mhurhangee/patent-ind-claim-en huggingface dataset:
A method of receiving a physical hybrid automatic repeat request indicator channel, PHICH, signal, by a user equipment, UE , the method comprising: receiving, through a physical broadcast channel, PBCH, a first value related to a system bandwidth, a second value related to PHICH transmission per subframe, and a third value related to a PHICH duration per subframe; and receiving the PHICH signal based on N PHICH mapping resources within the PHICH duration of a subframe, wherein N is an integer and the PHICH duration per subframe is related to an orthogonal frequency divisional multiplexing, OFDM, symbol set, where the PHICH signal is mapped, wherein N is obtained based on multiplying the second value by a value predetermined according to a number of resource blocks for the system bandwidth, and wherein the second value is a positive number. receiving, through a physical broadcast channel, PBCH, a first value related to a system bandwidth, a second value related to PHICH transmission per subframe, and a third value related to a PHICH duration per subframe; and receiving the PHICH signal based on N PHICH mapping resources within the PHICH duration of a subframe, wherein N is an integer and the PHICH duration per subframe is related to an orthogonal frequency divisional multiplexing, OFDM, symbol set, where the PHICH signal is mapped, wherein N is obtained based on multiplying the second value by a value predetermined according to a number of resource blocks for the system bandwidth, and wherein the second value is a positive number.
A disconnector with an anti-icing arrangement, comprising a main blade moving contact , a main blade arm , a main blade static contact , a main blade transmission arrangement that drives the main blade arm to move, a main blade anti-icing arrangement that includes a main blade anti-icing shield and a main blade anti-icing shield transmission arrangement comprising a main blade slide rail secured on the main blade moving contact for enabling the main blade anti-icing shield to move along the main blade slide rail , wherein the main blade anti-icing shield transmission arrangement is adapted for driving the main blade anti-icing shield , such that the main blade anti-icing shield shields the main blade moving contact in an opening operation to keep ice and snow and rainwater from covering a surface of the main blade moving contact , and moves away from the main blade moving contact in a closing operation to enable the main blade moving contact to be contacted with the main blade static contact .
An apparatus, comprising: an loT support service (351; 451), including at least one memory adapted to store run-time data for the device, and at least one processor that is adapted to execute processor-executable code that, in response to execution, enables the loT solution service to perform actions , including: storing a plurality of module twins that respectively correspond to a plurality of modules of an edge application on an edge device , wherein the plurality of module twins individually include metadata associated with the corresponding module of the plurality of modules, and wherein each of the plurality of module twins acts as a virtual representation of a respective corresponding module of the plurality of modules; enabling communications between the plurality of modules and the loT support service according to a common security context, wherein each of the plurality of module twins has a separate telemetry channel to the respective corresponding module of the plurality of modules; determining at least one module of the plurality of modules to be modified; and causing the determined at least one module of the plurality of modules to be modified. storing a plurality of module twins that respectively correspond to a plurality of modules of an edge application on an edge device , wherein the plurality of module twins individually include metadata associated with the corresponding module of the plurality of modules, and wherein each of the plurality of module twins acts as a virtual representation of a respective corresponding module of the plurality of modules; enabling communications between the plurality of modules and the loT support service according to a common security context, wherein each of the plurality of module twins has a separate telemetry channel to the respective corresponding module of the plurality of modules; determining at least one module of the plurality of modules to be modified; and causing the determined at least one module of the plurality of modules to be modified.
Bearingless angle measuring device, comprising - an angle scale (1.2), - a scanning unit (2.2), - a housing (2.3) and - an evaluation electronics system (2.21), wherein the scanning unit (2.2) is connected in a rotationally fixed manner to the housing (2.3), the scanning unit (2.2) and the angle scale (1.2) are arranged in a manner rotatable about an axis (X) at a scanning distance (D) relative to one another and angle-dependent output signals can be generated by the scanning unit (2.2) and can be further processed in the evaluation electronics system (2.21), wherein the angle measuring device is configured in such a way that the scanning distance (D) can be determined based on the output signals, characterized in that the angle measuring device further has a compensating coupling (2.1) which is secured in a rotationally fixed manner to the housing (2.3), wherein the compensating coupling (2.1) has a flange (2.12) as well as a plurality of angled components (2.11), wherein the components (2.11) each have a first limb (2.111) that runs in a direction with a radial directional component and a second limb (2.112) that runs in a direction with an axial directional component, wherein the first limbs (2.111) are each fixed to the housing (2.3) and the second limbs (2.112) are each fixed to the flange (2.12), and the compensating coupling (2.1) can be fixed to a machine part and is formed in an elastically deformable manner in the direction of the axis (X) and the compensating coupling (2.1) is designed such that the housing (2.3) can be permanently pushed against the machine part by the said compensating coupling. - an angle scale (1.2), - a scanning unit (2.2), - a housing (2.3) and - an evaluation electronics system (2.21), wherein the scanning unit (2.2) is connected in a rotationally fixed manner to the housing (2.3),
Expanded CD4+ T cells for use in enhancing adoptive T cell transfer for the treatment of autoimmune diseases and cancer, wherein the cells are obtainable by the following method isolating CD4+ T cells from a peripheral blood sample obtained from a subject; transducing the isolated CD4+ T cells by contacting the CD4+ T cells with retroviral vectors expressing intracellular osteopontin (OPN-i); expanding the transduced CD4+ T cells by growing them in a culture medium until the number of transduced CD4+ T cells increases by at least 5%. isolating CD4+ T cells from a peripheral blood sample obtained from a subject; transducing the isolated CD4+ T cells by contacting the CD4+ T cells with retroviral vectors expressing intracellular osteopontin (OPN-i); expanding the transduced CD4+ T cells by growing them in a culture medium until the number of transduced CD4+ T cells increases by at least 5%.
