mhurhangee/patent-ind-claim-en huggingface dataset:
A method for an aerosol delivery device , the method comprising: storing, during use of the aerosol delivery device and in a memory of the aerosol delivery device, information recording usage characteristics of the aerosol delivery device; creating, using a wireless communication interface of the aerosol delivery device, a connectionless-state advertising packet that includes information relating to an identity and advertising state of the aerosol delivery device and a first set of information recording usage characteristics of the aerosol delivery device from the memory, wherein the connectionless state advertising packet comprises a first payload which includes the first set of information recording usage characteristics; transmitting the advertising packet via the wireless communication interface; receiving a connectionless-state request packet from a remote wireless device , via the wireless communication interface; responsive to receiving the request packet, creating, using the wireless communication interface, a connectionless state response packet that that includes a second set of information recording usage characteristics of the aerosol delivery device from the memory; wherein a connectionless state packet is a packet transmitted without a formal bonding, pairing or other connection establishment process, wherein the first set of information recording usage characteristics are arranged in the first payload according to a predetermined schema defining the order and size of the values included in the first payload. storing, during use of the aerosol delivery device and in a memory of the aerosol delivery device, information recording usage characteristics of the aerosol delivery device; creating, using a wireless communication interface of the aerosol delivery device, a connectionless-state advertising packet that includes information relating to an identity and advertising state of the aerosol delivery device and a first set of information recording usage characteristics of the aerosol delivery device from the memory, wherein the connectionless state advertising packet comprises a first payload which includes the first set of information recording usage characteristics; transmitting the advertising packet via the wireless communication interface; receiving a connectionless-state request packet from a remote wireless device , via the wireless communication interface; responsive to receiving the request packet, creating, using the wireless communication interface, a connectionless state response packet that that includes a second set of information recording usage characteristics of the aerosol delivery device from the memory; wherein a connectionless state packet is a packet transmitted without a formal bonding, pairing or other connection establishment process, wherein the first set of information recording usage characteristics are arranged in the first payload according to a predetermined schema defining the order and size of the values included in the first payload.
Apparatus for determining centration parameters, comprising a camera carrier , which partly encloses an interior that is open to the top, to the bottom and to a rear side and which carries at least three cameras which are arranged between two free ends of the camera carrier and directed onto the interior , wherein the camera carrier has an illumination device for illuminating the interior , characterized in that the illumination device is configured to fully illuminate the interior such that the light intensity deviates from a specified target value of 1000 lux by at most +50% and -30% at least at every point of a region extending over a height of 20 cm and a centre angle of 180 degrees of a lateral surface of a cylinder, arranged in the interior , with a diameter of 20 cm, and in that an open-loop or closed-loop control device is provided for controlling or regulating the light intensity of the light-emitting means in dependence on the brightness in the interior taking into account an incidence of extraneous light.
A method comprising: after starting a compression device of a refrigeration system, opening, by a controller of the refrigeration system, a valve coupled to a storage device to store refrigerant at a supercritical state at the storage device of the refrigeration system, while the compression device is running, wherein the refrigerant comprises carbon dioxide; after stopping the compression device , determining, by the controller , that a substance to be refrigerated is above a threshold temperature; starting the compression device in response to determining that the substance to be refrigerated is above the threshold temperature; and, in response to determining that the substance to be refrigerated is above the threshold temperature while the compression device is stopped, opening, by the controller , the valve to release, from the storage device , the refrigerant that is stored at the supercritical state to provide cooling capacity to the refrigeration system while simultaneously starting the compression device . after starting a compression device of a refrigeration system, opening, by a controller of the refrigeration system, a valve coupled to a storage device to store refrigerant at a supercritical state at the storage device of the refrigeration system, while the compression device is running, wherein the refrigerant comprises carbon dioxide; after stopping the compression device , determining, by the controller , that a substance to be refrigerated is above a threshold temperature; starting the compression device in response to determining that the substance to be refrigerated is above the threshold temperature; and, in response to determining that the substance to be refrigerated is above the threshold temperature while the compression device is stopped, opening, by the controller , the valve to release, from the storage device , the refrigerant that is stored at the supercritical state to provide cooling capacity to the refrigeration system while simultaneously starting the compression device .
