mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a composite material having at least one layer comprised of elements that are bonded together comprising airlaying an assembly of one or more layers of randomly oriented and relatively short fibrous elements, and shaping the assembly of one or more layers into an unbonded repeating wave-like form and subsequently activating the assembly to cause an element in the assembly to bond to another element in the assembly to create the unitized composite material having at least one layer comprised of elements that are bonded together, wherein shaping of the assembly into a wave-like form is achieved by employing a transfer device moving at a first speed to transfer the assembly onto a wire moving at a second speed that is slower than the first speed, and wherein the transfer device is at a height in the z-direction that is different from the height of the wire, whereby the assembly is caused to pile up into the wave-like form having a desired wavelength and amplitude determined by the height of the transfer device relative to the wire and the speed of the transfer device relative to the wire.
Granule comprising a solid core carrying an active ingredient, said active ingredient being selected from among gamma-hydroxy butyric acid or one of the pharmaceutically acceptable salts thereof, said granule characterized in that it is composed of: - 15-25 % solid core, - 50-60 % active ingredient; - 5-15 % sodium bicarbonate, gas generator; - 2-18 % magnesium aluminometasilicate, diluent; - 3-10 % shellac, binder; - 3-6 % coating membrane. - 15-25 % solid core, - 50-60 % active ingredient; - 5-15 % sodium bicarbonate, gas generator; - 2-18 % magnesium aluminometasilicate, diluent; - 3-10 % shellac, binder; - 3-6 % coating membrane.
A gas turbine engine comprising: a fan shaft; a frame which supports said fan shaft, wherein said frame defines a frame lateral stiffness (Kframe) and a frame transverse stiffness (Kframe BEND); an epicyclic gear system which drives said fan shaft; a flexible support which at least partially supports said gear system, said flexible support defines a flexible support lateral stiffness with respect to said frame lateral stiffness (Kframe) and a flexible support transverse stiffness (KFS BEND) with respect to said frame transverse stiffness (Kframe BEND); and an input coupling to said gear system, said input coupling defines an input coupling lateral stiffness with respect to said frame lateral stiffness (Kframe) and an input coupling transverse stiffness (KIC BEND) with respect to said frame transverse stiffness (Kframe BEND), characterised in that: said flexible support lateral stiffness is less than 11% of said frame lateral stiffness (Kframe). a fan shaft; a frame which supports said fan shaft, wherein said frame defines a frame lateral stiffness (Kframe) and a frame transverse stiffness (Kframe BEND); an epicyclic gear system which drives said fan shaft; a flexible support which at least partially supports said gear system, said flexible support defines a flexible support lateral stiffness with respect to said frame lateral stiffness (Kframe) and a flexible support transverse stiffness (KFS BEND) with respect to said frame transverse stiffness (Kframe BEND); and an input coupling to said gear system, said input coupling defines an input coupling lateral stiffness with respect to said frame lateral stiffness (Kframe) and an input coupling transverse stiffness (KIC BEND) with respect to said frame transverse stiffness (Kframe BEND), said flexible support lateral stiffness is less than 11% of said frame lateral stiffness (Kframe).
A dental x-ray image media holder of the type having an image media backing plate affixed to a bite block, the improvement comprising: providing the backing plate with at least one channel for receiving a post affixed to said bite block, such that the bite block can be selectively moved within said channel to orient the bite block in a predetermined position relative to the backing plate, and may be rotated on an axis of rotation provided by post, characterised in that the backing plate is provided with at least two intersecting said channels (31, 32), whereby the bite block can be moved from one channel to another channel by moving post, and hence the attached bite block, within the channel to an intersection thereof and thereby continue to move the post to the other channel. providing the backing plate with at least one channel for receiving a post affixed to said bite block, such that the bite block can be selectively moved within said channel to orient the bite block in a predetermined position relative to the backing plate, and may be rotated on an axis of rotation provided by post, characterised in that the backing plate is provided with at least two intersecting said channels (31, 32), whereby the bite block can be moved from one channel to another channel by moving post, and hence the attached bite block, within the channel to an intersection thereof and thereby continue to move the post to the other channel.
