mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an isocyanate compound represented by formula [wherein R 1 represents a methyl group, a cyclopropyl group, a chlorine atom, a bromine atom, an ethyl group or a methoxy group; and R 2 represents an alkyl group having 1 to 6 carbon atoms], comprising reacting a compound represented by formula [wherein R 1 and R 2 are as defined above] with a phosgene compound at 10°C to 14°C in the presence of a tertiary amine in at least one kind of solvent selected from the group consisting of chlorobenzene and ortho-dichlorobenzene.
Disposable flow chip device comprising: - a microfluidic chip comprising two reservoirs (13, 14) being in fluidic communication with a micro-channel, with one or more detection zone(s) and with connectors; - a pump cartridge comprising a pipe able to be in contact, with one or more roller(s) of an external peristaltic pump, and hermetic connectors complementary to the microfluidic chip connectors; and wherein said pipe is in fluid communication with the reservoirs (13, 14) of the microfluidic chip, wherein the said reservoirs (13, 14) are connected by means of venting channels to venting holes that are hermetically sealed by a lid. - a microfluidic chip comprising two reservoirs (13, 14) being in fluidic communication with a micro-channel, with one or more detection zone(s) and with connectors; - a pump cartridge comprising a pipe able to be in contact, with one or more roller(s) of an external peristaltic pump, and hermetic connectors complementary to the microfluidic chip connectors; and wherein said pipe is in fluid communication with the reservoirs (13, 14) of the microfluidic chip, wherein the said reservoirs (13, 14) are connected by means of venting channels to venting holes that are hermetically sealed by a lid.
A backlight assembly comprising: a light guide plate having at least one slit; at least one light source unit disposed at a side of the light guide plate; and a lower cover which accommodates the at least one light source unit and has at least one support formed to be coupled with the at least one slit, wherein at least one support protrudes from a bottom surface of the lower cover to a predetermined height, CHARACTERISED IN THAT the at least one support is provided in a cylindrical shape while directly protruding from a bottom surface of the lower cover at a predetermined height. a light guide plate having at least one slit; at least one light source unit disposed at a side of the light guide plate; and a lower cover which accommodates the at least one light source unit and has at least one support formed to be coupled with the at least one slit, wherein at least one support protrudes from a bottom surface of the lower cover to a predetermined height, CHARACTERISED IN THAT the at least one support is provided in a cylindrical shape while directly protruding from a bottom surface of the lower cover at a predetermined height.
An apparatus for recursively filtering measurement data, comprising: a buffer configured to store a plurality of measurements of a time-varying attribute, wherein each said measurement has associated therewith a reliability indicator representing a relative reliability of said measurement, each of said measurements of the time-varying attribute made during a particular time instant; a memory configured to store filtering instructions, said filtering instructions used to generate an estimated magnitude for the time-varying attribute at the particular time instant; and a processor configured to filter the plurality of measurements in accordance with the filtering instructions, wherein said processor is configured to operate to: time-weight a historical estimated magnitude, wherein the historical estimated magnitude includes information relating to at least one measurement of the time-varying attribute collected prior to the particular time instant; and generate a weighted average of the plurality of measurements using the reliability indicator associated with each of the plurality of measurements; and generate an estimated magnitude of the time-varying attribute for the particular time instant using the weighted historical estimated magnitude and the weighted average of the plurality of measurements. a buffer configured to store a plurality of measurements of a time-varying attribute, wherein each said measurement has associated therewith a reliability indicator representing a relative reliability of said measurement, each of said measurements of the time-varying attribute made during a particular time instant; a memory configured to store filtering instructions, said filtering instructions used to generate an estimated magnitude for the time-varying attribute at the particular time instant; and a processor configured to filter the plurality of measurements in accordance with the filtering instructions, wherein said processor is configured to operate to: time-weight a historical estimated magnitude, wherein the historical estimated magnitude includes information relating to at least one measurement of the time-varying attribute collected prior to the particular time instant; and generate a weighted average of the plurality of measurements using the reliability indicator associated with each of the plurality of measurements; and generate an estimated magnitude of the time-varying attribute for the particular time instant using the weighted historical estimated magnitude and the weighted average of the plurality of measurements. time-weight a historical estimated magnitude, wherein the historical estimated magnitude includes information relating to at least one measurement of the time-varying attribute collected prior to the particular time instant; and generate a weighted average of the plurality of measurements using the reliability indicator associated with each of the plurality of measurements; and generate an estimated magnitude of the time-varying attribute for the particular time instant using the weighted historical estimated magnitude and the weighted average of the plurality of measurements.
