mhurhangee/patent-ind-claim-en huggingface dataset:
An operating unit for a vehicle component, in particular an infotainment system for operating various vehicle components, having - a housing having a front face, - an operating element arranged on said front face of said housing , which comprises an operating surface , wherein said operating element is spring-elastically mounted, - at least one sensor for detecting an actuation movement of said operating element , - at least one actuator for a feedback movement of said operating element in the case of an actuation movement of said operating element detected by said sensor , and - an analysis and control unit which is connected to said at least one sensor and said actuator , characterized in that - said actuator is configured as an armature-type electromagnet having a first stator comprising a first excitation coil , and an armature as a drive element , - said armature is provided with a measuring coil to which a measuring voltage is applied when a magnetic flux generated by said first excitation coil flows through said armature , and - said first excitation coil and said measuring coil are connected to said analysis and control unit , wherein by means of said analysis and control unit the force is adapted to be controlled and/or regulated with the aid of which said armature of said actuator is adapted to be moved towards said first stator and/or with the aid of which the deflection movement of said armature out of its rest position as well as the return movement of said armature into its rest position are adapted to be controlled and/or regulated. - a housing having a front face, - an operating element arranged on said front face of said housing , which comprises an operating surface , wherein said operating element is spring-elastically mounted, - at least one sensor for detecting an actuation movement of said operating element , - at least one actuator for a feedback movement of said operating element in the case of an actuation movement of said operating element detected by said sensor , and - an analysis and control unit which is connected to said at least one sensor and said actuator , - said actuator is configured as an armature-type electromagnet having a first stator comprising a first excitation coil , and an armature as a drive element , - said armature is provided with a measuring coil to which a measuring voltage is applied when a magnetic flux generated by said first excitation coil flows through said armature , and - said first excitation coil and said measuring coil are connected to said analysis and control unit , wherein by means of said analysis and control unit the force is adapted to be controlled and/or regulated with the aid of which said armature of said actuator is adapted to be moved towards said first stator and/or with the aid of which the deflection movement of said armature out of its rest position as well as the return movement of said armature into its rest position are adapted to be controlled and/or regulated.
A tire sensing system of kinetic parameters, including: at least one wave-emitting source configured to rotate with a tire , and emit at least one detection wave towards an internal surface of said tire ; at least one wave sensor configured to rotate with said at least one wave-emitting source , and output a measurement signal according to a physical parameter of said at least one detection wave being reflected off said internal surface ; and a processing unit configured to receive said measurement signal, record at least two instants (Ttoe(N), Tsole(N), Theel(N)) in time during which said at least one detection wave sweeps across the footprint of said tire , and compute a kinetic parameter of said tire with said at least two instants (Ttoe(N), Tsole(N), Theel(N)). at least one wave-emitting source configured to rotate with a tire , and emit at least one detection wave towards an internal surface of said tire ; at least one wave sensor configured to rotate with said at least one wave-emitting source , and output a measurement signal according to a physical parameter of said at least one detection wave being reflected off said internal surface ; and a processing unit configured to receive said measurement signal, record at least two instants (Ttoe(N), Tsole(N), Theel(N)) in time during which said at least one detection wave sweeps across the footprint of said tire , and compute a kinetic parameter of said tire with said at least two instants (Ttoe(N), Tsole(N), Theel(N)).
A method for providing service status information based on an access class restriction list in a mobile terminal, the method comprising: receiving system information blocks from a network, wherein the system information blocks allow checking whether there is a restriction on access to resources within a cell; checking whether there is information the same as information pre-stored in a Subscriber Identity Module, SIM, card of the mobile terminal on the access class restriction list of the received system information blocks; when there is information that is the same as the information pre-stored in the SIM card of the mobile terminal: providing the same information to a Man-Machine Interface , MMI, in the mobile terminal; and transmitting the same information to a functional module of a service and outputting the same information instantly by the MMI when the MMI receives the same information; when there is no information that is the same as the information pre-stored in the SIM card of the mobile terminal: executing a general registration . receiving system information blocks from a network, wherein the system information blocks allow checking whether there is a restriction on access to resources within a cell; checking whether there is information the same as information pre-stored in a Subscriber Identity Module, SIM, card of the mobile terminal on the access class restriction list of the received system information blocks; when there is information that is the same as the information pre-stored in the SIM card of the mobile terminal: providing the same information to a Man-Machine Interface , MMI, in the mobile terminal; and transmitting the same information to a functional module of a service and outputting the same information instantly by the MMI when the MMI receives the same information; providing the same information to a Man-Machine Interface , MMI, in the mobile terminal; and transmitting the same information to a functional module of a service and outputting the same information instantly by the MMI when the MMI receives the same information; when there is no information that is the same as the information pre-stored in the SIM card of the mobile terminal: executing a general registration .
