mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for halogenation of a polymer, said apparatus comprising: a reactor for receiving polymer slurry for halogenation of said polymer; at least one light source disposed outside of said reactor at a distance ranging from 0.5 centimetre to 2 centimetres for facilitating irradiation into said slurry; a stirrer configured to prevent formation of a layer on an upper surface of said slurry within said reactor , the stirrer having from 2 to 10 blades attached to a spindle , the blades having a blade angle of approximately 45 degrees, the stirrer disposed within the reactor and adapted to agitate said slurry at a speed of stirrer ranging from 400 rpm to 800 rpm such that the tip of vortex formed by stirring process remains above the blades , ; wherein the stirrer is configured to rotate the sets of blades in the same direction and further includes at least one impeller , the or each impeller having a central opening , the spindle is co-axially inserted through the central opening , the blades are radially extended from the impeller , and a heater adapted to heat said polymer slurry. a reactor for receiving polymer slurry for halogenation of said polymer; at least one light source disposed outside of said reactor at a distance ranging from 0.5 centimetre to 2 centimetres for facilitating irradiation into said slurry; a stirrer configured to prevent formation of a layer on an upper surface of said slurry within said reactor , the stirrer having from 2 to 10 blades attached to a spindle , the blades having a blade angle of approximately 45 degrees, the stirrer disposed within the reactor and adapted to agitate said slurry at a speed of stirrer ranging from 400 rpm to 800 rpm such that the tip of vortex formed by stirring process remains above the blades , ; wherein the stirrer is configured to rotate the sets of blades in the same direction and further includes at least one impeller , the or each impeller having a central opening , the spindle is co-axially inserted through the central opening , the blades are radially extended from the impeller , and a heater adapted to heat said polymer slurry.
A resource mapping method, comprising: obtaining (S201) a modulation symbol, wherein the modulation symbol is generated based on M code words, and M is a positive integer greater than or equal to 1; and mapping (S203) the modulation symbol to a time-frequency resource according to one of one or more mapping patterns; wherein the mapping pattern is a pattern of mapping every Q modulation symbols to one mapping unit, the mapping unit comprises F resource units, F is a positive integer greater than or equal to 1, and Q is a positive integer meeting 1 ≤ Q ≤ F; and the mapping pattern comprises a sparse mapping pattern, and the sparse mapping pattern is a mapping pattern meeting F ≥ 2 and 1 ≤ Q < F, characterized in that the method further comprises: sending signaling that indicates the one or more mapping patterns, or receiving signaling that indicates the one or more mapping patterns. obtaining (S201) a modulation symbol, wherein the modulation symbol is generated based on M code words, and M is a positive integer greater than or equal to 1; and mapping (S203) the modulation symbol to a time-frequency resource according to one of one or more mapping patterns; wherein the mapping pattern is a pattern of mapping every Q modulation symbols to one mapping unit, the mapping unit comprises F resource units, F is a positive integer greater than or equal to 1, and Q is a positive integer meeting 1 ≤ Q ≤ F; and the mapping pattern comprises a sparse mapping pattern, and the sparse mapping pattern is a mapping pattern meeting F ≥ 2 and 1 ≤ Q < F, characterized in that the method further comprises: sending signaling that indicates the one or more mapping patterns, or receiving signaling that indicates the one or more mapping patterns.
A container, preferably a flexible packaging, comprising a base wall , a front face wall , a rear face wall , at least a first sealing for joining the front face wall and the rear face wall , at least a second sealing for joining the front face wall and the rear face wall with the base wall to form a sealed enclosure , the container comprising an outlet opening and means (19, 20, 21 22, 23, 24, 25, 26, 24a, 24b, 27, 27a, 27b, 29, 30, 31) for joining the front face wall with the rear face wall for delimiting inside the sealed enclosure a dosing chamber in fluid communication with the outlet opening and a storage chamber in fluid communication with the dosing chamber , the joining means (19, 20, 21 22, 23, 24, 25, 26, 24a, 24b, 27, 27a, 27b, 29, 30, 31) comprising pouring means positioned between the storage chamber and the dosing chamber , the joining means (19, 20, 21 22, 23, 24, 25, 26, 24a, 24b, 27, 27a, 27b, 29, 30, 31) defining, inside the sealed enclosure , a conduit for passage between the storage chamber and the dosing chamber , the storage chamber being in communication with the dosing chamber through the passage conduit , the joining means (19, 20, 21 22, 23, 24, 25, 26, 24a, 24b, 27, 27a, 27b, 29, 30, 31) comprising at least a third sealing between the front face wall and the rear face wall , the third sealing having at least a branch for separation of the dosing chamber from the storage chamber and from the passage conduit and of the passage conduit from the storage chamber , the pouring means comprising a first opening between the storage chamber and the passage conduit and a second opening between the passage conduit and the dosing chamber , the first opening defining an inlet of the passage conduit and the second opening defining an outlet of the passage conduit , the third sealing delimiting at least in part the dosing chamber, the storage chamber and the passage conduit.
