mhurhangee/patent-ind-claim-en huggingface dataset:
A bushing comprising: a single piece of metal formed into a first concave portion with a first radius on a first side of the bushing , characterized in that the first concave portion includes at least 180 degrees of curvature around a longitudinal axis and wherein both a top side and bottom side of the single piece of metal extends out from the first concave portion laterally to an opposite side of the bushing from the first side and wherein both the top side and bottom side of the single piece of metal curves back on itself to form a first convex portion and a second convex portion on the second side of the bushing above and below the first concave portion respectively and wherein the first convex portion and the second convex portion each have greater than 90 degrees of curvature and wherein both the top side and bottom side of the single piece of metal extends laterally back to the first side of the bushing in a first arc and second arc on a top side and bottom side of the bushing respectively wherein the first arc and second arc form the outer circumference of the bushing around a central axis ; and wherein as each portion of the single piece of metal extends from the first concave portion laterally across the bushing to the second side , a third concave arc and fourth concave arc extend longitudinally across the bushing and are formed around the central axis in the top side and bottom side respectively. a single piece of metal formed into a first concave portion with a first radius on a first side of the bushing , characterized in that the first concave portion includes at least 180 degrees of curvature around a longitudinal axis and wherein both a top side and bottom side of the single piece of metal extends out from the first concave portion laterally to an opposite side of the bushing from the first side and wherein both the top side and bottom side of the single piece of metal curves back on itself to form a first convex portion and a second convex portion on the second side of the bushing above and below the first concave portion respectively and wherein the first convex portion and the second convex portion each have greater than 90 degrees of curvature and wherein both the top side and bottom side of the single piece of metal extends laterally back to the first side of the bushing in a first arc and second arc on a top side and bottom side of the bushing respectively wherein the first arc and second arc form the outer circumference of the bushing around a central axis ; and wherein as each portion of the single piece of metal extends from the first concave portion laterally across the bushing to the second side , a third concave arc and fourth concave arc extend longitudinally across the bushing and are formed around the central axis in the top side and bottom side respectively.
Vegetation and support layer comprising a mixture of a natural soil material and soil wicks in the form of textile strips, wherein the soil wick for distributing water and air consists of geotextile strips which conduct both water and air and have maze-like oriented filaments and the soil wicks are arranged in the soil material in a net-like manner and at a distance from a deeper-lying water-filled container or a ground water storage reservoir.
A (meth) acrylate polymer (A) comprising structural units represented by the general formula below: wherein R 1 is a hydrogen atom or a methyl group, and R 2 is a C 10-36 alkyl group, the (meth)acrylate polymer (A) being such that in a differential molecular weight distribution curve obtained by gel permeation chromatography (GPC) measurement, as shown in Figure 1, which shows the polystyrene-equivalent molecular weight of the (meth)acrylate polymer (A) normalized so that the intensity of the peak-top polystyrene-equivalent molecular weight M (t) is 1, the value a represented by the equation below is not more than 0.12: a = LogM h t 1 / 2 − LogM t wherein M h (t 1/2 ) is the polystyrene-equivalent molecular weight at a point on a higher molecular weight side where the intensity is 0.5, wherein the GPC measurement is carried out indicated in the experimental part.