A system for estimating exhaled gas during high flow respiratory therapy, the system comprising: a respiratory high flow therapy system ; an exhaled gas monitoring system; and a processing arrangement configured to receive exhaled gas measurement data from the exhaled gas monitoring system and flow data from the respiratory high flow therapy system and to determine a compensated exhaled gas measurement, wherein the processing arrangement is further configured to determine the compensated exhaled gas measurement by estimating expiratory volume dilution. a respiratory high flow therapy system ; an exhaled gas monitoring system; and a processing arrangement configured to receive exhaled gas measurement data from the exhaled gas monitoring system and flow data from the respiratory high flow therapy system and to determine a compensated exhaled gas measurement, wherein the processing arrangement is further configured to determine the compensated exhaled gas measurement by estimating expiratory volume dilution.
Device for detecting electromagnetic radiation, comprising: - a substrate comprising a readout circuit; - a matrix of thermal detectors intended to absorb the electromagnetic radiation to be detected, disposed on the substrate , each thermal detector comprising: ∘ an absorbent membrane suspended above the substrate by anchoring pillars disposed on and in contact with the substrate , and by holding arms , the anchoring pillars and the holding arms ensuring an electrical connection of the absorbent membrane to the readout circuit, and ∘ a reflective layer disposed on the substrate facing the absorbent membrane ; - at least one vertical wall , disposed on and in contact with the substrate and extending longitudinally between two adjacent thermal detectors , the vertical wall extending longitudinally along an axis passing through two neighboring anchoring pillars , characterized in that the vertical wall is produced in a material that is opaque to the electromagnetic radiation to be detected and is produced in a single piece with at least one anchoring pillar . - a substrate comprising a readout circuit; - a matrix of thermal detectors intended to absorb the electromagnetic radiation to be detected, disposed on the substrate , each thermal detector comprising: ∘ an absorbent membrane suspended above the substrate by anchoring pillars disposed on and in contact with the substrate , and by holding arms , the anchoring pillars and the holding arms ensuring an electrical connection of the absorbent membrane to the readout circuit, and ∘ a reflective layer disposed on the substrate facing the absorbent membrane ; ∘ an absorbent membrane suspended above the substrate by anchoring pillars disposed on and in contact with the substrate , and by holding arms , the anchoring pillars and the holding arms ensuring an electrical connection of the absorbent membrane to the readout circuit, and ∘ a reflective layer disposed on the substrate facing the absorbent membrane ; - at least one vertical wall , disposed on and in contact with the substrate and extending longitudinally between two adjacent thermal detectors , the vertical wall extending longitudinally along an axis passing through two neighboring anchoring pillars , characterized in that the vertical wall is produced in a material that is opaque to the electromagnetic radiation to be detected and is produced in a single piece with at least one anchoring pillar .
A blade for a turbomachine extending longitudinally between a base and an apex , comprising a lower surface wall , an upper surface wall , a leading edge and a trailing edge and comprising a plurality of internal ventilation cavities which form a cooling circuit of the blade , wherein several ventilation cavities are ventilation cavities of a first type comprising - at least one ascending portion which extends longitudinally between the base and the apex , engaged with the lower surface wall and spaced from the upper surface wall , and - at least one discharge portion which extends towards and which opens at the trailing edge via at least one port of the trailing edge , and wherein at least one ventilation cavity of the first type further comprises at least one descending portion which extends longitudinally from the apex engaged with the upper surface wall and spaced from the lower surface wall . wherein several ventilation cavities are ventilation cavities of a first type comprising - at least one ascending portion which extends longitudinally between the base and the apex , engaged with the lower surface wall and spaced from the upper surface wall , and - at least one discharge portion which extends towards and which opens at the trailing edge via at least one port of the trailing edge , and - at least one ascending portion which extends longitudinally between the base and the apex , engaged with the lower surface wall and spaced from the upper surface wall , and - at least one discharge portion which extends towards and which opens at the trailing edge via at least one port of the trailing edge , and wherein at least one ventilation cavity of the first type further comprises at least one descending portion which extends longitudinally from the apex engaged with the upper surface wall and spaced from the lower surface wall .
