mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by at least one programmable multithread SIMD processor, the method comprising: determining, for each warp of a plurality of warps, whether a Boolean expression argument of a divergence barrier instruction is true for at least one thread in each warp that reaches the divergence barrier instruction ; pausing execution of each warp containing the or each thread for which the Boolean expression argument is true ; for each of the plurality of warps for which the Boolean expression argument is true, determining a number of active threads in each warp , wherein the active threads are those for which the Boolean expression argument is true; sorting the plurality of warps for which the Boolean expression argument is true based on the number of active threads in each of the plurality of warps to produce a plurality of sorted warps ; swapping the data of an active thread of a first warp of the plurality of warps having fewer active threads with the data of an inactive thread of a second warp of the plurality of warps having a greater number of active threads until no paused warps having all inactive threads can be created ; determining that the plurality of paused warps includes a warp having all active threads and resuming execution of the warp having all active threads ; and resuming execution of other paused warps that have at least one active thread once no more inactive warps can be created. determining, for each warp of a plurality of warps, whether a Boolean expression argument of a divergence barrier instruction is true for at least one thread in each warp that reaches the divergence barrier instruction ; pausing execution of each warp containing the or each thread for which the Boolean expression argument is true ; for each of the plurality of warps for which the Boolean expression argument is true, determining a number of active threads in each warp , wherein the active threads are those for which the Boolean expression argument is true; sorting the plurality of warps for which the Boolean expression argument is true based on the number of active threads in each of the plurality of warps to produce a plurality of sorted warps ; swapping the data of an active thread of a first warp of the plurality of warps having fewer active threads with the data of an inactive thread of a second warp of the plurality of warps having a greater number of active threads until no paused warps having all inactive threads can be created ; determining that the plurality of paused warps includes a warp having all active threads and resuming execution of the warp having all active threads ; and resuming execution of other paused warps that have at least one active thread once no more inactive warps can be created.
A cement grinding additive composition, suitable for use with PVC equipment during cement manufacture, comprising: (a) at least one amine cement grinding additive comprising triisopropanolamine, diethanolisopropanolamine, diisopropanolethanolamine, tetrahydroxyethylethylenediamine, tetrahydroxy-isopropylethylenediamine, triethanolamine, methyldiethanolamine, diethanolamine, or mixtures thereof, wherein the amine cement grinding additive is present in an amount of 1.0 to 99.0 percent based on total weight of the cement grinding additive composition; and (b) an air detraining agent selected from the group consisting of (i) ethoxylated, propoxylated fatty alcohol or alkylphenol, (ii) polyalkoxylated polyalkylene polyamine, or (iii) mixture thereof, wherein the air detraining agent is present in an amount of 0.05 to 5.0 percent based on total weight of the cement grinding additive composition; (c) a biopolymer polysaccharide gum selected from the group consisting of Diutan, Welan, and Xanthan, wherein the biopolymer polysaccharide gum is present in an amount of 0.1 to 1.0 percent based on total weight of the cement grinding additive composition; and (d) water in amount of 0.1 to 95.0 percent based on total weight of the cement grinding additive composition, whereby said air detraining agent is uniformly disbursed throughout the cement grinding additive composition. (a) at least one amine cement grinding additive comprising triisopropanolamine, diethanolisopropanolamine, diisopropanolethanolamine, tetrahydroxyethylethylenediamine, tetrahydroxy-isopropylethylenediamine, triethanolamine, methyldiethanolamine, diethanolamine, or mixtures thereof, wherein the amine cement grinding additive is present in an amount of 1.0 to 99.0 percent based on total weight of the cement grinding additive composition; and (b) an air detraining agent selected from the group consisting of (i) ethoxylated, propoxylated fatty alcohol or alkylphenol, (ii) polyalkoxylated polyalkylene polyamine, or (iii) mixture thereof, wherein the air detraining agent is present in an amount of 0.05 to 5.0 percent based on total weight of the cement grinding additive composition; (c) a biopolymer polysaccharide gum selected from the group consisting of Diutan, Welan, and Xanthan, wherein the biopolymer polysaccharide gum is present in an amount of 0.1 to 1.0 percent based on total weight of the cement grinding additive composition; and (d) water in amount of 0.1 to 95.0 percent based on total weight of the cement grinding additive composition, whereby said air detraining agent is uniformly disbursed throughout the cement grinding additive composition.
