mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed in a network node relating to a process of controlling a data transfer related to video data of a video streaming service from a server to a wireless device , which network node and wireless device operate in a wireless communications network , wherein the process of controlling of data transfer comprises: determining a target bitrate of the data transfer based on network operational efficiency of the wireless communications network ; determining a target rate scheduling weight value of the data transfer based on the target bitrate of the data transfer, determining a scheduling weight value for the wireless device to be used in the data transfer, based on the target rate scheduling weight value, wherein the scheduling weight value is a priority value, a higher scheduling weight value corresponding to a better chance of data transmission scheduling to the wireless device in a next transmission interval; determining a size of data segment to be used in the data transfer based at least in part on the scheduling weight value, and determining a pending data volume for the transferring of the video data to a play back buffer of the wireless device based at least in part on the scheduling weight value, wherein the pending data volume is an amount of video data in the play back buffer that is ready to be played. determining a target bitrate of the data transfer based on network operational efficiency of the wireless communications network ; determining a target rate scheduling weight value of the data transfer based on the target bitrate of the data transfer, determining a scheduling weight value for the wireless device to be used in the data transfer, based on the target rate scheduling weight value, wherein the scheduling weight value is a priority value, a higher scheduling weight value corresponding to a better chance of data transmission scheduling to the wireless device in a next transmission interval; determining a size of data segment to be used in the data transfer based at least in part on the scheduling weight value, and determining a pending data volume for the transferring of the video data to a play back buffer of the wireless device based at least in part on the scheduling weight value, wherein the pending data volume is an amount of video data in the play back buffer that is ready to be played.
An information processing device connected to a computer that is usable for designing a device to be incorporated in a mounting system configured to perform processing of mounting a component (P) on a mounting target, the information processing device comprising: a memory section configured to store multiple pieces of abutting part data including a shape of an abutting part that abuts against the component (P), multiple pieces of attachment part data including a shape of an attachment part to be attached to an attachment section of a mounting head to which a collection member for collecting the component (P) is attached, and multiple pieces of connection part data including a shape of a connection part that connects the abutting part and the attachment part , in the collection member ; and a control section configured to output one or more of the abutting part data, the attachment part data, and the connection part data stored in the memory section to the computer, wherein the control section is configured to acquire component information including any one or more of identification information, a size, and a shape capable of identifying the component (P), and then search candidates for the abutting part data, the attachment part data, and the connection part data capable of collecting the component (P) based on the component information, and output the searched data. a memory section configured to store multiple pieces of abutting part data including a shape of an abutting part that abuts against the component (P), multiple pieces of attachment part data including a shape of an attachment part to be attached to an attachment section of a mounting head to which a collection member for collecting the component (P) is attached, and multiple pieces of connection part data including a shape of a connection part that connects the abutting part and the attachment part , in the collection member ; and a control section configured to output one or more of the abutting part data, the attachment part data, and the connection part data stored in the memory section to the computer, wherein the control section is configured to acquire component information including any one or more of identification information, a size, and a shape capable of identifying the component (P), and then search candidates for the abutting part data, the attachment part data, and the connection part data capable of collecting the component (P) based on the component information, and output the searched data.
A molded product formed from a polyphenylene sulfide resin composition obtained by mixing a polyphenylene sulfide resin (a), one or more types of fluororesin(s) selected from a group consisting of ethylene tetrafluoroethylene copolymer, tetrafluoroethylene perfluoro (alkyl vinyl ether) copolymer, tetrafluoroethylene hexafluoropropylene copolymer and polyvinylidene fluoride (b) and an organosilane compound (c), wherein when a resin phase-separated structure of the molded product formed from the polyphenylene sulfide resin composition is observed by an electron microscope by the method of the present description, the component (a) forms a continuous phase, the component (b) forms a primary dispersed phase having a number-average dispersion diameter of not greater than 1 μm as measured by the method according to the description, and a secondary dispersed phase of the component (a) is included in the primary dispersed phase of the component (b).
