mhurhangee/ep-ind-claims huggingface dataset:
A magnetic body for a drug delivery control device, the magnetic body comprising: a neodymium magnet having a length, center, and longitudinal axis along the length and the center of the magnet; and a cover part attached to an edge of the magnet, characterised in that the cover part is composed of a material with high magnetic permeability that includes a permalloy, a side surface of the cover part in a lengthwise direction is formed to be tapered toward a peak of the cover part centered on or about the longitudinal axis, the peak having a rounded shape, which extends from a starting point along the longitudinal axis of the cover part to an upper-most point along the longitudinal axis of the cover part, the cover part having a height from a bottom surface of the cover part to the starting point, wherein a ratio of said height to a radius of the cover part is 10:1 to 7:3, and the cover part has a bottom surface that is adjacent the edge of the neodymium magnet. a neodymium magnet having a length, center, and longitudinal axis along the length and the center of the magnet; and a cover part attached to an edge of the magnet, characterised in that the cover part is composed of a material with high magnetic permeability that includes a permalloy, a side surface of the cover part in a lengthwise direction is formed to be tapered toward a peak of the cover part centered on or about the longitudinal axis, the peak having a rounded shape, which extends from a starting point along the longitudinal axis of the cover part to an upper-most point along the longitudinal axis of the cover part, the cover part having a height from a bottom surface of the cover part to the starting point, wherein a ratio of said height to a radius of the cover part is 10:1 to 7:3, and the cover part has a bottom surface that is adjacent the edge of the neodymium magnet.
A tire air pressure transmission device installed on a wheel comprising: a tire air pressure detection mechanism adapted to detect a tire air pressure of the wheel; an acceleration detection mechanism adapted to detect a centrifugal acceleration while the wheel rotates; characterized in that said tire air pressure transmission device further comprises: a gravitational acceleration component detection mechanism adapted to set sampling periods based on the centrifugal acceleration and adapted to detect a value of a gravitational acceleration component of the centrifugal acceleration at each sampling period, wherein a detected tire air pressure information is transmitted in a wireless signal when the gravitational acceleration component of the centrifugal acceleration has reached a predetermined value. a tire air pressure detection mechanism adapted to detect a tire air pressure of the wheel; an acceleration detection mechanism adapted to detect a centrifugal acceleration while the wheel rotates; characterized in that said tire air pressure transmission device further comprises: a gravitational acceleration component detection mechanism adapted to set sampling periods based on the centrifugal acceleration and adapted to detect a value of a gravitational acceleration component of the centrifugal acceleration at each sampling period, wherein a detected tire air pressure information is transmitted in a wireless signal when the gravitational acceleration component of the centrifugal acceleration has reached a predetermined value. a gravitational acceleration component detection mechanism adapted to set sampling periods based on the centrifugal acceleration and adapted to detect a value of a gravitational acceleration component of the centrifugal acceleration at each sampling period, wherein a detected tire air pressure information is transmitted in a wireless signal when the gravitational acceleration component of the centrifugal acceleration has reached a predetermined value.
A press plate, which is mounted in a radiographic device comprising an imaging table, the press plate comprising - a press section, which is disposed facing towards the imaging face of the imaging table and adapted to be positioned at the chest wall side of the examinee, and which is elastically deformable; - a reaction force section, which is adapted to support the press section at the opposite side of the press section, which is not facing towards the imaging face of the imaging table, characterized in that the reaction force section being configured from a material that has a greater coefficient of elasticity than the coefficient of elasticity of the press section, the reaction force section being connected to a reaction force adjustment mechanism, such that the support force for biasing the press section can be varied to adjust the reaction force thus the amount of deformation of the press section. - a press section, which is disposed facing towards the imaging face of the imaging table and adapted to be positioned at the chest wall side of the examinee, and which is elastically deformable; - a reaction force section, which is adapted to support the press section at the opposite side of the press section, which is not facing towards the imaging face of the imaging table, characterized in that
An air separator of an extracorporeal blood treatment machine such as a dialysis machine, comprising a flow conducting element arranged directly downstream of an upper fluid inlet of an air separating chamber for generating or backing a circulating movement of the fluid flowing into the air separating chamber and flowing toward a lower fluid outlet of the air separating chamber, wherein the flow conducting element at least in portions takes the cross-sectional shape of a groove, and characterized in that the groove extends in spiral shape along the peripheral wall of the air separating chamber toward the lower fluid outlet is orientated upwards at an angle at its runout.
