mhurhangee/ep-ind-claims huggingface dataset:
In a server system for communicating with a sensor kit for a spray gun, a method of reconstructing coating data, characterised in that the method comprises: receiving, from the sensor kit, spray job parameter values comprising: - distance data over a first period of time, indicative of a distance between the spray gun and a surface on which a coating has been applied; - orientation data over the first period of time, indicative of an orientation of the spray gun during the application of the coating; and - movement data over the first period of time, indicative of movements of the spray gun during the application of the coating; and reconstructing coating data based on at least part of the distance data, the orientation data, and the movement data. receiving, from the sensor kit, spray job parameter values comprising: - distance data over a first period of time, indicative of a distance between the spray gun and a surface on which a coating has been applied; - orientation data over the first period of time, indicative of an orientation of the spray gun during the application of the coating; and - movement data over the first period of time, indicative of movements of the spray gun during the application of the coating; and - distance data over a first period of time, indicative of a distance between the spray gun and a surface on which a coating has been applied; - orientation data over the first period of time, indicative of an orientation of the spray gun during the application of the coating; and - movement data over the first period of time, indicative of movements of the spray gun during the application of the coating; and reconstructing coating data based on at least part of the distance data, the orientation data, and the movement data.
Superconductive magnet coil assembly comprising a layer-wound coil that is cylindrically symmetric with respect to an axis of symmetry (z) and is intended for generating an operating magnetic field in a working volume around the axis of symmetry (z), and having a sectional plane that contains the axis of symmetry (z) and intersects the coil, the coil having a rectangular coil cross section in the sectional plane, which cross section is defined by a radially inner and radially outer and a first axial and second axial coil edge defined by the position of a radially innermost winding and a radially outermost winding of the coil that are at the smallest and largest distance, respectively, from the axis of symmetry (z), and by the position of a first axial and a last axial winding of the coil having the smallest and largest coordinates, respectively, in the direction of the axis of symmetry, the coil comprising at least one first strip-like superconductor and one second strip-like superconductor, the strip-like superconductors having a width-to-height (width to thickness) ratio of > 3, the strip-like superconductors (BL1; BL2) being guided into a region outside the rectangular coil cross section and being electrically connected there, the strip-like superconductors (BL1; BL2) having different superconducting current-carrying capacities when the field, the field direction relative to the strip plane, and the temperature, are the same, characterized in that the coil comprises: a first rectangular portion (1; 1'; 1"; 1'") within the rectangular coil cross section which completely covers the coil cross section in the direction of the axis of symmetry, at least one second and third rectangular portion (2; 2'; 2"; 2"') and (3; 3'; 3"; 3"') within the first rectangular portion (1; 1'; 1"; 1'") which cover the first rectangular portion completely in the radial direction and in part in the axial direction, the second rectangular portion (2; 2'; 2"; 2"') being completely wound with the first strip-like superconductor, and the third rectangular portion (3; 3'; 3"; 3"') being completely wound with the second strip-like superconductor, and the second and the third rectangular portion (2; 2'; 2"; 2"') and (3; 3'; 3"; 3"') being disjunct. a first rectangular portion (1; 1'; 1"; 1'") within the rectangular coil cross section which completely covers the coil cross section in the direction of the axis of symmetry, at least one second and third rectangular portion (2; 2'; 2"; 2"') and (3; 3'; 3"; 3"') within the first rectangular portion (1; 1'; 1"; 1'") which cover the first rectangular portion completely in the radial direction and in part in the axial direction, the second rectangular portion (2; 2'; 2"; 2"') being completely wound with the first strip-like superconductor, and the third rectangular portion (3; 3'; 3"; 3"') being completely wound with the second strip-like superconductor, and the second and the third rectangular portion (2; 2'; 2"; 2"') and (3; 3'; 3"; 3"') being disjunct.
A system for curing a portion of a tire assembly comprising: an axial placement shaft; a first actuator slid onto the axial placement shaft; a first retainer plate adjacent the first actuator on the axial placement shaft; a core on the axial placement shaft; a plurality of first inserts each axially and radially engaging a radially outer surface of the core with first ends of the first inserts axially engaging the first retainer plate; a plurality of second inserts each axially and radially engaging the radially outer surface of the core with first ends of the second inserts axially engaging the first retainer plate, each second insert being disposed circumferentially between two of the plurality of first inserts; a second retainer plate securing opposite second parts of the first inserts and opposite second parts of the second inserts to the axial placement shaft; and a second actuator slid onto the axial placement shaft. an axial placement shaft; a first actuator slid onto the axial placement shaft; a first retainer plate adjacent the first actuator on the axial placement shaft; a core on the axial placement shaft; a plurality of first inserts each axially and radially engaging a radially outer surface of the core with first ends of the first inserts axially engaging the first retainer plate; a plurality of second inserts each axially and radially engaging the radially outer surface of the core with first ends of the second inserts axially engaging the first retainer plate, each second insert being disposed circumferentially between two of the plurality of first inserts; a second retainer plate securing opposite second parts of the first inserts and opposite second parts of the second inserts to the axial placement shaft; and a second actuator slid onto the axial placement shaft.
