mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising, (a) a mineral particle having a diameter in the range of 50 microns to 2,000 microns, (b) a 3D cell culture comprising endothelial cells and mesenchymal cells organized in two or more cell layers, wherein said two or more cell layers are attached to said mineral particle, (c) hyaluronic acid, and optionally a biocompatible binder; wherein said two or more cell layers attached to said mineral particle are suspended in the hyaluronic acid, wherein said composition comprises at least 1×10 3 said endothelial cells and said mesenchymal cells per 1 mg of said mineral particle.
Method for operating a drive device, which has an exhaust probe disposed in an exhaust duct, wherein the exhaust probe is heated at least intermittently by means of a probe heater and a probe temperature of the exhaust probe is measured by means of a temperature sensor, characterised in that after the expiration of a specific period of time it is checked whether the probe temperature undershoots a temperature threshold value (T 1) and when the temperature threshold value (T 1) is exceeded by the probe temperature a probe temperature gradient is determined as a temperature increase value corresponding with the temperature increase of the exhaust probe, describing the temperature increase of the exhaust probe, wherein both when the probe temperature undershoots the temperature threshold value (T 1) and when the probe temperature gradient undershoots a predetermined value present as a gradient threshold value, a defect in the probe heating is recognised.
Device for closing a bore produced in the cylinder block or cylinder head of an internal combustion engine, this bore communicating with the oil circuit of this engine, this device comprising a cap comprising a bottom and a lateral skirt that is in contact with the cylindrical lateral face of the bore, characterised in that the bore comprises an annular chamber that partially surrounds the lateral skirt of the cap.
Water-carrying household appliance having a housing and a treatment chamber and an automatic dosing system which is arranged within the housing and which can be controlled by way of a control unit, the dosing system comprising: - at least one reservoir for a liquid treatment agent, - at least one delivery pump arranged within the reservoir, characterised in that the delivery pump is embodied as an immersion pump. - at least one reservoir for a liquid treatment agent, - at least one delivery pump arranged within the reservoir, characterised in that the delivery pump is embodied as an immersion pump.
Method for controlling a hydraulic upper link of a three-point hitch, in which an extended position (l o) of the upper link articulated at a fixed hole (54, 56) in an attachment is adjusted within a predefined adjustment range (l o-,...,l o+) on the basis of a predefined characteristic curve (l o =l o (F o)) and in accordance with a tensile or compressive force (F o), which is detected by sensors, acting on the upper link, or in which the extended position (l o) of the upper link articulated at a slot in the attachment is adjusted in accordance with a predefined minimum value (F o,min) for the tensile or compressive force (F o).
A system to assist an occupant of an aircraft during cockpit operation under high accelerations, wherein the system comprises: an exoskeleton arm comprising a plurality of joints, actuators, and bearing surfaces to support an arm of the occupant; an inertial measuring unit configured to detect kinematic data of the aircraft and to transmit the kinematic data; and a computing unit configured to: receive the kinematic data transmitted from the inertial measuring unit; determine an acceleration at the occupant's seat from the kinematic data; and control the actuators of the exoskeleton arm to generate a counterforce directed against the acceleration at the occupant's seat in an amount that compensates for inertial forces of the occupant's arm due to the acceleration at the occupant's seat. an exoskeleton arm comprising a plurality of joints, actuators, and bearing surfaces to support an arm of the occupant; an inertial measuring unit configured to detect kinematic data of the aircraft and to transmit the kinematic data; and a computing unit configured to: receive the kinematic data transmitted from the inertial measuring unit; determine an acceleration at the occupant's seat from the kinematic data; and control the actuators of the exoskeleton arm to generate a counterforce directed against the acceleration at the occupant's seat in an amount that compensates for inertial forces of the occupant's arm due to the acceleration at the occupant's seat. receive the kinematic data transmitted from the inertial measuring unit; determine an acceleration at the occupant's seat from the kinematic data; and control the actuators of the exoskeleton arm to generate a counterforce directed against the acceleration at the occupant's seat in an amount that compensates for inertial forces of the occupant's arm due to the acceleration at the occupant's seat.
Attachment system for attachment of a storage container in a motor vehicle which has at least one motor vehicle seat with a seat frame, wherein the seat frame has at least one recess, wherein the attachment system has at least one positioning element which has at least one first attachment element for attachment of the positioning element to the storage container and at least one second attachment element for attachment of the positioning element to the seat frame, characterized in that the at least one second attachment element is designed in order to engage in the at least one recess of the seat frame.
