mhurhangee/patent-ind-claim-en huggingface dataset:
A method to dynamically respond to changes in device configurations, comprising: using a portable computing device to execute a first application while in a first device configuration of portrait view; displaying a first number of ribbon controls associated with an application UI associated with a first application while in the first device configuration; in response to a user actuation of a popover trigger, displaying a first number of popover controls associated with the first application while in the first device configuration; displaying a second number of ribbon controls associated with the first application while in a second device configuration of landscape view; and in response to a user actuation of the popover trigger, displaying a second number of popover controls associated with the first application while in the second device configuration; wherein a priority value of a ribbon control is used when determining whether to display the ribbon control in a ribbon or spillover the ribbon control into a popover. using a portable computing device to execute a first application while in a first device configuration of portrait view; displaying a first number of ribbon controls associated with an application UI associated with a first application while in the first device configuration; in response to a user actuation of a popover trigger, displaying a first number of popover controls associated with the first application while in the first device configuration; displaying a second number of ribbon controls associated with the first application while in a second device configuration of landscape view; and in response to a user actuation of the popover trigger, displaying a second number of popover controls associated with the first application while in the second device configuration; wherein a priority value of a ribbon control is used when determining whether to display the ribbon control in a ribbon or spillover the ribbon control into a popover.
A mammalian anucleate cell comprising (i) an antigen or (ii) an antigen and a tolerogenic factor for use in a method for suppressing an immune response or inducing tolerance in an individual, wherein the mammalian anucleate cell comprising (i) an antigen or (ii) an antigen and a tolerogenic factor is generated by passing a cell suspension comprising a mammalian anucleate cell through a constriction, wherein said constriction deforms the cell thereby causing a perturbation of the cell such that (i) an antigen or (ii) an antigen and a tolerogenic factor contacted with the cell enters the mammalian anucleate cell; wherein the constriction size is about 10% to about 99% of the cell diameter and said antigen is processed in a tolerogenic environment, wherein presentation of said antigen in said tolerogenic environment suppresses an immune response to the antigen, and wherein said tolerogenic factor contributes to a tolerogenic environment that suppresses an immune response; further wherein the mammalian anucleate cell is a red blood cell. wherein the constriction size is about 10% to about 99% of the cell diameter and said antigen is processed in a tolerogenic environment, wherein presentation of said antigen in said tolerogenic environment suppresses an immune response to the antigen, and wherein said tolerogenic factor contributes to a tolerogenic environment that suppresses an immune response; further wherein the mammalian anucleate cell is a red blood cell.
A method of manufacturing a shelf board for a shelving system for displaying goods, the shelving system comprising a) at least one shelf board extending in a planar manner along a shelf board plane (RE) for depositing the goods thereon and b) at least one shelving body for receiving the shelf board , c) wherein the at least one shelf board is detachably held on the shelving body by at least one holding means and d) comprises two electrical luminescent layers for illuminating the goods, e) wherein the at least one shelf board comprises at least one induction layer for inductively obtaining electrical energy for supplying the two luminescent layers , and f) wherein the shelving body comprises at least one transmission device for inductive energy transmission to the at least one induction layer of the at least one shelf board , g) wherein the two luminescent layers and the at least one induction layer each comprise a plurality of material layers aligned along the shelf board plane (RE) and having different material compositions from one another, h) the two luminescent layers being arranged perpendicular to the shelf board plane (RE) above and below the at least one induction layer , and i) wherein the at least one induction layer is arranged between the two luminescent layers , the manufacturing method comprising the following steps: j) providing a flat support element for the shelf board ; and k) screen printing the two luminescent layers and the at least one induction layer of the shelf board onto the support element . a) at least one shelf board extending in a planar manner along a shelf board plane (RE) for depositing the goods thereon and b) at least one shelving body for receiving the shelf board , c) wherein the at least one shelf board is detachably held on the shelving body by at least one holding means and d) comprises two electrical luminescent layers for illuminating the goods, e) wherein the at least one shelf board comprises at least one induction layer for inductively obtaining electrical energy for supplying the two luminescent layers , and f) wherein the shelving body comprises at least one transmission device for inductive energy transmission to the at least one induction layer of the at least one shelf board , g) wherein the two luminescent layers and the at least one induction layer each comprise a plurality of material layers aligned along the shelf board plane (RE) and having different material compositions from one another, h) the two luminescent layers being arranged perpendicular to the shelf board plane (RE) above and below the at least one induction layer , and i) wherein the at least one induction layer is arranged between the two luminescent layers , j) providing a flat support element for the shelf board ; and k) screen printing the two luminescent layers and the at least one induction layer of the shelf board onto the support element .
