mhurhangee/ep-ind-claims huggingface dataset:
Adjustable modular spacer device for the articulation of the knee exclusively comprising a femoral component and a tibial component, wherein said femoral component is suitable for being fixedly connected to one end of the femoral bone near to the articulation of the knee, wherein said tibial component is suitable for being fixedly connected to one end of the tibial bone near to the articulation of the knee, said femoral component being suitable for coming into contact and for being articulated with said tibial component, wherein said femoral component comprises a concave inner surface (4, 6, 7, 8), in contact with the end of the femoral bone, and an outer surface (5, 7, 8), suitable for coming into contact with said tibial component and for making the condylar articulation, wherein said tibial component comprises an upper surface (21, 17, 18, 19), suitable for coming into contact with said femoral component and for making the condylar articulation, and a lower surface (22, 17), in contact with the end of the tibial bone, said femoral component comprising at least one condylar articular portion (7, 8) and an intercondylar central body, wherein said intercondylar central body and said at least one condylar articular portion (7, 8) are separate portions of said femoral component, respectively characterized in that said intercondylar central body is "L"-shaped, having a first vertical arm substantially corresponding to the front space between the femoral condyles, and a second horizontal arm and comprises at least one extension that extends along a transverse axis of the human body and lies on the transverse plane of the human body, and wherein said at least one articular portion (7, 8) comprises at least one seat that can be associated with the at least one extension of said central body.
A microphone assembly comprising: a printed circuit board defining a tab that extends from the PCB and is configured to extend into an opening defined by a substrate layer of a vehicle headliner; a microphone element mounted on the tab such that a port of the microphone element for receiving sound waves is oriented toward the tab; and a sealing element surrounding the tab and the microphone element and being configured to fill the opening and to further define an air path between a surface of the sealing element exposed to air and the tab, wherein the PCB defines a channel that connects the air path to the port of the microphone element, and the channel is parallel to a surface of the tab that is adjacent to the port. a printed circuit board defining a tab that extends from the PCB and is configured to extend into an opening defined by a substrate layer of a vehicle headliner; a microphone element mounted on the tab such that a port of the microphone element for receiving sound waves is oriented toward the tab; and a sealing element surrounding the tab and the microphone element and being configured to fill the opening and to further define an air path between a surface of the sealing element exposed to air and the tab, wherein the PCB defines a channel that connects the air path to the port of the microphone element, and the channel is parallel to a surface of the tab that is adjacent to the port.
A method for manufacturing a leaktight assembly wherein: - a bag comprising a wall of flexible film is provided, the wall of said bag defining an internal volume of said bag, said bag having two opposite ends, a first access opening at the first end adapted for placing the internal volume of the bag in communication with the outside of the bag, a second access opening at the second end adapted for placing the internal volume of the bag in communication with the outside of the bag, - a connection system is provided, the connection system comprising a connector adapted for mechanical connection to a complementary connector of a sterile chamber in order to establish a sterile communication between the bag and the chamber, the connector comprising a portion for attachment to the bag, characterized in that the connection system further comprises an overmolding molded over the attachment portion and chosen from a suitable material allowing the welding of the bag wall to the overmolding, the manufacturing method further comprising the steps of: - positioning the wall of the bag facing the overmolding at the first access opening, the attachment portion surrounding a space for passage between the bag and the chamber at said first access opening, - welding the wall of the bag to the overmolding in a closed continuous manner all along the first access opening at a temperature allowing the wall of the bag and the overmolding to melt without the connector melting. - a bag comprising a wall of flexible film is provided, the wall of said bag defining an internal volume of said bag, said bag having two opposite ends, a first access opening at the first end adapted for placing the internal volume of the bag in communication with the outside of the bag, a second access opening at the second end adapted for placing the internal volume of the bag in communication with the outside of the bag, - a connection system is provided, the connection system comprising a connector adapted for mechanical connection to a complementary connector of a sterile chamber in order to establish a sterile communication between the bag and the chamber, the connector comprising a portion for attachment to the bag, characterized in that the connection system further comprises an overmolding molded over the attachment portion and chosen from a suitable material allowing the welding of the bag wall to the overmolding, - positioning the wall of the bag facing the overmolding at the first access opening, the attachment portion surrounding a space for passage between the bag and the chamber at said first access opening, - welding the wall of the bag to the overmolding in a closed continuous manner all along the first access opening at a temperature allowing the wall of the bag and the overmolding to melt without the connector melting.