A method of analyzing performance of a processing system, the method comprising: identifying a first transaction as a transaction to be monitored, at a first trace point of the processing system, based on detecting the first transaction at least a threshold number of times at the first trace point; associating a first trace tag identifier with the first transaction, at the first trace point; and identifying the first transaction at one or more other trace points (110B, 110C, 110D) of the processing system based on the first trace tag identifier; determining time stamps at which the first transaction is identified at the first trace point and the one or more other trace points; and determining trace information for the first transaction from the time stamps. identifying a first transaction as a transaction to be monitored, at a first trace point of the processing system, based on detecting the first transaction at least a threshold number of times at the first trace point; associating a first trace tag identifier with the first transaction, at the first trace point; and identifying the first transaction at one or more other trace points (110B, 110C, 110D) of the processing system based on the first trace tag identifier; determining time stamps at which the first transaction is identified at the first trace point and the one or more other trace points; and determining trace information for the first transaction from the time stamps.
A catheter, comprising: an elongated catheter body; a tip electrode distal to the catheter body; the tip electrode comprising: a shell having a distal chamber and a proximal neck portion; and a support member having a proximal portion and a distal portion, the proximal portion inserted in the neck portion, the proximal portion having a fluid through-hole, the distal portion having an outer surface facing an inner surface of the neck portion of the shell and a fluid channel formed on the outer surface that provides a fluid passage between the fluid through-hole and the chamber, wherein the inner surface of the neck portion is adapted for exposure to fluid passing through the fluid passage, and characterised in that the fluid channel has axial and radial branches (92, 94, 96, 98). an elongated catheter body; a tip electrode distal to the catheter body; the tip electrode comprising: a shell having a distal chamber and a proximal neck portion; and a support member having a proximal portion and a distal portion, the proximal portion inserted in the neck portion, the proximal portion having a fluid through-hole, the distal portion having an outer surface facing an inner surface of the neck portion of the shell and a fluid channel formed on the outer surface that provides a fluid passage between the fluid through-hole and the chamber, wherein the inner surface of the neck portion is adapted for exposure to fluid passing through the fluid passage, and characterised in that the fluid channel has axial and radial branches (92, 94, 96, 98). a shell having a distal chamber and a proximal neck portion; and a support member having a proximal portion and a distal portion, the proximal portion inserted in the neck portion, the proximal portion having a fluid through-hole, the distal portion having an outer surface facing an inner surface of the neck portion of the shell and a fluid channel formed on the outer surface that provides a fluid passage between the fluid through-hole and the chamber, wherein the inner surface of the neck portion is adapted for exposure to fluid passing through the fluid passage, and characterised in that the fluid channel has axial and radial branches (92, 94, 96, 98).
A method of forming an optical device in a body, comprising:- performing a plurality of laser scans to form the optical device, each scan comprising relative movement of a laser beam and the body thereby to scan the laser beam along a respective path (24, 26) through the body to alter the refractive index of material of that path (24, 26), wherein the paths (24, 26) are arranged such that one of the paths and at least one other of the paths abut or at least partially overlap one another to provide in combination a route for propagation of light through the optical device in operation that is larger in a direction substantially perpendicular to the route for propagation of light than any one of the paths (24, 26) individually, wherein the laser beam comprises a pulse train and the method further comprises triggering a modulator by a sample stage to modulate the pulse train to provide a change in at least one property of the pulse train based on position along the propagation direction thereby to provide a variation of refractive index with position along the propagation direction, and for at least one of the paths (24, 26) the modulation is such that the variation of refractive index with position along the propagation direction is offset by a required amount in comparison to the variation in refractive index with position along the propagation direction for at least one other of the paths (24, 26). performing a plurality of laser scans to form the optical device, each scan comprising relative movement of a laser beam and the body thereby to scan the laser beam along a respective path (24, 26) through the body to alter the refractive index of material of that path (24, 26), wherein the paths (24, 26) are arranged such that one of the paths and at least one other of the paths abut or at least partially overlap one another to provide in combination a route for propagation of light through the optical device in operation that is larger in a direction substantially perpendicular to the route for propagation of light than any one of the paths (24, 26) individually, wherein the laser beam comprises a pulse train and the method further comprises triggering a modulator by a sample stage to modulate the pulse train to provide a change in at least one property of the pulse train based on position along the propagation direction thereby to provide a variation of refractive index with position along the propagation direction, and for at least one of the paths (24, 26) the modulation is such that the variation of refractive index with position along the propagation direction is offset by a required amount in comparison to the variation in refractive index with position along the propagation direction for at least one other of the paths (24, 26).
