mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating an electronic document template for a value or security document, comprising the following steps: - providing a database (DB), in which different types of optical security features are each assigned one or more channels for optical sensing of the security feature in question by means of an optical reading device, wherein the optical reading device is configured for separation of the channels, - selecting a plurality of types of the optical security features from the database and instantiating the selected types in each case by placing and scaling security features of the selected types on an electronic representation of a document substrate layer of the value or security document in order to generate a layout draft, - checking the layout draft, wherein, for spatially overlapping or mutually adjoining instantiated types of security features, it is checked whether these occupy a common channel, and - if this is the case, outputting a signal and inputting a correction of the layout draft as a response to the signal, and - storing the resulting corrected layout draft as the electronic document template. - providing a database (DB), in which different types of optical security features are each assigned one or more channels for optical sensing of the security feature in question by means of an optical reading device, wherein the optical reading device is configured for separation of the channels, - selecting a plurality of types of the optical security features from the database and instantiating the selected types in each case by placing and scaling security features of the selected types on an electronic representation of a document substrate layer of the value or security document in order to generate a layout draft, - checking the layout draft, wherein, for spatially overlapping or mutually adjoining instantiated types of security features, it is checked whether these occupy a common channel, and - if this is the case, outputting a signal and inputting a correction of the layout draft as a response to the signal, and - storing the resulting corrected layout draft as the electronic document template.
Method for providing an item of information by means of a motor vehicle , having the steps: - receiving a request for information via a control centre external to the vehicle, which comprises a server, from a request unit , which is carried out in the form of a further server remote from the control centre , a personal computer or a mobile end device, - for a plurality of motor vehicles: receiving via the control centre a respective position of the motor vehicles continuously, periodically and/or in response to a position request from the control centre , - selecting a motor vehicle from the plurality of motor vehicles according to a predetermined selection criterion, wherein the selection criterion comprises that the motor vehicle is selected on the basis of the position of the motor vehicle , - sending a control signal for controlling a detection device of the selected motor vehicle via the control centre to the selected motor vehicle , - receiving from the detection device of the selected motor vehicle an item of information detected on the basis of the control signal, - transmitting the item of information via the control centre to the request unit , - wherein environmental data are detected as the item of information , wherein the environmental data comprise a temperature as a measurement parameter of an environment of the motor vehicle. - receiving a request for information via a control centre external to the vehicle, which comprises a server, from a request unit , which is carried out in the form of a further server remote from the control centre , a personal computer or a mobile end device, - for a plurality of motor vehicles: receiving via the control centre a respective position of the motor vehicles continuously, periodically and/or in response to a position request from the control centre , - selecting a motor vehicle from the plurality of motor vehicles according to a predetermined selection criterion, wherein the selection criterion comprises that the motor vehicle is selected on the basis of the position of the motor vehicle , - sending a control signal for controlling a detection device of the selected motor vehicle via the control centre to the selected motor vehicle , - receiving from the detection device of the selected motor vehicle an item of information detected on the basis of the control signal, - transmitting the item of information via the control centre to the request unit , - wherein environmental data are detected as the item of information , wherein the environmental data comprise a temperature as a measurement parameter of an environment of the motor vehicle.
Hand-held cyclone vacuum cleaner, comprising - a suctioned material container for receiving suctioned material, - a device body which can be releasably connected to the suctioned material container and has a drive unit which is designed to generate a suction air flow, characterised in that an air duct located in the suctioned material container and a suction channel located in the housing body , when the suctioned material container and housing body are in a connected state, have an air path for the suction air flow during operation, which air path is oriented along a flow axis which is parallel to a movement axis when the suctioned material container and the device body are connected. - a suctioned material container for receiving suctioned material, - a device body which can be releasably connected to the suctioned material
A method, the method comprising: at a portable low frequency (LF) tool: receiving a sensor reading of a tire pressure; determining a barometric pressure adjustment based upon received inputs; applying the adjustment to the reading of the tire pressure to form an adjusted pressure; presenting the adjusted pressure to a user at the portable LF tool; characterized in that the received inputs are signals from an external network. receiving a sensor reading of a tire pressure; determining a barometric pressure adjustment based upon received inputs; applying the adjustment to the reading of the tire pressure to form an adjusted pressure; presenting the adjusted pressure to a user at the portable LF tool; characterized in that the received inputs are signals from an external network.
