mhurhangee/patent-ind-claim-en huggingface dataset:
Mirror array having a total surface extending perpendicularly to a surface normal , comprising a. a multiplicity of mirror elements each having i. a reflection surface and ii. at least one degree of freedom of displacement, b. wherein the totality of the mirror elements form a parqueting of a total reflection surface of the mirror array , and c. wherein the mirror array is embodied modularly as a tile element in such a way that the parqueting of the total reflection surface can be extended by a tiling of a plurality of such mirror arrays . a. a multiplicity of mirror elements each having i. a reflection surface and ii. at least one degree of freedom of displacement, i. a reflection surface and ii. at least one degree of freedom of displacement, b. wherein the totality of the mirror elements form a parqueting of a total reflection surface of the mirror array , and c. wherein the mirror array is embodied modularly as a tile element in such a way that the parqueting of the total reflection surface can be extended by a tiling of a plurality of such mirror arrays .
An electronic device housing comprising: a bottom cover ; a top cover ; a partition structure that is disposed in a space (S2) divided by the bottom cover and the top cover and has an opening; and a heat generation member (D1,D2), characterized in that the partition structure is joined to the bottom cover or the top cover to form a hollow structure (S1), and the heat generation member (D1,D2) is disposed on a surface of the partition structure on the hollow structure (S1) side.
A nozzle-type electron beam irradiation device comprising a vacuum chamber , an electron beam generator disposed in the vacuum chamber , and a vacuum nozzle that is connected to the vacuum chamber so as to guide an electron beam (E) from the electron beam generator and emit the electron beam (E) to outside, the electron beam irradiation device further comprising an ion pump capable of sucking gas from vicinity of a connecting part of the vacuum nozzle in the vacuum chamber , characterized by the following features: the ion pump is provided with a magnetic shielding member adapted to prevent a magnetic field from the ion pump from affecting the electron beam (E) generated from the electron beam generator , and the magnetic shielding member is a magnetic shield surrounding the ion pump or the magnetic shielding member is a retraction pipe that connects the ion pump and the vacuum chamber and places the ion pump at a retraction position. the ion pump is provided with a magnetic shielding member adapted to prevent a magnetic field from the ion pump from affecting the electron beam (E) generated from the electron beam generator , and the magnetic shielding member is a magnetic shield surrounding the ion pump or the magnetic shielding member is a retraction pipe that connects the ion pump and the vacuum chamber and places the ion pump at a retraction position.
Use of a loom for weaving a shoe upper with two types of tissue, wherein the loom comprises: a first heddle stack formed by arranging a plurality of first heddles in one or more rows; and a second heddle stack formed by arranging a plurality of second heddles in one or more rows, the second heddles being different in kind from the first heddles, wherein the first heddle stack and the second heddle stack are sequentially arranged in a warp feeding direction, wherein each of the first heddles is a leno heddle, and each of the second heddles is a jacquard heddle, first warp and second warp are fed through the leno heddle , and third warp is fed through the jacquard heddle , the first warp and the second warp are interwoven with weft to form a leno tissue fabric (L), and the third warp is interwoven with the weft to form a jacquard tissue fabric (J), and wherein the first heddle stack is located in front of the second heddle stack with respect to the warp feeding direction. a first heddle stack formed by arranging a plurality of first heddles in one or more rows; and a second heddle stack formed by arranging a plurality of second heddles in one or more rows, the second heddles being different in kind from the first heddles, wherein the first heddle stack and the second heddle stack are sequentially arranged in a warp feeding direction, wherein each of the first heddles is a leno heddle, and each of the second heddles is a jacquard heddle, first warp and second warp are fed through the leno heddle , and third warp is fed through the jacquard heddle , the first warp and the second warp are interwoven with weft to form a leno tissue fabric (L), and the third warp is interwoven with the weft to form a jacquard tissue fabric (J), and wherein the first heddle stack is located in front of the second heddle stack with respect to the warp feeding direction.
A method for carrying a wing panel of an aircraft, the method comprising: - aligning a strongback over a wing panel ; - forming a vacuum attachment between an upper surface of the wing panel and adjustable-length carriers extending beneath the strongback; and - adjusting the length of at least one of the carriers to impart forces onto the wing panel and enforce a predetermined contour onto the wing panel; and - further comprising advancing the wing panel in a process direction while the contour is enforced. - aligning a strongback over a wing panel ; - forming a vacuum attachment between an upper surface of the wing panel and adjustable-length carriers extending beneath the strongback; and - adjusting the length of at least one of the carriers to impart forces onto the wing panel and enforce a predetermined contour onto the wing panel; and - further comprising advancing the wing panel in a process direction while the contour is enforced.
