mhurhangee/ep-ind-claims huggingface dataset:
A device for stabilizing body joints and/or for supporting items of sports equipment, said device comprising: a receptacle, wherein the receptacle is filled with a filling medium, a first body for interacting with the filling medium, wherein the first body is arranged displaceably in the receptacle, a force transferring body for transferring an external force to the first body, a second body for interacting with the filling medium, which is arranged displaceably in the receptacle, wherein the second body is elastically coupled to the first body by way of a coupling element, wherein the second body and/or the first body have at least one passage opening, through which the filling medium can flow, and wherein the first body forms a valve body and the second body forms a valve seat, with the result that a flow of the filling medium through the passage opening can be permitted or prevented depending on the valve position, characterized in that the second body overlaps with the first body in a relative displacement direction to the first body. a receptacle, wherein the receptacle is filled with a filling medium, a first body for interacting with the filling medium, wherein the first body is arranged displaceably in the receptacle, a force transferring body for transferring an external force to the first body, a second body for interacting with the filling medium, which is arranged displaceably in the receptacle, wherein the second body is elastically coupled to the first body by way of a coupling element, wherein the second body and/or the first body have at least one passage opening, through which the filling medium can flow, and wherein the first body forms a valve body and the second body forms a valve seat, with the result that a flow of the filling medium through the passage opening can be permitted or prevented depending on the valve position, characterized in that the second body overlaps with the first body in a relative displacement direction to the first body.
A computer-implemented method of providing navigation guidance for navigating an interventional device within an anatomy, the method comprising: receiving interventional device shape data representing a shape of the interventional device at one or more time steps (t 1..n), the time steps including at least a current time step (t n) and input indicative of a target position within the anatomy for at least one portion of the interventional device; inputting the interventional device shape data into a neural network trained to predict, from the interventional device shape data, a future position of one or more portions of the interventional device at one or more future time steps (t n+1..n+k), and a corresponding confidence estimate for the one or more future positions, the neural network further being configured to generate one or more vectors of latent variables representing a distribution of positions of portions of the inputted interventional device shape data along a plurality of historic paths used to successfully navigate the interventional device to intercept the target position; and displaying the predicted one or more future positions of each portion of the interventional device, the corresponding predicted confidence estimate for the predicted one or more future positions and a track within the anatomy representing one or more distribution parameters of the one or more vectors of latent variables. receiving interventional device shape data representing a shape of the interventional device at one or more time steps (t 1..n), the time steps including at least a current time step (t n) and input indicative of a target position within the anatomy for at least one portion of the interventional device; inputting the interventional device shape data into a neural network trained to predict, from the interventional device shape data, a future position of one or more portions of the interventional device at one or more future time steps (t n+1..n+k), and a corresponding confidence estimate for the one or more future positions, the neural network further being configured to generate one or more vectors of latent variables representing a distribution of positions of portions of the inputted interventional device shape data along a plurality of historic paths used to successfully navigate the interventional device to intercept the target position; and displaying the predicted one or more future positions of each portion of the interventional device, the corresponding predicted confidence estimate for the predicted one or more future positions and a track within the anatomy representing one or more distribution parameters of the one or more vectors of latent variables.
An inkjet printing composition comprising: (a) an aqueous liquid vehicle; (b) at least a pigment; (c) at least a nitrile polymer emulsion comprising at least one of carboxylated acrylonitrile butadiene styrene polymer emulsion. (a) an aqueous liquid vehicle; (b) at least a pigment; (c) at least a nitrile polymer emulsion comprising at least one of carboxylated acrylonitrile butadiene styrene polymer emulsion.
