mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing apparatus comprising: a gain determination section configured to determine an attenuation level on a basis of a positional relationship between a given object and another object and determine a gain of a signal of the given object on a basis of the attenuation level, wherein the given object and the other object are audio objects and wherein the gain determination section is configured to determine a straight line connecting a user position and a center of the given object, obtain an intersection point between the straight line and an orthogonal line passing through a center of the other object, obtain an intermediary attenuation level based on a distance between the intersection point and the center of the given object, obtain a correction value based on a ratio between a first distance between the center of the other object and the intersection point and a second distance between the center of the other object and an end of the other object on the side of the straight line, and to obtain the attenuation level by multiplying the intermediary attenuation level with the correction value. a gain determination section configured to determine an attenuation level on a basis of a positional relationship between a given object and another object and determine a gain of a signal of the given object on a basis of the attenuation level, wherein the given object and the other object are audio objects and wherein the gain determination section is configured to determine a straight line connecting a user position and a center of the given object, obtain an intersection point between the straight line and an orthogonal line passing through a center of the other object, obtain an intermediary attenuation level based on a distance between the intersection point and the center of the given object, obtain a correction value based on a ratio between a first distance between the center of the other object and the intersection point and a second distance between the center of the other object and an end of the other object on the side of the straight line, and to obtain the attenuation level by multiplying the intermediary attenuation level with the correction value.
A servo of an entertainment robot comprising: a servo main body comprising a casing and an output shaft, the casing being a hexahedron; and a servo plate fixed to the output shaft of the servo main body and comprising a square drive plate ; wherein at least one surface of the casing comprises a T slot having an opening at one end, and the size of the T slot matches the size of the drive plate of the servo plate , and characterized in that : the T slot comprises two elastic positioning protrusions , the elastic positioning protrusions are disposed at an inner side of a narrow slot of the T slot and adjacent to a closed end of the T slot ; and the servo plate comprises a mounting hub connected to the drive plate , the mounting hub comprises four positioning grooves , the four positioning grooves are disposed at symmetrical perpendicular axes of the drive plate , such that when the servo plate of one servo is inserted, in use, into the T slot of another servo, the elastic positioning protrusions of the T slot of the other servo are fit into the positioning grooves of the mounting hub of the one servo. a servo main body comprising a casing and an output shaft, the casing being a hexahedron; and a servo plate fixed to the output shaft of the servo main body and comprising a square drive plate ; wherein at least one surface of the casing comprises a T slot having an opening at one end, and the size of the T slot matches the size of the drive plate of the servo plate , and characterized in that : the T slot comprises two elastic positioning protrusions , the elastic positioning protrusions are disposed at an inner side of a narrow slot of the T slot and adjacent to a closed end of the T slot ; and the servo plate comprises a mounting hub connected to the drive plate , the mounting hub comprises four positioning grooves , the four positioning grooves are disposed at symmetrical perpendicular axes of the drive plate , such that when the servo plate of one servo is inserted, in use, into the T slot of another servo, the elastic positioning protrusions of the T slot of the other servo are fit into the positioning grooves of the mounting hub of the one servo. the T slot comprises two elastic positioning protrusions , the elastic positioning protrusions are disposed at an inner side of a narrow slot of the T slot and adjacent to a closed end of the T slot ; and the servo plate comprises a mounting hub connected to the drive plate , the mounting hub comprises four positioning grooves , the four positioning grooves are disposed at symmetrical perpendicular axes of the drive plate , such that when the servo plate of one servo is inserted, in use, into the T slot of another servo, the elastic positioning protrusions of the T slot of the other servo are fit into the positioning grooves of the mounting hub of the one servo.
A high voltage DC electric power generating system comprising: a poly-phase permanent magnet generator having at least one control winding and a plurality of power windings , each of said power windings being a phase of the poly-phase permanent magnet generator; a passive rectifier connecting a switch to an input of each of said power windings such that said switch is a neutral node in a closed state and a disconnect in an open state; characterised by a controller communicatively coupled to said switch, and configured to control an open/closed state of the switch, wherein the controller is configured to selectively remove a neutral node from the poly-phase permanent magnet generator by opening the switch in response to detecting a short circuit event, thereby preventing power operation for a duration of the short circuit event. a poly-phase permanent magnet generator having at least one control winding and a plurality of power windings , each of said power windings being a phase of the poly-phase permanent magnet generator; a passive rectifier connecting a switch to an input of each of said power windings such that said switch is a neutral node in a closed state and a disconnect in an open state; characterised by a controller communicatively coupled to said switch, and configured to control an open/closed state of the switch, wherein the controller is configured to selectively remove a neutral node from the poly-phase permanent magnet generator by opening the switch in response to detecting a short circuit event, thereby preventing power operation for a duration of the short circuit event.
