pivoted about a vertical axis (z) with respect to a bearing which is supported on the hull side, and being fixed in both axial directions, the seal arrangement being arranged between the bearing which is supported on the hull side and the intermediate piece which can be inserted into a hull opening of a boat hull, and the bearing which is supported on the hull side forming an annular gap with the intermediate piece, characterized in that the seal arrangement comprises a first inner clamping apparatus, a second outer clamping apparatus and two flexible sealing elements (5, 6) which are clamped into the clamping apparatuses (3, 4) in each case on the inner and outer circumference, in that the first inner clamping apparatus can be fastened to the bearing, whereas the outer clamping apparatus is connected to the intermediate piece, in that the annular gap is bridged by the seal arrangement, and in that the at least two sealing elements (5, 6) enclose at least one annular chamber between them.