mhurhangee/patent-ind-claim-en huggingface dataset:
A stator core for use in a motor or generator comprising: a plurality of stacked stator laminations wherein each stator lamination includes a plurality of fins projecting outwardly from the circular body and positioned in groups of equal spacing around an outer circumference of the circular body; wherein a cooling channel is defined between a first fin and a second adjacent fin within a group; and wherein adjacent groups of fins are separated by a gap (G), wherein the stator lamination includes a plurality of gaps (G), the gaps between adjacent groups of equally spaced fins varying in size; characterized in that each gap (G) between the adjacent groups of equally spaced fins has a width larger than a width of the cooling channel , and wherein each stator lamination is rotated relative to a previous stator lamination in the stack, such that a gap of a first stator lamination overlaps a gap of a second stator lamination preceding the first stator lamination, and thereby connecting a cooling channel to adjacent cooling channels. a plurality of stacked stator laminations wherein each stator lamination includes a plurality of fins projecting outwardly from the circular body and positioned in groups of equal spacing around an outer circumference of the circular body; wherein a cooling channel is defined between a first fin and a second adjacent fin within a group; and wherein adjacent groups of fins are separated by a gap (G), wherein the stator lamination includes a plurality of gaps (G), the gaps between adjacent groups of equally spaced fins varying in size; characterized in that each gap (G) between the adjacent groups of equally spaced fins has a width larger than a width of the cooling channel , and wherein each stator lamination is rotated relative to a previous stator lamination in the stack, such that a gap of a first stator lamination overlaps a gap of a second stator lamination preceding the first stator lamination, and thereby connecting a cooling channel to adjacent cooling channels.
A vehicle safety system, comprising: a steering wheel configured to be translated between a first, operational configuration and a second, deployed configuration, wherein in the second configuration the steering wheel is positioned laterally relative to the first configuration, and wherein the steering wheel is configured to be repositioned between the first configuration and the second configuration; and an airbag cushion housed in the steering wheel; and a steering wheel actuator configured to translate the steering wheel laterally from the first configuration to the second configuration, upon detection of a predetermined characteristic of an impact. a steering wheel configured to be translated between a first, operational configuration and a second, deployed configuration, wherein in the second configuration the steering wheel is positioned laterally relative to the first configuration, and wherein the steering wheel is configured to be repositioned between the first configuration and the second configuration; and an airbag cushion housed in the steering wheel; and a steering wheel actuator configured to translate the steering wheel laterally from the first configuration to the second configuration, upon detection of a predetermined characteristic of an impact.
Use of a cured alkyd resin comprising fatty acid residues, which contain at least 6 carbon atoms in the saturated or unsaturated aliphatic chain and no reactive functional group, wherein the cured alkyd resin is free of any biocidal product as defined in Article 3 (a) of the Regulation (EU) No. 528-2012 of the European Parliament and the Counsel of 22 May 2012, for providing antibacterial properties to at least part of a surface of a substrate.
A hand-held, self-contained, test instrument for analyzing composition of a sample, the test instrument including; a source for producing a beam of penetrating radiation for illuminating a spot on at least a portion of the sample , thereby producing a response signal from the sample , the response signal comprising fluoresced radiation characteristic of elements in the sample ; a collimated shutter for the beam , a detector for receiving the response signal and for producing an output signal representative of spectral data; a processor coupled to the detector and programmed to process the output signal from the detector; a battery powering the source and the processor; and a detector collimator positioned along a light path between the spot and the detector , such that the response signal passes through the detector collimator before reaching the detector , characterized in that the collimated shutter includes a first tube and a second tube , each having a different diameter central bore and/or a different length, the collimated shutter further comprising a moveable shutter positional in one of at least three positions, a first position prevents the beam of penetrating radiation from reaching the sample , a second position in which a one of the first and second tubes is aligned between the source and the sample , and a third position in which the other of the first and second tubes is aligned between the source and the sample .