A radio frequency identification, RFID, transponder comprising: at least one functional component configured to perform a function of the RFID transponder ; a charge pump configured to supply an output voltage to said functional component , wherein said charge pump comprises a plurality of charge pump stages (302-308); a charge pump controller configured to control a number of charge pump stages which contribute to the output voltage; wherein the charge pump controller is configured to change the number of charge pump stages which are used for generating the output voltage while all charge pump stages remain active; wherein the plurality of charge pump stages (302-308) comprises a sequence of n charge pump stages; wherein the charge pump stages are coupled to ground through a plurality of first controllable switches; wherein the charge pump stages are coupled to each other through a plurality of second controllable switches; and wherein the charge pump controller is configured to disconnect one or more specific charge pump stages } by: opening the second controllable switch between a said charge pump stage and the next charge pump stage; and; closing the first controllable switch between the next charge pump stage and ground. at least one functional component configured to perform a function of the RFID transponder ; a charge pump configured to supply an output voltage to said functional component , wherein said charge pump comprises a plurality of charge pump stages (302-308); a charge pump controller configured to control a number of charge pump stages which contribute to the output voltage; wherein the charge pump controller is configured to change the number of charge pump stages which are used for generating the output voltage while all charge pump stages remain active; wherein the plurality of charge pump stages (302-308) comprises a sequence of n charge pump stages; wherein the charge pump stages are coupled to ground through a plurality of first controllable switches; wherein the charge pump stages are coupled to each other through a plurality of second controllable switches; and wherein the charge pump controller is configured to disconnect one or more specific charge pump stages } by: opening the second controllable switch between a said charge pump stage and the next charge pump stage; and; closing the first controllable switch between the next charge pump stage and ground.
A method for reducing formation of oligomers and homopolymers comprising contacting a composition comprising at least one fluoroolefin with an amount of at least one member selected from the group consisting of limonene, α-terpinene, and α-tocopherol, wherein the amount of the at least one member preferably is from about 10 ppm to about 2,000 ppm by weight, wherein the at least one fluoroolefin comprises at least one selected from the group consisting of HFO-1234yf and HFO-1234ze, and wherein the composition has been exposed to at least one of air, oxygen, cumene hydroperoxide, and fluoroolefin polyperoxides, peroxides, hydroperoxides, persulfates, percarbonates, perborates and hydropersulfates before said contacting. wherein the amount of the at least one member preferably is from about 10 ppm to about 2,000 ppm by weight, wherein the at least one fluoroolefin comprises at least one selected from the group consisting of HFO-1234yf and HFO-1234ze, and wherein the composition has been exposed to at least one of air, oxygen, cumene hydroperoxide, and fluoroolefin polyperoxides, peroxides, hydroperoxides, persulfates, percarbonates, perborates and hydropersulfates before said contacting.
A method for the removal of nitrogen oxides from flue gas from combustion facilities, comprising the steps of passing the flue gas through one or more ceramic filter catalysed with a catalyst for selective reduction of nitrogen oxides in presence of ammonia added to the flue gas either as such or in form of a precursor thereof; at a temperature below 250°C injecting an effluent gas containing nitrogen dioxide into the flue gas upstream the one or more ceramic filters; providing the effluent gas containing nitrogen dioxide by steps of catalytically oxidizing ammonia or a precursor thereof with an oxygen containing atmosphere to an effluent gas containing nitrogen monoxide and oxygen in presence of an oxidation catalyst; cooling the effluent gas to a temperature between -20 and 40 °C and oxidizing the nitrogen monoxide in the cooled effluent gas to the nitrogen dioxide containing effluent gas.
A power transmission network comprising a plurality of converters (12a-12d), each converter including first and second electrical terminals , each first electrical terminal being connectable to a DC electrical network (28a-28d), each second electrical terminal being operatively connected to at least one other second electrical terminal wherein at least one converter is designated as a first converter, at least one converter is designated as a second converter, at least one other converter is designated as a third converter, the or each first converter includes a first controller , the or each first controller being configured to selectively operate the or the respective first converter to modulate a power flow at its first or second electrical terminal , and the or each second converter includes a second controller , characterized in that the or each second controller being configured to selectively operate the or the respective second converter to modulate a power flow at its second electrical terminal so as to generate a compensatory power to compensate for an imbalance in power within the power transmission network caused by the modulation of power flow by the or each first converter and thereby inhibit the modulation of power flow by the or each first converter from modifying a power flow in the or each third converter .
