mhurhangee/ep-ind-claims huggingface dataset:
A shed forming device for a Jacquard loom, comprising: - two series of longitudinal blades (12,14) extending parallel to a longitudinal axis of the shed forming device, driven in an alternating vertical movement in phase opposition and coupled, at each of their ends, to a driving bar (30, 32, 34, 36); - an upper oscillating shaft and a lower oscillating shaft that extend one above the other and that are respectively provided, at each of their ends, with two tilting levers (405, 406, 425, 426) each coupled to a driving bar by a connecting rod (50, 52); - two chassis platens (22, 24), between which the two series of knives and the oscillating shafts extend and which are provided with articulation bearings (220, 222, 240, 242) of the oscillating shafts; - an input shaft driven by a continuous rotational movement and equipped with a first eccentric and a second eccentric that are positioned near a first platen, among the two chassis platens (22, 24), outside a volume defined between these platens, the first eccentric driving a first control connecting rod hitched to a first crank belonging to a first oscillating shaft, among the two oscillating shafts (40, 42), the second eccentric driving a second control connecting rod (86_ hitched to a second crank belonging to the second oscillating shaft, among the two oscillating shafts, and the first control connecting rod being further from the first platen, along the longitudinal axis, than the second control connecting rod, characterized in that the two eccentrics (74, 76), the two control connecting rods (84, 86) and the two cranks (408, 428) are contained in a casing that supports at least one additional articulation bearing of the first oscillating shaft. - two series of longitudinal blades (12,14) extending parallel to a longitudinal axis of the shed forming device, driven in an alternating vertical movement in phase opposition and coupled, at each of their ends, to a driving bar (30, 32, 34, 36); - an upper oscillating shaft and a lower oscillating shaft that extend one above the other and that are respectively provided, at each of their ends, with two tilting levers (405, 406, 425, 426) each coupled to a driving bar by a connecting rod (50, 52); - two chassis platens (22, 24), between which the two series of knives and the oscillating shafts extend and which are provided with articulation bearings (220, 222, 240, 242) of the oscillating shafts; - an input shaft driven by a continuous rotational movement and equipped with a first eccentric and a second eccentric that are positioned near a first platen, among the two chassis platens (22, 24), outside a volume defined between these platens, the first eccentric driving a first control connecting rod hitched to a first crank belonging to a first oscillating shaft, among the two oscillating shafts (40, 42), the second eccentric driving a second control connecting rod (86_ hitched to a second crank belonging to the second oscillating shaft, among the two oscillating shafts, and the first control connecting rod being further from the first platen, along the longitudinal axis, than the second control connecting rod,
A synthetic silica glass for optical member to be used within an optical apparatus using light having a wavelength or 250 nm or less as a light source, wherein, in an optically effective area within a vertical plane to a principal optical axis direction of the optical member, an average value of a value BRcos2θ xy defined from a birefringence BR and a fast axis direction θ xy as measured from a parallel direction to the principal optical axis direction is defined as an average birefringence AveBRcos2θ x,y, and when a maximum value of a birefringence measured from a vertical direction to the principal optical axis direction of the optical member is defined as a maximum birefringence BR max in an off-axis direction, the following expression and expression are established, and a refractive index distribution Δn in the principal optical axis direction is 2 × 10 -6 or less, and a refractive index distribution Δn in the off-axis direction is 5 × 10 -6 or less, provided that each of the numerical values of BR, θ x,y, BR max and Δn is a measured value at a wavelength of 633 nm, and a unit of the birefringence is nm/cm: − 1.0 ≤ AveBRcos 2 θ xy < 0.0 0.0 ≤ BR max ≤ 1.0
An apparatus for insertion of capsules into cigarette filter tows, comprising: a tow processing unit coupled to a capsule insertion unit and a filter rod making unit coupled to the capsule insertion unit; the rod making unit further comprising a garniture bed, a sensor and a knife carrier; the tow processing unit further comprising a tow bale, a plurality of rollers, a plurality of banding jets and a plasticizer chamber; and the capsule insertion unit further comprising a hopper and an inlet pipe, a capsule feeder wheel rotating about a first axis of rotation, said feeder wheel further comprising an inner cavity in communication with said inlet pipe, a capsule insertion wheel in operative communication with said feeder wheel and rotating about a second axis of rotation, and a tow gathering funnel configured to receive an edge of said insertion wheel, characterized in that a circumferential edge of said capsule feeder wheel is at an angle to said first axis of rotation, a circumferential edge of said capsule insertion wheel is at an angle to said second axis of rotation, such that said circumferential edge of said capsule feeder wheel is parallel to said circumferential edge of said capsule insertion wheel at an interface locus between said capsule feeder wheel and said capsule insertion wheel. a tow processing unit coupled to a capsule insertion unit and a filter rod making unit coupled to the capsule insertion unit; the rod making unit further comprising a garniture bed, a sensor and a knife carrier; the tow processing unit further comprising a tow bale, a plurality of rollers, a plurality of banding jets and a plasticizer chamber; and the capsule insertion unit further comprising a hopper and an inlet pipe, a capsule feeder wheel rotating about a first axis of rotation, said feeder wheel further comprising an inner cavity in communication with said inlet pipe, a capsule insertion wheel in operative communication with said feeder wheel and rotating about a second axis of rotation, and a tow gathering funnel configured to receive an edge of said insertion wheel, a circumferential edge of said capsule feeder wheel is at an angle to said first axis of rotation, a circumferential edge of said capsule insertion wheel is at an angle to said second axis of rotation, such that said circumferential edge of said capsule feeder wheel is parallel to said circumferential edge of said capsule insertion wheel at an interface locus between said capsule feeder wheel and said capsule insertion wheel.