A method for manufacturing an assembly for a roller body of an industrial roller comprising: - the provision of a rotationally symmetrical hollow body with a cylindrical shape and is composed of a fibre-reinforced composite material and/or a metallic material; - the manufacture of a terminal device (20; 30; ...; 100) from a metallic and/or a polymer material using an additive manufacturing method; and - the connection of the terminal device (20; 30; ...; 100) with the rotationally symmetrical hollow body , wherein it is arranged in a lateral end region (3; 4) of the rotationally symmetrical hollow body , wherein - the terminal device (20; 30; ...; 100) is manufactured, using the additive manufacturing method, with a fluid-channel structure which can be filled with a fluid; and - the terminal device (20; 30; ...; 100) is manufactured with an elastically flexible distending wall which is at least partially adjacent to the fluid-channel structure and is configured to distend in the fluid-channel structure when pressurized by the fluid. - the provision of a rotationally symmetrical hollow body with a cylindrical shape and is composed of a fibre-reinforced composite material and/or a metallic material; - the manufacture of a terminal device (20; 30; ...; 100) from a metallic and/or a polymer material using an additive manufacturing method; and - the connection of the terminal device (20; 30; ...; 100) with the rotationally symmetrical hollow body , wherein it is arranged in a lateral end region (3; 4) of the rotationally symmetrical hollow body , wherein - the terminal device (20; 30; ...; 100) is manufactured, using the additive manufacturing method, with a fluid-channel structure which can be filled with a fluid; and - the terminal device (20; 30; ...; 100) is manufactured with an elastically flexible distending wall which is at least partially adjacent to the fluid-channel structure and is configured to distend in the fluid-channel structure when pressurized by the fluid.
A plasma processing apparatus comprising: a balun including a first unbalanced terminal , a second unbalanced terminal , an ungrounded first balanced terminal , an ungrounded second balanced terminal , a first coil configured to connect the first unbalanced terminal and the first balanced terminal , and a second coil configured to connect the second unbalanced terminal and the second balanced terminal ; a grounded vacuum container ; a first electrode electrically connected to the first balanced terminal ; a second electrode electrically connected to the second balanced terminal ; an impedance matching circuit ; a first high-frequency power supply connected to the first unbalanced terminal of the balun via the impedance matching circuit , and configured to supply a high frequency to the first electrode via the impedance matching circuit and the balun ; a low-pass filter ; and a power supply configured to supply a voltage to the first electrode via the low-pass filter . a balun including a first unbalanced terminal , a second unbalanced terminal , an ungrounded first balanced terminal , an ungrounded second balanced terminal , a first coil configured to connect the first unbalanced terminal and the first balanced terminal , and a second coil configured to connect the second unbalanced terminal and the second balanced terminal ; a grounded vacuum container ; a first electrode electrically connected to the first balanced terminal ; a second electrode electrically connected to the second balanced terminal ; an impedance matching circuit ; a first high-frequency power supply connected to the first unbalanced terminal of the balun via the impedance matching circuit , and configured to supply a high frequency to the first electrode via the impedance matching circuit and the balun ; a low-pass filter ; and a power supply configured to supply a voltage to the first electrode via the low-pass filter .