A user equipment comprising: a transmission unit configured to transmit hybrid automatic repeat request-acknowledgement, HARQ-ACK, bits in a subframe n, the n being an integer; and a reception unit configured to detect downlink control information, DCI, format 0 or 4 corresponding to a physical uplink shared channel on a serving cell, wherein a number of the HARQ-ACK bits is determined based on a W DAI UL , and wherein in a case that the user equipment is configured with more than one serving cell, frame structure types of two configured serving cells are different, and a primary cell is frame structure type 2, a value of the W DAI UL is determined by a downlink assignment index, DAI, in a subframe n-4 for a serving cell with frame structure type 1, a value of the W DAI UL is determined by the DAI in a subframe n-k, the k being an integer defined by TDD, Time Division Duplex, uplink-downlink configuration and the subframe n, for a serving cell with the frame structure type 2, the DAI is in the DCI format 0 or 4, the frame structure type 1 is applicable to FDD, Frequency Division Duplex, and the frame structure type 2 is applicable to TDD. a transmission unit configured to transmit hybrid automatic repeat request-acknowledgement, HARQ-ACK, bits in a subframe n, the n being an integer; and a reception unit configured to detect downlink control information, DCI, format 0 or 4 corresponding to a physical uplink shared channel on a serving cell, wherein a number of the HARQ-ACK bits is determined based on a W DAI UL , and wherein in a case that the user equipment is configured with more than one serving cell, frame structure types of two configured serving cells are different, and a primary cell is frame structure type 2, a value of the W DAI UL is determined by a downlink assignment index, DAI, in a subframe n-4 for a serving cell with frame structure type 1, a value of the W DAI UL is determined by the DAI in a subframe n-k, the k being an integer defined by TDD, Time Division Duplex, uplink-downlink configuration and the subframe n, for a serving cell with the frame structure type 2, the DAI is in the DCI format 0 or 4, the frame structure type 1 is applicable to FDD, Frequency Division Duplex, and the frame structure type 2 is applicable to TDD. a value of the W DAI UL is determined by a downlink assignment index, DAI, in a subframe n-4 for a serving cell with frame structure type 1, a value of the W DAI UL is determined by the DAI in a subframe n-k, the k being an integer defined by TDD, Time Division Duplex, uplink-downlink configuration and the subframe n, for a serving cell with the frame structure type 2, the DAI is in the DCI format 0 or 4, the frame structure type 1 is applicable to FDD, Frequency Division Duplex, and the frame structure type 2 is applicable to TDD.
A door leaf or door blank - with a first acoustic core layer , - with a second acoustic core layer assigned to the first acoustic core layer , - with a first chipboard ply assigned to the first acoustic core layer , - with a second chipboard ply assigned to the second acoustic core layer , - with a first softwood layer assigned to the first chipboard ply , - with a second softwood layer assigned to the second chipboard ply , - with a third chipboard ply assigned to the first softwood layer , and - with a fourth chipboard ply assigned to the second softwood layer , wherein the individual layers and plies assigned to one another are glued together. - with a first acoustic core layer , - with a second acoustic core layer assigned to the first acoustic core layer , - with a first chipboard ply assigned to the first acoustic core layer , - with a second chipboard ply assigned to the second acoustic core layer , - with a first softwood layer assigned to the first chipboard ply , - with a second softwood layer assigned to the second chipboard ply , - with a third chipboard ply assigned to the first softwood layer , and - with a fourth chipboard ply assigned to the second softwood layer ,
An annealing separator for grain-oriented electrical steel sheet, comprising: magnesia that contains 0.05 mass% or more and 0.20 mass% or less of B and 0.01 mass% or more and 0.10 mass% or less of P and is mainly composed of MgO, and titanium oxide in 1.0 part by mass or more and 10.0 parts by mass or less per 100 parts by mass of the magnesia, where the titanium oxide contains one or more types of alkali metals in a total amount of 0.0050 mass% or more and 0.50 mass% or less and is mainly composed of TiO 2 , wherein the titanium oxide is capable of adsorbing P in an amount of 1.5 × 10 -4 g or more and 1.0 × 10 -3 g or less on 1 g of the titanium oxide, and the amount of P that can be adsorbed on 1 g of the titanium oxide is measured according to the method disclosed in the description. magnesia that contains 0.05 mass% or more and 0.20 mass% or less of B and 0.01 mass% or more and 0.10 mass% or less of P and is mainly composed of MgO, and titanium oxide in 1.0 part by mass or more and 10.0 parts by mass or less per 100 parts by mass of the magnesia, where the titanium oxide contains one or more types of alkali metals in a total amount of 0.0050 mass% or more and 0.50 mass% or less and is mainly composed of TiO 2 , wherein the titanium oxide is capable of adsorbing P in an amount of 1.5 × 10 -4 g or more and 1.0 × 10 -3 g or less on 1 g of the titanium oxide, and the amount of P that can be adsorbed on 1 g of the titanium oxide is measured according to the method disclosed in the description.
