mhurhangee/patent-ind-claim-en huggingface dataset:
A bone plate alignment guide apparatus , comprising: a body , the body comprising: an arm with a first end and a second end; an attachment portion at the first end, the attachment portion comprising a through hole ; and an alignment portion at the second end, the alignment portion comprising at least one through hole ; wherein the arm is a curved shape; a fixation insert configured to pass through the through hole of the attachment portion and couple to at least one opening of a bone plate , wherein the fixation insert includes a threaded section or an engagement portion for engaging the at least one opening of the bone plate ; a guide pin configured to pass through the at least one through hole of the alignment portion ; and a screw configured to engage the guide pin , wherein the arm is configured to position the through hole of the attachment portion generally perpendicular to the at least one through hole of the alignment portion , and wherein insertion of the guide pin through the at least one through hole of the alignment portion positions the guide pin inferior to the fixation insert when the arm is positioned superior to the alignment portion . a body , the body comprising: an arm with a first end and a second end; an attachment portion at the first end, the attachment portion comprising a through hole ; and an alignment portion at the second end, the alignment portion comprising at least one through hole ; wherein the arm is a curved shape; an arm with a first end and a second end; an attachment portion at the first end, the attachment portion comprising a through hole ; and an alignment portion at the second end, the alignment portion comprising at least one through hole ; wherein the arm is a curved shape; a fixation insert configured to pass through the through hole of the attachment portion and couple to at least one opening of a bone plate , wherein the fixation insert includes a threaded section or an engagement portion for engaging the at least one opening of the bone plate ; a guide pin configured to pass through the at least one through hole of the alignment portion ; and a screw configured to engage the guide pin , wherein the arm is configured to position the through hole of the attachment portion generally perpendicular to the at least one through hole of the alignment portion , and wherein insertion of the guide pin through the at least one through hole of the alignment portion positions the guide pin inferior to the fixation insert when the arm is positioned superior to the alignment portion .
A self-moving robot comprises a robot body , a control device is provided in the robot body , a functional processing module and a moving module connected with each other are provided on the robot body , and the moving module is controlled by the control device to drive the functional processing module to conduct mobile processing work in a working space, wherein an opening hole is formed inside the functional processing module so that the moving module is arranged rotatably in the opening hole in an embedded manner, and the moving module can freely rotates relative to the functional processing module through a connection mechanism, whereby the moving module is provided with a walking mechanism , characterized in that rotation of the moving module is driven by the walking mechanism.
An impact protection arrangement for persons for shielding obstacles , such as mast, snow cannon lance, tree, etc., in the area of sports-runs, in particular ski, sled, bicycle, comprising: a protective unit , which at least partially surrounds the obstacle and extends along a longitudinal axis of the obstacle and which can be rotatably mounted on the obstacle , the protective unit having an inner fastening region and an impact sleeve which surrounds the inner fastening region and which is resiliently connected to the fastening region via a support arrangement at a radial distance from the fastening region, wherein the support arrangement comprises a plurality of flexible deformable support elements which are arranged and formed between the impact sleeve and fastening region in such a way that the impact sleeve rotates about the fastening region in the event of an impact in such a way that an impacting person is displaced from a front region into a flank region of the impact protection arrangement . a protective unit , which at least partially surrounds the obstacle and extends along a longitudinal axis of the obstacle and which can be rotatably mounted on the obstacle , the protective unit having an inner fastening region and an impact sleeve which surrounds the inner fastening region and which is resiliently connected to the fastening region via a support arrangement at a radial distance from the fastening region, wherein the support arrangement comprises a plurality of flexible deformable support elements which are arranged and formed between the impact sleeve and fastening region in such a way that the impact sleeve rotates about the fastening region in the event of an impact in such a way that an impacting person is displaced from a front region into a flank region of the impact protection arrangement .