A method to determine a mental state of a user, comprising: receiving user attribute data from one or more sensors, wherein the user attribute data is data from a photoplethysmography time series; determining the mental state of the user from the user attribute data using a learned neural network model, the learned neural network model comprising an input layer, a convolution layer, a bidirectional long short-term memory BLSTM layer, a concatenation layer and an output layer, wherein the input layer takes data input to the learned neural network model and causes it to flow to the convolution layer and the BLSTM layer, and wherein the concatenation layer concatenates the output from the convolution layer and the BLSTM layer; outputting one or more determined mental states for the user; and outputting one or more confidence values of the one or more determined mental states of the user. receiving user attribute data from one or more sensors, wherein the user attribute data is data from a photoplethysmography time series; determining the mental state of the user from the user attribute data using a learned neural network model, the learned neural network model comprising an input layer, a convolution layer, a bidirectional long short-term memory BLSTM layer, a concatenation layer and an output layer, wherein the input layer takes data input to the learned neural network model and causes it to flow to the convolution layer and the BLSTM layer, and wherein the concatenation layer concatenates the output from the convolution layer and the BLSTM layer; outputting one or more determined mental states for the user; and outputting one or more confidence values of the one or more determined mental states of the user.
Disc brake with a brake calliper which reaches over a brake disc which can be rotated on an axis and brake linings (2, 3) which are arranged on both sides of the said brake disc in a lining shaft, with a hold-down arrangement which leads transversely over the brake linings (2, 3) and consists of a rigid hold-down and a leaf spring, the hold-down having a centre section, which forms the greatest part of its overall length and leads over the lining shaft, and two end sections (7a, 7c), being supported against the brake linings (2, 3) towards the disc brake axis, and extending with its first end section into a slot of the brake calliper, and the leaf spring extending in the longitudinal direction of the hold-down and being supported resiliently against that outer side of the hold-down which faces away from the brake linings (2, 3), characterized in that the first end section which extends into the slot is angled away relative to the centre section of the hold-down.
Method of manufacturing a razor head component, comprising the steps of: a) providing a strip of material elongated along a first direction, the strip having first and second rounded extremities (47, 46) parallel with said first direction, having a first portion comprising said first extremity, a second portion comprising said second extremity, and an intermediate portion intermediate said first and second portions, b) bending the intermediate portion of at least a part of said strip about a bending axis, c) fixing a razor blade onto the second portion of said part. a) providing a strip of material elongated along a first direction, the strip having first and second rounded extremities (47, 46) parallel with said first direction, having a first portion comprising said first extremity, a second portion comprising said second extremity, and an intermediate portion intermediate said first and second portions, b) bending the intermediate portion of at least a part of said strip about a bending axis, c) fixing a razor blade onto the second portion of said part.
A method comprising: interpreting a command signal of unknown modulation technique received from a native remote control to provide a command code expressed in parameters of a pre-determined modulation technique, the command code corresponding to an indicator of the native remote control, the predetermined modulation technique being a pulse width modulation, the parameters of the pre-determined modulation technique comprising ON and OFF time of a first symbol and ON and OFF time of a second symbol; comparing the correspondence between the command code and the indicator with a database including command codes expressed in the parameters of the pre-determined modulation technique; repeating the interpreting step and the comparing step one or more times with a command code corresponding to another indicator of the native remote control in order to identify a device code associated with the native remote control. interpreting a command signal of unknown modulation technique received from a native remote control to provide a command code expressed in parameters of a pre-determined modulation technique, the command code corresponding to an indicator of the native remote control, the predetermined modulation technique being a pulse width modulation, the parameters of the pre-determined modulation technique comprising ON and OFF time of a first symbol and ON and OFF time of a second symbol; comparing the correspondence between the command code and the indicator with a database including command codes expressed in the parameters of the pre-determined modulation technique; repeating the interpreting step and the comparing step one or more times with a command code corresponding to another indicator of the native remote control in order to identify a device code associated with the native remote control.
