mhurhangee/patent-ind-claim-en huggingface dataset:
A system for a vehicle , having a head-up display configured to project an image onto a front windshield of the vehicle or onto a separate combiner; another display apart from the front windshield or combiner; and a circuit , which is connected to the head-up display , - wherein the circuit is configured to output image data (S200) to the head-up display in order to generate the image , whereby the image data (S200) have a set of objects which contain messages for the user, - wherein the circuit is configured to determine a user's workload level (L), based on a set of driving conditions, - wherein the circuit is configured, based on the level (L), to switch from the at least one first workload mode (M1) to a second workload mode (M2), whereby the second workload mode (M2) is assigned a higher level (L) than the first workload mode (M1), - wherein the circuit is configured in the second workload mode (M2) to reduce at least one object , which is output in the first workload mode (M1), and wherein to reduce the at least one object , the circuit is configured - to fade out the object by continuous increase of the transparency of the object ; and - wherein the circuit is configured during or after the reduction to output the message associated with the object by means of another object in the other display . a head-up display configured to project an image onto a front windshield of the vehicle or onto a separate combiner; another display apart from the front windshield or combiner; and a circuit , which is connected to the head-up display , - wherein the circuit is configured to output image data (S200) to the head-up display in order to generate the image , whereby the image data (S200) have a set of objects which contain messages for the user, - wherein the circuit is configured to determine a user's workload level (L), based on a set of driving conditions, - wherein the circuit is configured, based on the level (L), to switch from the at least one first workload mode (M1) to a second workload mode (M2), whereby the second workload mode (M2) is assigned a higher level (L) than the first workload mode (M1), - wherein the circuit is configured in the second workload mode (M2) to reduce at least one object , which is output in the first workload mode (M1), and - to fade out the object by continuous increase of the transparency of the object ; and - wherein the circuit is configured during or after the reduction to output the message associated with the object by means of another object in the other display .
A computer implemented method for generating a surface representation for processing in 3D-printers or CNC machines, which is allocating memory to store arrays of control points and knot vectors of the bivariate spline surfaces b , r 1 , ... , r L , of the bivariate spline functions κ 1 = p 1 q 1 , ... , κ L = p L q L , which define trimming curves γ l with implicit representation qe and parametrized by p l , l = 1, ... , L , of a bivariate spline function w being an implicit representation of all trimming curves, and of bivariate spline functions w 1 , ... , w L , where w l is an implicit representation of all trimming curves but γ l , l = 1, . . . , L , and which is performing a computer calculation of a new spline surface a, bounded by the sequence of trimming curves γ l forming a closed loop, according to the formula a = w ⋅ b + ∑ l = 1 L w l ⋅ r l ∘ κ l w + ∑ l = 1 L w l for further processing, exporting, displaying, or exchanging by the computer, and which is generating data from the new spline surface a for processing in 3D-printers or CNC machines. of the bivariate spline functions κ 1 = p 1 q 1 , ... , κ L = p L q L , which define trimming curves γ l with implicit representation qe and parametrized by p l , l = 1, ... , L , of a bivariate spline function w being an implicit representation of all trimming curves, and of bivariate spline functions w 1 , ... , w L , where w l is an implicit representation of all trimming curves but γ l , l = 1, . . . , L , and which is performing a computer calculation of a new spline surface a, bounded by the sequence of trimming curves γ l forming a closed loop, according to the formula a = w ⋅ b + ∑ l = 1 L w l ⋅ r l ∘ κ l w + ∑ l = 1 L w l for further processing, exporting, displaying, or exchanging by the computer, and which is generating data from the new spline surface a for processing in 3D-printers or CNC machines.
