mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-frequency antenna transmission, comprising: a drive gear ; a gear train with parallel gear shafts, comprising several transmission gears driven to rotate by the drive gear ; screw assemblies each arranged corresponding to a respective transmission gear , wherein each of the screw assemblies comprises a lead screw , a connection member selectively connected to or separated from the lead screw , a stopper connected with the corresponding transmission gear , and a first elastic member disposed between the connection member and the stopper ; and a shifter , configured to push one of the stoppers , wherein the multi-frequency antenna transmission is configured such that, when said one of the stoppers is pushed by said shifter , the corresponding first elastic member is compressed between said stopper and its corresponding connection member , and said connection member is connected to its corresponding lead screw . a drive gear ; a gear train with parallel gear shafts, comprising several transmission gears driven to rotate by the drive gear ; screw assemblies each arranged corresponding to a respective transmission gear , wherein each of the screw assemblies comprises a lead screw , a connection member selectively connected to or separated from the lead screw , a stopper connected with the corresponding transmission gear , and a first elastic member disposed between the connection member and the stopper ; and a shifter , configured to push one of the stoppers , wherein the multi-frequency antenna transmission is configured such that, when said one of the stoppers is pushed by said shifter , the corresponding first elastic member is compressed between said stopper and its corresponding connection member , and said connection member is connected to its corresponding lead screw .
A method of determining low or high risk of recurrence (ROR) in a subject having breast cancer comprising: determining the size of the breast cancer tumor from the subject; determining a correlation value of a breast cancer tumor for each of at least four intrinsic subtypes including a Basal-like, Luminal A, Luminal B, or HER-2 enriched, by measuring the RNA expression of at least 40 of the genes in the NANO46 intrinsic gene list of Table 1; determining a proliferation score by measuring the RNA expression of each of the 18-gene subset of the NANO46 intrinsic genes selected from ANLN, CCNE1, CDC20, CDC6, CDCA1, CENPF, CEP55, EXO1, KIF2C, KNTC2, MELK, MKI67, ORC6L, PTTG1, RRM2, TYMS, UBE2C, and UBE2T; calculating a risk of recurrence (ROR) score using the following equation: ROR-PT = - 0.0067 ∗ Basal + 0.4317 ∗ Her2 + -0.3172 ∗ LumA + 0.4894 ∗ LumB + 0.1981 ∗ ProliferationScore + 0.1133 ∗ TumorSize; wherein the risk of recurrence score is an integer value on a 0-100 scale, wherein the level of RNA expression for at least 40 of the genes in the NANO46 intrinsic gene list of Table 1 is set forth in Table 3; thereby determining whether the subject has a low or high risk of recurrence based on the risk of recurrence (ROR) score and interpretation of the ROR score using the risk classification by risk of recurrence (ROR) range and nodal status. determining the size of the breast cancer tumor from the subject; determining a correlation value of a breast cancer tumor for each of at least four intrinsic subtypes including a Basal-like, Luminal A, Luminal B, or HER-2 enriched, by measuring the RNA expression of at least 40 of the genes in the NANO46 intrinsic gene list of Table 1; determining a proliferation score by measuring the RNA expression of each of the 18-gene subset of the NANO46 intrinsic genes selected from ANLN, CCNE1, CDC20, CDC6, CDCA1, CENPF, CEP55, EXO1, KIF2C, KNTC2, MELK, MKI67, ORC6L, PTTG1, RRM2, TYMS, UBE2C, and UBE2T; calculating a risk of recurrence (ROR) score using the following equation: ROR-PT = - 0.0067 ∗ Basal + 0.4317 ∗ Her2 + -0.3172 ∗ LumA + 0.4894 ∗ LumB + 0.1981 ∗ ProliferationScore + 0.1133 ∗ TumorSize; wherein the risk of recurrence score is an integer value on a 0-100 scale, wherein the level of RNA expression for at least 40 of the genes in the NANO46 intrinsic gene list of Table 1 is set forth in Table 3; thereby determining whether the subject has a low or high risk of recurrence based on the risk of recurrence (ROR) score and interpretation of the ROR score using the risk classification by risk of recurrence (ROR) range and nodal status.