Current sensing circuit comprising a second field-effect transistor for generating a sensing current proportional to a current flowing through a working circuit having a first field-effect transistor ; a first bipolar transistor and a second bipolar transistor having bases connected together, wherein emitters of the first bipolar transistor and the second bipolar transistor are respectively connected to drains of the first field-effect transistor and the second field-effect transistor ; an operational amplifier having its positive input and negative input connected to collectors of the first bipolar transistor and the second bipolar transistor , respectively, and its output connected to the bases of the first bipolar transistor and the second bipolar transistor ; and a third and fourth field-effect transistors for making currents flowing through the first bipolar transistor and the second bipolar transistor the same, wherein a resistance of the second field-effect transistor between its drain (D) and source (S) during conduction is larger than a resistance of the first field-effect transistor between its drain (D) and source (S) during conduction, and wherein a drain voltage of the first field-effect transistor is kept to be equal to a drain voltage of the second field-effect transistor via a feedback loop formed by the first bipolar transistor , the second bipolar transistor and the operational amplifier . a second field-effect transistor for generating a sensing current proportional to a current flowing through a working circuit having a first field-effect transistor ; a first bipolar transistor and a second bipolar transistor having bases connected together, wherein emitters of the first bipolar transistor and the second bipolar transistor are respectively connected to drains of the first field-effect transistor and the second field-effect transistor ; an operational amplifier having its positive input and negative input connected to collectors of the first bipolar transistor and the second bipolar transistor , respectively, and its output connected to the bases of the first bipolar transistor and the second bipolar transistor ; and a third and fourth field-effect transistors for making currents flowing through the first bipolar transistor and the second bipolar transistor the same, wherein a resistance of the second field-effect transistor between its drain (D) and source (S) during conduction is larger than a resistance of the first field-effect transistor between its drain (D) and source (S) during conduction, and wherein a drain voltage of the first field-effect transistor is kept to be equal to a drain voltage of the second field-effect transistor via a feedback loop formed by the first bipolar transistor , the second bipolar transistor and the operational amplifier .
A method for forming a pelletised evaporite mineral product, the method comprising: forming a material comprising a liquid and at least 50% by mass of an evaporite mineral powder, wherein the evaporate mineral is polyhalite; and processing the material using a pan pelletiser to form pellets comprising the material, the pan pelletiser being configured so that the mean dwell time of the material in the pan of the pelletiser is in the range from 60 to 120 seconds and the mean diameter of the pellets formed by the pelletiser is in the range from 1 to 8mm. forming a material comprising a liquid and at least 50% by mass of an evaporite mineral powder, wherein the evaporate mineral is polyhalite; and processing the material using a pan pelletiser to form pellets comprising the material, the pan pelletiser being configured so that the mean dwell time of the material in the pan of the pelletiser is in the range from 60 to 120 seconds and the mean diameter of the pellets formed by the pelletiser is in the range from 1 to 8mm.
A component mounting device configured to mount, on a substrate , an electronic component (Db) having a functional unit (Sb), the component mounting device comprising: a component supply mechanism that is configured to supply the electronic component (Db); a recognition unit that is configured to recognize a position of the functional unit (Sb); a component mounting mechanism that is configured to hold the electronic component (Db) supplied from the component supply mechanism and mount the electronic component (Db) on the substrate ; characterized by a holding position determination unit that is configured to determine a holding position (Pb) of the electronic component (Db), based on the position of the functional unit (Sb) recognized by the recognition unit, the holding position (Pb) being a position on the electronic component (Db) and being held by the component mounting mechanism , wherein the holding position determination unit is configured to determine a position not overlapping the functional unit in the electronic component as the holding position (Pb). a component supply mechanism that is configured to supply the electronic component (Db); a recognition unit that is configured to recognize a position of the functional unit (Sb); a component mounting mechanism that is configured to hold the electronic component (Db) supplied from the component supply mechanism and mount the electronic component (Db) on the substrate ; characterized by a holding position determination unit that is configured to determine a holding position (Pb) of the electronic component (Db), based on the position of the functional unit (Sb) recognized by the recognition unit, the holding position (Pb) being a position on the electronic component (Db) and being held by the component mounting mechanism , wherein the holding position determination unit is configured to determine a position not overlapping the functional unit in the electronic component as the holding position (Pb).