A method for generating a software module, the method comprising the steps of: providing an entity block to be included to the software module, the entity block providing an executable piece of software, generating a fingerprint of the entity block using a hash function, wherein the fingerprint allows the verification of the integrity of the entity block, encrypting the fingerprint using the private key of a public key pair, to thereby generate a digital signature of the entity block, combining the entity block and the encrypted fingerprint to form an integrity protected entity block, and encrypting a random secret key using the private key of a public key pair, and characterized by encrypting the integrity protected entity block using the random secret key to thereby form an encrypted and integrity protected entity block, and generating the software module by combining the encrypted and integrity protected entity block, and the encrypted random secret key. providing an entity block to be included to the software module, the entity block providing an executable piece of software, generating a fingerprint of the entity block using a hash function, wherein the fingerprint allows the verification of the integrity of the entity block, encrypting the fingerprint using the private key of a public key pair, to thereby generate a digital signature of the entity block, combining the entity block and the encrypted fingerprint to form an integrity protected entity block, and encrypting a random secret key using the private key of a public key pair, and characterized by encrypting the integrity protected entity block using the random secret key to thereby form an encrypted and integrity protected entity block, and generating the software module by combining the encrypted and integrity protected entity block, and the encrypted random secret key.
A level-'n' cache method, comprising: in response to a data access request identifying an address of a data block to be accessed, interrogating (S20) an address cache of the level-'n' cache arranged to store address portions (Ton) for a sub-set of data blocks stored in a main cache of the level-'n' cache to determine whether a cache hit occurs within said address cache for said address, wherein each entry in said address cache and said main cache has an owner indication which indicates an owner for that entry and comprising setting said owner indication when said data access request is an exclusive read.
A method for the automated, in-line measurement of the differentiated surface cleanliness, in terms of carbon, of a continuously-moving metal sheet or strip , having a level of surface carbon pollution lower than 100 mg/m 2 , preferably lower than 50 mg/m 2 , characterized by the following steps: - a radiation beam is generated using a source ; - the radiation beam is focused using the focusing device such that the energy density deposited on the metal strip or sheet is sufficient to create a plasma and generate CN radicals in the plasma if the latter contains carbon and nitrogen; - a nitrogen atmosphere is created around the plasma using a sweeping system with a flow rate that can prevent any presence of oxygen from the air in the plasma; - the light emitted by the plasma is analyzed using an optical collection device and is redirected toward a spectrometer or any other means for separating wavelengths of the emitted light ; - the intensity of an intense vibration line of the CN radical is measured and is related to that of a vibration line of the nitrogen, in order to compensate for the fluctuations linked to the radiation beam and to the radiation - material interactions, the intense vibration line of the CN radical being the vibration line at 388.25 nm and the vibration line of the nitrogen being the vibration line at 500.51 nm, and - the obtained ratio is used to characterize the surface cleanliness of the metal strip or sheet , in terms of carbon pollution. - a radiation beam is generated using a source ; - the radiation beam is focused using the focusing device such that the energy density deposited on the metal strip or sheet is sufficient to create a plasma and generate CN radicals in the plasma if the latter contains carbon and nitrogen; - a nitrogen atmosphere is created around the plasma using a sweeping system with a flow rate that can prevent any presence of oxygen from the air in the plasma; - the light emitted by the plasma is analyzed using an optical collection device and is redirected toward a spectrometer or any other means for separating wavelengths of the emitted light ; - the intensity of an intense vibration line of the CN radical is measured and is related to that of a vibration line of the nitrogen, in order to compensate for the fluctuations linked to the radiation beam and to the radiation - material interactions, the intense vibration line of the CN radical being the vibration line at 388.25 nm and the vibration line of the nitrogen being the vibration line at 500.51 nm, and - the obtained ratio is used to characterize the surface cleanliness of the metal strip or sheet , in terms of carbon pollution.
An adhesive composition for an electrical storage device comprising a polymer A, a polymer B, and a solvent, wherein the polymer A includes a nitrile group-containing monomer unit and an alicyclic (meth)acrylic acid ester monomer unit, the polymer A includes the alicyclic (meth)acrylic acid ester monomer unit in a proportion of not less than 50.0 mass% and not more than 90.0 mass% the polymer B is either of an acrylic polymer including an alicyclic (meth)acrylic acid ester monomer unit in a proportion of not less than 3.0 mass% and not more than 30.0 mass% and a styrene-butadiene copolymer, a value obtained by dividing a volume-average particle diameter of the polymer A by a volume-average particle diameter of the polymer B is not less than 1.2 and not more than 10.0, and the volume-average particle diameters are measured by the method described in the examples section of the description. the polymer A includes a nitrile group-containing monomer unit and an alicyclic (meth)acrylic acid ester monomer unit, the polymer A includes the alicyclic (meth)acrylic acid ester monomer unit in a proportion of not less than 50.0 mass% and not more than 90.0 mass% the polymer B is either of an acrylic polymer including an alicyclic (meth)acrylic acid ester monomer unit in a proportion of not less than 3.0 mass% and not more than 30.0 mass% and a styrene-butadiene copolymer, a value obtained by dividing a volume-average particle diameter of the polymer A by a volume-average particle diameter of the polymer B is not less than 1.2 and not more than 10.0, and the volume-average particle diameters are measured by the method described in the examples section of the description.
