mhurhangee/patent-ind-claim-en huggingface dataset:
Transfer system for transferring products (P) with - at least one robot for picking up, transferring and depositing at least one product (P) in a transfer area , - a picking surface for holding available products (P) in the transfer area , - a deposit surface for depositing products (P) in the transfer area , - a scanner for detecting the position and rotational position of the products (P) in the picking surface , - a controller (1*) for controlling at least all moving parts of the transfer system , wherein the robot comprises - a robot base supporting a pivot arm , - the robot base can be moved in a controlled manner by means of a robot transporter in a robot transport direction , being the transport direction which is the main direction of extension of the picking surface , - the robot transport direction , viewed in the transport direction , is arranged between the outer edges, pointing away from each other, of the picking surface and the depositing surface , - the pivot arm pivotable about a pivot axis extending in an upright direction and - comprises a gripper which is attached to the robot arm away from the pivot axis , so as to be movable in height, characterized in that - the robot transporter and/or the robot base is arranged below the picking surface and/or the depositing surface , - between the robot base and the pivot arm there is a supporting column running in the upright direction , in particular the vertical , and extending between the picking surface and the depositing surface . - at least one robot for picking up, transferring and depositing at least one product (P) in a transfer area , - a picking surface for holding available products (P) in the transfer area , - a deposit surface for depositing products (P) in the transfer area , - a scanner for detecting the position and rotational position of the products (P) in the picking surface , - a controller (1*) for controlling at least all moving parts of the transfer system , - a robot base supporting a pivot arm , - the robot base can be moved in a controlled manner by means of a robot transporter in a robot transport direction , being the transport direction which is the main direction of extension of the picking surface , - the robot transport direction , viewed in the transport direction , is arranged between the outer edges, pointing away from each other, of the picking surface and the depositing surface , - the pivot arm pivotable about a pivot axis extending in an upright direction and - comprises a gripper which is attached to the robot arm away from the pivot axis , so as to be movable in height, - the robot transporter and/or the robot base is arranged below the picking surface and/or the depositing surface , - between the robot base and the pivot arm there is a supporting column running in the upright direction , in particular the vertical , and extending between the picking surface and the depositing surface .
A process for generating power using an offshore gas turbine, comprising the steps of: (i) vaporising and pre-heating liquid ammonia to produce pre-heated ammonia gas; (ii) introducing said pre-heated ammonia gas into an ammonia-cracking device, wherein said device is suitable for converting ammonia gas into a mixture of hydrogen and nitrogen; (iii) converting said pre-heated ammonia gas into a mixture of hydrogen and nitrogen in said device; (iv) cooling said mixture of hydrogen and nitrogen to give a cooled hydrogen and nitrogen mixture; (v) removing unconverted ammonia gas from said cooled hydrogen and nitrogen mixture; (vi) introducing said cooled hydrogen and nitrogen mixture into an offshore gas turbine; and (vii) combusting said cooled hydrogen and nitrogen mixture in said offshore gas turbine to generate said power. (i) vaporising and pre-heating liquid ammonia to produce pre-heated ammonia gas; (ii) introducing said pre-heated ammonia gas into an ammonia-cracking device, wherein said device is suitable for converting ammonia gas into a mixture of hydrogen and nitrogen; (iii) converting said pre-heated ammonia gas into a mixture of hydrogen and nitrogen in said device; (iv) cooling said mixture of hydrogen and nitrogen to give a cooled hydrogen and nitrogen mixture; (v) removing unconverted ammonia gas from said cooled hydrogen and nitrogen mixture; (vi) introducing said cooled hydrogen and nitrogen mixture into an offshore gas turbine; and (vii) combusting said cooled hydrogen and nitrogen mixture in said offshore gas turbine to generate said power.
Method for partial reinforcement of a material web by applying ribbons to the surface of the material web in a predetermined course and a permanent connection thereof with the material web, wherein the virtually endless ribbons are continuously deposited on the material web in groups and in each group of ribbons sections with a differing course of ribbons with relation to the longitudinal axis of the material web and a differing degree of coverage of the material web by the ribbons is formed according to a predefined contour, whereby the ribbons either run along side by side at a constant width without gaps or at a distance, characterized in that the material web is a web-shaped structure with a movement direction and the ribbons are moreover deposited by means of the following possibilities: - the ribbons run along with constant width and increasing / decreasing coverage and / or - the ribbons run along side by side with increasing / decreasing width and / or - the ribbons run along with increasing / decreasing width and increasing / decreasing coverage. - the ribbons run along with constant width and increasing / decreasing coverage and / or - the ribbons run along side by side with increasing / decreasing width and / or - the ribbons run along with increasing / decreasing width and increasing / decreasing coverage.
