mhurhangee/patent-ind-claim-en huggingface dataset:
A processor comprising: decoding circuitry to decode an instruction, wherein the instruction specifies locations of a plurality of operands, values of which being in a floating-point format; and execution circuitry to execute the decoded instruction, wherein the execution includes to: convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, characterized in that the instruction further specifies one or more operands specifying quality of service, QoS, requirements, and in that the processor is to determine a format of the lower precision values to be used, a number of the lower precision values and/or a number of terms to run the arithmetic operations with, based on the one or more operands specifying the QoS requirements. decoding circuitry to decode an instruction, wherein the instruction specifies locations of a plurality of operands, values of which being in a floating-point format; and execution circuitry to execute the decoded instruction, wherein the execution includes to: convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, characterized in that the instruction further specifies one or more operands specifying quality of service, QoS, requirements, and in that the processor is to determine a format of the lower precision values to be used, a number of the lower precision values and/or a number of terms to run the arithmetic operations with, based on the one or more operands specifying the QoS requirements.
Flexible pipe body for transporting fluids from a sub-sea location, comprising: a collapse resistant layer comprising a radially inner surface and a radially outer surface, the radially inner surface comprising a plurality of substantially regular protrusions (815 1-n ) and/or depressions extending in at least one direction perpendicular to a tangent of the radially inner surface, for breaking up a boundary layer of fluid flowing along the flexible pipe body in use, wherein the collapse resistant layer comprises a helically wound elongate tape element having at least one cavity between adjacent windings of the tape element and wherein the height of the protrusions or the depth of the depressions is between 1/70 th and 1/10 th the depth of the at least one cavity; or wherein the collapse resistant layer comprises interlocked discrete annular elements, and wherein the collapse resistant layer comprises a plurality of cavities , each cavity between an annular element and an adjacent annular element and wherein the height of the protrusions or the depth of the depressions is between 1/70 th and 1/10 th the depth of each cavity. a collapse resistant layer comprising a radially inner surface and a radially outer surface, the radially inner surface comprising a plurality of substantially regular protrusions (815 1-n ) and/or depressions extending in at least one direction perpendicular to a tangent of the radially inner surface, for breaking up a boundary layer of fluid flowing along the flexible pipe body in use, wherein the collapse resistant layer comprises a helically wound elongate tape element having at least one cavity between adjacent windings of the tape element and wherein the height of the protrusions or the depth of the depressions is between 1/70 th and 1/10 th the depth of the at least one cavity; or wherein the collapse resistant layer comprises interlocked discrete annular elements, and wherein the collapse resistant layer comprises a plurality of cavities , each cavity between an annular element and an adjacent annular element and wherein the height of the protrusions or the depth of the depressions is between 1/70 th and 1/10 th the depth of each cavity.
A segmented rotor blade for a wind turbine , comprising: a first rotor blade segment comprising a female structural member , the female structural member comprising first bore holes on opposing sides thereof, the first bore holes aligned in a chord-wise direction; a second rotor blade segment comprising a male structural member protruding therefrom, the male structural member comprising a beam-like structure extending longitudinally through the female structural member such that the first and second rotor blade segments are aligned and connected, the beam-like structure of the male structural member comprising second bore holes on opposing sides thereof, the second bore holes aligned with the first bore holes ; and, at least one chord-wise extending pin extending through the first and second bore holes so as to join the first and second rotor blade segments together, characterised in that the beam-like structure of the male structural member comprising a height that increases from a blade root of the rotor blade towards the at least one chord-wise extending pin . a first rotor blade segment comprising a female structural member , the female structural member comprising first bore holes on opposing sides thereof, the first bore holes aligned in a chord-wise direction; a second rotor blade segment comprising a male structural member protruding therefrom, the male structural member comprising a beam-like structure extending longitudinally through the female structural member such that the first and second rotor blade segments are aligned and connected, the beam-like structure of the male structural member comprising second bore holes on opposing sides thereof, the second bore holes aligned with the first bore holes ; and, at least one chord-wise extending pin extending through the first and second bore holes so as to join the first and second rotor blade segments together, characterised in that the beam-like structure of the male structural member comprising a height that increases from a blade root of the rotor blade towards the at least one chord-wise extending pin .