A method for monitoring the condition of a laser machining head , said method comprising the steps of: - acquiring measurement data by means of at least one sensor unit arranged on or in said laser machining head , - determining an input vector based on the acquired measurement data; and - determining an output vector by applying a model trained by machine learning to the input vector, characterised in that the output vector contains estimated condition data of at least two elements of said laser machining head for determining the overall condition of said laser machining head , wherein the model comprises a plurality of first models for determining condition data of one element of said laser machining head each, and a second model for determining condition data of said laser machining head from the condition data of the elements obtained from the first models . - acquiring measurement data by means of at least one sensor unit arranged on or in said laser machining head , - determining an input vector based on the acquired measurement data; and - determining an output vector by applying a model trained by machine learning to the input vector, the output vector contains estimated condition data of at least two elements of said laser machining head for determining the overall condition of said laser machining head , wherein the model comprises a plurality of first models for determining condition data of one element of said laser machining head each, and a second model for determining condition data of said laser machining head from the condition data of the elements obtained from the first models .
A sliding member comprising: a back-metal layer ; and a sliding layer on the back-metal layer , the sliding layer having a sliding surface , wherein the sliding layer comprises: a synthetic resin ; fibrous particles dispersed in the synthetic resin , a volume ratio of the fibrous particles in the sliding layer being 1 to 15%; optionally 1 to 20 volume % of one or more solid lubricants selected from MoS 2 , WS 2 , graphite and h-BN; and optionally 1 to 10 volume % of one or more fillers selected from CaF 2 , CaCo 3 , barium sulfate, iron oxide, calcium phosphate, SnO 2 and aromatic polyester, characterized in that the fibrous particles are made of semi-graphite having a nano indenter hardness of 1000 to 5000 MPa, wherein an average aspect ratio of the fibrous particles is not less than 5, where an aspect ratio is defined as a ratio of a major axis to a minor axis of the fibrous particle viewed from the sliding surface , and wherein an average grain size of the fibrous particles in cross-sectional view perpendicular to the sliding surface is 5 to 50 μm. a back-metal layer ; and a sliding layer on the back-metal layer , the sliding layer having a sliding surface , wherein the sliding layer comprises: a synthetic resin ; fibrous particles dispersed in the synthetic resin , a volume ratio of the fibrous particles in the sliding layer being 1 to 15%; optionally 1 to 20 volume % of one or more solid lubricants selected from MoS 2 , WS 2 , graphite and h-BN; and optionally 1 to 10 volume % of one or more fillers selected from CaF 2 , CaCo 3 , barium sulfate, iron oxide, calcium phosphate, SnO 2 and aromatic polyester, characterized in that the fibrous particles are made of semi-graphite having a nano indenter hardness of 1000 to 5000 MPa, wherein an average aspect ratio of the fibrous particles is not less than 5, where an aspect ratio is defined as a ratio of a major axis to a minor axis of the fibrous particle viewed from the sliding surface , and wherein an average grain size of the fibrous particles in cross-sectional view perpendicular to the sliding surface is 5 to 50 μm. a synthetic resin ; fibrous particles dispersed in the synthetic resin , a volume ratio of the fibrous particles in the sliding layer being 1 to 15%; optionally 1 to 20 volume % of one or more solid lubricants selected from MoS 2 , WS 2 , graphite and h-BN; and optionally 1 to 10 volume % of one or more fillers selected from CaF 2 , CaCo 3 , barium sulfate, iron oxide, calcium phosphate, SnO 2 and aromatic polyester, characterized in that the fibrous particles are made of semi-graphite having a nano indenter hardness of 1000 to 5000 MPa, wherein an average aspect ratio of the fibrous particles is not less than 5, where an aspect ratio is defined as a ratio of a major axis to a minor axis of the fibrous particle viewed from the sliding surface , and wherein an average grain size of the fibrous particles in cross-sectional view perpendicular to the sliding surface is 5 to 50 μm.
