mhurhangee/patent-ind-claim-en huggingface dataset:
A flight deck display system for an aircraft, comprising: a processor adapted to receive data representative of the aircraft during a ground maneuver, the data including dimensions of the aircraft and the processor operable, in response thereto, to determine a zone of protection about the aircraft using the dimensions of the aircraft and supply one or more image rendering display commands; and a display device coupled to receive the image rendering display commands and operable, in response thereto, to render a symbol indicating aircraft ownship and an image of an envelope encompassing the symbol indicating the aircraft ownship that is representative of the zone of protection . a processor adapted to receive data representative of the aircraft during a ground maneuver, the data including dimensions of the aircraft and the processor operable, in response thereto, to determine a zone of protection about the aircraft using the dimensions of the aircraft and supply one or more image rendering display commands; and a display device coupled to receive the image rendering display commands and operable, in response thereto, to render a symbol indicating aircraft ownship and an image of an envelope encompassing the symbol indicating the aircraft ownship that is representative of the zone of protection .
A device update method, comprising: receiving, by a server, an update request that is of a to-be-updated device and that is sent by a terminal device, wherein the update request comprises an attribute set of the to-be-updated device, the attribute set of the to-be-updated device comprises one or more pieces of attribute information of the terminal device, and one or more pieces of attribute information of the to-be-updated device; obtaining (S901), by the server, an access policy of the to-be-updated device based on the attribute set of the to-be-updated device, wherein the access policy comprises one or more pieces of attribute information of the terminal device, and one or more pieces of attribute information of the to-be-updated device, comprised in the attribute set of the to-be-updated device; encrypting (S902), by the server, a target update package according to the access policy, to generate a ciphertext of the target update package; and sending (S903), by the server, the ciphertext of the target update package to the to-be-updated device, wherein the ciphertext of the target update package is used by the to-be-updated device to perform decryption based on one or more attribute keys corresponding to the one or more attribute information in the access policy to obtain the target update package. receiving, by a server, an update request that is of a to-be-updated device and that is sent by a terminal device, wherein the update request comprises an attribute set of the to-be-updated device, the attribute set of the to-be-updated device comprises one or more pieces of attribute information of the terminal device, and one or more pieces of attribute information of the to-be-updated device; obtaining (S901), by the server, an access policy of the to-be-updated device based on the attribute set of the to-be-updated device, wherein the access policy comprises one or more pieces of attribute information of the terminal device, and one or more pieces of attribute information of the to-be-updated device, comprised in the attribute set of the to-be-updated device; encrypting (S902), by the server, a target update package according to the access policy, to generate a ciphertext of the target update package; and sending (S903), by the server, the ciphertext of the target update package to the to-be-updated device, wherein the ciphertext of the target update package is used by the to-be-updated device to perform decryption based on one or more attribute keys corresponding to the one or more attribute information in the access policy to obtain the target update package.
Autonomous mobile robot configured for picking up, placing down, and transporting load carriers , comprising at least one chassis of at least approximately rectangular base shape with a preferred longitudinal axis and a preferred transverse axis, wherein the preferred longitudinal axis and the preferred transverse axis span a chassis plane, with a running gear, a drive, a control system, and at least one load carrier receiving device that is arranged for gripping at least one load carrier , for lifting the load carrier from a floor and/or lowering or placing the load carrier onto a floor in an area and/or at a location in the vicinity of the chassis , as well as for carrying the at least one load carrier in a position completely above the chassis and/or for placing the at least one load carrier onto the chassis and/or for lifting the at least one load carrier from the chassis , wherein the load carrier receiving device comprises two arms that are arranged in longitudinal areas that are opposite with respect to the chassis in the vicinity of one of the two longitudinal ends of the chassis , and that are pivotable or rotatable about an arm pivot axis parallel to the preferred transverse axis in at least one plane perpendicular to the chassis plane, wherein after picking up a load carrier at a pickup position, the load carrier is moved into a position completely above the chassis and/or is moved from a position completely above the chassis into a placement position by means of the load carrier receiving device, with the load carrier fully passing through a vertical plane oriented perpendicular to the chassis plane, wherein the arm pivot axis lies in this vertical plane, and wherein each pivotable arm has at its respective free end a gripping device for gripping at least one load carrier , or the pivotable arms have a common gripping device (7") arranged at their respective free ends for gripping at least one load carrier , characterized in that the load carrier receiving device is arranged for end-side gripping of the load carrier , that the gripping device (7") comprises one or more carrying elements (11") that can engage with the load carrier in an end-side free space and/or end-side free spaces in the load carrier to pick up the load carrier and can disengage from the load carrier with an end-side free space and/or end-side free spaces in the load carrier to place down and release the load carrier , wherein the carrying elements (11") in a pickup pose for picking up a load carrier from a floor or from the chassis or in a placement pose for placing down a load carrier on a floor and/or on the chassis , are aligned or can be aligned substantially parallel to a horizontal plane and/or substantially parallel to the chassis plane.