A packet routing method for directing packets of a session between an originating node and a destination node in an IP network (400-406), the method comprising at an intermediate node : obtaining a lead packet of a plurality of packets in a given session, the lead packet being an initial packet that begins the session between a source client and a destination service having a network address and port number pair, the intermediate node having an electronic interface in communication with the IP network (400-406), the intermediate node obtaining the lead packet through the electronic interface ; after obtaining the lead packet, assigning a unique session identifier to the given session; storing the unique session identifier in an information base ; modifying the lead packet to store said unique identifier associated with the session; forwarding the lead packet toward the destination node via a next node; after the lead packet has been forwarded by the intermediate node, receiving a backward message including a next node identifier of said next node and said session identifier from the next node, forming a forward association between the next node identifier and the session identifier , and storing the forward association to maintain state information for the session; receiving a plurality of additional packets for the given session; and using the stored forward association,_forwarding the plurality of additional packets in the given session toward the destination node via the next node. obtaining a lead packet of a plurality of packets in a given session, the lead packet being an initial packet that begins the session between a source client and a destination service having a network address and port number pair, the intermediate node having an electronic interface in communication with the IP network (400-406), the intermediate node obtaining the lead packet through the electronic interface ; after obtaining the lead packet, assigning a unique session identifier to the given session; storing the unique session identifier in an information base ; modifying the lead packet to store said unique identifier associated with the session; forwarding the lead packet toward the destination node via a next node; after the lead packet has been forwarded by the intermediate node, receiving a backward message including a next node identifier of said next node and said session identifier from the next node, forming a forward association between the next node identifier and the session identifier , and storing the forward association to maintain state information for the session; receiving a plurality of additional packets for the given session; and using the stored forward association,_forwarding the plurality of additional packets in the given session toward the destination node via the next node.
A method for producing a fertilizer comprising: decomposing one or more biopolymers in an initial water substratum to produce hydro lyzates thereof, wherein the initial water substratum includes a plurality of raw materials dispersed within a liquid; and performing a polymerization of the hydrolyzates to produce a co-polymer of fulvic acid and poly-metallic humates (CPFAPH), wherein the decomposing stage further comprises: stirring the biopolymers and initial water substratum; and treating the initial water substratum with an oxygen-containing gas. decomposing one or more biopolymers in an initial water substratum to produce hydro lyzates thereof, wherein the initial water substratum includes a plurality of raw materials dispersed within a liquid; and performing a polymerization of the hydrolyzates to produce a co-polymer of fulvic acid and poly-metallic humates (CPFAPH), wherein the decomposing stage further comprises: stirring the biopolymers and initial water substratum; and treating the initial water substratum with an oxygen-containing gas.
Method for determining the supply voltages ( U i ) of a load with the aid of a measuring module , wherein the load is connected to a multiphase supply network with a plurality of phases (Li), wherein a voltage is measured against a common measurement potential for each of the phases (Li) and in this regard a measured voltage ( U i, mess ) is determined for each phase, wherein the supply voltages ( U i ) are determined from the measured voltages ( U i, mess ) by means of a matrix mapping process with the aid of a correcting matrix ( M n ), wherein with the aid of the correcting matrix ( M n ), a potential difference for the respective supply voltage ( U i ) of the respective (sub) load is corrected and compensated.
Connection means for a suction device for vacuum membrane filtration applications, comprising a support for receiving a membrane filter or a filtration base , a cavity formed below the membrane filter or the filtration base , a suction duct which opens centrally into the cavity , and a ventilation duct which opens laterally into the cavity , characterized in that the connection means comprises a closing element which can be moved into several switching positions and which can block or unblock both the suction duct and the ventilation duct depending on the switching positions, and in that the ventilation duct is separated from the suction duct in each switching position. a support for receiving a membrane filter or a filtration base , a cavity formed below the membrane filter or the filtration base , a suction duct which opens centrally into the cavity , and a ventilation duct which opens laterally into the cavity , characterized in that the connection means comprises a closing element which can be moved into several switching positions and which can block or unblock both the suction duct and the ventilation duct depending on the switching positions, and in that the ventilation duct is separated from the suction duct in each switching position.