A method implemented by hardware, firmware, and/or software comprising: causing displaying, on a head mountable display , a virtual reality environment ; determining an availability, within the virtual reality environment, for text input via a real world object , wherein the real world object is a physical keyboard; triggering , in response to determining the availability for text input, a capture of at least one image of a real world point of view of a user of the head mountable display, wherein the real world point of view of the user of the head mountable display corresponds to a point of view of the user if the user were not wearing the head mountable display; performing object recognition on the captured at least one image of the user's real world point of view to detect whether the real world object is located in the real world point of view of the user of the head mountable display; and triggering, in response to detecting that the real world object is located in the real world point of view of the user of the head mountable display, a generation of a display on the head mountable display of at least one captured image of at least a part of the detected real world object. causing displaying, on a head mountable display , a virtual reality environment ; determining an availability, within the virtual reality environment, for text input via a real world object , wherein the real world object is a physical keyboard; triggering , in response to determining the availability for text input, a capture of at least one image of a real world point of view of a user of the head mountable display, wherein the real world point of view of the user of the head mountable display corresponds to a point of view of the user if the user were not wearing the head mountable display; performing object recognition on the captured at least one image of the user's real world point of view to detect whether the real world object is located in the real world point of view of the user of the head mountable display; and triggering, in response to detecting that the real world object is located in the real world point of view of the user of the head mountable display, a generation of a display on the head mountable display of at least one captured image of at least a part of the detected real world object.
A method for controlling an autonomous commercial highway vehicle, comprising: detecting a failure of a first component based on a first signal; classifying, by an automated driving system on the vehicle, a severity of the failure of the first component; determining to stop the vehicle, by the automated driving system on the vehicle, if the severity exceeds a threshold severity level; determining an emergency stopping distance, by the automated driving system on the vehicle, based on the severity and a current momentum of the vehicle; determining, by the automated driving system on the vehicle, a stopping location within the emergency stopping distance; and stopping the vehicle, by the automated driving system on the vehicle, at the stopping location. detecting a failure of a first component based on a first signal; classifying, by an automated driving system on the vehicle, a severity of the failure of the first component; determining to stop the vehicle, by the automated driving system on the vehicle, if the severity exceeds a threshold severity level; determining an emergency stopping distance, by the automated driving system on the vehicle, based on the severity and a current momentum of the vehicle; determining, by the automated driving system on the vehicle, a stopping location within the emergency stopping distance; and stopping the vehicle, by the automated driving system on the vehicle, at the stopping location.
A holding device for a mobile terminal , comprising: a holder detachably mountable to a front surface of a dashboard of a vehicle , and configured to insertedly retain the mobile terminal therein; and characterized in that the holding device further comprises: a data transceiver configured to receive vehicle information from the vehicle , and to transmit the vehicle information to the mobile terminal ; and a power connection unit positioned in the holder for providing power to the mobile terminal , wherein the mobile terminal is configured to be automatically put into a vehicle mode when the mobile device and the vehicle are electrically connected to each other through the power connection unit. a holder detachably mountable to a front surface of a dashboard of a vehicle , and configured to insertedly retain the mobile terminal therein; and characterized in that the holding device further comprises: a data transceiver configured to receive vehicle information from the vehicle , and to transmit the vehicle information to the mobile terminal ; and a power connection unit positioned in the holder for providing power to the mobile terminal , wherein the mobile terminal is configured to be automatically put into a vehicle mode when the mobile device and the vehicle are electrically connected to each other through the power connection unit. a data transceiver configured to receive vehicle information from the vehicle , and to transmit the vehicle information to the mobile terminal ; and a power connection unit positioned in the holder for providing power to the mobile terminal , wherein the mobile terminal is configured to be automatically put into a vehicle mode when the mobile device and the vehicle are electrically connected to each other through the power connection unit.
Power tool, in particular a circular cross-cut and/or mitre saw, comprising at least one swivel arm , comprising at least one drive unit arranged on the swivel arm , comprising at least two energy storage units , in particular battery packs, that can be electrically connected in series, for supplying energy to the drive unit , and comprising at least two coupling units for fastening the energy storage units to the swivel arm , wherein the coupling units are arranged on the swivel arm , offset from one another as viewed along a longitudinal axis of the swivel arm , wherein the longitudinal axis of the swivel arm is at least substantially parallel to coupling surfaces , in particular planes of main extent, of the coupling units , characterized by at least one workpiece support surface for receiving at least one workpiece, wherein the energy storage units can be coupled to the coupling units , in particular can be inserted into the coupling units , in a direction from the workpiece support surface toward the swivel arm .
