mhurhangee/patent-ind-claim-en huggingface dataset:
An outdoor sensing device (DD) comprising: a functional unit including a sensing element (D1) configured to sense to-be-sensed rays from an object through an optical member (L1) and a processing circuit configured to process a signal from the sensing element; a cover unit including an inner cover which has a predetermined dimension and houses the functional unit, and an outer cover which houses the inner cover; and a base unit to which the functional unit and the cover unit are attached, the base unit configured to be installed in an outside installation position, wherein the inner cover includes a water ingress prevention structure disposed between the functional unit and the optical member to prevent water ingress from outside of the inner cover, and further includes a drain hole (330-333) and a guide part (340-343) configured to guide the water toward the drain hole on a bottom wall of the inner cover, and the outer cover has a bottom wall which defines a predetermined gap with respect to the bottom wall of the inner cover, and the bottom wall of the outer cover includes a drain part (315.319) configured to drain the water from the drain hole to outside of the outdoor sensing device and includes a blind structure which covers the drain hole of the inner cover such that the drain hole cannot be seen from the outside of the outdoor sensing device when viewed from below. a functional unit including a sensing element (D1) configured to sense to-be-sensed rays from an object through an optical member (L1) and a processing circuit configured to process a signal from the sensing element; a cover unit including an inner cover which has a predetermined dimension and houses the functional unit, and an outer cover which houses the inner cover; and a base unit to which the functional unit and the cover unit are attached, the base unit configured to be installed in an outside installation position, wherein the inner cover includes a water ingress prevention structure disposed between the functional unit and the optical member to prevent water ingress from outside of the inner cover, and further includes a drain hole (330-333) and a guide part (340-343) configured to guide the water toward the drain hole on a bottom wall of the inner cover, and the outer cover has a bottom wall which defines a predetermined gap with respect to the bottom wall of the inner cover, and the bottom wall of the outer cover includes a drain part (315.319) configured to drain the water from the drain hole to outside of the outdoor sensing device and includes a blind structure which covers the drain hole of the inner cover such that the drain hole cannot be seen from the outside of the outdoor sensing device when viewed from below.
An insulating component for separating a first object at a first potential and a second object at a second potential differing by a non-zero non-oscillating voltage from the first potential, the insulating component comprising an insulator with an abutment surface adapted to rest against said first object, characterized by a plurality of field-control electrodes to be maintained approximately at the first potential, which are embedded in the solid insulator in the vicinity of the abutment surface, wherein the insulator is tube-shaped, with a cylindrical shape, and the abutment surface comprises at least an axial surface, and wherein the field-control electrodes extend axially into the insulator from the axial portion of the abutment surface, and wherein the field-control electrodes are distributed along a lateral circumference of the insulator. the insulating component comprising an insulator with an abutment surface adapted to rest against said first object, characterized by a plurality of field-control electrodes to be maintained approximately at the first potential, which are embedded in the solid insulator in the vicinity of the abutment surface, wherein the insulator is tube-shaped, with a cylindrical shape, and the abutment surface comprises at least an axial surface, and wherein the field-control electrodes extend axially into the insulator from the axial portion of the abutment surface, and wherein the field-control electrodes are distributed along a lateral circumference of the insulator.
A first computer system comprising at least one memory and at least one associated microprocessor configured to perform, externally from a potential domain generation algorithm (DGA) malware host, the following steps: intercept an original answer to a first external access request, wherein the first external access request is sent by the potential DGA malware host to an external site; determine according to an address included in the first external access request whether the external site is a time server; in response, when the external site is a time server, send a modified answer to the potential DGA malware host, the modified answer being generated from the original answer by replacing a real time included in the original answer with an accelerated real time subsequent to the original real time, wherein the real time returned by the time server indicates a present time of the original answer; intercept, in response to a second external access request sent by the potential DGA malware host, an answer indicating that the second access request was not successful, wherein the second external access request is sent after the first external access request is sent; and in response to intercepting the answer indicating that the second access request was not successful, determine that the potential DGA malware host includes malware executing a domain generation algorithm. intercept an original answer to a first external access request, wherein the first external access request is sent by the potential DGA malware host to an external site; determine according to an address included in the first external access request whether the external site is a time server; in response, when the external site is a time server, send a modified answer to the potential DGA malware host, the modified answer being generated from the original answer by replacing a real time included in the original answer with an accelerated real time subsequent to the original real time, wherein the real time returned by the time server indicates a present time of the original answer; intercept, in response to a second external access request sent by the potential DGA malware host, an answer indicating that the second access request was not successful, wherein the second external access request is sent after the first external access request is sent; and in response to intercepting the answer indicating that the second access request was not successful, determine that the potential DGA malware host includes malware executing a domain generation algorithm.
