mhurhangee/ep-ind-claims huggingface dataset:
A bicycle having an aerodynamically shaped seat post, the bicycle comprising: an aerodynamically shaped seat post fabricated from carbon fiber with a longitudinal cross sectional configuration defining a length greater than a width, the longitudinal cross sectional configuration defining an outer perimeter, the length being aligned to a forward moving direction of the bicycle, the seat post having a hollow center along a height of the seat post wherein the hollow center defines an inner perimeter, left and right openings formed in left and right sidewalls (24a, b) of the seat post; a seat tube having a hollow center defining an inner perimeter sized and configured to match the outer perimeter of the seat post so that the seat post may telescope into and out of the hollow center of the seat tube, the seat tube defining left and right side walls; left and right bushings (16a, b) disposable in the hollow center of the seat post, the first and second bushings (16a, b) collectively having an outer perimeter matching the inner perimeter of the seat post; left and right fasteners inserted into the left and right openings formed in the seat post for clamping the left bushing, the left sidewall of the seat post and the left sidewall of the seat tube together and for clamping the right bushing, the right sidewall of the seat post and the right sidewall of the seat tube together to fix a vertical height of the seat post to the seat tube. an aerodynamically shaped seat post fabricated from carbon fiber with a longitudinal cross sectional configuration defining a length greater than a width, the longitudinal cross sectional configuration defining an outer perimeter, the length being aligned to a forward moving direction of the bicycle, the seat post having a hollow center along a height of the seat post wherein the hollow center defines an inner perimeter, left and right openings formed in left and right sidewalls (24a, b) of the seat post; a seat tube having a hollow center defining an inner perimeter sized and configured to match the outer perimeter of the seat post so that the seat post may telescope into and out of the hollow center of the seat tube, the seat tube defining left and right side walls; left and right bushings (16a, b) disposable in the hollow center of the seat post, the first and second bushings (16a, b) collectively having an outer perimeter matching the inner perimeter of the seat post; left and right fasteners inserted into the left and right openings formed in the seat post for clamping the left bushing, the left sidewall of the seat post and the left sidewall of the seat tube together and for clamping the right bushing, the right sidewall of the seat post and the right sidewall of the seat tube together to fix a vertical height of the seat post to the seat tube.
A method for determining an orientation of a photosensor (105a, 105b, 105c) with respect to a projector, comprising: generating, by a beam generator of the projector, a beam; modifying a direction of travel of the beam using a micro-electro-mechanical systems (MEMS) mirror that operates in a sinusoidal manner with respect to multiple axes to generate a pattern; detecting, by the photosensor, the beam; calculating a time of hit at which the beam is detected; determining based on the pattern and the time of hit the orientation in three-dimension of the photosensor with respect to the projector; determining an orientation in three-dimension, with respect to the projector, of another photosensor that detects the beam, wherein the photosensor and the other photosensor are located on a head-mounted display; and determining a position of the head-mounted display with respect to the projector based on the orientation of the photosensor and the orientation of the other photosensor. generating, by a beam generator of the projector, a beam; modifying a direction of travel of the beam using a micro-electro-mechanical systems (MEMS) mirror that operates in a sinusoidal manner with respect to multiple axes to generate a pattern; detecting, by the photosensor, the beam; calculating a time of hit at which the beam is detected; determining based on the pattern and the time of hit the orientation in three-dimension of the photosensor with respect to the projector; determining an orientation in three-dimension, with respect to the projector, of another photosensor that detects the beam, wherein the photosensor and the other photosensor are located on a head-mounted display; and determining a position of the head-mounted display with respect to the projector based on the orientation of the photosensor and the orientation of the other photosensor.
Knitted fabric in the form of a knit, characterized in that the knit comprises blend fibres made up of 30% to 70%, based on the total fibre fraction, of fibres based on Urtica dioica and 70% to 30%, based on the total fibre fraction, of viscose fibres.
