mhurhangee/ep-ind-claims huggingface dataset:
Turbomachine having a valve, wherein the turbomachine comprises an inner inner casing, an outer inner casing and an outer casing, wherein the valve comprises a valve diffuser and a valve casing, wherein the valve casing is connected to the outer casing by means of a valve flange, wherein the inner inner casing is connected to an intermediate ring by means of a first angle-ring connection, wherein the outer inner casing is connected to the valve diffuser by means of a second angle-ring connection, wherein the second angle-ring connection comprises a second angle-ring, which has a first angle-ring leg and a second angle-ring leg, wherein the second angle-ring leg is arranged in a corresponding valve diffuser groove, wherein there is provided an annular component, which is designed such that the valve diffuser groove is formed between the annular component and the valve diffuser, wherein the intermediate ring is arranged in a force-fitting manner on the outer inner casing and has a second intermediate ring groove for receiving the second angle-ring.
A method for communication in a wireless network, comprising the following steps performed by a station: receiving a trigger frame, wherein the trigger frame comprises an identifier of a target resource unit, RU, allocated to the station, and the target RU is in a frequency domain; sending an uplink orthogonal frequency division multiple access physical layer protocol data unit, OFDMA PPDU, wherein a data part of the uplink OFDMA PPDU is sent on the target RU, and a common physical layer preamble of the uplink OFDMA PPDU is sent on one or more channel units in which the target RU is located; and receiving a downlink OFDMA PPDU in response to the uplink OFDMA PPDU, wherein the downlink OFDMA PPDU comprises an acknowledgement frame for the station, the acknowledgement frame for the station is received on a selected RU, the selected RU is in the frequency domain and in the one or more channel units, and the selected RU in the frequency domain is different from the target RU in the frequency domain. receiving a trigger frame, wherein the trigger frame comprises an identifier of a target resource unit, RU, allocated to the station, and the target RU is in a frequency domain; sending an uplink orthogonal frequency division multiple access physical layer protocol data unit, OFDMA PPDU, wherein a data part of the uplink OFDMA PPDU is sent on the target RU, and a common physical layer preamble of the uplink OFDMA PPDU is sent on one or more channel units in which the target RU is located; and receiving a downlink OFDMA PPDU in response to the uplink OFDMA PPDU, wherein the downlink OFDMA PPDU comprises an acknowledgement frame for the station, the acknowledgement frame for the station is received on a selected RU, the selected RU is in the frequency domain and in the one or more channel units, and the selected RU in the frequency domain is different from the target RU in the frequency domain.
A method comprising: separating, at a device, an input audio signal into at least a low-band signal and a high-band signal, the low-band signal corresponding to a low-band frequency range and the high-band signal corresponding to a high-band frequency range; determining a parameter indicating a characteristic of the low band signal; selecting a non-linear processing function of a plurality of non-linear processing functions based on the parameter; generating a first extended signal based on the low-band signal and the non-linear processing function; generating at least one adjustment parameter based on the first extended signal, the high-band signal, or both, for multiplexing into an output bit stream; characterised in that selecting the non-linear processing function comprises, selecting a first non-linear processing function of the plurality of non-linear processing functions in response to determining that the parameter associated with a frame of the input audio signal satisfies a first condition, and selecting a second non-linear processing function of the plurality of non-linear processing functions in response to determining that the parameter satisfies a second condition. separating, at a device, an input audio signal into at least a low-band signal and a high-band signal, the low-band signal corresponding to a low-band frequency range and the high-band signal corresponding to a high-band frequency range; determining a parameter indicating a characteristic of the low band signal; selecting a non-linear processing function of a plurality of non-linear processing functions based on the parameter; generating a first extended signal based on the low-band signal and the non-linear processing function; generating at least one adjustment parameter based on the first extended signal, the high-band signal, or both, for multiplexing into an output bit stream; characterised in that selecting the non-linear processing function comprises, selecting a first non-linear processing function of the plurality of non-linear processing functions in response to determining that the parameter associated with a frame of the input audio signal satisfies a first condition, and selecting a second non-linear processing function of the plurality of non-linear processing functions in response to determining that the parameter satisfies a second condition.
