mhurhangee/ep-ind-claims huggingface dataset:
An allocation method for allocating an available maximum power (PMAX) from at least one power supply source (R; B) to electrical equipment of a crane, in which the electrical equipment are powered by the available maximum power (PMAX) which corresponds to a maximum power that can be delivered by the at least one power supply source (R; B), said electrical equipment comprising: - actuation equipment (91, 92) defined according to a configuration of the crane and which are equipment suitable for actuating a movement of the crane or a crane element; - accessory equipment (93, 94) which are equipment that are not actuation equipment, that says equipment which are not involved in moving the crane or a crane element; said allocation method being characterized in that it comprises a step of selecting between: - a raw mode (MBRUT) in which the available maximum power (PMAX) is allocated over the actuation equipment (91, 92) and the accessory equipment (93, 94) without distinction between the actuation equipment (91, 92) and the accessory equipment (93, 94), as long as the electrical equipment are in demand for electric power; and - an optimized mode (MOPT) in which the available maximum power (PMAX) is allocated over the predefined actuation equipment (91, 92), and also over the accessory equipment (93, 94) but according to cut-off conditions associated to the accessory equipment (93, 94), so that according to their respective cut-off conditions the accessory equipment are powered or not. - actuation equipment (91, 92) defined according to a configuration of the crane and which are equipment suitable for actuating a movement of the crane or a crane element; - accessory equipment (93, 94) which are equipment that are not actuation equipment, that says equipment which are not involved in moving the crane or a crane element; said allocation method being characterized in that it comprises a step of selecting between: - a raw mode (MBRUT) in which the available maximum power (PMAX) is allocated over the actuation equipment (91, 92) and the accessory equipment (93, 94) without distinction between the actuation equipment (91, 92) and the accessory equipment (93, 94), as long as the electrical equipment are in demand for electric power; and - an optimized mode (MOPT) in which the available maximum power (PMAX) is allocated over the predefined actuation equipment (91, 92), and also over the accessory equipment (93, 94) but according to cut-off conditions associated to the accessory equipment (93, 94), so that according to their respective cut-off conditions the accessory equipment are powered or not.
A lifeboat hook assembly comprising a hook-shaped beak and a release mechanism, said hook shaped beak is adapted to be rigidly connected to a lifeboat at one end, said hook shaped beak having a downwardly oriented shoulder against which a loop rests when the lifeboat is suspended in said loop, said release mechanism is coupled to the hook-shaped beak and is adapted to move relative to the hook-shaped beak between a locked position (8a, 10a) where the loop is prevented from escaping from the shoulder, and a released position (8e, 10e) where the loop is allowed to escape from the shoulder, an actuator is coupled to the release mechanism and is adapted to move the release mechanism between the locked position (8a, 10a) and the released position (8e, 10e), said hook shaped beak or said release mechanism comprises a first guide slot and a second guide slot said other of said hook shaped beak or release mechanism comprises a first guide pin and a second guide pin being arranged within the respective guide slots (7, 9), said first and second guide pin (8, 10) being movable within the respective guide slots (7, 9) between the locked position (8a, 10e) and the released position (8e, 10e), characterised in that said first guide slot has a curved shape causing the first guide pin to move along a curve so that a movement of the release mechanism follows a rotary-like path between the locked position and the released position, said release mechanism is self-locking in the locked position, where the piston arrangement is configured to force the first guide pin out of this position in order to release the loop
A method for data transmission, which is used in Long Term Evolution, LTE, comprising: when transmitting data by using a first radio bearer, receiving, by a user equipment, UE, radio resource control connection reconfiguration information sent by a base station; obtaining, by the UE, a second radio bearer according to the radio resource control connection reconfiguration information, wherein a quality of service parameter of the second radio bearer is different from a quality of service parameter of the first radio bearer, wherein the quality of service parameter of the first radio bearer supports a first transmission mode, and the quality of service parameter of the second radio bearer supports a second transmission mode; sending, by the UE, radio resource control connection reconfiguration completion information to the base station; and transmitting, by the UE, a part of the data which has not been transmitted by using the second radio bearer, wherein, the first transmission mode is an adaptive streaming mode in hyper text transfer protocol, HTTP, and the second transmission mode is a progressive download mode in HTTP; or, the first transmission mode is a progressive download mode in HTTP, and the second transmission mode is an adaptive streaming mode in HTTP, wherein the adaptive streaming mode is the download mode of a guaranteed bit rate bearer and the progressive download mode is the download mode of a non-guaranteed bit rate bearer. when transmitting data by using a first radio bearer, receiving, by a user equipment, UE, radio resource control connection reconfiguration information sent by a base station; obtaining, by the UE, a second radio bearer according to the radio resource control connection reconfiguration information, wherein a quality of service parameter of the second radio bearer is different from a quality of service parameter of the first radio bearer, wherein the quality of service parameter of the first radio bearer supports a first transmission mode, and the quality of service parameter of the second radio bearer supports a second transmission mode; sending, by the UE, radio resource control connection reconfiguration completion information to the base station; and transmitting, by the UE, a part of the data which has not been transmitted by using the second radio bearer, wherein, the first transmission mode is an adaptive streaming mode in hyper text transfer protocol, HTTP, and the second transmission mode is a progressive download mode in HTTP; or, the first transmission mode is a progressive download mode in HTTP, and the second transmission mode is an adaptive streaming mode in HTTP, wherein the adaptive streaming mode is the download mode of a guaranteed bit rate bearer and the progressive download mode is the download mode of a non-guaranteed bit rate bearer.
