mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging apparatus comprising: an imaging unit configured to be fixed to a vehicle and configured to capture an image of surroundings of the vehicle ; and an image processor configured to detect continuous fluctuation of a predetermined subject attached to the vehicle appearing in at least one predetermined region of the image captured by the imaging unit , and to make a determination of whether an attachment anomaly exists in at least one of attachment of the imaging unit to the vehicle and attachment of the predetermined subject to the vehicle based on the continuous fluctuation, characterized in that the at least one predetermined region comprises a plurality of predetermined regions; and the image processor is configured to determine whether the attachment anomaly has occurred in attachment of the imaging unit to the vehicle or in attachment of the predetermined subject to the vehicle based on the continuous fluctuation of the predetermined subject appearing in each of the plurality of predetermined regions. an imaging unit configured to be fixed to a vehicle and configured to capture an image of surroundings of the vehicle ; and an image processor configured to detect continuous fluctuation of a predetermined subject attached to the vehicle appearing in at least one predetermined region of the image captured by the imaging unit , and to make a determination of whether an attachment anomaly exists in at least one of attachment of the imaging unit to the vehicle and attachment of the predetermined subject to the vehicle based on the continuous fluctuation, characterized in that the at least one predetermined region comprises a plurality of predetermined regions; and the image processor is configured to determine whether the attachment anomaly has occurred in attachment of the imaging unit to the vehicle or in attachment of the predetermined subject to the vehicle based on the continuous fluctuation of the predetermined subject appearing in each of the plurality of predetermined regions.
An electric vehicle charging apparatus comprising: a column ; a boom arm coupled to the column ; a charging connector configured to electrically couple to an electric vehicle ; and an electrical cable configured to electrically connect the charging connector to a power supply via the boom arm and the column ; wherein, in a stowed state, the boom arm is received within the column ; wherein, in a deployed state, the boom arm extends transverse to the column and the charging connector extends from part of the boom arm distal to the column ; wherein the boom arm is configured to travel along the column before rotating relative to the column in order to move from the stowed state to the deployed state; characterised in that in the deployed state the charging connector is suspended from the boom arm by the electrical cable , and tension applied to the charging connector draws further electrical cable from the boom arm ; and wherein, in the stowed state, the electrical cable is retracted into the boom arm . a column ; a boom arm coupled to the column ; a charging connector configured to electrically couple to an electric vehicle ; and an electrical cable configured to electrically connect the charging connector to a power supply via the boom arm and the column ; wherein, in a stowed state, the boom arm is received within the column ; wherein, in a deployed state, the boom arm extends transverse to the column and the charging connector extends from part of the boom arm distal to the column ; wherein the boom arm is configured to travel along the column before rotating relative to the column in order to move from the stowed state to the deployed state; characterised in that in the deployed state the charging connector is suspended from the boom arm by the electrical cable , and tension applied to the charging connector draws further electrical cable from the boom arm ; and wherein, in the stowed state, the electrical cable is retracted into the boom arm .
A method of providing an advised driving speed to a driver of a vehicle travelling on a road network, comprising: determining the advised driving speed of the vehicle for a portion of the road network currently being traversed; determining a current speed of the vehicle on the portion of the road network; determining a speed limit and/or an expected driving speed for the portion of the road network; and providing an indication of the advised driving speed to the driver of the vehicle when: (i) the current speed of the vehicle is greater than a first threshold value based on the advised driving speed ; and (ii) the speed limit and/or the expected driving speed is greater than a second threshold value. determining the advised driving speed of the vehicle for a portion of the road network currently being traversed; determining a current speed of the vehicle on the portion of the road network; determining a speed limit and/or an expected driving speed for the portion of the road network; and providing an indication of the advised driving speed to the driver of the vehicle when: (i) the current speed of the vehicle is greater than a first threshold value based on the advised driving speed ; and (ii) the speed limit and/or the expected driving speed is greater than a second threshold value.