An inter-device screen coordination method, applied to a screen coordination system comprising a first electronic device and a second electronic device , comprising: establishing (S1501), by the first electronic device , a multi-screen coordination connection to the second electronic device ; displaying (S1502), by the first electronic device , a first interface , wherein the first interface comprises first content, and the first interface has a first display parameter; displaying (S1503), by the second electronic device , a second interface , wherein the second interface comprises second content, and the second interface has a second display parameter; receiving, by the first electronic device, the second display parameter sent by the second electronic device , and generating the third interface based on the received second display parameter, wherein the third interface comprises the first content and has the second display parameter; sending (S1504), by the first electronic device , the third interface to the second electronic device ; and in response to the received third interface, displaying (S1505), by the second electronic device , a fourth interface , wherein the fourth interface comprises the second content and a first window, the first window comprises the first content, and the first content in the first window has the second display parameter; the method characterised in that the third interface is an invisible view in the first electronic device or the third interface is generated on an invisible virtual screen of the first electronic device . establishing (S1501), by the first electronic device , a multi-screen coordination connection to the second electronic device ; displaying (S1502), by the first electronic device , a first interface , wherein the first interface comprises first content, and the first interface has a first display parameter; displaying (S1503), by the second electronic device , a second interface , wherein the second interface comprises second content, and the second interface has a second display parameter; receiving, by the first electronic device, the second display parameter sent by the second electronic device , and generating the third interface based on the received second display parameter, wherein the third interface comprises the first content and has the second display parameter; sending (S1504), by the first electronic device , the third interface to the second electronic device ; and in response to the received third interface, displaying (S1505), by the second electronic device , a fourth interface , wherein the fourth interface comprises the second content and a first window, the first window comprises the first content, and the first content in the first window has the second display parameter; the method characterised in that the third interface is an invisible view in the first electronic device or the third interface is generated on an invisible virtual screen of the first electronic device .
A composition comprising a saponin, a sterol, a quaternary amine, and a polyacrylic polymer for use in inducing an immune response in a mammal or bird, wherein said saponin is a triterpenoid saponin, said sterol is selected from the group consisting of β-sitosterol, stigmasterol, ergosterol, ergocalciferol, and cholesterol, and the quaternary amine comprises four alkyl chains, two of which are C 10 -C 20 alkyls and the remaining two are C 1 -C 4 alkyls, and wherein further said composition is antigen-free or the amount of the antigen in said composition is not detectable by a serological assay.
A source device , comprising: a transceiver configured to communicate with a destination device ; and a user interface , comprising a multi-touch display , communicatively coupled to the transceiver ; logic coupled to the user interface configured to recognize a predefined first gesture made on the multi-touch display ; wherein the logic is configured to determine , based on the predefined first gesture made by a user of the source device , a location of the first gesture on the user interface and, based on the location, an object to transfer; wherein the user interface scans fingerprint data of the user upon detecting the predefined first gesture; wherein the logic is configured to associate the fingerprint data of the user with the object; wherein the logic is configured to send a broadcast message via the transceiver, the message advertising the object that was selected for transfer; wherein the logic is configured to, responsive to receiving a response to the broadcast message from the destination device , send the fingerprint data associated with the object to the destination device ; and wherein the logic is configured to transfer the object to the destination device responsive to the destination device requesting the object. a transceiver configured to communicate with a destination device ; and a user interface , comprising a multi-touch display , communicatively coupled to the transceiver ; logic coupled to the user interface configured to recognize a predefined first gesture made on the multi-touch display ; wherein the logic is configured to determine , based on the predefined first gesture made by a user of the source device , a location of the first gesture on the user interface and, based on the location, an object to transfer; wherein the user interface scans fingerprint data of the user upon detecting the predefined first gesture; wherein the logic is configured to associate the fingerprint data of the user with the object; wherein the logic is configured to send a broadcast message via the transceiver, the message advertising the object that was selected for transfer; wherein the logic is configured to, responsive to receiving a response to the broadcast message from the destination device , send the fingerprint data associated with the object to the destination device ; and wherein the logic is configured to transfer the object to the destination device responsive to the destination device requesting the object.
