mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for use in olefin polymerization comprising: (a) a thermally treated particulate material, wherein the thermally treated particulate material comprises one or more transition metal compounds, wherein the transition metal compound comprises chromium compounds, wherein the thermally treated particulate material further comprises one or more aluminium alkyl species, and wherein the thermally treated particulate material is treated between a temperature from about 150 °C to about 1000 °C and has an average particle size from about 20 microns to about 300 microns; (b) 0.05 to 5% by weight of a hydrophobic particulate material relative to the total weight of the particulate materials, wherein the hydrophobic particulate material has an average particle size of less than 5 microns and the hydrophobic particulate material is a treated fumed or pyrogenic silica that increases a bulk density of a solid phase of the composition relative to the bulk density of the solid phase of the composition in the absence of the hydrophobic particulate material; and (c) one or more liquid vehicles. (a) a thermally treated particulate material, wherein the thermally treated particulate material comprises one or more transition metal compounds, wherein the transition metal compound comprises chromium compounds, wherein the thermally treated particulate material further comprises one or more aluminium alkyl species, and wherein the thermally treated particulate material is treated between a temperature from about 150 °C to about 1000 °C and has an average particle size from about 20 microns to about 300 microns; (b) 0.05 to 5% by weight of a hydrophobic particulate material relative to the total weight of the particulate materials, wherein the hydrophobic particulate material has an average particle size of less than 5 microns and the hydrophobic particulate material is a treated fumed or pyrogenic silica that increases a bulk density of a solid phase of the composition relative to the bulk density of the solid phase of the composition in the absence of the hydrophobic particulate material; and (c) one or more liquid vehicles.
Tread for a heavy-duty vehicle tyre, having a tread surface in the new state that is intended to come into contact with a road surface when running, this tread comprising: - a first volume of cavities that open onto the tread surface in the new state, - a second volume of cavities that are formed entirely under the tread surface in the new state, this second volume of cavities comprising at least one channel of height Hc delimited by two main walls, these two main walls being spaced apart from one another by a width Lc and being connected together by a lower part forming a bottom and by an upper part that continues these main walls radially towards the outside, this channel being intended to form, after partial wear corresponding to a thickness Lu, an additional groove that opens onto the tread surface, each channel comprising a plurality of extensions forming cavities, each extension extending between this channel and the tread surface over a height He at least equal to 20% and at most equal to 75% of the thickness of material Lu between the upper part of the channel and the tread surface in the new state, this tread being characterized in that each extension opens at least into the upper part of the channel through an opening having a cross-sectional area Sa at least equal to 0.8*(Hc*Lc). - a first volume of cavities that open onto the tread surface in the new state, - a second volume of cavities that are formed entirely under the tread surface in the new state, this second volume of cavities comprising at least one channel of height Hc delimited by two main walls, these two main walls being spaced apart from one another by a width Lc and being connected together by a lower part forming a bottom and by an upper part that continues these main walls radially towards the outside, this channel being intended to form, after partial wear corresponding to a thickness Lu, an additional groove that opens onto the tread surface, each channel comprising a plurality of extensions forming cavities, each extension extending between this channel and the tread surface over a height He at least equal to 20% and at most equal to 75% of the thickness of material Lu between the upper part of the channel and the tread surface in the new state, this tread being characterized in that each extension opens at least into the upper part of the channel through an opening having a cross-sectional area Sa at least equal to 0.8*(Hc*Lc).
