mhurhangee/patent-ind-claim-en huggingface dataset:
A process for computer processing molecular imaging data comprising a plurality of spectral datasets (J1-Jn), each spectral dataset (J1-Jn) being defined by a set of spatial positions (Xi, Yj) each of which is associated with a molecular spectrum in at least two dimensions containing a set of molecular information (S(Xi, Yj)), characterized in that it includes the following steps - for each dataset (J1-Jn), automatically dividing the molecular spectrum associated with each position (Xi, Yj) into several spectrum sections (T1-Tm) each containing part of the molecular information of said spectrum, said spectrum sections comprising together the set of molecular information of the associated molecular spectrum - inserting the sections (T1-Tm) obtained for each position (Xi, Yj) of each dataset (J1-Jn) in a database (BDD), so that each position (Xi, Yj) of each dataset (J1-Jn) is associated with a set of indexed spectrum sections (T1-Tm), - selecting from the database (BDD), following a request relating to molecular information of interest, the section(s) (T1-Tm) containing the molecular information of interest, and - selecting, within each section (T1-Tm), said molecular information of interest. - for each dataset (J1-Jn), automatically dividing the molecular spectrum associated with each position (Xi, Yj) into several spectrum sections (T1-Tm) each containing part of the molecular information of said spectrum, said spectrum sections comprising together the set of molecular information of the associated molecular spectrum - inserting the sections (T1-Tm) obtained for each position (Xi, Yj) of each dataset (J1-Jn) in a database (BDD), so that each position (Xi, Yj) of each dataset (J1-Jn) is associated with a set of indexed spectrum sections (T1-Tm), - selecting from the database (BDD), following a request relating to molecular information of interest, the section(s) (T1-Tm) containing the molecular information of interest, and - selecting, within each section (T1-Tm), said molecular information of interest.
Instrument panel holder for a motor vehicle, which has a cross member which can be incorporated between the A-columns of a motor vehicle body, wherein the cross member is equipped at least at one end with a mounting component for fastening to an A-column, wherein the mounting component has a back , two side legs parallel to one another as well as an upper leg and a lower leg and in each side leg is provided at least one mounting opening , wherein the mounting openings serve for the passage of elongated fastening elements, in particular mounting screws, in vehicle longitudinal direction (x axis), in order to fasten the instrument panel holder to an A-column of the motor vehicle, characterised in that the mounting component is joined with the side legs at the end of a driver-side longitudinal portion of the cross member , wherein the end is configured to be substantially rectangular in shape, wherein the side legs engage by way of a vertically-extending front side portion and a vertically-extending rear side portion of the end . wherein the mounting component has a back , two side legs parallel to one another as well as an upper leg and a lower leg and in each side leg is provided at least one mounting opening , wherein the mounting openings serve for the passage of elongated fastening elements, in particular mounting screws, in vehicle longitudinal direction (x axis), in order to fasten the instrument panel holder to an A-column of the motor vehicle, characterised in that the mounting component is joined with the side legs at the end of a driver-side longitudinal portion of the cross member , wherein the end is configured to be substantially rectangular in shape, wherein the side legs engage by way of a vertically-extending front side portion and a vertically-extending rear side portion of the end .
A motor vehicle power steering mechanism with an electric motor for steering assist and/or steering, and a steering controller, which controls the electric motor with a position control mode for autonomous driving and/or automatic steering and a torque control mode for manual steering by a driver, wherein the steering controller comprises an arbitration unit , a column torque controller , and a steering algorithm , characterized in that the steering controller further comprises a steering column reference controller and an estimator to calculate states of the steering mechanism, wherein the steering column reference controller calculates for position control based on a reference position and a measured position a first reference steering column torque and the steering algorithm calculates for torque control based on a measured column torque a second reference steering column torque , wherein the arbitration unit weights and adds the first and second reference steering column torques , and wherein the output of the arbitration unit is input to the column torque controller to calculate a target motor torque from the output of the arbitration unit and the states .
Upper (105; 305; 405; 505) for a sports shoe, comprising: a. at least one tape portion (110a-b; 210a-b; 310; 410) covering at least 50% of the upper (105; 305; 405); b. wherein the at least one tape portion (110a-b; 210a-b; 310; 410) comprises a plurality of connected tapes; c. wherein the plurality of tapes comprises a nylon, polyester or spandex material; d. wherein the plurality of tapes is connected to each other along their essentially parallel edges by stitching. a. at least one tape portion (110a-b; 210a-b; 310; 410) covering at least 50% of the upper (105; 305; 405); b. wherein the at least one tape portion (110a-b; 210a-b; 310; 410) comprises a plurality of connected tapes; c. wherein the plurality of tapes comprises a nylon, polyester or spandex material; d. wherein the plurality of tapes is connected to each other along their essentially parallel edges by stitching.