Method for authenticating a computer device at the level of a user ; an association of said user with at least one sensory content being known on the one hand at the level of the user and on the other hand at the level of the computer device; said method comprising the following steps: /a/ at the level of the computer device, determine a digital content as a function of the sensory content associated with said user; /b/ from the computer device, provide at the level of the user the digital content determined in step /a/; /c/ compare the sensory content associated with said user with the digital content provided in step /b/ so as to decide to authenticate the computer device; in which the computer device is configured to manage a determination parameter evolving according to a rule known at the level of the user; in which step /a/ is carried out as a function furthermore of said determination parameter and step /c/ is carried out as a function furthermore of said rule of evolution of the determination parameter; and in which the determination parameter is a temporal reference which evolves according to a rule based on a temporal clock known at the level of the computer device and at the level of the user. /a/ at the level of the computer device, determine a digital content as a function of the sensory content associated with said user; /b/ from the computer device, provide at the level of the user the digital content determined in step /a/; /c/ compare the sensory content associated with said user with the digital content provided in step /b/ so as to decide to authenticate the computer device;
An optical sensor for detecting objects within a surveillance area, with a transmitter emitting transmitted light pulses and a receiver , which are arranged at opposite edges of the surveillance area in such a way that, when the surveillance area is free, the transmitted light pulses of the transmitter are guided to the receiver , and with an evaluation unit in which an object detection signal is generated as a function of received signals from the receiver , characterised in that the transmitter emits the transmitted light pulses periodically within scan cycles, wherein the transmitted light pulses emitted by the transmitter are received by the receiver within predetermined expectation time intervals, the expectation time intervals being adapted to the durations of the transmitted light pulses and to the distance between transmitters and receivers , and in that an extraneous light evaluation stage is provided which evaluates light pulses registered at the receiver within an observation period which is shorter than the scan cycle as extraneous light pulses if these are received outside the expected time interval.
A method of automatically provisioning a network device to communicate with a network, the method comprising: attaching a bridging device to the network device, wherein the bridging device forms an ad hoc network wirelessly connecting the bridging device to a handheld computing device; wirelessly transmitting information about the network device from the bridging device to the handheld computing device; identifying a second network, different from the ad hoc network on the handheld computing device; and transmitting an identifier of the identified second network and the information about the network device from the handheld computing device to a cloud computing environment; generating provisioning information in the cloud computing environment for the network device so that the network device can connect to the second network; transmitting the provisioning information from the handheld computing device to the network device; provisioning the network device with the provisioning information; and removing the bridging device from the network device, wherein the network device is enabled to communicate with the cloud computing environment through the identified second network directly. attaching a bridging device to the network device, wherein the bridging device forms an ad hoc network wirelessly connecting the bridging device to a handheld computing device; wirelessly transmitting information about the network device from the bridging device to the handheld computing device; identifying a second network, different from the ad hoc network on the handheld computing device; and transmitting an identifier of the identified second network and the information about the network device from the handheld computing device to a cloud computing environment; generating provisioning information in the cloud computing environment for the network device so that the network device can connect to the second network; transmitting the provisioning information from the handheld computing device to the network device; provisioning the network device with the provisioning information; and removing the bridging device from the network device, wherein the network device is enabled to communicate with the cloud computing environment through the identified second network directly.
Food preparation system, in particular a cooking system, having at least one cooking utensil , which at least partially delimits at least one food receiving space for holding at least one food and which is provided to be heated by a cooking appliance , characterised in that the cooking utensil has at least one sensor unit , which is provided to detect at least one weight parameter.
An OTDR measurement system comprising: a laser source for injecting light into a first, input endface of an optical fiber span being measured; a control element for turning "on" and "off" the laser source, creating a leading edge of a propagating probe signal upon turning "on" the laser source and creating a trailing edge of the probe signal upon turning "off" the laser source; a photoreceiver coupled to the first, input endface of the optical fiber span for receiving a returned portion of the propagating probe signal and providing a measurement of the returned optical power as an electrical output power signal; a data analysis unit for sampling the electrical output of the photoreceiver characterized in that the control element is configured to keep the laser source powered until the probe signal reaches an end of the optical fiber span being measured, and the data analysis unit is configured to store a plurality of sampled measurements from the point in time when the leading edge of the probe signal enters the optical fiber span, the data analysis unit including a difference calculator for subtracting the value of returned power measured at two separate instances in time, using a selected resolution factor, to generate an OTDR trace as the output of the OTDR measurement system, the selected resolution factor determining the level of detail shown in the OTDR trace. a laser source for injecting light into a first, input endface of an optical fiber span being measured; a control element for turning "on" and "off" the laser source, creating a leading edge of a propagating probe signal upon turning "on" the laser source and creating a trailing edge of the probe signal upon turning "off" the laser source; a photoreceiver coupled to the first, input endface of the optical fiber span for receiving a returned portion of the propagating probe signal and providing a measurement of the returned optical power as an electrical output power signal; a data analysis unit for sampling the electrical output of the photoreceiver characterized in that the control element is configured to keep the laser source powered until the probe signal reaches an end of the optical fiber span being measured, and the data analysis unit is configured to store a plurality of sampled measurements from the point in time when the leading edge of the probe signal enters the optical fiber span, the data analysis unit including a difference calculator for subtracting the value of returned power measured at two separate instances in time, using a selected resolution factor, to generate an OTDR trace as the output of the OTDR measurement system, the selected resolution factor determining the level of detail shown in the OTDR trace.