An electric machine comprising: a stator winding located within a stator housing ; the stator housing comprising an inlet chamber configured to communicate with a supply of coolant, and an outlet ; the stator housing comprising a baffle configured to separate the stator winding and outlet from the inlet chamber; wherein the baffle comprises at least one aperture therethrough configured to supply an impingement flow of coolant to the stator winding; wherein a first outlet is provided adjacent a first end winding separated from a first inlet by a first baffle , and a second outlet is provided at second end winding separated from a second inlet by a second baffle ; characterized in that the first inlet is configured to provide a lower coolant flow rate in use relative to the second inlet; the first outlet is configured to pass a higher coolant flow rate in use relative to the second outlet; and the winding defines a channel configured to communicate between the second inlet and first outlet. a stator winding located within a stator housing ; the stator housing comprising an inlet chamber configured to communicate with a supply of coolant, and an outlet ; the stator housing comprising a baffle configured to separate the stator winding and outlet from the inlet chamber; wherein the baffle comprises at least one aperture therethrough configured to supply an impingement flow of coolant to the stator winding; wherein a first outlet is provided adjacent a first end winding separated from a first inlet by a first baffle , and a second outlet is provided at second end winding separated from a second inlet by a second baffle ; characterized in that the first inlet is configured to provide a lower coolant flow rate in use relative to the second inlet; the first outlet is configured to pass a higher coolant flow rate in use relative to the second outlet; and the winding defines a channel configured to communicate between the second inlet and first outlet.
An apparatus, comprising: a golf ball holder , including: a receiver assembly having a resilient wall , said receiver assembly being configured to: form a stressed shape in response to application of a stressing force to the resilient wall of the receiver assembly , wherein in said stressed shape, a golf ball can be released from the receiver assembly; and form an unstressed shape in response to removal of the stressing force from the resilient wall of the receiver assembly , wherein in said unstressed shape, the receiver assembly is ready and capable of receiving and holding a golf ball ; the apparatus being characterised by : a cleaning medium operatively installed to an inner wall of the receiver assembly ; said cleaning medium comprising a cloth material, a fiber material, a sponge material or a foam material; said cleaning medium being configured to wipe, at least in part, debris from a golf ball held in said receiver assembly in response to the application of a rotational force to the golf ball whilst the golf ball is received in the receiver assembly . a receiver assembly having a resilient wall , said receiver assembly being configured to: form a stressed shape in response to application of a stressing force to the resilient wall of the receiver assembly , wherein in said stressed shape, a golf ball can be released from the receiver assembly; and form an unstressed shape in response to removal of the stressing force from the resilient wall of the receiver assembly , wherein in said unstressed shape, the receiver assembly is ready and capable of receiving and holding a golf ball ; form a stressed shape in response to application of a stressing force to the resilient wall of the receiver assembly , wherein in said stressed shape, a golf ball can be released from the receiver assembly; and form an unstressed shape in response to removal of the stressing force from the resilient wall of the receiver assembly , wherein in said unstressed shape, the receiver assembly is ready and capable of receiving and holding a golf ball ; the apparatus being characterised by : a cleaning medium operatively installed to an inner wall of the receiver assembly ; said cleaning medium comprising a cloth material, a fiber material, a sponge material or a foam material; said cleaning medium being configured to wipe, at least in part, debris from a golf ball held in said receiver assembly in response to the application of a rotational force to the golf ball whilst the golf ball is received in the receiver assembly .
An electric component support structure for a saddle ride vehicle comprising: a body frame (F) that supports a water-cooled engine ; and a radiator supported on the body frame (F) through an elastic body , wherein the radiator includes an upper tank provided at an upper portion, a lower tank provided at a lower portion, and a core interconnecting the upper tank and the lower tank , and wherein an electric component is fixed to an electric component support piece provided on the radiator , characterized in that the electric component support piece is provided on the upper tank at an upper surface portion of the upper tank and extending upwards.
A method of pool testing, the method comprising: collecting a specimen using a compound swab , the compound swab comprising: a first swab including a first shaft and a first collection tip disposed on an end of the first shaft ; and a second swab coupled to the first swab , the second swab including a second shaft and a second collection tip disposed on an end of the second shaft ; separating the first swab and the second swab ; combining the first swab with a plurality of different swabs for pool testing the specimen with other, different specimens for presence or absence of a component; and based on results of the pool testing, testing the second swab for presence or absence of the component. collecting a specimen using a compound swab , the compound swab comprising: a first swab including a first shaft and a first collection tip disposed on an end of the first shaft ; and a second swab coupled to the first swab , the second swab including a second shaft and a second collection tip disposed on an end of the second shaft ; a first swab including a first shaft and a first collection tip disposed on an end of the first shaft ; and a second swab coupled to the first swab , the second swab including a second shaft and a second collection tip disposed on an end of the second shaft ; separating the first swab and the second swab ; combining the first swab with a plurality of different swabs for pool testing the specimen with other, different specimens for presence or absence of a component; and based on results of the pool testing, testing the second swab for presence or absence of the component.