A die , comprising: (a) an entrance section comprising at least one inlet; (b) an orientation section, the inlet being in fluid communication with the orientation section, the orientation section comprising a plurality of orientation channels having a channel inlet and a channel outlet; (c) a merging region , the merging region defining a receiving volume in fluid communication with the outlets of the plurality of orientation channels of the orientation section, the merging region being configured to merge together at least some fluid flows originating from the outlets of the orientation channels of the orientation section; and (d) an exit region in fluid communication with the merging region , the exit region comprising at least one outlet , characterised in that at least some of the plurality of orientation channels independently have an elongation ratio of between 2 and 45, the elongation ratio being defined as a ratio of a cross-sectional area of the channel inlet to a cross-sectional area of the channel outlet, and in that the orientation channels include a hyperbolic-shaped region and a linearly-tapered region. (a) an entrance section comprising at least one inlet; (b) an orientation section, the inlet being in fluid communication with the orientation section, the orientation section comprising a plurality of orientation channels having a channel inlet and a channel outlet; (c) a merging region , the merging region defining a receiving volume in fluid communication with the outlets of the plurality of orientation channels of the orientation section, the merging region being configured to merge together at least some fluid flows originating from the outlets of the orientation channels of the orientation section; and (d) an exit region in fluid communication with the merging region , the exit region comprising at least one outlet , characterised in that at least some of the plurality of orientation channels independently have an elongation ratio of between 2 and 45, the elongation ratio being defined as a ratio of a cross-sectional area of the channel inlet to a cross-sectional area of the channel outlet, and in that the orientation channels include a hyperbolic-shaped region and a linearly-tapered region.
A coin sorting machine for sorting coins having a plurality of coin paths for transporting coins through the coin sorting machine wherein the coin paths include at least one output path for outputting sorted coins to be counted and at least one reject path , starting at a sorting-out device , for outputting rejects, wherein a coin counting device designed to output a counting signal is arranged in the at least one output path , wherein the coin path for a coin to be counted is switched over at least in sections from the output path to the at least one reject path as a function of the counting signal , wherein a receptacle for at least one container-shaped insert or for at least one insert with a passage device to a coin container is arranged in the at least one reject path , and wherein the coin sorting machine includes a plurality of interchangeable inserts for the receptacle , of which at least one insert includes a passage device and at least one insert is configured as a coin container , characterized in that the receptacle includes at least two compartments for inserts configured to be repeatedly removed and/or interchanged, each compartment being connected to a different reject path , and at least one compartment includes a sensor device for detecting a container identification .
A display device (1-6) comprising: a light emitting substrate which comprises a base and a light emitting element disposed on the base ; an encapsulation substrate which is disposed on the light emitting substrate and includes a glass material or quartz material; a frit which surrounds the light emitting element and is disposed between the light emitting substrate and the encapsulation substrate , wherein the frit is a glass frit containing a glass material; and characterized in that the display device further comprises a first coating layer which is disposed between the encapsulation substrate and the frit , said first coating layer comprises a compound having an intramolecular ∗ -(OCH 2 CH 2 )-OH structure, and at least partially contacts the frit . a light emitting substrate which comprises a base and a light emitting element disposed on the base ; an encapsulation substrate which is disposed on the light emitting substrate and includes a glass material or quartz material; a frit which surrounds the light emitting element and is disposed between the light emitting substrate and the encapsulation substrate , wherein the frit is a glass frit containing a glass material; and characterized in that the display device further comprises a first coating layer which is disposed between the encapsulation substrate and the frit , said first coating layer comprises a compound having an intramolecular ∗ -(OCH 2 CH 2 )-OH structure, and at least partially contacts the frit .
Piston compressor for a double-piston system , with a connecting rod for two translationally oscillating pistons , said connecting rod being mountable with one section on an eccentric extension of an eccentric shaft of a drive device by means of a first connecting rod bearing and arranged in a connecting rod movement plane (PE), characterized in that at least one air duct is, from a direction looking onto a lateral surface of the connecting rod , arranged next to the connecting rod and in a plane (E1) with said connecting rod such that it does not overlap the connecting rod in at least a transverse direction (Q) in the plane (E1), said plane (E1) corresponding to the connecting rod movement plane (PE), and a centre-of-gravity line (SE) of the translationally oscillating pistons extending in the connecting rod movement plane (PE), the at least one air duct being arranged inside a connecting element that extends from below the connecting rod to above the connecting rod and said connecting element being designed as a hollow structure with any cavity cross-section and connected at one end to the first piston and at a second end to the second piston .
