mhurhangee/patent-ind-claim-en huggingface dataset:
Sewer-cleaning vehicle comprising a suction hose , at least one flushing hose , and a device for guiding the suction hose and the at least one flushing hose on the sewer-cleaning vehicle , said device comprising a boom which is mounted such as to be able to rotate about a vertical axis and on which the suction hose and the flushing hose are guided, and a reel mounted separately from the boom for storing a portion of the flushing hose , wherein the boom is provided with a guide device for the flushing hose between the reel and an end of the boom , and the flushing hose has a section running into the guide device and a section running out from the guide device , wherein the boom is telescopable and, in a transport position, is positioned with an end at the rear of the sever-clearing vehicle , characterized in that the boom with the suction hose and the flusing hose is rotatable around the vertical axis through at least 220° and that a suction hose reel is provided for the suction hose , said suction hose reel being rotatable about the vertical axis , whereby the vertical axis of the suction hose reel and the vertical axis of the boom coincide, and that the guide device for the flushing hose is arranged below or above the suction hose reel .
A method for updating zoning information, the method comprising: receiving a message from an initiator in a fibre channel storage area network; identifying one or more zones (211 - 217) including the initiator, the one or more zones (211 - 217) identified using zoning information associated with a fibre channel switch, wherein the one or more zones (211 - 217) indicate one or more fibre channel storage area network devices that the initiator is allowed to access; detecting a fibre channel storage area network event by snooping messages transmitted between initiators and a particular fibre channel storage area network device, wherein the fibre channel storage area network event is an arbitration process used to determine which of the initiators is allowed access to the particular fibre channel storage area network device; determining which of the initiators is selected by the arbitration process; automatically assigning the selected initiator to a zone with the particular fibre channel storage area network device and excluding the other initiator from the zone with the particular fibre channel storage area network device; updating zoning information associated with the fibre channel switch; and propagating an updated zone through the fibre channel storage area network to control access to one or more fibre channel storage area network devices within the updated zone. receiving a message from an initiator in a fibre channel storage area network; identifying one or more zones (211 - 217) including the initiator, the one or more zones (211 - 217) identified using zoning information associated with a fibre channel switch, wherein the one or more zones (211 - 217) indicate one or more fibre channel storage area network devices that the initiator is allowed to access; detecting a fibre channel storage area network event by snooping messages transmitted between initiators and a particular fibre channel storage area network device, wherein the fibre channel storage area network event is an arbitration process used to determine which of the initiators is allowed access to the particular fibre channel storage area network device; determining which of the initiators is selected by the arbitration process; automatically assigning the selected initiator to a zone with the particular fibre channel storage area network device and excluding the other initiator from the zone with the particular fibre channel storage area network device; updating zoning information associated with the fibre channel switch; and propagating an updated zone through the fibre channel storage area network to control access to one or more fibre channel storage area network devices within the updated zone.
A resource selection method, performed by a terminal device , the method comprising: receiving first system information from a network device ; wherein the first system information comprises resource evaluation information of first Physical Random Access Channel, PRACH, access resources; each of the first PRACH access resources comprises at least one of dedicated PRACH access resource or common PRACH access resource, and the resource evaluation information of the first PRACH access resource comprises at least one of a minimum threshold value Qrxlevmin for receiving a cell signal or a minimum quality value Qqualmin; receiving second system information from the network device ; wherein the second system information is different from the first system information and comprises auxiliary information of the first PRACH access resources, the auxiliary information is used by the terminal device to perform resource selection and comprises at least one of a first offset value or a second offset value; determining a second PRACH access resource from the first PRACH access resources according to the auxiliary information of the first PRACH access resources and the resource evaluation information of the first PRACH access resources, wherein the second PRACH access resource is used by the terminal device to perform handover. receiving first system information from a network device ; wherein the first system information comprises resource evaluation information of first Physical Random Access Channel, PRACH, access resources; each of the first PRACH access resources comprises at least one of dedicated PRACH access resource or common PRACH access resource, and the resource evaluation information of the first PRACH access resource comprises at least one of a minimum threshold value Qrxlevmin for receiving a cell signal or a minimum quality value Qqualmin; receiving second system information from the network device ; wherein the second system information is different from the first system information and comprises auxiliary information of the first PRACH access resources, the auxiliary information is used by the terminal device to perform resource selection and comprises at least one of a first offset value or a second offset value; determining a second PRACH access resource from the first PRACH access resources according to the auxiliary information of the first PRACH access resources and the resource evaluation information of the first PRACH access resources, wherein the second PRACH access resource is used by the terminal device to perform handover.