A mobile terminal shell , the mobile terminal shell comprising: a body , formed of metal; a reinforcing portion , provided on at least a part of the surface on an inner side of the body and formed of a first material ; and an antenna slot , provided on the body and filled with a second material , characterized in that a mechanical strength of the first material is higher than a mechanical strength of the second material , wherein the first material comprises a first substrate and a first reinforcing agent; and the second material comprises a second substrate and a second reinforcing agent, the content of the second reinforcing agent in the second material is less than the content of the first reinforcing agent in the first material . a body , formed of metal; a reinforcing portion , provided on at least a part of the surface on an inner side of the body and formed of a first material ; and an antenna slot , provided on the body and filled with a second material , characterized in that a mechanical strength of the first material is higher than a mechanical strength of the second material , wherein the first material comprises a first substrate and a first reinforcing agent; and the second material comprises a second substrate and a second reinforcing agent, the content of the second reinforcing agent in the second material is less than the content of the first reinforcing agent in the first material .
An apparatus comprising: means for deriving a first channel estimate (CHP, CH1) using pilot symbols; the means for deriving the first channel estimate comprising: means for determining a filter selection metric for a signal to be recovered; means for selecting a channel estimation filter based on the filter selection metric; means for deriving the first channel estimate (CHP, CH1) with the selected channel estimation filter using pilot symbols; and means for recovering a first packet (D1) using the first channel estimate (CHP, CH1); means for regenerating data symbols for the first packet (D1); means for deriving a second channel estimate (CHD, CHD1); means for obtaining a third channel estimate (CH2); and means for recovering a second packet (D2) using the third channel estimate (CH2), wherein the means for selecting a channel estimation filter is configured to select a first channel estimation filter if the filter selection metric indicates a signal-to-noise ratio, SNR, within a first range of SNRs, and to select a second channel estimation filter if the filter selection metric indicates a SNR within a second range of SNRs; the means for deriving the second channel estimate (CHD, CHD1) is configured to derive the second channel estimate using a third channel estimation filter and using the regenerated data symbols; and the means for obtaining is configured to obtain the third channel estimate (CH2) using the first channel estimate (CHP, CH1) and the second channel estimate (CHD, CHD1). means for deriving a first channel estimate (CHP, CH1) using pilot symbols; the means for deriving the first channel estimate comprising: means for determining a filter selection metric for a signal to be recovered; means for selecting a channel estimation filter based on the filter selection metric; means for determining a filter selection metric for a signal to be recovered; means for selecting a channel estimation filter based on the filter selection metric; means for deriving the first channel estimate (CHP, CH1) with the selected channel estimation filter using pilot symbols; and means for recovering a first packet (D1) using the first channel estimate (CHP, CH1); means for regenerating data symbols for the first packet (D1); means for deriving a second channel estimate (CHD, CHD1); means for obtaining a third channel estimate (CH2); and means for recovering a second packet (D2) using the third channel estimate (CH2), wherein the means for selecting a channel estimation filter is configured to select a first channel estimation filter if the filter selection metric indicates a signal-to-noise ratio, SNR, within a first range of SNRs, and to select a second channel estimation filter if the filter selection metric indicates a SNR within a second range of SNRs; the means for deriving the second channel estimate (CHD, CHD1) is configured to derive the second channel estimate using a third channel estimation filter and using the regenerated data symbols; and the means for obtaining is configured to obtain the third channel estimate (CH2) using the first channel estimate (CHP, CH1) and the second channel estimate (CHD, CHD1).
A method comprising: generating temperature information from a plurality of temperature sensors within a computing device; and processing the temperature information to generate voltage reduction steps based on an observed rate of change of the temperature information. generating temperature information from a plurality of temperature sensors within a computing device; and processing the temperature information to generate voltage reduction steps based on an observed rate of change of the temperature information.
