mhurhangee/ep-ind-claims huggingface dataset:
A method of contactless optical detection of yarn at a workstation of a yarn manufacturing textile machine in which yarn moves in a sensing slot between at least one source of radiation and at least one optical sensor means of radiation comprising at least one row of radiation sensitive elements arranged next to each other, whereby shading of the individual radiation sensitive elements by the moving yarn is monitored and the state of yarn is evaluated on the basis of this monitoring process, characterized in that the position of the yarn and/or the time course of the position of the yarn in the sensing slot is monitored and evaluated, thereby detecting a change (ΔP) in the position and/or the time course of the change (ΔP) in the position of the yarn corresponding to a yarn break and upon detecting the break before the broken yarn end passes through the sensing slot, a stop signal is given to the workstation.
An apparatus comprising: a sensor device to mount to a barrier pivotable between an open position and a closed position, the barrier mounted on a moveable platform; a plurality of different filters for filtering measurement data from the sensor device, the plurality of different filters comprising a first filter and a second filter, the first filter being more sensitive to recent measurement data than the second filter; and at least one processor configured to determine an open/close status of the pivotable barrier based on selective use of the plurality of different filters, wherein the at least one processor is configured to: determine an open/close status of the barrier based on first filtered measurement data from the sensor device filtered using the first filter, and in response to determining that the open/close status is not successfully determined based on the first filtered measurement data, determine the open/close status of the barrier based on second filtered measurement data from the sensor device filtered using the second filter different from the first filter. a sensor device to mount to a barrier pivotable between an open position and a closed position, the barrier mounted on a moveable platform; a plurality of different filters for filtering measurement data from the sensor device, the plurality of different filters comprising a first filter and a second filter, the first filter being more sensitive to recent measurement data than the second filter; and at least one processor configured to determine an open/close status of the pivotable barrier based on selective use of the plurality of different filters, wherein the at least one processor is configured to: determine an open/close status of the barrier based on first filtered measurement data from the sensor device filtered using the first filter, and in response to determining that the open/close status is not successfully determined based on the first filtered measurement data, determine the open/close status of the barrier based on second filtered measurement data from the sensor device filtered using the second filter different from the first filter. determine an open/close status of the barrier based on first filtered measurement data from the sensor device filtered using the first filter, and in response to determining that the open/close status is not successfully determined based on the first filtered measurement data, determine the open/close status of the barrier based on second filtered measurement data from the sensor device filtered using the second filter different from the first filter.
An anti-mistouch method, applied to an electronic device, wherein a touchscreen of the electronic device is a curved screen with a radian on a side edge, and the method comprises: obtaining, by the electronic device, an included angle between the touchscreen and a horizontal plane; starting, by the electronic device, a camera in response to the included angle between the touchscreen and the horizontal plane falling within a first preset angle range; obtaining, by the electronic device, a distance between the electronic device and a user and a face yaw degree of the user in response to the camera collecting a face image, wherein the face yaw degree is a left-right rotation angle of a face orientation of the user relative to a first connecting line, and the first connecting line is a connecting line between the camera and a head of the user; and performing, by the electronic device, anti-mistouch processing on a preset mistouch operation of the user on the touchscreen in response to the distance between the electronic device and the user being less than a first distance threshold and the face yaw degree falling within a second preset angle range, wherein when the user performs the preset mistouch operation, a contact surface between a hand of the user and the touchscreen is: a first contact surface in a first-side radian region of the touchscreen and x second contact surfaces in a second-side radian region of the touchscreen, wherein 1 ≤ x ≤ 4, and x is a positive integer. obtaining, by the electronic device, an included angle between the touchscreen and a horizontal plane; starting, by the electronic device, a camera in response to the included angle between the touchscreen and the horizontal plane falling within a first preset angle range; obtaining, by the electronic device, a distance between the electronic device and a user and a face yaw degree of the user in response to the camera collecting a face image, wherein the face yaw degree is a left-right rotation angle of a face orientation of the user relative to a first connecting line, and the first connecting line is a connecting line between the camera and a head of the user; and performing, by the electronic device, anti-mistouch processing on a preset mistouch operation of the user on the touchscreen in response to the distance between the electronic device and the user being less than a first distance threshold and the face yaw degree falling within a second preset angle range, wherein when the user performs the preset mistouch operation, a contact surface between a hand of the user and the touchscreen is: a first contact surface in a first-side radian region of the touchscreen and x second contact surfaces in a second-side radian region of the touchscreen, wherein 1 ≤ x ≤ 4, and x is a positive integer.