A microscopy optoelectronic device with focus scanning, in particular for reconstructing a three-dimensional model of a sample, which comprises a portable device body , provided with a casing and a frame thereto said casing is connected, the frame supporting : • a digital optical sensor ; • an optical group , coupled to said sensor comprising an objective lens directed towards a distal end of the optoelectronic device body , apt to be faced to said sample; • motor means for translating said optical group and said sensor with respect to said frame ; • means for connecting the optoelectronic device body to an energy source and to a device for controlling the position of the optical group and for transmitting the digitalized images to a processor for reconstructing a three-dimensional model of the sample; and • means for providing a diffused lighting at the objective lens , arranged so as to surround a front region with respect to the objective lens and comprising a luminescent and diffusing surface obtained from a shaped sheet so that it has a tubular portion coaxial to the optical group , and • wherein said luminescent and diffusing surface is constituted by a sheet of electroluminescent material of polymeric type, fed by alternated electric current. • a digital optical sensor ; • an optical group , coupled to said sensor comprising an objective lens directed towards a distal end of the optoelectronic device body , apt to be faced to said sample; • motor means for translating said optical group and said sensor with respect to said frame ; • means for connecting the optoelectronic device body to an energy source and to a device for controlling the position of the optical group and for transmitting the digitalized images to a processor for reconstructing a three-dimensional model of the sample; and • means for providing a diffused lighting at the objective lens , arranged so as to surround a front region with respect to the objective lens and comprising a luminescent and diffusing surface obtained from a shaped sheet so that it has a tubular portion coaxial to the optical group , and • wherein said luminescent and diffusing surface is constituted by a sheet of electroluminescent material of polymeric type, fed by alternated electric current.
Detection device for an active glare protection device , with a detection unit that is configured for a direct or indirect detection of at least one welding parameter (A) of a welding apparatus , and with at least one communication unit that is configured for a transmission of at least one information of the at least one welding parameter (A) to the active glare protection device , wherein the communication unit is configured to transmit the at least one information of the at least one welding parameter (A) to the active glare protection device as a bit sequence having a defined length, wherein the at least one communication unit is configured for an unidirectional transmission of at least one information of the at least one welding parameter (A) to the active glare protection device , wherein the transmission of the at least one information of the at least one welding parameter (A) to the active glare protection device is effected in a streaming procedure, wherein the detection unit is configured for a direct or indirect detection of at least two switch states of the welding apparatus , wherein the at least one communication unit is configured to transmit the two switch states of the welding apparatus directly to the active glare protection device as bit sequences which are inverse to one another.
Use of a composition for rendering a keratin fiber water-repellant, said composition comprising: (a) a first hydrophobic particulate material comprising a hydrophobically surface-modified oxide selected from aluminum oxide, silicon dioxide, titanium dioxide, tin oxide, zinc oxide, zirconium dioxide, or a combination thereof, said first hydrophobic particulate material having a coefficient of dynamic friction of 0.5 or greater; (b) a second hydrophobic particulate material comprising substantially spherical particles of a polymer selected from the group consisting of polyethylene, polypropylene, polytetrafluoroethylene (PTFE), polyvinylchloride (PVC), polyvinylidenefluoride (PVDF), polyamide-imide, polymethylmethacrylate (PMMA), polyetheretherketone (PEEK), polyethylene terephthalate polyester (PETP), polystyrene, polydimethylsiloxanes, polymethylsilsesquioxane, polyamide powder, Vinyl Dimethicone/Methicone Silsesquioxane Crosspolymer, silicone elastomer, Polysilicones, and combinations thereof, said second hydrophobic particulate material having a coefficient of dynamic friction less than 0.5; and (c) from 90 to 99.8% by weight of a volatile solvent; said first and second hydrophobic particulate materials collectively comprising from about 0.01% to about 10% by weight, based on the entire weight of the composition; and wherein the weight ratio of said first hydrophobic particulate material to said second hydrophobic particulate material is from about 1:10 to about 10:1; and wherein the aggregate weight percentage of all non-volatile liquid constituents in said composition is less than 10%, based on the entire weight of the composition. (a) a first hydrophobic particulate material comprising a hydrophobically surface-modified oxide selected from aluminum oxide, silicon