A method for identifying an individual with a cancer who is more likely to respond to a treatment with a Programmed Death Ligand 1 (PD-L1) binding antagonist, the method comprising: (a) determining in a sample from the individual the presence or level of PD-L1, wherein the presence or an increase in the level of PD-L1 in the sample relative to that in a reference sample indicates that the individual is more likely to respond to treatment with the PD-L1 binding antagonist; and further determining in the sample the presence or level of: (i) PD-1, PD-L2, or both PD-1 and PD-L2; (ii) one or more T-cell related markers, wherein the one or more T-cell related markers is selected from the group consisting of CD8A, IFN-g, EOMES, Granzyme-A, and CXCL9; (iii) one or more markers selected from the group consisting of CXC3L1, CD45RO, IDO1, Galectin 9, MIC-A, MIC-B, and CTLA-4; and/or (iv) one or more markers selected from the group consisting of IFN-g, CD8A, Granzyme B, and CXCL9; and (b) providing a recommendation that the individual will be more likely to respond to treatment with the PD-L1 binding antagonist, wherein the PD-L1 binding antagonist is an anti-PD-L1 antibody. (a) determining in a sample from the individual the presence or level of PD-L1, wherein the presence or an increase in the level of PD-L1 in the sample relative to that in a reference sample indicates that the individual is more likely to respond to treatment with the PD-L1 binding antagonist; and further determining in the sample the presence or level of: (i) PD-1, PD-L2, or both PD-1 and PD-L2; (ii) one or more T-cell related markers, wherein the one or more T-cell related markers is selected from the group consisting of CD8A, IFN-g, EOMES, Granzyme-A, and CXCL9; (iii) one or more markers selected from the group consisting of CXC3L1, CD45RO, IDO1, Galectin 9, MIC-A, MIC-B, and CTLA-4; and/or (iv) one or more markers selected from the group consisting of IFN-g, CD8A, Granzyme B, and CXCL9; and (i) PD-1, PD-L2, or both PD-1 and PD-L2; (ii) one or more T-cell related markers, wherein the one or more T-cell related markers is selected from the group consisting of CD8A, IFN-g, EOMES, Granzyme-A, and CXCL9; (iii) one or more markers selected from the group consisting of CXC3L1, CD45RO, IDO1, Galectin 9, MIC-A, MIC-B, and CTLA-4; and/or (iv) one or more markers selected from the group consisting of IFN-g, CD8A, Granzyme B, and CXCL9; and (b) providing a recommendation that the individual will be more likely to respond to treatment with the PD-L1 binding antagonist,
Use of an N,N',N" -substituted hexahydro-1,3,5-triazine having the following formula (I): wherein each of R 1 , R 3 , and R 5 is independently an alkyl, alkenyl, cycloalkyl, cycloalkenyl or an aryl group, or a combination thereof, and R 1 , R 3 , and R 5 each have 1 to 20 carbon atoms, and wherein each of R 2 , R 4 , and R 6 is independently H, an alkyl, alkenyl, cycloalkyl, cycloalkenyl or an aryl group, or a combination thereof, and R 2 , R 4 , and R 6 may each have up to 20 carbon atoms, in the production of copolymers of one or more conjugated diene monomers and one or more vinylaromatic monomers, wherein the production is by anionic polymerisation and in the presence of one or more anionic initiators, and wherein the copolymer has a content of about 35 to about 55 weight percent of vinylaromatic monomer, based on total weight of copolymer. wherein each of R 1 , R 3 , and R 5 is independently an alkyl, alkenyl, cycloalkyl, cycloalkenyl or an aryl group, or a combination thereof, and R 1 , R 3 , and R 5 each have 1 to 20 carbon atoms, and wherein each of R 2 , R 4 , and R 6 is independently H, an alkyl, alkenyl, cycloalkyl, cycloalkenyl or an aryl group, or a combination thereof, and R 2 , R 4 , and R 6 may each have up to 20 carbon atoms,
A second base station configured to: provide a second radio protocol stack (406 - 408) to communicate with a radio terminal on a second Cell Group, CG, including cells (23 - 24) in accordance with a second radio access technology; perform, with a first base station which provides a first radio protocol stack (402 - 405) to communicate with the radio terminal on a first CG including one or more cells (21 - 22) in accordance with a first radio access technology, Dual Connectivity using the first CG and the second CG on the radio terminal, the first radio protocol stack (402 - 405) including a common Packet Data Convergence Protocol, PDCP, layer associated with both the first radio protocol stack (402 - 405) and the second radio protocol stack (406 - 408); perform, with the radio terminal , Carrier Aggregation using the cells (23 - 24) included in the second CG; select from the second CG, on a cell-by-cell basis, at least one specific cell on which the radio terminal is allowed to perform at least one of data transmission and data reception on a radio bearer used for uplink transmission or downlink transmission or both via the common PDCP layer ; and transmit to the radio terminal , on the second CG or on the first CG via the first base station , configuration information which includes a serving cell identifier indicating, on a cell-by-cell basis, the at least one specific cell. provide a second radio protocol stack (406 - 408) to communicate with a radio terminal on a second Cell Group, CG, including cells (23 - 24) in accordance with a second radio access technology; perform, with a first base station which provides a first radio protocol stack (402 - 405) to communicate with the radio terminal on a first CG including one or more cells (21 - 22) in accordance with a first radio access technology, Dual Connectivity using the first CG and the second CG on the radio terminal, the first radio protocol stack (402 - 405) including a common Packet Data Convergence Protocol, PDCP, layer associated with both the first radio protocol stack (402 - 405) and the second radio protocol stack (406 - 408); perform, with the radio terminal , Carrier Aggregation using the cells (23 - 24) included in the second CG; select from the second CG, on a cell-by-cell basis, at least one specific cell on which the radio terminal is allowed to perform at least one of data transmission and data reception on a radio bearer used for uplink transmission or downlink transmission or both via the common PDCP layer ; and transmit to the radio terminal , on the second CG or on the first CG via the first base station , configuration information which includes a serving cell identifier indicating, on a cell-by-cell basis, the at least one specific cell.