A method for operating a wind turbine so as to increase power production, the method comprising: defining a first operating region associated with an unsaturated torque range; defining a second operating region associated with a saturated torque range determining an initial tip-speed-ratio set point for the wind turbine ; monitoring a torque output of the wind turbine ; and continuously adjusting the tip-speed-ratio set point of the wind turbine based on the torque output in a variable wind speed region of a power curve of the wind turbine so as to operate the wind turbine along a torque constraint boundary of the first and second operating regions , wherein continuously adjusting the tip-speed-ratio set point of the wind turbine comprises decreasing the tip-speed-ratio set point when the torque output of the wind turbine is within the first operating region . defining a first operating region associated with an unsaturated torque range; defining a second operating region associated with a saturated torque range determining an initial tip-speed-ratio set point for the wind turbine ; monitoring a torque output of the wind turbine ; and continuously adjusting the tip-speed-ratio set point of the wind turbine based on the torque output in a variable wind speed region of a power curve of the wind turbine so as to operate the wind turbine along a torque constraint boundary of the first and second operating regions , wherein continuously adjusting the tip-speed-ratio set point of the wind turbine comprises decreasing the tip-speed-ratio set point when the torque output of the wind turbine is within the first operating region .
An aerosol-generating device comprising a heating element module including: an elongate heating element having a heating portion ; a heating element mount , wherein the heating element extends substantially perpendicularly from a first surface of the heating element mount; characterised in that first and second projections extend substantially perpendicularly from the first surface of the heating element mount and abutt first and second sides of the heating element . an elongate heating element having a heating portion ; a heating element mount , wherein the heating element extends substantially perpendicularly from a first surface of the heating element mount; characterised in that first and second projections extend substantially perpendicularly from the first surface of the heating element mount and abutt first and second sides of the heating element .
A permanent magnet speed governor having fixed magnetic gap, comprising: an inner magnetic rotor connected to a driven shaft , an outer magnetic rotor connected to a drive shaft , the inner magnetic rotor radially facing the outer magnetic rotor with the fixed magnetic gap therebetween, inner permanent magnets being evenly distributed along the circumferentia direction of the outer circumferential surface of the said inner magnetic rotor , outer permanent magnets being evenly distributed along the circumferentia direction of the inner circumferential surface of the said outer magnetic rotor , the inner permanent magnets having 4 sides perpendicular to the end face of inner magnetic rotor , two magnetic pole sides of the inner permanent magnet being respectively fixed to an iron yoke , another two sides each being provided with a magnetically conductive body , the inner permanent magnets and the magnetically conductive bodies are placed between the two iron yokes , such that a closed magnetic circuit surrounding the inner permanent magnets is formed around the inner permanent magnets , one axial end of the inner magnetic rotor being provided with a magnetic circuit regulator used for moving each magnetically conductive body along the axial direction in order to realize the change in the interaction force between the inner magnetic rotor and the outer magnetic rotor and consequently realize the speed adjustment process. an inner magnetic rotor connected to a driven shaft , an outer magnetic rotor connected to a drive shaft , the inner magnetic rotor radially facing the outer magnetic rotor with the fixed magnetic gap therebetween, inner permanent magnets being evenly distributed along the circumferentia direction of the outer circumferential surface of the said inner magnetic rotor , outer permanent magnets being evenly distributed along the circumferentia direction of the inner circumferential surface of the said outer magnetic rotor , the inner permanent magnets having 4 sides perpendicular to the end face of inner magnetic rotor , two magnetic pole sides of the inner permanent magnet being respectively fixed to an iron yoke , another two sides each being provided with a magnetically conductive body , the inner permanent magnets and the magnetically conductive bodies are placed between the two iron yokes , such that a closed magnetic circuit surrounding the inner permanent magnets is formed around the inner permanent magnets , one axial end of the inner magnetic rotor being provided with a magnetic circuit regulator used for moving each magnetically conductive body along the axial direction in order to realize the change in the interaction force between the inner magnetic rotor and the outer magnetic rotor and consequently realize the speed adjustment process.