Flexible printed circuit comprising: - first and second ends ; and - a flexible central portion extending between the first and second ends and comprising electrically-conductive tracks , coated with a polymer material, to electrically connect the first and second ends, characterized in that the flexible central portion is at least partly covered with a heat shield made of an electrically conducting material having an emissivity smaller than those of the polymer material and of the electrically-conductive tracks, the material of the heat shield having an emissivity smaller than 0.05 and in that the heat shield has a thickness in the range from 50 to 200 nm. - first and second ends ; and - a flexible central portion extending between the first and second ends and comprising electrically-conductive tracks , coated with a polymer material, to electrically connect the first and second ends,
A laser scanner having an apparatus for the contactless transmission of data and for the determination of an angle change, wherein the laser scanner comprises a sensor head which is rotatable in a relative manner about an axis of rotation (A) and which forms a first object; and a supply unit which forms a second object; wherein, in the apparatus for the contactless transmission of data and for the determination of an angle change, - a first electrode carrier which comprises a first electrode is provided at the first object and - a second electrode carrier which comprises a second electrode is provided at the second object, with the first and second electrode carriers being disposed opposite and axially spaced apart with respect to the axis of rotation (A) and the first and second electrodes being arranged such that a data transmission is possible by an electrical coupling between the first and second electrodes , and with the strength of the electrical coupling varying along the peripheral extent of the first and second electrodes ; and wherein a control unit is provided which is configured to transmit a signal from the first electrode to the second electrode and an evaluation unit is provided which is configured to determine and evaluate a signal strength of the received signal separately at at least two sections of the second electrode which are electrically insulated with respect to one another in order to determine an angle change between the first object and the second object. - a first electrode carrier which comprises a first electrode is provided at the first object and - a second electrode carrier which comprises a second electrode is provided at the second object, with the first and second electrode carriers being disposed opposite and axially spaced apart with respect to the axis of rotation (A) and the first and second electrodes being arranged such that a data transmission is possible by an electrical coupling between the first and second electrodes , and with the strength of the electrical coupling varying along the peripheral extent of the first and second electrodes ; and
A method performed by a communication device , the method comprising: scanning, by a transceiver of the communication device , for one or more cells within communication range of the communication device , the transceiver supporting a maximum transmit power; determining an uplink transmit power limit of the transceiver associated with each one of the one or more cells , the uplink transmit power limit based, at least in part, on the maximum transmit power; determining , based on a proximity of a target, whether a local constraint is applicable to the communication device , each local constraint requiring uplink transmit power to be less than the maximum transmit power, and each local constraint representing a graduated degree of local constraint that corresponds to a specific degree of proximity of the target and that is associated with a different uplink transmit power limit; in response to determining that the local constraint is applicable, cutting back the uplink transmit power limit to the uplink transmit power limit associated with the applicable local constraint; prioritizing selection of the one or more cells for connecting to the communication device , based at least in part on the respective uplink transmit power limit, by giving highest priority to a prioritized cell having the lowest cut back; and connecting to the prioritized cell among the one or more cells ;. scanning, by a transceiver of the communication device , for one or more cells within communication range of the communication device , the transceiver supporting a maximum transmit power; determining an uplink transmit power limit of the transceiver associated with each one of the one or more cells , the uplink transmit power limit based, at least in part, on the maximum transmit power; determining , based on a proximity of a target, whether a local constraint is applicable to the communication device , each local constraint requiring uplink transmit power to be less than the maximum transmit power, and each local constraint representing a graduated degree of local constraint that corresponds to a specific degree of proximity of the target and that is associated with a different uplink transmit power limit; in response to determining that the local constraint is applicable, cutting back the uplink transmit power limit to the uplink transmit power limit associated with the applicable local constraint; prioritizing selection of the one or more cells for connecting to the communication device , based at least in part on the respective uplink transmit power limit, by giving highest priority to a prioritized cell having the lowest cut back; and connecting to the prioritized cell among the one or more cells ;.
A process for the production of urea wherein: the production of urea (U) includes the concentration of an aqueous urea solution by means of a process of crystallization, which is performed in a urea crystallization section , obtaining solid crystals of urea and a urea crystallization purge aqueous phase comprising urea, water and biuret, which is purged from the urea crystallization process; at least a portion of said urea crystallization purge aqueous phase is further processed in a high-biuret urea processing section wherein a high-biuret urea is produced in a solid form, said high-biuret urea containing at least 55% by weight of biuret; wherein urea is produced at a high pressure of synthesis in a urea synthesis section, obtaining a synthesis effluent containing urea, water and unconverted ammonium carbamate; said effluent is processed in a recovery section at one or more pressure levels lower than the synthesis pressure to recover unconverted reagents which are recycled to the synthesis section, and said aqueous urea solution is obtained in the recovery section. the production of urea (U) includes the concentration of an aqueous urea solution by means of a process of crystallization, which is performed in a urea crystallization section , obtaining solid crystals of urea and a urea crystallization purge aqueous phase comprising urea, water and biuret, which is purged from the urea crystallization process; at least a portion of said urea crystallization purge aqueous phase is further processed in a high-biuret urea processing section wherein a high-biuret urea is produced in a solid form, said high-biuret urea containing at least 55% by weight of biuret; wherein urea is produced at a high pressure of synthesis in a urea synthesis section, obtaining a synthesis effluent containing urea, water and unconverted ammonium carbamate; said effluent is processed in a recovery section at one or more pressure levels lower than the synthesis pressure to recover unconverted reagents which are recycled to the synthesis section, and said aqueous urea solution is obtained in the recovery section.