A multichip module comprising: a plurality of semiconductor substrates (11A to 11D), each of which has a wiring line region in which a wiring line passes through the semiconductor substrate from a first surface toward a second surface; a first surface mounting part (21, 22; 23, 24; 71, 72) mounted on a first semiconductor substrate of the plurality of semiconductor substrates (11A to 11D); and a second surface mounting part (21, 22; 23, 24; 71, 72), wherein the plurality of semiconductor substrates (11A to 11D) are stacked to form a multilayer structure, wherein the first surface mounting part (21, 22; 23, 24; 71, 72) is arranged in an inner space of the multilayer structure, wherein one or more second semiconductor substrates of the plurality of semiconductor substrates (11A to 11D) is stacked on the first semiconductor substrate to surround a side surface of the first surface mounting part, wherein a third semiconductor substrate of the plurality of semiconductor substrates is stacked on the one or more second semiconductor substrates to cover a top of the first surface mounting part, and wherein the second surface mounting part (21, 22; 23, 24; 71, 72) is mounted on the third semiconductor substrate. a plurality of semiconductor substrates (11A to 11D), each of which has a wiring line region in which a wiring line passes through the semiconductor substrate from a first surface toward a second surface; a first surface mounting part (21, 22; 23, 24; 71, 72) mounted on a first semiconductor substrate of the plurality of semiconductor substrates (11A to 11D); and a second surface mounting part (21, 22; 23, 24; 71, 72), wherein the plurality of semiconductor substrates (11A to 11D) are stacked to form a multilayer structure, wherein the first surface mounting part (21, 22; 23, 24; 71, 72) is arranged in an inner space of the multilayer structure, wherein one or more second semiconductor substrates of the plurality of semiconductor substrates (11A to 11D) is stacked on the first semiconductor substrate to surround a side surface of the first surface mounting part, wherein a third semiconductor substrate of the plurality of semiconductor substrates is stacked on the one or more second semiconductor substrates to cover a top of the first surface mounting part, and wherein the second surface mounting part (21, 22; 23, 24; 71, 72) is mounted on the third semiconductor substrate.
A mobile user equipment, 'UE', relay (3-3) for operating a relay cell in a communication network comprising a plurality of cells and for obtaining measurement reports from a further mobile UE , said relay UE comprising: means for operating the relay cell; means for establishing a connection with a base station via a base station to UE 3GPP interface and a connection with the further mobile UE within said relay cell via a dedicated UE relay to UE 3GPP interface; means for transmitting configuration data to the further mobile UE via the dedicated UE relay to UE 3GPP interface, wherein said configuration data defines at least one trigger event for triggering measurement reporting for at least one cell of said plurality of cells; means for receiving a measurement report, from the further mobile UE via the dedicated UE relay to UE 3GPP interface, responsive to said trigger event occurring. means for operating the relay cell; means for establishing a connection with a base station via a base station to UE 3GPP interface and a connection with the further mobile UE within said relay cell via a dedicated UE relay to UE 3GPP interface; means for transmitting configuration data to the further mobile UE via the dedicated UE relay to UE 3GPP interface, wherein said configuration data defines at least one trigger event for triggering measurement reporting for at least one cell of said plurality of cells; means for receiving a measurement report, from the further mobile UE via the dedicated UE relay to UE 3GPP interface, responsive to said trigger event occurring.
A fastener cartridge assembly (20200; 20600), comprising: a cartridge body (20210; 20610) comprising a fastener cavity (20212; 20612); a fastener comprising a base (20231; 20631), a first leg (20232a; 20632a) and a second leg (20232b; 20632b), each leg extending from the base, wherein said fastener is moveable from an unfired configuration to a fired configuration; and a tissue thickness compensator (20220; 20620) releasably secured relative to said cartridge body, wherein said tissue thickness compensator comprises: a first clearance path (20224a; 20624a) defined within said tissue thickness compensator; and a second clearance path (20224b; 20624b) defined within said tissue thickness compensator, wherein said first leg is configured to move along said first clearance path and said second leg is configured to move along said second clearance path when said fastener moves from the unfired configuration to the fired configuration, wherein said first clearance path is longer than said first leg. a cartridge body (20210; 20610) comprising a fastener cavity (20212; 20612); a fastener comprising a base (20231; 20631), a first leg (20232a; 20632a) and a second leg (20232b; 20632b), each leg extending from the base, wherein said fastener is moveable from an unfired configuration to a fired configuration; and a tissue thickness compensator (20220; 20620) releasably secured relative to said cartridge body, wherein said tissue thickness compensator comprises: a first clearance path (20224a; 20624a) defined within said tissue thickness compensator; and a second clearance path (20224b; 20624b) defined within said tissue thickness compensator, wherein said first leg is configured to move along said first clearance path and said second leg is configured to move along said second clearance path when said fastener moves from the unfired configuration to the fired configuration, a first clearance path (20224a; 20624a) defined within said tissue thickness compensator; and a second clearance path (20224b; 20624b) defined within said tissue thickness compensator, wherein said first leg is configured to move along said first clearance path and said second leg is configured to move along said second clearance path when said fastener moves from the unfired configuration to the fired configuration, wherein said first clearance path is longer than said first leg.