A computer-implemented method for tracking a model associated with a human target, the method comprising: receiving a depth image comprising a plurality of pixels wherein each pixel has an observed depth value; generating a grid of voxels based on the depth image, wherein each voxel represents a plurality of pixels and is associated with an object in the scene wherein one or more objects comprising one or more background objects and one or more foreground objects are identified; removing at least one background object included in the grid of voxels to isolate one or more voxels associated with the one or more foreground objects associated with the human target; determining a location or position of one or more extremities of the isolated human target; adjusting a model based on the location or position of the one or more extremities; determining dimensions of the one or more extremities; and adjusting joints and bones of the model based on the determined dimensions; wherein removing the at least one background object is based on a foreground score for each identified object based on a percentage of moving voxels, wherein voxels are identified as moving by comparing the depth information of each voxel associated with the identified object with non-motion depth information of each corresponding voxel included in a reference image, wherein the reference image includes minimum, maximum or average depth values for the voxels in the grid determined over a series of frames.. receiving a depth image comprising a plurality of pixels wherein each pixel has an observed depth value; generating a grid of voxels based on the depth image, wherein each voxel represents a plurality of pixels and is associated with an object in the scene wherein one or more objects comprising one or more background objects and one or more foreground objects are identified; removing at least one background object included in the grid of voxels to isolate one or more voxels associated with the one or more foreground objects associated with the human target; determining a location or position of one or more extremities of the isolated human target; adjusting a model based on the location or position of the one or more extremities; determining dimensions of the one or more extremities; and adjusting joints and bones of the model based on the determined dimensions; wherein removing the at least one background object is based on a foreground score for each identified object based on a percentage of moving voxels, wherein voxels are identified as moving by comparing the depth information of each voxel associated with the identified object with non-motion depth information of each corresponding voxel included in a reference image, wherein the reference image includes minimum, maximum or average depth values for the voxels in the grid determined over a series of frames..
A thermoplastic resin composition, comprising: 35 to 85 % by weight of an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing alkyl acrylate rubber having an average particle diameter of 50 to 120 nm; and 15 to 65 % by weight of a polymethacrylate resin, wherein the polymethacrylate resin has a weight average molecular weight of 50,000 to 150,000 g/mol, wherein the thermoplastic resin composition has an alkyl acrylate coverage value of 70 % or more as calculated by Equation 1 below: X = G − Y / Y × 100, wherein G represents the gel content (wt%) based on the total weight of the thermoplastic resin composition, and Y represents the content (wt%) of an alkyl acrylate in the gel based on the total weight of the thermoplastic resin composition, wherein the average particle diameter is measured by dynamic light scattering as disclosed in the specification, the gel content is measured as disclosed in the specification, and the weight average molecular weight is measured by gel permeation chromatography as disclosed in the specification. 35 to 85 % by weight of an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing alkyl acrylate rubber having an average particle diameter of 50 to 120 nm; and 15 to 65 % by weight of a polymethacrylate resin, wherein the polymethacrylate resin has a weight average molecular weight of 50,000 to 150,000 g/mol, wherein the thermoplastic resin composition has an alkyl acrylate coverage value of 70 % or more as calculated by Equation 1 below: X = G − Y / Y × 100, wherein G represents the gel content (wt%) based on the total weight of the thermoplastic resin composition, and Y represents the content (wt%) of an alkyl acrylate in the gel based on the total weight of the thermoplastic resin composition, wherein the average particle diameter is measured by dynamic light scattering as disclosed in the specification, the gel content is measured as disclosed in the specification, and the weight average molecular weight is measured by gel permeation chromatography as disclosed in the specification.
