mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a luminaire , wherein - the luminaire is arranged in an interior space of a rail vehicle and illuminates a region of the interior space during operation, - the rail vehicle comprises a window via which it is possible to look into the interior space from outside the rail vehicle, - the interior space has a ceiling , - a passenger occupancy rate of the interior space is ascertained and - the luminaire is operated depending on the ascertained occupancy rate, wherein the light emitted by the luminaire is representative of the occupancy rate of the interior space , characterized in that - the light emitted by the luminaire during operation exits from the rail vehicle in part via the window and is visible from outside the rail vehicle and - the luminaire is directed towards the ceiling in such a way that the light emitted by the luminaire is reflected at the ceiling and then exits from the rail vehicle via the window . - the luminaire is arranged in an interior space of a rail vehicle and illuminates a region of the interior space during operation, - the rail vehicle comprises a window via which it is possible to look into the interior space from outside the rail vehicle, - the interior space has a ceiling , - a passenger occupancy rate of the interior space is ascertained and - the luminaire is operated depending on the ascertained occupancy rate, wherein the light emitted by the luminaire is representative of the occupancy rate of the interior space , characterized in that - the light emitted by the luminaire during operation exits from the rail vehicle in part via the window and is visible from outside the rail vehicle and - the luminaire is directed towards the ceiling in such a way that the light emitted by the luminaire is reflected at the ceiling and then exits from the rail vehicle via the window .
A wireless communications system comprising: a plurality of wireless communications devices, WCDs (31-33); a source WCD from among said plurality of WCDs being configured to designate message data for at least one target WCD from among said plurality of WCDs, the message data having a security restriction associated therewith; a plurality of intermediary WCDs from among said plurality of WCDs, the plurality of intermediary WCDs being configured to wirelessly receive the message data from said source WCD when in proximity thereto and with restricted access to the message data based upon the security restriction; said at least one target WCD being configured to wirelessly receive the message data from said plurality of intermediary WCDs when in proximity thereto and with less access restriction to the message data than said plurality of intermediary WCDs; and characterised in that said source WCD is configured to distribute different portions of the message data among the plurality of intermediary WCDs for delivery to said at least one target WCD and to associate a delivery time period with the message data; and wherein said plurality of intermediary WCDs is configured to prohibit delivery of the message data to said at least one target WCD outside of the delivery time period. a plurality of wireless communications devices, WCDs (31-33); a source WCD from among said plurality of WCDs being configured to designate message data for at least one target WCD from among said plurality of WCDs, the message data having a security restriction associated therewith; a plurality of intermediary WCDs from among said plurality of WCDs, the plurality of intermediary WCDs being configured to wirelessly receive the message data from said source WCD when in proximity thereto and with restricted access to the message data based upon the security restriction; said at least one target WCD being configured to wirelessly receive the message data from said plurality of intermediary WCDs when in proximity thereto and with less access restriction to the message data than said plurality of intermediary WCDs; and characterised in that said source WCD is configured to distribute different portions of the message data among the plurality of intermediary WCDs for delivery to said at least one target WCD and to associate a delivery time period with the message data; and wherein said plurality of intermediary WCDs is configured to prohibit delivery of the message data to said at least one target WCD outside of the delivery time period.
A vehicle battery and insulative cover assembly, comprising; a flexible, tubular textile wall having a cavity extending between a bottom end and an open top end of said wall ; a flexible textile lid having a free end and an opposite end attached to said wall via a hinge , said lid being pivotal via said hinge between an open position, exposing said open top end of said wall , and a closed position, substantially closing off said top end ; characterized by a pair of elongate fastener members ; an elongate clamp bracket having openings configured for receipt of said fastener members therethrough; and a fastener fixed to said lid adjacent said free end , said fastener being configured for releasable attachment to one of said elongate fastener members . a flexible, tubular textile wall having a cavity extending between a bottom end and an open top end of said wall ; a flexible textile lid having a free end and an opposite end attached to said wall via a hinge , said lid being pivotal via said hinge between an open position, exposing said open top end of said wall , and a closed position, substantially closing off said top end ; characterized by a pair of elongate fastener members ; an elongate clamp bracket having openings configured for receipt of said fastener members therethrough; and a fastener fixed to said lid adjacent said free end , said fastener being configured for releasable attachment to one of said elongate fastener members .
Household appliance having at least one cooking hob device, which comprises at least one heatsink unit and at least one fan unit , wherein the heatsink unit encloses at least part of the fan unit , wherein the heatsink unit comprises at least two heatsinks , wherein it is intended for air flows to flow through the heatsinks , wherein the heatsinks are arranged within close range of one another and are separated from one another by distances that are less than 2 cm, and wherein at least 20% of the fan unit lies inside smallest notional convex envelopes, each of which encompasses exactly one of the heatsinks , characterised in that the fan unit comprises at least one radial fan, which is an electromechanical fan having at least one blade wheel, which is intended to draw in a fluid from at least one direction that is oriented at least substantially parallel to an axis of rotation of the fan wheel, and to blow out this fluid in at least one direction that lies orthogonal to an axis oriented at least substantially parallel to the axis of rotation.
