mhurhangee/patent-ind-claim-en huggingface dataset:
Elastomer sealing ring for a sealing system of an actuator-actuated motor vehicle disc brake having an actuating mechanism which is movable relative thereto in a rotational and/or translational manner in a brake housing and has an actuating element , preferably in conjunction with a spindle , a thrust piece or the like, which actuating element is mounted in the brake housing so as to be movable relative thereto in an axially directed bore with an integral cavity , and wherein the actuating mechanism in the brake housing is assigned a sealing system with interfaces and also comprising an elastomer sealing ring which is fitted into a sealing receptacle , wherein the elastomer sealing ring blocks at least one or more sealing gap(s) substantially concentrically with respect to the actuating element and laterally next to the cavity , in particular a hydraulic chamber, by being arranged in the sealing receptacle , characterized in that the elastomer sealing ring has a partially symmetrical elastomer sealing ring cross section in order to permit a gap seal which is adapted in a multilaterally differently defined way in its cooperation with peripheral interfaces.
A method of monitoring fluid flow in a wellbore , the method comprising: (i) installing first and second inflow control tools in corresponding first and second annular regions within the wellbore, wherein each of the first and second inflow control tools has an interior flow path defined by an inlet , a helical channel and a chamber ; (ii) installing first and second sound-producing elements in the interior flow path of respective first and second inflow control tools, each of the first and second sound-producing element operable to actively generate a respective first and second acoustic signals (f 1 , f 2 ) in response to fluid flowing through only a respective corresponding one of the first and second inflow control tools, the first acoustic signal (f 1 ) operable to be distinguishable from the second acoustic signal (f 2 ); (iii) producing a production fluid from the wellbore through at least one of the first and second inflow control tools; (iv) detecting at least one of the first and second acoustic signals; and (v) identifying which of the first and second acoustic signals was detected to determine through which of the first and second inflow control tools the production fluid was produced. (i) installing first and second inflow control tools in corresponding first and second annular regions within the wellbore, wherein each of the first and second inflow control tools has an interior flow path defined by an inlet , a helical channel and a chamber ; (ii) installing first and second sound-producing elements in the interior flow path of respective first and second inflow control tools, each of the first and second sound-producing element operable to actively generate a respective first and second acoustic signals (f 1 , f 2 ) in response to fluid flowing through only a respective corresponding one of the first and second inflow control tools, the first acoustic signal (f 1 ) operable to be distinguishable from the second acoustic signal (f 2 ); (iii) producing a production fluid from the wellbore through at least one of the first and second inflow control tools; (iv) detecting at least one of the first and second acoustic signals; and (v) identifying which of the first and second acoustic signals was detected to determine through which of the first and second inflow control tools the production fluid was produced.
A method for sealing enclave data, comprising: sending , to a source enclave hosted on a first native enclave platform , a first attestation report of a sealing enclave hosted on a second native enclave platform ; receiving a permitted list and associated enclave data from the source enclave, wherein the permitted list includes a list of one or more enclave identities permitted to unseal the enclave data and wherein the permitted list is a list of abstract identity types; receiving a source attestation report of the source enclave; deriving a permitted identity value from the source attestation report and an abstract identity type in the permitted list; securely storing the enclave data and the permitted list; and restricting access of the enclave data to enclaves with authenticated identities as permitted according to the permitted list. sending , to a source enclave hosted on a first native enclave platform , a first attestation report of a sealing enclave hosted on a second native enclave platform ; receiving a permitted list and associated enclave data from the source enclave, wherein the permitted list includes a list of one or more enclave identities permitted to unseal the enclave data and wherein the permitted list is a list of abstract identity types; receiving a source attestation report of the source enclave; deriving a permitted identity value from the source attestation report and an abstract identity type in the permitted list; securely storing the enclave data and the permitted list; and restricting access of the enclave data to enclaves with authenticated identities as permitted according to the permitted list.