A method of making an optical-fiber ribbon, comprising: ( i ) arranging a plurality of optical fibers into a longitudinal optical-fiber assembly having width w, wherein the plurality of optical fibers are parallel and respectively adjacent to each other; ( ii ) advancing the longitudinal optical-fiber assembly at linear velocity v; and ( iii ) applying bonding material to a surface of the optical-fiber assembly via a dispenser that is revolving around a central axis at a cyclical frequency r, characterized in that * the pitch v / r is 50 millimeters or greater and/or * the ratio of pitch v / r to the width w of the optical-fiber assembly is between 12 and 150. ( i ) arranging a plurality of optical fibers into a longitudinal optical-fiber assembly having width w, wherein the plurality of optical fibers are parallel and respectively adjacent to each other; ( ii ) advancing the longitudinal optical-fiber assembly at linear velocity v; and ( iii ) applying bonding material to a surface of the optical-fiber assembly via a dispenser that is revolving around a central axis at a cyclical frequency r, characterized in that * the pitch v / r is 50 millimeters or greater and/or * the ratio of pitch v / r to the width w of the optical-fiber assembly is between 12 and 150. * the pitch v / r is 50 millimeters or greater and/or * the ratio of pitch v / r to the width w of the optical-fiber assembly is between 12 and 150.
Plug-in connection for transmitting electrical signals, wherein the plug-in connection comprises the following: - a housing ; - an insulating body which is to be arranged within the housing and has a plurality of internal conductors which are insulated from one another; - wherein the insulating body comprises an insulating-body front part and an insulating-body rear part ; - wherein the insulating-body front part can be mechanically connected to an insulating-body front part of another plug-in connection ; - and the conductors on the insulating-body rear part can be electrically connected to a cable ; - wherein the conductors each form a releasable electrical connection between the insulating-body rear part and the insulating-body front part ; - wherein the housing has a contact lamella for an electrical shielding connection; characterized in that - the insulating-body front part and the insulating-body rear part each comprise an electrically conductive shielding plane which shields a first group of conductors from a second group of conductors , and shielding planes of the insulating-body front part and of the insulating-body rear part form a releasable electrical connection to one another; - wherein a plurality of shielding planes are provided on the insulating-body front part or on the insulating-body rear part and are designed to respectively shield pairs of conductors from one another. - a housing ; - an insulating body which is to be arranged within the housing and has a plurality of internal conductors which are insulated from one another; - wherein the insulating body comprises an insulating-body front part and an insulating-body rear part ; - wherein the insulating-body front part can be mechanically connected to an insulating-body front part of another plug-in connection ; - and the conductors on the insulating-body rear part can be electrically connected to a cable ; - wherein the conductors each form a releasable electrical connection between the insulating-body rear part and the insulating-body front part ; - wherein the housing has a contact lamella for an electrical shielding connection; characterized in that - the insulating-body front part and the insulating-body rear part each comprise an electrically conductive shielding plane which shields a first group of conductors from a second group of conductors , and shielding planes of the insulating-body front part and of the insulating-body rear part form a releasable electrical connection to one another; - wherein a plurality of shielding planes are provided on the insulating-body front part or on the insulating-body rear part and are designed to respectively shield pairs of conductors from one another.