A method for peer to peer, P2P, group formation, the method, performed in a first wireless device which supports Wi-Fi Direct service, comprising: transmitting a provision discovery request frame, which includes connection capabilities of the first wireless device, to a second wireless device; receiving a provision discovery response frame which includes connection capabilities of the second wireless device, from the second wireless device; characterized in that the method comprises the steps of: determining the group owner of a peer-to-peer, P2P, group on the basis of the connection capabilities included in the provision discovery request frame and the provision discovery response frame, wherein the connection capabilities of each of the first and second wireless devices (202, 204) indicate at least one of a set of operation modes comprising New for initiating a new P2P group, Group Owner for becoming a group owner, and Client for becoming a client. transmitting a provision discovery request frame, which includes connection capabilities of the first wireless device, to a second wireless device; receiving a provision discovery response frame which includes connection capabilities of the second wireless device, from the second wireless device; characterized in that the method comprises the steps of: determining the group owner of a peer-to-peer, P2P, group on the basis of the connection capabilities included in the provision discovery request frame and the provision discovery response frame, wherein the connection capabilities of each of the first and second wireless devices (202, 204) indicate at least one of a set of operation modes comprising New for initiating a new P2P group, Group Owner for becoming a group owner, and Client for becoming a client. determining the group owner of a peer-to-peer, P2P, group on the basis of the connection capabilities included in the provision discovery request frame and the provision discovery response frame, wherein the connection capabilities of each of the first and second wireless devices (202, 204) indicate at least one of a set of operation modes comprising New for initiating a new P2P group, Group Owner for becoming a group owner, and Client for becoming a client.
A reluctance machine, comprising: a stator having a stator core including a central bore and a plurality of stator poles extending inwardly from the stator core, each stator pole having a stator pole face; and a rotor having a plurality of rotor poles, each rotor pole having a rotor pole face (72, 78), each of the rotor pole faces (72, 78) having a first portion (72a, 78a), a second portion (72b, 78b) that is radially inwardly stepped with respect to the first portion (72a, 78a) to create a non-uniform air gap between the rotor pole face (72, 78) and a corresponding stator pole face, and a protrusion located at an edge of the second portion (72b, 78b) of the rotor pole face (72, 78); wherein each rotor pole face (72, 78) is dimensioned such that the protrusion is proximate a leading edge of the face of an energized stator pole when the first portion (72a, 78a) of the rotor pole face (72, 78) is in alignment with the face of a stator pole adjacent to the energized stator pole, characterized in that the air gap between the protrusion located at the edge of the second portion (72b, 78b) of the rotor pole face (72, 78) and the stator pole face is smaller than the air gap between the rest of the second portion (72b, 78b) of the rotor pole face (72, 78) and the stator pole face, wherein each rotor pole face (72, 78) is configured so that after the protrusion passes the centerline of one of the energized stator poles the tendency to be pulled in a direction opposite to initial direction of rotation is offset by the positive motoring torque caused by the first portion (72a, 78a) of the rotor pole face (72, 78). a stator having a stator core including a central bore and a plurality of stator poles extending inwardly from the stator core, each stator pole having a stator pole face; and a rotor having a plurality of rotor poles, each rotor pole having a rotor pole face (72, 78), each of the rotor pole faces (72, 78) having a first portion (72a, 78a), a second portion (72b, 78b) that is radially inwardly stepped with respect to the first portion (72a, 78a) to create a non-uniform air gap between the rotor pole face (72, 78) and a corresponding stator pole face, and a protrusion located at an edge of the second portion (72b, 78b) of the rotor pole face (72, 78); wherein each rotor pole face (72, 78) is dimensioned such that the protrusion is proximate a leading edge of the face of an energized stator pole when the first portion (72a, 78a) of the rotor pole face (72, 78) is in alignment with the face of a stator pole adjacent to the energized stator pole, characterized in that the air gap between the protrusion located at the edge of the second portion (72b, 78b) of the rotor pole face (72, 78) and the stator pole face is smaller than the air gap between the rest of the second portion (72b, 78b) of the rotor pole face (72, 78) and the stator pole face,
