mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a base station, the method comprising: transmitting, to a user equipment, a first downlink control signal including first resource allocation information in a case where a single resource block set of one or more consecutively allocated resource blocks is allocated to the user equipment, the first resource allocation information indicating the single resource block set of one or more consecutively allocated resource blocks; transmitting, to the user equipment, a second downlink control signal including second resource allocation information in a case where a plurality of resource block sets are allocated to the user equipment, the second resource allocation information indicating the plurality of resource block sets, each one of the plurality of resource block sets including consecutively allocated resource blocks; receiving, from the user equipment, first uplink data using the single resource block set of one or more consecutively allocated resource blocks in a case where the first downlink control signal is transmitted; receiving, from the user equipment, second uplink data using the plurality of resource block sets in a case where the second downlink control signal is transmitted, wherein a first allocation unit of the single resource block set of one or more consecutively allocated resource blocks is smaller than a second allocation unit of each one of the plurality of resource block sets, and wherein each of the plurality of resource block sets is located on a frequency axis non-consecutively in a case of allocating of the plurality of resource block sets. transmitting, to a user equipment, a first downlink control signal including first resource allocation information in a case where a single resource block set of one or more consecutively allocated resource blocks is allocated to the user equipment, the first resource allocation information indicating the single resource block set of one or more consecutively allocated resource blocks; transmitting, to the user equipment, a second downlink control signal including second resource allocation information in a case where a plurality of resource block sets are allocated to the user equipment, the second resource allocation information indicating the plurality of resource block sets, each one of the plurality of resource block sets including consecutively allocated resource blocks; receiving, from the user equipment, first uplink data using the single resource block set of one or more consecutively allocated resource blocks in a case where the first downlink control signal is transmitted; receiving, from the user equipment, second uplink data using the plurality of resource block sets in a case where the second downlink control signal is transmitted, wherein a first allocation unit of the single resource block set of one or more consecutively allocated resource blocks is smaller than a second allocation unit of each one of the plurality of resource block sets, and wherein each of the plurality of resource block sets is located on a frequency axis non-consecutively in a case of allocating of the plurality of resource block sets.
A method performed by a wireless device, the method comprising: determining a first configured maximum transmit power value, P_cmax1, for transmitting in a first radio access technology, RAT, the P_cmax1 determined by the wireless device by considering one or more transmissions scheduled for transmission by the wireless device on the first RAT and assuming a second RAT has no scheduled transmissions regardless of whether the wireless device is scheduled to transmit on the second RAT, the first RAT being different from the second RAT; determining a second configured maximum transmit power value, P_cmax2, for transmitting in the second RAT, the P_cmax2 determined by the wireless device by considering transmissions scheduled for both the first RAT and the second RAT; performing a transmission in the first RAT at a power less than or equal to the P_cmax1; and performing a transmission in the second RAT at a power less than or equal to the P_cmax2. determining a first configured maximum transmit power value, P_cmax1, for transmitting in a first radio access technology, RAT, the P_cmax1 determined by the wireless device by considering one or more transmissions scheduled for transmission by the wireless device on the first RAT and assuming a second RAT has no scheduled transmissions regardless of whether the wireless device is scheduled to transmit on the second RAT, the first RAT being different from the second RAT; determining a second configured maximum transmit power value, P_cmax2, for transmitting in the second RAT, the P_cmax2 determined by the wireless device by considering transmissions scheduled for both the first RAT and the second RAT; performing a transmission in the first RAT at a power less than or equal to the P_cmax1; and performing a transmission in the second RAT at a power less than or equal to the P_cmax2.
A refrigerating machine oil having a flash point of 130°C or lower and a carbon residue of 10% residual oil of 0.02% by mass or more, and comprising: a low-viscosity hydrocarbon oil having a kinematic viscosity at 40°C of 6 mm 2 /s or lower; and a high-viscosity hydrocarbon oil having a kinematic viscosity at 40°C of 200 mm 2 /s or higher. a low-viscosity hydrocarbon oil having a kinematic viscosity at 40°C of 6 mm 2 /s or lower; and a high-viscosity hydrocarbon oil having a kinematic viscosity at 40°C of 200 mm 2 /s or higher.