High strength steel strip having a cementite-free microstructure comprising: • 0.005 - 0.08 wt.% C; • 1.30 - 2.30 wt.% Mn; • 2 - 35 ppm B; • 5 - 65 ppm N; • 0.005 - 0.1 wt.% Al_tot; • 0.03 to 0.20 wt.% Ti; • 0 - 1.5 wt.% Cu; • 0 - 0.75 wt.% Cr; • 0 - 0.05 wt.% Mo; • 0 - 0.50 wt.% Ni; • 0 - 0.30 wt.% V; • 0 - 0.6 wt.% Si; • 0 - 0.03 wt.% P; • 0 - 0.01 wt.% S; • C Ti sol + V ≤ 0.25 wherein Ti_sol=Ti-((48/14)·N) remainder iron and inevitable impurities, the steel strip having a yield strength of at least 570 MPa, a tensile strength of at least 760 MPa, a total elongation (A50) of at least 10.3 % and a hole expansion ratio (λ) value of at least 70%. • 0.005 - 0.08 wt.% C; • 1.30 - 2.30 wt.% Mn; • 2 - 35 ppm B; • 5 - 65 ppm N; • 0.005 - 0.1 wt.% Al_tot; • 0.03 to 0.20 wt.% Ti; • 0 - 1.5 wt.% Cu; • 0 - 0.75 wt.% Cr; • 0 - 0.05 wt.% Mo; • 0 - 0.50 wt.% Ni; • 0 - 0.30 wt.% V; • 0 - 0.6 wt.% Si; • 0 - 0.03 wt.% P; • 0 - 0.01 wt.% S; • C Ti sol + V ≤ 0.25 wherein Ti_sol=Ti-((48/14)·N)
An electronic controller, comprising: a logic circuit that is reconfigurable based on a reconfiguration instruction; an arithmetic unit configured in the logic circuit ; a processing controller configured to transmit a reconfiguration instruction of the arithmetic unit to the logic circuit , wherein the reconfigured arithmetic unit is configured to execute a predetermined processing; and a testing unit configured to acquire, based on information of a circuit type received from the processing controller , a number of tests, a test pattern, and a test data, and to execute an operation test for the arithmetic unit when the arithmetic unit is reconfigured and to transmit the result of the operation test to the processing controller as a notice, wherein the processing controller is configured to cause the arithmetic unit to execute the predetermined processing by employing sensor information based on the notice received from the testing unit , wherein the electronic controller is further comprising: a selector coupled to the arithmetic unit and which is configured to switch an input-output of the arithmetic unit to any of the processing controller and the testing unit , wherein, when the arithmetic unit is reconfigured, the testing unit couples the input-output to the testing unit , and when the operation test is completed, the testing unit couples the input-output to the processing controller . a logic circuit that is reconfigurable based on a reconfiguration instruction; an arithmetic unit configured in the logic circuit ; a processing controller configured to transmit a reconfiguration instruction of the arithmetic unit to the logic circuit , wherein the reconfigured arithmetic unit is configured to execute a predetermined processing; and a testing unit configured to acquire, based on information of a circuit type received from the processing controller , a number of tests, a test pattern, and a test data, and to execute an operation test for the arithmetic unit when the arithmetic unit is reconfigured and to transmit the result of the operation test to the processing controller as a notice, wherein the processing controller is configured to cause the arithmetic unit to execute the predetermined processing by employing sensor information based on the notice received from the testing unit , wherein the electronic controller is further comprising: a selector coupled to the arithmetic unit and which is configured to switch an input-output of the arithmetic unit to any of the processing controller and the testing unit , wherein, when the arithmetic unit is reconfigured, the testing unit couples the input-output to the testing unit , and when the operation test is completed, the testing unit couples the input-output to the processing controller .
An X-ray multi-layer detector comprising two or more scintillator layers, comprising: - a first scintillator layer ; - a second scintillator layer ; - a first photodiode array ; - a second photodiode array ; and - at least one light emitting layer ; wherein, the first scintillator layer is configured to absorb X-rays from an X-ray pulse and to emit light; wherein, the first photodiode array is positioned adjacent to the first scintillator layer; wherein, the first photodiode array is configured to detect at least some of the light emitted by the first scintillator layer; wherein, the second scintillator layer is configured to absorb X-rays from the X-ray pulse passing through the first scintillator layer and to emit light; wherein, the second photodiode array is positioned adjacent to the second scintillator layer; wherein, the second photodiode array is configured to detect at least some of the light emitted by the second scintillator layer; wherein, the at least one light emitting layer is configured to emit radiation; characterized in that the at least one light emitting layer is configured such that at least some of the emitted radiation irradiates the first photodiode array and at least some of the emitted radiation irradiates the second photodiode array. - a first scintillator layer ; - a second scintillator layer ; - a first photodiode array ; - a second photodiode array ; and - at least one light emitting layer ; wherein, the first scintillator layer is configured to absorb X-rays from an X-ray pulse and to emit light; wherein, the first photodiode array is positioned adjacent to the first scintillator layer; wherein, the first photodiode array is configured to detect at least some of the light emitted by the first scintillator layer; wherein, the second scintillator layer is configured to absorb X-rays from the X-ray pulse passing through the first scintillator layer and to emit light; wherein, the second photodiode array is positioned adjacent to the second scintillator layer; wherein, the second photodiode array is configured to detect at least some of the light emitted by the second scintillator layer; wherein, the at least one light emitting layer is configured to emit radiation; characterized in that the at least one light emitting layer is configured such that at least some of the emitted radiation irradiates the first photodiode array and at least some of the emitted radiation irradiates the second photodiode array.