A gripper with a first gripper finger and a second gripper finger, which are set up to grip an object with their gripping surfaces, which is introduced into an intermediate space spanned by the two gripper fingers (302, 304), for which purpose at least one of the two gripper fingers (302, 304) is mounted so as to be adjustable relative to the other of the two gripper fingers (302, 304), the first gripper finger comprising a transmitter for emitting electromagnetic waves or for emitting sound waves into the intermediate space, and in that the first gripper finger or the second gripper finger comprises a receiver which is set up to detect at least some of the waves emitted by the transmitter, the transmitter being arranged on a side of the gripper finger facing away from the gripping surface of the first gripper finger, and in that the first gripper finger is designed in such a way to guide the waves emitted by the transmitter into the intermediate space between the gripping surfaces, wherein the first gripper finger comprises a passage to the intermediate space, and in that the passage has a rectangular shape extending perpendicular to the longitudinal axis of the passage.
A non-transitory computer-readable medium storing a computer program, the computer program configured to cause at least one processor to: execute an inter-process communication, IPC, facilitator (1040, 1052) and a robotic process automation, RPA, driver in a first session; execute an RPA robot in a second session; receive one or more messages from the RPA robot via IPC, by the IPC facilitator (1040 or 1052); control the RPA driver to interact with an application or application object running in the first session, by the IPC facilitator (1040, 1052), based on the received one or more messages from the RPA robot; pause operation of the RPA robot when the application is not currently running in the first session, via the IPC facilitator; launch the application, by the IPC facilitator controlling the RPA driver; and resume operation of the RPA robot after the application is launched, via the IPC facilitator. execute an inter-process communication, IPC, facilitator (1040, 1052) and a robotic process automation, RPA, driver in a first session; execute an RPA robot in a second session; receive one or more messages from the RPA robot via IPC, by the IPC facilitator (1040 or 1052); control the RPA driver to interact with an application or application object running in the first session, by the IPC facilitator (1040, 1052), based on the received one or more messages from the RPA robot; pause operation of the RPA robot when the application is not currently running in the first session, via the IPC facilitator; launch the application, by the IPC facilitator controlling the RPA driver; and resume operation of the RPA robot after the application is launched, via the IPC facilitator.
A cable loading structure (3, 43, 63), for loading cable to or from a floating tank, the outer periphery of the floating tank is being generally circular around a vertical axis of the floating tank, said apparatus comprising: a floatable structure (11, 51) having a plurality of tank engaging means (8, 9, 48, 49, 52, 55, 69), wherein at least one of said tank engaging means (8, 52, 55, 69) is moveable between a first position and a second position such that in said first position said tank is moveable towards or away from said cable loading structure (3, 43, 63) and in said second position, said tank is restrained against movement towards or away from said cable loading structure; and a drive system (8, 9, 50, 65) frictionally engageable with the outer periphery of the tank so as to rotate the tank. a floatable structure (11, 51) having a plurality of tank engaging means (8, 9, 48, 49, 52, 55, 69), wherein at least one of said tank engaging means (8, 52, 55, 69) is moveable between a first position and a second position such that in said first position said tank is moveable towards or away from said cable loading structure (3, 43, 63) and in said second position, said tank is restrained against movement towards or away from said cable loading structure; and a drive system (8, 9, 50, 65) frictionally engageable with the outer periphery of the tank so as to rotate the tank.
A laterally diffused metal-oxide-semiconductor field-effect transistor, comprising: a substrate, a polysilicon gate, a source, a drain, a body region, a field oxide region located between the source and the drain, and a first well region and a second well region formed on the substrate, wherein the first well region is of a first-conductivity type, the second well region is of a second-conductivity type, the first-conductivity type and the second-conductivity type are opposite conductivity types; the source and the body region are disposed in the second well region, the drain is disposed in the first well region; the second well region below the gate is provided with a plurality of gate doped regions of the first-conductivity type therein, the gate has a multi-segment structure, the segments are separated from one another, each of the gate doped regions is disposed below a gap between two segments of the polysilicon gate, each of the gate doped regions is electrically coupled to a segment of the polysilicon gate adjacent to the source, which is one of the two segments of the polysilicon gates located at both sides of each of the gate doped regions; wherein each of the gate doped regions being electrically coupled to the polysilicon gate via a metal wiring layer.