An imaging apparatus comprising: a lens; a mask comprising a first aperture and a second aperture, light passing through the lens being incident on the first aperture and the second aperture; and an image sensor configured to perform photoelectric conversion on first light that passes through the first aperture and on second light that passes through the second aperture, the first light and the second light being irradiated on an optical detection surface of the image sensor; wherein light dispersed by chromatic aberration of the lens is incident on the second aperture; and an irradiation position on the optical detection surface of each wavelength band of the second light is different; wherein a first area of the optical detection surface irradiated by the first light and a second area of the optical detection surface irradiated by the second light are separated from each other. a lens; a mask comprising a first aperture and a second aperture, light passing through the lens being incident on the first aperture and the second aperture; and an image sensor configured to perform photoelectric conversion on first light that passes through the first aperture and on second light that passes through the second aperture, the first light and the second light being irradiated on an optical detection surface of the image sensor; wherein light dispersed by chromatic aberration of the lens is incident on the second aperture; and an irradiation position on the optical detection surface of each wavelength band of the second light is different;
A method, comprising: receiving, by a control panel, patient data generated by at least two sensors in a scan room, wherein the at least two sensors are each a camera, the patient data corresponding to dimensions of a body of a patient; receiving, by the control panel, weight data of the patient from a weight sensor, wherein the weight data is the weight of the patient, wherein the scan room comprises a floor, wherein the weight sensor covers a portion of the floor of the scan room; generating, by the control panel, model data as a function of the patient data and the weight data using a parameter library, wherein the parameter library is a table of data from which the patient data and the weight data are referenced to generate the model data, wherein the the model data represents the body of the patient; receiving, by the control panel, a target location on the model data, the target location corresponding to a desired position on the body of the patient for performing an imaging scan with an MRI device; and determining, by the control panel, an isocenter for the imaging scan as a function of the target location. receiving, by a control panel, patient data generated by at least two sensors in a scan room, wherein the at least two sensors are each a camera, the patient data corresponding to dimensions of a body of a patient; receiving, by the control panel, weight data of the patient from a weight sensor, wherein the weight data is the weight of the patient, wherein the scan room comprises a floor, wherein the weight sensor covers a portion of the floor of the scan room; generating, by the control panel, model data as a function of the patient data and the weight data using a parameter library, wherein the parameter library is a table of data from which the patient data and the weight data are referenced to generate the model data, wherein the the model data represents the body of the patient; receiving, by the control panel, a target location on the model data, the target location corresponding to a desired position on the body of the patient for performing an imaging scan with an MRI device; and determining, by the control panel, an isocenter for the imaging scan as a function of the target location.
A device combination for protection against overvoltages with a preferably U-shaped lower portion and a pluggable module including an overvoltage protection element and being connectable in a plug-in manner to said lower portion, the lower portion including plug-in contacts contacted with connecting leads, and the pluggable module including corresponding plug-in elements, and retention means or latching means acting between pluggable module and lower portion being provided that in the pluged-in position of lower portion and pluggable module engage each other and are detachable and/or unlatchable by manipulation, in order to separate the pluggable module from the lower portion, a spring member acting between the lower portion and the pluggable module being provided, which with plugged-in pluggable module is biased and with detached or unlatched retention means or latching means adjusts the pluggable module against the direction of insertion into a removal position, characterized by that the spring member is formed by at least one plug-in contact or one plug-in element, which is configured in a fork-type manner with resilient legs, and that the part corresponding to the spring member, namely a plug-in element or a plug-in contact has contact surfaces being tapered in the direction of insertion in a wedge-like manner, the contact surfaces, in the plug-in position, resting against the legs under resilient tension of the legs, the wedge angle of the wedge-type contact surfaces being greater than the self-locking angle.