A robotic apparatus , comprising: a first wheel assembly including a wheel and an alignment mechanism , and configured for positioning on an outer surface of a pipe on a first half of the pipe; a second wheel assembly and a third wheel assembly , each including a wheel and an alignment mechanism , and configured for positioning on the outer surface of the pipe on a second, circumferentially opposing half of the pipe; and a clamping mechanism configured to apply a force for urging the second wheel and the third wheel to pivot outwards, in opposing directions along a length of the pipe relative to the first wheel, for securing the first wheel, the second wheel, and the third wheel to the pipe, wherein the alignment mechanisms are configured for selectably adjusting an orientation of the wheels to allow the robotic apparatus to move along a straight path or a helical path on the pipe. a first wheel assembly including a wheel and an alignment mechanism , and configured for positioning on an outer surface of a pipe on a first half of the pipe; a second wheel assembly and a third wheel assembly , each including a wheel and an alignment mechanism , and configured for positioning on the outer surface of the pipe on a second, circumferentially opposing half of the pipe; and a clamping mechanism configured to apply a force for urging the second wheel and the third wheel to pivot outwards, in opposing directions along a length of the pipe relative to the first wheel, for securing the first wheel, the second wheel, and the third wheel to the pipe, wherein the alignment mechanisms are configured for selectably adjusting an orientation of the wheels to allow the robotic apparatus to move along a straight path or a helical path on the pipe.
An extruded tube, comprising at least one thermoplastic, melt processable fluoropolymer resin, wherein the extruded tube exhibits crystallinity and is less than about 40% crystalline as determined by x-ray diffraction; and wherein the extruded tube exhibits heat shrink capability, longitudinal peelability, and translucency or transparency through a wall of the extruded tube.
An apparatus (100; 250; 350; 440; 450) for providing one or more adjusted parameters (120; 252; 352; R̃ ; T̃ ) for a provision of an upmix signal representation (220; 430a-430M) on the basis of a downmix signal representation (210; 420) and a parametric side information (212; 422) associated with the downmix signal representation, the apparatus comprising: a parameter adjuster configured to receive one or more parameters (110; 214; 337) and to provide, on the basis thereof, one or more adjusted parameters (120; 252; 352), wherein the parameter adjuster is configured to provide the one or more adjusted parameters in dependence on an average value (132; ( R ; T ) of a plurality of parameter values (110; 214; 337; R; T), such that a distortion of the upmix signal representation caused by the use of non-optimal parameters for the provision of the upmix signal representation is reduced at least for one or more parameters deviating from optimal parameters by more than a predetermined deviation; characterised in that the apparatus is configured to receive one or more rendering coefficients (214; R) describing desired contributions of audio objects to one or more channels of the upmix signal representation (220; 430a-430M), and wherein the apparatus is configured to provide one or more adjusted rendering coefficients (252; R̃ ) as the adjusted parameters. a parameter adjuster configured to receive one or more parameters (110; 214; 337) and to provide, on the basis thereof, one or more adjusted parameters (120; 252; 352), wherein the parameter adjuster is configured to provide the one or more adjusted parameters in dependence on an average value (132; ( R ; T ) of a plurality of parameter values (110; 214; 337; R; T), such that a distortion of the upmix signal representation caused by the use of non-optimal parameters for the provision of the upmix signal representation is reduced at least for one or more parameters deviating from optimal parameters by more than a predetermined deviation; characterised in that the apparatus is configured to receive one or more rendering coefficients (214; R) describing desired contributions of audio objects to one or more channels of the upmix signal representation (220; 430a-430M), and wherein the apparatus is configured to provide one or more adjusted rendering coefficients (252; R̃ ) as the adjusted parameters.