A hydraulic punching apparatus comprising - a hydraulically driven punch carrier for releasably receiving a punch and - a punch die having a die opening that is adapted to the punching cross-section of the punch, the punch comprising a punching cross-section that is different from a circular cross-section, characterized in that a punch guide unit having a guide element is arranged on the punching apparatus in the region between the punch carrier and the punch die and the guide element is supported on the punching apparatus via the punch guide unit and abuts the outside of the punch at least in portions such that the punch is secured against rotation. - a hydraulically driven punch carrier for releasably receiving a punch and - a punch die having a die opening that is adapted to the punching cross-section of the punch,
A method of determining a predicted range of an electric vehicle , the method comprising determining a first current range value during a current vehicle operating cycle using a first range model, wherein the first range model is dependent on an energy consumption rate value recorded during a previous vehicle operating cycle; characterised in that determining the first current range value includes calculating a current energy gradient value as a ratio of the distance travelled during the current vehicle operating cycle and the energy consumed during the current vehicle operating cycle; and wherein determining the first current range value includes calculating the product of the energy gradient value and the instantaneous measured energy available in the energy store of the vehicle; the first current range value being equal to the product of the energy gradient value and the instantaneous measured energy available in the energy store of the vehicle. wherein the first range model is dependent on an energy consumption rate value recorded during a previous vehicle operating cycle; characterised in that determining the first current range value includes calculating a current energy gradient value as a ratio of the distance travelled during the current vehicle operating cycle and the energy consumed during the current vehicle operating cycle; and wherein determining the first current range value includes calculating the product of the energy gradient value and the instantaneous measured energy available in the energy store of the vehicle; the first current range value being equal to the product of the energy gradient value and the instantaneous measured energy available in the energy store of the vehicle.
Container made of plastics material obtained by blow moulding or stretch blow moulding from a blank, this container comprising a body , a neck which extends at an upper end of the body and a petaloid base which extends at a lower end of the body , this petaloid base being provided with protruding feet that are separated by recessed valleys which extend radially from a central zone of the base , each foot having an external wall which extends in the extension of the body and two flanks which each border a valley and which are each connected to the external wall by a fillet , characterized in that each foot is provided with at least one rib , of which a lateral portion straddles said fillet .
A dental curable composition comprising: a curable resin (A), 20 to 99% by weight of a porous inorganic filler (B), based on the total weight of the dental curable composition, and a polymerization initiator (C), wherein the porous inorganic filler (B) comprises a silicon dioxide and an oxide comprising at least one kind of the other metallic elements, and has a spherical-shape, a mean particle size of 0.1 to 10 μm, a pore volume of 0.01 to 1.00 cc/g as measured by a gas adsorption method, and a specific surface area of 5 to 500 m 2 /g, wherein the oxide comprising at least one kind of the other metallic elements contained in the porous inorganic filler is contained at 1 to 30 wt% in terms of the oxide, and a ratio (I 1 /I 2 ) of a maximum absorbance (I 1 ) of 3730 to 3750 cm -1 to a maximum absorbance (I 2 ) of 3000 to 3600 cm -1 in infrared absorption spectrum of the porous inorganic filler (B), is not less than 1 and not more than 3. a curable resin (A), 20 to 99% by weight of a porous inorganic filler (B), based on the total weight of the dental curable composition, and a polymerization initiator (C), wherein the porous inorganic filler (B) comprises a silicon dioxide and an oxide comprising at least one kind of the other metallic elements, and has a spherical-shape, a mean particle size of 0.1 to 10 μm, a pore volume of 0.01 to 1.00 cc/g as measured by a gas adsorption method, and a specific surface area of 5 to 500 m 2 /g, wherein the oxide comprising at least one kind of the other metallic elements contained in the porous inorganic filler is contained at 1 to 30 wt% in terms of the oxide, and a ratio (I 1 /I 2 ) of a maximum absorbance (I 1 ) of 3730 to 3750 cm -1 to a maximum absorbance (I 2 ) of 3000 to 3600 cm -1 in infrared absorption spectrum of the porous inorganic filler (B), is not less than 1 and not more than 3.
A synthetic resin bearing as a journal bearing fixed to an orbiting scroll or a main frame and relatively rotated with respect to a rotational shaft in a scroll compressor , characterized in that the journal bearing is made of a PEEK material having a thermal conductivity of 0.5 W/mK to 1.8 W/mK, and a thickness t of the journal bearing is smaller than a thickness t1, and the thickness t1 is 2 mm.
