mhurhangee/patent-ind-claim-en huggingface dataset:
A method for configuring downlink control information, performed by a base station, comprising: configuring an uplink scheduling Downlink Control Information, DCI, and a downlink scheduling DCI of multi-Transmission Block, TB, transmission to have the same number of bits; wherein the method further comprises: determining a configuring manner for configuring the uplink scheduling DCI and the downlink scheduling DCI to have the same number of bits; wherein configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits comprises: according to the configuring manner, configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits; and being characterized in that , according to the configuring manner, configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits comprises: adding m bits having a preset value at predetermined positions to a shorter one having the smaller number of bits and selected from a configured uplink scheduling DCI and a configured downlink scheduling DCI, such that the number of bits of the uplink scheduling DCI is the same as the number of bits of the downlink scheduling DCI. configuring an uplink scheduling Downlink Control Information, DCI, and a downlink scheduling DCI of multi-Transmission Block, TB, transmission to have the same number of bits; wherein the method further comprises: determining a configuring manner for configuring the uplink scheduling DCI and the downlink scheduling DCI to have the same number of bits; wherein configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits comprises: according to the configuring manner, configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits; and being characterized in that , according to the configuring manner, configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits comprises: adding m bits having a preset value at predetermined positions to a shorter one having the smaller number of bits and selected from a configured uplink scheduling DCI and a configured downlink scheduling DCI, such that the number of bits of the uplink scheduling DCI is the same as the number of bits of the downlink scheduling DCI.
A frame assembly comprising: a bottom support structure having a front side and a back side ; a handle housing having a top end and a bottom end , the bottom end being coupled to the bottom support structure at the back side thereof; a holder coupled to the top end of the handle housing ; and a diagonal support structure diagonally positioned and coupled to the handle housing via the holder and coupled to the bottom support structure at the front side thereof , wherein the bottom support structure includes at least one curved portion and a flat portion , the curved portion is configured to couple to a wheel assembly , characterized in that the flat portion is configured to be positioned closer to a floor surface than the curved portion . a bottom support structure having a front side and a back side ; a handle housing having a top end and a bottom end , the bottom end being coupled to the bottom support structure at the back side thereof; a holder coupled to the top end of the handle housing ; and a diagonal support structure diagonally positioned and coupled to the handle housing via the holder and coupled to the bottom support structure at the front side thereof , wherein the bottom support structure includes at least one curved portion and a flat portion , the curved portion is configured to couple to a wheel assembly , characterized in that the flat portion is configured to be positioned closer to a floor surface than the curved portion .
A crosslinkable polymeric composition comprising: (a) 10 to 89 weight percent, based on the total weight of said crosslinkable polymeric composition, of an ethylene-based interpolymer having the following properties: (i) a density of 0.93 g/cm 3 or less, determined according to ASTM D792, (ii) a high-shear viscosity (V100) at 190 °C and 10 % strain of 1,200 Pa·s or less, determined by conducting dynamic oscillatory shear measurements at 100 rad s -1 with stainless steel parallel plates of 25-mm diameter on a strain-controlled rheometer, (iii) a shear thinning ratio (V0.1/V100) at 190 °C and 10 % strain of at least 8, where V0.1 is determined by conducting dynamic oscillatory shear measurements at 0.1 rad s -1 with stainless steel parallel plates of 25-mm diameter on a strain-controlled rheometer, and (iv) a melt index (I 2 ) greater than 1 g/10 minutes, determined at 190 °C and 2.16 Kg according to ASTM D1238; and (b) 10 to less than 90 weight percent, based on the total weight of said crosslinkable polymeric composition, of a filler; and wherein said ethylene-based interpolymer is not prepared in a high-pressure reactor or process. (a) 10 to 89 weight percent, based on the total weight of said crosslinkable polymeric composition, of an ethylene-based interpolymer having the following properties: (i) a density of 0.93 g/cm 3 or less, determined according to ASTM D792, (ii) a high-shear viscosity (V100) at 190 °C and 10 % strain of 1,200 Pa·s or less, determined by conducting dynamic oscillatory shear measurements at 100 rad s -1 with stainless steel parallel plates of 25-mm diameter on a strain-controlled rheometer, (iii) a shear thinning ratio (V0.1/V100) at 190 °C and 10 % strain of at least 8, where V0.1 is determined by conducting dynamic oscillatory shear measurements at 0.1 rad s -1 with stainless steel parallel plates