A positive electrode active material comprising: spherical porous carbon particles having a particle diameter of 2 μm to 10 pm, the particles including micropores having a diameter of 1 nm to 8 nm and mesopores having a diameter of 20 nm to 40 nm, the volume ratio of the micropores to the mesopores being in the range 1:40 to 50, and a sulfur-containing material carried within the pores of the carbon particles. spherical porous carbon particles having a particle diameter of 2 μm to 10 pm, the particles including micropores having a diameter of 1 nm to 8 nm and mesopores having a diameter of 20 nm to 40 nm, the volume ratio of the micropores to the mesopores being in the range 1:40 to 50, and a sulfur-containing material carried within the pores of the carbon particles.
Door arrangement of a first enclosed space allowing a sealed connection between said first enclosed space and a second enclosed space, comprising - a flange arranged to define a passage opening in the first enclosed space, the passage opening defining an opening plane and a passage axis perpendicular to the opening plane, - a door hingedly mounted on the flange so as to move from a closed position, in which the door closes the passage opening, to an open position, - securing means for securing and holding a flange of the second enclosed space against the flange of the first space, and comprising locking catches movable between an unlocked position in which they are recessed within the flange and a locked position in which they project radially from the flange toward the passage opening, thus locking the flange of the second enclosed space without rotational movement of said flange by engaging each catch in a notch provided on the outer peripheral edge of the flange of the second space. - a flange arranged to define a passage opening in the first enclosed space, the passage opening defining an opening plane and a passage axis perpendicular to the opening plane, - a door hingedly mounted on the flange so as to move from a closed position, in which the door closes the passage opening, to an open position, - securing means for securing and holding a flange of the second enclosed space against the flange of the first space, and comprising locking catches movable between an unlocked position in which they are recessed within the flange and a locked position in which they project radially from the flange toward the passage opening, thus locking the flange of the second enclosed space without rotational movement of said flange by engaging each catch in a notch provided on the outer peripheral edge of the flange of the second space.
A bicycle fork head comprising a through housing intended to fixedly receive a bicycle fork pivot, said fork head being characterised in that said housing includes a recess defining a radial groove interposed between two inner annular bearing surfaces (13, 14) for supporting said pivot, the groove having the shape of a geometric element of revolution, as well as the housing, and sharing the same axis of revolution as the latter.
A multi-operating-mode reciprocating slat conveyor for conveying a load in a conveying direction, the conveyor comprising: at least three sets of slats (FSa, FSb, FSc), the slats within each set joined together for simultaneous reciprocative movement, wherein slats are moved in the conveying direction and return in a retracting direction to their beginning position, the slats arranged in a plurality of groups, each group comprising at least one correspondingly positioned slat within each set (FSa, FSb, FSc); at least one drive means (HCa, HCb, HCc) attached to the sets (FSa, FSb, FSc); and characterized by control means configured to operate the conveyor in one of a plurality of operating modes, each operating mode having a predetermined number of steps for moving a predetermined number of slats in each group of slats in said load-retracting direction, to selectively control the drive means (HCa, HCb, HCc) to sequentially move the sets (FSa, FSb, FSc) in a first operational mode, and to selectively control the drive means (HCa, HCb, HCc) to sequentially move the sets (FSa, FSb, FSc) in an at least one second operational mode, wherein the steps of the first operational mode are different to the steps in the second operational mode; wherein, in use, both the first operational mode and the second operational mode convey the load in the same conveying direction. at least three sets of slats (FSa, FSb, FSc), the slats within each set joined together for simultaneous reciprocative movement, wherein slats are moved in the conveying direction and return in a retracting direction to their beginning position, the slats arranged in a plurality of groups, each group comprising at least one correspondingly positioned slat within each set (FSa, FSb, FSc); at least one drive means (HCa, HCb, HCc) attached to the sets (FSa, FSb, FSc); and characterized by control means configured to operate the conveyor in one of a plurality of operating modes, each operating mode having a predetermined number of steps for moving a predetermined number of slats in each group of slats in said load-retracting direction, to selectively control the drive means (HCa, HCb, HCc) to sequentially move the sets (FSa, FSb, FSc) in a first operational mode, and to selectively control the drive means (HCa, HCb, HCc) to sequentially move the sets (FSa, FSb, FSc) in an at least one second operational mode, wherein the steps of the first operational mode are different to the steps in the second operational mode;
Method of producing a thread in an elongated semi-finished product, comprising the steps: forming at least two longitudinally extending grooves in a blank and longitudinally rolling a thread into the regions delimited circumferentially by the grooves, a distance from the bottoms of the grooves to an axis of the blank being shorter than a distance from a root of the thread to the axis. forming at least two longitudinally extending grooves in a blank and longitudinally rolling a thread into the regions delimited circumferentially by the grooves, a distance from the bottoms of the grooves to an axis of the blank being shorter than a distance from a root of the thread to the axis.