A curable adhesive composition, wherein the composition is a two-component composition comprising: (A) an adhesive component comprising: (i) an aliphatic glycidyl ether; (ii) an aromatic glycidyl ether and optionally a cycloaliphatic epoxy; and (iii) a silane reducing agent; and (B) a catalyst component comprising: (iv) a Group 9 or Group 10 noble metal catalyst, wherein the adhesive component (A) and/or the catalyst component (B) further comprises an initiator. (A) an adhesive component comprising: (i) an aliphatic glycidyl ether; (ii) an aromatic glycidyl ether and optionally a cycloaliphatic epoxy; and (iii) a silane reducing agent; and (i) an aliphatic glycidyl ether; (ii) an aromatic glycidyl ether and optionally a cycloaliphatic epoxy; and (iii) a silane reducing agent; and (B) a catalyst component comprising: (iv) a Group 9 or Group 10 noble metal catalyst,
A cosmetic product comprising: a cosmetic composition; an applicator for the cosmetic composition; and a carrier for supporting the cosmetic composition, wherein the applicator comprises urethane foam having a structure comprising a membrane structure and a net structure, and obtained by foaming polyurethane, wherein the urethane foam comprises pores having an average pore size of 70-300 μm, wherein the applicator for the cosmetic composition has a delivery ratio of the cosmetic composition of 30-100%, wherein the delivery ratio is calculated by the following Mathematic Formula 1: Delivery ratio % = ( amount of cosmetic composition taken up by applicator to target for application discharged amount / amount of cosmetic composition absorbed by applicator absorbed amount ) × 100 , wherein the cosmetic composition is a liquid composition, wherein the membrane structure is a structure in which micropores are separated from each other by a membrane defining each pore, and wherein the net structure is a structure which includes micropores connected to each other and has a net-like loose structure. a cosmetic composition; an applicator for the cosmetic composition; and a carrier for supporting the cosmetic composition, wherein the applicator comprises urethane foam having a structure comprising a membrane structure and a net structure, and obtained by foaming polyurethane, wherein the urethane foam comprises pores having an average pore size of 70-300 μm, wherein the applicator for the cosmetic composition has a delivery ratio of the cosmetic composition of 30-100%, wherein the delivery ratio is calculated by the following Mathematic Formula 1: Delivery ratio % = ( amount of cosmetic composition taken up by applicator to target for application discharged amount / amount of cosmetic composition absorbed by applicator absorbed amount ) × 100 , wherein the cosmetic composition is a liquid composition, wherein the membrane structure is a structure in which micropores are separated from each other by a membrane defining each pore, and wherein the net structure is a structure which includes micropores connected to each other and has a net-like loose structure.
Lasofoxifene, or a pharmaceutically acceptable salt thereof for use in a method of treating a female patient suffering from estrogen receptor positive (ER + ) breast cancer, wherein the patient's cancer has at least one gain of function missense mutation within the ligand binding domain (LBD) of the Estrogen Receptor 1 (ESR1) gene, the method comprising administering to the patient an effective amount of lasofoxifene, or a pharmaceutically acceptable salt thereof.
A method for supporting wireless communications signaling over a flexible bandwidth carrier, the method comprising: identifying , at a wireless communications device, a signaling rate for signaling from the wireless communications device over a normal bandwidth carrier; determining , at the wireless communications device, a time interval for signaling from the wireless communications device over the flexible bandwidth carrier to facilitate a signaling rate for the signaling over the flexible bandwidth carrier that maintains the signaling rate for the signaling over the normal bandwidth carrier or a scaled fraction of the signaling rate for the signaling over the normal bandwidth carrier; and utilizing , by the wireless communications device, the determined time interval for the signaling over the flexible bandwidth carrier; wherein a flexible bandwidth carrier uses a portion of spectrum that is not big enough to fit a normal bandwidth carrier and wherein the flexible bandwidth carrier is generated with respect to the normal bandwidth carrier through dilating or scaling down by a bandwidth scaling factor the time or chiprate of the flexible bandwidth carrier system with respect to the normal bandwidth carrier system, wherein slot duration and frame duration is scaled with the scaling factor and wherein the scaling factor is not restricted to integer values. identifying , at a wireless communications device, a signaling rate for signaling from the wireless communications device over a normal bandwidth carrier; determining , at the wireless communications device, a time interval for signaling from the wireless communications device over the flexible bandwidth carrier to facilitate a signaling rate for the signaling over the flexible bandwidth carrier that maintains the signaling rate for the signaling over the normal bandwidth carrier or a scaled fraction of the signaling rate for the signaling over the normal bandwidth carrier; and utilizing , by the wireless communications device, the determined time interval for the signaling over the flexible bandwidth carrier; wherein a flexible bandwidth carrier uses a portion of spectrum that is not big enough to fit a normal bandwidth carrier and wherein the flexible bandwidth carrier is generated with respect to the normal bandwidth carrier through dilating or scaling down by a bandwidth scaling factor the time or chiprate of the flexible bandwidth carrier system with respect to the normal bandwidth carrier system, wherein slot duration and frame duration is scaled with the scaling factor and wherein the scaling factor is not restricted to integer values.