A method comprising: receiving a plurality of precoders from a codebook in a transmitter having an antenna array; transforming each precoder of the plurality of precoders to a transformed precoder such that the transmit power for each transformed precoder is equal to the transmit power for each of other transformed precoders of the plurality of precoders, where the transmit power is expressed as a quadratic form with respect to the corresponding precoder, where the quadratic form is based on a transmission line impedance of a transmission line between a signal source and the antenna array; receiving a signal from the signal source; applying a transformed precoder of the plurality of transformed precoders to the signal to generate a precoded signal for transmission over a physical channel; and transmitting the precoded signal. receiving a plurality of precoders from a codebook in a transmitter having an antenna array; transforming each precoder of the plurality of precoders to a transformed precoder such that the transmit power for each transformed precoder is equal to the transmit power for each of other transformed precoders of the plurality of precoders, where the transmit power is expressed as a quadratic form with respect to the corresponding precoder, where the quadratic form is based on a transmission line impedance of a transmission line between a signal source and the antenna array; receiving a signal from the signal source; applying a transformed precoder of the plurality of transformed precoders to the signal to generate a precoded signal for transmission over a physical channel; and transmitting the precoded signal.
A piece for a modular tyre liner , the piece defining an elongate axis, and being planar and generally rectangular and cut to define: a key head and a key hole , the key head configured for insertion into an associated key hole of an adjacent piece for engagement in use to form a mechanical interlock with the adjacent piece , wherein the key head and a key hole are configured for allowing movement of the piece with respect to the adjacent piece along the length of the liner in use, wherein the key hole has a T-shaped cross-section, and wherein the T-shaped cross-section has a lengthwise slot orientated towards the key head and a perpendicular cross slot , the piece being configured for connection to the adjacent piece by bending the key head of the piece in half along the elongate axis of the piece and by inserting the bent key head through the lengthwise slot of the adjacent piece , characterised in that the key head is sandwiched between adjacent portions of the next two pieces in series.
A bifunctional compound having a structure represented by formula I: or a pharmaceutically acceptable salt or stereoisomer thereof, wherein the histone acetyltransferase (HAT) targeting ligand has a structure represented by any one of structures TL-1 and TL-1a to TL-1f: wherein A is CH 2 , NH or O, B is CH 2 or CO; and R is H, halo, CN, CF 3 , alkyl or alkoxy, wherein A, B and R are as above for (TL-1a) and R 1 is a C3-C5 carbocyclic or alkcarbocyclic group or a 3-5 membered N-heterocyclic or alkN-heterocyclic group, and wherein the alkyl group is a C1-C10 alkyl group, wherein Q is CH 2 , O, N, CO, C(O)O, C(O)N, CH 2 N, CH 2 C(O), CH 2 C(O)O, CH 2 C(O)N, or CH 2 CH 2 N, and R 2 is a C3-C5 carbocyclic or alkcarbocyclic group or a 3-5 membered N-heterocyclic or alkN-heterocyclic group, and wherein the alkyl group is a C1-C10 alkyl group, and wherein the linker is represented by any of structures L10, - L26: wherein X is CH 2 , NH, NMe, or O, and n is an integer from 0 to 11, and wherein the degron binds cereblon (CRBRN) and is represented by structure D1: wherein Y is CH 2 or CO; and Z is NH, O, or OCH 2 CO and the squiggle represents the point of attachment for the linker and EP300 targeting moiety, or wherein the degron binds von Hippel Landau tumor suppressor (VHL) and is represented by a structure selected from the group consisting of: wherein Y' is a bond, N, O or C; wherein Z is a C 5 -C 6 carbocyclic or a C 5 -C 6 heterocyclic group; and wherein the histone acetyltransferase (HAT) targeting ligand has a structure represented by any one of structures TL-1 and TL-1a to TL-1f: wherein A is CH 2 , NH or O, B is CH 2 or CO; and R is H, halo, CN, CF 3 , alkyl or alkoxy, wherein A, B and R are as above for (TL-1a) and R 1 is a C3-C5 carbocyclic or alkcarbocyclic group or a 3-5 membered N-heterocyclic or alkN-heterocyclic group, and wherein the alkyl group is a C1-C10 alkyl group, wherein Q is CH 2 , O, N, CO, C(O)O, C(O)N, CH 2 N, CH 2 C(O), CH 2 C(O)O, CH 2 C(O)N, or CH 2 CH 2 N, and R 2 is a C3-C5 carbocyclic or alkcarbocyclic group or a 3-5 membered N-heterocyclic or alkN-heterocyclic group, and wherein the alkyl group is a C1-C10 alkyl group, and wherein the linker is represented by any of structures L10, - L26: wherein X is CH 2 , NH, NMe, or O, and n is an integer from 0 to 11, and wherein the degron binds cereblon (CRBRN) and is represented by structure D1: wherein Y is CH 2 or CO; and Z is NH, O, or OCH 2 CO and the squiggle represents the point of attachment for the linker and EP300 targeting moiety, or wherein the degron binds von Hippel Landau tumor suppressor (VHL) and is represented by a structure selected from the group consisting of: wherein Y' is a bond, N, O or C; wherein Z is a C 5 -C 6 carbocyclic or a C 5 -C 6 heterocyclic group; and