A method, comprising: receiving , by a user equipment, UE, a first message comprising information that indicates a first allocation of a plurality of channel subsets to a plurality of user equipments, UEs, for contention transmission of the plurality of UEs to a base station, BS, the first allocation being transmitted by the BS for one or more UEs to request access of a channel for an uplink transmission, wherein each UE is allocated with a channel subset such that a respective UE is allowed to contend to access channels within a channel subset allocated to the UE using a contention-based mechanism, wherein each channel subset comprises zero or more channels, and each channel subset comprises at least one channel that is different than one another, and wherein the plurality of channel subsets comprise a plurality of channels in unlicensed frequency spectrum; in response to receipt of the first message, selecting , by the UE, using a listen-before-talk technique, a first channel in a first channel subset allocated to the UE according to the first message and sending, by the UE, a request to the BS, the request indicating that the UE requests access to the first channel; and receiving , by the UE, a second message from the BS, the second message indicating a second allocation of the plurality of channels to the plurality of UEs for at least one UE to communicate with the BS over a channel allocated according to the second message. receiving , by a user equipment, UE, a first message comprising information that indicates a first allocation of a plurality of channel subsets to a plurality of user equipments, UEs, for contention transmission of the plurality of UEs to a base station, BS, the first allocation being transmitted by the BS for one or more UEs to request access of a channel for an uplink transmission, wherein each UE is allocated with a channel subset such that a respective UE is allowed to contend to access channels within a channel subset allocated to the UE using a contention-based mechanism, wherein each channel subset comprises zero or more channels, and each channel subset comprises at least one channel that is different than one another, and wherein the plurality of channel subsets comprise a plurality of channels in unlicensed frequency spectrum; in response to receipt of the first message, selecting , by the UE, using a listen-before-talk technique, a first channel in a first channel subset allocated to the UE according to the first message and sending, by the UE, a request to the BS, the request indicating that the UE requests access to the first channel; and receiving , by the UE, a second message from the BS, the second message indicating a second allocation of the plurality of channels to the plurality of UEs for at least one UE to communicate with the BS over a channel allocated according to the second message.
A robot cleaner, comprising: a cleaner main body provided with a first connection duct ; and a cleaning module provided with a second connection duct detachably coupled to the first connection duct to perform a dust suction function or a mopping function, wherein the first and second connection ducts are provided with a first facing surface and a second facing surface , respectively, which are configured to face each other when the cleaning module is coupled to the cleaner main body , wherein the first and second facing surfaces are formed in an annular shape to surround flow paths of the first and second connection ducts, respectively, wherein the first and second facing surfaces are provided with a first terminal portion and a second terminal portion , respectively, which are attached to each other by a magnetic force when the cleaning module is coupled to the cleaner body, and wherein the first connection duct is further provided with an accommodating portion extending forward from the first facing surface to surround an outer circumference of the second connection duct . a cleaner main body provided with a first connection duct ; and a cleaning module provided with a second connection duct detachably coupled to the first connection duct to perform a dust suction function or a mopping function, wherein the first and second connection ducts are provided with a first facing surface and a second facing surface , respectively, which are configured to face each other when the cleaning module is coupled to the cleaner main body , wherein the first and second facing surfaces are formed in an annular shape to surround flow paths of the first and second connection ducts, respectively, wherein the first and second facing surfaces are provided with a first terminal portion and a second terminal portion , respectively, which are attached to each other by a magnetic force when the cleaning module is coupled to the cleaner body, and wherein the first connection duct is further provided with an accommodating portion extending forward from the first facing surface to surround an outer circumference of the second connection duct .
A detector, comprising: a scintillation crystal ; an electronic system ; and a photoelectric converter comprising: a silicon photomultiplier array generated by splicing i×j silicon photomultipliers on a horizontal plane, and a light guide coupled to the silicon photomultiplier array , wherein i indicates the number of the silicon photomultipliers in a length direction on the horizontal plane, j indicates the number of the silicon photomultipliers in a width direction on the horizontal plane, and both i and j are integers greater than or equal to 2, wherein the scintillation crystal , the light guide and the silicon photomultiplier array are coupled by an optical coupling agent in the order listed, wherein the photoelectric converter is configured to generate k paths of electrical pulse signals in response to one y photon deposition event, wherein k is an integer greater than or equal to 4 and the electronic system is configured to process the k paths of electrical pulse signals to obtain information on energy, a position and time of a γ photon, characterized in that the electronic system is configured to pre-process the k paths of electrical pulse signals to reduce the number of electronic channels, to obtain m paths of electrical pulse signals, wherein m is an integer which is greater than or equal to 4 and is less than k, and the electronic system is configured to calculate a deposition position of the γ photon based on the m electrical pulse signals by using a position algorithm. a scintillation crystal ; an electronic system ; and a photoelectric converter comprising: a silicon photomultiplier array generated by splicing i×j silicon photomultipliers on a horizontal plane, and a light guide coupled to the silicon photomultiplier array , wherein i indicates the number of the silicon photomultipliers in a length direction on the horizontal plane, j indicates the number of the silicon photomultipliers in a width direction on the horizontal plane, and both i and j are integers greater than or equal to 2, wherein the scintillation crystal , the light guide and the silicon photomultiplier array are coupled by an optical coupling agent in the order listed, wherein the photoelectric converter is configured to generate k paths of electrical pulse signals in response to one y photon deposition event, wherein k is an integer greater than or equal to 4 and the electronic system is configured to process the k paths of electrical pulse signals to obtain information on energy, a position and time of a γ photon, characterized in that the electronic system is configured to pre-process the k paths of electrical pulse signals to reduce the number of electronic channels, to obtain m paths of electrical pulse signals, wherein m is an integer which is greater than or equal to 4 and is less than k, and the electronic system is configured to calculate a deposition position of the γ photon based on the m electrical pulse signals by using a position algorithm.