A method for managing requests in a communication network, the method comprising: • receiving, by a global customer service management, G-CSM, function in the communication network, a customer service request comprising performance requirements for a selected service from a service operator , wherein the G-CSM function is configured to operate over a plurality of pre-existing network slices of the communication network; • determining, by the G-CSM function , whether the performance requirements for the selected service included in the customer service request cannot be accommodated using one of the plurality of pre-existing network slices of the communication network; and • instantiating, by the G-CSM function , a new network slice to accommodate the customer service request when it is determined that the customer service request cannot be accommodated using any of the plurality of pre-existing network slices, wherein instantiating the new network slice comprises: ∘ transmitting, by the G-CSM function , a network service request to an orchestrator of a network function virtualization management and orchestration entity, NFV-MANO; ∘ receiving, by the G-SCM function , an acknowledgement transmitted by the NFV-MANO indicative that the network slice instantiation is complete; and ∘ transmitting, by the G-SCM function , an acknowledgement to the service operator , indicative that the network slice instantiation is complete. • receiving, by a global customer service management, G-CSM, function in the communication network, a customer service request comprising performance requirements for a selected service from a service operator , wherein the G-CSM function is configured to operate over a plurality of pre-existing network slices of the communication network; • determining, by the G-CSM function , whether the performance requirements for the selected service included in the customer service request cannot be accommodated using one of the plurality of pre-existing network slices of the communication network; and • instantiating, by the G-CSM function , a new network slice to accommodate the customer service request when it is determined that the customer service request cannot be accommodated using any of the plurality of pre-existing network slices, ∘ transmitting, by the G-CSM function , a network service request to an orchestrator of a network function virtualization management and orchestration entity, NFV-MANO; ∘ receiving, by the G-SCM function , an acknowledgement transmitted by the NFV-MANO indicative that the network slice instantiation is complete; and ∘ transmitting, by the G-SCM function , an acknowledgement to the service operator , indicative that the network slice instantiation is complete.
A process system comprising: a substrate ; a plurality of first wafers (200-1) arranged at predetermined intervals along a first column which is parallel to an edge of the substrate, each of the plurality of first wafers including a plurality of first chips; a plurality of second wafers (200-2) arranged at the predetermined intervals and at an offset from the plurality of first wafers, along a second column which is parallel to the first column, each of the plurality of second wafers including a plurality of second chips; and a roller configured to roll in a first direction to pick up the plurality of first chips included in the plurality of first wafers, roll in a second direction opposite to the first direction while the roller is suspended from the plurality of first wafers, pick up the plurality of second chips included in the plurality of second wafers by rolling in the first direction, and transport the plurality of first chips and the plurality of second chips to the substrate. a substrate ; a plurality of first wafers (200-1) arranged at predetermined intervals along a first column which is parallel to an edge of the substrate, each of the plurality of first wafers including a plurality of first chips; a plurality of second wafers (200-2) arranged at the predetermined intervals and at an offset from the plurality of first wafers, along a second column which is parallel to the first column, each of the plurality of second wafers including a plurality of second chips; and a roller configured to roll in a first direction to pick up the plurality of first chips included in the plurality of first wafers, roll in a second direction opposite to the first direction while the roller is suspended from the plurality of first wafers, pick up the plurality of second chips included in the plurality of second wafers by rolling in the first direction, and transport the plurality of first chips and the plurality of second chips to the substrate.
A pigment pellet preparation, comprising one or more effect pigment and one or more thermosetting resin, wherein the effect pigment is dispersed in the thermosetting resin, wherein the thermosetting resin has 3 or more reactive terminal groups and has an acid number from about 10 to about 50 mg KOH/g resin, wherein the preparation comprises from about 70% to about 90% by weight of one or more effect pigment, wherein the preparation comprises from about 5% to about 35% by weight of one or more thermosetting resin, wherein the pigment and thermosetting resin comprise about 95% or more of the preparation, wherein the pellets have a diameter of about 0.5 mm to about 5 mm and a length of about 1 mm to about 5 cm. wherein the thermosetting resin has 3 or more reactive terminal groups and has an acid number from about 10 to about 50 mg KOH/g resin, wherein the preparation comprises from about 70% to about 90% by weight of one or more effect pigment, wherein the preparation comprises from about 5% to about 35% by weight of one or more thermosetting resin, wherein the pigment and thermosetting resin comprise about 95% or more of the preparation, wherein the pellets have a diameter of about 0.5 mm to about 5 mm and a length of about 1 mm to about 5 cm.