of 25-mm diameter on a strain-controlled rheometer, and (iv) a melt index (I 2 ) greater than 1 g/10 minutes, determined at 190 °C and 2.16 Kg according to ASTM D1238; and (i) a density of 0.93 g/cm 3 or less, determined according to ASTM D792, (ii) a high-shear viscosity (V100) at 190 °C and 10 % strain of 1,200 Pa·s or less, determined by conducting dynamic oscillatory shear measurements at 100 rad s -1 with stainless steel parallel plates of 25-mm diameter on a strain-controlled rheometer, (iii) a shear thinning ratio (V0.1/V100) at 190 °C and 10 % strain of at least 8, where V0.1 is determined by conducting dynamic oscillatory shear measurements at 0.1 rad s -1 with stainless steel parallel plates of 25-mm diameter on a strain-controlled rheometer, and (iv) a melt index (I 2 ) greater than 1 g/10 minutes, determined at 190 °C and 2.16 Kg according to ASTM D1238; and (b) 10 to less than 90 weight percent, based on the total weight of said crosslinkable polymeric composition, of a filler; and
A drivetrain for an aircraft, the drivetrain comprising: a gearbox having an input shaft and a mast coaxially aligned with the input shaft ; a plurality of electric motors coupled to the input shaft , wherein the input shaft is coupled to the mast via a planetary gear set and characterised in that each electric motor of the plurality of electric motors is coupled to the input shaft via a sprag clutch . a gearbox having an input shaft and a mast coaxially aligned with the input shaft ; a plurality of electric motors coupled to the input shaft , wherein the input shaft is coupled to the mast via a planetary gear set and characterised in that each electric motor of the plurality of electric motors is coupled to the input shaft via a sprag clutch .
A method for manufacturing a polymeric value document substrate or security element including a polymeric carrier which is furnished in sequence with a replication layer and a liquid crystal material layer doped with at least one dichroic dye in a predetermined region, wherein a relief structure aligning the liquid crystal material layer doped with dichroic dye is embossed in the surface of the replication layer facing the liquid crystal material layer and the embossed relief structure includes at least two regions with different orientation directions, the method comprising the steps of: - providing a polymeric carrier ; - furnishing the polymeric carrier with an opaque, printable ink layer having the form of a first ink layer and including recesses; - applying a replication layer onto the polymeric carrier , the replication layer being applied to the polymeric carrier in the regions of the recesses of the first ink layer ; - furnishing the replication layer with an embossed relief structure which includes at least two regions with different orientation directions and is suitable for aligning a liquid crystal material layer doped with at least one dichroic dye; - applying a liquid crystal material layer doped with at least one dichroic dye onto the replication layer including the embossed relief structure; and - applying a further opaque, printable ink layer in the form of a second ink layer onto the first ink layer in such a way that the second ink layer also partially covers the liquid crystal material layer and/or the replication layer . - providing a polymeric carrier ; - furnishing the polymeric carrier with an opaque, printable ink layer having the form of a first ink layer and including recesses; - applying a replication layer onto the polymeric carrier , the replication layer being applied to the polymeric carrier in the regions of the recesses of the first ink layer ; - furnishing the replication layer with an embossed relief structure which includes at least two regions with different orientation directions and is suitable for aligning a liquid crystal material layer doped with at least one dichroic dye; - applying a liquid crystal material layer doped with at least one dichroic dye onto the replication layer including the embossed relief structure; and - applying a further opaque, printable ink layer in the form of a second ink layer onto the first ink layer in such a way that the second ink layer also partially covers the liquid crystal material layer and/or the replication layer .
An apparatus for checking a print on an article, the apparatus comprising: - a data provision device adapted to provide printing data for the article from product data of the article, the product data defining parameters, characteristics, and design options of the article, the product data defining and classifying an article according to customer-specific configuration; - a camera device adapted to capture and provide as image data an image of an article printed by a printing process; and - a computer device adapted to perform a quality check of the printing process based on a comparison of the printing data with the image data. - a data provision device adapted to provide printing data for the article from product data of the article, the product data defining parameters, characteristics, and design options of the article, the product data defining and classifying an article according to customer-specific configuration; - a camera device adapted to capture and provide as image data an image of an article printed by a printing process; and - a computer device adapted to perform a quality check of the printing process based on a comparison of the printing data with the image data.