An exercise apparatus comprising: a first member; a frame comprising a second member, the first member moveably supported by the second member; and a locking assembly coupled with the second member, the locking assembly comprising: a shaft comprising an engagement portion positioned to engage the first member to fix the first member relative to the second member; a drive shaft defining a passage to receive the shaft, the shaft adjustably supported within the passage such that the shaft is translatable within the passage relative to the drive shaft; and a lever coupled with the drive shaft, characterised in that the lever pivotal between a first lever position where the drive shaft is driven toward the first member to fix the first member relative to the second member and a second lever position where the drive shaft is released from driving the first member such that the first member may be moved relative to the second member. a first member; a frame comprising a second member, the first member moveably supported by the second member; and a locking assembly coupled with the second member, the locking assembly comprising: a shaft comprising an engagement portion positioned to engage the first member to fix the first member relative to the second member; a drive shaft defining a passage to receive the shaft, the shaft adjustably supported within the passage such that the shaft is translatable within the passage relative to the drive shaft; and a lever coupled with the drive shaft, characterised in that a shaft comprising an engagement portion positioned to engage the first member to fix the first member relative to the second member; a drive shaft defining a passage to receive the shaft, the shaft adjustably supported within the passage such that the shaft is translatable within the passage relative to the drive shaft; and a lever coupled with the drive shaft, characterised in that the lever pivotal between a first lever position where the drive shaft is driven toward the first member to fix the first member relative to the second member and a second lever position where the drive shaft is released from driving the first member such that the first member may be moved relative to the second member.
A developing device comprising: a casing containing a housing chamber (S1) and having a developer outlet port to discharge excess developer from the housing chamber (S1); a developer roll disposed in the housing chamber, the developer roll to carry a developer; a layer thickness regulating member to make a thickness of the developer attached to the developer roll uniform; an airflow passage to allow air to flow in from the housing chamber (S1) when the developer roll rotates; and wherein the developing device comprises a radiation member adjacent the housing chamber to transfer heat to the air flowing through the airflow passage , wherein the radiation member is to absorb heat from the developer in the housing chamber (S1) and to radiate heat to the air flowing through the airflow passage , characterized by further comprising a waste toner box to collect developer discharged from the developer outlet port , wherein an outlet end of the airflow passage is connected to the waste toner box . a casing containing a housing chamber (S1) and having a developer outlet port to discharge excess developer from the housing chamber (S1); a developer roll disposed in the housing chamber, the developer roll to carry a developer; a layer thickness regulating member to make a thickness of the developer attached to the developer roll uniform; an airflow passage to allow air to flow in from the housing chamber (S1) when the developer roll rotates; and wherein the developing device comprises a radiation member adjacent the housing chamber to transfer heat to the air flowing through the airflow passage , wherein the radiation member is to absorb heat from the developer in the housing chamber (S1) and to radiate heat to the air flowing through the airflow passage , characterized by further comprising a waste toner box to collect developer discharged from the developer outlet port , wherein an outlet end of the airflow passage is connected to the waste toner box .
A kettle for a cooking unit for preparing foods, comprising - a housing with a cylindrical basic shape, which spatially limits an interior space , - a stirring device arranged in the interior space of the housing , with which the foods located in the interior space can be stirred, - a fresh water supply by means of which fresh water can be introduced into the interior , wherein a center axis of the housing is horizontally oriented, wherein the housing has at least one opening , through which foods can be loaded into the interior and unloaded from the interior , wherein the housing can be swiveled between a working position, in which an opening cross section of the opening is located above the center axis , and an unloading position, in which the opening cross section is located at least partially below the center axis , characterized in that the housing has a work area that outwardly deviates radially from its cylindrical basic shape relative to the center axis and expands the interior of the housing , wherein the work area -with the housing viewed as being in its working position-is allocated to an upper end area of the interior , wherein the kettle comprises a rinsing device , which has at least one rinsing nozzle arranged at least partially inside of the work area , by means of which rinsing water can be sprayed at least on parts of the stirring device as well as an inner jacket surface of the housing . - a housing with a cylindrical basic shape, which spatially limits an interior space , - a stirring device arranged in the interior space of the housing , with which the foods located in the interior space can be stirred, - a fresh water supply by means of which fresh water can be introduced into the interior , wherein a center axis of the housing is horizontally oriented, wherein the housing has at least one opening , through which foods can be loaded into the interior and unloaded from the interior , wherein the housing can be swiveled between a working position, in which an opening cross section of the opening is located above the center axis , and an unloading position, in which the opening cross section is located at least partially below the center axis , characterized in that the housing has a work area that outwardly deviates radially from its cylindrical basic shape relative to the center axis and expands the interior of the housing , wherein the work area -with the housing viewed as being in its working position-is allocated to an upper end area of the interior , wherein the kettle comprises a rinsing device , which has at least one rinsing nozzle arranged at least partially inside of the work area , by means of which rinsing water can be sprayed at least on parts of the stirring device as well as an inner jacket surface of the housing .
