mhurhangee/ep-ind-claims huggingface dataset:
An article comprising: a flexible substrate having a low surface energy surface comprising a release coating selected from a silicone coating, a polydimethyl siloxane (PDMS) coating, a fluorocarbon coating, a polyacrylate coating, a polystyrene coating, a polystyreneacrylic coating, a chromium sterate complex coating, or a polyolefin coating and having a total surface area of greater than 0.65 square meters; a nanoscale polymer multilayer adjacent to and in contact with the low surface energy surface, the nanoscale polymer multilayer having a thickness of from 0.5 nm to 10000 nm thick, and a second sacrificial polymer layer adjacent to and in contact with the nanoscale polymer layer so that the nanoscale polymer layer is between the low surface energy surface of the substrate and the second polymer layer wherein the sacrificial polymer layer is dissolvable or biodegradable. a flexible substrate having a low surface energy surface comprising a release coating selected from a silicone coating, a polydimethyl siloxane (PDMS) coating, a fluorocarbon coating, a polyacrylate coating, a polystyrene coating, a polystyreneacrylic coating, a chromium sterate complex coating, or a polyolefin coating and having a total surface area of greater than 0.65 square meters; a nanoscale polymer multilayer adjacent to and in contact with the low surface energy surface, the nanoscale polymer multilayer having a thickness of from 0.5 nm to 10000 nm thick, and a second sacrificial polymer layer adjacent to and in contact with the nanoscale polymer layer so that the nanoscale polymer layer is between the low surface energy surface of the substrate and the second polymer layer wherein the sacrificial polymer layer is dissolvable or biodegradable.
Planar electrode, in particular a neutral electrode, for medical purposes with two equally sized electrode areas (1, 2) which are electrically separated from each other along a linear insulation zone, which electrode areas adjoin directly along an inner edge portion, wherein each of the two equally sized electrode areas (1, 2) comprises a band-shaped extension section (3, 4) which encloses the respective other electrode area (1, 2) at least along an outer edge portion (15, 16) and is thereby separated by the extended insulation zone from the respective enclosed electrode area (1, 2), wherein the band-shaped extension sections (3, 4) are arranged outside and the two equally sized electrode areas (1, 2) take, opposed to the band-shaped extension sections (3, 4), a central inner region of the planar electrode, wherein each of the outer edge portions (15, 16) substantially extends from one end of the inner edge portion around the respective other electrode area (1, 2) at least to the opposed other end of the inner edge portion, and wherein a protrusion (20, 21) of the band-shaped extension sections (3, 4) extends along a main axis into the respective other electrode area (1, 2).
A carbon material for a negative electrode of a non-aqueous secondary battery, the carbon material comprising: composite carbon particles containing elemental silicon, and amorphous composite graphite particles in which graphite particles and amorphous carbon are composited, wherein a Raman R value of the graphite particles, measured with an argon-ion laser, is 0.2 or greater but 0.6 or less, when the Raman R value is defined as an intensity ratio, I B /I A, of an intensity I B of a maximum peak P B around 1360 cm -1 to an intensity I A of a maximum peak P A around 1580 cm -1 in a Raman spectrum. composite carbon particles containing elemental silicon, and amorphous composite graphite particles in which graphite particles and amorphous carbon are composited,
A turbine bucket for use with a turbine engine, said turbine bucket comprising: an airfoil extending between a root end and a tip end, said airfoil comprising: an outer wall defining a cavity extending from said root end to said tip end, said outer wall comprising a first ceramic matrix composite substrate extending a first distance from said root end to said tip end; and an inner wall positioned within said cavity, said inner wall comprising a second CMC substrate extending a second distance from said root end towards said tip end that is different than said first distance; characterised in that said first distance is greater than said second distance such that a tip pocket is defined at said tip end to facilitate reducing a flow of air across said tip end. an outer wall defining a cavity extending from said root end to said tip end, said outer wall comprising a first ceramic matrix composite substrate extending a first distance from said root end to said tip end; and an inner wall positioned within said cavity, said inner wall comprising a second CMC substrate extending a second distance from said root end towards said tip end that is different than said first distance; characterised in that said first distance is greater than said second distance such that a tip pocket is defined at said tip end to facilitate reducing a flow of air across said tip end.