A system for a gas turbine engine extending along a centerline, the system comprising: a high pressure turbine disk; a high pressure turbine coverplate axially rearward of the high pressure turbine disk and having an arm that extends axially rearward; a low pressure turbine disk axially rearward of the high pressure turbine coverplate, the low pressure turbine disk having a slot into which the arm of the high pressure turbine coverplate extends; a low pressure turbine coverplate at least partially axially between the high pressure turbine coverplate and the low pressure turbine disk; an interface between the low pressure turbine disk and the low pressure turbine coverplate, the system being characterised in that the interface being radially outward from the arm of the high pressure turbine coverplate and having a groove (40, 54); and a ring within the groove (40, 54) at the interface and extending radially inward towards the arm of the high pressure turbine coverplate, the ring being configured to prevent axial movement of the low pressure turbine coverplate relative to the low pressure turbine disk and to form a first metering point to meter air flowing between the high pressure turbine coverplate and the low pressure turbine disk; and wherein the interface includes low pressure turbine disk teeth and low pressure turbine coverplate teeth that alternate and interlock in a circumferential direction, each of the low pressure turbine disk teeth and the low pressure turbine coverplate teeth include the groove (40, 54) with the ring positioned within the groove (40, 54) to prevent movement of the low pressure turbine disk teeth relative to the low pressure turbine coverplate teeth. a high pressure turbine disk; a high pressure turbine coverplate axially rearward of the high pressure turbine disk and having an arm that extends axially rearward; a low pressure turbine disk axially rearward of the high pressure turbine coverplate, the low pressure turbine disk having a slot into which the arm of the high pressure turbine coverplate extends; a low pressure turbine coverplate at least partially axially between the high pressure turbine coverplate and the low pressure turbine disk; an interface between the low pressure turbine disk and the low pressure turbine coverplate, the system being characterised in that the interface being radially outward from the arm of the high pressure turbine coverplate and having a groove (40, 54); and a ring within the groove (40, 54) at the interface and extending radially inward towards the arm of the high pressure turbine coverplate, the ring being configured to prevent axial movement of the low pressure turbine coverplate relative to the low pressure turbine disk and to form a first metering point to meter air flowing between the high pressure turbine coverplate and the low pressure turbine disk; and
A respiratory assembly comprising: - an artificial respirator provided with an output through which said artificial respirator: receives pulses of polluted respiratory gas corresponding to exhalations for a patient, and. in response to said pulses of polluted respiratory gas, emits pulses of fresh respiratory gas corresponding to inhalations for said patient; and - a respiratory probe, whose distal end is intended to be inserted in the respiratory system of said patient and whose proximal end is connected to said output of said artificial respirator, characterized in that: - said probe (I, II, III) comprises two independent channels (1, 2-10, 20-11, 20) of which:. the distal ends are intended to be inserted in common in said respiratory system of said patient, and. the proximal ends are connected in common to said output of said artificial respirator through respective unidirectional valves (5, 6); and - one of said unidirectional valves allows flow in the direction from the proximal end towards the distal end of the channel to which it is connected, whilst the other of said unidirectional vales allows flow in the direction from the distal end towards the proximal end of the other one of said channels to which it is connected. - an artificial respirator provided with an output through which said artificial respirator: receives pulses of polluted respiratory gas corresponding to exhalations for a patient, and. in response to said pulses of polluted respiratory gas, emits pulses of fresh respiratory gas corresponding to inhalations for said patient; and receives pulses of polluted respiratory gas corresponding to exhalations for a patient, and. in response to said pulses of polluted respiratory gas, emits pulses of fresh respiratory gas corresponding to inhalations for said patient; and - a respiratory probe, whose distal end is intended to be inserted in the respiratory system of said patient and whose proximal end is connected to said output of said artificial respirator, - said probe (I, II, III) comprises two independent channels (1, 2-10, 20-11, 20) of which:. the distal ends are intended to be inserted in common in said respiratory system of said patient, and. the proximal ends are connected in common to said output of said artificial respirator through respective unidirectional valves (5, 6); and. the distal ends are intended to be inserted in common in said respiratory system of said patient, and. the proximal ends are connected in common to said output of said artificial respirator through respective unidirectional valves (5, 6); and - one of said unidirectional valves allows flow in the direction from the proximal end towards the distal end of the channel to which it is connected, whilst the other of said unidirectional vales allows flow in the direction from the distal end towards the proximal end of the other one of said channels to which it is connected.
A method of manufacturing a tread portion (165, 175, 200) of a tire, the steps comprising: providing a first layer of uncured tire rubber; creating apertures in the first layer of uncured tire rubber; curing portions of the first layer of uncured tire rubber that are adjacent to the apertures of the first layer without curing all of the first layer of uncured tire rubber; placing a second layer of uncured tire rubber onto the first layer; and, bonding the second layer to the first layer without significantly cross-linking the second layer to the first layer at locations within the apertures of the first layer. providing a first layer of uncured tire rubber; creating apertures in the first layer of uncured tire rubber; curing portions of the first layer of uncured tire rubber that are adjacent to the apertures of the first layer without curing all of the first layer of uncured tire rubber; placing a second layer of uncured tire rubber onto the first layer; and, bonding the second layer to the first layer without significantly cross-linking the second layer to the first layer at locations within the apertures of the first layer.