An element substrate of a liquid ejection head, comprising: a base material ; an insulating film positioned on the base material; a heating resistance element configured to generate heat energy for ejecting a liquid; a protective film configured to cover the heating resistance element; a first electrical wiring layer , which is arranged in the insulating film, and is configured to supply a current to the heating resistance element; a second electrical wiring layer , which is arranged on a layer different from the first electrical wiring layer in the insulating film, and is configured to supply a current to the heating resistance element; and a plurality of connecting members configured to extend into the insulating film to connect the first electrical wiring layer and the heating resistance element, wherein the heating resistance element being configured to cause the current to flow in a first direction (X), the heating resistance element comprising a connecting region to which the plurality of connecting members is connected, the connecting region extending in a second direction (Y) intersecting the first direction, and the heating resistance element is divided into, in the first direction, two electrode regions each comprising the plurality of connecting members, and a center region positioned between the two electrode regions, characterized in that the two electrode regions have a dimension longer than a dimension of the center region in the second direction, and that the plurality of connecting members are positioned in the second direction with a gap between adjacent connecting members. a base material ; an insulating film positioned on the base material; a heating resistance element configured to generate heat energy for ejecting a liquid; a protective film configured to cover the heating resistance element; a first electrical wiring layer , which is arranged in the insulating film, and is configured to supply a current to the heating resistance element; a second electrical wiring layer , which is arranged on a layer different from the first electrical wiring layer in the insulating film, and is configured to supply a current to the heating resistance element; and a plurality of connecting members configured to extend into the insulating film to connect the first electrical wiring layer and the heating resistance element, wherein the heating resistance element being configured to cause the current to flow in a first direction (X), the heating resistance element comprising a connecting region to which the plurality of connecting members is connected, the connecting region extending in a second direction (Y) intersecting the first direction, and the heating resistance element is divided into, in the first direction, two electrode regions each comprising the plurality of connecting members, and a center region positioned between the two electrode regions, characterized in that the two electrode regions have a dimension longer than a dimension of the center region in the second direction, and that the plurality of connecting members are positioned in the second direction with a gap between adjacent connecting members.
A system comprising: a computing device configured to create a virtual machine , wherein the virtual machine is configured to generate data of an application running on the virtual machine; a plurality of physical accelerators , wherein the physical accelerators form a physical acceleration resource, wherein the physical acceleration resource comprises a first physical acceleration resource; a scheduling apparatus ; and a management server configured to send, according to a requirement of the first virtual machine, to the scheduling apparatus a command for allocating the first physical acceleration resource from the physical acceleration resource to the virtual machine after the virtual machine is created, wherein the scheduling apparatus is configured to transfer the data to the first physical acceleration resource, which is allocated to the first virtual machine by the scheduling apparatus, wherein the first physical acceleration resource is configured to: receive the data from the scheduling apparatus; process the data to obtain a result; return the result to the scheduling apparatus; and wherein the scheduling apparatus is further configured to send the result to the first virtual machine. a computing device configured to create a virtual machine , wherein the virtual machine is configured to generate data of an application running on the virtual machine; a plurality of physical accelerators , wherein the physical accelerators form a physical acceleration resource, wherein the physical acceleration resource comprises a first physical acceleration resource; a scheduling apparatus ; and a management server configured to send, according to a requirement of the first virtual machine, to the scheduling apparatus a command for allocating the first physical acceleration resource from the physical acceleration resource to the virtual machine after the virtual machine is created, wherein the scheduling apparatus is configured to transfer the data to the first physical acceleration resource, which is allocated to the first virtual machine by the scheduling apparatus, wherein the first physical acceleration resource is configured to: receive the data from the scheduling apparatus; process the data to obtain a result; return the result to the scheduling apparatus; and receive the data from the scheduling apparatus; process the data to obtain a result; return the result to the scheduling apparatus; and wherein the scheduling apparatus is further configured to send the result to the first virtual machine.
A first digital subscriber line device to mitigate crosstalk noise on a signal to be transmitted over a transmission line of a network, the device comprising: a transceiver configured to receive a reference virtual noise signal that is an estimation of noise on the transmission line from a second digital subscriber line device connected to the transmission line, wherein the transceiver is configured to determine a bit loading value of the signal that mitigates the crosstalk noise based on the reference virtual noise signal, wherein the transceiver is configured to receive an update of the reference virtual noise signal at showtime, characterized in that the transceiver is configured to determine a measure of noise of the transmission line of the network and to transmit the measure of noise to the second device, the transceiver is configured to generate the bit loading value based on the reference virtual noise signal for a plurality of modes of communication, and in that the transceiver is configured to switch between the modes of communication, wherein at least one of the modes of communication is a power saving mode. a transceiver configured to receive a reference virtual noise signal that is an estimation of noise on the transmission line from a second digital subscriber line device connected to the transmission line, wherein the transceiver is configured to determine a bit loading value of the signal that mitigates the crosstalk noise based on the reference virtual noise signal, wherein the transceiver is configured to receive an update of the reference virtual noise signal at showtime, characterized in that the transceiver is configured to determine a measure of noise of the transmission line of the network and to transmit the measure of noise to the second device, the transceiver is configured to generate the bit loading value based on the reference virtual noise signal for a plurality of modes of communication, and in that the transceiver is configured to switch between the modes of communication, wherein at least one of the modes of communication is a power saving mode. the transceiver is configured to generate the bit loading value based on the reference virtual noise signal for a plurality of modes of communication, and in that the transceiver is configured to switch between the modes of communication, wherein at least one of the modes of communication is a power saving mode.