A method for driving at least one switch of a power device, the method comprising: receiving one or more sensor signals from one or more sensors including a sensor signal indicating a voltage or current between a source and a drain of the at least one switch; determining one or more driving pulse parameters according to the one or more sensor signals, wherein the one or more driving pulse parameters include a driving pulse strength adjusted between an upper pulse strength limit based on the voltage or current being below a first threshold, and a lower pulse strength limit based on the voltage or current being above a second threshold; wherein the upper pulse strength limit, determining the first threshold, is based on a maximum rated source-drain voltage of the switch not being exceeded by expected transient voltage and/or current spikes, on top of the voltage or current indicated by the sensor signal; and applying a driving pulse having the determined one or more driving pulse parameters to one or more control terminals respectively of the at least one switch. receiving one or more sensor signals from one or more sensors including a sensor signal indicating a voltage or current between a source and a drain of the at least one switch; determining one or more driving pulse parameters according to the one or more sensor signals, wherein the one or more driving pulse parameters include a driving pulse strength adjusted between an upper pulse strength limit based on the voltage or current being below a first threshold, and a lower pulse strength limit based on the voltage or current being above a second threshold; wherein the upper pulse strength limit, determining the first threshold, is based on a maximum rated source-drain voltage of the switch not being exceeded by expected transient voltage and/or current spikes, on top of the voltage or current indicated by the sensor signal; and an upper pulse strength limit based on the voltage or current being below a first threshold, and a lower pulse strength limit based on the voltage or current being above a second threshold; wherein the upper pulse strength limit, determining the first threshold, is based on a maximum rated source-drain voltage of the switch not being exceeded by expected transient voltage and/or current spikes, on top of the voltage or current indicated by the sensor signal; and applying a driving pulse having the determined one or more driving pulse parameters to one or more control terminals respectively of the at least one switch.
A controller suitable for controlling behavior of a motorcycle with a damping device for damping kinetic energy, the controller comprising: an acquisition section that is configured to acquire trigger information generated in accordance with peripheral environment of the motorcycle ; and an execution section that is configured to initiate a control mode in response to the trigger information, the control mode making the motorcycle execute an automatic deceleration operation, wherein in the control mode, the automatic deceleration operation is executed in a state where a damping rate of the damping device is increased to be higher than that immediately before initiation of the control mode, and upon termination of the automatic deceleration operation, the damping rate of the damping device is lowered at a lower change rate than a change rate at a time when the damping rate of the damping device is increased to be higher than that immediately before the initiation of the control mode, characterized in that in the case where it is determined that a driver has an avoidance intention during the automatic deceleration operation, the automatic deceleration operation is prohibited and terminated. an acquisition section that is configured to acquire trigger information generated in accordance with peripheral environment of the motorcycle ; and an execution section that is configured to initiate a control mode in response to the trigger information, the control mode making the motorcycle execute an automatic deceleration operation, wherein in the control mode, the automatic deceleration operation is executed in a state where a damping rate of the damping device is increased to be higher than that immediately before initiation of the control mode, and upon termination of the automatic deceleration operation, the damping rate of the damping device is lowered at a lower change rate than a change rate at a time when the damping rate of the damping device is increased to be higher than that immediately before the initiation of the control mode, characterized in that in the case where it is determined that a driver has an avoidance intention during the automatic deceleration operation, the automatic deceleration operation is prohibited and terminated.