A chloroprene-unsaturated nitrile copolymer composition comprising 100 parts by mass of a chloroprene-unsaturated nitrile copolymer comprising 3 to 20% by mass of a structural unit derived from an unsaturated nitrile monomer; and 0.05 to 2.0 parts by mass of a xanthogen compound.
User equipment , comprising: a transceiver module , configured to receive configuration information, wherein the configuration information is used to configure at least one physical resource block, PRB, bundling size; and a processing module , configured to determine a precoding resource block group, PRG, size based on a preset indication rule and the at least one PRB bundling size, wherein the at least one PRB bundling size comprises a plurality of PRB bundling sizes, and the PRG size is a PRB bundling size that is in the plurality of PRB bundling sizes, wherein the preset indication rule is one of the following rules: a rule 1: a maximum value of the plurality of PRB bundling sizes is used as the PRG size; a rule 2: a minimum value of the plurality of PRB bundling sizes is used as the PRG size; and a rule 3: in the plurality of PRB bundling sizes, a PRB bundling size whose arrangement location is a preset location is used as the PRG size, wherein the arrangement location is a location in a sequentially arranged list of bundling sizes. a transceiver module , configured to receive configuration information, wherein the configuration information is used to configure at least one physical resource block, PRB, bundling size; and a processing module , configured to determine a precoding resource block group, PRG, size based on a preset indication rule and the at least one PRB bundling size, wherein the at least one PRB bundling size comprises a plurality of PRB bundling sizes, and the PRG size is a PRB bundling size that is in the plurality of PRB bundling sizes, wherein the preset indication rule is one of the following rules: a rule 1: a maximum value of the plurality of PRB bundling sizes is used as the PRG size; a rule 2: a minimum value of the plurality of PRB bundling sizes is used as the PRG size; and a rule 3: in the plurality of PRB bundling sizes, a PRB bundling size whose arrangement location is a preset location is used as the PRG size, wherein the arrangement location is a location in a sequentially arranged list of bundling sizes. a rule 1: a maximum value of the plurality of PRB bundling sizes is used as the PRG size; a rule 2: a minimum value of the plurality of PRB bundling sizes is used as the PRG size; and a rule 3: in the plurality of PRB bundling sizes, a PRB bundling size whose arrangement location is a preset location is used as the PRG size, wherein the arrangement location is a location in a sequentially arranged list of bundling sizes.
An improved method for caching image data intended for use with a head-mounted, augmented, mixed or virtual reality display system, HMD, having a graphics processing unit, GPU, , a holographic processing unit, HPU, with an on-chip cache , system memory , and a display , the GPU generating images that can include text, holographic objects and other visual elements that can be displayed on the display , the system memory for storing GPU images , and the HPU configured to perform late stage adjustments to correct GPU images for movement of the HMD that may occur during the image rendering process, and the on-chip cache for constructing an output image based on the GPU generated image and the late stage adjustments, and the HPU generating a late stage adjustment matrix that maps each pixel of the late stage adjusted output image to the corresponding pixel of the GPU image , the method comprising acts for: performing an initial pre-fetch of one or more rows of the GPU image from system memory , the one or more rows being selected in the order needed to construct the output image ; writing the initially pre-fetched one or more rows of the GPU image into the on-chip cache in the order needed to construct the output image based on the late stage adjustment matrix; and producing a walk of the image data from the initially pre-fetched one or more rows of the GPU image in the on-chip cache to construct the output image in a raster scan order and according to the adjustment matrix and outputting the output image . performing an initial pre-fetch of one or more rows of the GPU image from system memory , the one or more rows being selected in the order needed to construct the output image ; writing the initially pre-fetched one or more rows of the GPU image into the on-chip cache in the order needed to construct the output image based on the late stage adjustment matrix; and producing a walk of the image data from the initially pre-fetched one or more rows of the GPU image in the on-chip cache to construct the output image in a raster scan order and according to the adjustment matrix and outputting the output image .