A method performed by a first wireless device in a wireless communication system, the method comprising: reserving (S1201) a set of resources comprising a first resource for an initial transmission and one or more second resources for a retransmission; performing (S1203) the initial transmission of a data unit to a second wireless device by using the first resource; determining to perform the retransmission of the data unit based on receiving a negative acknowledgement, NACK, for the initial transmission; determining (S1207) whether to reserve one or more third resources other than the reserved one or more second resources based on a priority of the data unit before performing the retransmission; based on a determination to reserve the one or more third resources: i) removing (S1209) the reserved one or more second resources, and ii) reserving the one or more third resources after removing the reserved one or more second resources; and performing (S1211) the retransmission to the second wireless device by using the one or more third resources. reserving (S1201) a set of resources comprising a first resource for an initial transmission and one or more second resources for a retransmission; performing (S1203) the initial transmission of a data unit to a second wireless device by using the first resource; determining to perform the retransmission of the data unit based on receiving a negative acknowledgement, NACK, for the initial transmission; determining (S1207) whether to reserve one or more third resources other than the reserved one or more second resources based on a priority of the data unit before performing the retransmission; based on a determination to reserve the one or more third resources: i) removing (S1209) the reserved one or more second resources, and ii) reserving the one or more third resources after removing the reserved one or more second resources; and i) removing (S1209) the reserved one or more second resources, and ii) reserving the one or more third resources after removing the reserved one or more second resources; and performing (S1211) the retransmission to the second wireless device by using the one or more third resources.
A nuclear reactor control rod drive assembly , comprising: a control rod drive mechanism coupled to a drive shaft and operable to bi-directionally urge the drive shaft through a portion of an inner volume of a reactor vessel in a first direction toward a reactor core and in a second direction away from the reactor core ; a control rod manifold coupled to the drive shaft ; a plurality of control rods coupled to the control rod manifold , the control rods adjustable among a plurality of positions within the inner volume of the reactor vessel based on operation of the control rod drive mechanism ; at least one joint positioned between the control rod drive mechanism and the plurality of control rods , the at least one joint having a first failure strength in the first direction and a second failure strength in the second direction, the first failure strength being greater than the second failure strength; the at least one joint further comprising a cutaway formed in either the control rod or the drive shaft , a pocket formed in the manifold and having an additional cutaway , and a shear ring or snap ring Positioned between the cutaway and the additional cutaway. a control rod drive mechanism coupled to a drive shaft and operable to bi-directionally urge the drive shaft through a portion of an inner volume of a reactor vessel in a first direction toward a reactor core and in a second direction away from the reactor core ; a control rod manifold coupled to the drive shaft ; a plurality of control rods coupled to the control rod manifold , the control rods adjustable among a plurality of positions within the inner volume of the reactor vessel based on operation of the control rod drive mechanism ; at least one joint positioned between the control rod drive mechanism and the plurality of control rods , the at least one joint having a first failure strength in the first direction and a second failure strength in the second direction, the first failure strength being greater than the second failure strength; the at least one joint further comprising a cutaway formed in either the control rod or the drive shaft , a pocket formed in the manifold and having an additional cutaway , and a shear ring or snap ring Positioned between the cutaway and the additional cutaway.