Limb orthosis , comprising a strap system , characterized in that a strap as a first section of the strap system is routed in such a manner that the strap crosses over in a first crossover region and that a strap as a second section of the strap system is routed in such a manner that the strap crosses over in a second crossover region , and comprising a coupling element to which the first section of the strap system and the second section of the strap system are coupled, wherein for the donned limb orthosis , the first section and the second section of the strap system are routed around the limb in such a manner that the first section and the second section of the strap system wrap around the limb and thereby cross over at least once, wherein the coupling element in the donned state contacts the leg at knee level or contacts the arm at elbow level.
Vacuum cleaner comprising a housing and a dust compartment in the housing arranged for accommodating a dust collecting container, the dust compartment being arranged with an air inlet and an air outlet for causing an air flow through the dust compartment , the dust compartment being characterized in comprising: a plurality of punctiform protruding elements arranged on at least one wall enclosing the dust compartment , the punctiform protruding elements being arranged in horizontally extending rows on said at least one wall enclosing the dust compartment .
A piston for an internal combustion engine, comprising: a body formed of a metal material, said body presenting a combustion surface and an undercrown surface , said body including a cooling gallery surface surrounding a volume of space which extends circumferentially around said undercrown surface, characterised in that said body includes a plurality of serrations formed in said cooling gallery surface and/or said undercrown surface , each serration including a base surface which presents a concave shape, and said base surface being 1 to 3 mm deep relative to said cooling gallery surface and/or said undercrown surface. a body formed of a metal material, said body presenting a combustion surface and an undercrown surface , said body including a cooling gallery surface surrounding a volume of space which extends circumferentially around said undercrown surface, characterised in that said body includes a plurality of serrations formed in said cooling gallery surface and/or said undercrown surface , each serration including a base surface which presents a concave shape, and said base surface being 1 to 3 mm deep relative to said cooling gallery surface and/or said undercrown surface.
An electrically peelable pressure-sensitive adhesive sheet comprising an electrically conductive substrate having a support, an intermediate layer, and an electrically conductive layer in this order, a first pressure-sensitive adhesive layer having electrical peelability laminated on a side of the electrically conductive layer of the electrically conductive substrate, and a second pressure-sensitive adhesive layer laminated on a side of the support, wherein the electrically conductive substrate has substantially no extension portion to which a terminal can be connected elongating and exposed more than the first pressure-sensitive adhesive layer and the second pressure-sensitive adhesive layer in a surface extending direction of the electrically conductive substrate, and wherein the electrically peelable pressure-sensitive adhesive sheet has at least one terminal connection portion into which a terminal can be inserted, at an end of the intermediate layer, or the at least one terminal connection portion being able to be formed at an end of the intermediate layer. wherein the electrically conductive substrate has substantially no extension portion to which a terminal can be connected elongating and exposed more than the first pressure-sensitive adhesive layer and the second pressure-sensitive adhesive layer in a surface extending direction of the electrically conductive substrate, and wherein the electrically peelable pressure-sensitive adhesive sheet has at least one terminal connection portion into which a terminal can be inserted, at an end of the intermediate layer, or the at least one terminal connection portion being able to be formed at an end of the intermediate layer.