A water splitting system, comprising: an electrochemical cell , said cell including: an electrode including a substrate having an electrically conductive surface carrying a chiral system , configured to be immersed in an aqueous electrolyte; a counter-electrode configured to be immersed in the same electrolyte; and means for applying a potential difference between said electrode and said counter-electrode ; and wherein the water splitting system is configured to apply a potential difference to said cell so as to create electrons and electron holes causing the oxidation of water and the transfer of electrons between the substrate and aqueous electrolyte, wherein said chiral system causes alignment of the spin of transferred electrons during said oxidation so as to reduce the over-potential of the oxidation process. an electrochemical cell , said cell including: an electrode including a substrate having an electrically conductive surface carrying a chiral system , configured to be immersed in an aqueous electrolyte; a counter-electrode configured to be immersed in the same electrolyte; and means for applying a potential difference between said electrode and said counter-electrode ; and an electrode including a substrate having an electrically conductive surface carrying a chiral system , configured to be immersed in an aqueous electrolyte; a counter-electrode configured to be immersed in the same electrolyte; and means for applying a potential difference between said electrode and said counter-electrode ; and wherein the water splitting system is configured to apply a potential difference to said cell so as to create electrons and electron holes causing the oxidation of water and the transfer of electrons between the substrate and aqueous electrolyte, wherein said chiral system causes alignment of the spin of transferred electrons during said oxidation so as to reduce the over-potential of the oxidation process.
Piston-cylinder-unit a) with a cylinder having a cylinder head , b) with a piston axially movable in the cylinder and c) with a piston motion sensor , d) wherein the piston motion sensor is arranged with an orientation in a transverse hole of the cylinder head having a longitudinal axis , so that the longest dimension of the piston motion sensor extends in the direction of the longitudinal axis of the transverse hole wherein e) the piston motion sensor is connected to a housing plug through a sensor cable , f) the sensor cable is detachably connected to the piston motion sensor and/or the housing plug , and g) the housing plug is L-shaped with two angled legs , wherein ga) a leg extends in the transverse hole of the cylinder head and gb) a leg extends lying externally from the cylinder head . a) with a cylinder having a cylinder head , b) with a piston axially movable in the cylinder and c) with a piston motion sensor , d) wherein the piston motion sensor is arranged with an orientation in a transverse hole of the cylinder head having a longitudinal axis , so that the longest dimension of the piston motion sensor extends in the direction of the longitudinal axis of the transverse hole wherein e) the piston motion sensor is connected to a housing plug through a sensor cable , f) the sensor cable is detachably connected to the piston motion sensor and/or the housing plug , and g) the housing plug is L-shaped with two angled legs , wherein ga) a leg extends in the transverse hole of the cylinder head and gb) a leg extends lying externally from the cylinder head . ga) a leg extends in the transverse hole of the cylinder head and gb) a leg extends lying externally from the cylinder head .
Projectile replica for insertion into a launching cup of a military launching system with an ignition interface for tapping an electrical ignition signal (Z) of the launching system and with a user interface for outputting a visual, electrical, acoustic and/or haptic user signal (N) as a function of the ignition signal (Z), characterized by processing electronics for processing the ignition signal (Z) tapped via the ignition interface into the modified user signal (N) output via the user interface . with a user interface for outputting a visual, electrical, acoustic and/or haptic user signal (N) as a function of the ignition signal (Z), characterized by processing electronics for processing the ignition signal (Z) tapped via the ignition interface into the modified user signal (N) output via the user interface .
A method of wireless communication by a user equipment, UE, the method comprising: determining , by the UE, a preconfigured frequency band that is less than an available system bandwidth; and performing , by the UE, an initial access procedure with a base station using the preconfigured frequency band, the initial access procedure including a random access channel, RACH, procedure; receiving , from the base station, during the initial access procedure, one or more beam reference signals in one or more frequency bands to be used for data communication for determining, based on beam quality, a beam to be used for data communication in at least a portion of a second frequency band of the available system bandwidth, wherein the one or more beam reference signals are frequency-division multiplexed with one or more symbols received from the base station during the initial access procedure ; and performing a data communication with the base station using the second frequency band of the available system bandwidth, wherein the second bandwidth is a frequency band wider than and encompassing the preconfigured frequency band. determining , by the UE, a preconfigured frequency band that is less than an available system bandwidth; and performing , by the UE, an initial access procedure with a base station using the preconfigured frequency band, the initial access procedure including a random access channel, RACH, procedure; receiving , from the base station, during the initial access procedure, one or more beam reference signals in one or more frequency bands to be used for data communication for determining, based on beam quality, a beam to be used for data communication in at least a portion of a second frequency band of the available system bandwidth, wherein the one or more beam reference signals are frequency-division multiplexed with one or more symbols received from the base station during the initial access procedure ; and performing a data communication with the base station using the second frequency band of the available system bandwidth, wherein the second bandwidth is a frequency band wider than and encompassing the preconfigured frequency band.