An active material comprising: a first niobium titanium composite oxide expressed by a general formula below; and a second niobium titanium composite oxide expressed by a general formula below and having a rutile-type crystal structure, the first niobium titanium composite oxide belonging to a crystal structure of a space group C2/m, and having a difference Δp between a maximum value and a minimum value of Nb occupancy in a 4i site, the difference Δp being 0.50 ≤ Δp ≤ 0.80, K a Nb 2-b M b+1-c Ti c O 7... Ti 1-y Nb y O z..., wherein in the general formula, M is at least one element selected from the group consisting of P, Mo, W, Fe and Ta, a satisfies 0 ≤ a ≤ 1, b satisfies 0 ≤ b ≤ 1, and c satisfies 0 < c ≤ 1, and in the general formula, y satisfies 0 < y < 0.5, and z satisfies 2.0 ≤ z < 2.5. a first niobium titanium composite oxide expressed by a general formula below; and a second niobium titanium composite oxide expressed by a general formula below and having a rutile-type crystal structure, the first niobium titanium composite oxide belonging to a crystal structure of a space group C2/m, and having a difference Δp between a maximum value and a minimum value of Nb occupancy in a 4i site, the difference Δp being 0.50 ≤ Δp ≤ 0.80, K a Nb 2-b M b+1-c Ti c O 7... Ti 1-y Nb y O z..., wherein in the general formula, M is at least one element selected from the group consisting of P, Mo, W, Fe and Ta, a satisfies 0 ≤ a ≤ 1, b satisfies 0 ≤ b ≤ 1, and c satisfies 0 < c ≤ 1, and in the general formula, y satisfies 0 < y < 0.5, and z satisfies 2.0 ≤ z < 2.5. in the general formula, M is at least one element selected from the group consisting of P, Mo, W, Fe and Ta, a satisfies 0 ≤ a ≤ 1, b satisfies 0 ≤ b ≤ 1, and c satisfies 0 < c ≤ 1, and in the general formula, y satisfies 0 < y < 0.5, and z satisfies 2.0 ≤ z < 2.5.
A system for detecting a concentration of non-metallic particles in a fluid, wherein the system comprises a particle morphology detection device, a metal particle detection device and a detection pipeline, the particle morphology detection device and the metal particle detection device are connected to each other and are wound on the detection pipeline; the particle morphology detection device comprises: a laser tube for outputting an incident light beam; the metal particle detection device comprises a signal detection system, one or more excitation coils, the excitation coils are connected to the signal detection system and are wound on the detection pipeline; the detection pipeline allows incidence of a light beam from the particle morphology detection device to the fluid in the detection pipeline and emergence of the light beam from the fluid to the particle morphology detection device, characterized in that the particle morphology detection device further comprises: a scatter detector for detecting an emergent light beam from the fluid; the metal particle detection device further comprises: a positive even number of induction coils (23, 24); the induction coils (23, 24) are all connected to the signal detection system and are wound on the excitation coils sequentially and in reverse to each other. the particle morphology detection device comprises: a laser tube for outputting an incident light beam; the metal particle detection device comprises a signal detection system, one or more excitation coils, the excitation coils are connected to the signal detection system and are wound on the detection pipeline; the detection pipeline allows incidence of a light beam from the particle morphology detection device to the fluid in the detection pipeline and emergence of the light beam from the fluid to the particle morphology detection device, characterized in that the particle morphology detection device further comprises: a scatter detector for detecting an emergent light beam from the fluid; the metal particle detection device further comprises: a positive even number of induction coils (23, 24); the induction coils (23, 24) are all connected to the signal detection system and are wound on the excitation coils sequentially and in reverse to each other.
A gas turbine engine, comprising: a bearing compartment; a shaft configured to rotate during operation of the gas turbine engine; a bearing nut mounted directly to the shaft and configured to rotate with the shaft during operation of the gas turbine engine; a sleeve mounted to the bearing nut and configured to rotate with the shaft during operation of the gas turbine engine, wherein the sleeve includes a radially outer surface concentric with a center of the shaft, and a variable radial dimension about a circumference of the sleeve, wherein a minimum radial dimension of the sleeve is circumferentially aligned with a location on the bearing nut corresponding to a maximum deviation between the bearing nut and a reference axis; and a seal statically mounted relative to the sleeve and configured to cooperate with the sleeve to seal the bearing compartment. a bearing compartment; a shaft configured to rotate during operation of the gas turbine engine; a bearing nut mounted directly to the shaft and configured to rotate with the shaft during operation of the gas turbine engine; a sleeve mounted to the bearing nut and configured to rotate with the shaft during operation of the gas turbine engine, wherein the sleeve includes a radially outer surface concentric with a center of the shaft, and a variable radial dimension about a circumference of the sleeve, wherein a minimum radial dimension of the sleeve is circumferentially aligned with a location on the bearing nut corresponding to a maximum deviation between the bearing nut and a reference axis; and a seal statically mounted relative to the sleeve and configured to cooperate with the sleeve to seal the bearing compartment.