An apparatus comprising: a housing; a lens inserted into a first opening of the housing; a metal mask covering a portion of the interior of the lens; a passive infrared, PIR, sensor underneath the lens and the metal mask; a button and a light pipe around the PIR sensor, the lens, and the metal mask, at least a portion of the light pipe positioned above an activation mechanism for the button, wherein the housing comprises a battery compartment and wherein a retention part comprising a U-shaped structure, two prongs at the ends of the U-shaped structure, and a tab at the bottom of the U-shaped structure, accommodates the insertion of a battery that is inserted into the battery compartment. a housing; a lens inserted into a first opening of the housing; a metal mask covering a portion of the interior of the lens; a passive infrared, PIR, sensor underneath the lens and the metal mask; a button and a light pipe around the PIR sensor, the lens, and the metal mask, at least a portion of the light pipe positioned above an activation mechanism for the button, wherein the housing comprises a battery compartment and wherein a retention part comprising a U-shaped structure, two prongs at the ends of the U-shaped structure, and a tab at the bottom of the U-shaped structure, accommodates the insertion of a battery that is inserted into the battery compartment.
A light curing molding ink set suitable for a manufacturing method for light curing molding using an ink-jet scheme, comprising a combination of a resin composition for a modeling material suitable for shaping the modeling material and a resin composition for a supporting material suitable for shaping the supporting material, wherein the resin composition for a modeling material contains a water-insoluble monofunctional ethylenic unsaturated monomer, a di- or more-functional polyfunctional ethylenic unsaturated monomer, a photopolymerization initiator, and a surface adjusting agent, wherein the resin composition for a supporting material contains a water-soluble monofunctional ethylenic unsaturated monomer, polyalkylene glycol comprising an oxyethylene group and/or an oxypropylene group, a photopolymerization initiator, and a surface adjusting agent, wherein surface tension Mt (mN/m) of the resin composition for a modeling material is 26.0 to 33.3 mN/m and greater than surface tension St (mN/m) of the resin composition for a supporting material, and the surface tension Mt and the surface tension St satisfy the following (i) expression. 0 < Mt − St < 5
A release system comprising: a torsional lock sleeve disposed about a mandrel, wherein the torsional lock sleeve and the mandrel are configured to substantially prevent rotational movement of the torsional lock sleeve about the mandrel, and wherein the torsional lock sleeve is configured to shift between a first position and a second position with respect to the mandrel; a collet prop engaged with the mandrel, wherein the collet prop is retained in engagement with a collet when the torsional lock sleeve is in the first position, wherein the collet prop is retained in a torsionally locked engagement with the torsional lock sleeve when the torsional lock sleeve is in the first position, and wherein the collet prop is configured to longitudinally translate in response to a rotational movement when the torsional lock sleeve is disposed in the second position; and a shifting assembly configured to engage the torsional lock sleeve and shift the torsional lock sleeve from the first position to the second position. a torsional lock sleeve disposed about a mandrel, wherein the torsional lock sleeve and the mandrel are configured to substantially prevent rotational movement of the torsional lock sleeve about the mandrel, and wherein the torsional lock sleeve is configured to shift between a first position and a second position with respect to the mandrel; a collet prop engaged with the mandrel, wherein the collet prop is retained in engagement with a collet when the torsional lock sleeve is in the first position, wherein the collet prop is retained in a torsionally locked engagement with the torsional lock sleeve when the torsional lock sleeve is in the first position, and wherein the collet prop is configured to longitudinally translate in response to a rotational movement when the torsional lock sleeve is disposed in the second position; and a shifting assembly configured to engage the torsional lock sleeve and shift the torsional lock sleeve from the first position to the second position.
A process for forming a pattern, comprising the steps of coating a chemically amplified resist composition on a processable substrate, prebaking the coating to remove any excess solvent therein to form a resist film, exposing the resist film patternwise to high-energy radiation, optionally post-exposure baking, developing the exposed resist film with a developer, and heat treating to form a resist pattern, wherein said chemically amplified resist composition comprising a base resin, an acid generator, and a solvent, wherein the resist film of the composition changes its solubility in the developer under the action of an acid generated by the acid generator upon exposure to high-energy radiation, the solvent is present in a total amount of 1,400 to 5,000 parts by weight per 100 parts by weight of the base resin, the solvent comprises propylene glycol monomethyl ether acetate (PGMEA) and ethyl lactate which are present in a total amount of at least 60% by weight of the total solvent weight, the solvent further comprises high-boiling solvent, being at least one selected from γ-butyrolactone, alkyl acetoacetate, dipropylene glycol methyl ether acetate, dipropylene glycol butyl ether, tripropylene glycol butyl ether, ethylene carbonate and propylene carbonate, in a proportion of 0.2% to 20% by weight of the total solvent weight, and change of a pattern line width by said post-development heat treating step is up to 5%.