An image forming apparatus comprising: an image carrier ; a latent-image forming unit configured to form a latent image on the image carrier ; a developing unit configured to develop the latent image on the image carrier with a developer applied onto a developer carrier ; a temperature detector configured to detect an internal temperature (T) or an ambient temperature (T) of the developing unit , the internal temperature (T) and ambient temperature (T) varying depending on a temperature of the developer carrier ; and a control unit configured to control restriction on number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature (T) detected by the temperature detector , wherein the control unit controls the restriction on the number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector and a plurality of predetermined temperature thresholds (T1, T2; TT0, TT1, TT2, TT3). an image carrier ; a latent-image forming unit configured to form a latent image on the image carrier ; a developing unit configured to develop the latent image on the image carrier with a developer applied onto a developer carrier ; a temperature detector configured to detect an internal temperature (T) or an ambient temperature (T) of the developing unit , the internal temperature (T) and ambient temperature (T) varying depending on a temperature of the developer carrier ; and a control unit configured to control restriction on number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature (T) detected by the temperature detector , wherein the control unit controls the restriction on the number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector and a plurality of predetermined temperature thresholds (T1, T2; TT0, TT1, TT2, TT3). a temperature detector configured to detect an internal temperature (T) or an ambient temperature (T) of the developing unit , the internal temperature (T) and ambient temperature (T) varying depending on a temperature of the developer carrier ; and a control unit configured to control restriction on number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature (T) detected by the temperature detector , wherein the control unit controls the restriction on the number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector and a plurality of predetermined temperature thresholds (T1, T2; TT0, TT1, TT2, TT3).
Electrical discharge circuit for discharging a capacitor (C), including: - two interface terminals (B A , B B ) , to which the capacitor (C) is intended to be connected and across which a capacitor voltage (u c ) is intended to be present, - a current-consuming electrical circuit connected between the two interface terminals (B A , B B ) and designed to consume a discharge current (i) from the capacitor (C), and - an electrical control circuit for controlling the current-consuming electrical circuit , the electrical control circuit being connected between the two interface terminals (B A , B B ) so as to receive the capacitor voltage (u C ), characterized in that the electrical control circuit is designed: - to deactivate the current-consuming electrical circuit when the capacitor voltage (u c ) is above a predefined threshold, and - to activate the current-consuming electrical circuit when the capacitor voltage (u c ) across the two interface terminals (B A , B B ) is below the predefined threshold, and in that the electrical control circuit is designed to be supplied with electrical power exclusively via the two interface terminals (B A , B B ) . - two interface terminals (B A , B B ) , to which the capacitor (C) is intended to be connected and across which a capacitor voltage (u c ) is intended to be present, - a current-consuming electrical circuit connected between the two interface terminals (B A , B B ) and designed to consume a discharge current (i) from the capacitor (C), and - an electrical control circuit for controlling the current-consuming electrical circuit , the electrical control circuit being connected between the two interface terminals (B A , B B ) so as to receive the capacitor voltage (u C ), characterized in that the electrical control circuit is designed: - to deactivate the current-consuming electrical circuit when the capacitor voltage (u c ) is above a predefined threshold, and - to activate the current-consuming electrical circuit when the capacitor voltage (u c ) across the two interface terminals (B A , B B ) is below the predefined threshold,
Method for securing a data flow between a communication device and a remote terminal , said communication device comprising a first communication interface for a connection to a first local network of the LAN type, and a second communication interface for a connection to a second network , said device being configurable from the remote terminal , the method comprising the steps of: - recording, by said communication device , a first key in a memory of said device , - generating and recording, by said device , a second encryption key, referred to as a private key, and a third encryption key, referred to as a public key, the public key being inserted in an authenticity certificate signed by the first key, the public key being able to be used for the encryption of a data flow that can be deciphered by means of the private key, - receiving, from the remote terminal , a request with a view to securing data flows between said communication device and the remote terminal , - checking that said request is received via said first interface for a connection to a first local network of the LAN type, and - if said request is received via said first interface for a connection to a first local network of the LAN type, sending, by said communication device , the public key to the remote terminal , in response to the request, and enabling remote configuration of said communication device via at least said second interface from the data flow encrypted by means of said public key. - recording, by said communication device , a first key in a memory of said device , - generating and recording, by said device , a second encryption key, referred to as a private key, and a third encryption key, referred to as a public key, the public key being inserted in an authenticity certificate signed by the first key, the public key being able to be used for the encryption of a data flow that can be deciphered by means of the private key, - receiving, from the remote terminal , a request with a view to securing data flows between said communication device and the remote terminal , - checking that said request is received via said first interface for a connection to a first local network of the LAN type, and - if said request is received via said first interface for a connection to a first local network of the LAN type, sending, by said communication device , the public key to the remote terminal , in response to the request, and enabling remote configuration of said communication device via at least said second interface from the data flow encrypted by means of said public key.