An animation authoring method, comprising the steps of: (a) providing a first screen displaying a reference plane to a user; (b) determining a plane route of an object on the reference plane according to a sketch that the user draws on the first screen; (c) forming a motion window along the plane route on the reference plane, wherein the motion window extends in an upward direction from the plane route and makes an angle to the reference plane; (d) providing a second screen displaying the motion window to the user using a virtual camera; (e) receiving information on the motion of the object that the user inputs via the second screen; (f) determining a motion of the object in the motion window according to the information on the motion of the object; and (g) implementing an animation based on the determined plane route and the determined motion, wherein the information on the motion of the object includes gesture data for the motion of the object and corresponding parameters, wherein the gesture data and the parameters are determined according to a gesture that the user draws on the second screen, wherein a type of the motion of the object corresponds to the gesture data, and wherein the gesture is displayed to the user via the second screen while the virtual camera moves along the motion window in an input direction of the gesture, maintaining a distance to the motion window. (a) providing a first screen displaying a reference plane to a user; (b) determining a plane route of an object on the reference plane according to a sketch that the user draws on the first screen; (c) forming a motion window along the plane route on the reference plane, wherein the motion window extends in an upward direction from the plane route and makes an angle to the reference plane; (d) providing a second screen displaying the motion window to the user using a virtual camera; (e) receiving information on the motion of the object that the user inputs via the second screen; (f) determining a motion of the object in the motion window according to the information on the motion of the object; and (g) implementing an animation based on the determined plane route and the determined motion,
Agent for addition to an operating substance for a technical system, containing: - at least one component A selected from the group of trilayer silicates, - at least one component B consisting of a fumed silica, and - graphite. - at least one component A selected from the group of trilayer silicates, - at least one component B consisting of a fumed silica, and - graphite.
A medical imaging system comprising: medical equipment including a camera to generate an image signal; a wall-plate converter mounted on a wall of an indoor space where the medical equipment is located and configured to convert a digital image signal in a specific format into an optical signal and transmit the optical signal to a display; and a mobile near-source converter, NSC, mounted on a mobile device to convert the image signal from the medical equipment into the digital image signal in the specific format and input, to the wall-plate converter, the digital image signal in the specific format that is a result of the converting, wherein the digital image signal in the specific format is an image signal in a digital visual interface, DVI, format, and wherein a connection cable is interposed between the mobile NSC and the wall-plate converter is a DVI cable, characterized in that the wall plate converter is further configured to supply direct current, DC, power to the mobile NSC via the connection cable interposed between the mobile NSC and the wall-plate converter, wherein the wall-plate converter is further configured to supply the DC power to the mobile NSC via a display data channel, DDC, 5V additional-signal line in the connection cable, wherein the mobile NSC comprises a memory (206, 306) for storing a preset identification code therein, wherein the wall-plate converter is adapted to read the identification code stored in the memory; wherein the wall-plate converter is further configured to supply the DC power to the mobile NSC after verifying the preset identification code stored in the memory of the mobile NSC. medical equipment including a camera to generate an image signal; a wall-plate converter mounted on a wall of an indoor space where the medical equipment is located and configured to convert a digital image signal in a specific format into an optical signal and transmit the optical signal to a display; and a mobile near-source converter, NSC, mounted on a mobile device to convert the image signal from the medical equipment into the digital image signal in the specific format and input, to the wall-plate converter, the digital image signal in the specific format that is a result of the converting, wherein the digital image signal in the specific format is an image signal in a digital visual interface, DVI, format, and wherein a connection cable is interposed between the mobile NSC and the wall-plate converter is a DVI cable, characterized in that the wall plate converter is further configured to supply direct current, DC, power to the mobile NSC via the connection cable interposed between the mobile NSC and the wall-plate converter, wherein the wall-plate converter is further configured to supply the DC power to the mobile NSC via a display data channel, DDC, 5V additional-signal line in the connection cable, wherein the mobile NSC comprises a memory (206, 306) for storing a preset identification code therein, wherein the wall-plate converter is adapted to read the identification code stored in the memory;
A slave machine for a mobile phone, comprising: a display screen; a main board; a fingerprint identification assembly comprising a connecting circuit board and an identification unit, the identification unit being in communication connection with the main board through the connecting circuit board, and a power source unit being capable of supplying power to the display screen, the main board and the fingerprint identification assembly, characterized in that the main board is provided with a first through hole, and the identification unit is inserted into the first through hole. a display screen; a main board; a fingerprint identification assembly comprising a connecting circuit board and an identification unit, the identification unit being in communication connection with the main board through the connecting circuit board, and a power source unit being capable of supplying power to the display screen, the main board and the fingerprint identification assembly, characterized in that the main board is provided with a first through hole, and the identification unit is inserted into the first through hole.