A packaging machine comprising: a transfer flight having a reorientation region; a plurality of cradle lugs arranged in spaced relationship along the transfer flight; a conveyor assembly for moving the cradle lugs in a downstream direction along the transfer flight; an articulating attachment between each cradle lug and the conveyor assembly, the articulating attachment facilitating movement of the cradle lug from a substantially upright orientation to a substantially sideways orientation; and a control mechanism coupled to each cradle lug for progressively moving the cradle lugs from the substantially upright orientation to the substantially sideways orientation as the cradle lugs are conveyed through the reorientation region of the transfer flight, characterised in that each cradle lug is configured to cradle a container and to constrain the container as the cradle lug moves from the substantially upright orientation to the substantially sideways orientation, each cradle lug comprises a base configured to underlie a container cradled in the cradle lug, and an opening in the base sized to allow a push rod to extend through the opening for pushing a container out of the cradle lug. a transfer flight having a reorientation region; a plurality of cradle lugs arranged in spaced relationship along the transfer flight; a conveyor assembly for moving the cradle lugs in a downstream direction along the transfer flight; an articulating attachment between each cradle lug and the conveyor assembly, the articulating attachment facilitating movement of the cradle lug from a substantially upright orientation to a substantially sideways orientation; and a control mechanism coupled to each cradle lug for progressively moving the cradle lugs from the substantially upright orientation to the substantially sideways orientation as the cradle lugs are conveyed through the reorientation region of the transfer flight, characterised in that each cradle lug is configured to cradle a container and to constrain the container as the cradle lug moves from the substantially upright orientation to the substantially sideways orientation, each cradle lug comprises a base configured to underlie a container cradled in the cradle lug, and an opening in the base sized to allow a push rod to extend through the opening for pushing a container out of the cradle lug.
Lidar sensor for detecting an object in the surrounding area, having at least • a light source for emitting electromagnetic radiation, • a deflection mirror for deflecting the emitted electromagnetic radiation by at least one angle into the surrounding area, wherein the deflection mirror is designed as a micromechanical deflection mirror, • an optical receiver for receiving electromagnetic radiation, which has been reflected by the object, and • a mirror for steering the received electromagnetic radiation onto the optical receiver, wherein the mirror has a hole, and wherein • the hole is arranged on a main axis of emission of the light source, characterized in that the lidar sensor furthermore has • a field of micro-optical elements (203-1, 203-2); wherein • the deflection mirror and the field are arranged such that the at least one angle is assigned to exactly one micro-optical element (203-1, 203-2); and wherein the lidar sensor furthermore has • a light-focusing element arranged at a distance (y) from the field of micro-optical elements (203-1, 203-2), wherein • each of the micro-optical elements (203-1, 203-2), when it is impinged upon by the deflected emitted electromagnetic radiation, expands this deflected emitted electromagnetic radiation into a divergent beam; and wherein • the light-focusing element reshapes the divergent beam into a scanning beam. • a light source for emitting electromagnetic radiation, • a deflection mirror for deflecting the emitted electromagnetic radiation by at least one angle into the surrounding area, wherein the deflection mirror is designed as a micromechanical deflection mirror, • an optical receiver for receiving electromagnetic radiation, which has been reflected by the object, and • a mirror for steering the received electromagnetic radiation onto the optical receiver, wherein the mirror has a hole, and wherein • the hole is arranged on a main axis of emission of the light source, • a field of micro-optical elements (203-1, 203-2); wherein • the deflection mirror and the field are arranged such that the at least one angle is assigned to exactly one micro-optical element (203-1, 203-2); and wherein the lidar sensor furthermore has • a light-focusing element arranged at a distance (y) from the field of micro-optical elements (203-1, 203-2), wherein • each of the micro-optical elements (203-1, 203-2), when it is impinged upon by the deflected emitted electromagnetic radiation, expands this deflected emitted electromagnetic radiation into a divergent beam; and wherein • the light-focusing element reshapes the divergent beam into a scanning beam.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: detecting that an event related to extended discontinuous reception, eDRX, occurs, wherein the event related to eDRX is that an eDRX timer expires or an eDRX command informing stop of an eDRX is received; and transmitting an uplink message related to eDRX, which informs that the eDRX is stopped, to a network. detecting that an event related to extended discontinuous reception, eDRX, occurs, wherein the event related to eDRX is that an eDRX timer expires or an eDRX command informing stop of an eDRX is received; and transmitting an uplink message related to eDRX, which informs that the eDRX is stopped, to a network.
