mhurhangee/ep-ind-claims huggingface dataset:
A ball rotation amount measurement system for measuring a rotation amount of a ball moving in midair, the system comprising: a magnetic sensor fixed to the ball to measure geomagnetism in at least one axial direction; and a computation unit configured to compute the rotation amount of the ball by using data of a large number of the geomagnetism time-sequentially acquired by the magnetic sensor, wherein the computation unit includes: a difference data calculation unit configured to calculate a difference between two of the time-sequential geomagnetic data to thereby time-sequentially obtain a large number of difference data; a difference waveform calculation unit configured to determine a difference waveform that represents a time variation waveform of a large number of the difference data; and a rotation amount calculation unit configured to calculate the rotation amount of the ball, based on information of zero cross points at which the difference waveform crosses a straight line indicating zero-difference, the magnetic sensor is configured to measure the geomagnetism in three axial directions that are orthogonal to one another, and the difference data calculation unit is configured to calculate the difference data by using geomagnetic data having a largest amplitude among the geomagnetic data obtained in the three axial directions. a magnetic sensor fixed to the ball to measure geomagnetism in at least one axial direction; and a computation unit configured to compute the rotation amount of the ball by using data of a large number of the geomagnetism time-sequentially acquired by the magnetic sensor, wherein the computation unit includes: a difference data calculation unit configured to calculate a difference between two of the time-sequential geomagnetic data to thereby time-sequentially obtain a large number of difference data; a difference waveform calculation unit configured to determine a difference waveform that represents a time variation waveform of a large number of the difference data; and a rotation amount calculation unit configured to calculate the rotation amount of the ball, based on information of zero cross points at which the difference waveform crosses a straight line indicating zero-difference, a difference data calculation unit configured to calculate a difference between two of the time-sequential geomagnetic data to thereby time-sequentially obtain a large number of difference data; a difference waveform calculation unit configured to determine a difference waveform that represents a time variation waveform of a large number of the difference data; and a rotation amount calculation unit configured to calculate the rotation amount of the ball, based on information of zero cross points at which the difference waveform crosses a straight line indicating zero-difference, the magnetic sensor is configured to measure the geomagnetism in three axial directions that are orthogonal to one another, and the difference data calculation unit is configured to calculate the difference data by using geomagnetic data having a largest amplitude among the geomagnetic data obtained in the three axial directions.
An assembly for a turbofan engine including an engine case, the assembly comprising: a cowling configured to form a core compartment at least partially around the case, the cowling including an exhaust port therethrough which is fluidly coupled with the compartment; a door configured to at least partially open and close the exhaust port; and an actuation mechanism comprising a latch, the actuation mechanism configured to actuate movement of the door in response to receiving a control signal, wherein the actuation mechanism is configured to unlatch the door in response to receiving the control signal; characterised in that the actuation mechanism further comprises one or more active actuators configured for opening and closing the door; and in that the assembly comprises a controller configured to selectively control and regulate the amount the door opens and/or the speed with which the door opens based on operating conditions. a cowling configured to form a core compartment at least partially around the case, the cowling including an exhaust port therethrough which is fluidly coupled with the compartment; a door configured to at least partially open and close the exhaust port; and an actuation mechanism comprising a latch, the actuation mechanism configured to actuate movement of the door in response to receiving a control signal, wherein the actuation mechanism is configured to unlatch the door in response to receiving the control signal; characterised in that the actuation mechanism further comprises one or more active actuators configured for opening and closing the door; and in that the assembly comprises a controller configured to selectively control and regulate the amount the door opens and/or the speed with which the door opens based on operating conditions.