A computer implemented method for permitting manipulation of an achievable dose distribution estimate deliverable by a radiation delivery apparatus for proposed treatment of a subject, the achievable dose distribution estimate defined over a three-dimensional range of voxels with a dose value for each voxel, the method comprising: (a) determining a dose modification voxel for which it is desired to modify the dose value and determining a corresponding magnitude of desired dose modification; (b) for each of a plurality of beams: (i) characterizing the beam as a two-dimensional array of beamlets, wherein each beamlet is associated with a corresponding intensity value and a ray line representing a projection of the beamlet into space; and (ii) identifying one or more dose-change beamlets which have associated ray lines that intersect the dose modification voxel; (c) modifying the intensity values of the identified dose-change beamlets based on the magnitude of desired dose modification, wherein modifying the intensity value of the identified dose-change beamlets comprises, for each of the identified dose-change beamlets, modifying the intensity value of the identified dose-change beamlet according to a function that is proportional to the magnitude of desired dose modification and inversely proportional to the number of the identified dose-change beamlets; and (d) updating the achievable dose distribution estimate based on the modified intensity values of the identified dose-change beamlets. (a) determining a dose modification voxel for which it is desired to modify the dose value and determining a corresponding magnitude of desired dose modification; (b) for each of a plurality of beams: (i) characterizing the beam as a two-dimensional array of beamlets, wherein each beamlet is associated with a corresponding intensity value and a ray line representing a projection of the beamlet into space; and (ii) identifying one or more dose-change beamlets which have associated ray lines that intersect the dose modification voxel; (i) characterizing the beam as a two-dimensional array of beamlets, wherein each beamlet is associated with a corresponding intensity value and a ray line representing a projection of the beamlet into space; and (ii) identifying one or more dose-change beamlets which have associated ray lines that intersect the dose modification voxel; (c) modifying the intensity values of the identified dose-change beamlets based on the magnitude of desired dose modification, wherein modifying the intensity value of the identified dose-change beamlets comprises, for each of the identified dose-change beamlets, modifying the intensity value of the identified dose-change beamlet according to a function that is proportional to the magnitude of desired dose modification and inversely proportional to the number of the identified dose-change beamlets; and (d) updating the achievable dose distribution estimate based on the modified intensity values of the identified dose-change beamlets.
A method performed by a user equipment, UE, comprising: performing a random access procedure in a first downlink frequency resource and/or a first uplink frequency resource; in the random access procedure, monitoring a narrowband physical downlink control channel, NPDCCH, in the first downlink frequency resource on a DL anchor carrier; detecting a narrowband physical downlink control channel, NPDCCH, in the first downlink frequency resource on a DL anchor carrier; transmitting, to an evolved Node B, eNB, a narrowband physical uplink shared channel, NPUSCH, on a second uplink frequency resource on a UL non-anchor carrier based on detection of the NPDCCH on the first downlink frequency resource, in a case that the NPDCCH contains an uplink, UL, grant for contention resolution; and receiving, from the evolved Node B, eNB, a narrowband physical downlink shared channel, NPDSCH, on a second downlink frequency resource on a DL non-anchor carrier based on detection of the NPDCCH on the first downlink frequency resource, in a case that the NPDCCH contains a downlink, DL, assignment for contention resolution. performing a random access procedure in a first downlink frequency resource and/or a first uplink frequency resource; in the random access procedure, monitoring a narrowband physical downlink control channel, NPDCCH, in the first downlink frequency resource on a DL anchor carrier; detecting a narrowband physical downlink control channel, NPDCCH, in the first downlink frequency resource on a DL anchor carrier; transmitting, to an evolved Node B, eNB, a narrowband physical uplink shared channel, NPUSCH, on a second uplink frequency resource on a UL non-anchor carrier based on detection of the NPDCCH on the first downlink frequency resource, in a case that the NPDCCH contains an uplink, UL, grant for contention resolution; and receiving, from the evolved Node B, eNB, a narrowband physical downlink shared channel, NPDSCH, on a second downlink frequency resource on a DL non-anchor carrier based on detection of the NPDCCH on the first downlink frequency resource, in a case that the NPDCCH contains a downlink, DL, assignment for contention resolution.