An airfoil structure (60") for a gas turbine engine comprising: an airfoil (62") including a leading edge and a trailing edge ; and a platform (64") located adjacent a first end of the airfoil (62"), and including: a core passage (90") extending through the platform (64"); a mate-face (86") for facing an adjacent airfoil structure; an inlet (96") to the core passage (90") located on a radially inner side of the platform (64") axially upstream of the core passage (90") spaced from the airfoil (62"); and a set of impingement cooling holes (88") in communication with the core passage (90"), the cooling holes extending through the mate-face (86") adjacent the trailing edge of the airfoil (62"); wherein the inlet (96") is located towards the leading edge of the platform (64") to allow secondary leakage air to enter the inlet (96") and travel though the core passage (90"); characterized in that the airfoil (62") includes at least one cooling passage in communication with the core passage (90") of airflow extending through the platform (64"). an airfoil (62") including a leading edge and a trailing edge ; and a platform (64") located adjacent a first end of the airfoil (62"), and including: a core passage (90") extending through the platform (64"); a mate-face (86") for facing an adjacent airfoil structure; an inlet (96") to the core passage (90") located on a radially inner side of the platform (64") axially upstream of the core passage (90") spaced from the airfoil (62"); and a set of impingement cooling holes (88") in communication with the core passage (90"), the cooling holes extending through the mate-face (86") adjacent the trailing edge of the airfoil (62"); a core passage (90") extending through the platform (64"); a mate-face (86") for facing an adjacent airfoil structure; an inlet (96") to the core passage (90") located on a radially inner side of the platform (64") axially upstream of the core passage (90") spaced from the airfoil (62"); and a set of impingement cooling holes (88") in communication with the core passage (90"), the cooling holes extending through the mate-face (86") adjacent the trailing edge of the airfoil (62"); wherein the inlet (96") is located towards the leading edge of the platform (64") to allow secondary leakage air to enter the inlet (96") and travel though the core passage (90"); characterized in that the airfoil (62") includes at least one cooling passage in communication with the core passage (90") of airflow extending through the platform (64").
An image analysis method for analyzing an image of a tissue collected from a subject using a deep learning algorithm of a convolutional neural network comprising an input layer , an output layer and an intermediate layer configured by a plurality of layers, the image analysis method comprising: generating analysis data from an analysis target image that includes an analysis target tissue by generating a plurality of analysis data for each region in the analysis target image having a predetermined number of pixels, the analysis data comprising, for each of the predetermined number of pixels, color density value data for one or more primary colors; inputting the analysis data of each region having the predetermined number of pixels to the deep learning algorithm in order to generate, for each region having the predetermined number of pixels, a label value indicating that a pixel located at the center of the analysis data of that region is a nucleus region and estimated value indicating a layer structure of one of a plurality of layer structures or that the pixel located at the center of the analysis data of that region is a region other than a cell nucleus; and generating a layer structure nucleus region weighted image indicating the nucleus region of each layer structure, wherein the deep learning algorithm is trained by: first training data and second training data, and the convolutional neural network learns the relationship between the first and second training data, wherein the second training data includes a label value which indicates a nuclear region of a layer structure and the label value is a value estimating the layer structure. generating analysis data from an analysis target image that includes an analysis target tissue by generating a plurality of analysis data for each region in the analysis target image having a predetermined number of pixels, the analysis data comprising, for each of the predetermined number of pixels, color density value data for one or more primary colors; inputting the analysis data of each region having the predetermined number of pixels to the deep learning algorithm in order to generate, for each region having the predetermined number of pixels, a label value indicating that a pixel located at the center of the analysis data of that region is a nucleus region and estimated value indicating a layer structure of one of a plurality of layer structures or that the pixel located at the center of the analysis data of that region is a region other than a cell nucleus; and generating a layer structure nucleus region weighted image indicating the nucleus region of each layer structure, wherein the deep learning algorithm is trained by: first training data and second training data, and the convolutional neural network learns the relationship between the first and second training data, wherein the second training data includes a label value which indicates a nuclear region of a layer structure and the label value is a value estimating the layer structure.
