mhurhangee/ep-ind-claims huggingface dataset:
An individual prosthesis for replacing all or part of a rib, said prosthesis characterized by comprising: a- a piece curved in the longitudinal direction in the form of an arc, said piece also presenting a curvature in the transverse direction that defines a concave face, the concave face being the face that rests on the rib, and a convex face, the convex face being the face opposite to the concave face, and a warping along the longitudinal axis and b- two or more transverse grooves located on the convex face that allow the prosthesis fixing elements to be accommodated to the rib, without the need to pierce the rib, and allow the prosthesis to be cut manually a- a piece curved in the longitudinal direction in the form of an arc, said piece also presenting a curvature in the transverse direction that defines a concave face, the concave face being the face that rests on the rib, and a convex face, the convex face being the face opposite to the concave face, and a warping along the longitudinal axis and b- two or more transverse grooves located on the convex face that allow the prosthesis fixing elements to be accommodated to the rib, without the need to pierce the rib, and allow the prosthesis to be cut manually
A user apparatus configured to communicate with a base station in a mobile communication system that supports carrier aggregation, comprising: a management unit configured to receive, from the base station, a configuration message for adding a cell or a cell group in the carrier aggregation, and perform configuration of the cell or the cell group, and to receive, from the base station, measurement configuration information on measurement of the cell or the cell group; and a measurement unit configured to allow not to perform measurement of the cell or the cell group based on the measurement configuration information until a predetermined condition is satisfied, and to perform measurement of the cell or the cell group based on the measurement configuration information when the predetermined condition is satisfied to transmit a measurement report to the base station, characterized in that the predetermined condition is that the measurement unit receives a measurement start instruction from the base station, wherein the measurement unit is configured to stop measurement of the cell or the cell group when a predetermined period elapses after receiving the measurement start instruction. a management unit configured to receive, from the base station, a configuration message for adding a cell or a cell group in the carrier aggregation, and perform configuration of the cell or the cell group, and to receive, from the base station, measurement configuration information on measurement of the cell or the cell group; and a measurement unit configured to allow not to perform measurement of the cell or the cell group based on the measurement configuration information until a predetermined condition is satisfied, and to perform measurement of the cell or the cell group based on the measurement configuration information when the predetermined condition is satisfied to transmit a measurement report to the base station, characterized in that the predetermined condition is that the measurement unit receives a measurement start instruction from the base station, wherein the measurement unit is configured to stop measurement of the cell or the cell group when a predetermined period elapses after receiving the measurement start instruction.
An electrostatic clamp comprising: an electrode, a layer of resistive material located on the electrode, the resistive material having a volume resistivity in the range 10 7 Ω-m to 10 9 Ω-m measured at room temperature, and a layer of dielectric located on the resistive material, wherein the electrostatic clamp further comprises burls which project from the layer of dielectric; wherein the burls are formed from dielectric. an electrode, a layer of resistive material located on the electrode, the resistive material having a volume resistivity in the range 10 7 Ω-m to 10 9 Ω-m measured at room temperature, and a layer of dielectric located on the resistive material, wherein the electrostatic clamp further comprises burls which project from the layer of dielectric; wherein the burls are formed from dielectric.
An organic light emitting device comprising: an anode; a cathode; and an organic layer, disposed between the anode and the cathode, comprising an emissive layer, wherein the emissive layer comprises a host, a first dopant, and a second dopant; wherein the first dopant is a metallorganic phosphorescent compound, or thermally activated delayed fluorescent compound, that emits light having a wavelength less than or equal to 500 nm and the second dopant is an excited energy state managing dopant; wherein the second dopant comprises between 2-10 vol. % of the emissive layer and has a lowest triplet state energy level that is higher than the lowest triplet state energy levels of both the host and the first dopant and lower than the multiply-excited energy level of the first dopant which facilitates energy transfer from the multiply-excited energy level of the first dopant resulting in an improvement in the lifetime of the organic light emitting device. an anode; a cathode; and an organic layer, disposed between the anode and the cathode, comprising an emissive layer, wherein the emissive layer comprises a host, a first dopant, and a second dopant; wherein the first dopant is a metallorganic phosphorescent compound, or thermally activated delayed fluorescent compound, that emits light having a wavelength less than or equal to 500 nm and the second dopant is an excited energy state managing dopant; wherein the second dopant comprises between 2-10 vol. % of the emissive layer and has a lowest triplet state energy level that is higher than the lowest triplet state energy levels of both the host and the first dopant and lower than the multiply-excited energy level of the first dopant which facilitates energy transfer from the multiply-excited energy level of the first dopant resulting in an improvement in the lifetime of the organic light emitting device. a cathode; and an organic layer, disposed between the anode and the cathode, comprising an emissive layer, wherein the emissive layer comprises a host, a first dopant, and a second dopant; wherein the first dopant is a metallorganic phosphorescent compound, or thermally activated delayed fluorescent compound, that emits light having a wavelength less than or equal to 500 nm and the second dopant is an excited energy state managing dopant; wherein the second dopant comprises between 2-10 vol. % of the emissive layer and has a lowest triplet state energy level that is higher than the lowest triplet state energy levels of both the host and the first dopant and lower than the multiply-excited energy level of the first dopant which facilitates energy transfer from the multiply-excited energy level of the first dopant resulting in an improvement in the lifetime of the organic light emitting device.