dioxide, titanium dioxide, tin oxide, zinc oxide, zirconium dioxide, or a combination thereof, said first hydrophobic particulate material having a coefficient of dynamic friction of 0.5 or greater; (b) a second hydrophobic particulate material comprising substantially spherical particles of a polymer selected from the group consisting of polyethylene, polypropylene, polytetrafluoroethylene (PTFE), polyvinylchloride (PVC), polyvinylidenefluoride (PVDF), polyamide-imide, polymethylmethacrylate (PMMA), polyetheretherketone (PEEK), polyethylene terephthalate polyester (PETP), polystyrene, polydimethylsiloxanes, polymethylsilsesquioxane, polyamide powder, Vinyl Dimethicone/Methicone Silsesquioxane Crosspolymer, silicone elastomer, Polysilicones, and combinations thereof, said second hydrophobic particulate material having a coefficient of dynamic friction less than 0.5; and (c) from 90 to 99.8% by weight of a volatile solvent;
A method of wireless communication performed by a base station , comprising: configuring a carrier (300-c, 300-d, 300-e) with a first region (380-a, 380-b, 380-c) having a first symbol duration and a second region (385-a, 385-b, 385-c) having a second symbol duration different from the first symbol duration, wherein the first and second regions are time division multiplexed, TDM, or frequency-division multiplexed, FDM, wherein the first region (380-a, 380-b, 380-c) includes a control channel and a shared channel, and the second region (385-a, 385-b, 385-c) includes a control channel and a shared channel, wherein the second region (385-a, 385-b, 385-c) includes both downlink symbols and uplink symbols, and wherein the second symbol duration is configurable; and communicating with a user equipment, UE, by the base station using the first region (380-a, 380-b, 380-c) or the second region (385-a, 385-b, 385-c) of the carrier (300-c, 300-d, 300-e). configuring a carrier (300-c, 300-d, 300-e) with a first region (380-a, 380-b, 380-c) having a first symbol duration and a second region (385-a, 385-b, 385-c) having a second symbol duration different from the first symbol duration, wherein the first and second regions are time division multiplexed, TDM, or frequency-division multiplexed, FDM, wherein the first region (380-a, 380-b, 380-c) includes a control channel and a shared channel, and the second region (385-a, 385-b, 385-c) includes a control channel and a shared channel, wherein the second region (385-a, 385-b, 385-c) includes both downlink symbols and uplink symbols, and wherein the second symbol duration is configurable; and communicating with a user equipment, UE, by the base station using the first region (380-a, 380-b, 380-c) or the second region (385-a, 385-b, 385-c) of the carrier (300-c, 300-d, 300-e).
A compound of formula (IC): wherein: R 5 and R 6 are each, independently, halo, hydroxyl, (C 1 -C 6 ) alkyl, trihalo (C 1 ) alkyl, cyano or (C 1 -C 6 ) alkoxy; R 8 is (C 1 -C 6 ) alkyl, optionally substituted with a hydroxyl; n is 1 or 2; or a pharmaceutically acceptable salt or hydrate or solvate thereof. R 5 and R 6 are each, independently, halo, hydroxyl, (C 1 -C 6 ) alkyl, trihalo (C 1 ) alkyl, cyano or (C 1 -C 6 ) alkoxy; R 8 is (C 1 -C 6 ) alkyl, optionally substituted with a hydroxyl; n is 1 or 2; or a pharmaceutically acceptable salt or hydrate or solvate thereof.
A key negotiation processing method, comprising: acquiring, by a control network element, MME, a first key negotiation parameter (p1) from a first user equipment UE1 (S202) and a third key negotiation parameter (p3) from a second user equipment UE2, (S205) and calculating a second key negotiation parameter (p2) according to the first key negotiation parameter (p1) and a shared key between the UE1 and the MME (S203), calculating a fourth key negotiation parameter (p4) according to the third key negotiation parameter (p3) and a shared key between the UE2 and the MME (S206); and sending, by the control network element, the second key negotiation parameter (p2) to the UE2 (S204) and the fourth key negotiation parameter (p4) to the UE1 (S207), so that the UE1 and the UE2 generate a key for the communication between the UE1 and the UE2 (S210, S211) acquiring, by a control network element, MME, a first key negotiation parameter (p1) from a first user equipment UE1 (S202) and a third key negotiation parameter (p3) from a second user equipment UE2, (S205) and calculating a second key negotiation parameter (p2) according to the first key negotiation parameter (p1) and a shared key between the UE1 and the MME (S203), calculating a fourth key negotiation parameter (p4) according to the third key negotiation parameter (p3) and a shared key between the UE2 and the MME (S206); and sending, by the control network element, the second key negotiation parameter (p2) to the UE2 (S204) and the fourth key negotiation parameter (p4) to the UE1 (S207), so that the UE1 and the UE2 generate a key for the communication between the UE1 and the UE2 (S210, S211)
A razor connecting member comprising: at least one finger having an angled profile having a plurality of chamfers , characterized in that a first chamfer has an angle extending from a side surface to a top surface of the finger; a second chamfer has an angle from side surface taken to the top surface of the finger ; and the first chamfer angle is smaller than the second chamfer angle .