A method for wireless communication at a user equipment, UE (115; 705; 805; 1005), comprising: receiving, from a base station , signaling indicating a repetition configuration for repetitions of a first message of a two-step random access procedure, the repetition configuration indicating a repetition pattern including a maximum number of repetitions and a resource allocation for the repetitions; transmitting (505; 605; 1105; 1205; 1305) the first message of the two-step random access procedure to the base station , the first message comprising a preamble sequence and a data payload ; transmitting one or more repetitions of the first message of the two-step random access procedure according to the repetition pattern; updating a counter upon transmitting each of the one or more repetitions of the first message of the two-step random access procedure; monitoring (615; 1110; 1215; 1310) for a second message of the two-step random access procedure from the base station; and falling back to a four-step random access procedure if the UE did not successfully receive a second message of the two-step random access procedure for at least one of the first message and the one or more repetitions of the first message before the counter satisfies the maximum number of repetitions, wherein falling back to the four-step random access procedure comprises transmitting (625; 1115; 1220) to the base station a preamble in a random access request message of the four-step random access procedure; and wherein the initial transmission of the first message and the repetitions of the first message use different resources. receiving, from a base station , signaling indicating a repetition configuration for repetitions of a first message of a two-step random access procedure, the repetition configuration indicating a repetition pattern including a maximum number of repetitions and a resource allocation for the repetitions; transmitting (505; 605; 1105; 1205; 1305) the first message of the two-step random access procedure to the base station , the first message comprising a preamble sequence and a data payload ; transmitting one or more repetitions of the first message of the two-step random access procedure according to the repetition pattern; updating a counter upon transmitting each of the one or more repetitions of the first message of the two-step random access procedure; monitoring (615; 1110; 1215; 1310) for a second message of the two-step random access procedure from the base station; and falling back to a four-step random access procedure if the UE did not successfully receive a second message of the two-step random access procedure for at least one of the first message and the one or more repetitions of the first message before the counter satisfies the maximum number of repetitions, wherein falling back to the four-step random access procedure comprises transmitting (625; 1115; 1220) to the base station a preamble in a random access request message of the four-step random access procedure; and wherein the initial transmission of the first message and the repetitions of the first message use different resources.
Transport anchor system for transporting precast concrete components , in particular thin-walled or double-walled concrete parts, sandwich constructions, insulating walls, concrete shafts and pipes, comprising - a transport anchor with a screw channel , which is non-detachably concrete-cast in the interior of the precast concrete component , and - a first pocket former , which can be detachably arranged in the interior of the precast concrete part adjacent to the transport anchor to form a pocket , wherein the transport anchor system comprises a load receiving means with a lifting eyelet or other device for hanging or connecting to an external transport, sling or lashing means, wherein the load receiving means can be screwed into the screw channel of the transport anchor to transport the precast concrete component wherein the first pocket former on a first side has a pocket base , formed entirely or partially with permanent magnetic material to generate a magnetic holding force, and on a second side has a first projection section of a pocket projection for coupling to a screw channel of the transport anchor and a second projection section of the pocket projection , wherein the second projection section of the pocket projection tapers conically, stating from base towards the first projection section and the pocket base tapers conically starting from the first side towards the second side of the pocket former characterised in that the load receiving means has an external geometry corresponding to the pocket former , so that the load receiving means can be placed precisely in the pocket formed by the pocket former . - a transport anchor with a screw channel , which is non-detachably concrete-cast in the interior of the precast concrete component , and - a first pocket former , which can be detachably arranged in the interior of the precast concrete part adjacent to the transport anchor to form a pocket , the transport anchor system comprises a load receiving means with a lifting eyelet or other device for hanging or connecting to an external transport, sling or lashing means, wherein the load receiving means can be screwed into the screw channel of the transport anchor to transport the precast concrete component wherein the first pocket former on a first side has a pocket base , formed entirely or partially with permanent magnetic material to generate a magnetic holding force, and on a second side has a first projection section of a pocket projection for coupling to a screw channel of the transport anchor and a second projection section of the pocket projection , wherein the second projection section of the pocket projection tapers conically, stating from base towards the first projection section and the pocket base tapers conically starting from the first side towards the second side of the pocket former characterised in that the load receiving means has an external geometry corresponding to the pocket former , so that the load receiving means can be placed precisely in the pocket formed by the pocket former .
Method for ascertaining an amount of water for a cleaning process in a cleaning appliance , in particular a washing machine or a washer-dryer, characterised by the following steps: reading in a temperature signal , the temperature signal representing a temperature of water flowing into the cleaning appliance and/or a washing drum of the cleaning appliance for the cleaning process; determining a water signal by using the temperature signal , the water signal representing the amount of water required for the cleaning process; and providing a cleaning signal for executing the cleaning process using the amount of water represented by the water signal . reading in a temperature signal , the temperature signal representing a temperature of water flowing into the cleaning appliance and/or a washing drum of the cleaning appliance for the cleaning process; determining a water signal by using the temperature signal , the water signal representing the amount of water required for the cleaning process; and providing a cleaning signal for executing the cleaning process using the amount of water represented by the water signal .