An amusement park system, comprising: a modular attraction system, comprising: a ride vehicle having seats to accommodate passengers; and an on-board system integrated with the ride vehicle and comprising a plurality of game systems connected via a network, wherein each game system of the plurality of game systems is configured to provide an augmented reality experience, or a virtual reality experience, or both, via a respective visual experience generator device, and wherein the AR experience, or the VR experience, or both, is provided within a game shared between the plurality of game systems; wherein the plurality of game systems is integrated into the ride vehicle, and the game systems of the plurality of game systems are connected via the network to one another in a manner that allows for ready removal of at least one game system of the plurality of game systems without affecting operation of remaining game systems of the plurality of game systems. a ride vehicle having seats to accommodate passengers; and an on-board system integrated with the ride vehicle and comprising a plurality of game systems connected via a network, wherein each game system of the plurality of game systems is configured to provide an augmented reality experience, or a virtual reality experience, or both, via a respective visual experience generator device, and wherein the AR experience, or the VR experience, or both, is provided within a game shared between the plurality of game systems; wherein the plurality of game systems is integrated into the ride vehicle, and the game systems of the plurality of game systems are connected via the network to one another in a manner that allows for ready removal of at least one game system of the plurality of game systems without affecting operation of remaining game systems of the plurality of game systems.
A method of communicating data comprising: from a plurality of backhaul sites (120 - 125) that are each configured to wirelessly communicate with a particular access point, dynamically selecting at least a first backhaul site and a second backhaul site; dynamically configuring at least one transmission parameter used to communicate a first backhaul data stream between the access point and the first backhaul site. deriving the first backhaul data stream from a source data stream; deriving at least a second backhaul data stream from the source data stream; wirelessly communicating the first backhaul data stream between the access point and the first backhaul site; wirelessly communicating the second backhaul data stream between the access point and the second backhaul site; and combining the first backhaul data stream with the second backhaul data stream. from a plurality of backhaul sites (120 - 125) that are each configured to wirelessly communicate with a particular access point, dynamically selecting at least a first backhaul site and a second backhaul site; dynamically configuring at least one transmission parameter used to communicate a first backhaul data stream between the access point and the first backhaul site. deriving the first backhaul data stream from a source data stream; deriving at least a second backhaul data stream from the source data stream; wirelessly communicating the first backhaul data stream between the access point and the first backhaul site; wirelessly communicating the second backhaul data stream between the access point and the second backhaul site; and combining the first backhaul data stream with the second backhaul data stream.