A motor comprising HALBACH array, the motor comprising an assembly of a stator and a rotator , a plurality of tooth structures and groove structures are formed on the opposite surfaces of the stator and the rotator , characterized in that , the motor further comprises a plurality of HALBACH array permanent magnet units distributed in the plurality of grooves of the stator and the rotator .
Food package comprising a container consisting of cardboard, comprising a circumferential edge flange which protrudes from the container casing and is produced separately from the container casing , and comprising a cover which consists of synthetic material and is sealed to the edge flange , characterised in that the adhesion between the edge flange and the container casing is weaker than the adhesion, determined by the sealing process, between the edge flange and the cover .
A method for thermally treating a workpiece, comprising marking a predetermined area of a face side of the workpiece with unique identifiers by a first laser-generated beam; and heating an area of a backside of the workpiece across the predetermined area on the face side by a second laser-generated beam so as to minimize a deformation of the workpiece, the workpiece being metal or plastic and having a thickness of up to about two millimeters, wherein the laser generated beams are emitted by respective lasers, the method further comprising controlling a laser parameter selected from the group consisting of a focal spot diameter, power on workpiece, marking speed, line spacing, repetition rate, marking direction and pulse length, and a combination thereof.
A network configuration method, comprising: receiving, by a session management function network element, a first request message from a terminal device, wherein the first request message is used to obtain information about a configuration serving network element, the information about the configuration serving network element comprises address information of the configuration serving network element, the terminal device is a residential gateway; sending, by the session management function network element, a second request message to a data management network element, wherein the second request message is a request message for obtaining subscription data of the terminal device; receiving, by the session management function network element, a second response message from the data management network element, wherein the second response message comprises the information about the configuration serving network element and the subscription data of the terminal device; and sending, by the session management function network element, a first response message to the terminal device, wherein the first response message comprises the information about the configuration serving network element. receiving, by a session management function network element, a first request message from a terminal device, wherein the first request message is used to obtain information about a configuration serving network element, the information about the configuration serving network element comprises address information of the configuration serving network element, the terminal device is a residential gateway; sending, by the session management function network element, a second request message to a data management network element, wherein the second request message is a request message for obtaining subscription data of the terminal device; receiving, by the session management function network element, a second response message from the data management network element, wherein the second response message comprises the information about the configuration serving network element and the subscription data of the terminal device; and sending, by the session management function network element, a first response message to the terminal device, wherein the first response message comprises the information about the configuration serving network element.
A connecting member of a wiper system of a pantographic type for cleaning a vehicle window, the connecting member is configured to receive an adaptor of the wiper system , the adaptor being a set comprising at least an adaptor device and a connector cooperating with each other, the connector cooperating also with a support of a wiper blade , the connecting member comprising at least a first connection body and a second connection body , the first connection body comprising a first pivot link configured to be attached to a first arm of the wiper system and the second connection body comprising a second pivot link configured to be attached to a second arm of the wiper system , the connecting member comprising a connecting device configured to allow a translational assembly of the adaptor along a main direction of one of the arms, the connecting device being located between the first pivot link of the first connection body and the second pivot link of the second connection body , characterized in that the connecting device presents a "U-shape" section with two lateral walls and an upper wall linked to the two lateral walls , the lateral walls and the upper wall defining at least in part a housing configured to house the adaptor and in that at least one of the two lateral walls comprises at least a bended claw located at its free end, the claw being bended towards the other lateral wall .
A method comprising: measuring a plurality of magnetic field components at one position, said plurality of magnetic field components being associated with a plurality of magnets contained in a magnetic angle position sensor , the plurality of magnetic field components including: a strength of a magnetic field (Bx) in an x direction, a strength of a magnetic field (By) in a y direction, and a strength of a magnetic field (Bz) in a z direction; identifying a first angle based on the measured magnetic field components, the first angle representing an angular position associated with a first magnet of the plurality of magnets; identifying a second angle based on the measured magnetic field components, the second angle representing an angular position associated with a second magnet of the plurality of magnets; identifying a position of the first magnet based on the identified first angle and second angle; and identifying a position of the second magnet based on the identified first angle and second angle. measuring a plurality of magnetic field components at one position, said plurality of magnetic field components being associated with a plurality of magnets contained in a magnetic angle position sensor , the plurality of magnetic field components including: a strength of a magnetic field (Bx) in an x direction, a strength of a magnetic field (By) in a y direction, and a strength of a magnetic field (Bz) in a z direction; a strength of a magnetic field (Bx) in an x direction, a strength of a magnetic field (By) in a y direction, and a strength of a magnetic field (Bz) in a z direction; identifying a first angle based on the measured magnetic field components, the first angle representing an angular position associated with a first magnet of the plurality of magnets; identifying a second angle based on the measured magnetic field components, the second angle representing an angular position associated with a second magnet of the plurality of magnets; identifying a position of the first magnet based on the identified first angle and second angle; and identifying a position of the second magnet based on the identified first angle and second angle.