An apparatus for a computed tomography system, comprising: a pre-object filter configured to shape a profile of radiation attenuation in a fan-angle direction as a function of a profile of an object being examined,wherein: the pre-object filter is configured to rotate about an axis, the pre-object filter has a first surface defined by a first sidewall abutting a top surface of the pre-object filter and sloping toward the axis and a second sidewall abutting a bottom surface of the pre-object filter and sloping toward the axis, the first sidewall extending from a first end of the pre-object filter to a second end of the pre-object filter, the second sidewall extending from the first end to the second end, the pre-object filter has a channel extending across the pre-object filter from a first surface to a second surface diametrically opposite the first surface, the channel is disposed between the first end and the second end, an aperture is defined by an inner wall of the pre-object filter abutting the first sidewall and the top surface, and the inner wall slopes from the top surface of the pre-object filter toward the channel. the pre-object filter is configured to rotate about an axis, the pre-object filter has a first surface defined by a first sidewall abutting a top surface of the pre-object filter and sloping toward the axis and a second sidewall abutting a bottom surface of the pre-object filter and sloping toward the axis, the first sidewall extending from a first end of the pre-object filter to a second end of the pre-object filter, the second sidewall extending from the first end to the second end, the pre-object filter has a channel extending across the pre-object filter from a first surface to a second surface diametrically opposite the first surface, the channel is disposed between the first end and the second end, an aperture is defined by an inner wall of the pre-object filter abutting the first sidewall and the top surface, and the inner wall slopes from the top surface of the pre-object filter toward the channel.
An object detection system comprising at least two sensors of object detection (41, 42) that each comprise a transmitter (410, 420) for producing an original periodic signal, one or two antennas (411, 421) for transmitting the original signal and, after the original signal has reflected off the object, receiving a reflected signal, and a receiver (412, 422) for detecting an information related to the object using the received reflected signal, wherein the transmitting antenna (411, 421) has a radiation pattern including a main lobe and side lobes at various angles, the two sensors (41, 42) have respective coverage areas that overlap, the transmitter of one of the two sensors, that is the transmitter sensor, is configured to encode data to be transmitted to the other one of the two sensors, that is the receiver sensor, by modulating the original signal radiated by the transmitting antenna of the transmitter sensor, the original periodic signal being used as a carrier signal that is modulated by the data to be transmitted, and characterized in that the two sensors having relative positions in which the receiving antenna of the receiver sensor can only receive the side lobes radiated by the transmitting antenna of the transmitter sensor, within an angular range, the receiver sensor is configured to receive the original signal modulated via side lobes radiated by the transmitting antenna of the transmitter sensor and to decode the received signal by demodulation to obtain said data. the two sensors (41, 42) have respective coverage areas that overlap, the transmitter of one of the two sensors, that is the transmitter sensor, is configured to encode data to be transmitted to the other one of the two sensors, that is the receiver sensor, by modulating the original signal radiated by the transmitting antenna of the transmitter sensor, the original periodic signal being used as a carrier signal that is modulated by the data to be transmitted, and characterized in that the two sensors having relative positions in which the receiving antenna of the receiver sensor can only receive the side lobes radiated by the transmitting antenna of the transmitter sensor, within an angular range, the receiver sensor is configured to receive the original signal modulated via side lobes radiated by the transmitting antenna of the transmitter sensor and to decode the received signal by demodulation to obtain said data.
A method of authenticating a network client to a relying party computer via a computer server, the network client being configured to communicate with the relying party computer and the computer server, the network client being further configured to communicate with a token manager, the token manager being configured to communicate with a hardware token interfaced with the token manager, the method comprising: the computer server receiving a credential from one of the token manager and the network client via a first communications channel, and receiving a transaction request from the relying party computer via a second communications channel distinct from the first communications channel; and the computer server transmitting an authorization signal to the relying party computer in response to the transaction request in accordance with a determination of validity of the credential and data originating from the hardware token, the authorization signal facilitating authentication of the network client to the relying party computer. the computer server receiving a credential from one of the token manager and the network client via a first communications channel, and receiving a transaction request from the relying party computer via a second communications channel distinct from the first communications channel; and the computer server transmitting an authorization signal to the relying party computer in response to the transaction request in accordance with a determination of validity of the credential and data originating from the hardware token, the authorization signal facilitating authentication of the network client to the relying party computer.