A method for transmitting frames from a transmitting mesh device to a receiving mesh device in a mesh network, comprising: - storing frames received in the transmitting mesh device from a source mesh device and intended for a destination mesh device in a relay queue, the source mesh device and the destination mesh device being different from the transmitting device, - storing frames generated by the transmitting mesh device in a local queue, different from the relay queue, - selecting a frame from the relay queue or local queue based on a predetermined scheduling strategy, - transmitting the selected frame to the receiving mesh device, characterized in that the predetermined scheduling strategy takes into account the number of hops a frame in the relay queue has already traversed within the mesh network wherein the frame dropping probability is decreased when the number of hops the frame has already traversed is higher. - storing frames received in the transmitting mesh device from a source mesh device and intended for a destination mesh device in a relay queue, the source mesh device and the destination mesh device being different from the transmitting device, - storing frames generated by the transmitting mesh device in a local queue, different from the relay queue, - selecting a frame from the relay queue or local queue based on a predetermined scheduling strategy, - transmitting the selected frame to the receiving mesh device,
Method for manufacturing an aluminum alloy composite, comprising: a step of shaping a first aluminum alloy part by mechanical working from a casting or an intermediate material; a chemical etching step by immersing said first aluminum alloy part in a strongly basic aqueous solution so that the aluminum alloy part has a micron-order surface roughness with a mean peak spacing: RSm of 0.8 to 10 μm and a maximum height: Rz of 0.2 to 5.0 μm; a neutralizing step by immersing said aluminum alloy part in an aqueous solution of an acid after the chemical etching step; a rinsing step of rinsing the aluminum alloy part with water so that it is free of sodium ions; an ultrafine etching step by immersing the aluminum alloy part in an aqueous solution containing at least one selected from among hydrazine hydrate, ammonia and water-soluble amine compounds so as to form on the part an ultrafine irregular surface after the neutralizing step, said ultrafine irregular surface being formed of depressions or projections having 10 to 100 nm diameter and substantially equal depth or height; a step of coating said ultrafine irregular surface of the aluminum alloy part with an epoxy-based adhesive; a step of forming a fiber-reinforced plastic prepreg material containing epoxy resin component into a required shape; a step of attaching the shaped prepreg material to the epoxy-based adhesive-coated surface of the aluminum alloy part; and a step of positioning said prepreg material and the aluminum alloy part and curing the epoxy-based adhesive and the epoxy resin component through applying heat and pressure. a step of shaping a first aluminum alloy part by mechanical working from a casting or an intermediate material; a chemical etching step by immersing said first aluminum alloy part in a strongly basic aqueous solution so that the aluminum alloy part has a micron-order surface roughness with a mean peak spacing: RSm of 0.8 to 10 μm and a maximum height: Rz of 0.2 to 5.0 μm; a neutralizing step by immersing said aluminum alloy part in an aqueous solution of an acid after the chemical etching step; a rinsing step of rinsing the aluminum alloy part with water so that it is free of sodium ions; an ultrafine etching step by immersing the aluminum alloy part in an aqueous solution containing at least one selected from among hydrazine hydrate, ammonia and water-soluble amine compounds so as to form on the part an ultrafine irregular surface after the neutralizing step, said ultrafine irregular surface being formed of depressions or projections having 10 to 100 nm diameter and substantially equal depth or height; a step of coating said ultrafine irregular surface of the aluminum alloy part with an epoxy-based adhesive; a step of forming a fiber-reinforced plastic prepreg material containing epoxy resin component into a required shape; a step of attaching the shaped prepreg material to the epoxy-based adhesive-coated surface of the aluminum alloy part; and a step of positioning said prepreg material and the aluminum alloy part and curing the epoxy-based adhesive and the epoxy resin component through applying heat and pressure.
An hardware convolver for performing convolution operations comprising: a plurality of processing units to execute convolution operations on input data and partial results; a unified scratchpad memory comprising a plurality of memory banks communicatively coupled to the plurality of processing units through a plurality of read/write ports, each of the plurality of memory banks partitioned to store both the input data and partial results; characterized in a control unit to allocate the input data and partial results to the memory banks to ensure a minimum quality of service in accordance with the specified number of read/write ports and the specified convolution operation to be performed, wherein each of the memory banks includes a single read/write port; and in comprising at least one shared array bus, each shared array bus coupled to multiple memory banks of the plurality of memory banks. a plurality of processing units to execute convolution operations on input data and partial results; a unified scratchpad memory comprising a plurality of memory banks communicatively coupled to the plurality of processing units through a plurality of read/write ports, each of the plurality of memory banks partitioned to store both the input data and partial results; characterized in a control unit to allocate the input data and partial results to the memory banks to ensure a minimum quality of service in accordance with the specified number of read/write ports and the specified convolution operation to be performed, wherein each of the memory banks includes a single read/write port; and in comprising at least one shared array bus, each shared array bus coupled to multiple memory banks of the plurality of memory banks.