A processor implemented method for enabling network aware applications and applications aware networks by a sense analyze decide respond, SADR, framework deployed using a middle layer placed between a network and an application, comprising: sensing, via one or more hardware processors, signals pertaining to at least one application parameter and at least one network parameter to obtain a plurality of sensed information, wherein the plurality of sensed information is a multi-time scaled data set obtained for the application ; analyzing, via the one or more hardware processors, the plurality of sensed information to generate a plurality of derived parameters, wherein the derived parameters corresponds to statistics of the at least one application parameter, the at least one network parameter and tuned parameter of a protocol ; determining, via the one or more hardware processors, a plurality of rules based on the plurality of derived parameters ; validating, via the one or more hardware processors, the plurality of rules to obtain a plurality of decisions, wherein the plurality of decisions are made based on application requirement and network behavior using artificial intelligence based modules and wherein the validation is performed by an emulator based testing, wherein the sensed information and synthetic data generated by emulation are used for making the plurality of decisions ; and provisioning, via the one or more hardware processors, at least one of (i) thenetwork, (ii) the application and (iii) the protocol based on the plurality of decisions . sensing, via one or more hardware processors, signals pertaining to at least one application parameter and at least one network parameter to obtain a plurality of sensed information, wherein the plurality of sensed information is a multi-time scaled data set obtained for the application ; analyzing, via the one or more hardware processors, the plurality of sensed information to generate a plurality of derived parameters, wherein the derived parameters corresponds to statistics of the at least one application parameter, the at least one network parameter and tuned parameter of a protocol ; determining, via the one or more hardware processors, a plurality of rules based on the plurality of derived parameters ; validating, via the one or more hardware processors, the plurality of rules to obtain a plurality of decisions, wherein the plurality of decisions are made based on application requirement and network behavior using artificial intelligence based modules and wherein the validation is performed by an emulator based testing, wherein the sensed information and synthetic data generated by emulation are used for making the plurality of decisions ; and provisioning, via the one or more hardware processors, at least one of (i) thenetwork, (ii) the application and (iii) the protocol based on the plurality of decisions .
An organoaminosilane comprising a compound represented by Formula A below: wherein R 1 is selected from a linear or branched C 1 to C 10 alkyl group, a linear or branched C 3 to C 10 alkenyl group, a linear or branched C 3 to C 10 alkynyl group, a C 3 to C 10 cyclic alkyl group, and a C 5 to C 10 aryl group; wherein R 2 is selected from hydrogen, a linear or branched C 1 to C 10 alkyl group, a linear or branched C 3 to C 10 alkenyl group, a linear or branched C 3 to C 10 alkynyl group, a C 3 to C 10 cyclic alkyl group, and a C 5 to C 10 aryl group; or wherein R 1 and R 2 , or two R 1 s, or two R 2 s are linked together to form a ring; R 3 is selected from a linear or branched C 1 to C 10 alkylene group, a linear or branched C 3 to C 6 alkenylene group, a linear or branched C 3 to C 6 alkynylene group, a C 3 to C 10 cyclic alkylene group, a C 3 to C 10 hetero-cyclic alkylene group, a C 5 to C 10 arylene group, and a C 5 to C 10 hetero-arylene group; n equals 1; and m equals 0 or 1.
A method for detecting and/or classifying a wanted signal in an electromagnetic signal, comprising the following steps: - receiving the electromagnetic signal; - determining a spectrogram of the electromagnetic signal, wherein the spectrogram relates to a snapshot of a spectrum of the electromagnetic signal at a particular time or to a time evolution of the spectrum; - determining at least one correlation parameter, in particular a correlation multi-dimensional algebraic object comprising several correlation parameters, based on the determined spectrogram; - using said at least one correlation parameter as an input for a machine learning module ; and - detecting and/or classifying the wanted signal in the electromagnetic signal via the machine learning module based at least partially on the at least one correlation parameter; wherein a time evolution of the spectrogram of the electromagnetic signal is determined, characterized in that a correlation multi-dimensional algebraic object of at least third order is determined, wherein an image processing technique is applied to the at least one correlation parameter in order to detect and/or classify the wanted signal in the electromagnetic signal, and/or wherein an image processing technique is applied to the determined spectrogram in order to detect and/or classify the wanted signal in the electromagnetic signal, wherein said at least one correlation parameter serves as metadata for the machine learning module . - receiving the electromagnetic signal; - determining a spectrogram of the electromagnetic signal, wherein the spectrogram relates to a snapshot of a spectrum of the electromagnetic signal at a particular time or to a time evolution of the spectrum; - determining at least one correlation parameter, in particular a correlation multi-dimensional algebraic object comprising several correlation parameters, based on the determined spectrogram; - using said at least one correlation parameter as an input for a machine learning module ; and - detecting and/or classifying the wanted signal in the electromagnetic signal via the machine learning module based at least partially on the at least one correlation parameter; wherein a time evolution of the spectrogram of the electromagnetic signal is determined, characterized in that a correlation multi-dimensional algebraic object of at least third order is determined, wherein an image processing technique is applied to the at least one correlation parameter in order to detect and/or classify the wanted signal in the electromagnetic signal, and/or wherein an image processing technique is applied to the determined spectrogram in order to detect and/or classify the wanted signal in the electromagnetic signal, wherein said at least one correlation parameter serves as metadata for the machine learning module .
