mhurhangee/patent-ind-claim-en huggingface dataset:
A system for managing data, the system comprising at least one processor configured to: receive a source dataset as an input; transmute the source dataset into an intermediate dataset , wherein the intermediate dataset comprises hash values obtained by transmuting data strings in the source dataset ; continue transmuting the immediate transmuted intermediate dataset to a subsequent intermediate dataset until obtaining a root dataset ; characterized in that, the system comprises a plurality of functions for transmuting the data strings ; the at least one processor is configured to: choose a different function among the plurality of functions, if a hash value for a first data string obtained by using a first function among the plurality of functions, is the same as an existing hash value obtained using the first function, that represents a second data string; and add reference bits to the intermediary datasets , wherein the reference bits enable identification of one or more functions to be used to obtain a dataset from which the intermediary dataset comprising the reference bits was obtained in the process of converting the source dataset to the root dataset . receive a source dataset as an input; transmute the source dataset into an intermediate dataset , wherein the intermediate dataset comprises hash values obtained by transmuting data strings in the source dataset ; continue transmuting the immediate transmuted intermediate dataset to a subsequent intermediate dataset until obtaining a root dataset ; characterized in that, the system comprises a plurality of functions for transmuting the data strings ; the at least one processor is configured to: choose a different function among the plurality of functions, if a hash value for a first data string obtained by using a first function among the plurality of functions, is the same as an existing hash value obtained using the first function, that represents a second data string; and add reference bits to the intermediary datasets , wherein the reference bits enable identification of one or more functions to be used to obtain a dataset from which the intermediary dataset comprising the reference bits was obtained in the process of converting the source dataset to the root dataset . choose a different function among the plurality of functions, if a hash value for a first data string obtained by using a first function among the plurality of functions, is the same as an existing hash value obtained using the first function, that represents a second data string; and add reference bits to the intermediary datasets , wherein the reference bits enable identification of one or more functions to be used to obtain a dataset from which the intermediary dataset comprising the reference bits was obtained in the process of converting the source dataset to the root dataset .
A waveguide coupler (10; 10'; 10"; 10"'; 10""), comprising: a waveguide (14; 14') including i) a first and a second port ; ii) a first slot formed in a first broadwall of the waveguide (14; 14') between the first and second ports , the first slot centered on the first broadwall ; iii) a plurality of shifted waveguide sections (12; 12') arranged between the first and second ports and extending along a length of the waveguide (14; 14'); and a first parallel-plate transmission line structure (4; 16) coupled to the first slot , wherein the waveguide coupler is configured such that RF signals within one of the waveguide (14; 14') or the parallel-plate transmission line structure (4; 16) are communicated to the other of the waveguide or the parallel-plate transmission line structure through the first slot , wherein each shifted waveguide section (12; 12') includes an alternating arrangement of ascending or descending steps, the alternating arrangement of ascending or descending steps formed at least partially on sidewalls of the waveguide (14; 14'), and each step on a first sidewall of the waveguide (14; 14') is offset along a length of the waveguide from a step on a second sidewall of the waveguide (14; 14'), the second sidewall opposite the first sidewall . a waveguide (14; 14') including i) a first and a second port ; ii) a first slot formed in a first broadwall of the waveguide (14; 14') between the first and second ports , the first slot centered on the first broadwall ; iii) a plurality of shifted waveguide sections (12; 12') arranged between the first and second ports and extending along a length of the waveguide (14; 14'); and i) a first and a second port ; ii) a first slot formed in a first broadwall of the waveguide (14; 14') between the first and second ports , the first slot centered on the first broadwall ; iii) a plurality of shifted waveguide sections (12; 12') arranged between the first and second ports and extending along a length of the waveguide (14; 14'); and a first parallel-plate transmission line structure (4; 16) coupled to the first slot , wherein the waveguide coupler is configured such that RF signals within one of the waveguide (14; 14') or the parallel-plate transmission line structure (4; 16) are communicated to the other of the waveguide or the parallel-plate transmission line structure through the first slot , wherein each shifted waveguide section (12; 12') includes an alternating arrangement of ascending or descending steps, the alternating arrangement of ascending or descending steps formed at least partially on sidewalls of the waveguide (14; 14'), and each step on a first sidewall of the waveguide (14; 14') is offset along a length of the waveguide from a step on a second sidewall of the waveguide (14; 14'), the second sidewall opposite the first sidewall .