Method for producing a methane-enriched gas, comprising the steps of a) providing a bioreactor having - at least one device for supplying a gas, - at least one outlet for removing the methane-enriched gas generated in the bioreactor, b) providing a device for determining the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, c) specifying a nominal value S for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, d) supplying carbon dioxide-containing gas to the bioreactor, e) supplying hydrogen-containing gas to the bioreactor, f) forming methane-enriched gas in the bioreactor, g) removing the methane-enriched gas formed in the bioreactor from the bioreactor, h) determining an actual value for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, i) comparing the nominal value S specified in step c) with the actual value determined in step h), j) regulating the quantity of carbon dioxide-containing gas supplied in step d) and/or regulating the quantity of hydrogen-containing gas supplied in step e) in a manner such that the actual value determined in step h) corresponds to the nominal value S specified in step c), characterized in that the nominal value S specified in step c) for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor satisfies the condition 0 vol% < S ≤ 5 vol%. a) providing a bioreactor having - at least one device for supplying a gas, - at least one outlet for removing the methane-enriched gas generated in the bioreactor, - at least one device for supplying a gas, - at least one outlet for removing the methane-enriched gas generated in the bioreactor, b) providing a device for determining the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, c) specifying a nominal value S for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, d) supplying carbon dioxide-containing gas to the bioreactor, e) supplying hydrogen-containing gas to the bioreactor, f) forming methane-enriched gas in the bioreactor, g) removing the methane-enriched gas formed in the bioreactor from the bioreactor, h) determining an actual value for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, i) comparing the nominal value S specified in step c) with the actual value determined in step h), j) regulating the quantity of carbon dioxide-containing gas supplied in step d) and/or regulating the quantity of hydrogen-containing gas supplied in step e) in a manner such that the actual value determined in step h) corresponds to the nominal value S specified in step c),
Suspended conveyor with an unloading station to which at least one pouch of the suspended conveyor hanging on a conveying rail of the suspended conveyor is supplied, wherein the pouch has two side walls which are connected to one another at a pouch bottom via a coupling , the coupling having, on at least one of two opposite faces, an actuation end , protruding from the face perpendicularly to the conveying direction (x) of the pouch , of a slider of an actuation mechanism of the coupling for releasing the coupling, and the unloading station having a pouch guide tapering along the conveying direction (x) in the width direction through which the coupling is guided with the actuation end and which engages the actuation end , characterized in that the pouch guide tapers along the conveying direction (x) in the width direction.
Clock movement comprising a mechanism for indicating and storing time information, the mechanism comprising: - a member (S') for displaying the stored seconds and/or stored fractions of seconds, and - a first device (MEM1) for storing seconds and/or fractions of seconds, wherein the first storage device comprises: - a first storage mobile (M1) provided with a first storage element (MC1) in direct and permanent mesh with an element of a geartrain of the clock movement, or - a first storage element fixed to an element of a geartrain of the clock movement. - a member (S') for displaying the stored seconds and/or stored fractions of seconds, and - a first device (MEM1) for storing seconds and/or fractions of seconds, - a first storage mobile (M1) provided with a first storage element (MC1) in direct and permanent mesh with an element of a geartrain of the clock movement, or - a first storage element fixed to an element of a geartrain of the clock movement.
An apparatus for controlling to enable an autonomous system in a vehicle, the apparatus comprising: a sensor configured to sense information regarding an outside of the vehicle and an inside of the vehicle; an input device configured to receive an input from a driver of the vehicle; an output device configured to output a notification in the vehicle; and a control circuit configured to be electrically connected with the sensor , the input device , and the output device , wherein the control circuit is configured to: activate an autonomous control in response to the received input; detect a critical situation of the vehicle by the sensor ; output a notification to transfer a control authority by the output device in response to the detected critical situation; and is characterised in that it automatically reactivates the autonomous control when the critical situation is solved after temporarily releasing the autonomous control, wherein the critical situation corresponds to a critical situation of a specified type. a sensor configured to sense information regarding an outside of the vehicle and an inside of the vehicle; an input device configured to receive an input from a driver of the vehicle; an output device configured to output a notification in the vehicle; and a control circuit configured to be electrically connected with the sensor , the input device , and the output device , wherein the control circuit is configured to: activate an autonomous control in response to the received input; detect a critical situation of the vehicle by the sensor ; output a notification to transfer a control authority by the output device in response to the detected critical situation; and is characterised in that it automatically reactivates the autonomous control when the critical situation is solved after temporarily releasing the autonomous control, wherein the critical situation corresponds to a critical situation of a specified type. activate an autonomous control in response to the received input; detect a critical situation of the vehicle by the sensor ; output a notification to transfer a control authority by the output device in response to the detected critical situation; and is characterised in that it automatically reactivates the autonomous control when the critical situation is solved after temporarily releasing the autonomous control, wherein the critical situation corresponds to a critical situation of a specified type.