An apparatus, comprising: a NAND string (482, 484, 486, 488) comprising non-volatile memory cells (MC1, DMC1, DMC0,...); a string select line (SGD, SGS); a plurality of word lines (DS0, DS1, WLL0 - WLL47, DD1, DD0) connected to control gates of the non-volatile memory cells; and a control circuit (110, 112, 114, 124, 132, 116, 150, 128, 122) in communication with the NAND string, the string select line, and the plurality of word lines, the control circuit configured to: apply a read pass voltage (Vread) to a word line adjacent (DD0, DS0) to the string select line; decrease the read pass voltage on the adjacent word line (DD0, DS0) to a steady state voltage (Vss) after a selected memory cell on the NAND string is sensed; characterized in that the control circuit is configured to: increase a voltage on the string select line (SGD, SGS) after the voltage on the adjacent word line (DDO, DS0) is decreased to the steady state voltage; and float the string select line and the adjacent word line after the voltage on the string select line is increased. a NAND string (482, 484, 486, 488) comprising non-volatile memory cells (MC1, DMC1, DMC0,...); a string select line (SGD, SGS); a plurality of word lines (DS0, DS1, WLL0 - WLL47, DD1, DD0) connected to control gates of the non-volatile memory cells; and a control circuit (110, 112, 114, 124, 132, 116, 150, 128, 122) in communication with the NAND string, the string select line, and the plurality of word lines, the control circuit configured to: apply a read pass voltage (Vread) to a word line adjacent (DD0, DS0) to the string select line; decrease the read pass voltage on the adjacent word line (DD0, DS0) to a steady state voltage (Vss) after a selected memory cell on the NAND string is sensed; characterized in that the control circuit is configured to: increase a voltage on the string select line (SGD, SGS) after the voltage on the adjacent word line (DDO, DS0) is decreased to the steady state voltage; and float the string select line and the adjacent word line after the voltage on the string select line is increased. apply a read pass voltage (Vread) to a word line adjacent (DD0, DS0) to the string select line; decrease the read pass voltage on the adjacent word line (DD0, DS0) to a steady state voltage (Vss) after a selected memory cell on the NAND string is sensed; increase a voltage on the string select line (SGD, SGS) after the voltage on the adjacent word line (DDO, DS0) is decreased to the steady state voltage; and float the string select line and the adjacent word line after the voltage on the string select line is increased.
An auxiliary power device comprising: a housing defining a cavity and an opening in communication with the cavity; a motor supported by the housing; and a wheel engaged with the motor, the wheel having a rotational axis and a spindle on the rotational axis; the wheel partially disposed in the cavity and extending through the opening; the housing defining a track adjustably supporting the spindle of the wheel, such that the spindle can be adjusted relative to the track to position the wheel in the opening, characterized in that the auxiliary power device further comprises a lock coupled to the spindle, the lock being moveable between an engaged position fixing the spindle to the housing along the track and a disengaged position releasing the spindle along the track. a housing defining a cavity and an opening in communication with the cavity; a motor supported by the housing; and a wheel engaged with the motor, the wheel having a rotational axis and a spindle on the rotational axis; the wheel partially disposed in the cavity and extending through the opening; the housing defining a track adjustably supporting the spindle of the wheel, such that the spindle can be adjusted relative to the track to position the wheel in the opening, characterized in that the auxiliary power device further comprises a lock coupled to the spindle, the lock being moveable between an engaged position fixing the spindle to the housing along the track and a disengaged position releasing the spindle along the track.
A method of using service graphs to compare performance of a plurality of versions of a microservice, the method comprising: (a) establishing, by one or more devices, metrics from execution of a plurality of versions of a microservice of a service deployed concurrently for at least a portion of execution of the service; (b) generating, by the one or more devices, a service graph for each version of the plurality of versions of the microservice, each of the service graphs comprising metrics from execution of a respective version of the microservice; (c) identifying, by the one or more devices, one or more differences in metrics between the service graphs for different versions of the microservice; and (d) routing network traffic of the service between respective versions of the microservice based at least on the one or more differences. (a) establishing, by one or more devices, metrics from execution of a plurality of versions of a microservice of a service deployed concurrently for at least a portion of execution of the service; (b) generating, by the one or more devices, a service graph for each version of the plurality of versions of the microservice, each of the service graphs comprising metrics from execution of a respective version of the microservice; (c) identifying, by the one or more devices, one or more differences in metrics between the service graphs for different versions of the microservice; and (d) routing network traffic of the service between respective versions of the microservice based at least on the one or more differences.