A crane device , which actuates a carrying element including a boom and a hook suspended from the boom and carries baggage (W) to a carrying destination, comprising: a camera (C) provided on the hook; a camera control unit which controls an image-capturing operation of the camera based on control information for operating the carrying element; and an image processing unit which processes a captured image (i2, i3) that has been captured with the characterised in that , camera, the camera captures an image of the carrying destination of the baggage, that is in the movement direction of the baggage, and the image processing unit takes, as a reference area, an arbitrary area in the captured image that has been captured with the camera, generates a correction image (ia) obtained by projecting the captured image onto a plane (Pt) that is parallel to the reference area and is perpendicular to an arbitrary direction with the baggage used as a viewpoint, calculates a current position of the baggage in the correction image, and displays the current position in a visually recognizable mode. a camera (C) provided on the hook; a camera control unit which controls an image-capturing operation of the camera based on control information for operating the carrying element; and an image processing unit which processes a captured image (i2, i3) that has been captured with the characterised in that , camera, the camera captures an image of the carrying destination of the baggage, that is in the movement direction of the baggage, and the image processing unit takes, as a reference area, an arbitrary area in the captured image that has been captured with the camera, generates a correction image (ia) obtained by projecting the captured image onto a plane (Pt) that is parallel to the reference area and is perpendicular to an arbitrary direction with the baggage used as a viewpoint, calculates a current position of the baggage in the correction image, and displays the current position in a visually recognizable mode.
Method for determining the position of a multiplicity of measurement locations in a measurement system, the measurement system comprising a. a circular apparatus for receiving reaction vessels, which has a multiplicity of measurement locations arranged on a circular trajectory and a physical reference location, wherein each measurement location is arranged at a known distance from the physical reference location, and b. a measurement apparatus, wherein either the apparatus for receiving reaction vessels is rotatable about the vertical axis thereof or the measurement apparatus is moveable on a horizontal circular trajectory about the vertical axis of the apparatus for receiving reaction vessels, the method comprising the following steps: i. rotating the apparatus for receiving reaction vessels about the vertical axis thereof or moving the measurement apparatus on a horizontal circular trajectory about the vertical axis of the apparatus for receiving reaction vessels with a constant rotational speed in each case; ii. measuring a physical reference signal at the physical reference location during each revolution; characterized by the further steps of iii. determining a virtual reference location by means of a phase locked loop which outputs an output pulse sequence, wherein each pulse of the output pulse sequence corresponds to the virtual reference location of the associated revolution, and iv. calculating the position of the measurement locations on the basis of predetermined time intervals from the virtual reference location. a. a circular apparatus for receiving reaction vessels, which has a multiplicity of measurement locations arranged on a circular trajectory and a physical reference location, wherein each measurement location is arranged at a known distance from the physical reference location, and b. a measurement apparatus, wherein either the apparatus for receiving reaction vessels is rotatable about the vertical axis thereof or the measurement apparatus is moveable on a horizontal circular trajectory about the vertical axis of the apparatus for receiving reaction vessels, i. rotating the apparatus for receiving reaction vessels about the vertical axis thereof or moving the measurement apparatus on a horizontal circular trajectory about the vertical axis of the apparatus for receiving reaction vessels with a constant rotational speed in each case; ii. measuring a physical reference signal at the physical reference location during each revolution; characterized by the further steps of iii. determining a virtual reference location by means of a phase locked loop which outputs an output pulse sequence, wherein each pulse of the output pulse sequence corresponds to the virtual reference location of the associated revolution, and iv. calculating the position of the measurement locations on the basis of predetermined time intervals from the virtual reference location.