A pharmaceutical composition comprising an mRNA encoding an IFN-λ polypeptide for use in treating or preventing a viral-induced disorder, wherein the mRNA is to be administered by delivery into the respiratory system, and wherein said viral-induced disorder is a viral-induced respiratory disorder.
Composition for promoting hair growth, especially head hair of men, which comprises a circulation-promoting substance, an antihypertensive substance, a substance for promoting metabolism in the skin and an anti-inflammatory substance, characterized in that the substance for promoting metabolism in the skin is biotin and/or tyrosine and the composition comprises cayenne pepper as circulation-promoting substance at a concentration of 2 to 10 mg/l.
A signal processing device comprising: a superimposed signal transmission unit configured to transmit an operation signal in accordance with a state of an operation element to a communication device external to the signal processing device, and to transmit a superimposed signal to the communication device , wherein the superimposed signal is generated by superimposing a data signal indicating predetermined information on the operation signal transmitted to the communication device ; an information storage unit configured to store the predetermined information; characterized in further comprising: an information rewrite unit configured to overwrite the predetermined information stored in the information storage unit based on an external instruction input, wherein the information rewrite unit is configured to overwrite the predetermined information in the information storage unit while the superimposed signal transmission unit transmits the superimposed signal to the communication device . a superimposed signal transmission unit configured to transmit an operation signal in accordance with a state of an operation element to a communication device external to the signal processing device, and to transmit a superimposed signal to the communication device , wherein the superimposed signal is generated by superimposing a data signal indicating predetermined information on the operation signal transmitted to the communication device ; an information storage unit configured to store the predetermined information; characterized in further comprising: an information rewrite unit configured to overwrite the predetermined information stored in the information storage unit based on an external instruction input, wherein the information rewrite unit is configured to overwrite the predetermined information in the information storage unit while the superimposed signal transmission unit transmits the superimposed signal to the communication device .
An antenna element structure comprising: a dielectric substrate ; a conductive layer on the dielectric substrate ; two feed lines inside the dielectric substrate , the two feed lines in contact with the conductive layer ; a slot in the conductive layer exposing a surface of the dielectric substrate , the slot positioned between the two feed lines ; at least two dielectric layers on the dielectric substrate ; a conductive element on each dielectric layer , the conductive element positioned over the slot and between the feed lines ; and a conductive wall inside each dielectric layer and surrounding the conductive element ; wherein the conductive elements and the conductive walls are circular or elliptical and the conductive walls have different diameters. a dielectric substrate ; a conductive layer on the dielectric substrate ; two feed lines inside the dielectric substrate , the two feed lines in contact with the conductive layer ; a slot in the conductive layer exposing a surface of the dielectric substrate , the slot positioned between the two feed lines ; at least two dielectric layers on the dielectric substrate ; a conductive element on each dielectric layer , the conductive element positioned over the slot and between the feed lines ; and a conductive wall inside each dielectric layer and surrounding the conductive element ; wherein the conductive elements and the conductive walls are circular or elliptical and the conductive walls have different diameters.
A processing control data acquiring apparatus that acquires processing control data for processing an eyeglasses lens (LE), comprising: a first shape information acquiring portion configured to acquire target lens shape information of eyeglasses, characterized by a second shape information acquiring portion configured to acquire facet shape information of a demonstration lens (DL) which is faceted, the facet shape information being detected from the demonstration lens (DL) for the eyeglasses (LE); and a processing control data acquiring portion configured to acquire faceting control data for forming at least one flat surface on a lens surface of the eyeglasses lens (LE) based on the target lens shape information and the facet shape information . a first shape information acquiring portion configured to acquire target lens shape information of eyeglasses, characterized by a second shape information acquiring portion configured to acquire facet shape information of a demonstration lens (DL) which is faceted, the facet shape information being detected from the demonstration lens (DL) for the eyeglasses (LE); and a processing control data acquiring portion configured to acquire faceting control data for forming at least one flat surface on a lens surface of the eyeglasses lens (LE) based on the target lens shape information and the facet shape information .