A method, by a first base station, for configuring an aggregate maximum bit rate of a user equipment, UE-AMBR, comprising: receiving, from a mobility management entity, MME, an initial user equipment context setup message including a total UE-AMBR; transmitting, to a second base station, a request message including a second UE-AMBR, wherein the total UE-AMBR is split into a first UE AMBR and the second UE-AMBR which are enforced by the first base station and the second base station, respectively, for dual connectivity with the first and the second base station; and receiving, from the second base station, a response message including a tunnel port identity of a UE in response to the request message. receiving, from a mobility management entity, MME, an initial user equipment context setup message including a total UE-AMBR; transmitting, to a second base station, a request message including a second UE-AMBR, wherein the total UE-AMBR is split into a first UE AMBR and the second UE-AMBR which are enforced by the first base station and the second base station, respectively, for dual connectivity with the first and the second base station; and receiving, from the second base station, a response message including a tunnel port identity of a UE in response to the request message.
A hydrogen storage tank to store hydrogen, comprising a liner layer and a carbon fiber reinforced plastic layer disposed on the outside of the liner layer, wherein the liner layer is formed from a low-alloy steel selected from any one of a chrome molybdenum steel, a nickel-chrome-molybdenum steel, a manganese chrome steel, a manganese steel, and a boron-added steel, and characterised in that the carbon fiber reinforced plastic layer is formed from pitch based carbon fibers having a Young's modulus of 400 GPa or more and a resin, the pitch based carbon fibers having a stiffness property larger than the stiffness property of the low-alloy steel, such that the liner is subjected to auto-frettage. wherein the liner layer is formed from a low-alloy steel selected from any one of a chrome molybdenum steel, a nickel-chrome-molybdenum steel, a manganese chrome steel, a manganese steel, and a boron-added steel, and characterised in that the carbon fiber reinforced plastic layer is formed from pitch based carbon fibers having a Young's modulus of 400 GPa or more and a resin, the pitch based carbon fibers having a stiffness property larger than the stiffness property of the low-alloy steel, such that the liner is subjected to auto-frettage.