A compound, namely Compound ( I ), which is: 4-(4-(4-(((3 R ,5 R )-5-((1 H -1,2,4-triazol-1-yl)methyl)-5-(2,4-difluorophenyl)tetrahydrofuran-3-yl)methoxy)-3-methylphenyl)piperazin-1-yl)- N -(4-fluorophenyl)benzamide; or a pharmaceutically acceptable salt thereof.
A method of providing one or more enhanced communication features during a communication, the method comprising: detecting a destination identifier for a communication sent by a first device , the destination identifier being an identifier associated with a second device ; detecting a source identifier for the communication sent by the first device, the source identifier being an identifier associated with the first device; establishing a connection between the first device and the second device; sharing, by the connection, at least one of at least a first call-enhancing element with the first device and at least a second call-enhancing element with the second device, each call-enhancing element being associated with at least one of the source identifier and the destination identifier, wherein: the first call-enhancing element comprises first content data including at least one of first audio content, first visual content, and first interactive content, and the second call-enhancing element comprises second content data different from the first content data, the second content data including at least one of first second content, first second content, and second interactive content; and exchanging, by a separate connection from the connection by which the first call-enhancing element and the second call-enhancing element are shared, communication data between the first device and the second device. detecting a destination identifier for a communication sent by a first device , the destination identifier being an identifier associated with a second device ; detecting a source identifier for the communication sent by the first device, the source identifier being an identifier associated with the first device; establishing a connection between the first device and the second device; sharing, by the connection, at least one of at least a first call-enhancing element with the first device and at least a second call-enhancing element with the second device, each call-enhancing element being associated with at least one of the source identifier and the destination identifier, wherein: the first call-enhancing element comprises first content data including at least one of first audio content, first visual content, and first interactive content, and the second call-enhancing element comprises second content data different from the first content data, the second content data including at least one of first second content, first second content, and second interactive content; and the first call-enhancing element comprises first content data including at least one of first audio content, first visual content, and first interactive content, and the second call-enhancing element comprises second content data different from the first content data, the second content data including at least one of first second content, first second content, and second interactive content; and exchanging, by a separate connection from the connection by which the first call-enhancing element and the second call-enhancing element are shared, communication data between the first device and the second device.
Power tool , comprising: a drive ; and a first drive shaft that is connected to said drive , and having a first engagement that is configured to engage a first type of accessory ; a second drive shaft that is connected to said drive , and having a second engagement that is configured to engage a second type of accessory ; and wherein the drive is configured to drive the first drive shaft and the second drive shaft simultaneously, the first drive shaft and the second drive shaft extend in the same direction relative to the drive ; characterized in that the first drive shaft is an oscillating drive shaft. a drive ; and a first drive shaft that is connected to said drive , and having a first engagement that is configured to engage a first type of accessory ; a second drive shaft that is connected to said drive , and having a second engagement that is configured to engage a second type of accessory ; and wherein the drive is configured to drive the first drive shaft and the second drive shaft simultaneously, the first drive shaft and the second drive shaft extend in the same direction relative to the drive ; characterized in that the first drive shaft is an oscillating drive shaft.