An online-control cooling process for seamless steel tube for effectively refining grains, comprising the following steps: when the temperature of tube is higher than Ar3, evenly spraying water along the circumferential direction of the tube so as to continuously cool the tube to temperature of T1°C~T2°C, the cooling rate being controlled to N1°C/s∼N2°C/s, wherein T1=810-360C-80(Mn+Cr)-37Ni-83Mo, T 2 = T 1 + 115 ° C , N 1 = 55 − 80 × C , N 2 = 168 × 0.8 − C , and C, Mn, Cr, Ni, and Mo in the equations each represents the mass percentage of corresponding elements of the seamless steel tube; then, cooling to the room temperature at a cooling rate no more than 10°C/s. when the temperature of tube is higher than Ar3, evenly spraying water along the circumferential direction of the tube so as to continuously cool the tube to temperature of T1°C~T2°C, the cooling rate being controlled to N1°C/s∼N2°C/s, wherein T1=810-360C-80(Mn+Cr)-37Ni-83Mo, T 2 = T 1 + 115 ° C , N 1 = 55 − 80 × C , N 2 = 168 × 0.8 − C , and C, Mn, Cr, Ni, and Mo in the equations each represents the mass percentage of corresponding elements of the seamless steel tube; then, cooling to the room temperature at a cooling rate no more than 10°C/s.
A compound for use in treating or preventing a protozoan colonisation or infection in a subject, selected from the group consisting of: NCL024 2,2'-bis[(4-cyanophenyl)methylene] carbonimidic dihydrazide hydrochloride NCL114 2,2'-bis[(3,5-dichlorophenyl)methylene]carbonimidic dihydrazide hydrochloride NCL123 2,2'-bis[(3,4-difluorophenyl)methylene]carbonimidic dihydrazide hydrochloride NCL130 2,2'-bis[(3-bromo-4,5-dimethoxyphenyl)methylene]carbonimidic dihydrazide hydrochloride NCL139 2,2'-bis(3-quinolinylmethylene)carbonimidic dihydrazide hydrochloride NCL146 2,2'-bis(1H-indol-5-ylmethylene)carbonimidic dihydrazide hydrochloride NCL150 2,2'-bis[3-(4-methoxylphenyl)-2-propenylidene]carbonimidic dihydrazide hydrochloride NCL151 2,2'-bis[(4-hydroxyphenyl)methylene] carbonimidic dihydrazide hydrochloride NCL174 2,2'-bis(4-chloro-2-hydroxyphenylmethylene)carbonimidic dihydrazide hydrochloride NCL175 2,2'-Bis(4-chloropyridin-3-ylmethylene) carbonimidic dihydrazide hydrochloride NCL176 2,2'-Bis(2-aminopyridin-3-ylmethylene) carbonimidic dihydrazide hydrochloride
A method for reducing system information, SI, acquisition time, the method being performed by a network node and comprising: when certain SI is changed in a BCCH modification period in a master information block, MIB, indication time period, setting a one bit flag to a first value for the rest of the current MIB indication time period and the immediately following MIB indication time period, and otherwise setting the flag to a second value; generating a MIB comprising the value for the one bit flag; and transmitting the MIB; wherein the MIB indication time period is a time period in which the UE is required to check the MIB at least once. when certain SI is changed in a BCCH modification period in a master information block, MIB, indication time period, setting a one bit flag to a first value for the rest of the current MIB indication time period and the immediately following MIB indication time period, and otherwise setting the flag to a second value; generating a MIB comprising the value for the one bit flag; and transmitting the MIB; wherein the MIB indication time period is a time period in which the UE is required to check the MIB at least once.
A support force measurement apparatus for measuring a support force on a support element of a support structure of, specially, a movable working machine , comprising: at least one measurement element, which is connected to a deformation body deformable with an effect of the support force, so as to form a force sensor and send a signal proportional to the support force, a support leg which is configured as a foot plate and is connected to the support element in a movable manner, characterized in that, the foot plate comprises the force sensor , a device for storing electrical energy and a radio transmitter, said radio transmitter being connected to the force sensor and constructed to transmit in a wireless mode the signal proportional to the support force detected by the force sensor to a radio receiver in the machine . at least one measurement element, which is connected to a deformation body deformable with an effect of the support force, so as to form a force sensor and send a signal proportional to the support force, a support leg which is configured as a foot plate and is connected to the support element in a movable manner, characterized in that, the foot plate comprises the force sensor , a device for storing electrical energy and a radio transmitter, said radio transmitter being connected to the force sensor and constructed to transmit in a wireless mode the signal proportional to the support force detected by the force sensor to a radio receiver in the machine .