A decoupling mat for a floor covering construction with a web- or plate-like compensating element , having shapings projecting in a first direction starting from a supporting plane, arranged regularly and spaced apart from each other, which form a level contact surface spaced apart from the supporting plane and between which channels , which are open in the first direction, run, each channel extending along multiple shapings from a first side edge of the compensating element to a second side edge of the compensating element , wherein each channel consists of multiple merging channel sections , the respective end regions of which can be connected by a section line running within the channel section in a straight line parallel to the supporting plane, wherein each channel has at least two channel sections , the section lines of which are oriented at an angle to each other such that the channel does not form any straight lines of weakness extending over the course of the channel, and wherein a covering layer composed of a fleece is affixed to the compensating element so as to cover the channels , characterised in that at least some shapings have a non-convex surface shape, wherein in the case of a non-convex surface shape at least two points exist within the non-convex surface shape, the straight connecting line between said points running outside the surface shape at least in part.
A method comprising: receiving, by a security manager SM core of an integrated circuit, a digitally signed command, wherein the command is associated with an encrypted payload; obtaining, by the security manager SM core, a public key from a secure memory of the integrated circuit; verifying, by the security manager SM core, a signature associated with the command using the public key, and executing, by the security manager SM core, the command to configure operation of the integrated circuit, wherein executing the command comprises updating a state of a feature of a plurality of features of the integrated circuit, wherein updating the state of the feature causes configuring the feature, and wherein the method further comprises: deriving, by the security manager SM core, a mixed key using a base key accessible manager SM core; to the security deriving, by the security manager SM core, a transport key using the mixed key; decrypting, by the security manager SM core, the encrypted payload using the transport key; delivering, by the security manager SM core, the decrypted payload to the feature. receiving, by a security manager SM core of an integrated circuit, a digitally signed command, wherein the command is associated with an encrypted payload; obtaining, by the security manager SM core, a public key from a secure memory of the integrated circuit; verifying, by the security manager SM core, a signature associated with the command using the public key, and executing, by the security manager SM core, the command to configure operation of the integrated circuit, wherein executing the command comprises updating a state of a feature of a plurality of features of the integrated circuit, wherein updating the state of the feature causes configuring the feature, executing the command comprises updating a state of a feature of a plurality of features of the integrated circuit, wherein updating the state of the feature causes configuring the feature, and wherein the method further comprises: deriving, by the security manager SM core, a mixed key using a base key accessible manager SM core; to the security deriving, by the security manager SM core, a transport key using the mixed key; decrypting, by the security manager SM core, the encrypted payload using the transport key; delivering, by the security manager SM core, the decrypted payload to the feature. deriving, by the security manager SM core, a mixed key using a base key accessible manager SM core; to the security deriving, by the security manager SM core, a transport key using the mixed key; decrypting, by the security manager SM core, the encrypted payload using the transport key; delivering, by the security manager SM core, the decrypted payload to the feature.
Multi-level furnace for the thermal treatment of a material flow in at least two process chambers comprising a. the at least two process chambers (1-4) arranged one above another, each having at least two floors (5-11) for the levels, and b. one or more transfer devices (21-24) for transferring the treated material flow from an upper process chamber to a lower process chamber , the two process chambers being separated gastightly from one another, characterized in that the transfer device (21-24) has means for forming a column of material in the transitional region between the upper and the lower process space , wherein the gastight separation of the two process chambers is formed by means of the column of material and wherein the means for forming a column of material comprise at least one delivery unit (21.1) or at least one chute (24.1) or a slide and the at least one delivery unit (21.1) or the at least one chute (24.1) or the slide at the same time forms a material output device for the upper process chamber for discharging at least part of the material flow from the multi-level furnace. a. the at least two process chambers (1-4) arranged one above another, each having at least two floors (5-11) for the levels, and b. one or more transfer devices (21-24) for transferring the treated material flow from an upper process chamber to a lower process chamber , the two process chambers being separated gastightly from one another,