A method of determining an error vector magnitude performed using automatic test equipment "ATE" , the method comprising: receiving data from a device under test "DUT" at a first receiver of the ATE; demodulating the data received at the first receiver to produce first symbol error vectors , each first symbol error vector representing a difference between a predefined point on a constellation diagram and a first measured point on the constellation diagram generated based on at least part of the data received by the first receiver; receiving the data from the DUT at a second receiver of the ATE , the second receiver being different from the first receiver; demodulating the data received at the second receiver to produce second symbol error vectors , each second symbol error vector representing a difference between the predefined point on the constellation diagram and a second measured point on the constellation diagram generated based on at least part of the data received by the second receiver; and determining the error vector magnitude for the data based on the first symbol error vectors and the second symbol error vectors, wherein determining the error vector magnitude for the data comprises cross-correlating the first symbol error vectors and the second symbol error vectors-and thereby reducing a level of uncorrelated noise. receiving data from a device under test "DUT" at a first receiver of the ATE; demodulating the data received at the first receiver to produce first symbol error vectors , each first symbol error vector representing a difference between a predefined point on a constellation diagram and a first measured point on the constellation diagram generated based on at least part of the data received by the first receiver; receiving the data from the DUT at a second receiver of the ATE , the second receiver being different from the first receiver; demodulating the data received at the second receiver to produce second symbol error vectors , each second symbol error vector representing a difference between the predefined point on the constellation diagram and a second measured point on the constellation diagram generated based on at least part of the data received by the second receiver; and determining the error vector magnitude for the data based on the first symbol error vectors and the second symbol error vectors, wherein determining the error vector magnitude for the data comprises cross-correlating the first symbol error vectors and the second symbol error vectors-and thereby reducing a level of uncorrelated noise.
A method for negotiation of a transporter with a door , the door including at least one handle, a door swing, and a doorway, the method comprising: receiving and segmenting environmental information from sensors mounted on the transporter , the environmental information including geometry of the transporter ; identifying at least one plane within the segmented environmental information ; identifying the door within the at least one plane; measuring , based on the segmented environmental information , the door to provide door measurements; providing a first movement command for moving the transporter for access to the at least one handle; providing a second movement command , wherein, if the door swing is towards the transporter , the second movement command is a command to move the transporter away from the door as the door opens by a distance based on the door measurements; providing a third movement command to move the transporter forward through the doorway; and providing a fourth movement command to move the transporter away from the door if the door measurements are smaller than the geometry of transporter . receiving and segmenting environmental information from sensors mounted on the transporter , the environmental information including geometry of the transporter ; identifying at least one plane within the segmented environmental information ; identifying the door within the at least one plane; measuring , based on the segmented environmental information , the door to provide door measurements; providing a first movement command for moving the transporter for access to the at least one handle; providing a second movement command , wherein, if the door swing is towards the transporter , the second movement command is a command to move the transporter away from the door as the door opens by a distance based on the door measurements; providing a third movement command to move the transporter forward through the doorway; and providing a fourth movement command to move the transporter away from the door if the door measurements are smaller than the geometry of transporter .
Auxiliary device for changing blades of a mower comprising a cutterbar that has at least two rotating cutting discs , the blades being connected to the cutting disc by a quick-release blade fastener , the quick-release blade fastener comprising a flexible component which is designed as a resiliently flexible holding element, the auxiliary device which is brought up to the cutting disc being configured to open the quick-release blade fastener in a manner actuated by drive energy in order to remove and/or install a blade and to close the quick-release blade fastener again after a blade has been removed and/or installed, characterised in that the drive energy-actuated opening and closing process of the quick-release blade fastener is carried out by at least one actuator of the auxiliary device , which actuator is configured to carry out the opening and closing process of the quick-release blade fastener by moving the flexible component in a designated direction.
Pesticidal mixtures comprising as active compounds 1) at least one pesticidal active carboxamide compound I of formula (I): or the tautomers, enantiomers, diastereomers or salts thereof, and 2) a pesticidal active compound II which is cyantraniliprole (cyazypyr®); in synergistically effective amounts. 1) at least one pesticidal active carboxamide compound I of formula (I): or the tautomers, enantiomers, diastereomers or salts thereof, and 2) a pesticidal active compound II which is cyantraniliprole (cyazypyr®); in synergistically effective amounts.