A method for integrating a communication device with a ballistic wearable item configured to support a trauma plate on a person, comprising: concealing the communication device in the ballistic wearable item such that the communication device resides in a storage slot for the trauma plate, where the communication device comprises a frame having a cross-sectional profile that matches a cross-sectional profile of the trauma plate by 75-100%; and- performing communication operations by a radio module integrated with the frame of the communication device; characterized in further comprising using at least one channel formed on an external surface of the frame to maintain an alignment of a radio module of the communication device with the frame throughout use of the wearable item and to dissipate heat generated by the radio module while performing the communication operations. concealing the communication device in the ballistic wearable item such that the communication device resides in a storage slot for the trauma plate, where the communication device comprises a frame having a cross-sectional profile that matches a cross-sectional profile of the trauma plate by 75-100%; and- performing communication operations by a radio module integrated with the frame of the communication device;
A system for provision of diagnostic fault information (PDTI) concerning a motor vehicle, the system comprises a processing unit configured to receive fault codes from the vehicle, each fault code received being associated with a unique identity, and to provide the diagnostic fault information (PDTI) via an output interface, characterised in that the system comprises a database containing at least one range of information items (C, A) which each pertain to a certain fault code, and the processing unit is configured to generate the diagnostic fault information (PDTI) dynamically on the basis of at least one fault code received and at least one information item (C, A) thereto pertaining from the database and, if more than one fault code (DTC1, DTC2) is received from the vehicle when two or more faults in the motor vehicle occur at the same time, the processing unit is configured to generate diagnostic fault information (PDTI) concerning a current fault code dynamically on the basis of at least one information item (C2, A2) pertaining to the current fault code and at least one information item (C1, A1) pertaining to at least one other of said fault codes received as well as on the basis of elimination of any redundant information overlapping from the two or more fault codes (DTC1, DTC2). the system comprises a database containing at least one range of information items (C, A) which each pertain to a certain fault code, and the processing unit is configured to generate the diagnostic fault information (PDTI) dynamically on the basis of at least one fault code received and at least one information item (C, A) thereto pertaining from the database and, if more than one fault code (DTC1, DTC2) is received from the vehicle when two or more faults in the motor vehicle occur at the same time, the processing unit is configured to generate diagnostic fault information (PDTI) concerning a current fault code dynamically on the basis of at least one information item (C2, A2) pertaining to the current fault code and at least one information item (C1, A1) pertaining to at least one other of said fault codes received as well as on the basis of elimination of any redundant information overlapping from the two or more fault codes (DTC1, DTC2).
A method of deploying an unmanned underwater vehicle from a surface vessel or platform to perform a mission underwater, the method comprising: moving the UUV, docked to a tether management system, outboard from the vessel or platform and into water beside the vessel or platform; deploying an umbilical that extends outboard from the vessel or platform to the TMS to effect communication with the UUV via a tether of the TMS; fully submerging the UUV in the water and then undocking the submerged UUV from the TMS; swimming the UUV away from the TMS while deploying the tether, wherein swimming the UUV comprises propelling the UUV using one or more of the thrusters of the UUV; and while suspending the TMS over the water beside the vessel or platform, using the UUV to perform the mission while communicating with the UUV via the tether and the umbilical. moving the UUV, docked to a tether management system, outboard from the vessel or platform and into water beside the vessel or platform; deploying an umbilical that extends outboard from the vessel or platform to the TMS to effect communication with the UUV via a tether of the TMS; fully submerging the UUV in the water and then undocking the submerged UUV from the TMS; swimming the UUV away from the TMS while deploying the tether, wherein swimming the UUV comprises propelling the UUV using one or more of the thrusters of the UUV; and while suspending the TMS over the water beside the vessel or platform, using the UUV to perform the mission while communicating with the UUV via the tether and the umbilical.
A method of controlling a spout arrangement on a transferring vehicle, comprising: using a target detection module, determining a position of a target relative to the transferring vehicle by identifying a region in image data that likely corresponds to the target, wherein the target is located to a rear of the transferring vehicle; and then tracking the target using a target tracking module to determine a pose trajectory of the target; receiving information about the spout arrangement; calculating a trajectory of material exiting the spout arrangement, including using a material projection module to determine an expected material incidence point based on a location of the point where material exits the spout and an exit angle of the material exiting the spout; and using the material projection module to calculate or assume a deceleration of the material from the exit point to the expected material incidence point based on parameters affecting material flight; adjusting the spout arrangement to align the expected material incidence point with the target. using a target detection module, determining a position of a target relative to the transferring vehicle by identifying a region in image data that likely corresponds to the target, wherein the target is located to a rear of the transferring vehicle; and then tracking the target using a target tracking module to determine a pose trajectory of the target; receiving information about the spout arrangement; calculating a trajectory of material exiting the spout arrangement, including using a material projection module to determine an expected material incidence point based on a location of the point where material exits the spout and an exit angle of the material exiting the spout; and using the material projection module to calculate or assume a deceleration of the material from the exit point to the expected material incidence point based on parameters affecting material flight; including using a material projection module to determine an expected material incidence point based on a location of the point where material exits the spout and an exit angle of the material exiting the spout; and using the material projection module to calculate or assume a deceleration of the material from the exit point to the expected material incidence point based on parameters affecting material flight; adjusting the spout arrangement to align the expected material incidence point with the target.