Axial piston machine, - with a shaft which is non-rotatably connected with an inclined plate, - with ring-shaped cylinders disposed around and coaxially to the shaft, in which cylinders are disposed pistons which can be adjusted translationally, wherein each piston is coupled via a spherical bearing and at least one sliding block with the inclined plate, - wherein an entry opening is assigned to each cylinder, - with a control plate with an eccentrically disposed through opening which with each rotation of the control plate sweeps over each entry opening once and thus guides working medium into the associated cylinder, wherein - at least one spherical bearing is formed in several parts, - the spherical bearing is formed in two parts with a first and a second part (15, 16), wherein the two parts (15, 16) each have a reception or a receiving dish for a sliding block or - the spherical bearing is formed in two parts with a first and a second part (15, 16), wherein the first part is connected with the piston skirt and the second part has two receptions or two receiving dishes for the sliding block, and characterised in - that the second part of the spherical bearing is formed as re-formed metal bridge. - with a shaft which is non-rotatably connected with an inclined plate, - with ring-shaped cylinders disposed around and coaxially to the shaft, in which cylinders are disposed pistons which can be adjusted translationally, wherein each piston is coupled via a spherical bearing and at least one sliding block with the inclined plate, - wherein an entry opening is assigned to each cylinder, - with a control plate with an eccentrically disposed through opening which with each rotation of the control plate sweeps over each entry opening once and thus guides working medium into the associated cylinder, - at least one spherical bearing is formed in several parts, - the spherical bearing is formed in two parts with a first and a second part (15, 16), wherein the two parts (15, 16) each have a reception or a receiving dish for a sliding block or - the spherical bearing is formed in two parts with a first and a second part (15, 16), wherein the first part is connected with the piston skirt and the second part has two receptions or two receiving dishes for the sliding block, and - that the second part of the spherical bearing is formed as re-formed metal bridge.
Polymeric composition comprising: - a polymeric matrix chosen from the group comprising polyesters, polyolefins, cellulose-ester-based polymers, acrylic polymers and copolymers, polyamides, and copolymers or mixtures thereof, and - at least three mineral fillers of different types chosen from the following types: oxides, sulphates and silicates, uniformly dispersed in the polymeric matrix, having properties of absorption and/or emission in the far infrared region ranging from 2 μm to 20 μm for its use for improving skin healing. - a polymeric matrix chosen from the group comprising polyesters, polyolefins, cellulose-ester-based polymers, acrylic polymers and copolymers, polyamides, and copolymers or mixtures thereof, and - at least three mineral fillers of different types chosen from the following types: oxides, sulphates and silicates, uniformly dispersed in the polymeric matrix, having properties of absorption and/or emission in the far infrared region ranging from 2 μm to 20 μm
An electric power steering comprising: a steering force assisting device that applies assist force to a steering system and that has an electric motor that generates the assist force; a motor driving circuit (26A, 26B) that drives the electric motor; and a control unit that controls the motor driving circuit, wherein the electric motor includes a rotor having a magnet and a stator having teeth around each of which a coil (21A, 21B) is wound, and the steering force assisting device includes at least two independent sets of the motor driving circuit (26A, 26B) and the control unit, characterized in that the electric motor has coils (21A, 21B) having the same polarity and different motor characteristics on the stator, the number of the coils (21A, 21B) being equal to the number of the sets of motor driving circuit (26A, 26B) and control unit, and the coils (21A, 21B) are respectively connected to the different sets of motor driving circuit (26A, 26B) and control unit. a steering force assisting device that applies assist force to a steering system and that has an electric motor that generates the assist force; a motor driving circuit (26A, 26B) that drives the electric motor; and a control unit that controls the motor driving circuit, wherein the electric motor includes a rotor having a magnet and a stator having teeth around each of which a coil (21A, 21B) is wound, and the steering force assisting device includes at least two independent sets of the motor driving circuit (26A, 26B) and the control unit, characterized in that the electric motor has coils (21A, 21B) having the same polarity and different motor characteristics on the stator, the number of the coils (21A, 21B) being equal to the number of the sets of motor driving circuit (26A, 26B) and control unit, and the coils (21A, 21B) are respectively connected to the different sets of motor driving circuit (26A, 26B) and control unit.