A material breaking device comprising: - a frame structure with an upper bracket and a lower bracket for support of other elements of the material breaking device; - an inlet tube fixedly attached to the upper bracket ; - an outlet tube fixedly attached to the lower bracket ; - a tubular housing arranged between said brackets (1A, IB), wherein the tubular housing is attached to the inlet tube for receiving particles to be milled and to the outlet tube for output of milled particles, wherein the tubular housing is attached to said tubes in a rotatable manner such that the tubular housing can rotate relative to the frame structure ; - at least one conical distributor arranged in the tubular housing and comprising recesses therearound allowing particles to pass along said conical distributor , wherein the conical distributor defines a first milling chamber ; - at least one outlet cone arranged in the tubular housing downstream from the conical distributor and comprising a through hole allowing particles to pass through said outlet cone , wherein the outlet cone defines a second milling chamber ; - a permanent magnet unit comprising a permanent magnet and the permanent magnet unit is attached to the tubular housing such that at least two permanent magnet units are provided for each milling chamber ; - a drive unit for providing rotation of the tubular housing relative to the frame structure , the inlet tube and the outlet tube creating rotating magnetic field within the milling chambers . - a frame structure with an upper bracket and a lower bracket for support of other elements of the material breaking device; - an inlet tube fixedly attached to the upper bracket ; - an outlet tube fixedly attached to the lower bracket ; - a tubular housing arranged between said brackets (1A, IB), wherein the tubular housing is attached to the inlet tube for receiving particles to be milled and to the outlet tube for output of milled particles, wherein the tubular housing is attached to said tubes in a rotatable manner such that the tubular housing can rotate relative to the frame structure ; - at least one conical distributor arranged in the tubular housing and comprising recesses therearound allowing particles to pass along said conical distributor , wherein the conical distributor defines a first milling chamber ; - at least one outlet cone arranged in the tubular housing downstream from the conical distributor and comprising a through hole allowing particles to pass through said outlet cone , wherein the outlet cone defines a second milling chamber ; - a permanent magnet unit comprising a permanent magnet and the permanent magnet unit is attached to the tubular housing such that at least two permanent magnet units are provided for each milling chamber ; - a drive unit for providing rotation of the tubular housing relative to the frame structure , the inlet tube and the outlet tube creating rotating magnetic field within the milling chambers .
A container spout portion included in a container body or in a container preform, and configured to be sealed as a seal portion comes into contact with an inner circumferential face in association of attachment thereto of a cap having the seal portion therein; wherein: the container spout portion includes an outer circumferential face provided with a thread , characterized in that an arcuate portion convex inwards and having a curvature radius equal to or less than 6 mm is formed between a top face and the inner circumferential face of the container spout portion ; a tangential line (T) to the arcuate portion starts from either a joining point (A1) between the arcuate portion and the top face or from a crossing point (A2) between a virtual extension line (E1) of the arcuate portion and the top face or a virtual extension line (E3) of the top face ; and an angle (θ) formed between the top face and the tangential line (T) ranges from 30 to 60 degrees. the container spout portion includes an outer circumferential face provided with a thread , characterized in that an arcuate portion convex inwards and having a curvature radius equal to or less than 6 mm is formed between a top face and the inner circumferential face of the container spout portion ; a tangential line (T) to the arcuate portion starts from either a joining point (A1) between the arcuate portion and the top face or from a crossing point (A2) between a virtual extension line (E1) of the arcuate portion and the top face or a virtual extension line (E3) of the top face ; and an angle (θ) formed between the top face and the tangential line (T) ranges from 30 to 60 degrees.
A method of rendering packaging material (A) an anti-microbial feature and characterized in that it comprises the following process steps: • the application of binder solution (N) on the inner surface (C) of the packaging material by spraying, • the application of the anti-microbial solution (O) on the inner surface (C) of the packaging material by spraying after the application of the binder solution (N) on the inner surface (C) of the packaging material, • drying. • the application of binder solution (N) on the inner surface (C) of the packaging material by spraying, • the application of the anti-microbial solution (O) on the inner surface (C) of the packaging material by spraying after the application of the binder solution (N) on the inner surface (C) of the packaging material, • drying.