Coupling assembly for transmitting a rotational movement, the coupling assembly comprising: - a first coupling member (1; 11; 21; 31; 41; 51; 61) rotationally mounted about a first axis, and having a first coupling means (10; 110; 210), - a second coupling member (2; 12; 22) rotationally mounted about a second axis, and having a second coupling means (20; 120; 220), - a sliding member (3; 13; 23; 33; 43; 53; 63) comprising: - a first cooperating means (10a; 110a; 210a) cooperating with the first coupling means (10; 110; 210) such that the sliding member (3; 13; 23) is translationally moveable relatively to the first coupling member (1; 11; 21) about a first direction, - a second cooperating means (20a; 120a; 220a) cooperating with the second coupling means (20; 120; 220) such that the sliding member (3; 13; 23) is translationally moveable relatively to the second coupling member (2; 12; 22) about a second direction substantially perpendicular to the first direction, wherein the first coupling member (1; 11; 21; 31; 41; 51; 61) and/or the sliding member (3; 13; 23; 33; 43; 53; 63) comprises retaining means (4, 5; 14, 15; 24, 25; 34, 35; 44, 45; 54, 55; 64, 65) retaining axially and/or radially the slider (3; 13; 23; 33; 43; 53; 63) on the first coupling member (1; 11; 21; 31; 41; 51; 61), such that the first cooperating means (10a; 110a; 210a) cooperates with the first coupling means (10; 110; 210), characterized in that the retaining means comprises at least one clip fastening means (4; 14; 24) retaining radially the slider (3; 13; 23) on the first coupling member (1; 11; 21). - a first coupling member (1; 11; 21; 31; 41; 51; 61) rotationally mounted about a first axis, and having a first coupling means (10; 110; 210), - a second coupling member (2; 12; 22) rotationally mounted about a second axis, and having a second coupling means (20; 120; 220), - a sliding member (3; 13; 23; 33; 43; 53; 63) comprising: - a first cooperating means (10a; 110a; 210a) cooperating with the first coupling means (10; 110; 210) such that the sliding member (3; 13; 23) is translationally moveable relatively to the first coupling member (1; 11; 21) about a first direction, - a second cooperating means (20a; 120a; 220a) cooperating with the second coupling means (20; 120; 220) such that the sliding member (3; 13; 23) is translationally moveable relatively to the second coupling member (2; 12; 22) about a second direction substantially perpendicular to the first direction, - a first cooperating means (10a; 110a; 210a) cooperating with the first coupling means (10; 110; 210) such that the sliding member (3; 13; 23) is translationally moveable relatively to the first coupling member (1; 11; 21) about a first direction, - a second cooperating means (20a; 120a; 220a) cooperating with the second coupling means (20; 120; 220) such that the sliding member (3; 13; 23) is translationally moveable relatively to the second coupling member (2; 12; 22) about a second direction substantially perpendicular to the first direction,
A composition for use in a method for inducing immune tolerance toward a protein antigen, wherein: the composition is one of a first composition or a second composition, wherein the first composition comprises O-phospho-L-serine (OPLS), and the second composition comprises the protein antigen, wherein the first composition is free of the protein antigen and the second composition is free of OPLS; and the method comprises administering the composition and the other of the first or second compositions separately through a subcutaneous route to an individual; wherein the two compositions are administered at anatomical sites that are less than 5.08 cm (two inches) apart from each other and within 60 minutes from each other. the composition is one of a first composition or a second composition, wherein the first composition comprises O-phospho-L-serine (OPLS), and the second composition comprises the protein antigen, wherein the first composition is free of the protein antigen and the second composition is free of OPLS; and the method comprises administering the composition and the other of the first or second compositions separately through a subcutaneous route to an individual; wherein the two compositions are administered at anatomical sites that are less than 5.08 cm (two inches) apart from each other and within 60 minutes from each other.
A wheel assembly including a sensor for measuring wheel movement comprising: a frame member; an axle fixed to the frame member; a wheel rotatably mounted to the axle, wherein the wheel comprises a wheel recess; a code ring located within the wheel recess for rotation with the wheel; and a sensor device coupled to the frame member and located adjacent to the code ring, wherein the sensor device senses movement of the code ring and generates an output signal indicative of the wheel movement, and wherein the frame member comprises opposing axle plates (144, 146) for supporting the axle, each of the opposing axle plates (144, 146) comprising a bore (144A, 146A) for receiving the axle; one of the opposing axle plates (144, 146) comprises a further bore extending through a thickness of the one axle plate (144, 146), the sensor device being coupled to the one axle plate (144, 146); and a portion of the sensor device extends at least partially through the further bore such that an outermost surface of the portion of the sensor device is flush with an inner surface (144-2, 146-2) of the one axle plate (144, 146) or recessed with respect to the inner surface (144-1, 146-2) of the one axle plate (144, 146). a frame member; an axle fixed to the frame member; a wheel rotatably mounted to the axle, wherein the wheel comprises a wheel recess; a code ring located within the wheel recess for rotation with the wheel; and a sensor device coupled to the frame member and located adjacent to the code ring, wherein the sensor device senses movement of the code ring and generates an output signal indicative of the wheel movement, and wherein the frame member comprises opposing axle plates (144, 146) for supporting the axle, each of the opposing axle plates (144, 146) comprising a bore (144A, 146A) for receiving the axle; one of the opposing axle plates (144, 146) comprises a further bore extending through a thickness of the one axle plate (144, 146), the sensor device being coupled to the one axle plate (144, 146); and a portion of the sensor device extends at least partially through the further bore such that an outermost surface of the portion of the sensor device is flush with an inner surface (144-2, 146-2) of the one axle plate (144, 146) or recessed with respect to the inner surface (144-1, 146-2) of the one axle plate (144, 146).