Optical measuring device for determining properties of an object with: - a first illumination unit designed to project a line-shaped marking on an illumination plane, and - a first image pickup unit for detecting the line-shaped marking projected onto the object, - an optical element arranged in the beam path between the light sources of the first illumination unit and the illumination plane, wherein the first illumination unit has a plurality of light sources aligned such that light rays from the plurality of light sources are collimated on common target points in the optical element. - a first illumination unit designed to project a line-shaped marking on an illumination plane, and - a first image pickup unit for detecting the line-shaped marking projected onto the object, - an optical element arranged in the beam path between the light sources of the first illumination unit and the illumination plane,
A method of depositing a multicomponent film on at least a portion of a substrate comprising steps (a) to (d) and optionally steps (e) and (f): a) contacting the substrate with a Ge precursor comprising HGeCl 3 to react with the substrate and provide a first coating layer comprising Ge; b) introducing a purge gas to remove any unreacted Ge precursor; c) contacting the first coating layer comprising Ge with a Te precursor, wherein at least a portion of the Te precursor reacts with the Ge comprised therein to provide a second coating layer comprising Ge and Te; d) introducing a purge gas to remove any unreacted Te precursor; e) contacting the second coating layer comprising Ge and Te with a Sb precursor, wherein at least a portion of the Sb precursor reacts with at least a portion of the Ge and Te comprised therein to provide a third coating layer comprising Ge, Te, and Sb; f) introducing a purge gas to remove any unreacted Sb precursor; wherein steps (a) through (d), (a) through (f) and/or (e) through (f) are repeated to form a number of coating layers and provide the film. a) contacting the substrate with a Ge precursor comprising HGeCl 3 to react with the substrate and provide a first coating layer comprising Ge; b) introducing a purge gas to remove any unreacted Ge precursor; c) contacting the first coating layer comprising Ge with a Te precursor, wherein at least a portion of the Te precursor reacts with the Ge comprised therein to provide a second coating layer comprising Ge and Te; d) introducing a purge gas to remove any unreacted Te precursor; e) contacting the second coating layer comprising Ge and Te with a Sb precursor, wherein at least a portion of the Sb precursor reacts with at least a portion of the Ge and Te comprised therein to provide a third coating layer comprising Ge, Te, and Sb; f) introducing a purge gas to remove any unreacted Sb precursor;
A hose (100, 500) comprising: an inner tube for communicating fluid; a reinforcement layer positioned over the inner tube; an intermediate cover positioned over the reinforcement layer, and an outer cover comprising an abrasion resistant material, characterized in that the intermediate cover has a thickness of between 1.3mm and 3.0mm and comprises a material having a hardness of between 40 Shore A and 60 Shore A.
An automatic detachable combined toy gyro, wherein the combined toy gyro comprises at least vertically joined upper and lower gyros (1, 2), each having an elastic tip (11, 21), wherein the upper and lower toy gyros (1, 2) each comprise an axis body (12, 22) and a gyro ring (13, 23) sleeved on the axis body, each elastic tip including a tip body connected to a lower end of its associated axis body and including a spring (14, 24) in an inner cavity of each tip body, wherein the spring in the elastic tip of the upper gyro is in a compressed state when the tip body of the upper gyro is inserted into the axis body of the lower gyro to implement jointing of the upper and lower gyros, whereby the upper gyro in the combined gyros (1, 2) automatically releases its connection with the lower gyro in the combined gyros when it is impacted or rotation thereof is blocked during rotation, wherein the upper gyro is ejected from the lower gyro under an action of the spring of the elastic tip (11, 21) in the upper gyro to separately form a rotating upper gyro together with a rotating lower gyro.
Method of modifying a solid-state body, especially of removing at least one solid-state layer from a donor substrate, at least comprising the steps of: providing the donor substrate, wherein the donor substrate has crystal lattice planes inclined relative to a planar main surface, wherein the main surface delimits the donor substrate in longitudinal direction of the donor substrate on one side, wherein a crystal lattice plane normal is inclined in a first direction relative to a main surface normal, providing at least one laser, introducing laser radiation from the laser into the interior of the donor substrate, especially via the main surface, to change the material properties of the donor substrate in the region of at least one laser focus, wherein the laser focus is formed by laser beams from the laser emitted by the laser, wherein the change in the material property by changing the site of penetration of the laser radiation into the donor substrate forms a linear design, wherein the changes in the material property are generated in at least one generation plane, wherein the crystal lattice planes of the donor substrate are in an inclined alignment relative to the generation plane, wherein the linear design is inclined at least in sections, preferably mainly, with respect to a cutting line that arises at the interface between the generation plane and the crystal lattice plane. providing the donor substrate, wherein the donor substrate has crystal lattice planes inclined relative to a planar main surface, wherein the main surface delimits the donor substrate in longitudinal direction of the donor substrate on one side, wherein a crystal lattice plane normal is inclined in a first direction relative to a main surface normal, providing at least one laser, introducing laser radiation from the laser into the interior of the donor substrate, especially via the main surface, to change the material properties of the donor substrate in the region of at least one laser focus, wherein the laser focus is formed by laser beams from the laser emitted by the laser, wherein the change in the material property by changing the site of penetration of the laser radiation into the donor substrate forms a linear design, wherein the changes in the material property are generated in at least one generation plane, wherein the crystal lattice planes of the donor substrate are in an inclined alignment relative to the generation plane, wherein the linear design is inclined at least in sections, preferably mainly, with respect to a cutting line that arises at the interface between the generation plane and the crystal lattice plane.