A fluid jet cutting system (10, 210, 310, 310), comprising: a multiaxial industrial robot (12, 212, 312) having an end effector (15, 215, 315) to grip a workpiece (14, 214, 314) to be processed, the multiaxial industrial robot (12, 212, 312) configured to selectively move the workpiece (14, 214, 314) within a working envelope defined by a range of motion of the multiaxial industrial robot (12, 212, 312); a fluid jet receptacle (22, 282, 322) located within the working envelope of the multiaxial industrial robot (12, 212, 312) to enable the workpiece (14, 214, 314) to be positioned above an inlet of the fluid jet receptacle (22, 282, 322); and a fluid jet cutting head (18, 218, 318) having an orifice to generate a high pressure fluid jet (232, 332) and a fluid jet outlet from which to discharge the high pressure fluid jet(232, 332), and wherein at least one of the fluid jet receptacle (22, 282, 322) and the fluid jet cutting head (18, 218, 318) is adjustable vertically to selectively adjust a clearance gap between the fluid jet outlet of the fluid jet cutting head (18, 218, 318) and the inlet of the fluid jet receptacle(22, 282, 322). a multiaxial industrial robot (12, 212, 312) having an end effector (15, 215, 315) to grip a workpiece (14, 214, 314) to be processed, the multiaxial industrial robot (12, 212, 312) configured to selectively move the workpiece (14, 214, 314) within a working envelope defined by a range of motion of the multiaxial industrial robot (12, 212, 312); a fluid jet receptacle (22, 282, 322) located within the working envelope of the multiaxial industrial robot (12, 212, 312) to enable the workpiece (14, 214, 314) to be positioned above an inlet of the fluid jet receptacle (22, 282, 322); and a fluid jet cutting head (18, 218, 318) having an orifice to generate a high pressure fluid jet (232, 332) and a fluid jet outlet from which to discharge the high pressure fluid jet(232, 332), and wherein at least one of the fluid jet receptacle (22, 282, 322) and the fluid jet cutting head (18, 218, 318) is adjustable vertically to selectively adjust a clearance gap between the fluid jet outlet of the fluid jet cutting head (18, 218, 318) and the inlet of the fluid jet receptacle(22, 282, 322).
A method for lens presence and condition detection using a light emitter and a light detector both aligned with the width of the lens, as opposed to the functional direction of the lens, the method comprising: emitting, using the light emitter, light that is directed to pass through the lens, the light directed at a first edge of the lens; detecting, using the light detector, an intensity of the light proximate an opposing, second edge of the lens; determining a presence of the lens based on the detected intensity of the light that passes through the lens; determining a condition of the lens based on the detected intensity of the light that passes through the lens; wherein the detected intensity of the light that passes through the lens depends on the presence and condition of the lens; and wherein determining the presence of the lens and determining the condition of the lens comprise using the lens, when present, as a waveguide which concentrates the light emitter's divergent light beams and produces a higher intensity light at the light detector than would otherwise if the lens was not present, wherein the highest intensity of the light that passes through the lens is detected when the lens is present and not damaged. emitting, using the light emitter, light that is directed to pass through the lens, the light directed at a first edge of the lens; detecting, using the light detector, an intensity of the light proximate an opposing, second edge of the lens; determining a presence of the lens based on the detected intensity of the light that passes through the lens; determining a condition of the lens based on the detected intensity of the light that passes through the lens; wherein the detected intensity of the light that passes through the lens depends on the presence and condition of the lens; and wherein determining the presence of the lens and determining the condition of the lens comprise using the lens, when present, as a waveguide which concentrates the light emitter's divergent light beams and produces a higher intensity light at the light detector than would otherwise if the lens was not present, wherein the highest intensity of the light that passes through the lens is detected when the lens is present and not damaged.