A manipulator for manipulating a charged particle beam in a projection system, the manipulator comprising: a substrate having opposing major surfaces in each of which is defined an aperture and a through-passage for the charged particle beam, the through passage having an interconnecting surface extending between the apertures ; wherein the interconnecting surface comprises one or more electrodes ; the manipulator further comprising a potential divider comprising two or more resistive elements (432a-d) connected in series, the potential divider comprising an intermediate node (434b-d) between each pair of adjacent resistive elements; wherein the intermediate node is electrically connected to at least one of the one or more electrodes, characterised in that at least one resistive element is formed within the substrate so as to extend between the opposing major surfaces. a substrate having opposing major surfaces in each of which is defined an aperture and a through-passage for the charged particle beam, the through passage having an interconnecting surface extending between the apertures ; wherein the interconnecting surface comprises one or more electrodes ; the manipulator further comprising a potential divider comprising two or more resistive elements (432a-d) connected in series, the potential divider comprising an intermediate node (434b-d) between each pair of adjacent resistive elements; wherein the intermediate node is electrically connected to at least one of the one or more electrodes, characterised in that at least one resistive element is formed within the substrate so as to extend between the opposing major surfaces.
A bone growth device comprising: an implant body ; an actuator coupled to the implant body ; a sensor disposed on the implant body and configured to detect a measurable parameter indicative of a biological condition; a transceiver configured to transmit data associated with the measureable parameter to an external remote control and receive instructions from the external remote control ; a memory ; and a controller coupled to the memory and configured to adaptively adjust the actuator in response to information stored in the memory and the instructions received from the external remote control , wherein the actuator adjusts the implant body . an implant body ; an actuator coupled to the implant body ; a sensor disposed on the implant body and configured to detect a measurable parameter indicative of a biological condition; a transceiver configured to transmit data associated with the measureable parameter to an external remote control and receive instructions from the external remote control ; a memory ; and a controller coupled to the memory and configured to adaptively adjust the actuator in response to information stored in the memory and the instructions received from the external remote control , wherein the actuator adjusts the implant body .
A method of mounting a trailer skirt to a trailer , comprising: attaching a trailer skirt to a trailer , the trailer skirt configured to pivot in a longitudinal direction of the trailer skirt , attaching a skirt-supporting member to the trailer in a cantilevered configuration, where in the cantilevered configuration the skirt-supporting member is configured to pivot in a longitudinal direction of the trailer , operably coupling the trailer skirt to the skirt-supporting member , where the step of attaching the skirt-supporting member to the trailer in a cantilevered configuration is achieved by attaching a trailer mounting bracket to the trailer , the skirt-supporting member being pivotally attached to the trailer mounting bracket , characterized in that the step of attaching the skirt-supporting member to the trailer mounting bracket is achieved by arranging the skirt-supporting member within an orifice within the trailer mounting bracket , where a pin is arranged to extend through both the skirt-supporting member and the trailer mounting bracket to provide a pivotable attachment. attaching a trailer skirt to a trailer , the trailer skirt configured to pivot in a longitudinal direction of the trailer skirt , attaching a skirt-supporting member to the trailer in a cantilevered configuration, where in the cantilevered configuration the skirt-supporting member is configured to pivot in a longitudinal direction of the trailer , operably coupling the trailer skirt to the skirt-supporting member , where the step of attaching the skirt-supporting member to the trailer in a cantilevered configuration is achieved by attaching a trailer mounting bracket to the trailer , the skirt-supporting member being pivotally attached to the trailer mounting bracket , characterized in that the step of attaching the skirt-supporting member to the trailer mounting bracket is achieved by arranging the skirt-supporting member within an orifice within the trailer mounting bracket , where a pin is arranged to extend through both the skirt-supporting member and the trailer mounting bracket to provide a pivotable attachment.