A wear resistant member composed of a silicon nitride sintered body comprising a silicon nitride crystalline particle and a grain boundary phase, the silicon nitride sintered body having an area ratio of the grain boundary phase per 100 μm × 100 μm unit area of 15 to 35% when an arbitrary cross section thereof is photographed, wherein: (a) the total area ratio of the silicon nitride crystalline particle having a major axis L of 1 μm or more in a 100 μm × 100 μm unit area is 60% or more, and any aspect ratio (major axis L/minor axis S) of the silicon nitride crystalline particles having a major axis of 1 μm or more is 7 or less, (b) the machinable coefficient Mc of the silicon nitride sintered body is within a range from 0.120 to 0.150, the machinable coefficient Mc being calculated using the equation Mc = Fn 9/8 /(K 1c 1/2 ·Hv 5/8), wherein Fn represents an indentation load of 20 kgf, K 1c represents the fracture toughness value of the silicon nitride sintered body which is measured in accordance with an indentation fracture method in JIS-R-1607, and Hv represents the Vickers hardness of the silicon nitride sintered body which is measured in accordance with JIS-R-1610, and (c) a sliding surface of the silicon nitride sintered body is a polished surface having a surface roughness Ra of 0.1 μm or less. (a) the total area ratio of the silicon nitride crystalline particle having a major axis L of 1 μm or more in a 100 μm × 100 μm unit area is 60% or more, and any aspect ratio (major axis L/minor axis S) of the silicon nitride crystalline particles having a major axis of 1 μm or more is 7 or less, (b) the machinable coefficient Mc of the silicon nitride sintered body is within a range from 0.120 to 0.150, the machinable coefficient Mc being calculated using the equation Mc = Fn 9/8 /(K 1c 1/2 ·Hv 5/8), wherein Fn represents an indentation load of 20 kgf, K 1c represents the fracture toughness value of the silicon nitride sintered body which is measured in accordance with an indentation fracture method in JIS-R-1607, and Hv represents the Vickers hardness of the silicon nitride sintered body which is measured in accordance with JIS-R-1610, and (c) a sliding surface of the silicon nitride sintered body is a polished surface having a surface roughness Ra of 0.1 μm or less.
A method for offloading data traffic of a wireless communication device, the method comprising: receiving, from a first computing device carrying out an anchor session management function, a request message, wherein the request message includes a data network access identifier of a data network to which the data traffic is to be offloaded; using the data network access identifier, selecting a second computing device to carry out an intermediate session management function; and transmitting a message to the second computing device to create a context for the wireless communication device, wherein the anchor session management function provides a traffic steering policy that includes a traffic filter to identify a traffic subject to offloading, wherein, in a case that an access and mobility management function receives the traffic steering policy from the anchor session management function, the access and mobility management function transmits the traffic steering policy to the intermediate session management function, or in a case that the access and mobility management function does not receive the traffic steering policy from the anchor session management function, the anchor session management function transmits the traffic steering policy to the intermediate session management function. receiving, from a first computing device carrying out an anchor session management function, a request message, wherein the request message includes a data network access identifier of a data network to which the data traffic is to be offloaded; using the data network access identifier, selecting a second computing device to carry out an intermediate session management function; and transmitting a message to the second computing device to create a context for the wireless communication device, wherein the anchor session management function provides a traffic steering policy that includes a traffic filter to identify a traffic subject to offloading, wherein, in a case that an access and mobility management function receives the traffic steering policy from the anchor session management function, the access and mobility management function transmits the traffic steering policy to the intermediate session management function, or in a case that the access and mobility management function does not receive the traffic steering policy from the anchor session management function, the anchor session management function transmits the traffic steering policy to the intermediate session management function.