Pivoting motor adjuster for a camshaft, having a rotor and a stator , it being possible for the rotor to be rotated with respect to the stator , it being possible for a blade of the rotor to be positioned in each case between two webs of the stator , and an intermediate space which is configured between the two webs being divided with the aid of the blade into a first pressure chamber and into a second pressure chamber , a locking apparatus comprising a spring force-loaded locking bolt and a locking disc which is arranged coaxially with respect to the stator and the rotor with a locking bore for at least partially receiving the locking bolt in order to lock the stator to the rotor in an end position being configured for locking the stator and the rotor , and the locking bolt being received in one of the blades , and a locking play for the movability of the rotor with respect to the stator being configured during the locking action between the blade which carries the locking bolt and the adjacent web , the stator being provided in a fixed manner with the aid of connecting elements on the locking disc , and the locking disc having a stop element for setting the locking play and for fixing the locked end position.
A milling adaptor system for holding an abutment blank in a housing of a milling unit, comprising: a holding device extending from a first end to a second end , the holding device including: a flange positioned at the first end , the flange including a top surface and a shoulder , opposite the top surface , the top surface configured to attach the abutment blank to the holding device , a securing shaft extending from the flange to the second end of the holding device , and an engagement bore extending through the holding device ; and a fastener having a head and a threaded shaft extending from the head , the fastener configured to extend through the engagement bore and couple with the abutment blank , wherein the securing shaft includes at least one securing surface for securing the holding device to the housing, and wherein a cross-sectional shape of the flange includes a curved portion and a flat portion . a holding device extending from a first end to a second end , the holding device including: a flange positioned at the first end , the flange including a top surface and a shoulder , opposite the top surface , the top surface configured to attach the abutment blank to the holding device , a securing shaft extending from the flange to the second end of the holding device , and an engagement bore extending through the holding device ; and a flange positioned at the first end , the flange including a top surface and a shoulder , opposite the top surface , the top surface configured to attach the abutment blank to the holding device , a securing shaft extending from the flange to the second end of the holding device , and an engagement bore extending through the holding device ; and a fastener having a head and a threaded shaft extending from the head , the fastener configured to extend through the engagement bore and couple with the abutment blank , wherein the securing shaft includes at least one securing surface for securing the holding device to the housing, and wherein a cross-sectional shape of the flange includes a curved portion and a flat portion .
An exhaust heat recovery structure having an exhaust pipe configured to be mounted horizontally in a vehicle having a longitudinal direction, rightward and leftward directions and upward and downward directions, the exhaust heat recovery structure comprising: an exhaust pipe configured to allow exhaust gas flowing from an engine to flow through the exhaust pipe ; and a heat exchange portion including an inlet and an outlet that communicate with the exhaust pipe , the heat exchange portion being configured to carry out heat exchange between the exhaust gas flowing in from the exhaust pipe through the inlet and a heating medium, and guide the exhaust gas that has been heat-exchanged with the heating medium to flow out through the outlet to the exhaust pipe , the exhaust heat recovery structure being characterized in that it further comprises a lower inner surface located inside the heat exchange portion , said lower inner surface being inclined with respect to the horizontal from one toward the other of the inlet and the outlet . an exhaust pipe configured to allow exhaust gas flowing from an engine to flow through the exhaust pipe ; and a heat exchange portion including an inlet and an outlet that communicate with the exhaust pipe , the heat exchange portion being configured to carry out heat exchange between the exhaust gas flowing in from the exhaust pipe through the inlet and a heating medium, and guide the exhaust gas that has been heat-exchanged with the heating medium to flow out through the outlet to the exhaust pipe , the exhaust heat recovery structure being characterized in that it further comprises a lower inner surface located inside the heat exchange portion , said lower inner surface being inclined with respect to the horizontal from one toward the other of the inlet and the outlet .