A composition of matter comprising a compound having the general formula: wherein R 1 is selected from H and CH 3; wherein n is selected from 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, and 12; wherein R 2 is selected from OH, wherein R 1 is selected from H and CH 3; wherein n is selected from 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, and 12; wherein R 2 is selected from OH,
A manufacturing method for an integrated structure of a MEMS microphone and a pressure sensor, characterized by comprising the following steps: a) depositing an insulating layer and a first polycrystalline silicon layer in sequence on a shared substrate of the MEMS microphone and the pressure sensor; b) depositing a sacrificial layer and a second polycrystalline silicon layer continuously in sequence above the first polycrystalline silicon layer; c) etching the second polycrystalline silicon layer to form a vibrating diaphragm of the MEMS microphone and an upper electrode of the pressure sensor; d) eroding parts of the sacrificial layer to form containing a cavity of the MEMS microphone and a cavity of the pressure sensor, and eroding parts of the sacrificial layer between the MEMS microphone and the pressure sensor; e) etching the first polycrystalline silicon layer to form a back electrode of the MEMS microphone and a lower electrode of the pressure sensor; f) etching a position of the shared substrate below the back electrode of the MEMS microphone to form a back cavity; and g) etching away the region of the insulating layer below the back electrode. a) depositing an insulating layer and a first polycrystalline silicon layer in sequence on a shared substrate of the MEMS microphone and the pressure sensor; b) depositing a sacrificial layer and a second polycrystalline silicon layer continuously in sequence above the first polycrystalline silicon layer; c) etching the second polycrystalline silicon layer to form a vibrating diaphragm of the MEMS microphone and an upper electrode of the pressure sensor; d) eroding parts of the sacrificial layer to form containing a cavity of the MEMS microphone and a cavity of the pressure sensor, and eroding parts of the sacrificial layer between the MEMS microphone and the pressure sensor; e) etching the first polycrystalline silicon layer to form a back electrode of the MEMS microphone and a lower electrode of the pressure sensor; f) etching a position of the shared substrate below the back electrode of the MEMS microphone to form a back cavity; and g) etching away the region of the insulating layer below the back electrode.
A method for enhancing liveness detection of image data comprising the steps of: capturing, by an electronic device, facial image data of a person; using multi-resolution convolution and octave convolution techniques to extract first and second frequency components from the captured facial image data, the first and second frequency components correspond to different spatial frequency ranges; comparing the first frequency component against data in a first frequency map, wherein the first frequency map is generated from genuine image data of the person and the data includes the same spatial frequency range as the first frequency component; comparing the second frequency component against data in a second frequency map, wherein the second frequency map is generated from genuine image data of the person and the data includes the same spatial frequency range as the second frequency component; characterized in that the method further comprises the steps of: determining whether the first frequency component satisfies matching criteria with data in the first frequency map; determining whether the second frequency component satisfies matching criteria with data in the second frequency map; and in response to determining the first and second frequency components fail to satisfy the data in the respective frequency map, concluding the captured facial image data was not taken of a live person. capturing, by an electronic device, facial image data of a person; using multi-resolution convolution and octave convolution techniques to extract first and second frequency components from the captured facial image data, the first and second frequency components correspond to different spatial frequency ranges; comparing the first frequency component against data in a first frequency map, wherein the first frequency map is generated from genuine image data of the person and the data includes the same spatial frequency range as the first frequency component; comparing the second frequency component against data in a second frequency map, wherein the second frequency map is generated from genuine image data of the person and the data includes the same spatial frequency range as the second frequency component; characterized in that the method further comprises the steps of: determining whether the first frequency component satisfies matching criteria with data in the first frequency map; determining whether the second frequency component satisfies matching criteria with data in the second frequency map; and in response to determining the first and second frequency components fail to satisfy the data in the respective frequency map, concluding the captured facial image data was not taken of a live person. determining whether the first frequency component satisfies matching criteria with data in the first frequency map; determining whether the second frequency component satisfies matching criteria with data in the second frequency map; and in response to determining the first and second frequency components fail to satisfy the data in the respective frequency map, concluding the captured facial image data was not taken of a live person.