A mobile instrument assembly for use in laboratories as well as in industry comprising: a housing for accommodating one or more components of an instrument; one or more wheels for mobility of the instrument assembly ; and a mounting assembly comprising: a support plate that is moveable with respect to the housing between a retracted position and one or more extracted positions and that comprises, in its distal end, a pair of protrusions projecting from a surface of the support plate , wherein in the retracted position the support plate is substantially unexposed from the housing , and wherein in each of the one or more extracted positions the support plate extends from the housing to a respective extent such that a perimeter of the housing and the pair of protrusions define a circular area of a respective predefined diameter to allow for mounting a pressure vessel of a corresponding size on the support plate between the perimeter of the housing and the pair of protrusions , the pressure vessel being applicable for storing pressurized gas required by said instrument. a support plate that is moveable with respect to the housing between a retracted position and one or more extracted positions and that comprises, in its distal end, a pair of protrusions projecting from a surface of the support plate , wherein in the retracted position the support plate is substantially unexposed from the housing , and wherein in each of the one or more extracted positions the support plate extends from the housing to a respective extent such that a perimeter of the housing and the pair of protrusions define a circular area of a respective predefined diameter to allow for mounting a pressure vessel of a corresponding size on the support plate between the perimeter of the housing and the pair of protrusions , the pressure vessel being applicable for storing pressurized gas required by said instrument.
A multi-layer braided article comprising a braid folded over itself to form a first layer and a second layer ; characterised by a set of one or more blind stitches in the first layer , the one or more stitches defining an edge of the first layer about which the braid is folded. a braid folded over itself to form a first layer and a second layer ; characterised by a set of one or more blind stitches in the first layer , the one or more stitches defining an edge of the first layer about which the braid is folded.
An integrated circuit comprising a top layer, a bottom layer and at least one middle layer, the top layer including a top layer conductive trace, the at least one middle layer including a hard macro having a top and a bottom and the bottom layer including a bottom layer conductive trace, wherein the top layer conductive trace is connected to the bottom layer conductive trace by a plurality of vias extending through the hard macro, the hard macro including a plurality of blockage sites on the hard macro top, the blockage sites extending through the hard macro to the hard macro bottom, wherein the plurality of vias are formed in at least some of the blockage sites, wherein the blockage sites are formed without logic elements or connections and at which blockage sites vias are formed without adversely affecting the operation of the hard macro, and further, wherein the blockage sites extend linearly through the hard macro.
A stator for an electric rotating machine , the stator comprising: a stator core having slots and teeth ; and a stator coil formed by connecting a plurality of hairpins to be inserted into the slots in a predetermined pattern, wherein each of the hairpins has a conductor and a film surrounding the conductor , each of the hairpins has a pair of insertion parts to be inserted into different slots and a connection part for connecting the insertion parts , wherein each of the hairpins has a "U" shape, the connection part has a first bending part and a second bending part bent with a predetermined radius of curvature so that the pair of insertion parts are radially insertable into different layers inside the slots , the hairpins include a first hairpin and a second hairpin protruding from one end of the stator core by different protrusion lengths, the first hairpin and the second hairpin having one region disposed to cross each other, the hairpins further include a third hairpin having a first insertion part and a second insertion part to be inserted into first layers of different slots , and the first hairpin has a first protrusion length (D1) and the second hairpin has a second protrusion length (D2) greater than the first protrusion length (D1), characterized in that the third hairpin has a third protrusion length (D3) that is greater than the first protrusion length (D1) of the first hairpin and smaller than the second protrusion length (D2) of the second hairpin . a stator core having slots and teeth ; and a stator coil formed by connecting a plurality of hairpins to be inserted into the slots in a predetermined pattern, wherein each of the hairpins has a conductor and a film surrounding the conductor , each of the hairpins has a pair of insertion parts to be inserted into different slots and a connection part for connecting the insertion parts , wherein each of the hairpins has a "U" shape, the connection part has a first bending part and a second bending part bent with a predetermined radius of curvature so that the pair of insertion parts are radially insertable into different layers inside the slots , the hairpins include a first hairpin and a second hairpin protruding from one end of the stator core by different protrusion lengths, the first hairpin and the second hairpin having one region disposed to cross each other, the hairpins further include a third hairpin having a first insertion part and a second insertion part to be inserted into first layers of different slots , and the first hairpin has a first protrusion length (D1) and the second hairpin has a second protrusion length (D2) greater than the first protrusion length (D1), characterized in that the third hairpin has a third protrusion length (D3) that is greater than the first protrusion length (D1) of the first hairpin and smaller than the second protrusion length (D2) of the second hairpin .