A system comprising: a peripheral device (130, 220, 320) having a wireless long range transceiver and a microcontroller; a first control hub (110, 210, 310, 410, 510, 612, 712) having a wireless long range transceiver, one or more hardware processors, and hardware memory that stores first instructions that when executed by the one or more hardware processors, cause the one or more hardware processor to: transmit a control instruction to the peripheral device via a control signal via the wireless long range transceiver, listen for a response from the peripheral device in response to the control instruction; and transmit a takeover request to a second control hub (120, 315, 415, 610, 614, 710, 714) when the response is not received within an expected response time after the control signal is transmitted; and the second control hub having a wireless long range transceiver, one or more hardware processors, and hardware memory that stores second instructions that when executed by the one or more hardware processors, cause the one or more hardware processors to: receive the takeover request from the primary control hub, and transmit the control instruction to the peripheral device via the wireless long range transceiver. a peripheral device (130, 220, 320) having a wireless long range transceiver and a microcontroller; a first control hub (110, 210, 310, 410, 510, 612, 712) having a wireless long range transceiver, one or more hardware processors, and hardware memory that stores first instructions that when executed by the one or more hardware processors, cause the one or more hardware processor to: transmit a control instruction to the peripheral device via a control signal via the wireless long range transceiver, listen for a response from the peripheral device in response to the control instruction; and transmit a takeover request to a second control hub (120, 315, 415, 610, 614, 710, 714) when the response is not received within an expected response time after the control signal is transmitted; and transmit a control instruction to the peripheral device via a control signal via the wireless long range transceiver, listen for a response from the peripheral device in response to the control instruction; and transmit a takeover request to a second control hub (120, 315, 415, 610, 614, 710, 714) when the response is not received within an expected response time after the control signal is transmitted; and the second control hub having a wireless long range transceiver, one or more hardware processors, and hardware memory that stores second instructions that when executed by the one or more hardware processors, cause the one or more hardware processors to: receive the takeover request from the primary control hub, and transmit the control instruction to the peripheral device via the wireless long range transceiver. receive the takeover request from the primary control hub, and transmit the control instruction to the peripheral device via the wireless long range transceiver.
A method for determining a grounding impedance of a grounding device of a power engineering installation, comprising: - determining (406, 412) at least two impedance values on the grounding device, while the grounding device is electrically connected to at least one further grounding device of at least one further power engineering installation (170, 180), wherein each of the at least two impedance values is determined with a respective test current at a specified frequency, wherein the frequencies of the respective test currents are different, characterized by - determining at least one parameter of a model, which represents the grounding device and the at least one further grounding device, as a function of the at least two impedance values, wherein the at least one parameter comprises an approximate value for the grounding impedance of the grounding device. - determining (406, 412) at least two impedance values on the grounding device, while the grounding device is electrically connected to at least one further grounding device of at least one further power engineering installation (170, 180), wherein each of the at least two impedance values is determined with a respective test current at a specified frequency, wherein the frequencies of the respective test currents are different, characterized by - determining at least one parameter of a model, which represents the grounding device and the at least one further grounding device, as a function of the at least two impedance values, wherein the at least one parameter comprises an approximate value for the grounding impedance of the grounding device.
A method for preparing 2-pyrrolidone, comprising the steps of: (a) preparing 4-aminobutyric acid by culturing a microorganism containing glutamate decarboxylase as a whole-cell catalyst in a culture medium containing glutamic acid or glutamate, wherein the microorganism is pre-treated with a hydrophobic organic solvent; (b) obtaining 4-aminobutyric acid by filtering the culture medium; and (c) converting 4-aminobutyric acid to 2-pyrrolidone. (a) preparing 4-aminobutyric acid by culturing a microorganism containing glutamate decarboxylase as a whole-cell catalyst in a culture medium containing glutamic acid or glutamate, wherein the microorganism is pre-treated with a hydrophobic organic solvent; (b) obtaining 4-aminobutyric acid by filtering the culture medium; and (c) converting 4-aminobutyric acid to 2-pyrrolidone.
Method for an assistance system of a vehicle having at least a first sensor and at least a second sensor, wherein distances from objects in the surroundings of the vehicle are determined by means of the first sensor, wherein a control unit calculates a trajectory for a possible parking process of the vehicle on the basis of the determined distances from objects in the surroundings of the vehicle, wherein a lateral region of the vehicle is monitored for a further vehicle by means of the second sensor, wherein, when a further vehicle is detected by the second sensor, a predicted trajectory (Tp) of the further vehicle is calculated and the control unit detects a possible future collision of the further vehicle with the vehicle by means of a comparison of the trajectory and of the predicted trajectory (Tp), and when the possible future collision is detected, decelerates the parking process along the trajectory, characterized in that, when a future collision is detected, the control unit calculates a corrected trajectory for the vehicle, wherein the parking process is continued by means of the corrected trajectory, and wherein position-dependent storage of the corrected trajectory is carried out, wherein, in the case of new parking processes of the vehicle in the surroundings of a stored position a trajectory is calculated by the control unit using the corrected trajectory with the smaller degree of swinging out of the vehicle.
A pipe joint comprising a socket; a pipe fitted into the socket; and a seal compressed between the socket and the pipe, wherein the seal is electrically conductive and resiliently flexible, the socket or the pipe has a recess which houses the seal, the recess has a ridge in a base of the recess, the seal has a groove which extends around a radial periphery of the seal, and the ridge fits into the groove, characterised in that the seal comprises a seal material mixed with a fill material, and the fill material has a higher electrical conductivity than the seal material.
