mhurhangee/patent-ind-claim-en huggingface dataset:
A microphone comprising: a housing for receiving vibration signals; a converting component inside the housing for converting the vibration signals into electrical signals, wherein the converting component includes: a transducer ; and at least one damping film attached to the transducer ; and a processing circuit for processing the electrical signals; characterized in that the converting component further includes: at least two elastic elements , wherein the at least one damping film is connected to the transducer and the at least two elastic elements respectively, to transmit vibrations of the at least two elastic elements to the transducer , wherein a resonance frequency of each of the at least two elastic elements is different from each other and is within a predetermined voice frequency range. a housing for receiving vibration signals; a converting component inside the housing for converting the vibration signals into electrical signals, wherein the converting component includes: a transducer ; and at least one damping film attached to the transducer ; and a processing circuit for processing the electrical signals; characterized in that the converting component further includes: at least two elastic elements , wherein the at least one damping film is connected to the transducer and the at least two elastic elements respectively, to transmit vibrations of the at least two elastic elements to the transducer , wherein a transducer ; and at least one damping film attached to the transducer ; and a processing circuit for processing the electrical signals; characterized in that the converting component further includes: at least two elastic elements , wherein the at least one damping film is connected to the transducer and the at least two elastic elements respectively, to transmit vibrations of the at least two elastic elements to the transducer , wherein a resonance frequency of each of the at least two elastic elements is different from each other and is within a predetermined voice frequency range.
Lamella for a frictional shift element, having an annular friction surface which has an inner edge and an outer edge , wherein a peripheral first groove , a plurality of second grooves and a plurality of third grooves are provided in the friction surface, - wherein the first groove extends in a zig-zag or wavy shape between radially inner and radially outer deflection points , - wherein the second grooves extend to the radially inner deflection point starting from the inner edge , - wherein the third grooves extend into the peripheral first groove starting from the outer edge in a straight line and open at inlet points into the peripheral first groove , - wherein the third grooves are oriented substantially in the radial direction towards the outer edge starting from the inlet points , - wherein the groove pattern formed by the first, second and third grooves is designed to be symmetrical and is centred on a rotation centre point of the lamella , - wherein the orientation of at least that portion of the second grooves which opens at the radially inner deflection points , and a line between the rotation centre point of the lamella and the deflection point assigned to the respective second groove , encloses an angle between 35 and 75 degrees, characterized in that the inlet points are arranged between the deflection points of the first groove . - wherein the first groove extends in a zig-zag or wavy shape between radially inner and radially outer deflection points , - wherein the second grooves extend to the radially inner deflection point starting from the inner edge , - wherein the third grooves extend into the peripheral first groove starting from the outer edge in a straight line and open at inlet points into the peripheral first groove , - wherein the third grooves are oriented substantially in the radial direction towards the outer edge starting from the inlet points , - wherein the groove pattern formed by the first, second and third grooves is designed to be symmetrical and is centred on a rotation centre point of the lamella , - wherein the orientation of at least that portion of the second grooves which opens at the radially inner deflection points , and a line between the rotation centre point of the lamella and the deflection point assigned to the respective second groove , encloses an angle between 35 and 75 degrees,
A method for obtaining a native rapeseed protein isolate comprising the steps of: i) mixing cold-pressed rapeseed oil meal with an aqueous liquid at a temperature of from 45 to 65°C; ii) separation of the aqueous liquid from the mixture obtained in step i); iii) decreaming of the aqueous liquid obtained in step ii); iv) adjusting the pH of the decreamed aqueous liquid obtained in step iii) to neutral by adding acid or base, and mixing with a precipitant to obtain a precipitate wherein said precipitant comprises a salt of magnesium, zinc, iron, or calcium; v) removing the precipitate obtained in step iv) to obtain an aqueous liquid; vi) concentrating and washing the aqueous liquid obtained in step v); vii) isolating native rapeseed protein isolate from the concentrated and washed aqueous liquid obtained in step vi) by means of drying. characterized in that ascorbic acid or a derivative thereof and a sulfite is added before, during or after any of steps i) or ii) or iii) or iv) or v) or vi). i) mixing cold-pressed rapeseed oil meal with an aqueous liquid at a temperature of from 45 to 65°C; ii) separation of the aqueous liquid from the mixture obtained in step i); iii) decreaming of the aqueous liquid obtained in step ii); iv) adjusting the pH of the decreamed aqueous liquid obtained in step iii) to neutral by adding acid or base, and mixing with a precipitant to obtain a precipitate wherein said precipitant comprises a salt of magnesium, zinc, iron, or calcium; v) removing the precipitate obtained in step iv) to obtain an aqueous liquid; vi) concentrating and washing the aqueous liquid obtained in step v); vii) isolating native rapeseed protein isolate from the concentrated and washed aqueous liquid obtained in step vi) by means of drying.