Continuous process for preparing a polyisocyanate in the liquid phase by reaction of the corresponding polyamine with phosgene, with the corresponding carbamoyl chloride and the corresponding amine hydrochloride occurring as intermediates, wherein (i) a phosgene-containing stream , a polyamine-containing stream and a stream containing carbamoyl chloride and amine hydrochloride are mixed in a mixing device , where phosgene is used in a stoichiometric excess of from > 0% to 50% of theory, based on the amine groups of the polyamine present in stream (ii) the mixed stream obtained in step (i) is conveyed through a reactor in which an absolute pressure of from 20 bar to 60 bar and a temperature of from 80°C to 200°C, prevail, forming a stream containing carbamoyl chloride and amine hydrochloride (iii) a gaseous purge stream is optionally discharged from the stream containing carbamoyl chloride and amine hydrochloride which is formed in step (ii), giving a stream which contains carbamoyl chloride and amine hydrochloride and has been depleted in gaseous components, (iv) the stream obtained in step (ii) or the stream obtained in step (iii) is divided into two substreams , where (a) the substream is used as stream containing carbamoyl chloride and amine hydrochloride in step (i) and (b) the substream is converted into the desired polyisocyanate. (i) a phosgene-containing stream , a polyamine-containing stream and a stream containing carbamoyl chloride and amine hydrochloride are mixed in a mixing device , where phosgene is used in a stoichiometric excess of from > 0% to 50% of theory, based on the amine groups of the polyamine present in stream (ii) the mixed stream obtained in step (i) is conveyed through a reactor in which an absolute pressure of from 20 bar to 60 bar and a temperature of from 80°C to 200°C, prevail, forming a stream containing carbamoyl chloride and amine hydrochloride (iii) a gaseous purge stream is optionally discharged from the stream containing carbamoyl chloride and amine hydrochloride which is formed in step (ii), giving a stream which contains carbamoyl chloride and amine hydrochloride and has been depleted in gaseous components, (iv) the stream obtained in step (ii) or the stream obtained in step (iii) is divided into two substreams , where (a) the substream is used as stream containing carbamoyl chloride and amine hydrochloride in step (i) and (b) the substream is converted into the desired polyisocyanate. (a) the substream is used as stream containing carbamoyl chloride and amine hydrochloride in step (i) and (b) the substream is converted into the desired polyisocyanate.
A portable communication device comprising: one or more processors; and a memory coupled to the one or more processors and storing computer readable code, which when executed by the one or more processors, implements an application having a public portion and a private portion within the same application installed on the portable communication device; wherein the public portion is configured to: send a start session request to the private portion; receive a session identifier (ID) from the private portion; generate a conversation key by combining the session ID and an authorization key in a key derivation function; encrypt a payload of a function invocation request using the conversation key, the payload representing a function call of a function implemented in the private portion; and send the function invocation request including the encrypted payload to the private portion; and wherein the private portion is configured to: execute the function being called in the function invocation request. one or more processors; and a memory coupled to the one or more processors and storing computer readable code, which when executed by the one or more processors, implements an application having a public portion and a private portion within the same application installed on the portable communication device; wherein the public portion is configured to: send a start session request to the private portion; receive a session identifier (ID) from the private portion; generate a conversation key by combining the session ID and an authorization key in a key derivation function; encrypt a payload of a function invocation request using the conversation key, the payload representing a function call of a function implemented in the private portion; and send the function invocation request including the encrypted payload to the private portion; and wherein the private portion is configured to: send a start session request to the private portion; receive a session identifier (ID) from the private portion; generate a conversation key by combining the session ID and an authorization key in a key derivation function; encrypt a payload of a function invocation request using the conversation key, the payload representing a function call of a function implemented in the private portion; and send the function invocation request including the encrypted payload to the private portion; and wherein the private portion is configured to: execute the function being called in the function invocation request.
Method for establishing a leakage coefficient (ω) of a hydraulic cylinder unit having a hydraulic cylinder , a piston that is displaceable in the hydraulic cylinder and a servo valve , wherein the piston separates a first and a second working volume of the hydraulic cylinder unit from one another, wherein the servo valve is connected to a hydraulic pump , a tank and the first and the second working volume , - wherein a pump pressure (pP) is applied to the servo valve via the hydraulic pump and the tank has a tank pressure (pT), - wherein the servo valve is set to a defined valve position (y), - wherein a piston position (z) of the piston in the hydraulic cylinder and a first and a second working pressure (pA, pB), which are applied to the first and the second working volume , are captured, - wherein an evaluation device receives the piston position (z), the first and the second working pressure (pA, pB) and the valve position (y), - wherein the evaluation device establishes the leakage coefficient (ω) on the basis of the piston position (z), the first and the second working pressure (pA, pB), the valve position (y), the pump pressure (pP) and a tank pressure (pT) in conjunction with time-invariant parameters of the hydraulic cylinder unit . - wherein a pump pressure (pP) is applied to the servo valve via the hydraulic pump and the tank has a tank pressure (pT), - wherein the servo valve is set to a defined valve position (y), - wherein a piston position (z) of the piston in the hydraulic cylinder and a first and a second working pressure (pA, pB), which are applied to the first and the second working volume , are captured, - wherein an evaluation device receives the piston position (z), the first and the second working pressure (pA, pB) and the valve position (y), - wherein the evaluation device establishes the leakage coefficient (ω) on the basis of the piston position (z), the first and the second working pressure (pA, pB), the valve position (y), the pump pressure (pP) and a tank pressure (pT) in conjunction with time-invariant parameters of the hydraulic cylinder unit .