A solid state radio frequency generation system for an electromagnetic cooking device having an enclosed cavity in which a food load is placed, the solid state radio frequency generation system comprising: a small signal generator for generating an input RF signal; an RF feed (26, 26A-26D) configured to introduce electromagnetic radiation into the enclosed cavity to heat up and prepare the food load, the RF feed (26, 26A-26D) configured to receive reflected electromagnetic radiation from the enclosed cavity; and a high-power RF amplifier (18, 18A-18D) coupled between the small signal generator and the RF feed (26, 26A-26D), the high-power RF amplifier (18, 18A-18D) comprising: at least one amplifying stage (100a, 100b) configured to output a signal that is amplified in power with respect to the input RF signal; and a circulator for directing the amplified output signal to the RF feed (26, 26A-26D) and for redirecting any reflected waves and their associated power received from the RF feed (26, 26A-26D) to a dummy load; characterised in that the solid state radio frequency generation system comprises a hardware protection component for detecting backward power in the reflected electromagnetic radiation received by the RF feed (26, 26A-26D) and for reducing power supplied to the at least one amplifying stage (100a, 100b) if the backward power exceeds a power threshold within a time scale that prevents electrical stress or damage to the circulator. a small signal generator for generating an input RF signal; an RF feed (26, 26A-26D) configured to introduce electromagnetic radiation into the enclosed cavity to heat up and prepare the food load, the RF feed (26, 26A-26D) configured to receive reflected electromagnetic radiation from the enclosed cavity; and a high-power RF amplifier (18, 18A-18D) coupled between the small signal generator and the RF feed (26, 26A-26D), the high-power RF amplifier (18, 18A-18D) comprising: at least one amplifying stage (100a, 100b) configured to output a signal that is amplified in power with respect to the input RF signal; and a circulator for directing the amplified output signal to the RF feed (26, 26A-26D) and for redirecting any reflected waves and their associated power received from the RF feed (26, 26A-26D) to a dummy load; at least one amplifying stage (100a, 100b) configured to output a signal that is amplified in power with respect to the input RF signal; and a circulator for directing the amplified output signal to the RF feed (26, 26A-26D) and for redirecting any reflected waves and their associated power received from the RF feed (26, 26A-26D) to a dummy load; characterised in that the solid state radio frequency generation system comprises a hardware protection component for detecting backward power in the reflected electromagnetic radiation received by the RF feed (26, 26A-26D) and for reducing power supplied to the at least one amplifying stage (100a, 100b) if the backward power exceeds a power threshold within a time scale that prevents electrical stress or damage to the circulator.
Body consisting of at least 25% by weight, based on the total weight of the body, of chocolate mass, the chocolate mass comprising cocoa butter and cocoa liquor, at least one sweetener and at least 1% by weight, based on the total weight of the chocolate mass, of hydrolysed oat flour.
A method for investigating an optical element embedded in an intraoral scanner, the method comprising: an image recognizing operation of acquiring image data by receiving light reflected from an object and refracted and/or reflected by the optical element in a measurement area of the intraoral scanner; a foreign matter detecting operation of checking whether foreign matter is stained on the optical element from the image data; and a notification generating operation of generating a feedback when it is determined that the foreign matter exists on the optical element as the foreign matter detecting operation is performed. an image recognizing operation of acquiring image data by receiving light reflected from an object and refracted and/or reflected by the optical element in a measurement area of the intraoral scanner; a foreign matter detecting operation of checking whether foreign matter is stained on the optical element from the image data; and a notification generating operation of generating a feedback when it is determined that the foreign matter exists on the optical element as the foreign matter detecting operation is performed.
Motor vehicle door lock, having a locking mechanism (1, 2), an actuating lever mechanism (3, 4, 16) interacting with the locking mechanism (1, 2), furthermore a drive (6, 7, 8, 9) acting on the actuating lever mechanism (3, 4, 16), and an anti-theft protection device (10, 11), wherein a buffer element (12, 13) is assigned to the actuating lever mechanism (3, 4, 16) and a unlocking lever interacting with the actuating lever mechanism (3, 4, 16), the buffer element being controlled by the anti-theft protection device (10, 11) according to a desired functional position of the locking mechanism (1, 2), characterized in that the buffer element (12, 13) is formed two-part with a leg spring and a tilt spring such that the leg spring interacts on the one hand with a coupling lever and on the other hand with the unlocking lever, and that the one free leg of the leg spring lies against the coupling lever and the other fixed leg against a pin of the unlocking lever.