A vane assembly (60; 160; 260; 360; 460; 560) comprising: inner and outer rings (62a, 62b; 162a, 162b); a plurality of segmented vane structures (64; 164) circumferentially-spaced around a central axis (A) and between the inner and outer rings (62a, 62b; 162a, 162b); at least one spring (74; 174; 274; 374; 574; 674) mechanically trapping the segmented vane structures (64; 164) in radial compression between the inner and outer rings (62a, 62b; 162a, 162b); and at least one joint located radially between the segmented vane structures and at least one of the inner and outer rings , the at least one joint including a ramp that slants along the axial direction; characterised in that : the at least one spring biases the segmented vane structures against the ramp , wherein the ramp is located within a recess and interfaces with a tab , wherein, when the joint is at the inner ring (62a; 162a), one of the recess or the tab is on the inner ring (62a; 162a) or, when the joint is at the outer ring (62b; 162b), one of the recess or the tab is on the outer ring (62b; 162b). inner and outer rings (62a, 62b; 162a, 162b); a plurality of segmented vane structures (64; 164) circumferentially-spaced around a central axis (A) and between the inner and outer rings (62a, 62b; 162a, 162b); at least one spring (74; 174; 274; 374; 574; 674) mechanically trapping the segmented vane structures (64; 164) in radial compression between the inner and outer rings (62a, 62b; 162a, 162b); and at least one joint located radially between the segmented vane structures and at least one of the inner and outer rings , the at least one joint including a ramp that slants along the axial direction; characterised in that : the at least one spring biases the segmented vane structures against the ramp , wherein the ramp is located within a recess and interfaces with a tab , wherein, when the joint is at the inner ring (62a; 162a), one of the recess or the tab is on the inner ring (62a; 162a) or, when the joint is at the outer ring (62b; 162b), one of the recess or the tab is on the outer ring (62b; 162b).
A coated article including a coating supported by a glass substrate , comprising: a first dielectric layer supported by the glass substrate ; a first infrared (IR) reflecting layer comprising silver supported by the glass substrate and located over at least the first dielectric layer ; an upper contact layer comprising an oxide of Ni and/or Cr or comprising Ti, the upper contact layer comprising an oxide of Ni and/or Cr or comprising Ti located over and directly contacting the first IR reflecting layer comprising silver; a layer comprising zinc stannate located over and directly contacting the upper contact layer comprising the oxide of Ni and/or Cr or comprising Ti; a first layer comprising silicon nitride (15,) located over and directly contacting the layer comprising zinc stannate ; a second IR reflecting layer comprising silver located over at least the first layer comprising silicon nitride ; and another dielectric layer located over at least the second IR reflecting layer . a first dielectric layer supported by the glass substrate ; a first infrared (IR) reflecting layer comprising silver supported by the glass substrate and located over at least the first dielectric layer ; an upper contact layer comprising an oxide of Ni and/or Cr or comprising Ti, the upper contact layer comprising an oxide of Ni and/or Cr or comprising Ti located over and directly contacting the first IR reflecting layer comprising silver; a layer comprising zinc stannate located over and directly contacting the upper contact layer comprising the oxide of Ni and/or Cr or comprising Ti; a first layer comprising silicon nitride (15,) located over and directly contacting the layer comprising zinc stannate ; a second IR reflecting layer comprising silver located over at least the first layer comprising silicon nitride ; and another dielectric layer located over at least the second IR reflecting layer .