A method for controlling an air condition arrangement of a vehicle, the air condition arrangement comprising a heat pump system having a compressor , a condenser and an evaporator , the method comprising directing a flow of air heated by the condenser by work from the compressor to the evaporator , wherein the air condition arrangement comprising an air distribution unit arranged in the vehicle for providing air to a vehicle compartment of the vehicle, and a condenser fan duct providing air from outside the vehicle to the air distribution unit , which air passes the condenser arranged in the condenser fan duct before reaching the air distribution unit, and an evaporator fan duct providing air from outside the vehicle to the air distribution unit , which air passes the evaporator arranged in the evaporator fan duct before reaching the air distribution unit, characterized by redirecting an air flow from the condenser fan duct incoming to the air distribution unit , to the evaporator fan duct such that the air from the condenser fan duct will flow in the evaporator fan duct in a reversed direction from the air distribution unit to the outside of the vehicle.
A diol compound represented by the following Chemical Formula 1: in Chemical Formula 1, X is -O- or -S-, R is C 6-60 arylene unsubstituted or substituted with C 1-10 alkyl, and n is an integer of 1 to 100. X is -O- or -S-, R is C 6-60 arylene unsubstituted or substituted with C 1-10 alkyl, and n is an integer of 1 to 100.
A sampling assembly configured to be coupled to a sample source , wherein the sampling assembly is configured to facilitate aseptic sampling at one or more instances in time, comprising: a first conduit comprising a first port and a second port , wherein the first port is configured to be coupled to the sample source , and wherein the second port is configured to be hermetically sealed; a plurality of sub-conduits having corresponding sub-ports , wherein each of the plurality of sub-conduits is operatively coupled to the first conduit at respective connector junctions , and wherein each of the sub-ports is in fluidic communication with the first conduit ; and a plurality of sampling kits , wherein each sampling kit of the plurality of sampling kits is operatively connected to a respective sub-port of a corresponding sub-conduit , the assembly being characterized in that one or more of the sampling kits includes a syringe operatively coupled to a rigid sampling container and an air filter between the syringe and the container configured to prevent impurities entering a respective sub-conduit , and wherein said syringe is operable to provide a negative pressure in a sampling kit of the plurality of sampling kits to enable a flow of a portion of a sample from the sample source and a corresponding sub-conduit into the sampling kit . a first conduit comprising a first port and a second port , wherein the first port is configured to be coupled to the sample source , and wherein the second port is configured to be hermetically sealed; a plurality of sub-conduits having corresponding sub-ports , wherein each of the plurality of sub-conduits is operatively coupled to the first conduit at respective connector junctions , and wherein each of the sub-ports is in fluidic communication with the first conduit ; and a plurality of sampling kits , wherein each sampling kit of the plurality of sampling kits is operatively connected to a respective sub-port of a corresponding sub-conduit , the assembly being characterized in that one or more of the sampling kits includes a syringe operatively coupled to a rigid sampling container and an air filter between the syringe and the container configured to prevent impurities entering a respective sub-conduit , and wherein said syringe is operable to provide a negative pressure in a sampling kit of the plurality of sampling kits to enable a flow of a portion of a sample from the sample source and a corresponding sub-conduit into the sampling kit .
An assembly comprising: a first mold component defining a first portion of a mold cavity and a first slot (122, e.g., 122A) in a first surface of the first mold component, the first slot in the first surface of the first mold component corresponding to a first portion of a first retention channel ; a second mold component defining a second portion of the mold cavity and a first slot in a first surface of the second mold component, the first slot in the first surface of the second mold component corresponding to a second portion of the first retention channel; and a first connector having a cross-sectional shape corresponding to a cross-sectional shape of the first retention channel which allows the first connector to slide into the first retention channel when the mold components and the first connector are at room temperature, the first connector comprising a first material having first thermal expansion characteristics, the first thermal expansion characteristics different from thermal expansion characteristics of materials of the first and second mold components such that when the first connector is inserted into the first retention channel, heating the first mold component, the second mold component, and the first connector causes differential thermal expansion resulting in a clamping force between the first mold component and the second mold component, the assembly being deprived of any threads or other connection mechanisms between the first connector and the first retention channel. a first mold component defining a first portion of a mold cavity and a first slot (122, e.g., 122A) in a first surface of the first mold component, the first slot in the first surface of the first mold component corresponding to a first portion of a first retention channel ; a second mold component defining a second portion of the mold cavity and a first slot in a first surface of the second mold component, the first slot in the first surface of the second mold component corresponding to a second portion of the first retention channel; and a first connector having a cross-sectional shape corresponding to a cross-sectional shape of the first retention channel which allows the first connector to slide into the first retention channel when the mold components and the first connector are at room temperature, the first connector comprising a first material having first thermal expansion characteristics, the first thermal expansion characteristics different from thermal expansion characteristics of materials of the first and second mold components such that when the first connector is inserted into the first retention channel, heating the first mold component, the second mold component, and the first connector causes differential thermal expansion resulting in a clamping force between the first mold component and the second mold component, the assembly being deprived of any threads or other connection mechanisms between the first connector and the first retention channel.