An information processing apparatus comprising: an arrangement unit configured to arrange datagrams in a number of elements of a predetermined matrix size or less in at least a portion of the matrix of the predetermined matrix size, by repeating arrangement of the datagrams in order along a first direction according to a second direction; and a generation unit configured to generate a redundant datagram for forward error correction for each of the datagrams belonging to one row, and for each of the datagrams belonging to one column of the matrix arranged by the arrangement unit, wherein the information processing apparatus is characterised by a determination unit configured to provide a predetermined flag to a last datagram in the transmission order from among the datagrams; and wherein, in the case that a size of the matrix of datagrams is less than the predetermined matrix size, the redundant datagram is generated without increasing the size of the matrix of datagrams to the predetermined matrix size. an arrangement unit configured to arrange datagrams in a number of elements of a predetermined matrix size or less in at least a portion of the matrix of the predetermined matrix size, by repeating arrangement of the datagrams in order along a first direction according to a second direction; and a generation unit configured to generate a redundant datagram for forward error correction for each of the datagrams belonging to one row, and for each of the datagrams belonging to one column of the matrix arranged by the arrangement unit, wherein the information processing apparatus is characterised by a determination unit configured to provide a predetermined flag to a last datagram in the transmission order from among the datagrams; and wherein, in the case that a size of the matrix of datagrams is less than the predetermined matrix size, the redundant datagram is generated without increasing the size of the matrix of datagrams to the predetermined matrix size.
Method for adjusting the stress on an electrical and/or electronic subassembly , in particular a converter, in a wind turbine , incorporating the following steps: - determine (G) for the electrical and/or electronic subassembly an expected service life up to the point when a maintenance indicator value (WI) is reached, which represents a state of the subassembly at which, on the basis of conditions defined in advance, the subassembly should be maintained, - compare (D) the expected service life against the time point for the next maintenance of the wind turbine , - control (E, F) the wind turbine and at least one other wind turbine in the area around the wind turbine as a function of the results of the comparison of the expected service life against the time point for the next maintenance of the wind turbine in such a way that the stress on the electrical and/or electronic subassembly is reduced, wherein the other wind turbine is selectively operated in such a way that the wind turbine comes more greatly than necessary into a lee of the other wind turbine . - determine (G) for the electrical and/or electronic subassembly an expected service life up to the point when a maintenance indicator value (WI) is reached, which represents a state of the subassembly at which, on the basis of conditions defined in advance, the subassembly should be maintained, - compare (D) the expected service life against the time point for the next maintenance of the wind turbine , - control (E, F) the wind turbine and at least one other wind turbine in the area around the wind turbine as a function of the results of the comparison of the expected service life against the time point for the next maintenance of the wind turbine in such a way that the stress on the electrical and/or electronic subassembly is reduced,
A cage segment for a roller bearing , with two side plates and at least two bridges connecting the side plates , wherein a complete rolling element pocket is formed between two bridges each and an incomplete rolling element pocket is formed by regions of the side plates each, which project beyond the bridges in the circumferential direction of the cage segment , characterised in that the two end faces (14, 15; 16, 17) of each side plate are differently contoured and the side plates have lateral surface portions spaced from the end faces (14, 15; 16, 17) that are offset from the surrounding surface portions of the side plates in such a way that the maximum width of the cage segment is given exclusively by the distance between the lateral, offset surface portions of the two side plates and the lateral surface portions that determine the maximum width of the cage segment are located in axial extension of the respective bridges .
Method for ascertaining an operating variable of a drum brake, said method having the following steps: - recording a bearing force of a brake shoe of the drum brake by means of a sensor, and - calculating the operating variable based on the bearing force, - wherein the operating variable is a braking torque (M Br ) while the drum of the drum brake is rotating, characterized in that the bearing force (F auf ) is measured at a leading brake shoe of the drum brake, - wherein a further bearing force (F abl ) is measured at a trailing brake shoe of the drum brake, - wherein the braking torque (M Br ) is calculated based on the bearing force (F auf ) and the further bearing force (F abl ) by way of - the braking torque (M Br ) being calculated as a difference between the bearing force (F auf ) and the further bearing force (F abl ), wherein the difference is multiplied by a predetermined factor (m 1 ). - recording a bearing force of a brake shoe of the drum brake by means of a sensor, and - calculating the operating variable based on the bearing force, - wherein the operating variable is a braking torque (M Br ) while the drum of the drum brake is rotating, characterized in that the bearing force (F auf ) is measured at a leading brake shoe of the drum brake, - wherein a further bearing force (F abl ) is measured at a trailing brake shoe of the drum brake, - wherein the braking torque (M Br ) is calculated based on the bearing force (F auf ) and the further bearing force (F abl ) by way of - the braking torque (M Br ) being calculated as a difference between the bearing force (F auf ) and the further bearing force (F abl ), wherein the difference is multiplied by a predetermined factor (m 1 ).