A two-degree-of-freedom planar rehabilitating, monitoring and/or evaluating device, comprising: - a first guiding mechanism, - a second guiding mechanism, substantially parallel to the first guiding mechanism, - a third guiding mechanism, substantially perpendicular to the first and second guiding mechanisms (2, 3), and - an end-effector connected to the third guiding mechanism, wherein - the first guiding mechanism comprises at least one first guiding rail (2.1) and a first slider (2.2) slidably connected to the at least one first guiding rail (2.1); - the second guiding mechanism comprises at least one second guiding rail (3.1) and a second slider (3.2) slidably connected to the at least one second guiding rail (3.1); - the third guiding mechanism comprises at least one third guiding rail (4.1) and a third slider (4.2) slidably connected to the at least one third guiding rail (4.1); wherein the third guiding mechanism is connected to the first and second guiding mechanisms (2, 3) through the first and second sliders (2.2, 3.2), characterized in that the first guiding mechanism comprises a first driving module (2.3) driving the first slider (2.2) and the third guiding mechanism comprises a third driving module (4.3) driving the third slider (4.2), whereas the second guiding mechanism does not comprise any driving module driving the second slider (3.2). - a first guiding mechanism, - a second guiding mechanism, substantially parallel to the first guiding mechanism, - a third guiding mechanism, substantially perpendicular to the first and second guiding mechanisms (2, 3), and - an end-effector connected to the third guiding mechanism, - the first guiding mechanism comprises at least one first guiding rail (2.1) and a first slider (2.2) slidably connected to the at least one first guiding rail (2.1); - the second guiding mechanism comprises at least one second guiding rail (3.1) and a second slider (3.2) slidably connected to the at least one second guiding rail (3.1); - the third guiding mechanism comprises at least one third guiding rail (4.1) and a third slider (4.2) slidably connected to the at least one third guiding rail (4.1);
A prosthetic heart valve device comprising: an anchoring member having an annular fixation structure with an upstream portion and a downstream portion; a tubular valve support having a first portion coupled to the downstream portion of the anchoring member and a second portion spaced radially inward from the upstream portion of the anchoring member; a valve assembly coupled to the valve support and having at least one leaflet movable from a closed position in which blood flow is blocked through the valve support and an open position in which blood flow is allowed through the valve support in a downstream direction; and an extension member having an annular first portion coupled to the fixation structure and a second portion coupled to the first portion, wherein the extension member folds back on itself in a delivery configuration such that the first portion extends distally from the fixation structure and the second portion extends back proximally from the first portion, and when the extension member is in a deployed configuration, the first portion extends radially outwardly from the fixation structure and the second portion extends radially outwardly from the first portion. an anchoring member having an annular fixation structure with an upstream portion and a downstream portion; a tubular valve support having a first portion coupled to the downstream portion of the anchoring member and a second portion spaced radially inward from the upstream portion of the anchoring member; a valve assembly coupled to the valve support and having at least one leaflet movable from a closed position in which blood flow is blocked through the valve support and an open position in which blood flow is allowed through the valve support in a downstream direction; and an extension member having an annular first portion coupled to the fixation structure and a second portion coupled to the first portion, wherein the extension member folds back on itself in a delivery configuration such that the first portion extends distally from the fixation structure and the second portion extends back proximally from the first portion, and when the extension member is in a deployed configuration, the first portion extends radially outwardly from the fixation structure and the second portion extends radially outwardly from the first portion. fixation structure and a second portion coupled to the first portion, wherein the extension member folds back on itself in a delivery configuration such that the first portion extends distally from the fixation structure and the second portion extends back proximally from the first portion, and when the extension member is in a deployed configuration, the first portion extends radially outwardly from the fixation structure and the second portion extends radially outwardly from the first portion.
A sled comprising: communication circuitry including a network interface controller, NIC, having a plurality of ports and providing one or more physical functions, wherein each port is to be connected with one of a plurality of switches of a network device and wherein each port is mapped to the one or more physical functions; and a compute engine comprising at least a first processor socket and a second processor socket, and wherein the sled is in a non-uniform memory access, NUMA, mode, and wherein the first processor socket and second processor socket are mapped to the one or more of the plurality of ports, wherein the compute engine is configured to: determine that a link failure between a first one of the ports and a first one of the plurality of switches has occurred; determine a hierarchy of connections from the network device to the first and second processor sockets using a distributed hashing table; determine, from the hierarchy of connections, a load balancing path for the first one of the ports; and remap the first port based on the determined load balancing path such that a packet flow from an uplink received on a port associated with the load balancing path is delivered to one or more physical functions mapped to the first one of the ports. communication circuitry including a network interface controller, NIC, having a plurality of ports and providing one or more physical functions, wherein each port is to be connected with one of a plurality of switches of a network device and wherein each port is mapped to the one or more physical functions; and a compute engine comprising at least a first processor socket and a second processor socket, and wherein the sled is in a non-uniform memory access, NUMA, mode, and wherein the first processor socket and second processor socket are mapped to the one or more of the plurality of ports, wherein the compute engine is configured to: determine that a link failure between a first one of the ports and a first one of the plurality of switches has occurred; determine a hierarchy of connections from the network device to the first and second processor sockets using a distributed hashing table; determine, from the hierarchy of connections, a load balancing path for the first one of the ports; and remap the first port based on the determined load balancing path such that a packet flow from an uplink received on a port associated with the load balancing path is delivered to one or more physical functions mapped to the first one of the ports. determine that a link failure between a first one of the ports and a first one of the plurality of switches has occurred; determine a hierarchy of connections from the network device to the first and second processor sockets using a distributed hashing table; determine, from the hierarchy of connections, a load balancing path for the first one of the ports; and remap the first port based on the determined load balancing path such that a packet flow from an uplink received on a port associated with the load balancing path is delivered to one or more physical functions mapped to the first one of the ports.