A disposable absorbent article for wearing about the lower torso of a wearer, the disposable absorbent article comprising: a first waist region, a second waist region, a crotch region disposed between the first and second waist regions (36, 38); a first waist edge and a second waist edge; and a first longitudinal edge and a second longitudinal edge; wherein the disposable absorbent article comprises a chassis comprising: 1.) a topsheet; 2.) a backsheet; and 3.) an absorbent core disposed between the topsheet and the backsheet; wherein the disposable absorbent article further comprises a leg gasketing system and at least one waist gasketing element; wherein the leg gasketing system comprises a web of material forming an inner cuff and an outer cuff; wherein the inner cuff comprises an inner cuff folded edge and an inner cuff material edge and the outer cuff comprises an outer cuff folded edge and an outer cuff material edge, such that the web of material is folded laterally inward toward the longitudinal centerline of the absorbent article to form the outer cuff folded edge and folded laterally outward away from the longitudinal centerline of the absorbent article to form the inner cuff folded edge; wherein the leg gasketing system pocket is free of elastic members; wherein at least a portion of the web of material between the outer cuff folded edge and the outer cuff material edge is attached to the chassis in the first waist region, the second waist region and the crotch region; and at least a portion of the web of material between the inner cuff folded edge and the outer cuff folded edge is attached to the web of material between the outer cuff folded edge and the outer cuff material edge in the crotch region and the first waist region; and the web of material between the inner cuff folded edge and the outer cuff folded edge is unattached to the web of material between the outer cuff folded edge and the outer cuff material edge in at least a portion of the second waist region, forming a leg gasketing system pocket with an opening on an inboard longitudinal edge of the leg gasketing system pocket; wherein the at least one waist gasketing element has an inboard lateral edge, an outboard lateral edge, and two longitudinal edges; the at least one waist gasketing element comprising at least one elastic material; wherein the at least one waist gasketing element is attached to: 1) the chassis of the disposable absorbent article and 2) the leg gasketing system, such that at least a portion of the outboard lateral edge of the waist gasketing element is attached to the chassis and at least a portion of the outboard lateral edge of the waist gasketing element is attached to the web of material forming the leg gasketing system; and wherein the inboard lateral edge of the waist gasketing element is unattached to the chassis of the disposable absorbent article; wherein when tested by a Blowout Method Test as described herein, the disposable absorbent article has a Blowout Percent Leakage of less than 9.0%. 1.) a topsheet; 2.) a backsheet; and 3.) an absorbent core disposed between the topsheet and the backsheet;
Individual cell, comprising a housing formed from a first housing part, a second housing part and a housing frame, in which housing an electrolyte and an electrochemically active electrode foil unit are accommodated, wherein the housing comprises a pressure relief device and the first housing side part comprises a housing side part segment, of which at least a section exceeds a length of the individual cell, which is angled in the direction of the cell interior relative to the first housing side part and in which the pressure relief device is located, wherein a venting opening is further provided in a lateral region of the housing and the pressure relief device, characterised in that the venting opening is located in the housing frame, in that the housing side part segment is at least partially cast into the frame, and in that the housing side part segment is repeatedly angled towards an inner surface side of the first housing part.
An information processing apparatus for performing video chatting between a user of the information processing apparatus and a conversation partner, comprising: a display unit; a control unit configured to control switching between a first display state of the display unit and a second display state of the display unit according to a trigger operation that is a specific operation of the user, wherein the trigger operation is based on operation information indicating an operation performed by the user; wherein the control unit is configured to control video chat communication with an information processing apparatus of the conversation partner, when the trigger operation is detected; a communication unit configured to transmit and receive video information to and from the information processing apparatus of the conversation partner, wherein the video information includes a captured image of the conversation partner; wherein the trigger operation is an operation of the user in which a line of sight of the user is turned to or away from a predetermined region of a display screen of the display unit; wherein the second display state is a display state in which the captured image of the conversation partner is displayed as a second content; wherein the first display state is a display state in which the second content is not displayed and transmission and reception of video information to and from the information processing apparatus of the conversation partner is not performed. a display unit; a control unit configured to control switching between a first display state of the display unit and a second display state of the display unit according to a trigger operation that is a specific operation of the user, wherein the trigger operation is based on operation information indicating an operation performed by the user; wherein the control unit is configured to control video chat communication with an information processing apparatus of the conversation partner, when the trigger operation is detected; a communication unit configured to transmit and receive video information to and from the information processing apparatus of the conversation partner, wherein the video information includes a captured image of the conversation partner; wherein the trigger operation is an operation of the user in which a line of sight of the user is turned to or away from a predetermined region of a display screen of the display unit; wherein the second display state is a display state in which the captured image of the conversation partner is displayed as a second content; wherein the first display state is a display state in which the second content is not displayed and transmission and reception of video information to and from the information processing apparatus of the conversation partner is not performed.