A system for presenting media data to communication clients (11, 12) in the course of a communication data exchange (31, 32) between said communication clients (11, 12) of a telecommunication network, said system comprising: - a storage engine storing a plurality of media data files (15, 16, 17), - an application control server, arranged for receiving media data file selection signals (20, 21, 22) from at least one of said communication clients (11, 12) in the course of said communication data exchange (31, 32), and for selecting media data files (15, 16, 17) from said storage engine based on said received media data file section signals (20, 21, 22), and - a communication processing server, arranged for exchanging media data with said communication clients (11, 12) and for retrieving said selected media data files (15, 16, 17) from said storage engine, for simultaneously presenting said retrieved media data files (15, 16, 17) at said communication clients (11, 12) in the course of said communication data exchange (31, 32), characterised in that said application control server is arranged for exchanging media data file related control data and metadata, including said media data file selection signals (20, 21, 22), with at least one of said communication clients (11, 12) using an Internet Protocol, IP, enabled communication channel. - a storage engine storing a plurality of media data files (15, 16, 17), - an application control server, arranged for receiving media data file selection signals (20, 21, 22) from at least one of said communication clients (11, 12) in the course of said communication data exchange (31, 32), and for selecting media data files (15, 16, 17) from said storage engine based on said received media data file section signals (20, 21, 22), and - a communication processing server, arranged for exchanging media data with said communication clients (11, 12) and for retrieving said selected media data files (15, 16, 17) from said storage engine, for simultaneously presenting said retrieved media data files (15, 16, 17) at said communication clients (11, 12) in the course of said communication data exchange (31, 32),
Method of stopping an engine of a rotorcraft in overspeed, said rotorcraft comprising at least one engine, said engine comprising a gas generator and a power assembly, said power assembly having at least one power turbine set in rotation by gases coming from the gas generator, said power assembly having at least one power shaft connected to the power turbine in such a way as to rotate therewith, characterized in that, when said engine is in operation, said engine is stopped automatically when the following three conditions are satisfied simultaneously: - a torque (Tq) measured on said power assembly is below a predetermined torque threshold, and - a speed of rotation, referred to as "first speed of rotation ", of said gas generator is above a threshold referred to as "first speed threshold ", and - a speed of rotation, referred to as "second speed of rotation ", of said power assembly is above a threshold referred to as "second speed threshold ". - a torque (Tq) measured on said power assembly is below a predetermined torque threshold, and - a speed of rotation, referred to as "first speed of rotation ", of said gas generator is above a threshold referred to as "first speed threshold ", and - a speed of rotation, referred to as "second speed of rotation ", of said power assembly is above a threshold referred to as "second speed threshold ".
A nozzle assembly comprising: a plurality of moveable nozzles configured to move between a closed position and an open position; and a drive mechanism configured to transition the moveable nozzles between the closed position and the open position; and one or more stationary nozzles; characterized in that the moveable nozzles are configured to abut the one or more stationary nozzles in the closed position, and the nozzle assembly is configured to form a single output stream in the closed position and multiple output streams in the open position. a plurality of moveable nozzles configured to move between a closed position and an open position; and a drive mechanism configured to transition the moveable nozzles between the closed position and the open position; and one or more stationary nozzles; characterized in that the moveable nozzles are configured to abut the one or more stationary nozzles in the closed position, and the nozzle assembly is configured to form a single output stream in the closed position and multiple output streams in the open position.
Sea vessel equipped with self-raising legs, wherein each leg comprises: a. a vertical structural element capable of lowering and raising; b. a device for sitting on the seabed, for absorbing collisions and for centering, arranged at the support end of said structural element, whereby said device consists of: i. a coaxial telescopic means fixedly connected to said structural element through a hinged elastic means; ii. a support foot comprising a semi-spherical joint connected to the unconnected end of said telescopic means, the flat part of said support foot facing the seabed; and iii. a coaxial centering pin fixedly connected to the support foot through said hinged elastic means, suitable for centering housings arranged on the seabed. a. a vertical structural element capable of lowering and raising; b. a device for sitting on the seabed, for absorbing collisions and for centering, arranged at the support end of said structural element, whereby said device consists of: i. a coaxial telescopic means fixedly connected to said structural element through a hinged elastic means; ii. a support foot comprising a semi-spherical joint connected to the unconnected end of said telescopic means, the flat part of said support foot facing the seabed; and iii. a coaxial centering pin fixedly connected to the support foot through said hinged elastic means, suitable for centering housings arranged on the seabed. i. a coaxial telescopic means fixedly connected to said structural element through a hinged elastic means; ii. a support foot comprising a semi-spherical joint connected to the unconnected end of said telescopic means, the flat part of said support foot facing the seabed; and iii. a coaxial centering pin fixedly connected to the support foot through said hinged elastic means, suitable for centering housings arranged on the seabed.