A battery pack comprising: a cell module assembly comprising a plurality of cell modules arranged at a predetermined interval; a pack structure surrounding and supporting the cell module assembly; a coolant pipe contacting the plurality of cell modules, the coolant pipe being located between adjacent cell modules; an absorbing body provided in the pack structure and configured to absorb a coolant when the coolant leaks in the coolant pipe, the absorbing body being located under each of the plurality of cell modules, and further comprising a heat dissipating plate located under the cell module assembly, wherein the absorbing body is located between the cell module and the heat dissipating plate. a cell module assembly comprising a plurality of cell modules arranged at a predetermined interval; a pack structure surrounding and supporting the cell module assembly; a coolant pipe contacting the plurality of cell modules, the coolant pipe being located between adjacent cell modules; an absorbing body provided in the pack structure and configured to absorb a coolant when the coolant leaks in the coolant pipe, the absorbing body being located under each of the plurality of cell modules, and further comprising a heat dissipating plate located under the cell module assembly, wherein the absorbing body is located between the cell module and the heat dissipating plate.
A deployable reflector system , comprising: a support structure ; a reflector surface connected to the support structure ; the reflector surface comprised of a carbon nanotube, CNT, sheet which is highly reflective of electromagnetic waves; the support structure configured to transition from a compact stowed configuration to a larger deployed configuration; the CNT sheet intricately folded in accordance with a predetermined folding pattern to define a compact folded state when the support structure is in the stowed configuration; and the predetermined folding pattern configured to permit automatic extension of the CNT sheet from the compact folded state to a fully unfolded state when a tension force is applied to at least a portion of the CNT sheet by the support structure , wherein the reflector-system is characterized in that the CNT sheet is comprised of a plurality of separate pieces of CNT sheet which are bonded together in a predetermined piece pattern so as to form a concave or parabolic shape when the CNT sheet is in the fully unfolded state. a support structure ; a reflector surface connected to the support structure ; the reflector surface comprised of a carbon nanotube, CNT, sheet which is highly reflective of electromagnetic waves; the support structure configured to transition from a compact stowed configuration to a larger deployed configuration; the CNT sheet intricately folded in accordance with a predetermined folding pattern to define a compact folded state when the support structure is in the stowed configuration; and the predetermined folding pattern configured to permit automatic extension of the CNT sheet from the compact folded state to a fully unfolded state when a tension force is applied to at least a portion of the CNT sheet by the support structure , wherein the reflector-system is characterized in that the CNT sheet is comprised of a plurality of separate pieces of CNT sheet which are bonded together in a predetermined piece pattern so as to form a concave or parabolic shape when the CNT sheet is in the fully unfolded state.
A tactile supply device comprising: a tactile sensation provider made of magnetic particles and a matrix material ; a magnetic field generator for generating a magnetic field to transform the tactile sensation provider , and a tactile unit that contacts a user, wherein the tactile sensation provider maintains a first shape when not influenced by a magnetic field, wherein the tactile sensation provider maintains a second shape when influenced by a magnetic field, wherein the tactile sensation provider returns from the second shape to the first shape and produces a reciprocating motion by elastic force, thereby transferring a tactile sensation, and characterized in that the tactile sensation provider is in the shape of at least one of a fine projection , an empty cylinder , a leaf spring, a seesaw and a tunnel, wherein at least one tactile sensation provider is connected to the tactile unit , and wherein the tactile unit further includes a cell barrier having a height lower than a height of the tactile sensation provider and provided along the perimeter of a cell. a tactile sensation provider made of magnetic particles and a matrix material ; a magnetic field generator for generating a magnetic field to transform the tactile sensation provider , and a tactile unit that contacts a user, wherein the tactile sensation provider maintains a first shape when not influenced by a magnetic field, wherein the tactile sensation provider maintains a second shape when influenced by a magnetic field, wherein the tactile sensation provider returns from the second shape to the first shape and produces a reciprocating motion by elastic force, thereby transferring a tactile sensation, and characterized in that the tactile sensation provider is in the shape of at least one of a fine projection , an empty cylinder , a leaf spring, a seesaw and a tunnel, wherein at least one tactile sensation provider is connected to the tactile unit , and wherein the tactile unit further includes a cell barrier having a height lower than a height of the tactile sensation provider and provided along the perimeter of a cell.