Aircraft cabin area, comprising at least one deployable floor panel arrangement comprising a substantially planar floor panel with at least one foldable seat arrangement mounted thereto, wherein the seat arrangement comprises at least one backrest which is configured to be movable between a stowed position in which it extends at an angle (α) of approximately 0° to 40° to the plane of the floor panel and a deployed position in which it extends at an angle (α) of approximately 80° to 180° to the plane of the floor panel, characterized in that the floor panel is pivotable relative to a floor area of the aircraft cabin area so that the floor panel can be moved between a deployed position in which it rests on and covers a certain amount of the floor area of the aircraft cabin area and a stowed position in which it extends substantially transverse thereto with its planar underside facing the inside of the aircraft cabin area so as to clear the floor area rested on and covered in the deployed position of the floor panel for transporting cargo.
An in-vehicle ventilation system comprising: a host ECU (30, 40) configured to acquire vehicle outside information using wireless communication; an air conditioner ECU configured to control an air conditioner installed in a vehicle compartment; a zone ECU configured to control a device in the vehicle compartment and to communicate with the host ECU and the air conditioner ECU; and a power window unit configured to open and close a window of a vehicle, characterized in that the zone ECU or the host ECU is configured to perform, based on information acquired inside the vehicle compartment (110, i20) and the vehicle outside information to be acquired by the host ECU, interlocked ventilation control that interlockingly controls the power window unit and the air conditioner ECU such that the strength of ventilation is adjusted by interlocking the presence/absence of an air conditioner operation with the opening/closing of a window. a host ECU (30, 40) configured to acquire vehicle outside information using wireless communication; an air conditioner ECU configured to control an air conditioner installed in a vehicle compartment; a zone ECU configured to control a device in the vehicle compartment and to communicate with the host ECU and the air conditioner ECU; and a power window unit configured to open and close a window of a vehicle, characterized in that the zone ECU or the host ECU is configured to perform, based on information acquired inside the vehicle compartment (110, i20) and the vehicle outside information to be acquired by the host ECU, interlocked ventilation control that interlockingly controls the power window unit and the air conditioner ECU such that the strength of ventilation is adjusted by interlocking the presence/absence of an air conditioner operation with the opening/closing of a window.
Method for operating an electrostatic particle sensor designed to detect the particle concentration in the exhaust gas of an internal combustion engine, said particle sensor comprising a first electrode, a second electrode electrically insulated from the first electrode by means of an insulating body, a guard electrode electrically insulated from the first electrode and from the second electrode by means of the insulating body, and a voltage supply which is designed to apply a first electric potential to the first electrode when the particle sensor is in measuring mode, to apply a second electric potential to the second electrode in such a manner that an electrical voltage is created between the first electrode, and to apply an electrical guard potential to the guard electrode, wherein the method comprises: - application of the first electrical potential to the first electrode, application of the second electrical potential to the second electrode and application of the electrical guard potential to the guard electrode, characterized in that the method also comprises: - limiting a first leakage current flowing between the first electrode and the guard electrode via the insulating body to a first leakage-current limiting value by means of a first electrical limiting resistor arranged between the guard electrode and the voltage supply. - application of the first electrical potential to the first electrode, application of the second electrical potential to the second electrode and application of the electrical guard potential to the guard electrode, - limiting a first leakage current flowing between the first electrode and the guard electrode via the insulating body to a first leakage-current limiting value by means of a first electrical limiting resistor arranged between the guard electrode and the voltage supply.