Sealing element having a u-shaped split ring for sealing a rotating component in relation to a fixed-location casing, wherein there is a hydrodynamic throttle gap between the rotating component and the casing, said throttle gap belonging to a flow machine for liquid delivery media and having the u-shaped split ring provided in it, wherein an enclosed annular space filled with the liquid delivery medium is formed by the u-shaped split ring on a surface which belongs to the fixed-location casing (2, 3) and delimits the throttle gap of the flow machine radially, wherein the annular space is oriented such that it is concentrically aligned radially with the rotating component, wherein the annular space is enclosed by means of the u-shaped split ring, wherein an axial gap is formed between the u-shaped split ring and the fixed-location casing (2, 3) and a radial gap is formed between the u-shaped split ring and the annular space, characterized in that the fit of the axial throttle gap is adjustable such that the annular space filled with the delivery medium is formed between the u-shaped split ring and the radially delimiting surface on the fixed-location casing (2, 3), wherein the annular space is oriented such that it is aligned radially concentrically with the rotating component so as to produce a radial inner delimitation of the throttle gap.
A method comprising: determining, by a computer system comprising a Software Defined Networking controller, a flow to be monitored in a network; and transmitting, by the computer system, first and second messages to first and second network devices respectively, wherein the first network device is an upstream device in the flow, wherein the second network device is a downstream device in the flow, and wherein the first and second messages instruct the first and second network devices to collect local data rate information for the flow; wherein the second message further instructs the second network device to transmit a special packet to the first network device including its local data rate information; and wherein the first message further instructs the first network device to, upon receiving the special packet, compare the data rate information included in the packet with the first network device's local data rate information; if a difference between the local data rate information and the data rate information included in the packet exceeds a predefined threshold, transmitting, by the first network device, a notification to the SDN controller; wherein the first and second messages include information regarding one or more backup paths pre-provisioned by the SDN controller; upon determining that the difference between the local data rate information and the data rate information included in the packet exceeds the predefined threshold: redirecting traffic for the flow to one of the one or more backup paths. determining, by a computer system comprising a Software Defined Networking controller, a flow to be monitored in a network; and transmitting, by the computer system, first and second messages to first and second network devices respectively, wherein the first network device is an upstream device in the flow, wherein the second network device is a downstream device in the flow, and wherein the first and second messages instruct the first and second network devices to collect local data rate information for the flow; wherein the second message further instructs the second network device to transmit a special packet to the first network device including its local data rate information; and wherein the first message further instructs the first network device to, upon receiving the special packet, compare the data rate information included in the packet with the first network device's local data rate information; if a difference between the local data rate information and the data rate information included in the packet exceeds a predefined threshold, transmitting, by the first network device, a notification to the SDN controller; wherein the first and second messages include information regarding one or more backup paths pre-provisioned by the SDN controller; upon determining that the difference between the local data rate information and the data rate information included in the packet exceeds the predefined threshold: redirecting traffic for the flow to one of the one or more backup paths.
An auto-calibration system for a passenger conveyance system, comprising: a depth-sensing sensor within at least one of a passenger conveyance enclosure and a passenger waiting area external to the conveyance enclosure for capturing depth map data of objects within a field of view; and a processing module in communication with the depth-sensing sensor to receive the depth map data, the processing module using the depth map data to calibrate a sensor coordinate system to a world coordinate system transformation; characterized in that the Z-axis is calibrated in response to a plurality of heights of persons and a priori knowledge of a height distribution. a depth-sensing sensor within at least one of a passenger conveyance enclosure and a passenger waiting area external to the conveyance enclosure for capturing depth map data of objects within a field of view; and a processing module in communication with the depth-sensing sensor to receive the depth map data, the processing module using the depth map data to calibrate a sensor coordinate system to a world coordinate system transformation; characterized in that the Z-axis is calibrated in response to a plurality of heights of persons and a priori knowledge of a height distribution.