Process for preparing 2-methylbutyric acid having a reduced content of 3-methylbutyric acid from the secondary streams obtained in the preparation of pentanoic acids, characterized in that a) a mixture comprising linear butenes is reacted in the presence of transition metal compounds of group VIII of the Periodic Table of the Elements with carbon monoxide and hydrogen at elevated temperature and elevated pressure to give a pentanal mixture; b) the mixture obtained in step a) is separated into a stream enriched with 2-methylbutanal and 3-methyl-butanal, and a stream enriched with n-pentanal; c) the stream enriched with 2-methylbutanal and 3-methylbutanal of step b) is reacted with formaldehyde; d) the reaction product obtained after step c) is treated with an oxidizing agent; and e) 2-methylbutyric acid having a residual 3-methylbutyric acid content of less than 0.2% by weight, based on the organic component, is removed by distillation from the reaction product obtained in step d); with the proviso that the reaction with formaldehyde in step c) is followed by removal of the organic phase and selective hydrogenation in the presence of a hydrogenation catalyst with hydrogen at elevated temperature and elevated pressure and, after removal of the hydrogenation catalyst, treatment of the hydrogenation output obtained with an oxidizing agent in step d). a) a mixture comprising linear butenes is reacted in the presence of transition metal compounds of group VIII of the Periodic Table of the Elements with carbon monoxide and hydrogen at elevated temperature and elevated pressure to give a pentanal mixture; b) the mixture obtained in step a) is separated into a stream enriched with 2-methylbutanal and 3-methyl-butanal, and a stream enriched with n-pentanal; c) the stream enriched with 2-methylbutanal and 3-methylbutanal of step b) is reacted with formaldehyde; d) the reaction product obtained after step c) is treated with an oxidizing agent; and e) 2-methylbutyric acid having a residual 3-methylbutyric acid content of less than 0.2% by weight, based on the organic component, is removed by distillation from the reaction product obtained in step d);
An emissive layer of an organic light emitting device, said emissive layer consisting of a wide gap host material, a charge carrying dopant material, present as a dopant in the wide gap host material, and a phosphorescent dopant material, present as a dopant in the wide gap host material, wherein the charge carrying dopant material is a hole transporting material and the phosphorescent dopant material is an electron transporting material, wherein said phosphorescent dopant material emits from a triplet excited state of an organic molecule in said phosphorescent dopant material, and wherein the lowest triplet state energy level of the wide gap host material (T W) is higher than the lowest triplet state energy level of the electron transporting material (T ET) (T W > T ET), and the lowest triplet state energy level of the hole transporting material (T HT) is higher than the lowest triplet state energy level of the electron transporting material (T ET) (T HT > T ET), wherein the HOMO-LUMO energy gap of the wide gap host material is greater than the HOMO-LUMO energy gap of both the hole and electron transporting materials, the HOMO level of the wide gap host material is lower than the HOMO level of any of the dopant materials as well as any adjacent layers that are in direct physical contact with the wide gap host material, and the LUMO level of the wide gap host material is higher than the LUMO level of any of the dopant materials, as well as any adjacent layers that are in direct physical contact with the wide gap host material.
An antenna, antenna, comprising a first antenna and a second antenna, wherein the first antenna comprises a first radiating element and a reflector, the reflector is located between the second antenna and the first radiating element, the reflector comprises a connection part and a tooth part, the tooth part comprises a plurality of comb teeth that are disposed side by side and that extend from the connection part toward the first radiating element, a tooth gap is disposed between the comb teeth, the tooth part comprises a profile facing the first radiating element, each comb tooth comprises an end part facing the first radiating element, the profile is formed through connecting all the end parts, the profile comprises a concave part, and the concave part is concave to the connection part.