A fastener system for coupling a part to a composite structure , the fastener system comprising: a receptacle configured to be embedded at least partially within the composite structure , wherein the receptacle comprises a receiving portion configured to receive at least a portion of a torque nail ; a structural connector configured to engage the receptacle and the part; the torque nail , wherein the torque nail is configured to be received at least partially within the receptacle , wherein the torque nail is sized and shaped with respect to the receptacle such that it expands the receiving portion of the receptacle when pressed into the receiving portion ; and a collar plate configured to be embedded within the composite structure and configured to distribute forces from the torque nail being pressed into the receiving portion , wherein the fastener system is configured to engage the part and the composite structure such that it couples the part to the composite structure . a receptacle configured to be embedded at least partially within the composite structure , wherein the receptacle comprises a receiving portion configured to receive at least a portion of a torque nail ; a structural connector configured to engage the receptacle and the part; the torque nail , wherein the torque nail is configured to be received at least partially within the receptacle , wherein the torque nail is sized and shaped with respect to the receptacle such that it expands the receiving portion of the receptacle when pressed into the receiving portion ; and a collar plate configured to be embedded within the composite structure and configured to distribute forces from the torque nail being pressed into the receiving portion , wherein the fastener system is configured to engage the part and the composite structure such that it couples the part to the composite structure .
Agricultural sprayer , in particular a field sprayer, comprising at least one detection device which is designed to detect vegetation (N2, N3), in particular in the form of weed and/or wild growth, on an agricultural surface, at least one first and second discharge element which are arranged on a spray boom and are designed to apply spray liquid to the agricultural work surface (N1), in particular to the vegetation (N2, N3) thereof, depending on an operating state (B1-B3), the operating state (B1-B3) being selectable depending on the detected vegetation (N2, N3), and at least one adjusting device by means of which the impact area (A) of the spray liquid which can be applied by the at least one first and/or second discharge element can be adjusted, the spray liquid being applicable via the at least one first discharge element in a first operating state (B1) and via the at least one second discharge element in a second operating state (B2), characterized in that the at least one first and second discharge element have different spray profiles, the at least one first discharge element having a spray profile suitable for treating individual plants and the at least one second discharge element having a spray profile suitable for treating a surface.
Heat cost allocator for acquiring the heat quantity (ΔQ) delivered by a radiator - with a flow temperature sensor for measuring the flow temperature (θ VL ) of a heat transfer medium, - with an ambient air temperature sensor for measuring the ambient air temperature (θ amb ), - with a radiator control valve , - with a device for determining a valve lift position (h) of the radiator control valve , and - with a computing unit , which is set up to determine the delivered heat quantity (ΔQ) , wherein - the radiator control valve has a dynamic valve lower part , which keeps the pressure difference (Δp) over the radiator control valve constant, and - the computing unit of the heat cost allocator is set up to calculate the delivered heat quantity (ΔQ) from the determined valve lift position (h) and the measured variables flow temperature (θ VL ) and ambient air temperature (θ amb ), wherein at least one radiator temperature (θ RL , Δ log , θ x ) that differs from the measured ambient air temperature (θ amb ) and flow temperature (θ VL ) and is designated as an additional characteristic one is determined from the determined valve lift position (h), the flow temperature (θ VL ) and the ambient air temperature (θ amb ) using the constant differential pressure (Δp), and the delivered heat quantity (ΔQ) is calculated using at least the measured flow temperature (θ VL ) and the additional characteristic radiator temperature (θ RL , Δ log , θ X ). - with a flow temperature sensor for measuring the flow temperature (θ VL ) of a heat transfer medium, - with an ambient air temperature sensor for measuring the ambient air temperature (θ amb ), - with a radiator control valve , - with a device for determining a valve lift position (h) of the radiator control valve , and - with a computing unit , which is set up to determine the delivered heat quantity (ΔQ) , wherein - the radiator control valve has a dynamic valve lower part , which keeps the pressure difference (Δp) over the radiator control valve constant, and - the computing unit of the heat cost allocator is set up to calculate the delivered heat quantity (ΔQ) from the determined valve lift position (h) and the measured variables flow temperature (θ VL ) and ambient air temperature (θ amb ),