A spray applicator comprising a support body having a plurality of contact surfaces (27, 28, 29) and at least two nozzle bodies, each nozzle body being attached to one of the contact surfaces (27, 28, 29) and having a spray slot for producing a spray jet fanned out perpendicularly to a central plane, and wherein the central planes intersect each other along a straight line, characterized in that the straight line extends outside the support body and the contact surfaces (27, 28, 29) face the straight line and are offset from each other in the direction of the straight line.
A yellow light emitting phosphor comprising: a first green phosphor emitting light having a peak wavelength in a wavelength band of 530 nm to 550 nm, the first phosphor including at least one of Lu 3 Al 5 O 12:Ce and SrSi 2 O 2 N 2; and a second amber phosphor mixed with the first phosphor to form a mixture, the second phosphor including α-type SiAlON(Li-α-SiAlON) containing Li as a metal component, wherein the second phosphor emits light having a peak wavelength in a wavelength band of 578 nm to 588 nm by being excited by near ultraviolet or blue light, wherein the second phosphor is present in an amount of 40 wt% to 60 wt% when the sum of the first phosphor and the second phosphor is 100 wt%, and wherein the mixture of the first phosphor and the second phosphor is excited by the near UV or blue light to emit yellow light. a first green phosphor emitting light having a peak wavelength in a wavelength band of 530 nm to 550 nm, the first phosphor including at least one of Lu 3 Al 5 O 12:Ce and SrSi 2 O 2 N 2; and a second amber phosphor mixed with the first phosphor to form a mixture, the second phosphor including α-type SiAlON(Li-α-SiAlON) containing Li as a metal component, wherein the second phosphor emits light having a peak wavelength in a wavelength band of 578 nm to 588 nm by being excited by near ultraviolet or blue light, wherein the second phosphor is present in an amount of 40 wt% to 60 wt% when the sum of the first phosphor and the second phosphor is 100 wt%, and wherein the mixture of the first phosphor and the second phosphor is excited by the near UV or blue light to emit yellow light.
Method for determining the antifreeze agent content of a water-based heat transfer medium in a hydraulic circuit, circulated by a circulating pump, of a heating system during operation, comprising the steps ii) measuring the volume flow V̇ ist of the heat transfer medium by means of a volume flow sensor, iii) measuring the temperature T of the heat transfer medium by means of a temperature sensor, characterised in that the method furthermore comprises the steps i) calculating the volume flow V p conveyed by the circulating pump from the revolution speed n of the circulating pump, an electrical and/or hydraulic variable and a pump model of the circulating pump, iv) calculating the viscosity η of the heat transfer medium from the volume flow V ist, the volume flow V p on the basis of a hydraulic process model, v) calculating the antifreeze agent content of the heat transfer medium from the viscosity η and the temperature T on the basis of a hydraulic process model. ii) measuring the volume flow V̇ ist of the heat transfer medium by means of a volume flow sensor, iii) measuring the temperature T of the heat transfer medium by means of a temperature sensor, i) calculating the volume flow V p conveyed by the circulating pump from the revolution speed n of the circulating pump, an electrical and/or hydraulic variable and a pump model of the circulating pump, iv) calculating the viscosity η of the heat transfer medium from the volume flow V ist, the volume flow V p on the basis of a hydraulic process model, v) calculating the antifreeze agent content of the heat transfer medium from the viscosity η and the temperature T on the basis of a hydraulic process model.
A method comprising: obtaining, by a service peering exchange executed by one or more computing devices, using service discovery, service endpoint data describing a service endpoint of a second customer network that executes an application; generating, by the service peering exchange, in response to the obtaining, an association from a service exchange endpoint of the service peering exchange to the service endpoint of the second customer network that executes the application, wherein the service exchange endpoint comprises a combination of a network layer address and a transport layer port of the one or more computing devices; receiving, by the service peering exchange at the service exchange endpoint, an incoming service request from a first customer network, wherein the incoming service request is destined to the network layer address and the transport layer port of the to the service exchange endpoint, and wherein the incoming service request can invoke an application programming interface of the application; outputting, by the service peering exchange in response to receiving the incoming service request and based at least on the association, an outgoing service request destined to the service endpoint of the second customer network that executes the application, wherein the outgoing service request can invoke the application programming interface of the application. obtaining, by a service peering exchange executed by one or more computing devices, using service discovery, service endpoint data describing a service endpoint of a second customer network that executes an application; generating, by the service peering exchange, in response to the obtaining, an association from a service exchange endpoint of the service peering exchange to the service endpoint of the second customer network that executes the application, wherein the service exchange endpoint comprises a combination of a network layer address and a transport layer port of the one or more computing devices; receiving, by the service peering exchange at the service exchange endpoint, an incoming service request from a first customer network, wherein the incoming service request is destined to the network layer address and the transport layer port of the to the service exchange endpoint, and wherein the incoming service request can invoke an application programming interface of the application; outputting, by the service peering exchange in response to receiving the incoming service request and based at least on the association, an outgoing service request destined to the service endpoint of the second customer network that executes the application, wherein the outgoing service request can invoke the application programming interface of the application.