System for controlling electrical loads receiving at least two phases (PH1, PH2) of a power distribution network, each phase (PH1, PH2) providing a supply voltage (U1(t), U2(t)) with respect to a reference potential (UREF1, UREF2), the control system comprising a microcontroller, a reference potential (UREF2) associated with said microcontroller being different from at least one of the reference potentials (UREF1) associated with the phases (PH1, PH2), said control system being characterised in that it comprises a device for measuring at least one first supply voltage (U1(t)) with respect to a reference potential (UREF1) which is different from the reference potential (UREF2) associated with the microcontroller, wherein the measurement device generates an output signal (u1(t)) which is representative of said at least one first supply voltage (U1(t)) and the microcontroller is configured to determine the value of said first supply voltage (U1(t)) at any moment depending on said output signal (u1(t)).
Property gradient coating intended to be applied by additive manufacture to an inner wall of a casing (20A, 46) mounted on the periphery of moving blades of a turbomachine rotor, characterized in that it comprises superimposed layers from an outer surface of said coating to said casing inner wall: • a first layer consisting of a three-dimensional scaffolding of filaments (100, 102) of an abradable material forming an ordered network of channels or microchannels whose pore sizes are between 50 and 250 microns and whose porosity is greater than 85%, and • a second layer having a function of dissipating energy from acoustic waves striking said outer surface of said coating and consisting of a three-dimensional scaffolding of filaments (200, 202, 204, 206) of a first thermosetting material forming an ordered network of channels or microchannels whose pore sizes are between 50 and 400 microns and whose porosity is greater than 60%. • a first layer consisting of a three-dimensional scaffolding of filaments (100, 102) of an abradable material forming an ordered network of channels or microchannels whose pore sizes are between 50 and 250 microns and whose porosity is greater than 85%, and • a second layer having a function of dissipating energy from acoustic waves striking said outer surface of said coating and consisting of a three-dimensional scaffolding of filaments (200, 202, 204, 206) of a first thermosetting material forming an ordered network of channels or microchannels whose pore sizes are between 50 and 400 microns and whose porosity is greater than 60%.
Squirrel cage rotor of an asynchronous machine with a magnetically conductive main body, with said squirrel cage rotor being rotatably supported about an axis and having electrical conductors extending substantially axially in slots, which are electrically contacted by short-circuit rings provided on the end faces of the magnetic main body, wherein the short-circuit rings are thermally linked to a shaft, characterised in that each short-circuit ring has a void which is embodied as a thermosiphon.
A method of determining a correction for a process parameter related to a lithographic process on a substrate, said lithographic process comprising a plurality of runs during each one of which a pattern is applied to one or more substrates, said method comprising: obtaining pre-exposure metrology data relating to a property of the substrate; obtaining post-exposure metrology data comprising one or more measurements of the process parameter having been performed by an equivalent lithographic process on one or more previously exposed substrates of said lithographic process; assigning to the substrate, a group membership status from one or more groups, based on said pre-exposure metrology data, wherein said one or more groups have been determined using a classifier trained to categorize pre-exposure metrology data associated with said one or more previously exposed substrates according to a characteristic of its corresponding post-exposure metrology data; and determining the correction for the process parameter based on said group membership status and on said post-exposure metrology data, characterized in that each group out of said one or more groups has an associated process correction. obtaining pre-exposure metrology data relating to a property of the substrate; obtaining post-exposure metrology data comprising one or more measurements of the process parameter having been performed by an equivalent lithographic process on one or more previously exposed substrates of said lithographic process; assigning to the substrate, a group membership status from one or more groups, based on said pre-exposure metrology data, wherein said one or more groups have been determined using a classifier trained to categorize pre-exposure metrology data associated with said one or more previously exposed substrates according to a characteristic of its corresponding post-exposure metrology data; and determining the correction for the process parameter based on said group membership status and on said post-exposure metrology data, characterized in that each group out of said one or more groups has an associated process correction.