A process of adsorbing oxygen from a feed stream containing oxygen, comprising passing the feed stream through a bed of an adsorbent selective for oxygen so as to adsorb oxygen from the feed stream, thereby producing a product stream depleted in oxygen, wherein the adsorbent comprises a RHO zeolite having a Si/AI ratio of from 3.2 to 4.5 and containing non-proton extra-framework cations, wherein the size, number, and charge of the extra-framework cations that are present in the zeolite are such that 1.8 or fewer non-proton extra-framework cations per unit cell are required to occupy 8-ring sites, wherein the zeolite has a unit cell axis length of from 14.23A to 14.55A and wherein the nonproton extra-framework cations comprise Li + , Mg 2+ , Mn 2+ , Fe 2+ , Co 2+ , Ni 2+ , Cu 2+ and/or Zn 2+ cations.
A radiolabeled GRPR-antagonist of the general formula MC-S-P wherein: M is a radiometal and C is a metal chelator that stably binds M, or MC is a Tyr- or prosthetic group bound to a radiohalogen, wherein M is the radiohalogen; S is a spacer covalently linked between C and P, wherein S is covalently attached to the N-terminus of P; and P is DPhe-Gln-Trp-Ala-Val-Gly-His-CO-NH-CH[CH 2 -CH(CH 3 ) 2 ] 2 (SEQ ID NO: 1). M is a radiometal and C is a metal chelator that stably binds M, or MC is a Tyr- or prosthetic group bound to a radiohalogen, wherein M is the radiohalogen; S is a spacer covalently linked between C and P, wherein S is covalently attached to the N-terminus of P; and P is DPhe-Gln-Trp-Ala-Val-Gly-His-CO-NH-CH[CH 2 -CH(CH 3 ) 2 ] 2 (SEQ ID NO: 1).
A solid form comprising a compound of Formula (I): having an X-ray powder diffraction (XRPD) pattern comprising peaks at 16.8, 23.6, and 25.6 degrees 2θ, plus or minus 0.2.
Device for operating a vehicle, comprising a vehicle movement module for forming control signals for a controller of an actuation system of the vehicle and an energy management module for managing energy available for operating the vehicle, characterized in that the energy management module is configured so as to form further control signals for the controller depending on the available energy, and wherein a prioritizer for prioritizing the control signals over the further control signals depending on a vehicle position and/or a vehicle movement state is formed in order to stabilize the vehicle.
A surgical system comprising: - a frame , wherein the frame comprises a first side , a second side , a third side , and a fourth side that form a continuous perimeter around a frame opening ; - a spacer received in the frame opening , wherein the spacer comprises a first portion defining a first side surface and terminating at a first distal end, a second portion defining a second side surface and terminating at a second distal end, wherein a gap is defined between the first and second distal ends, and a third portion connecting the first and second portions, the third portion defining a third side surface , wherein the first distal and the second distal ends are free ends, and wherein the first side surface and the second side surface each comprise a convex surface, wherein the third side surface comprises a concave surface; and - one or more fixation members insertable in the frame , wherein the one or more fixation members includes at least a first fixation member that is angled in an upward direction and a second fixation member that is angled in a downward direction. - a frame , wherein the frame comprises a first side , a second side , a third side , and a fourth side that form a continuous perimeter around a frame opening ; - a spacer received in the frame opening , wherein the spacer comprises a first portion defining a first side surface and terminating at a first distal end, a second portion defining a second side surface and terminating at a second distal end, wherein a gap is defined between the first and second distal ends, and a third portion connecting the first and second portions, the third portion defining a third side surface , wherein the first distal and the second distal ends are free ends, and wherein the first side surface and the second side surface each comprise a convex surface, wherein the third side surface comprises a concave surface; and - one or more fixation members insertable in the frame , wherein the one or more fixation members includes at least a first fixation member that is angled in an upward direction and a second fixation member that is angled in a downward direction.