A combination of a chain ring and a chain comprising: a body ; and a plurality of teeth affixed around a circumference of the body ; whereinsome of the plurality of teeth are configured to engage a first lateral side of a first link of a chain , thereby applying a force to the chain in a first lateral direction ; and some of the plurality of teeth are configured to engage a second lateral side of second link of the chain , thereby applying a force to the chain in a second lateral direction characterised in that the teeth are configured to engage the chain without shifting and positioned in at least two lateral positions, the teeth in a first lateral position being configured to impart a first lateral force, and the teeth in a second lateral position being configured to impart a second lateral force. a body ; and a plurality of teeth affixed around a circumference of the body ; whereinsome of the plurality of teeth are configured to engage a first lateral side of a first link of a chain , thereby applying a force to the chain in a first lateral direction ; and some of the plurality of teeth are configured to engage a second lateral side of second link of the chain , thereby applying a force to the chain in a second lateral direction characterised in that the teeth are configured to engage the chain without shifting and positioned in at least two lateral positions, the teeth in a first lateral position being configured to impart a first lateral force, and the teeth in a second lateral position being configured to impart a second lateral force.
A locked nucleotide having the following substructure: - beta-D-LNA derivative - alpha-L-LNA derivative: wherein X represents O and n is an integer 1 and wherein in the group -(CH 2 ) n - one or more H atoms are replaced with substituents. - beta-D-LNA derivative - alpha-L-LNA derivative: wherein X represents O and n is an integer 1 and wherein in the group -(CH 2 ) n - one or more H atoms are replaced with substituents.
A method of operating a radio unit, RU, in a network node of a wireless communication system, comprising: receiving , at the radio unit and from a lower-layer split central unit, LLS-CU, a plurality of downlink signals that include reference symbols, RS, and user data downlink, UD-DL, messages to be transmitted to a user equipment, UE, over a wireless interface; accumulating received data corresponding to the plurality of downlink signals into a concentrated data format; and receiving a data-associated control information, DACI, message including a section description associated with the plurality of downlink signals, the DACI message including an indication of how to perform the accumulating data operation. receiving , at the radio unit and from a lower-layer split central unit, LLS-CU, a plurality of downlink signals that include reference symbols, RS, and user data downlink, UD-DL, messages to be transmitted to a user equipment, UE, over a wireless interface; accumulating received data corresponding to the plurality of downlink signals into a concentrated data format; and receiving a data-associated control information, DACI, message including a section description associated with the plurality of downlink signals, the DACI message including an indication of how to perform the accumulating data operation.
A method for scanning a graphic medium scan target, the method comprising the steps of: computing an exposure duration and an illumination duration according to an automatic exposure control process; capturing an image of the scan target over the exposure duration; energizing illumination of the scan target for the illumination duration; and deactivating illumination of the scan target at a point in time during the exposure duration, wherein the exposure duration comprises a length of time that is significantly greater than a length of time corresponding to the illumination duration; wherein the capturing, energizing, and deactivating are performed iteratively with increasing exposure duration values and a first set time duration of illumination duration, and upon reaching a maximum exposure duration value the illumination duration is increased relative to the first set time duration. computing an exposure duration and an illumination duration according to an automatic exposure control process; capturing an image of the scan target over the exposure duration; energizing illumination of the scan target for the illumination duration; and deactivating illumination of the scan target at a point in time during the exposure duration, wherein the exposure duration comprises a length of time that is significantly greater than a length of time corresponding to the illumination duration; wherein the capturing, energizing, and deactivating are performed iteratively with increasing exposure duration values and a first set time duration of illumination duration, and upon reaching a maximum exposure duration value the illumination duration is increased relative to the first set time duration.
Tread for a tyre of an off-road vehicle carrying very heavy loads, this tread having a total width Wt greater than 600 mm and a thickness Ht of material to be worn away, this tread being provided with at least three main grooves of circumferential overall orientation and with a depth at least equal to 60 mm, these at least three main grooves dividing the tread into intermediate ribs and edge ribs , the edge ribs axially bounding the tread , these edge ribs having a width at most equal to one quarter of the total width Wt of the tread , at least one of the intermediate ribs being provided with a plurality of fine grooves ; each fine groove opening into a main groove and having a depth HI, these fine grooves , with the main grooves , delimiting blades of material of mean width B1 less than twice the depth HI, these fine grooves being oriented in the transverse direction corresponding to the axial direction of the tyre or in an oblique direction, namely with an orientation that makes an angle at most equal to 45 degrees with the transverse or axial direction of the tyre, each intermediate rib having a mean width at most equal to one quarter of the total width Wt of the tread and at least equal to 0.75 times the thickness Ht of material to be worn away, this tread being characterized in that : the fine grooves, have, over a height H12 at least equal to 65% of their total depth HI, a width which is at most equal to the value obtained from the following mathematical expression: 0.04 B 1 . H 1 .