Method for manufacturing a component by means of additive manufacturing, in particular by selective laser sintering, wherein a powdered plastic material is used as the base material, which contains a blend of a polyamide and a thermoplastic elastomer to improve the impact strength properties of the component, and wherein the weight proportion of the thermoplastic elastomer in the manufactured component is 10 to 50%, in particular 20 to 40%.
A method of operating an aircraft , the method comprising: obtaining, by a processing system , one or more user inputs to initiate an automated action to be performed by a system onboard the aircraft , the automated action comprising an autonomous adjustment by the system to a mechanical or electrical configuration of an onboard component to influence the aircraft's travel; obtaining, by the processing system , current status information for the aircraft ; determining, by the processing system , a pilot objective based at least in part on the current status information and the one or more user inputs to initiate the automated action; determining, by the processing system , a projected aircraft behavior based on the current status information and the one or more user inputs to initiate the automated action, wherein determining the projected aircraft behavior comprises determining an anticipated response for the system to the one or more user inputs to initiate the automated action; identifying, by the processing system , a difference between the projected aircraft behavior and the pilot objective; providing, by the processing system via a user interface, guidance information pertaining to the automated action in response to identifying the difference, wherein the guidance information comprises an indication of a remedial action to achieve the pilot objective. obtaining, by a processing system , one or more user inputs to initiate an automated action to be performed by a system onboard the aircraft , the automated action comprising an autonomous adjustment by the system to a mechanical or electrical configuration of an onboard component to influence the aircraft's travel; obtaining, by the processing system , current status information for the aircraft ; determining, by the processing system , a pilot objective based at least in part on the current status information and the one or more user inputs to initiate the automated action; determining, by the processing system , a projected aircraft behavior based on the current status information and the one or more user inputs to initiate the automated action, wherein determining the projected aircraft behavior comprises determining an anticipated response for the system to the one or more user inputs to initiate the automated action; identifying, by the processing system , a difference between the projected aircraft behavior and the pilot objective; providing, by the processing system via a user interface, guidance information pertaining to the automated action in response to identifying the difference, wherein the guidance information comprises an indication of a remedial action to achieve the pilot objective.
A spinal interbody device (IBD) (300, 400, 600, 800, 1000-1500) comprising: a solid wall at least partially defining a boundary of the IBD; and a porous body connected to the solid wall and having a plurality of sections forming at least a portion of both a superior and inferior bone interface side of the IBD, wherein each section of the porous body has a different porosity than an adjacent section such that the porosities increase toward a center of the IBD, wherein the plurality of sections including first and second sections , the first section forming a ring about the second section, characterized in that at least the first section is impregnated with a bioactive material so that particles of the bioactive material are disposed within pores of the porous first section, a pore size of the second section is smaller than a particle size of the bioactive material such that the second section is substantially free from the bioactive material, and the porous body comprises a plurality of adjoined cells that collectively define a plurality of pores of the porous body, each cell of the porous body having a plurality of connected members. a solid wall at least partially defining a boundary of the IBD; and a porous body connected to the solid wall and having a plurality of sections forming at least a portion of both a superior and inferior bone interface side of the IBD, wherein each section of the porous body has a different porosity than an adjacent section such that the porosities increase toward a center of the IBD, wherein the plurality of sections including first and second sections , the first section forming a ring about the second section, characterized in that at least the first section is impregnated with a bioactive material so that particles of the bioactive material are disposed within pores of the porous first section, a pore size of the second section is smaller than a particle size of the bioactive material such that the second section is substantially free from the bioactive material, and the porous body comprises a plurality of adjoined cells that collectively define a plurality of pores of the porous body, each cell of the porous body having a plurality of connected members.