A system for handling workpieces in a press line, comprising - at least two industrial robots (1,1), each with a wrist and an auxiliary arm connected to the wrist by respective first swivel means, and - a control unit for joint control of said robots, the system further comprising - a crossbar connected at one end thereof to the auxiliary arm of one robot, and at another end thereof to the auxiliary arm of another robot, by respective second swivel means, - the crossbar comprising at least two crossbar portions (5a,5b), each attached to the auxiliary arm of one robot and each arranged to carry tooling means for picking workpieces, and - the crossbar portions being linked to each other through a shifting arrangement such as to be displaceable one with respect to the other in their longitudinal direction. - at least two industrial robots (1,1), each with a wrist and an auxiliary arm connected to the wrist by respective first swivel means, and - a control unit for joint control of said robots, the system further comprising - a crossbar connected at one end thereof to the auxiliary arm of one robot, and at another end thereof to the auxiliary arm of another robot, by respective second swivel means, - the crossbar comprising at least two crossbar portions (5a,5b), each attached to the auxiliary arm of one robot and each arranged to carry tooling means for picking workpieces, and - the crossbar portions being linked to each other through a shifting arrangement such as to be displaceable one with respect to the other in their longitudinal direction.
Moon phase display mechanism comprising a control wheel which) drives a moon phase disc behind an aperture in a dial, characterized in that said mechanism includes, coaxial, superposed and permanently driven in opposite directions, a first phase indicator wheel carrying a first heart cam, and a second phase indicator wheel carrying a second heart cam and said control wheel includes means for guiding a double lever comprising two arms (43, 53) only one of which is arranged, at any time, to cooperate in contact with one of said second and first heart cams, each for displaying the moon phase visible in either the Northern or Southern Hemisphere, and to allow said moon phase disc to pivot in the appropriate direction for said hemisphere.
A vacuum insulating glazing unit extending along a plane, P, defined by a longitudinal axis, X, and a vertical axis, Z, and comprising: a. a first glass pane having an inner pane face and an outer pane face and having a thickness Z1, and b. a second glass pane having an inner pane face and an outer pane face and having a thickness, Z2, wherein the thicknesses are measured in the direction normal to the plane, P; c. a set of discrete spacers positioned between the first and second glass panes, maintaining a distance between the first and the second glass panes; d. a hermetically bonding seal sealing the distance between the first and second glass panes over a perimeter thereof; e. an internal volume, V, defined by the first and second glass panes and the set of discrete spacers and closed by the hermetically bonding seal and wherein there is a vacuum of absolute pressure of less than 0.1 mbar, and wherein the inner pane faces of the first and second glass panes face the internal volume, V; characterized in that a thickness ratio, Z1/Z2, of the thickness of the first glass pane, Z1, to the thickness of the second glass pane, Z2, is equal to or greater than 1.10 (Z1 / Z2 ≥ 1.10); and in that at least one of the inner pane faces (12 and/or 22) of the first and second glass panes (1, 2) is provided with a pyrolytic transparent conductive oxide-based coating. a. a first glass pane having an inner pane face and an outer pane face and having a thickness Z1, and b. a second glass pane having an inner pane face and an outer pane face and having a thickness, Z2, wherein the thicknesses are measured in the direction normal to the plane, P; c. a set of discrete spacers positioned between the first and second glass panes, maintaining a distance between the first and the second glass panes; d. a hermetically bonding seal sealing the distance between the first and second glass panes over a perimeter thereof; e. an internal volume, V, defined by the first and second glass panes and the set of discrete spacers and closed by the hermetically bonding seal and wherein there is a vacuum of absolute pressure of less than 0.1 mbar, and wherein the inner pane faces of the first and second glass panes face the internal volume, V; characterized in that a thickness ratio, Z1/Z2, of the thickness of the first glass pane, Z1, to the thickness of the second glass pane, Z2, is equal to or greater than 1.10 (Z1 / Z2 ≥ 1.10); and in that at least one of the inner pane faces (12 and/or 22) of the first and second glass panes (1, 2) is provided with a pyrolytic transparent conductive oxide-based coating.