A drive module for a linear transport system , - comprising a housing and a stator , - wherein a conveying device of the linear transport system with a magnet arrangement can be arranged on the housing, - wherein the housing comprises a first housing shell and a second housing shell , - wherein the first housing shell and the second housing shell together delimit a first housing interior , - wherein the stator is arranged in the first housing interior , - wherein the stator comprises at least one coil arrangement having at least one coil with at least one stator tooth , - wherein the coil arrangement is designed to switchably provide a magnetic traveling field , - wherein the stator tooth has a first end face and a second end face which is arranged opposite the first end face , - wherein the first end face is arranged on the inner side of the first housing shell and the second end face is arranged on the inner side of the second housing shell , - wherein the housing shells cover the stator tooth in relation to a surrounding area , characterized in that the traveling field exits from the coil arrangement at the end faces and passes through the housing shells in order to enter into operative connection with the magnet arrangement of the conveying device of the linear transport system on the outer side of the housing for the purpose of forming a magnetic coupling. - comprising a housing and a stator , - wherein a conveying device of the linear transport system with a magnet arrangement can be arranged on the housing, - wherein the housing comprises a first housing shell and a second housing shell , - wherein the first housing shell and the second housing shell together delimit a first housing interior , - wherein the stator is arranged in the first housing interior , - wherein the stator comprises at least one coil arrangement having at least one coil with at least one stator tooth , - wherein the coil arrangement is designed to switchably provide a magnetic traveling field , - wherein the stator tooth has a first end face and a second end face which is arranged opposite the first end face , - wherein the first end face is arranged on the inner side of the first housing shell and the second end face is arranged on the inner side of the second housing shell , - wherein the housing shells cover the stator tooth in relation to a surrounding area ,
Composite pack, in particular a parallelepipedal cardboard/plastic composite pack for pourable products, having an elliptical laminated hole which is provided in the composite pack gable, with an elliptical main axis (H) and an elliptical minor axis (N), and a pouring element , comprising a basic body , a cutting element movably guided in the basic body and having the shape of a hollow cylinder with a cylinder outer diameter (D) and a reclosable screw cap , wherein the screw cap serves for opening the composite pack for the first time by activation of the cutting element , which thus forms a pouring opening in the region of the laminated hole and wherein first guidance means configured on the cutting element interact with second guidance means configured on the basic body, characterised in that the cylinder external diameter (D) is as least as big as the length of the elliptical minor axis (N).
A workpiece supporting apparatus comprising: a Bernoulli chuck configured to generate a suction force by emitting a gas; and a liquid ejection member surrounding the Bernoulli chuck and configured to discharge a liquid around the Bernoulli chuck ; wherein the liquid ejection member has a plurality of liquid ejecting openings arranged around the Bernoulli chuck , the Bernoulli chuck includes a plurality of gas jet openings facing outward in radial directions of the Bernoulli chuck , and the plurality of gas jet openings are arranged to emit a gas radially, and the plurality of liquid ejecting openings are located on a plurality of straight lines extending from the center of the Bernoulli chuck through the plurality of gas jet openings when viewed from above the liquid ejection member . a Bernoulli chuck configured to generate a suction force by emitting a gas; and a liquid ejection member surrounding the Bernoulli chuck and configured to discharge a liquid around the Bernoulli chuck ; wherein the liquid ejection member has a plurality of liquid ejecting openings arranged around the Bernoulli chuck , the Bernoulli chuck includes a plurality of gas jet openings facing outward in radial directions of the Bernoulli chuck , and the plurality of gas jet openings are arranged to emit a gas radially, and the plurality of liquid ejecting openings are located on a plurality of straight lines extending from the center of the Bernoulli chuck through the plurality of gas jet openings when viewed from above the liquid ejection member .
A roller cage for a profiling line comprising a support frame (F1) having a shoulder (S1), a first motor associated with a first substantially horizontal spindle , a first transverse roller , assembled directly on the first spindle , a movable frame (F2), with which an upright first roller is associated, rotating about a first shaft which projects in a cantilever fashion from the movable frame (F2), characterized in that the spindle projects in a cantilever fashion externally to the shoulder (S1) of the support frame (F1) into an operating space of the line, and in that the movable frame (F2) is movable between an operating position, in which the first shaft assumes a substantially vertical position, and a non-operating position, in which the first shaft assumes a substantially horizontal position and is facing the same way as the first spindle , towards the operating space of the line.