A polymeric coating composition comprising: a cellulose acetate butyrate being approximately 29% of a total weight of the composition; a plasticizer being approximately 26% of a total weight of the composition, said plasticizer being an epoxidized fatty acid ester; a corrosion inhibitor being approximately 36% of a total weight of the composition, the corrosion inhibitor being an epoxidized canola oil; an epoxidized soybean oil being approximately 6% by weight of the total composition; a dye being silica amorphous; and a stabilizer being titanium dioxide; said dye and said stabilizer being premixed together in an amount of approximately 3% by weight of the total composition. a cellulose acetate butyrate being approximately 29% of a total weight of the composition; a plasticizer being approximately 26% of a total weight of the composition, said plasticizer being an epoxidized fatty acid ester; a corrosion inhibitor being approximately 36% of a total weight of the composition, the corrosion inhibitor being an epoxidized canola oil; an epoxidized soybean oil being approximately 6% by weight of the total composition; a dye being silica amorphous; and a stabilizer being titanium dioxide; said dye and said stabilizer being premixed together in an amount of approximately 3% by weight of the total composition.
A nanoscale particle for co-delivery of a plurality of therapeutic agents, said nanoscale particle comprising: a core comprising a metal-organic matrix material, and a plurality of therapeutic agents which comprise at least one non-nucleic acid chemotherapeutic agent and at least one nucleic acid therapeutic agent, and the at least one non-nucleic acid chemotherapeutic agent is incorporated in the metal-organic matrix material core, wherein the metal-organic matrix material core comprises a metal bisphosphonate coordination polymer comprising a multivalent metal ion and a bisphosphonate, wherein the bisphosphonate is the at least one non-nucleic acid chemotherapeutic agent which is a bisphosphonate ester of cis, cis-trans-[Pt(NH 3 ) 2 Cl 2 (OH) 2 ] or cis, trans -[Pt(dach)Cl 2 (OH) 2 ], and optionally wherein the multivalent metal ion is selected from the group consisting of Ca 2+ , Mg 2+ , Mn 2+ , Zn 2+ , and combinations thereof; and wherein the nanoscale particle further comprises a coating layer comprising a lipid bilayer comprising a cationic lipid and/or a functionalized lipid, wherein said functionalized lipid is a lipid functionalized with a group that can bond to a nucleic acid, and wherein the at least one nucleic acid therapeutic agent is covalently bonded to the functionalized lipid and/or attached to the cationic lipid via electrostatic interactions. a core comprising a metal-organic matrix material, and a plurality of therapeutic agents which comprise at least one non-nucleic acid chemotherapeutic agent and at least one nucleic acid therapeutic agent, and the at least one non-nucleic acid chemotherapeutic agent is incorporated in the metal-organic matrix material core, wherein the metal-organic matrix material core comprises a metal bisphosphonate coordination polymer comprising a multivalent metal ion and a bisphosphonate, wherein the bisphosphonate is the at least one non-nucleic acid chemotherapeutic agent which is a bisphosphonate ester of cis, cis-trans-[Pt(NH 3 ) 2 Cl 2 (OH) 2 ] or cis, trans -[Pt(dach)Cl 2 (OH) 2 ], and optionally wherein the multivalent metal ion is selected from the group consisting of Ca 2+ , Mg 2+ , Mn 2+ , Zn 2+ , and combinations thereof; and wherein the nanoscale particle further comprises a coating layer comprising a lipid bilayer comprising a cationic lipid and/or a functionalized lipid, wherein said functionalized lipid is a lipid functionalized with a group that can bond to a nucleic acid, and wherein the at least one nucleic acid therapeutic agent is covalently bonded to the functionalized lipid and/or attached to the cationic lipid via electrostatic interactions.