A method for monitoring a seed application rate of a seed planter planting seeds from a seed meter, comprising: measuring a rotation of a seed disc of the seed meter; determining a performance value (R m) corresponding to the seed meter, wherein said performance value (R m) is determined based on an expected time (T nom) between seeds deposited and an actual time (T act) between seeds deposited; and calculating a population value (P c) based on said measured rotation and said performance value (R m), wherein said population value (P c) is determined by calculating a nominal population value (P nom, P ave) and applying said performance value (R m) to said nominal population value (P nom, P ave); wherein: the expected time (T nom) between seeds deposited is determined based on the measured rotation of the seed disc; the nominal population value (P nom, P ave) is calculated based on the expected time (T nom) between seeds deposited; and the actual time (T act) between seeds deposited is determined based on a signal generated by a seed sensor, the signal corresponding to deposition of seeds. measuring a rotation of a seed disc of the seed meter; determining a performance value (R m) corresponding to the seed meter, wherein said performance value (R m) is determined based on an expected time (T nom) between seeds deposited and an actual time (T act) between seeds deposited; and calculating a population value (P c) based on said measured rotation and said performance value (R m), wherein said population value (P c) is determined by calculating a nominal population value (P nom, P ave) and applying said performance value (R m) to said nominal population value (P nom, P ave); the expected time (T nom) between seeds deposited is determined based on the measured rotation of the seed disc; the nominal population value (P nom, P ave) is calculated based on the expected time (T nom) between seeds deposited; and the actual time (T act) between seeds deposited is determined based on a signal generated by a seed sensor, the signal corresponding to deposition of seeds.
A PET/CT system comprising: a CT scanner configured to perform CT scanning, a PET scanner configured to perform PET scanning, a table unit comprising a base, a bracket, and a plate movable relative to the bracket, wherein the base has a releasing position, a CT scan position, and a PET scan position along a length direction of the plate, and the bracket is adapted to be placed at each of the positions; and the PET/CT system further comprises a height adjustment unit (34, 44) configured to adjust a height of the plate to compensate a difference of a height of the plate between a CT imaging mode and a PET imaging mode, characterized in that the system further comprises: a measuring unit configured to measure a height of the plate at the scanning cross-section during the CT scanning, wherein the height adjustment unit (34, 44) is further configured to adjust the height of the plate based on the height of the plate at a scanning cross-section during the CT scanning so that a changing trend of the height of the adjusted plate during the PET scanning is consistent with the changing trend of the height of the plate during the CT scanning. a CT scanner configured to perform CT scanning, a PET scanner configured to perform PET scanning, a table unit comprising a base, a bracket, and a plate movable relative to the bracket, wherein the base has a releasing position, a CT scan position, and a PET scan position along a length direction of the plate, and the bracket is adapted to be placed at each of the positions; and the PET/CT system further comprises a height adjustment unit (34, 44) configured to adjust a height of the plate to compensate a difference of a height of the plate between a CT imaging mode and a PET imaging mode, characterized in that the system further comprises: a measuring unit configured to measure a height of the plate at the scanning cross-section during the CT scanning, wherein the height adjustment unit (34, 44) is further configured to adjust the height of the plate based on the height of the plate at a scanning cross-section during the CT scanning so that a changing trend of the height of the adjusted plate during the PET scanning is consistent with the changing trend of the height of the plate during the CT scanning. a measuring unit configured to measure a height of the plate at the scanning cross-section during the CT scanning, wherein the height adjustment unit (34, 44) is further configured to adjust the height of the plate based on the height of the plate at a scanning cross-section during the CT scanning so that a changing trend of the height of the adjusted plate during the PET scanning is consistent with the changing trend of the height of the plate during the CT scanning.