A method of wireless communication of a first user equipment, UE, (404; 502) comprising: receiving, by the first UE (404; 502) from a base station (402; 504), an indication of one or more assigned resources corresponding to a group comprising a plurality of UEs that includes the first UE (404; 502) and an indication of a group identifier corresponding to the group; and sending, by the first UE (404; 502) to the base station (402; 504), a message on the one or more assigned resources, the message including a cyclic redundancy check, CRC, scrambled with the group identifier for the group comprising the plurality of UEs, and wherein the message includes an indication of a UE identifier for the first UE (404; 502). receiving, by the first UE (404; 502) from a base station (402; 504), an indication of one or more assigned resources corresponding to a group comprising a plurality of UEs that includes the first UE (404; 502) and an indication of a group identifier corresponding to the group; and sending, by the first UE (404; 502) to the base station (402; 504), a message on the one or more assigned resources, the message including a cyclic redundancy check, CRC, scrambled with the group identifier for the group comprising the plurality of UEs, and wherein the message includes an indication of a UE identifier for the first UE (404; 502).
A rear lock for a motor vehicle, having a rotary latch, which fits around a closing element when in the closed position and is prestressed in the direction of an open position that releases the closing element, and a pawl, which is movable between a released position and an engaged position, the pawl being disengaged from the rotary latch when in the released position and being engaged with the rotary latch when in the engaged position, in such a manner that the rotary latch is prevented from moving in the direction of the open position, delay means being provided, which are coupled to the rotary latch in order to slow a speed of a movement of the rotary latch to release the closing element, and a rotary joint being provided, which can be rotated about a rotation point, the pawl, which can be rotated about a rotation axis, being attached to the rotary joint in a manner radially offset from the rotation point thereof, characterised in that the rotary joint is coupled to a lever of variable length, which is designed to drive the movement of the pawl out of the engaged position into an intermediate position and to brake the movement of said pawl from the intermediate position into the released position.
A topic ophthalmic preparation in aqueous solution containing azithromycin as active ingredient, solubilized and stabilized with a sulfoalkyl ether β-cyclodextrin (SAE-β-CD), said preparation having a pH comprised between 6.0 and 7.6 and a concentration of azithromycin, or of a pharmacologically acceptable salt or hydrate thereof, comprised between 0.5 and 2.5% by weight.
Liquid scouring composition, comprising a surface-active substance PEG-4 rapeseedamide in combination with an abrasive and water, wherein marble powder is used as abrasive.
An attenuated, recombinant alphavirus comprising; an alphavirus nucleic acid, having (i) an insertion of an internal ribosomal entry site of encephalomyelocarditis virus (EMCV IRES) functional only in cells of vertebrate origin, but not of insect origin, between the end of nonstructural protein 4 coding sequence and initiating AUG of a subgenomic RNA coding sequence of the alphavirus, and (ii) an inactivated subgenomic promoter, wherein the alphavirus is incapable of replicating in mosquitoes and mosquito cells.
Prefabricated building block for building steps, notably for swimming pools, including a body extending along a longitudinal direction (X-X') being included in a parallelepipedal envelope, said body having in a plane perpendicular to its longitudinal extension direction a U-section defined by a central recess opening right through at the longitudinal ends (2a, 2b) of the body and having two longitudinal walls (3, 4) parallel and symmetrical to each other on either side of a median vertical plane of the block, characterized in that it includes at least one reinforcement structure of an upper supporting surface of at least one of the longitudinal walls (3, 4) of the body in order to increase the resistance to crushing and leveling of said upper surface, and in that said central recess delimits said two longitudinal walls (3, 4).
A method for controlling uplink transmission power at a mobile station, MS, (811 - 817) in a mobile communication system, the method comprising: determining uplink transmission power based on a measured downlink path loss, an uplink noise and interference level measured by and received from a base station, BS,, a target signal-to-interference and noise ratio, SINR, and an offset, wherein an initial value of the offset is determined based on a number of ramp-ups of an initial ranging code to be retransmitted until an initial ranging process is completed, a power step size to ramp-up, and a power adjustment value received from the BS in the response signal for the initial ranging code. determining uplink transmission power based on a measured downlink path loss, an uplink noise and interference level measured by and received from a base station, BS,, a target signal-to-interference and noise ratio, SINR, and an offset, wherein an initial value of the offset is determined based on a number of ramp-ups of an initial ranging code to be retransmitted until an initial ranging process is completed, a power step size to ramp-up, and a power adjustment value received from the BS in the response signal for the initial ranging code.