A layered structure, comprising: a monolithic substrate having a continuous portion and a porous portion; a first epitaxial metal layer over the monolithic substrate; and a first semiconductor layer over the first epitaxial metal layer, wherein the first epitaxial metal layer is directly over the monolithic substrate, and wherein the first epitaxial metal layer is in direct contact with the porous portion of the monolithic substrate or further comprising a first rare earth oxide layer, wherein the first rare earth oxide layer is between the monolithic substrate and the first epitaxial metal layer, and directly over the monolithic substrate, and wherein the porous portion borders the first rare earth oxide layer without any transition layer in between. a monolithic substrate having a continuous portion and a porous portion; a first epitaxial metal layer over the monolithic substrate; and a first semiconductor layer over the first epitaxial metal layer, wherein the first epitaxial metal layer is directly over the monolithic substrate, and wherein the first epitaxial metal layer is in direct contact with the porous portion of the monolithic substrate or further comprising a first rare earth oxide layer, wherein the first rare earth oxide layer is between the monolithic substrate and the first epitaxial metal layer, and directly over the monolithic substrate, and wherein the porous portion borders the first rare earth oxide layer without any transition layer in between.
Method for manufacturing an internally geared hollow wheel which is to be mounted fixed to the housing in a gear casing of a planetary gear, wherein the method comprises the step of making gear tooth corrections over the circumference of the hollow wheel on the load flanks of the individual hollow wheel gear teeth, wherein the gear tooth corrections to the individual load flanks are performed selectively differently over the circumference of the hollow wheel, such that load flanks with different flank topographies are produced along the circumference, characterised in that the method comprises the further step of also making gear tooth corrections over the circumference of the hollow wheel for the rear flanks of the individual hollow wheel gear teeth, such that each gear-tooth-corrected load flank is replaced by a predetermined gear-tooth-corrected rear flank of the same flank topography, when the hollow wheel is rotated about a radial rotary axis (A w) which extends centrally through the hollow wheel centre point, turned by 180° and rotated by a predetermined angle about an axial hollow wheel centre axis (A x), wherein the predetermined angle can also be 0° as a function of the selection of the rotary axis.
A compound for use in optical imaging having the formula: wherein Cat + is a cation; X and Y are each independently O, S, Se, or (CH 3) 2 C; one of R 8 and R 13 is (CH 2) r R 18 and the other is (CH 2) r R 25, wherein r is an integer from 1 to 50; R 18 is a maleimidyl; and R 25 is a functional group that does not directly react with a carboxyl, hydroxyl, amino, or a thiol group, and is selected from hydroxyl, thioacetyl, and sulfonato; R 11 is sulfonato; R 12 is H or sulfonato; R 16 is sulfonato; and R 17 is hydrogen or sulfonato. wherein Cat + is a cation; X and Y are each independently O, S, Se, or (CH 3) 2 C; one of R 8 and R 13 is (CH 2) r R 18 and the other is (CH 2) r R 25, wherein r is an integer from 1 to 50; R 18 is a maleimidyl; and R 25 is a functional group that does not directly react with a carboxyl, hydroxyl, amino, or a thiol group, and is selected from hydroxyl, thioacetyl, and sulfonato; R 11 is sulfonato; R 12 is H or sulfonato; R 16 is sulfonato; and R 17 is hydrogen or sulfonato. r is an integer from 1 to 50; R 18 is a maleimidyl; and R 25 is a functional group that does not directly react with a carboxyl, hydroxyl, amino, or a thiol group, and is selected from hydroxyl, thioacetyl, and sulfonato; R 11 is sulfonato; R 12 is H or sulfonato; R 16 is sulfonato; and R 17 is hydrogen or sulfonato.