A network communication method comprising: receiving a stub tag request from a user device, the user device having received source code of a visited webpage associated with a website; determining, from the received stub tag request, a site configuration that identifies one or more webpages of the website and identifies a plurality of data receiver tags assigned to each one of the webpages of the website; identifying the visited webpage at least in part from one or more parameters from a network request header; constructing a response to the stub tag request, the response including at least one of a collector tag, a browser-direct data distribution tag, and a user ID synchronization tag; and sending the response to the user device, wherein the constructed response includes the collector tag and the collector tag includes a data collection code that collects, for a plurality of data receivers, one or more data elements that would be collected by a plurality of data receiver tags for the visited webpage, the plurality of data receiver tags for the visited webpage correspond to a plurality of data receiver tags assigned to a particular webpage identified in the site configuration, and the particular webpage matches the identity of the visited webpage. receiving a stub tag request from a user device, the user device having received source code of a visited webpage associated with a website; determining, from the received stub tag request, a site configuration that identifies one or more webpages of the website and identifies a plurality of data receiver tags assigned to each one of the webpages of the website; identifying the visited webpage at least in part from one or more parameters from a network request header; constructing a response to the stub tag request, the response including at least one of a collector tag, a browser-direct data distribution tag, and a user ID synchronization tag; and sending the response to the user device, wherein the constructed response includes the collector tag and the collector tag includes a data collection code that collects, for a plurality of data receivers, one or more data elements that would be collected by a plurality of data receiver tags for the visited webpage, the plurality of data receiver tags for the visited webpage correspond to a plurality of data receiver tags assigned to a particular webpage identified in the site configuration, and the particular webpage matches the identity of the visited webpage.
A reactive power compensator for an electric power transmission or distribution network comprising reactive components for compensating reactive power and an autotransformer with pairs of primary windings and secondary windings, the primary windings being star-connected to form a star-point and being connectable to power lines, the secondary windings being connected to the star-point of the autotransformer and being connectable to second poles of the reactive components, characterized in that first poles of the reactive components are connected to first ends or taps of the primary windings.
A method for calibrating an imaging system for capturing images of a patient in connection with treatment planning or treatment in a radiation therapy system, which radiation therapy system comprises a radiation therapy unit having a fixed radiation focus point, a positioning system for positioning a treatment volume in a patient in relation to said fixed focus point in the radiation therapy unit along three substantially orthogonal motional axes, wherein said positioning system includes a fixation arrangement for releasably and firmly engaging a stereotactic fixation unit for immobilizing a treatment volume in a patient in relation to the positioning system, said method comprising the steps of: releasably attaching a calibration tool to said fixation arrangement, wherein said calibration tool is positioned in a stereotactic coordinate system related to said patient positioning system, wherein the calibration tool comprises reference objects arranged or shaped such that they can be identified in a reconstructed volume; performing an image scanning procedure with said imaging system, wherein a set of images are captured of an area including said calibration tool; performing a volumetric reconstruction of said area including the calibration tool using the captured images; determining a position of said calibration tool in an imaging system coordinate system using said volumetric reconstruction; calculating a position difference between said determined position of said calibration tool in said imaging system coordinate system and a position of said calibration tool in said stereotactic coordinate system, thereby determining a relationship between said imaging system coordinate system and said position of said calibration tool in said stereotactic coordinate system. releasably attaching a calibration tool to said fixation arrangement, wherein said calibration tool is positioned in a stereotactic coordinate system related to said patient positioning system, wherein the calibration tool comprises reference objects arranged or shaped such that they can be identified in a reconstructed volume; performing an image scanning procedure with said imaging system, wherein a set of images are captured of an area including said calibration tool; performing a volumetric reconstruction of said area including the calibration tool using the captured images; determining a position of said calibration tool in an imaging system coordinate system using said volumetric reconstruction; calculating a position difference between said determined position of said calibration tool in said imaging system coordinate system and a position of said calibration tool in said stereotactic coordinate system, thereby determining a relationship between said imaging system coordinate system and said position of said calibration tool in said stereotactic coordinate system.