Method for geographic region detection of traffic infrastructure by means of a receive unit disposed in the region of the traffic infrastructure for a detection region of the receive unit, wherein the method comprises the following steps: - Status data of a number of vehicles, which status data in each case includes at least a position of the respective vehicle and if necessary a time at which the position was determined, is communicated by the vehicles several times to the receive unit in the period during which the vehicles are passing through the detection region of the receive unit by means of wireless communication; wherein the method is characterised in that it comprises the following further steps: - The receive unit determines the first position received in the detection region and the last position received in the detection region for each vehicle from the transmitted status data; - The receive unit , or a processing unit connected to the receive unit, computes a vector for each vehicle, wherein the vector extends from the first position of the vehicle received in the detection region to the last position of the vehicle received in the detection region; - From the vectors of all vehicles the receive unit or processing unit determines directions of travel of the vehicles as well as the geographic location of roadways and/or lanes of the roadways of the traffic infrastructure in the detection region . - Status data of a number of vehicles, which status data in each case includes at least a position of the respective vehicle and if necessary a time at which the position was determined, is communicated by the vehicles several times to the receive unit in the period during which the vehicles are passing through the detection region of the receive unit by means of wireless communication; - The receive unit determines the first position received in the detection region and the last position received in the detection region for each vehicle from the transmitted status data; - The receive unit , or a processing unit connected to the receive unit, computes a vector for each vehicle, wherein the vector extends from the first position of the vehicle received in the detection region to the last position of the vehicle received in the detection region; - From the vectors of all vehicles the receive unit or processing unit determines directions of travel of the vehicles as well as the geographic location of roadways and/or lanes of the roadways of the traffic infrastructure in the detection region .
An apparatus, comprising: an open cylindrical rotor having an inner wall and a longitudinal axis of rotation , wherein said inner wall comprises a rotor electrode mounting surface, wherein the distance from said axis of rotation to said mounting surface periodically varies along the length of said axis of rotation; wherein said rotor comprises fibers embedded in an epoxy matrix, where said fibers comprise a material selected from the group consisting of E-glass, S-Glass, basalt fibers and carbon fibers. an open cylindrical rotor having an inner wall and a longitudinal axis of rotation , wherein said inner wall comprises a rotor electrode mounting surface, wherein the distance from said axis of rotation to said mounting surface periodically varies along the length of said axis of rotation; wherein said rotor comprises fibers embedded in an epoxy matrix, where said fibers comprise a material selected from the group consisting of E-glass, S-Glass, basalt fibers and carbon fibers.
A high water oral care composition comprising an orally acceptable carrier, zinc phosphate, stannous fluoride, and an anionic polymer, wherein the amount of the water is 15% - 30% by weight and wherein the zinc phosphate is present in an amount of from 0.05 to 4% by weight, relative to the weight of the oral care composition, wherein the amount of the stannous fluoride is from 0.01% to 5% by weight; and wherein the anionic polymer is a methyl vinyl ether/maleic anhydride or acid copolymer having an average molecular weight (M.W.) of about 30,000 to about 1,000,000.
Container for receiving and dispensing a perfume into a treatment chamber of a domestic appliance such as a tumble dryer, washer dryer, washing machine, dishwasher or the like, comprising an outer housing which can be inserted into the domestic appliance , and an inner container for receiving perfume, the inner container being mountable in the outer housing , the inner container and the outer housing having an at least approximately cylindrical structure and the inner container comprising a perfume dispensing opening in the casing surface , and the inner container and outer housing being movable relative to one another from a closed position into a perfume dispensing position, characterised in that the outer housing is provided for receiving the inner container and for completing said inner container in order to form the container , it being possible to latch the inner container in the outer housing in an axial direction, and the outer housing encompassing the inner container by means of a cylindrical wall and being mounted so as to be rotatable about the inner container in the circumferential direction, and in that , in the wall , a recess is arranged which corresponds with the perfume dispensing opening of the inner container when in the perfume dispensing position and the outer housing is rotatable about the inner container from the closed position into the perfume dispensing position.
Absorbent element for spilled petroleum or its derivatives comprising an oil-absorbent, hydrophobic and oleophilic material, essentially based on polyurethane foam, wherein the polyurethane is a polymer of one or more poly-isocyanates, including a polyisocyanate pre-polymer in which part of any diphenylmethanediisocyanate present is blocked by styrene monomers, acrylics, acrylonitrile or their copolymers, and one or more poly-ols or one or more compounds containing reactive hydrogens, the absorbent element having a specific weight in the range of 15-30 g/l and delimiting open cells and closed cells, the latter being in a percentage equal to or lower than 10% of the total cells; said absorbent element being characterized in that adsorbed at the surface of the open cells, said material comprises poly-pyrrole, graphene, calcium carbonate or mixtures thereof in order to improve the oleophilia of said material.