A computer-implemented method for calculating a location of a mobile computing device within an environment, comprising: receiving, at the mobile computing device, a coded light signal originating from a light source, wherein the coded light signal carries information about a location in the form of position coordinates of a center of a lighting effect projected by the light source onto a surface; extracting, by the mobile computing device from the coded light signal, the information about a location in the form of position coordinates of a center of a lighting effect projected by the light source onto a surface; determining, by the mobile computing device, an orientation of the mobile computing device relative to the surface; and calculating, by the mobile computing device, the location of the mobile computing device within the environment based at least in part on the location of the lighting effect and the orientation of the mobile computing device; wherein the calculating comprises calculating a distance of the mobile computing device from the center of the lighting effect; and calculating, by the mobile computing device, an angle between a first vector extending from a focal point of a camera lens of the mobile computing device to the surface along a central axis of the camera lens, and a second vector extending from the focal point to the center of the lighting effect, wherein calculating the location is further based on the angle. receiving, at the mobile computing device, a coded light signal originating from a light source, wherein the coded light signal carries information about a location in the form of position coordinates of a center of a lighting effect projected by the light source onto a surface; extracting, by the mobile computing device from the coded light signal, the information about a location in the form of position coordinates of a center of a lighting effect projected by the light source onto a surface; determining, by the mobile computing device, an orientation of the mobile computing device relative to the surface; and calculating, by the mobile computing device, the location of the mobile computing device within the environment based at least in part on the location of the lighting effect and the orientation of the mobile computing device; wherein the calculating comprises calculating a distance of the mobile computing device from the center of the lighting effect; and calculating, by the mobile computing device, an angle between a first vector extending from a focal point of a camera lens of the mobile computing device to the surface along a central axis of the camera lens, and a second vector extending from the focal point to the center of the lighting effect, wherein calculating the location is further based on the angle.
A defibrillation system, comprising: a control unit for controlling an electric charge between a first terminal and a second terminal; a conductive pad coupled to said first terminal by a first wire, said conductive pad being adapted for laying against the back of a patient; a paddle assembly coupled to the second terminal comprising: a handle; a paddle head having a conductive surface thereon; a connection coupling said handle to said paddle head; said connection being adapted to enable said paddle head, whilst in contact with the heart, to move through a range of different orientations with respect to said handle, said connection allowing rotation of the paddle head around an axis perpendicular to the handle; wherein said connection is a flexible connection which includes a spring that extends between said handle and said paddle head. a control unit for controlling an electric charge between a first terminal and a second terminal; a conductive pad coupled to said first terminal by a first wire, said conductive pad being adapted for laying against the back of a patient; a paddle assembly coupled to the second terminal comprising: a handle; a paddle head having a conductive surface thereon; a connection coupling said handle to said paddle head; said connection being adapted to enable said paddle head, whilst in contact with the heart, to move through a range of different orientations with respect to said handle, said connection allowing rotation of the paddle head around an axis perpendicular to the handle; a handle; a paddle head having a conductive surface thereon; a connection coupling said handle to said paddle head; said connection being adapted to enable said paddle head, whilst in contact with the heart, to move through a range of different orientations with respect to said handle, said connection allowing rotation of the paddle head around an axis perpendicular to the handle; wherein said connection is a flexible connection which includes a spring that extends between said handle and said paddle head.
Water jet and lighting unit to be installed in a hollow installation body having an interior wall, comprising: • at least one water jet discharge element (2, 22) and at least one luminaire, • at least one resilient sealing body, which comprises at least one receiving cavity for receiving the water jet discharge element (2, 22) and the luminaire, • at least one first and one second pressure plate (4, 6), wherein the sealing body is arranged between the first and the second pressure plate (4, 6), and • a tensioning means, by means of which the water jet and lighting unit can be moved from a mounting state to a sealing state, wherein • in the mounting state, the pressure plates (4, 6) are arranged at a first distance from one another such that the water jet and lighting unit can be inserted into the hollow installation body, and • in the sealing state, the pressure plates (4, 6) are at a second distance from one another which is smaller than the first distance, and therefore the sealing body is deformed in such a way that a clamping seal is formed between the sealing body and the water jet discharge element (2, 22) and the luminaire, and a clamping seal can be produced between the sealing body and the interior wall of the installation body. • at least one water jet discharge element (2, 22) and at least one luminaire, • at least one resilient sealing body, which comprises at least one receiving cavity for receiving the water jet discharge element (2, 22) and the luminaire, • at least one first and one second pressure plate (4, 6), wherein the sealing body is arranged between the first and the second pressure plate (4, 6), and • a tensioning means, by means of which the water jet and lighting unit can be moved from a mounting state to a sealing state, wherein • in the mounting state, the pressure plates (4, 6) are arranged at a first distance from one another such that the water jet and lighting unit can be inserted into the hollow installation body, and • in the sealing state, the pressure plates (4, 6) are at a second distance from one another which is smaller than the first distance, and therefore the sealing body is deformed in such a way that a clamping seal is formed between the sealing body and the water jet discharge element (2, 22) and the luminaire, and a clamping seal can be produced between the sealing body and the interior wall of the installation body.