Cold crucible for an induction heating device , characterized in that it comprises a crucible body comprising: - a connection ring comprising an annular distribution region , - a tubular casing extending from the connection ring to define a heating volume, the casing being cut longitudinally so as to produce several separated sectors , - coolant channels arranged longitudinally in the thickness of the crucible body so that each sector comprises at least one coolant channel , each sector comprising at least two coolant paths, an outward path and a return path for the coolant, formed by the at least one coolant channel , said paths leading into the annular distribution region so that said region has, for each sector, an inlet opening and an outlet opening , the openings being spaced apart from one another along a radial direction of the crucible, thus forming, along the circumference of the annular distribution region, two distinct concentric regions around the longitudinal axis of the crucible, of which one communicates only with the outward path of the channels and the other communicates only with the return path of the channels, the crucible body being intended to be removably assembled with a cooling manifold via the connection ring , the manifold comprising coolant distribution elements connecting to the coolant channels , owing to this assembly, in order to circulate said liquid between the manifold and the channels, and in that said crucible body has a one-piece structure composed of one and the same material having a continuity of material over at least two sectors. - a connection ring comprising an annular distribution region , - a tubular casing extending from the connection ring to define a heating volume, the casing being cut longitudinally so as to produce several separated sectors , - coolant channels arranged longitudinally in the thickness of the crucible body so that each sector comprises at least one coolant channel , thus forming, along the circumference of the annular distribution region, two distinct concentric regions around the longitudinal axis of the crucible, of which one communicates only with the outward path of the channels and the other communicates only with the return path of the channels, the crucible body being intended to be removably assembled with a cooling manifold via the connection ring , the manifold comprising coolant distribution elements connecting to the coolant channels , owing to this assembly, in order to circulate said liquid between the manifold and the channels, and in that said crucible body has a one-piece structure composed of one and the same material having a continuity of material over at least two sectors.
A digital circuitry configured to perform calculations for an inclinometer device, the circuitry comprising: - an interface configured to receive detection signals (acc x , acc y , acc z ) from an accelerometer device; and - a CORDIC unit configured to perform calculation of inclinometer output values (θ, A i+1 ) characterizing a resultant vector (g), the resultant vector representing the detection signals, wherein the CORDIC calculation unit is configured to perform a first calculation for resolving an angle between the resultant vector and a programmable reference value (one_g), characterized in that the first calculation comprises phases of: - determining a first intermediate result corresponding to a length of a projection (a x , a y , a z ) of the resultant vector (g) on a reference axis (x, y, z) times a multiplier representing the change of the length of the vector by using a hyperbolic CORDIC arctangent function; - determining a second intermediate result corresponding to a length of a component of the resultant vector (g) orthogonal with the reference axis multiplied with a multiplier representing a change of the length of the vector using a hyperbolic CORDIC arctangent function; and - determining an angle (θ) between the resultant vector (g) and a calculated axis orthogonal to the reference axis based on the first and the second intermediate results using a circular CORDIC arctangent function. - an interface configured to receive detection signals (acc x , acc y , acc z ) from an accelerometer device; and - a CORDIC unit configured to perform calculation of inclinometer output values (θ, A i+1 ) characterizing a resultant vector (g), the resultant vector representing the detection signals, - determining a first intermediate result corresponding to a length of a projection (a x , a y , a z ) of the resultant vector (g) on a reference axis (x, y, z) times a multiplier representing the change of the length of the vector by using a hyperbolic CORDIC arctangent function; - determining a second intermediate result corresponding to a length of a component of the resultant vector (g) orthogonal with the reference axis multiplied with a multiplier representing a change of the length of the vector using a hyperbolic CORDIC arctangent function; and - determining an angle (θ) between the resultant vector (g) and a calculated axis orthogonal to the reference axis based on the first and the second intermediate results using a circular CORDIC arctangent function.