An implant , comprising: a laser nonthermal processed surface provided on an outer surface of a ceramic sintered compact composed of a biocompatible ceramic material; and wherein the laser nonthermal processed surface has numerous fingertip-shaped microvilli ; wherein the fingertip shape means a shape with a rounded tip; and wherein each of the fingertip-shaped microvilli has a tip diameter of 1 nanometer or more and less than 1000 nanometers. a laser nonthermal processed surface provided on an outer surface of a ceramic sintered compact composed of a biocompatible ceramic material; and wherein the laser nonthermal processed surface has numerous fingertip-shaped microvilli ; wherein the fingertip shape means a shape with a rounded tip; and wherein each of the fingertip-shaped microvilli has a tip diameter of 1 nanometer or more and less than 1000 nanometers.
A process for treating wastewater in a hybrid bioreactor having a tank for holding the wastewater to be treated and containing both a suspended biomass and a membrane supported biofilm, the biofilm being supported on a membrane supported biofilm apparatus installed in the bioreactor, wherein said membrane supported biofilm apparatus comprises a plurality of membranes that are permeable to gases but that do not permit bulk liquid water flow, the membranes being configured to provide an inner volume open to a supply of an oxygen-containing gas, wherein the bioreactor further comprises an aerator and if required an additional mixer, said process comprising the steps of: - feeding an oxygen-containing gas to the inner volume of the membranes immersed in the wastewater to be treated, the oxygen-containing gas permeating through the membrane walls, thus encouraging the growth of said biofilm supported on the outer surface of the membrane walls, wherein the organisms in the biofilm treat the wastewater to be treated by way of one or more biological processes; - using the aerator to aerate the suspended biomass to obtain an aerobic biomass; - using the aerator, and additional mixing if required, to keep the suspended biomass in suspension. - feeding an oxygen-containing gas to the inner volume of the membranes immersed in the wastewater to be treated, the oxygen-containing gas permeating through the membrane walls, thus encouraging the growth of said biofilm supported on the outer surface of the membrane walls, wherein the organisms in the biofilm treat the wastewater to be treated by way of one or more biological processes; - using the aerator to aerate the suspended biomass to obtain an aerobic biomass; - using the aerator, and additional mixing if required, to keep the suspended biomass in suspension.
A system for stopping rotation of a first gear and a second gear on a shaft , comprising: the first gear and second gear being concentric to and rotatable about said shaft ; wherein the first gear and the second gear are driven by the same input system ; wherein the system is configured such that the first gear and the second gear rotate at different speeds; wherein the first gear comprises a first end stop and the second gear comprises a second end stop ; wherein the first end stop and the second end stop are configured to engage each other when the first gear and the second gear have each rotated a predetermined number of turns; and wherein engagement of the first end stop with the second end stop is configured to prevent rotation of the first gear and the second gear and cause a stall in the system, and wherein said first end stop of the first gear extends radially inwards from a circumferential edge of the first gear , and wherein said second end stop extends radially outwards form a circumferential edge of the second gear .. the first gear and second gear being concentric to and rotatable about said shaft ; wherein the first gear and the second gear are driven by the same input system ; wherein the system is configured such that the first gear and the second gear rotate at different speeds; wherein the first gear comprises a first end stop and the second gear comprises a second end stop ; wherein the first end stop and the second end stop are configured to engage each other when the first gear and the second gear have each rotated a predetermined number of turns; and wherein engagement of the first end stop with the second end stop is configured to prevent rotation of the first gear and the second gear and cause a stall in the system, and wherein said first end stop of the first gear extends radially inwards from a circumferential edge of the first gear , and wherein said second end stop extends radially outwards form a circumferential edge of the second gear ..