A mulch composition having a total porosity of 88 volume % or more; characterized in that it comprises: about 5 to 95 weight % of fibers of tree bark , based on the total weight of the mulch composition , and about 5 to 95 weight % of fibers of wood components , based on the total weight of the mulch composition , and at least one binder and/or a non-permanent dye; wherein the size of the fibers in the mulch composition ranges at least from 0,149 mm to 2,38 mm; wherein 62.3 weight % to 79.5 weight % of the fibrous tree bark and the fibrous wood components have a particle size less than 2,38 mm and greater than 0,149 mm. about 5 to 95 weight % of fibers of tree bark , based on the total weight of the mulch composition , and about 5 to 95 weight % of fibers of wood components , based on the total weight of the mulch composition , and at least one binder and/or a non-permanent dye; wherein the size of the fibers in the mulch composition ranges at least from 0,149 mm to 2,38 mm; wherein 62.3 weight % to 79.5 weight % of the fibrous tree bark and the fibrous wood components have a particle size less than 2,38 mm and greater than 0,149 mm.
A removable delivery sheath comprising: a radially expandable tubular sheath surrounding at least a portion of an expandable medical device , and an activation line comprising a first portion attached to a first sheath segment and a second portion attached to a second sheath segment ; wherein by applying tension to the activation line ; the sheath is split to form the first and second sheath segments and the first sheath segment is peeled back and removed from surrounding a portion of the expandable medical device prior to the second sheath segment being peeled back and removed from surrounding a portion of the expandable medical device . a radially expandable tubular sheath surrounding at least a portion of an expandable medical device , and an activation line comprising a first portion attached to a first sheath segment and a second portion attached to a second sheath segment ; wherein by applying tension to the activation line ; the sheath is split to form the first and second sheath segments and the first sheath segment is peeled back and removed from surrounding a portion of the expandable medical device prior to the second sheath segment being peeled back and removed from surrounding a portion of the expandable medical device .
Method for producing a piston for an internal combustion engine having a piston base body and a piston ring part , wherein the piston base body has a combustion cavity having a dome and piston hubs furnished with hub bores , which piston hubs are connected with one another via bearing surfaces , wherein the piston ring part has a piston head , a surrounding top land and a surrounding ring part , and wherein the piston base body and the piston ring part form a surrounding cooling duct , having the following method steps: a) producing a blank of the piston base body by means of a forming method, wherein the contour of the combustion cavity is complete, b) producing a blank of the piston ring part by means of a forming method or a casting process, c) pre-processing the blanks by finishing welding surfaces (26, 28; 27, 29); d) connecting the pre-processed blanks (11", 17") of piston base body and piston ring part to form a piston body by means of a welding method, e) post-processing and/or finishing the piston body to form a finished piston , characterised in that in step e) the hub bores are introduced into the piston hubs , after the piston head is finished. a) producing a blank of the piston base body by means of a forming method, wherein the contour of the combustion cavity is complete, b) producing a blank of the piston ring part by means of a forming method or a casting process, c) pre-processing the blanks by finishing welding surfaces (26, 28; 27, 29); d) connecting the pre-processed blanks (11", 17") of piston base body and piston ring part to form a piston body by means of a welding method, e) post-processing and/or finishing the piston body to form a finished piston ,
A fluid medium dispensing system comprising: a container for storing a fluid medium under pressure, the container comprising a neck defining an opening ; a valve ; and a valve cup adapted to support the valve and close the opening of the container , contiguous portions of the valve cup and the neck being comprised of plastics materials, wherein the valve cup comprises an inner part that is inserted in the neck by pressing and located in the opening of the container and wherein the valve cup is an interference fit in the neck of the container with contact between said plastics materials of the valve cup and of the neck around a whole periphery of the inner part of the valve cup and wherein an outer diameter of the inner part of the valve cup prior to pressing of the