An apparatus for use at a user equipment or at a serving cell for a user equipment, in a network comprising cells of different sizes, the apparatus comprising: means for identifying relative sizes of neighbor cells for the user equipment in the network; means for differentiating measurement reporting of the neighbor cells at the user equipment in dependence on at least the relative size of the neighbour cells; wherein the differentiated measurement reporting is conditional on the user equipment being classified as fast moving; and the apparatus being characterised in that : the means for differentiating measurement reporting of the neighbor cells comprises: means for omitting measurement reporting of neighbor cells which are identified to be small neighbor cells in the event that the fast moving user equipment has no active data transfer applications ongoing; and means for reporting measurements of neighbor cells regardless of their relative size in the event that the fast moving user equipment has at least one active data transfer application ongoing. means for identifying relative sizes of neighbor cells for the user equipment in the network; means for differentiating measurement reporting of the neighbor cells at the user equipment in dependence on at least the relative size of the neighbour cells; wherein the differentiated measurement reporting is conditional on the user equipment being classified as fast moving;
A method of a first base station in a wireless communication system, the method comprising: determining a parameter associated with repeated transmissions of a sounding reference signal (SRS) based on a first sub-carrier spacing for the first base station and one or more second sub-carrier spacings for one or more second base stations; transmitting, to a terminal, the determined parameter associated with the repeated transmissions of the SRS; and performing positioning of the terminal based on the SRS repeatedly transmitted from the terminal. determining a parameter associated with repeated transmissions of a sounding reference signal (SRS) based on a first sub-carrier spacing for the first base station and one or more second sub-carrier spacings for one or more second base stations; transmitting, to a terminal, the determined parameter associated with the repeated transmissions of the SRS; and performing positioning of the terminal based on the SRS repeatedly transmitted from the terminal.
Aircraft , comprising: a propulsion unit with a first rotor for providing a propulsion force on the aircraft ; a fuselage unit, which extends along a rotation axis of the first rotor and has a rotationally symmetric shape with respect to the rotation axis of the first rotor ; and a landing gear that is movably attached to the fuselage unit and that is designed to support the aircraft upon landing on the Earth's surface , wherein the landing gear has at least three landing supports; wherein the fuselage unit has a suspension at a first end by means of which the fuselage unit is coupled to the first rotor so that the fuselage unit is spaced apart from the first rotor along the rotation axis ; wherein a detection unit for the detection of environmental information is provided in the area of a second end of the fuselage unit ; wherein the propulsion unit is designed to keep the aircraft in a hovering flight state, so that a relative position of the aircraft with respect to a reference point on the Earth's surface remains unchanged; wherein the landing supports are configured to be folded in towards the first rotor; and wherein, when the landing gear is folded in, the detection unit can be provided with a receiving region with undisturbed reception of signals from the environment, wherein the receiving region with undisturbed reception is bounded by an acceptance cone with a spatial acceptance angle of at least 260 degrees. a propulsion unit with a first rotor for providing a propulsion force on the aircraft ; a fuselage unit, which extends along a rotation axis of the first rotor and has a rotationally symmetric shape with respect to the rotation axis of the first rotor ; and a landing gear that is movably attached to the fuselage unit and that is designed to support the aircraft upon landing on the Earth's surface , wherein the landing gear has at least three landing supports; wherein the fuselage unit has a suspension at a first end by means of which the fuselage unit is coupled to the first rotor so that the fuselage unit is spaced apart from the first rotor along the rotation axis ; wherein a detection unit for the detection of environmental information is provided in the area of a second end of the fuselage unit ; wherein the propulsion unit is designed to keep the aircraft in a hovering flight state, so that a relative position of the aircraft with respect to a reference point on the Earth's surface remains unchanged; wherein the landing supports are configured to be folded in towards the first rotor; and wherein, when the landing gear is folded in, the detection unit can be provided with a receiving region with undisturbed reception of signals from the environment, wherein the receiving region with undisturbed reception is bounded by an acceptance cone with a spatial acceptance angle of at least 260 degrees.
Air supply device for delivering air into an interior of a passenger transportation means, in particular a vehicle, comprising - a housing , - a guide channel formed by the housing for guiding the air, wherein the guide channel comprises at least one opening in communication with the interior via which the air can be delivered into the interior , - a textile cover , which at least partially closes the opening and has a visible side facing the interior and a rear side facing the guide channel , wherein - the air leaving the air supply device flows through the textile cover and, - for generating light effects on the visible side , the textile cover is transilluminable at least in the direction from the rear side to the visible side , and - at least one light source , with which the rear side of the textile cover can be illuminated, characterised in that the textile cover is mounted in the guide channel in a translatorically and/or rotatorically movable manner. - a housing , - a guide channel formed by the housing for guiding the air, wherein the guide channel comprises at least one opening in communication with the interior via which the air can be delivered into the interior , - a textile cover , which at least partially closes the opening and has a visible side facing the interior and a rear side facing the guide channel , wherein - the air leaving the air supply device flows through the textile cover and, - for generating light effects on the visible side , the textile cover is transilluminable at least in the direction from the rear side to the visible side , and - at least one light source , with which the rear side of the textile cover can be illuminated,