An axle system for use in utility vehicles, comprising a suspension arm and a clamping unit , wherein the clamping unit has a base element and a clamping element , wherein the base element is or can be secured to an axle element , characterized in that the base element is substantially arranged on a first side and the clamping element on the second side of the suspension arm lying opposite the first side , wherein a tensile element is provided which is designed to apply a tensile force between the clamping element and the base element , such that the suspension arm is held by force fit between the clamping element and the base element .
Quality evaluation method for characterising resistance-welded welding components , in particular in conductive capacitor discharge (CD) welding installations, by evaluating at least one welding parameter (P1, Pn) from the group: welding current, welding voltage, welding force, resistance, deposition/melting path, welding time; wherein a detected curve of the welding parameter to be evaluated is provided as a curve (PK) of the respective welding parameter; characterized by evaluating the curve (PK) by reading out at least one characteristic variable (Kl, Kn) of the respective curve as a function of time and optionally also as a function of at least one further of the welding parameters, wherein at least the amount of the welding current and a change in slope and/or change in gradient of the welding current curve as well as the time of the respective welding current and the change in slope are evaluated as characteristic variables; comparing the characteristic variables with at least one setpoint value (V1, Vn) for the respective characteristic variable, wherein at least the slope and/or a gradient of the respective curve (PK) is evaluated as characteristic variable (K1, Kn), wherein the setpoint value is defined on the basis of the detected course or gradient of the welding parameter to be evaluated; and evaluating the quality of the welding component based on the comparison of the characteristic values, in particular with regard to the amount of a deviation of the characteristic values from the setpoint value. characterized by evaluating the curve (PK) by reading out at least one characteristic variable (Kl, Kn) of the respective curve as a function of time and optionally also as a function of at least one further of the welding parameters, wherein at least the amount of the welding current and a change in slope and/or change in gradient of the welding current curve as well as the time of the respective welding current and the change in slope are evaluated as characteristic variables; comparing the characteristic variables with at least one setpoint value (V1, Vn) for the respective characteristic variable, wherein at least the slope and/or a gradient of the respective curve (PK) is evaluated as characteristic variable (K1, Kn), wherein the setpoint value is defined on the basis of the detected course or gradient of the welding parameter to be evaluated; and evaluating the quality of the welding component based on the comparison of the characteristic values, in particular with regard to the amount of a deviation of the characteristic values from the setpoint value.
A mobile X-ray unit comprising a base for accommodating a control unit and a power supply , further comprising an articulated displaceable arm supporting an X-ray applicator having an X-ray tube for emitting an X-ray beam through a collimator and an exit window causing the generated X-ray beam to propagate parallel to the longitudinal axis of the X-ray tube , for irradiating an object, wherein the X-ray unit further comprises a phantom-based dosimetry system including a body of tissue equivalent material, the dosimeter system being screwed, clicked or slide to the X-ray applicator to form an affixed formation ; and being adapted to perform a real-time dosimetry check of the X-ray beam. a base for accommodating a control unit and a power supply , further comprising an articulated displaceable arm supporting an X-ray applicator having an X-ray tube for emitting an X-ray beam through a collimator and an exit window causing the generated X-ray beam to propagate parallel to the longitudinal axis of the X-ray tube , for irradiating an object, wherein the X-ray unit further comprises a phantom-based dosimetry system including a body of tissue equivalent material, the dosimeter system being screwed, clicked or slide to the X-ray applicator to form an affixed formation ; and being adapted to perform a real-time dosimetry check of the X-ray beam.