An elevator system comprising: an elevator control system ; an elevator fixture operably coupled to the elevator control system ; and a fixture communication device operably coupled to the elevator fixture , the fixture communication device operable to at least wirelessly communicate information with a mobile communication device ; characterised in that : the mobile communication device is configured to transmit a travel signal (30A; 30B) to the fixture communication device at a time prior to a designated time. an elevator control system ; an elevator fixture operably coupled to the elevator control system ; and a fixture communication device operably coupled to the elevator fixture , the fixture communication device operable to at least wirelessly communicate information with a mobile communication device ; characterised in that : the mobile communication device is configured to transmit a travel signal (30A; 30B) to the fixture communication device at a time prior to a designated time.
An antenna system comprising: - a first antenna array comprising a plurality of first antenna array elements , said first antenna array being configured to use with low frequency band signals; - at least one second antenna array comprising a plurality of second antenna array elements , said at least one second antenna array being configured to use with high frequency band signals; wherein - said second antenna array elements are interspersed among said first antenna array elements ; - said first antenna array elements are of a first shape of antenna array elements; - said second antenna array elements are of a second shape of antenna array elements; - each first antenna array element is at a different location from any of said second antenna array elements ; - each of said first antenna array elements and each of said second antenna array elements is a single band antenna element, wherein said second antenna array elements are divided into a plurality of groups, wherein each group of second antenna array elements is longitudinally located between elements of said first antenna array elements , wherein each group of second antenna array elements is longitudinally separated from adjacent groups by a first predetermined spacing (d2), wherein within each group of second antenna array elements , each second antenna array element is longitudinally separated from adjacent second antenna array elements by a second predetermined spacing (d1), wherein said first predetermined spacing (d2) is greater than said second predetermined spacing (d1), and wherein said antenna system is a planar array in both low frequency band and high frequency band, said first antenna array elements are dipole antenna array elements and said second antenna array elements are patch antenna array elements. - a first antenna array comprising a plurality of first antenna array elements , said first antenna array being configured to use with low frequency band signals; - at least one second antenna array comprising a plurality of second antenna array elements , said at least one second antenna array being configured to use with high frequency band signals; wherein - said second antenna array elements are interspersed among said first antenna array elements ; - said first antenna array elements are of a first shape of antenna array elements; - said second antenna array elements are of a second shape of antenna array elements; - each first antenna array element is at a different location from any of said second antenna array elements ; - each of said first antenna array elements and each of said second antenna array elements is a single band antenna element,
A loop forming fastener , comprising: (a) an elongate body portion having a first side , a second side , a first end and an opposed tail end ; (b) a head (44") connected to the elongate body portion , the head (44") having a bottom and defining an opening configured to receive said tail end to form a loop ; (c) a ratchet including an array of teeth aligned the first side of the elongate body portion and a pawl associated with the head (44") and the opening , the ratchet permitting movement of the elongate body portion through the opening in a first direction but preventing movement of the elongate body portion in an opposite second direction , the fastener also including an array of cavities arranged in a row spaced along the second side of the elongate body portion extending into the elongate body portion ; and (d) a lock located in the bottom of the head (44"), that selectively prevents movement of the elongate body portion in the first direction . (a) an elongate body portion having a first side , a second side , a first end and an opposed tail end ; (b) a head (44") connected to the elongate body portion , the head (44") having a bottom and defining an opening configured to receive said tail end to form a loop ; (c) a ratchet including an array of teeth aligned the first side of the elongate body portion and a pawl associated with the head (44") and the opening , the ratchet permitting movement of the elongate body portion through the opening in a first direction but preventing movement of the elongate body portion in an opposite second direction , the fastener also including an array of cavities arranged in a row spaced along the second side of the elongate body portion extending into the elongate body portion ; and (d) a lock located in the bottom of the head (44"), that selectively prevents movement of the elongate body portion in the first direction .
Method of operating a hot-rolling or cold-rolling train in a rolling or metallurgical plant, wherein the hot-rolling or cold-rolling train comprises a plurality of roll stands with backing rolls which are mounted by at least one slide bearing, wherein the slide bearing is supplied with a lubricant, characterised in that a water-based single-phase fluid to which at least one viscosity-increasing additive is added is used as lubricant for the slide bearing, wherein biopolymer material is added as additive to the water, wherein the biopolymer material is, in particular, cellulose, starch and/or bacterial polysaccharide, or a salt of a modified cellulose is used as single polymer lubricant.