Inlet device for feeding bulk material , with a machine housing , wherein a baffle plate , a rotatably mounted feed flap defining a gap between the baffle plate and the feed flap and being connected with a rotation axis , and upper and lower sensors for measuring the amount of the bulk material present in a space between the baffle plate , the feed flap and the side walls of the machine housing , are provided inside the machine housing ; wherein the inlet device further comprises a motor unit provided outside the machine housing and being fixedly connected to the rotation axis ; wherein the motor unit is connectable to the feed flap via the rotation axis and forms a counterweight to the feed flap , wherein the motor unit comprises a motor and a carriage , wherein the motor is slidable of the carriage on a linear axis perpendicular to the rotation axis for changing the center of gravity of the motor unit on the linear axis relative to the rotation axis ; wherein the size of the gap between the baffle plate and the feed flap depends on the position of the motor on the linear axis and the weight of the bulk material loaded on the feed flap . a machine housing , wherein a baffle plate , a rotatably mounted feed flap defining a gap between the baffle plate and the feed flap and being connected with a rotation axis , and upper and lower sensors for measuring the amount of the bulk material present in a space between the baffle plate , the feed flap and the side walls of the machine housing , are provided inside the machine housing ; wherein the inlet device further comprises a motor unit provided outside the machine housing and being fixedly connected to the rotation axis ; wherein the motor unit is connectable to the feed flap via the rotation axis and forms a counterweight to the feed flap , wherein the motor unit comprises a motor and a carriage , wherein the motor is slidable of the carriage on a linear axis perpendicular to the rotation axis for changing the center of gravity of the motor unit on the linear axis relative to the rotation axis ; wherein the size of the gap between the baffle plate and the feed flap depends on the position of the motor on the linear axis and the weight of the bulk material loaded on the feed flap .
A pivoting sliding door for a vehicle, in particular a rail vehicle, wherein the pivoting sliding door has at least one door leaf connected to a rotary column , and a step system cooperating with the pivoting sliding door, wherein the door leaf, during opening and closing, is pivoted at least partially about the rotary column which is connected to the door leaf, and wherein the step system comprises: - a step plate , configured as a sliding step, which by means of a linear movement along a displacement axis (V) is displaceable reversibly from a retracted position in the direction of an extended position, - an articulated arrangement, - and a guide device , arranged on the vehicle side, in which the step plate is displaceably mounted, characterized in that the step plate is connected via the articulated arrangement to the or at least to one of the rotary columns , wherein via the articulated arrangement a rotary movement of the rotary column is able to be transferred into the linear movement of the step plate , wherein the articulated arrangement comprises a connecting member , a connecting shaft , a first and a second cardan joint , and a linkage connecting the cardan joints , wherein the connecting member is a metallic flat product and has in the region of its first end and of its second end a first hole opening or respectively a second hole opening , wherein the connecting member in the region of the first hole opening is connected to the step plate , and wherein the connecting shaft is arranged perpendicularly to the connecting member and engages with its one end into the second hole opening of the connecting member . - a step plate , configured as a sliding step, which by means of a linear movement along a displacement axis (V) is displaceable reversibly from a retracted position in the direction of an extended position, - an articulated arrangement, - and a guide device , arranged on the vehicle side, in which the step plate is displaceably mounted,
A light guide made of transparent or translucent material, extending in a main direction and comprising: - an entrance face for the light emitted by a light source , said entrance face being profiled to form a collimator; - a guide face for guiding the light through the transparent or translucent material by total internal reflection; - a light exit face ; and - a decoupling face for decoupling the light toward the exit face by means of reflection facets, said decoupling face being transversely opposite to the exit face ; and wherein at least one portion of the entrance face is a three-dimensional surface formed by translating a two-dimensional planar profile in a transverse direction , referred to as a portion of constant profile, so as not to collimate the light in a longitudinal plane comprising the transverse direction and to collimate in a longitudinal plane perpendicular to said transverse direction the light guide being characterized in that the transverse direction corresponds to a direction of opposition between the decoupling face and the exit face . - an entrance face for the light emitted by a light source , said entrance face being profiled to form a collimator; - a guide face for guiding the light through the transparent or translucent material by total internal reflection; - a light exit face ; and - a decoupling face for decoupling the light toward the exit face by means of reflection facets, said decoupling face being transversely opposite to the exit face ; and wherein at least one portion of the entrance face is a three-dimensional surface formed by translating a two-dimensional planar profile in a transverse direction , referred to as a portion of constant profile, so as not to collimate the light in a longitudinal plane comprising the transverse direction and to collimate in a longitudinal plane perpendicular to said transverse direction the light guide being characterized in that the transverse direction corresponds to a direction of opposition between the decoupling face and the exit face .