An interface assembly for a gas turbine engine, comprising: an outer case that defines an engine axis, a full-hoop vane ring around the engine axis, and a multiple of BOAS segments around the engine axis, each of the multiple of BOAS segments comprising a BOAS forward engagement feature, the BOAS forward engagement feature engaged with the outer case; characterised in that: the outer case comprises an anti-rotation case slot; the full-hoop vane ring comprises an aft vane rail with a vane ring contact surface, the aft vane rail engaged with the anti-rotation case slot at a vane ring anti-rotation tab; and each of the multiple of BOAS segments comprises a BOAS contact surface, the BOAS contact surface abutting the vane ring contact surface. an outer case that defines an engine axis, a full-hoop vane ring around the engine axis, and a multiple of BOAS segments around the engine axis, each of the multiple of BOAS segments comprising a BOAS forward engagement feature, the BOAS forward engagement feature engaged with the outer case; characterised in that: the outer case comprises an anti-rotation case slot; the full-hoop vane ring comprises an aft vane rail with a vane ring contact surface, the aft vane rail engaged with the anti-rotation case slot at a vane ring anti-rotation tab; and each of the multiple of BOAS segments comprises a BOAS contact surface, the BOAS contact surface abutting the vane ring contact surface. the outer case comprises an anti-rotation case slot; the full-hoop vane ring comprises an aft vane rail with a vane ring contact surface, the aft vane rail engaged with the anti-rotation case slot at a vane ring anti-rotation tab; and each of the multiple of BOAS segments comprises a BOAS contact surface, the BOAS contact surface abutting the vane ring contact surface.
An articulated probe, comprising: an outer sleeve comprising a plurality of outer links configured to pivot relative to one another through a first maximum pivot angle; and an elongated member, wherein at least two of the plurality of outer links include a first channel, wherein the first channel in each of the plurality of outer links is tapered in an amount sufficient to permit the plurality of outer links to pivot through the first maximum pivot angle while providing a substantially continuous surface between the channels of the outer links, characterised in that the articulated probe further comprises an inner core comprising a plurality of inner links configured to pivot relative to one another through a second maximum pivot angle, the plurality of inner links comprising a second channel for receiving the elongated member therein, wherein the second channel is positioned within at least two of the plurality of inner links, wherein the second channel in each of the plurality of inner links is tapered in an amount sufficient to permit the plurality of inner links to pivot through the second maximum pivot angle while providing a substantially continuous surface between the channels of the inner links, wherein the second maximum pivot angle of the inner links is no less than the first maximum pivot angle of the outer links. an outer sleeve comprising a plurality of outer links configured to pivot relative to one another through a first maximum pivot angle; and an elongated member, wherein at least two of the plurality of outer links include a first channel, wherein the first channel in each of the plurality of outer links is tapered in an amount sufficient to permit the plurality of outer links to pivot through the first maximum pivot angle while providing a substantially continuous surface between the channels of the outer links, characterised in that the articulated probe further comprises an inner core comprising a plurality of inner links configured to pivot relative to one another through a second maximum pivot angle, the plurality of inner links comprising a second channel for receiving the elongated member therein, wherein the second channel is positioned within at least two of the plurality of inner links, wherein the second channel in each of the plurality of inner links is tapered in an amount sufficient to permit the plurality of inner links to pivot through the second maximum pivot angle while providing a substantially continuous surface between the channels of the inner links, wherein the second maximum pivot angle of the inner links is no less than the first maximum pivot angle of the outer links.
A method for configuring a resource applied to air-to-ground communication, comprising: determining a set of network devices that correspond to each over-the-air area and that provide a network service for each over-the-air area, wherein each set of network devices comprises an identifier of a network device satisfying a condition for providing a network service for the each over-the-air area; determining a target network device providing a network service for a plurality of over-the-air areas, according to a plurality of sets of network devices determined for the plurality of over-the-air areas, and determining a beam sequence used by the target network device; generating pilot configuration information for configuring a pilot sequence for the beam sequence of the target network device; and sending the pilot configuration information to the target network device. determining a set of network devices that correspond to each over-the-air area and that provide a network service for each over-the-air area, wherein each set of network devices comprises an identifier of a network device satisfying a condition for providing a network service for the each over-the-air area; determining a target network device providing a network service for a plurality of over-the-air areas, according to a plurality of sets of network devices determined for the plurality of over-the-air areas, and determining a beam sequence used by the target network device; generating pilot configuration information for configuring a pilot sequence for the beam sequence of the target network device; and sending the pilot configuration information to the target network device.