A filtering cartridge for a home laundry drier provided with a laundry loading/unloading opening, with a slit formed in the peripheral edge of said laundry loading/unloading opening, and with an air recirculating conduit, said filtering cartridge comprising a supporting plate which is made of plastic material and is structured for being insertable in easy removable manner into said slit of said laundry drier so as to completely close said slit, and a substantially bag-shaped hollow shell which overhangingly protrudes from the rear face of the supporting plate so as to extend, when said filtering cartridge is inserted in said slit, inside a section of said air recirculating conduit of said laundry drier; characterised by the hollow shell being realized in one piece with the supporting plate via an injection molding process, and being divided into two complementary valve-like pieces (22a, 22b) which are laterally hinged to one another, wherein, each valve-like piece (22a, 22b) comprising a coupling peripheral edge for coming in abutment one against the other said filtering cartridge is also provided with a first annular gasket which is made of thermoplastic elastomer and is over-injected on the whole peripheral edge of the supporting plate, and/or with a second annular gasket which is made of thermoplastic elastomer and is over-injected along the whole coupling peripheral edge of at least one of the two valve-like pieces (22a, 22b).
A method of manufacture of a product from a composite material comprising winding a material comprising fibres and a resin material onto a mandrel, monitoring the material, before it is wound onto the mandrel, as it is wound onto the mandrel or once it is wound onto the mandrel, to ascertain at least one dimension of the material, and monitoring the weight of the material wound onto the mandrel, and controlling the winding of the material onto the mandrel to take into account variations in the material being wound using the at least one dimension and the weight values derived during the monitoring, and deriving, from the monitored at least one dimension, a cross-sectional area value for the material being wound.
Bead-apex storage system for handling a plurality of carriers, wherein each carrier is arranged to support a stack of bead-apexes stacked in a stacking direction and alternated with spacers separating the bead-apexes from each other in said stacking direction, wherein the bead-apex storage system comprises a plurality of storage stations (A1-A8) for storing the carriers and a transfer station for transferring one of the plurality of bead-apexes to a tire building machine, wherein the bead-apex storage system further comprises a spacer gripper for lifting one or more of the spacers with bead-apexes supported thereon from one of the carriers in one of the plurality of storage stations and for carrying said one or more lifted spacers to the transfer station, wherein the bead-apex storage system comprises a spacer gripper base for supporting the spacer gripper, characterized in that the spacer gripper base is movable from the transfer station to any the plurality of storage stations (A1-A8).
A device for cellularized membrane cultivation comprising: a culture vessel having one or more first sidewalls, a bottom surface, and a culture space being formed in an interior of the culture vessel, and a cover configured to be coupled to the culture vessel, wherein the culture space is configured to receive a membrane for cell and tissue growth on the bottom surface of the culture vessel, characterized in that the cover comprises first cover connectors and the first sidewalls of the culture vessel comprise first vessel connectors that are adapted to mate with the first cover connectors such that, in use, the first cover connectors press the membrane against the bottom surface of the culture vessel to prevent the membrane from moving. a culture vessel having one or more first sidewalls, a bottom surface, and a culture space being formed in an interior of the culture vessel, and a cover configured to be coupled to the culture vessel, wherein the culture space is configured to receive a membrane for cell and tissue growth on the bottom surface of the culture vessel, characterized in that the cover comprises first cover connectors and the first sidewalls of the culture vessel comprise first vessel connectors that are adapted to mate with the first cover connectors such that, in use, the first cover connectors press the membrane against the bottom surface of the culture vessel to prevent the membrane from moving. the culture space is configured to receive a membrane for cell and tissue growth on the bottom surface of the culture vessel, characterized in that the cover comprises first cover connectors and the first sidewalls of the culture vessel comprise first vessel connectors that are adapted to mate with the first cover connectors such that, in use, the first cover connectors press the membrane against the bottom surface of the culture vessel to prevent the membrane from moving.
A method of waterproof treating an outdoor tank installed on a foundation, a boundary region being defined between the bottom of the outdoor tank and the foundation, the method comprising the step of attaching a plurality of waterproof sheets across the boundary region so as to extend from the outdoor tank to the foundation, thereby forming a liquid-tight cover to the boundary region; the waterproof sheets being juxtaposed and liquid-tightly overlapped to form a liquid-tight cover to the boundary region, the overlap between adjacent waterproof sheets having a width of at least 5 mm, characterized by said waterproof sheets being formed of silicone, comprising a rubber base made of silicone rubber and a pressure-sensitive adhesive layer, made of a silicone resin or silicone gel having pressure-sensitive adhesive properties, stacked on one surface of the rubber base, the waterproof sheet being attached such that the pressure-sensitive adhesive surface extends across the boundary region from the outdoor tank to the foundation and has a bond strength of 0.5 to 10 N/25 mm relative to the outdoor tank and 0.5 to 10 N/25 mm relative to the foundation, and wherein the waterproof sheet is directly attached to the outdoor tank and the foundation without any primer.