A system comprising: a microfluidic body having a body side and a fluidic network that includes a supply port (210, 526-530, 731-734) and a feed port , the supply port (210, 527, 731-734) opening to the body side ; a rotary valve that is rotatably mounted to the body side , the rotary valve having a first channel port , a second channel port , and a flow channel that extends between the first and second channel ports , the rotary valve configured to rotate between first and second valve positions, the first channel port being in flow communication with the supply port of the microfluidic body when the rotary valve is in the first valve position, the first channel port being sealed by the microfluidic body when the rotary valve is in the second valve position; and a pump assembly configured to induce a flow of a fluid through the supply port and into the flow channel when the rotary valve is in the first valve position; and characterized in that a thermocycler positioned relative to the rotary valve and configured to control a temperature experienced by the fluid within the flow channel when the rotary valve is in the second valve position; wherein the rotary valve is configured to rotate about an axis , the second channel port and the feed port being aligned with the axis . a microfluidic body having a body side and a fluidic network that includes a supply port (210, 526-530, 731-734) and a feed port , the supply port (210, 527, 731-734) opening to the body side ; a rotary valve that is rotatably mounted to the body side , the rotary valve having a first channel port , a second channel port , and a flow channel that extends between the first and second channel ports , the rotary valve configured to rotate between first and second valve positions, the first channel port being in flow communication with the supply port of the microfluidic body when the rotary valve is in the first valve position, the first channel port being sealed by the microfluidic body when the rotary valve is in the second valve position; and a pump assembly configured to induce a flow of a fluid through the supply port and into the flow channel when the rotary valve is in the first valve position; and characterized in that a thermocycler positioned relative to the rotary valve and configured to control a temperature experienced by the fluid within the flow channel when the rotary valve is in the second valve position; wherein the rotary valve is configured to rotate about an axis , the second channel port and the feed port being aligned with the axis .
Method for operating a battery sensor , having at least one capture device for capturing at least one battery parameter and outputting a battery value dependent on the battery parameter, having an evaluation circuit for determining a corrected battery value from the battery value and from a correction value , and having a correction value determination device which is provided for the purpose of determining the correction value in the evaluation circuit, characterized in that the correction value determination device captures at least one influencing value of an influencing parameter of the correction value that influences the correction value , wherein a pre-determined rule for assigning a correction factor to the respective influencing parameter is respectively stored in the correction value determination device for at least two value ranges of the influencing parameter, the correction value being determined with the following steps: a) capturing at least one influencing value of the at least one influencing parameter , b) determining and outputting the value range of the influencing parameter for the captured influencing values , c) selecting the at least one assignment rule corresponding to the value range, d) determining and outputting the correction factor corresponding to the value range of the influencing parameter from the assignment rule, and e) determining the correction value with the correction factor . a) capturing at least one influencing value of the at least one influencing parameter , b) determining and outputting the value range of the influencing parameter for the captured influencing values , c) selecting the at least one assignment rule corresponding to the value range, d) determining and outputting the correction factor corresponding to the value range of the influencing parameter from the assignment rule, and e) determining the correction value with the correction factor .
A digital microscopy method , comprising: capturing a plurality of overlapping images of a sample, wherein the capturing of at least one of said plurality of images is performed while the sample and a focal plane are in relative motion along an optical axis at a speed greater than zero; providing an estimated relative arrangement of the focal plane and the sample along the optical axis; and processing the plurality of images using a reference criterion to determine a reference relative arrangement of the focal plane and the sample along the optical axis; characterized: in that the capturing of the plurality of overlapping images is performed such as to produce different image capture densities along the optical axis; and by varying a speed of the relative motion, by decelerating as the relative arrangement of the focal plane and the sample grows closer to the estimated relative arrangement and accelerating as the relative arrangement of the focal plane and the sample moves away from the estimated relative arrangement. capturing a plurality of overlapping images of a sample, wherein the capturing of at least one of said plurality of images is performed while the sample and a focal plane are in relative motion along an optical axis at a speed greater than zero; providing an estimated relative arrangement of the focal plane and the sample along the optical axis; and processing the plurality of images using a reference criterion to determine a reference relative arrangement of the focal plane and the sample along the optical axis; characterized: in that the capturing of the plurality of overlapping images is performed such as to produce different image capture densities along the optical axis; and by varying a speed of the relative motion, by decelerating as the relative arrangement of the focal plane and the sample grows closer to the estimated relative arrangement and accelerating as the relative arrangement of the focal plane and the sample moves away from the estimated relative arrangement.
A smoking article tube comprising: an elongated tube having a mouthpiece segment at a first end of the elongated tube and an empty smokable material cavity defined by a second end of the elongated tube opposing the first end; and a hydrophobic tube region comprising hydrophobic groups covalently bonded to the elongated tube . an elongated tube having a mouthpiece segment at a first end of the elongated tube and an empty smokable material cavity defined by a second end of the elongated tube opposing the first end; and a hydrophobic tube region comprising hydrophobic groups covalently bonded to the elongated tube .