Tyre comprising a monitoring device which comprises an electronic unit , an electric power supplier , a first support and a second support , wherein the electronic unit and the electric power supplier are both fixed on an inner surface of said tyre at a crown portion of said tyre through respectively said first and second support , wherein the electronic unit comprises a rigid printed circuit board , at least one sensor for detecting at least one of the following physical quantities: temperature, pressure, acceleration, a processing unit and a transceiver , wherein said at least one sensor , said processing unit and said transceiver are fixed on said rigid board , wherein the monitoring device comprises an electrical connection for electrically connecting said electronic unit to said electric power supplier , characterized in that : the monitoring device comprises a third support through which said electrical connection is fixed on the inner surface of the tyre at the crown portion, wherein an encapsulating material encapsulates said electronic unit , wherein said encapsulating material realizes said first support , said second support and said third support in a single body. wherein the electronic unit comprises a rigid printed circuit board , at least one sensor for detecting at least one of the following physical quantities: temperature, pressure, acceleration, a processing unit and a transceiver , wherein said at least one sensor , said processing unit and said transceiver are fixed on said rigid board , wherein the monitoring device comprises an electrical connection for electrically connecting said electronic unit to said electric power supplier , characterized in that : the monitoring device comprises a third support through which said electrical connection is fixed on the inner surface of the tyre at the crown portion, wherein an encapsulating material encapsulates said electronic unit , wherein said encapsulating material realizes said first support , said second support and said third support in a single body. the monitoring device comprises a third support through which said electrical connection is fixed on the inner surface of the tyre at the crown portion, wherein an encapsulating material encapsulates said electronic unit , wherein said encapsulating material realizes said first support , said second support and said third support in a single body.
Multi-layer thermal insulation blanket comprising: a top protective layer comprising polyester and polyurethane for comfort; an intermediate layer comprising polyester for warming; a bottom layer comprising polypropylene, polyamide and elastane for insulation; wherein the layers are overlapped to each other to form a sandwich structure; wherein the borders of sandwich structure are seal by a seam. a top protective layer comprising polyester and polyurethane for comfort; an intermediate layer comprising polyester for warming; a bottom layer comprising polypropylene, polyamide and elastane for insulation; wherein the layers are overlapped to each other to form a sandwich structure; wherein the borders of sandwich structure are seal by a seam.
Method for converting textile adhesive tapes , especially cable wrapping tapes, with a plurality of strip-shaped adhesive tapes each having two marginal cut edges forming longitudinal edges being produced from a parent roll of adhesive tape composed of a textile material having a single-sidedly applied adhesive coating , by cutting in the take-off direction of the parent roll, characterized in that the cutting takes place by means of ultrasound, with an ultrasound-excited cutting tool being used and with the ultrasonic cutting taking place, with simultaneous cooling in the cutting region and of the cutting tool , in such a way as to prevent melting of the adhesive coating , with the ultrasonic cutting taking place at a cutting angle (α) of 90° to 145°.
A polymeric multilayer film having first and second generally opposed major surfaces , and comprising first, second, and third layers , an array of blind openings between the first and second major surfaces , and an average thickness (t), wherein the first, second, and third layers each have a first average thickness (t 1 , t 2 , t 3 ) excluding any thickness said first, second, and third layers having in any of the blind openings , wherein the first and second layers extend into the first average thickness of the third layer (t 3 ), wherein each of the first, second, and third layers each have a second average thickness (t 1 ', t 2 ', t 3 ') in the blind holes , wherein the second average thickness of the first and third layers (t 1 ', t 3 ') are each greater than zero, and wherein the ratio of the first average thickness of the second layer (t 2 ) to the second average thickness of the second layer (t 2 ') is at least 2:1.