valve cup into the opening of the container is between 0.05 mm and 0.15 mm inclusive greater than the inner diameter of the opening in order to create the interference fit and wherein said plastics materials of the valve cup and the neck have been fused to form a molten weld seam by laser welding thereby sealing the container . a container for storing a fluid medium under pressure, the container comprising a neck defining an opening ; a valve ; and a valve cup adapted to support the valve and close the opening of the container , contiguous portions of the valve cup and the neck being comprised of plastics materials, wherein the valve cup comprises an inner part that is inserted in the neck by pressing and located in the opening of the container and wherein the valve cup is an interference fit in the neck of the container with contact between said plastics materials of the valve cup and of the neck around a whole periphery of the inner part of the valve cup and wherein an outer diameter of the inner part of the valve cup prior to pressing of the valve cup into the opening of the container is between 0.05 mm and 0.15 mm inclusive greater than the inner diameter of the opening in order to create the interference fit and wherein said plastics materials of the valve cup and the neck have been fused to form a molten weld seam by laser welding thereby sealing the container .
Competitive method for quantitatively determining a therapeutic TNF-alpha inhibitor in a sample, the method comprising the steps of: a) providing a reaction mixture by contacting the sample i. with isolated, free TNF-alpha protein and then ii. with a particulate solid phase associated with a first TNF-alpha binding partner; b) measuring the agglutination of the particulate solid phase in the reaction mixture to determine the amount of a complex which forms in the reaction mixture and is composed of TNF-alpha protein and the first TNF-alpha binding partner; and c) determining the amount of the therapeutic TNF-alpha inhibitor in the sample by comparing the thusly determined amount of the complex composed of TNF-alpha protein and the first TNF-alpha binding partner in the reaction mixture with amounts of a complex composed of TNF-alpha protein and the first TNF-alpha binding partner in reaction mixtures containing samples having known concentrations of a TNF-alpha binding partner. a) providing a reaction mixture by contacting the sample i. with isolated, free TNF-alpha protein and then ii. with a particulate solid phase associated with a first TNF-alpha binding partner; i. with isolated, free TNF-alpha protein and then ii. with a particulate solid phase associated with a first TNF-alpha binding partner; b) measuring the agglutination of the particulate solid phase in the reaction mixture to determine the amount of a complex which forms in the reaction mixture and is composed of TNF-alpha protein and the first TNF-alpha binding partner; and c) determining the amount of the therapeutic TNF-alpha inhibitor in the sample by comparing the thusly determined amount of the complex composed of TNF-alpha protein and the first TNF-alpha binding partner in the reaction mixture with amounts of a complex composed of TNF-alpha protein and the first TNF-alpha binding partner in reaction mixtures containing samples having known concentrations of a TNF-alpha binding partner.
A projectile for a precision shooting air gun, the projectile being formed of a composition which consists of a load in powder whose particles are bound by a binder, the powder representing from 82% to 99% of the volume of material used to manufacture the projectile, the binder being manufactured from at least one polymer, and each of the powder particles being included within a sphere with a diameter smaller than or equal to 7 microns.
A parametric amplifier for amplifying an input signal, including: a resonator comprising a Josephson junction ; wherein the Josephson junction comprises a first superconductor component , a second superconductor component , and a semiconductor component , the semiconductor component being configured to enable coupling of the first and second superconductor components ; and wherein the parametric amplifier further comprises a gate electrode configured to apply an electrostatic field to the semiconductor component for tuning and pumping the parametric amplifier. a resonator comprising a Josephson junction ; wherein the Josephson junction comprises a first superconductor component , a second superconductor component , and a semiconductor component , the semiconductor component being configured to enable coupling of the first and second superconductor components ; and wherein the parametric amplifier further comprises a gate electrode configured to apply an electrostatic field to the semiconductor component for tuning and pumping the parametric amplifier.