An alarm setting method comprising: acquiring (101, 201) a target smart scene of a home device via a smart home application for controlling said device, the target smart scene indicating performance of a target operation at a triggering time; acquiring (102, 202) the triggering time from the target smart scene; and setting (103, 203) an alarm time based on the triggering time, the alarm time being set in an alarm application, characterized in that the step (103, 203) of setting the alarm time based on the triggering time comprises: acquiring a setting property of the alarm time, the setting property indicating a time sequence relation between the alarm time and the triggering time; and setting the alarm time, via a specified port between the smart home application and the alarm application, based on the setting property and the triggering time. acquiring (101, 201) a target smart scene of a home device via a smart home application for controlling said device, the target smart scene indicating performance of a target operation at a triggering time; acquiring (102, 202) the triggering time from the target smart scene; and setting (103, 203) an alarm time based on the triggering time, the alarm time being set in an alarm application, characterized in that the step (103, 203) of setting the alarm time based on the triggering time comprises: acquiring a setting property of the alarm time, the setting property indicating a time sequence relation between the alarm time and the triggering time; and setting the alarm time, via a specified port between the smart home application and the alarm application, based on the setting property and the triggering time. acquiring a setting property of the alarm time, the setting property indicating a time sequence relation between the alarm time and the triggering time; and setting the alarm time, via a specified port between the smart home application and the alarm application, based on the setting property and the triggering time.
A pressure rotating member which is used in a thermal fixing apparatus, comprising: a substrate; and an elastic layer which is provided on the substrate and has voids (4b2) and contains a needle-shaped filler (4b1), characterized in that the elastic layer is a single layer and has a porosity from 20 vol% or more and 70 vol% or less, and a thermal conductivity λ1 of the elastic layer in a direction along a rotary axis of the pressure rotating member is 6 times or more and 900 times or less of a thermal conductivity λ2 of the elastic layer in a thickness direction. a substrate; and an elastic layer which is provided on the substrate and has voids (4b2) and contains a needle-shaped filler (4b1),
A process for determining the spin state of a spin transition compound by irradiating it with light having a wavelength in a defined wavelength range in order to effectuate an interaction between said spin transition compound and said light, detecting changes in the light's properties caused by said interaction and correlating these changes with the spin state of said compound, wherein a spin transition compound having chiro-optical properties that change depending on the compound's spin state is used, polarized light is used for irradiating said compound and a change in the light's properties is correlated with the chiro-optical properties of said compound, wherein linearly polarized light is used for irradiating said compound and a change of the light's polarization direction is detected and correlated with the spin state of said compound, characterized in that a) a chiral transition metal complex comprising at least one chiral ligand is used as said spin transition compound; and b) said spin transition compound is present in its solid state and bound to a solid surface. a) a chiral transition metal complex comprising at least one chiral ligand is used as said spin transition compound; and b) said spin transition compound is present in its solid state and bound to a solid surface.
A communication device for transmitting a video to an external device, the communication device comprising: a reading module configured to read first video data of a given format; a conversion module configured to convert the first video data of the given format into second video data of a YCrCb 4:2:0 format, the YCrCb 4:2:0 format having four luminance values (Y00, Y01, Y10, Y11) and two color difference values (Cb00, Cr10) for every four pixels; and a transmitter configured to transmit the video through a first, second, and third transmission line (CH0, CH1, CH2), wherein the transmitter comprises: a TMDS encoder configured to: assign color difference values (Cb00, Cr10) of the second video data only with the first transmission line, and assign luminance values (Y00, Y01, Y10, Y11) of the second video data only with the second transmission line and the third transmission line. a reading module configured to read first video data of a given format; a conversion module configured to convert the first video data of the given format into second video data of a YCrCb 4:2:0 format, the YCrCb 4:2:0 format having four luminance values (Y00, Y01, Y10, Y11) and two color difference values (Cb00, Cr10) for every four pixels; and a transmitter configured to transmit the video through a first, second, and third transmission line (CH0, CH1, CH2), wherein the transmitter comprises: a TMDS encoder configured to: assign color difference values (Cb00, Cr10) of the second video data only with the first transmission line, and assign luminance values (Y00, Y01, Y10, Y11) of the second video data only with the second transmission line and the third transmission line. assign color difference values (Cb00, Cr10) of the second video data only with the first transmission line, and assign luminance values (Y00, Y01, Y10, Y11) of the second video data only with the second transmission line and the third transmission line.
T cells genetically modified to express a chimeric antigen receptor targeted to an antigen and/or a nucleic acid encoding the antigen for use in a method of treatment by therapy, by providing an immune response to a target cell population or target tissue expressing the antigen in a mammal, the method comprising administering to the mammal the T cells genetically modified to express a CAR by systemic administration and administering the nucleic acid encoding the antigen, wherein the nucleic acid encoding the antigen is RNA formulated in liposomes, wherein the chimeric antigen receptor preferably comprises an antigen binding domain, a signaling domain and a costimulatory domain.