A serving node (1; 500) for use in a telecommunications network, comprising: a communications unit for sending and receiving data; a storage medium for storing data; and a control unit for controlling the operation of the communications unit and the storage medium; wherein: the communications unit is configured to receive security capabilities of a terminal when the terminal registers with the serving node (S201); the storage medium is configured to store the security capabilities; the communications unit is configured to receive a path switch request message (S210), the path switch request including another indication of security capabilities of the terminal; and the communications unit is configured to send the stored security capabilities towards a target base station, characterised in that the control unit is configured to instruct the communications unit to send the stored security capabilities to the target base station if the indication of security capabilities of the terminal included in the received path switch request message do not match the stored security capabilities. (S313; S612). a communications unit for sending and receiving data; a storage medium for storing data; and a control unit for controlling the operation of the communications unit and the storage medium; wherein: the communications unit is configured to receive security capabilities of a terminal when the terminal registers with the serving node (S201); the storage medium is configured to store the security capabilities; the communications unit is configured to receive a path switch request message (S210), the path switch request including another indication of security capabilities of the terminal; and the communications unit is configured to send the stored security capabilities towards a target base station, characterised in that the control unit is configured to instruct the communications unit to send the communications unit is configured to receive security capabilities of a terminal when the terminal registers with the serving node (S201); the storage medium is configured to store the security capabilities; the communications unit is configured to receive a path switch request message (S210), the path switch request including another indication of security capabilities of the terminal; and the communications unit is configured to send the stored security capabilities towards a target base station, characterised in that the control unit is configured to instruct the communications unit to send the stored security capabilities to the target base station if the indication of security capabilities of the terminal included in the received path switch request message do not match the stored security capabilities. (S313; S612).
Riding assistance system for a vehicle which is drivable by muscle power and/or additionally by motor power, such as an electric bicycle, e-bike or pedelec, which vehicle has at least one front wheel (9-1) and one rear wheel (9-2) and a brake system for braking at least the front wheel (9-1), having a controllable electrical generator-motor unit , - which is mountable on or in the region of a hub (19-1) of the front wheel (9-1), and - which is couplable to the front wheel (9-1) and/or to a rotation of the front wheel (9-1) such that the rotation of the front wheel (9-1) can thus be influenced by braking and/or acceleration, - which controls the generator-motor unit by means of the front wheel (9-1) such that, in this way, in a generator mode, energy is coupled out of a rotation of the front wheel (9-1), acts as a brake, suppresses a rotation of the front wheel wheel (9-1), prevents and/or brakes the acceleration thereof, wherein the generator-motor unit is designed to be operable by short-circuiting, in particular in the manner of a brake chopper, and - which actuates the front wheel (9-1) such that, in this way, the generator-motor unit , in a motor mode, couples energy into a rotation of the front wheel (9-1), acts as a drive and initiates, maintains and/or accelerates a rotation of the front wheel (9-1), wherein the riding assistance system is configured to, in the event of detection (T2) of a risk of an RLM scenario and if a brake pressure of the underlying brake system is not generated and/or demanded (T3), activate (T7) the generator-motor unit in the motor mode to accelerate the front wheel (9-1) such that the risk of the RLM scenario is thus alleviated or eliminated. - which is mountable on or in the region of a hub (19-1) of the front wheel (9-1), and - which is couplable to the front wheel (9-1) and/or to a rotation of the front wheel (9-1) such that the rotation of the front wheel (9-1) can thus be influenced by braking and/or acceleration, - which controls the generator-motor unit by means of the front wheel (9-1) such that, in this way, in a generator mode, energy is coupled out of a rotation of the front wheel (9-1), acts as a brake, suppresses a rotation of the front wheel wheel (9-1), prevents and/or brakes the acceleration thereof, wherein the generator-motor unit is designed to be operable by short-circuiting, in particular in the manner of a brake chopper, and - which actuates the front wheel (9-1) such that, in this way, the generator-motor unit , in a motor mode, couples energy into a rotation of the front wheel (9-1), acts as a drive and initiates, maintains and/or accelerates a rotation of the front wheel (9-1),