Moulding material which consists to an extent of at least 50 wt% of the combination of the following constituents: a)80 to 97 parts by mass of a polyamide component comprising a1)70 to 100 parts by wt of PA PACMX (where X = 8 to 18) and a2) 30 to 0 parts by wt of a linear aliphatic polyamide having on average 8 to 12 carbon atoms in the monomer units, wherein the parts by wt sum to 100, and b)20 to 3 parts by mass of a core-shell modifier which consists of particles having a weight-average diameter of 20 to 500 nm and comprises the following: b1)a core which comprises 60 to 100 wt% of butadiene units and 0 to 40 wt% of styrene units, wherein the core makes up 60 to 95 wt% of the core-shell modifier; and b2)a shell which comprises 80 to 100 wt% of methyl methacrylate units and 0 to 20 wt% of modifying monomer units, wherein the shell makes up 5 to 40 wt% of the core-shell modifier, wherein the parts by mass sum to 100, characterized in that the difference in the refractive indices between the polyamide component according to a) and the core-shell modifier according to b) at 20°C is less than 0.008 measured according to DIN EN ISO 489:1999 by method A. a)80 to 97 parts by mass of a polyamide component comprising a1)70 to 100 parts by wt of PA PACMX (where X = 8 to 18) and a2) 30 to 0 parts by wt of a linear aliphatic polyamide having on average 8 to 12 carbon atoms in the monomer units, wherein the parts by wt sum to 100, and a1)70 to 100 parts by wt of PA PACMX (where X = 8 to 18) and a2) 30 to 0 parts by wt of a linear aliphatic polyamide having on average 8 to 12 carbon atoms in the monomer units, b)20 to 3 parts by mass of a core-shell modifier which consists of particles having a weight-average diameter of 20 to 500 nm and comprises the following: b1)a core which comprises 60 to 100 wt% of butadiene units and 0 to 40 wt% of styrene units, wherein the core makes up 60 to 95 wt% of the core-shell modifier; and b2)a shell which comprises 80 to 100 wt% of methyl methacrylate units and 0 to 20 wt% of modifying monomer units, wherein the shell makes up 5 to 40 wt% of the core-shell modifier, wherein the parts by mass sum to 100, characterized in that the difference in the refractive indices between the polyamide component according to a) and the core-shell modifier according to b) at 20°C is less than 0.008 measured according to DIN EN ISO 489:1999 by method A. b1)a core which comprises 60 to 100 wt% of butadiene units and 0 to 40 wt% of styrene units, wherein the core makes up 60 to 95 wt% of the core-shell modifier; and b2)a shell which comprises 80 to 100 wt% of methyl methacrylate units and 0 to 20 wt% of modifying monomer units, wherein the shell makes up 5 to 40 wt% of the core-shell modifier,
An aerial spray rainmaking device comprising: a container ; a water storage assembly , disposed in the container , comprising a water tank filled with water (B); a pump , one end thereof communicating with the water tank ; and a spraying assembly , comprising a pressure tank and multiple nozzles communicating with the pressure tank , another end of the pump communicating with the pressure tank , wherein the pressure tank is configured to pressurize water (B), and the nozzles are configured to nebulize pressurized water (B) and spray pressurized water (B) out of the container . a container ; a water storage assembly , disposed in the container , comprising a water tank filled with water (B); a pump , one end thereof communicating with the water tank ; and a spraying assembly , comprising a pressure tank and multiple nozzles communicating with the pressure tank , another end of the pump communicating with the pressure tank , wherein the pressure tank is configured to pressurize water (B), and the nozzles are configured to nebulize pressurized water (B) and spray pressurized water (B) out of the container .
An apparatus for a User Equipment, UE , the apparatus comprising transceiver circuitry and hardware processing circuitry, the hardware processing circuitry being adapted to configure the transceiver circuitry to: receive , from an Evolved Node-B, eNB , arranged to operate in a network, a primary synchronization signal, PSS, that is based on one or more PSS symbol sequences; and transmit , to a second UE , a primary device-to-device synchronization signal, PD2DSS, for a device-to-device, D2D, communication session between the UE and the second UE , wherein the PD2DSS is based on one or more PD2DSS symbol sequences, which are different than the PSS symbol sequences used for the PSS, the PD2DSS is transmitted according to a network reference timing that is based at least partly on the reception of the PSS, and the PD2DSS includes a first PD2DSS portion based on a Fourier Transform, FT, of a first PD2DSS symbol sequence and further includes a second PD2DSS portion based on an FT of a second PD2DSS symbol sequence. receive , from an Evolved Node-B, eNB , arranged to operate in a network, a primary synchronization signal, PSS, that is based on one or more PSS symbol sequences; and transmit , to a second UE , a primary device-to-device synchronization signal, PD2DSS, for a device-to-device, D2D, communication session between the UE and the second UE , wherein the PD2DSS is based on one or more PD2DSS symbol sequences, which are different than the PSS symbol sequences used for the PSS, the PD2DSS is transmitted according to a network reference timing that is based at least partly on the reception of the PSS, and the PD2DSS includes a first PD2DSS portion based on a Fourier Transform, FT, of a first PD2DSS symbol sequence and further includes a second PD2DSS portion based on an FT of a second PD2DSS symbol sequence.