A method for training a machine learning model to construct a high-resolution digital color image depicting a sample, the method comprising acquiring a training set of digital color images of a training sample by: illuminating, by a plurality of white light emitting diodes, the training sample with a plurality of illumination patterns, and capturing, for each illumination pattern of the plurality of illumination patterns, a digital color image of the training sample; receiving a ground truth comprising a high-resolution digital color image of the training sample, wherein a resolution of the high-resolution digital color image is relatively higher than a resolution of at least one digital color image of the training set of digital color images; and training the machine learning model to construct the high-resolution digital color image depicting a sample using the training set of digital color images and the ground truth. acquiring a training set of digital color images of a training sample by: illuminating, by a plurality of white light emitting diodes, the training sample with a plurality of illumination patterns, and capturing, for each illumination pattern of the plurality of illumination patterns, a digital color image of the training sample; illuminating, by a plurality of white light emitting diodes, the training sample with a plurality of illumination patterns, and capturing, for each illumination pattern of the plurality of illumination patterns, a digital color image of the training sample; receiving a ground truth comprising a high-resolution digital color image of the training sample, wherein a resolution of the high-resolution digital color image is relatively higher than a resolution of at least one digital color image of the training set of digital color images; and training the machine learning model to construct the high-resolution digital color image depicting a sample using the training set of digital color images and the ground truth.
An automotive transmission fluid composition consisting of (i) a lubricating oil, or blend of lubricating oils; (ii) a viscosity modifier additive or blend of viscosity modifier additives; (iii) a polyalphaolefin compound or compounds; and (iv) one or more detergent additives, wherein the or each polyalphaolefin compound (iii) is made by the metallocene-catalysed polymerisation of an alphaolefin feedstock, and wherein the total amount of the polyalphaolefin compound(s) (iii) in the transmission fluid composition is 1 percent by weight or greater but does not exceed 4 percent by weight of the composition; and wherein at least one viscosity modifier additive (ii) contains a polymer or blend of polymers selected from one or more of the following groups: (ii)(a) random or block poly-alkylacrylates or poly-alkylmethacrylates, or copolymers thereof; (ii)(b) star polymers comprising a polyvalent core of polyalkylacrylate or polyalkylmethacrylate from which a plurality or arms depend, the arms being polymer chains containing alkylacrylate or alkylmethacrylate monomer units; or (ii)(c) comb polymers prepared by the copolymerisation of one or more alkylacrylate or alkylmethacrylate monomers with one or more olefin or polyolefin monomers. (i) a lubricating oil, or blend of lubricating oils; (ii) a viscosity modifier additive or blend of viscosity modifier additives; (iii) a polyalphaolefin compound or compounds; and (iv) one or more detergent additives, wherein the or each polyalphaolefin compound (iii) is made by the metallocene-catalysed polymerisation of an alphaolefin feedstock, and wherein the total amount of the polyalphaolefin compound(s) (iii) in the transmission fluid composition is 1 percent by weight or greater but does not exceed 4 percent by weight of the composition; and wherein at least one viscosity modifier additive (ii) contains a polymer or blend of polymers selected from one or more of the following groups: (ii)(a) random or block poly-alkylacrylates or poly-alkylmethacrylates, or copolymers thereof; (ii)(b) star polymers comprising a polyvalent core of polyalkylacrylate or polyalkylmethacrylate from which a plurality or arms depend, the arms being polymer chains containing alkylacrylate or alkylmethacrylate monomer units; or (ii)(c) comb polymers prepared by the copolymerisation of one or more alkylacrylate or alkylmethacrylate monomers with one or more olefin or polyolefin monomers. (ii)(a) random or block poly-alkylacrylates or poly-alkylmethacrylates, or copolymers thereof; (ii)(b) star polymers comprising a polyvalent core of polyalkylacrylate or polyalkylmethacrylate from which a plurality or arms depend, the arms being polymer chains containing alkylacrylate or alkylmethacrylate monomer units; or (ii)(c) comb polymers prepared by the copolymerisation of one or more alkylacrylate or alkylmethacrylate monomers with one or more olefin or polyolefin monomers.