A base element (ST1, ST2, ST3) for receiving an overvoltage protective module (M1 M2, M3) for use in a bus system, having • a first bus connection arrangement for contacting a first bus potential, • a second bus connection arrangement for contacting a second bus potential, • a third bus connection arrangement for contacting a signal bus, wherein the signal bus in a first state indicates the occurrence of a fault and in a second state indicates the non-occurrence of a fault, • wherein a fault indicates a missing or incorrectly received or faulty overvoltage protective module (M1, M2, M3), • wherein the first and second bus potential are to be used to supply arrangements on the overvoltage protective module (M1, M2, M3), characterised in that • the base element further comprises an electronic monitoring arrangement, wherein the electronic monitoring arrangement identifies whether an overvoltage protective module (M1, M2, M3) is received, and wherein: • if an overvoltage protective module (M1, M2, M3) is received in the base element (ST1, ST2, ST3), the second state is signalled via the signal bus, and, • if no overvoltage protective module (M1, M2, M3) is received in the base element (ST1, ST2, ST3) or if the overvoltage protective module (M1, M2, M3) is received incorrectly or if the overvoltage protective module (M1, M2, M3) is faulty, the first state is signalled via the signal bus. • a first bus connection arrangement for contacting a first bus potential, • a second bus connection arrangement for contacting a second bus potential, • a third bus connection arrangement for contacting a signal bus, wherein the signal bus in a first state indicates the occurrence of a fault and in a second state indicates the non-occurrence of a fault, • wherein a fault indicates a missing or incorrectly received or faulty overvoltage protective module (M1, M2, M3), • wherein the first and second bus potential are to be used to supply arrangements on the overvoltage protective module (M1, M2, M3), characterised in that • the base element further comprises an electronic monitoring arrangement, wherein the electronic monitoring arrangement identifies whether an overvoltage protective module (M1, M2, M3) is received, • if an overvoltage protective module (M1, M2, M3) is received in the base element (ST1, ST2, ST3), the second state is signalled via the signal bus, and, • if no overvoltage protective module (M1, M2, M3) is received in the base element (ST1, ST2, ST3) or if the overvoltage protective module (M1, M2, M3) is received incorrectly or if the overvoltage protective module (M1, M2, M3) is faulty, the first state is signalled via the signal bus.
A linkage apparatus for actuation of a positioning device, the linkage apparatus comprising: a pivot member having a head portion configured to receive by plastic deformation a bearing assembly therein, the head portion defining a bore therein having a substantially cylindrical inner surface that defines an inner diameter having a first center point, the head portion further defining a truncated arcuate outer surface, a portion of the truncated arcuate outer surface defines a radius of curvature and a second center point; a stem having a central axis, the stem extending from the pivot member along the central axis in a first direction; and the second center point is offset from the first center point in the first direction and a distance between the first center point and the second center point, measured along the central axis, is up to about 33% of the radius of curvature. a pivot member having a head portion configured to receive by plastic deformation a bearing assembly therein, the head portion defining a bore therein having a substantially cylindrical inner surface that defines an inner diameter having a first center point, the head portion further defining a truncated arcuate outer surface, a portion of the truncated arcuate outer surface defines a radius of curvature and a second center point; a stem having a central axis, the stem extending from the pivot member along the central axis in a first direction; and the second center point is offset from the first center point in the first direction and a distance between the first center point and the second center point, measured along the central axis, is up to about 33% of the radius of curvature.
A fire protection device for hung back-ventilated facades, comprising a closure element which is designed to close a gap in a hung back-ventilated facade in the event of a fire, and which can be moved between an open position and a closed position, wherein a tension element is provided which impinges the closure element into the closed position and which can be moved between a pretensioned position and a closing position, wherein the closure element is retained in the pretensioned position by means of a securing element, wherein the securing element is designed in such a way that it releases the closure element when a temperature threshold value is exceeded, characterized in that a mounting element is provided that is designed for mounting on a building wall, and that the closure element is designed for mounting an isolation element on the building wall, wherein the mounting element and the closure element are arranged coaxially with respect to a central longitudinal axis of the fire protection device, wherein the closure element can be displaced axially between the open position and the closed position.
A fuel system for a gas operated internal combustion piston engine comprising a gaseous fuel feeding system, a first liquid fuel feeding system and a second liquid fuel feeding system, and a number of first fuel admission systems for introducing liquid fuel into combustion chamber of the engine, belonging to and being in connection with the first liquid fuel feeding system, and a number of second fuel admission systems for introducing liquid fuel into the combustion chamber, belonging to and being in connection with the second liquid fuel feeding system, characterized in that the first liquid fuel admission system and the second liquid fuel admission system for one combustion chamber are arranged into a single liquid fuel injector having fuel channels separated from each other, and that the first and the second liquid fuel feeding system (20, 40) share a common fuel source.