A method for determining the articulation angle in a vehicle combination comprising a towing vehicle and a semi-trailer , comprising: determining a position of a reflector , preferably on the semi-trailer side, relative to a distance sensor device , preferably on the towing vehicle side, during a straight-ahead travel of the vehicle combination ; and determining an actual articulation angle of the vehicle combination by means of the distance sensor device and the reflector during operation of the vehicle combination after the straight-ahead travel based on the determined position of the reflector , wherein the distance sensor device is arranged on a fifth wheel plate of the towing vehicle , and/or the reflector is arranged outside a turning circle of a fifth wheel plate of the towing vehicle below the semi-trailer . determining a position of a reflector , preferably on the semi-trailer side, relative to a distance sensor device , preferably on the towing vehicle side, during a straight-ahead travel of the vehicle combination ; and determining an actual articulation angle of the vehicle combination by means of the distance sensor device and the reflector during operation of the vehicle combination after the straight-ahead travel based on the determined position of the reflector , wherein the distance sensor device is arranged on a fifth wheel plate of the towing vehicle , and/or the reflector is arranged outside a turning circle of a fifth wheel plate of the towing vehicle below the semi-trailer .
A method of preparing a modified plastic surface, said method comprising the steps of: (a) providing a plastic-adsorbent polymeric carrier comprising at least one photochemical crosslinker moiety, wherein the at least one photochemical crosslinker moiety is at least one aryl azide moiety; (b) contacting a plastic surface with the plastic-adsorbent polymeric carrier, whereby the plastic-adsorbent polymeric carrier adsorbs to the plastic surface; and (c) photochemically crosslinking the adsorbed polymeric carrier to the plastic surface, thereby preparing the modified plastic surface, further comprising, after step (b) and before step (c), the step of: removing plastic-adsorbent polymeric carrier that is not adsorbed to the plastic surface, whereby the plastic surface comprises an adsorbed monolayer of the plastic-adsorbent polymeric carrier. (a) providing a plastic-adsorbent polymeric carrier comprising at least one photochemical crosslinker moiety, wherein the at least one photochemical crosslinker moiety is at least one aryl azide moiety; (b) contacting a plastic surface with the plastic-adsorbent polymeric carrier, whereby the plastic-adsorbent polymeric carrier adsorbs to the plastic surface; and (c) photochemically crosslinking the adsorbed polymeric carrier to the plastic surface, thereby preparing the modified plastic surface, further comprising, after step (b) and before step (c), the step of: removing plastic-adsorbent polymeric carrier that is not adsorbed to the plastic surface, whereby the plastic surface comprises an adsorbed monolayer of the plastic-adsorbent polymeric carrier.
Bicycle rear wheel pinion arrangement which is rotatable about a common pinion rotation axis (RA) defining an axial direction and radial directions orthogonal thereto, comprising a plurality of pinions (R1-R12) of different size and number of teeth arranged coaxially with respect to the pinion rotation axis (RA) and connected to one another for joint rotation about the pinion rotation axis (RA), wherein the pinion arrangement has a first partial arrangement comprising the largest pinion (R1), and a second partial arrangement comprising a plurality of pinions (R3-R12) formed integrally with one another, characterized in that a partial arrangement consisting of first and second partial arrangements has a plurality of elastically deformable latching formations which are in latching engagement with a plurality of mating latching formations of the respective other partial arrangement in each case, wherein the latching engagement secures the two partial arrangements against removal from each other in the axial direction.
A wireless communication method, comprising: receiving, by a terminal device, first Downlink Control Information, DCI (S210); and determining, by the terminal device, a priority and/or a processing time of first information scheduled by the first DCI according to at least one of an indication field in the first DCI, a searchspace for receiving the first DCI, a resource set for receiving the first DCI, a Radio Network Temporary Identifier, RNTI, for scrambling a Cyclic Redundancy Check, CRC, of the first DCI, or a format of the first DCI (S220), characterized in that determining, by the terminal device, the priority and/or the processing time of the first information to be transmitted according to at least one of an indication field in the first DCI, a searchspace for receiving the first DCI, a resource set for receiving the first DCI, a Radio Network Temporary Identifier, RNTI, for scrambling a Cyclic Redundancy Check, CRC, of the first DCI, or a format of the first DCI (S220), comprises: when the format of the first DCI is a specific DCI format, determining a priority indicated by a first indication field in the first DCI as the priority of the first information; or when the format of the first DCI is another DCI format except the specific DCI format, determining the priority of the first information according to the format of the first DCI. receiving, by a terminal device, first Downlink Control Information, DCI (S210); and determining, by the terminal device, a priority and/or a processing time of first information scheduled by the first DCI according to at least one of an indication field in the first DCI, a searchspace for receiving the first DCI, a resource set for receiving the first DCI, a Radio Network Temporary Identifier, RNTI, for scrambling a Cyclic Redundancy Check, CRC, of the first DCI, or a format of the first DCI (S220), characterized in that determining, by the terminal device, the priority and/or the processing time of the first information to be transmitted according to at least one of an indication field in the first DCI, a searchspace for receiving the first DCI, a resource set for receiving the first DCI, a Radio Network Temporary Identifier, RNTI, for scrambling a Cyclic Redundancy Check, CRC, of the first DCI, or a format of the first DCI (S220), comprises: when the format of the first DCI is a specific DCI format, determining a priority indicated by a first indication field in the first DCI as the priority of the first information; or when the format of the first DCI is another DCI format except the specific DCI format, determining the priority of the first information according to the format of the first DCI. when the format of the first DCI is a specific DCI format, determining a priority indicated by a first indication field in the first DCI as the priority of the first information; or when the format of the first DCI is another DCI format except the specific DCI format, determining the priority of the first information according to the format of the first DCI.