A cardiotoxicity testing apparatus configured to measure the magnitude of the fluctuation of the field potential waveform of the pulsation of cardiomyocytes by comparison of adjacent pulsation signals, comprising: a transparent substrate; an area surrounded by a wall formed on the transparent substrate, wherein the area is filled with a liquid cell culture medium; a cell population comprising a plurality of stably pulsating cardiomyocytes which are disposed in the area that is filled with the cell culture medium; a microelectrode provided in the area that is filled with the cell culture medium, wherein a cardiomyocyte of the cell population or a local portion of the cell population is to be placed on the microelectrode; a reference electrode provided in the area that is filled with the cell culture medium; an electrical potential measuring means for measuring the electrical potential of the cardiomyocyte placed on the microelectrode, comprising lead wires which are connected respectively to each of the microelectrode and a lead wire which is connected to the reference electrode; and a recording means for recording data of the electrical potential of the cardiomyocytes before and after addition of a test agent measured by the electrical potential measuring means, wherein the apparatus is configured to measure the magnitude of fluctuation of field potential duration, wherein the FPD is a time period elapsed between a peak position of sodium-ion inflow into the cell and a peak position of potassium-ion outflow from the cell on the field potential waveform by comparison of adjacent pulsation signals. a transparent substrate; an area surrounded by a wall formed on the transparent substrate, wherein the area is filled with a liquid cell culture medium; a cell population comprising a plurality of stably pulsating cardiomyocytes which are disposed in the area that is filled with the cell culture medium; a microelectrode provided in the area that is filled with the cell culture medium, wherein a cardiomyocyte of the cell population or a local portion of the cell population is to be placed on the microelectrode; a reference electrode provided in the area that is filled with the cell culture medium; an electrical potential measuring means for measuring the electrical potential of the cardiomyocyte placed on the microelectrode, comprising lead wires which are connected respectively to each of the microelectrode and a lead wire which is connected to the reference electrode; and a recording means for recording data of the electrical potential of the cardiomyocytes before and after addition of a test agent measured by the electrical potential measuring means, wherein the apparatus is configured to measure the magnitude of fluctuation of field potential duration, wherein the FPD is a time period elapsed between a peak position of sodium-ion inflow into the cell and a peak position of potassium-ion outflow from the cell on the field potential waveform by comparison of adjacent pulsation signals.
Cooking appliance comprising a housing, a cooking-appliance or cooking-chamber door or a cooking-appliance or cooking-chamber cover for opening and closing a cooking chamber of the cooking appliance, and at least one viewing opening in the cooking-chamber door or the cooking-chamber cover, wherein at least a portion of the viewing opening is able to assume the states transparent and opaque, wherein the at least one portion of the viewing opening has a transparent display which is able to display information, characterized in that the transparent display at least partially covers the different cooking zones or insert levels of the cooking chamber and is suitable and designed for displaying the information relating to the different cooking zones or insert levels in a manner spatially assigned to the said cooking zones or insert levels.
A method for controlling a drying cycle of a laundry dryer in dependence of the amount of load inside a laundry drum, comprising the steps of: - detecting an electric resistance and/or an electric conductivity between two or more electrodes (12, 14) at least partly contacting the laundry inside the laundry drum and, - estimating the amount of load inside the laundry drum by evaluating the noise and/or fluctuation of the detected electric resistance and/or conductivity, and - controlling a rotation speed (v) of a drying air stream fan for conveying a drying air stream through the laundry drum in response to the estimated amount of load inside the laundry drum, wherein the rotation speed (v) of the drying air stream fan increases with a decreasing amount of load in the laundry drum, and wherein evaluating the noise and/or fluctuation of the detected electric resistance and/or conductivity comprises: measuring the value of peaks of an electric signal corresponding to the detected electric resistance and/or conductivity, and/or measuring the number of peaks within a time span of an electric signal corresponding to the detected electric resistance and/or conductivity, and/or measuring the area subtended by peaks of an electric signal corresponding to the detected electric resistance and/or conductivity. - detecting an electric resistance and/or an electric conductivity between two or more electrodes (12, 14) at least partly contacting the laundry inside the laundry drum and, - estimating the amount of load inside the laundry drum by evaluating the noise and/or fluctuation of the detected electric resistance and/or conductivity, and - controlling a rotation speed (v) of a drying air stream fan for conveying a drying air stream through the laundry drum in response to the estimated amount of load inside the laundry drum, measuring the value of peaks of an electric signal corresponding to the detected electric resistance and/or conductivity, and/or measuring the number of peaks within a time span of an electric signal corresponding to the detected electric resistance and/or conductivity, and/or measuring the area subtended by peaks of an electric signal corresponding to the detected electric resistance and/or conductivity.