A combustor for a gas turbine engine, the combustor comprising: a combustor shell (205;302) enclosing a first area of free space (220;307); an igniter (210;304) for the combustor shell (205;302), the igniter including a distal end 211;306) at a radially inward end of the igniter (210;304); and one or more elements (215;303) configured to retain the igniter (210;304) and to interface with the combustor shell (205;302), wherein the one or more elements define a second area of free space (221;308), and wherein the igniter (210;304) is retained within the second area of free space (221;308) such that the distal end 211;306) of the igniter (210;304) is recessed from the first area of free space (220;307) characterized in that ; the distal end (211 ;306) of the igniter (210;304) is angularly offset from a boundary of the first area of free space (220;307) at a non-zero angle up to 45 degrees, wherein said boundary is defined between the shell and the elements . a combustor shell (205;302) enclosing a first area of free space (220;307); an igniter (210;304) for the combustor shell (205;302), the igniter including a distal end 211;306) at a radially inward end of the igniter (210;304); and one or more elements (215;303) configured to retain the igniter (210;304) and to interface with the combustor shell (205;302), wherein the one or more elements define a second area of free space (221;308), and wherein the igniter (210;304) is retained within the second area of free space (221;308) such that the distal end 211;306) of the igniter (210;304) is recessed from the first area of free space (220;307) characterized in that ; the distal end (211 ;306) of the igniter (210;304) is angularly offset from a boundary of the first area of free space (220;307) at a non-zero angle up to 45 degrees, wherein said boundary is defined between the shell and the elements .
A process for producing an electrochemical cell, in particular a solid electrolyte battery, wherein a paste or sheet which in each case forms the respective anode and the respective electrode is applied to each of the opposite surfaces of a solid electrolyte and, in a heat treatment in an inert or reducing atmosphere, organic components which are present in the pastes or sheets are driven off and then, in a further stage, a material-to-material bond is produced between the anode and the solid electrolyte and between the cathode and the solid electrolyte by means of sintering; where the solid electrolyte comprising a lithium ion-conductive and oxidic material, the anode comprising a first lithium-containing chemical compound and carbon and the cathode comprising a second lithium-containing chemical compound and carbon are formed, so that an electrochemical cell structure which has in each case three layers and in which no organic components are present is obtained; wherein a paste or sheet is/are used for forming an anode and/or cathode which comprises carbon in the form of graphite with an average particle size d50 of from 0.05 μm to 10 μm and with a proportion in the range of 5% by volume to 10% by volume. a paste or sheet which in each case forms the respective anode and the respective electrode is applied to each of the opposite surfaces of a solid electrolyte and, in a heat treatment in an inert or reducing atmosphere, organic components which are present in the pastes or sheets are driven off and then, in a further stage, a material-to-material bond is produced between the anode and the solid electrolyte and between the cathode and the solid electrolyte by means of sintering; where the solid electrolyte comprising a lithium ion-conductive and oxidic material, the anode comprising a first lithium-containing chemical compound and carbon and the cathode comprising a second lithium-containing chemical compound and carbon are formed, so that an electrochemical cell structure which has in each case three layers and in which no organic components are present is obtained; wherein a paste or sheet is/are used for forming an anode and/or cathode which comprises carbon in the form of graphite with an average particle size d50 of from 0.05 μm to 10 μm and with a proportion in the range of 5% by volume to 10% by volume.
A prostate treatment device comprising: a shaft configured to be introduced through an urethra, the shaft having a proximal end and a distal end ; at least one energy source positioned in an energy delivery region on the shaft configured to deliver energy radially outwardly; an aspiration lumen on the shaft configured to remove tissue; and a lumen in the shaft configured to flush with a fluid to help remove the tissue; wherein the energy source is adapted to be translated and rotated relative to the urethra. a shaft configured to be introduced through an urethra, the shaft having a proximal end and a distal end ; at least one energy source positioned in an energy delivery region on the shaft configured to deliver energy radially outwardly; an aspiration lumen on the shaft configured to remove tissue; and a lumen in the shaft configured to flush with a fluid to help remove the tissue;
A fastener , comprising a head , a shaft connected thereto, and a tip connected to said shaft, the shaft having a thread section close to the head , on which thread section a nut is fitted, characterized in that the fastener has a further thread section close to the tip and a stop arranged therebetween, wherein the thread section closed to the tip is formed as a right-hand thread and the thread section close to the head as a left-hand thread, or technically equivalent, the thread section close to the tip is formed as a left-hand thread and the thread section close to the head as a right-hand thread.