A computer-implemented method of determining, at a first node (C), a common secret (CS) that is common with the first node (C) and a second node (S), wherein the first node (C) is associated with a first asymmetric cryptography pair of an elliptic curve cryptography system common with the first node and the second node and using a generator (G) common with the first node and the second node, the first asymmetric cryptography pair having a first node master private key (V 1C ) and a first node master public key (P 1C ), and the second node (S) is associated with a second asymmetric cryptography pair of the elliptic curve cryptography system, the second asymmetric cryptography pair having a second node master private key (V 1S ) and a second node master public key (P 1S ), wherein the first node master public key and second node master public key are based on elliptic curve point multiplication by respective first node master private key and second node master private key of the generator, and wherein the method comprises: - determining a first node second private key (V 2C ) based on at least the first node master private key (V 1C ) and a deterministic key (DK) common with the first and second nodes; - determining a second node second public key (P2s) based on at least the second node master public key (P 1S ) with elliptic curve point multiplication of the deterministic key (DK) and the generator; and - determining the common secret (CS) based on the first node second private key (V 2C ) and the second node second public key (P2s), wherein the second node (S) has the same common secret (CS) as the first node based on a first node second public key (P 2C ) and a second node second private key (V 2S ), wherein: - the first node second public key (P2c) is based on at least the first node master public key (P 1C ) with elliptic curve point addition to the elliptic curve point multiplication of the deterministic key (DK) and the generator; and - the second node second private key (V 2S ) is based on at least the second node master private key (V 1S ) and the deterministic key (DK). - determining a first node second private key (V 2C ) based on at least the first node master private key (V 1C ) and a deterministic key (DK) common with the first and second nodes; - determining a second node second public key (P2s) based on at least the second node master public key (P 1S ) with elliptic curve point multiplication of the deterministic key (DK) and the generator; and - determining the common secret (CS) based on the first node second private key (V 2C ) and the second node second public key (P2s), - the first node second public key (P2c) is based on at least the first node master public key (P 1C ) with elliptic curve point addition to the elliptic curve point multiplication of the deterministic key (DK) and the generator; and - the second node second private key (V 2S ) is based on at least the second node master private key (V 1S ) and the deterministic key (DK).
A method for wireless communication at a first user equipment, LTE, comprising: establishing a signaling radio bearer, SRB, for a communication session with a second LTE on a first frequency band based on a radio resource control, RRC, connection; sending , to the second UE over the SRB on the first frequency band, a first RRC message to establish a data radio bearer, DRB, for the communication session on a second frequency band; and configuring the DRB on the second frequency band wherein: the configuring is based on one or more parameters of a device-to-device discovery procedure performed with the second LTE over the first frequency band; or the first RRC message includes one or more parameters for establishing the DRB on the second frequency band and the configuring is based on the one or more parameters of the first RRC message. establishing a signaling radio bearer, SRB, for a communication session with a second LTE on a first frequency band based on a radio resource control, RRC, connection; sending , to the second UE over the SRB on the first frequency band, a first RRC message to establish a data radio bearer, DRB, for the communication session on a second frequency band; and configuring the DRB on the second frequency band wherein: the configuring is based on one or more parameters of a device-to-device discovery procedure performed with the second LTE over the first frequency band; or the first RRC message includes one or more parameters for establishing the DRB on the second frequency band and the configuring is based on the one or more parameters of the first RRC message. the configuring is based on one or more parameters of a device-to-device discovery procedure performed with the second LTE over the first frequency band; or the first RRC message includes one or more parameters for establishing the DRB on the second frequency band and the configuring is based on the one or more parameters of the first RRC message.