Pharmaceutical composition comprising an active component which kills or retards proliferation of target cells, wherein the target cells had previously acquired a resistance to the active component, and wherein the active component absorbs electromagnetic radiation of a wavelength above a lower limit of 190 nm, for use in a method for the preventive or therapeutic treatment of infectious diseases or tumors of a human or non-human individual, characterized in that the pharmaceutical composition is administered with a regimen comprising during or after administration of the pharmaceutical composition at least one exposure of the individual to electromagnetic radiation with a wavelength or a range of wavelength some of which is absorbed by the active component, wherein the electromagnetic radiation is applied in short pulses in a range of 0.1 fs to 200 ms.
A resource allocation, RA, method, comprising: receiving, by a terminal within an activated bandwidth part, BWP, downlink control information, DCI, transmitted by a network side device , wherein the DCI comprises an RA field; and determining, by the terminal according to a size of the activated BWP, RA information indicated by the RA field ; characterized in that the determining, by the terminal according to the size of the activated BWP, the RA information indicated by the RA field comprises: determining, by the terminal, an RA granularity of the RA field according to a comparison result between the size of the activated BWP and a size of an initial BWP, and determining, by the terminal according to the RA granularity, the RA information indicated by the RA field, wherein the RA granularity is a quantity of virtual resource blocks, VRBs; or performing, by the terminal, a padding operation or a truncation operation on the RA field according to a comparison result between the size of the activated BWP and a size of an initial BWP to obtain target information, and determining, by the terminal, the RA information according to the target information. receiving, by a terminal within an activated bandwidth part, BWP, downlink control information, DCI, transmitted by a network side device , wherein the DCI comprises an RA field; and determining, by the terminal according to a size of the activated BWP, RA information indicated by the RA field ; characterized in that the determining, by the terminal according to the size of the activated BWP, the RA information indicated by the RA field comprises: determining, by the terminal, an RA granularity of the RA field according to a comparison result between the size of the activated BWP and a size of an initial BWP, and determining, by the terminal according to the RA granularity, the RA information indicated by the RA field, wherein the RA granularity is a quantity of virtual resource blocks, VRBs; or performing, by the terminal, a padding operation or a truncation operation on the RA field according to a comparison result between the size of the activated BWP and a size of an initial BWP to obtain target information, and determining, by the terminal, the RA information according to the target information. determining, by the terminal, an RA granularity of the RA field according to a comparison result between the size of the activated BWP and a size of an initial BWP, and determining, by the terminal according to the RA granularity, the RA information indicated by the RA field, wherein the RA granularity is a quantity of virtual resource blocks, VRBs; or performing, by the terminal, a padding operation or a truncation operation on the RA field according to a comparison result between the size of the activated BWP and a size of an initial BWP to obtain target information, and determining, by the terminal, the RA information according to the target information.
A method for controlling a magnetic resonance imaging (MRI) system to perform an angiography study, the method comprising: acquiring a ventilator airway pressure signal from a ventilatory support device coupled to a subject having received an intravascular contrast agent; controlling the MRI system to acquire cardiac magnetic resonance data of the subject using a respiratory-gated 3D CINE magnetic resonance angiograpy (MRA) sequence, wherein the respiratory-gated 3D CINE MRA sequence comprises a plurality of cardiac phases; respiratory gating the acquired cardiac magnetic resonance data as a function of the acquired signal, wherein respiratory gating the acquired cardiac magnetic resonance images comprises accepting or rejecting data for each cardiac phase of the respiratory-gated 3D CINE MRA sequence. acquiring a ventilator airway pressure signal from a ventilatory support device coupled to a subject having received an intravascular contrast agent; controlling the MRI system to acquire cardiac magnetic resonance data of the subject using a respiratory-gated 3D CINE magnetic resonance angiograpy (MRA) sequence, wherein the respiratory-gated 3D CINE MRA sequence comprises a plurality of cardiac phases; respiratory gating the acquired cardiac magnetic resonance data as a function of the acquired signal, wherein respiratory gating the acquired cardiac magnetic resonance images comprises accepting or rejecting data for each cardiac phase of the respiratory-gated 3D CINE MRA sequence.