A system for detecting the wiring phase (R; S; T) of an unknown (x) phase voltage relative to a reference phase voltage in an electrical power distribution system having a single phase or polyphase power line, comprising - a circuit (1, 3, 32) for transmitting a signal from a first location to a second location, said signal comprising a characteristic signal pattern; - a circuit (2, 5 to 9) for determining at said first location a first time interval between the characteristic signal pattern and the occurrence of a reference point (R+) in a phase voltage at said first location; - a circuit (2, 5 to 9) for detecting at said second location the characteristic signal pattern or said signal and for determining a second time interval between said characteristic signal pattern and the occurrence of a reference point (S+) in a second phase voltage at said second location; and - a circuit for determining from said first and said second time intervals the wiring phase of the unknown one of the first and second phase voltages relative to the other one of the first and second phase voltages serving as the reference phase voltage, characterized in that - said circuit for determining the wiring phase is located at said second location; and - the system comprising means for transmitting information indicative of said first time interval from said first location to said second location. - a circuit (1, 3, 32) for transmitting a signal from a first location to a second location, said signal comprising a characteristic signal pattern; - a circuit (2, 5 to 9) for determining at said first location a first time interval between the characteristic signal pattern and the occurrence of a reference point (R+) in a phase voltage at said first location; - a circuit (2, 5 to 9) for detecting at said second location the characteristic signal pattern or said signal and for determining a second time interval between said characteristic signal pattern and the occurrence of a reference point (S+) in a second phase voltage at said second location; and - a circuit for determining from said first and said second time intervals the wiring phase of the unknown one of the first and second phase voltages relative to the other one of the first and second phase voltages serving as the reference phase voltage, - said circuit for determining the wiring phase is located at said second location; and - the system comprising means for transmitting information indicative of said first time interval from said first location to said second location.
An ultrasonic diagnostic imaging system for cardiac diagnosis, comprising: an ultrasound probe; and a processor configured to cause the system to: acquire, using the probe, three dimensional ultrasound image datasets including datasets of a heart; and produce image data of a myocardium and a heart chamber, characterized in that the processor is further configured to cause the system to: delineate a curved medial axis of the heart chamber between a longitudinally separated apex and valve plane that is evenly positioned between opposite walls of the heart chamber; and display a heart chamber image in a curved plane defined by the curved medial axis. an ultrasound probe; and a processor configured to cause the system to: acquire, using the probe, three dimensional ultrasound image datasets including datasets of a heart; and produce image data of a myocardium and a heart chamber, characterized in that the processor is further configured to cause the system to: delineate a curved medial axis of the heart chamber between a longitudinally separated apex and valve plane that is evenly positioned between opposite walls of the heart chamber; and display a heart chamber image in a curved plane defined by the curved medial axis. acquire, using the probe, three dimensional ultrasound image datasets including datasets of a heart; and produce image data of a myocardium and a heart chamber, characterized in that the processor is further configured to cause the system to: delineate a curved medial axis of the heart chamber between a longitudinally separated apex and valve plane that is evenly positioned between opposite walls of the heart chamber; and display a heart chamber image in a curved plane defined by the curved medial axis. delineate a curved medial axis of the heart chamber between a longitudinally separated apex and valve plane that is evenly positioned between opposite walls of the heart chamber; and display a heart chamber image in a curved plane defined by the curved medial axis.
Process for preparing self-binding pigment particles, comprising the following steps of: a) providing an aqueous pigment material suspension; b) providing at least one anionic and/or amphoteric starch; c) mixing the starch of step b) with the aqueous pigment material suspension of step a), wherein the starch is added to the aqueous pigment material suspension in an amount from 0.5 to 20 wt.-%, based on the total weight of the dry pigment material in the suspension, and d) combining the aqueous pigment material and starch of step c) by grinding such that the amount of free starch in the obtained suspension is less than 50 wt.-% based on the total amount of starch added in step c) and the pigment material surface charge after step d) is neutral or anionic, wherein grinding step d) is carried out during and/or after step c) at a temperature from 10°C to 40°C. a) providing an aqueous pigment material suspension; b) providing at least one anionic and/or amphoteric starch; c) mixing the starch of step b) with the aqueous pigment material suspension of step a), wherein the starch is added to the aqueous pigment material suspension in an amount from 0.5 to 20 wt.-%, based on the total weight of the dry pigment material in the suspension, and d) combining the aqueous pigment material and starch of step c) by grinding such that the amount of free starch in the obtained suspension is less than 50 wt.-% based on the total amount of starch added in step c) and the pigment material surface charge after step d) is neutral or anionic, wherein grinding step d) is carried out during and/or after step c) at a temperature from 10°C to 40°C.