A headset comprising at least one headband and at least one earpiece , the at least one headband comprising a headband structure , wherein the headband structure is divided in - at least one soft, flexible section and at least one stiff, non-flexible section , - at least one sliding spring element , - at least one handle element attached to the at least one sliding spring element, - at least one guiding element configured to guide a relative movement between the headband structure and the at least one sliding spring element , wherein the at least one sliding spring element and the at least one guiding element are located within the headband structure and are fully concealed by the headband structure , and the at least one sliding spring element is configured to be guided by the headband structure as well as the at least one guiding element and can be moved into the at least one flexible section and out of the at least one flexible section to thus selectively increase and decrease a stiffness of the at least one flexible section so that a contact pressure of the headset can be adjusted. - at least one soft, flexible section and at least one stiff, non-flexible section , - at least one sliding spring element , - at least one handle element attached to the at least one sliding spring element, - at least one guiding element configured to guide a relative movement between the headband structure and the at least one sliding spring element ,
Rail-bound maglev train, comprising a) a guide rail, which gives onto a guideway track, with at least one superconducting element and b) a maglev vehicle arranged on the guide rail with magnetic means , wherein the magnetic means are in contactless magnetic reciprocal effect with the guideway track, wherein c) the at least one superconducting element comprises at least one superconducting conductor parallel to the guideway track , characterised in that d) the at least one superconducting conductor is configured as a continuous superconducting electrical conducting element, wherein the at least one superconducting conductor is a superconducting band, wherein the at least one superconducting conductor comprises at least two electrical connections which delimit a band section arranged between them as a continuous superconducting electrical conductor, and wherein the at least two connections in each case are positioned at the at least one superconducting conductor at the two conductor ends. a) a guide rail, which gives onto a guideway track, with at least one superconducting element and b) a maglev vehicle arranged on the guide rail with magnetic means , wherein the magnetic means are in contactless magnetic reciprocal effect with the guideway track, wherein c) the at least one superconducting element comprises at least one superconducting conductor parallel to the guideway track , characterised in that d) the at least one superconducting conductor is configured as a continuous superconducting electrical conducting element,
A thermosetting resin composition comprising: a lignin derived from a lignocellulose; a lignocellulose fiber derived from the lignocellulose; and a thermosetting resin, wherein the lignin and the lignocellulose fiber are dispersed in the thermosetting resin. wherein a content of the lignocellulose fiber is 1 to 20% by mass, and wherein a content of the lignin is 0.1 to 15% by mass. wherein the lignin and the lignocellulose fiber are dispersed in the thermosetting resin. wherein a content of the lignocellulose fiber is 1 to 20% by mass, and wherein a content of the lignin is 0.1 to 15% by mass.
A display device, comprising: a display panel (DP); a polarization film (POL) disposed on the display panel (DP); a first hole (H) having a circular shape which passes through the display panel (DP); a first groove (G1) in the display panel (DP) around the first hole (H) and having a ring-shape; characterized in that the first hole (H) passes through the polarization film (POL); a reflective layer (RL) is disposed on the polarization film (POL); the reflective layer (RL) is disposed in a ring shape around the first hole (H) and comprises a width extending between the first hole (H) and the first groove (G1). a display panel (DP); a polarization film (POL) disposed on the display panel (DP); a first hole (H) having a circular shape which passes through the display panel (DP); a first groove (G1) in the display panel (DP) around the first hole (H) and having a ring-shape; characterized in that the first hole (H) passes through the polarization film (POL); a reflective layer (RL) is disposed on the polarization film (POL); the reflective layer (RL) is disposed in a ring shape around the first hole (H) and comprises a width extending between the first hole (H) and the first groove (G1).