An isolated polypeptide having cellulolytic enhancing activity, selected from the group consisting of: (a) a polypeptide comprising an amino acid sequence having at least 80% identity to the mature polypeptide of SEQ ID NO: 2; and (b) a polypeptide encoded by a polynucleotide comprising a nucleotide sequence having at least 80% identity to the mature polypeptide coding sequence of SEQ ID NO: 1. (a) a polypeptide comprising an amino acid sequence having at least 80% identity to the mature polypeptide of SEQ ID NO: 2; and (b) a polypeptide encoded by a polynucleotide comprising a nucleotide sequence having at least 80% identity to the mature polypeptide coding sequence of SEQ ID NO: 1.
Method for encapsulating an integrated circuit, comprising: - the formation of first and second electrically insulating supports (2, 3), the first and second supports formed each having a planar surface (20, 30), so as to form a recess in the first support with respect to its planar surface, and so as to form, with respect to the planar surface of each of the first and second supports, first (211, 311) and second (212, 312) reliefs, such that the first and second reliefs (211, 212) of the first support cooperate with the first and second reliefs (311, 312) of the second support to guide the first support by sliding with respect to the second support in a direction transversal to said planar surfaces (20, 30); - the formation of a first electrical contact in said recess; - the positioning of a chip in said recess and the formation of an electrical contact between a first electrode of the chip and said first electrical contact; - the formation of a second electrical contact on said second support and the deposition of a brazing material on said second electrical contact; - the superposing of the first and second supports (2, 3) so as to superpose their first and second respective reliefs and so as to position the brazing material plumb with a second electrode of said chip; - the sliding of the first support in said transverse direction with respect to the second support to bring the brazing material into contact with the second electrode of the chip; - the brazing of the brazing material so as to fix said chip to said second support. - the formation of first and second electrically insulating supports (2, 3), the first and second supports formed each having a planar surface (20, 30), so as to form a recess in the first support with respect to its planar surface, and so as to form, with respect to the planar surface of each of the first and second supports, first (211, 311) and second (212, 312) reliefs, such that the first and second reliefs (211, 212) of the first support cooperate with the first and second reliefs (311, 312) of the second support to guide the first support by sliding with respect to the second support in a direction transversal to said planar surfaces (20, 30); - the formation of a first electrical contact in said recess; - the positioning of a chip in said recess and the formation of an electrical contact between a first electrode of the chip and said first electrical contact; - the formation of a second electrical contact on said second support and the deposition of a brazing material on said second electrical contact; - the superposing of the first and second supports (2, 3) so as to superpose their first and second respective reliefs and so as to position the brazing material plumb with a second electrode of said chip; - the sliding of the first support in said transverse direction with respect to the second support to bring the brazing material into contact with the second electrode of the chip; - the brazing of the brazing material so as to fix said chip to said second support.
A method of inspecting a flexible component, the component having features in which reference points of the features, in a nominal undeformed condition of the component, lie in nominal positions on a nominal line of predetermined form, the method comprising: (i) measuring the actual positions of the reference points of the features with the component in a deformed condition; (ii) generating a base spline passing through the reference point of each feature; (iii) generating the smoothed spline from the base spline; (iv) determining the deviation (d) of the reference point of each feature from the smoothed spline; (v) constructing a base line of the predetermined form and having a length equal to the length of the smoothed spline, the reference points being spaced apart along the base line by the same distances as they are spaced apart along the smoothed spline; and (vi) determining constrained positions of the reference points of the features which deviate from the base line by the same respective deviations (d) of the reference points from the smoothed spline, the constrained positions of the reference points being manipulated collectively to achieve the best-fit with the nominal positions of the reference points; (vii) determining the maximum deflection of the component required to transform the smoothed spline into coincidence with the best-fit line; and (viii) evaluating whether or not the maximum deflection lies within predetermined limits. (i) measuring the actual positions of the reference points of the features with the component in a deformed condition; (ii) generating a base spline passing through the reference point of each feature; (iii) generating the smoothed spline from the base spline; (iv) determining the deviation (d) of the reference point of each feature from the smoothed spline; (v) constructing a base line of the predetermined form and having a length equal to the length of the smoothed spline, the reference points being spaced apart along the base line by the same distances as they are spaced apart along the smoothed spline; and (vi) determining constrained positions of the reference points of the features which deviate from the base line by the same respective deviations (d) of the reference points from the smoothed spline, the constrained positions of the reference points being manipulated collectively to achieve the best-fit with the nominal positions of the reference points; (vii) determining the maximum deflection of the component required to transform the smoothed spline into coincidence with the best-fit line; and (viii) evaluating whether or not the maximum deflection lies within predetermined limits.