A speaker system configured to be located in a portable device comprising: an array of drivers configured to be located on an upper surface of the portable device and configured to, in use, project sound upwards from the upper surface of the portable device so as to form upward-firing speakers; a set of speakers configured to be located on a bottom surface of the portable device and configured to, in use, project sound downwards from the bottom surface of the portable device so as to form downward-firing speakers; a decoder/renderer component receiving immersive audio content comprising channel based audio and object based audio, wherein the object based audio includes sound objects having height components, decoding the received immersive audio content into height audio including the height components and direct audio, and sending said direct audio to the downward-firing speakers; and a crossover performing a high-pass filter function to pass high frequency components of the decoded height audio to the upward-firing speakers and low frequency components of the decoded height audio to the downward-firing speakers, wherein the portable device is a device selected from the group consisting of: laptop computer, tablet computer, game console, smart phone, and portable audio playback device. an array of drivers configured to be located on an upper surface of the portable device and configured to, in use, project sound upwards from the upper surface of the portable device so as to form upward-firing speakers; a set of speakers configured to be located on a bottom surface of the portable device and configured to, in use, project sound downwards from the bottom surface of the portable device so as to form downward-firing speakers; a decoder/renderer component receiving immersive audio content comprising channel based audio and object based audio, wherein the object based audio includes sound objects having height components, decoding the received immersive audio content into height audio including the height components and direct audio, and sending said direct audio to the downward-firing speakers; and a crossover performing a high-pass filter function to pass high frequency components of the decoded height audio to the upward-firing speakers and low frequency components of the decoded height audio to the downward-firing speakers, wherein the portable device is a device selected from the group consisting of: laptop computer, tablet computer, game console, smart phone, and portable audio playback device.
A method of coordinating sampling instants of a plurality of mobile ambient sensors, comprising: receiving a definition of a measuring zone ; detecting simultaneous presence of two or more mobile ambient sensors in the measuring zone, wherein the detection of said simultaneous presence is based on a relative positioning procedure among the sensors, a geolocation procedure performed at one of the sensors, a report received from a fixedly located radio transceiver in the measuring zone, or one or more measurement reports received from sensors in the measuring zone; and assigning sampling instants (×) to each of said two or more sensors, wherein the assigned sampling instants apply until a change in said simultaneous presence is detected. receiving a definition of a measuring zone ; detecting simultaneous presence of two or more mobile ambient sensors in the measuring zone, wherein the detection of said simultaneous presence is based on a relative positioning procedure among the sensors, a geolocation procedure performed at one of the sensors, a report received from a fixedly located radio transceiver in the measuring zone, or one or more measurement reports received from sensors in the measuring zone; and assigning sampling instants (×) to each of said two or more sensors, wherein the assigned sampling instants apply until a change in said simultaneous presence is detected.
An information receiving method, comprising: receiving (S101), by a station STA in a transmit opportunity TXOP phase, orthogonal frequency division multiple access OFDMA data that is from a wireless access point AP, wherein the OFDMA data comprise frames that carry a legacy physical-layer preamble and frames that do not carry a legacy physical layer preamble; wherein the STA has an OFDMA receiving mode in which a received OFDMA data frame is parsed in a frame parsing manner corresponding to a format of a data frame that does not carry a legacy physical-layer preamble and an OFDM receiving mode in which a received legacy physical-layer preamble is parsed in a frame parsing manner corresponding to a format of a data frame that carries the legacy physical-layer preamble; and in a process of receiving the OFDMA data (S102), working, by the STA, in an OFDMA receiving mode when receiving a data frame that does not carry the legacy physical-layer preamble, determining, by the STA according to a preset rule, a data frame that carries the legacy physical-layer preamble, and switching from the OFDMA receiving mode to an OFDM receiving mode to receive the data frame that carries the legacy physical-layer preamble. receiving (S101), by a station STA in a transmit opportunity TXOP phase, orthogonal frequency division multiple access OFDMA data that is from a wireless access point AP, wherein the OFDMA data comprise frames that carry a legacy physical-layer preamble and frames that do not carry a legacy physical layer preamble; wherein the STA has an OFDMA receiving mode in which a received OFDMA data frame is parsed in a frame parsing manner corresponding to a format of a data frame that does not carry a legacy physical-layer preamble and an OFDM receiving mode in which a received legacy physical-layer preamble is parsed in a frame parsing manner corresponding to a format of a data frame that carries the legacy physical-layer preamble; and in a process of receiving the OFDMA data (S102), working, by the STA, in an OFDMA receiving mode when receiving a data frame that does not carry the legacy physical-layer preamble, determining, by the STA according to a preset rule, a data frame that carries the legacy physical-layer preamble, and switching from the OFDMA receiving mode to an OFDM receiving mode to receive the data frame that carries the legacy physical-layer preamble.