A heterophasic polypropylene composition comprising (A) 70 to 90 wt% of a crystalline isotactic propylene homopolymer matrix having a pentad concentration as determined by 13 C-NMR spectroscopy of more than 96 mol% and a matrix melt flow rate (MFR M ) as determined at 230°C and 2.16 kg load according ISO 1133 in the range of 0.5 to 50 g/10min, (B) 10 to 30 wt% of a predominantly amorphous propylene copolymer with 32 to 50 wt% of ethylene and/or an a-olefin with 4-10 carbon atoms, being present in the composition as dispersed particles, and (C) 0 to 5.0 wt% of a crystalline ethylene copolymer with an a-olefin with 3-10 carbon atoms being present in the composition as inclusions of the dispersed particles of (B), (D) 0 to 1.0 wt% of an alpha nucleating agent for the α- and/or γ-phase of isotactic polypropylene said composition being further characterized by a total melt flow rate (MFR T ) as determined at 230°C and 2.16 kg load according ISO 1133 in the range of 0.5 to 45 g/10min, a fraction soluble in xylene (XCS) determined at 25°C according ISO 16152 in the range of 11 to 27 wt%, and ratio of MFR T /MFR M of ≤ 1.0. (A) 70 to 90 wt% of a crystalline isotactic propylene homopolymer matrix having a pentad concentration as determined by 13 C-NMR spectroscopy of more than 96 mol% and a matrix melt flow rate (MFR M ) as determined at 230°C and 2.16 kg load according ISO 1133 in the range of 0.5 to 50 g/10min, (B) 10 to 30 wt% of a predominantly amorphous propylene copolymer with 32 to 50 wt% of ethylene and/or an a-olefin with 4-10 carbon atoms, being present in the composition as dispersed particles, and (C) 0 to 5.0 wt% of a crystalline ethylene copolymer with an a-olefin with 3-10 carbon atoms being present in the composition as inclusions of the dispersed particles of (B), (D) 0 to 1.0 wt% of an alpha nucleating agent for the α- and/or γ-phase of isotactic polypropylene
An image signal processing method, wherein the method comprises: obtaining (S101) an image signal, wherein the image signal is derived based on a sensor signal collected by an image sensor; characterized by recognizing (S102), by using a neural network, a scene to which the image signal belongs; determining (S103), by using attribute information of the image signal, whether the scene is accurate; and if determining that the scene is accurate, performing (S104) enhancement processing on the image signal based on the scene, to generate an enhanced image signal; wherein the attribute information of the image signal comprises at least one of light intensity information and foreground location information in the image signal; wherein the determining, by using attribute information of the image signal, whether the scene is accurate comprises: determining, based on the light intensity information, whether a light intensity of the image signal is within a preset light intensity threshold range, to determine whether the scene is accurate, or determining, based on the foreground location information, whether a foreground location of the image signal is within a preset distance threshold range, to determine whether the scene is accurate. obtaining (S101) an image signal, wherein the image signal is derived based on a sensor signal collected by an image sensor; characterized by recognizing (S102), by using a neural network, a scene to which the image signal belongs; determining (S103), by using attribute information of the image signal, whether the scene is accurate; and if determining that the scene is accurate, performing (S104) enhancement processing on the image signal based on the scene, to generate an enhanced image signal; wherein the attribute information of the image signal comprises at least one of light intensity information and foreground location information in the image signal; wherein the determining, by using attribute information of the image signal, whether the scene is accurate comprises: determining, based on the light intensity information, whether a light intensity of the image signal is within a preset light intensity threshold range, to determine whether the scene is accurate, or determining, based on the foreground location information, whether a foreground location of the image signal is within a preset distance threshold range, to determine whether the scene is accurate. determining, based on the light intensity information, whether a light intensity of the image signal is within a preset light intensity threshold range, to determine whether the scene is accurate, or determining, based on the foreground location information, whether a foreground location of the image signal is within a preset distance threshold range, to determine whether the scene is accurate.
A gas-air mix device with a flow guide body formed as a Venturi nozzle, which comprises an air flow inlet , a gas-air mixture outlet as well as a combustion gas supply opening provided between the air flow inlet and the gas-air mixture outlet in the area of a Venturi cross section narrowing , wherein the combustion gas supply opening is formed by at least six individual gas pockets distributed over the circumference of the flow guide body , spaced apart from one another and penetrating the flow guide body , and the gas pockets respectively comprise, proceeding from an inner circumferential surface of the flow guide body , a first section extending radially outward, in which inner wall surfaces of the gas pockets extend radially outward over predetermined length (t) at an angle of ±10° with respect to a radius of the flow guide body , wherein the gas pockets comprise a radially outward extending second section radially adjoining the first radial section , which penetrates the flow guide body in radial direction up to the outer side thereof, wherein the second section , when viewed in a radial section at the Venturi cross section narrowing of the flow guide body , is formed as a circular segment with a radius R.