A pneumatic tire, comprising a tire component formed from a tire rubber composition, the tire rubber composition comprising: at least one rubber component; at least one silica; and at least one compound represented by the following formula (I): wherein R 1 represents a hydrocarbon group; and R 2 and R 3 are the same or different and each represent a hydrogen atom, a hydrocarbon group, or a -(AO) n -H group where n represents an integer of 1 or larger, n for R 2 and n for R 3 may be the same as or different from each other, and each AO is the same or different and represents an oxyalkylene group having 2 or more carbon atoms, and at least one of R 2 or R 3 is a -(AO) n -H group, the tire rubber composition having an acetone extractable content of lower than 16.0% by mass, when measured from a vulcanized rubber composition in accordance with JIS K 6229:2015. at least one rubber component; at least one silica; and at least one compound represented by the following formula (I): wherein R 1 represents a hydrocarbon group; and R 2 and R 3 are the same or different and each represent a hydrogen atom, a hydrocarbon group, or a -(AO) n -H group where n represents an integer of 1 or larger, n for R 2 and n for R 3 may be the same as or different from each other, and each AO is the same or different and represents an oxyalkylene group having 2 or more carbon atoms, and at least one of R 2 or R 3 is a -(AO) n -H group, the tire rubber composition having an acetone extractable content of lower than 16.0% by mass, when measured from a vulcanized rubber composition in accordance with JIS K 6229:2015.
A microfluidic vaporizer comprising: a substrate that is substantially chip shaped; a reservoir formed in the substrate and configured to hold a liquid; a heater positioned in or on the substrate and adapted to vaporize the liquid; and a plurality of capillary channels formed in or on the substrate and configured for movement of the liquid from the reservoir to the heater. a substrate that is substantially chip shaped; a reservoir formed in the substrate and configured to hold a liquid; a heater positioned in or on the substrate and adapted to vaporize the liquid; and a plurality of capillary channels formed in or on the substrate and configured for movement of the liquid from the reservoir to the heater.
A flywheel module to be used in a vehicle provided with a driving source and a transmission , comprising: - a coupling unit comprising: - an input shaft which can be coupled to the driving source , and - an output shaft which can be coupled to the transmission , and comprising a first coupling which is present between the input shaft and the output shaft and which comprises: - a first coupling half connected to the input shaft , and - a second coupling half connected to the output shaft , as well as - a flywheel unit having an in/output and including: i) a flywheel , and ii) a reduction gear unit having an input which is connected to the flywheel and an output which is connected to the in/output of the flywheel unit , and comprising: a) a reduction gearing as well as b) a coupling device which is connected to the reduction gearing , characterized in that the flywheel unit is connected with its in/output to the coupling unit , this in/output being connected via a node to the second coupling half of the first coupling and/or to the output shaft , wherein the flywheel module further includes a hydraulic pump which is connected to the node . - a coupling unit comprising: - an input shaft which can be coupled to the driving source , and - an output shaft which can be coupled to the transmission , and comprising a first coupling which is present between the input shaft and the output shaft and which comprises: - a first coupling half connected to the input shaft , and - a second coupling half connected to the output shaft , as well as - an input shaft which can be coupled to the driving source , and - an output shaft which can be coupled to the transmission , and comprising a first coupling which is present between the input shaft and the output shaft and which comprises: - a first coupling half connected to the input shaft , and - a second coupling half connected to the output shaft , as well as - a first coupling half connected to the input shaft , and - a second coupling half connected to the output shaft , as well as - a flywheel unit having an in/output and including: i) a flywheel , and ii) a reduction gear unit having an input which is connected to the flywheel and an output which is connected to the in/output of the flywheel unit , and comprising: a) a reduction gearing as well as b) a coupling device which is connected to the reduction gearing , i) a flywheel , and ii) a reduction gear unit having an input which is connected to the flywheel and an output which is connected to the in/output of the flywheel unit , and comprising: a) a reduction gearing as well as b) a coupling device which is connected to the reduction gearing , a) a reduction gearing as well as b) a coupling device which is connected to the reduction gearing ,
A method of improving channel utilization in a time slotted channel access structure in a network , the time slotted channel access structure comprising at least one access phase and the network comprising at least one hub for connecting nodes and forming a network segment, the nodes having means for sensing an ongoing transmission in the network , the method comprising: - defining a user priority for an outstanding packet in a node ; - based on the user priority defining a priority for the node ; - dividing the access phase into number of access slots; - sensing in the beginning of the access phase if a transmission from the highest priority node exist; - if no transmission is sensed a node with a lower user priority may initiate transmission. - defining a user priority for an outstanding packet in a node ; - based on the user priority defining a priority for the node ; - dividing the access phase into number of access slots; - sensing in the beginning of the access phase if a transmission from the highest priority node exist; - if no transmission is sensed a node with a lower user priority may initiate transmission.
A method for transmitting data in a random access process performed by a communications apparatus, the method comprising: • sending a message 1 of the random access process to a network device, wherein the message 1 is carried on a first resource, wherein the sending of the message 1 on the first resource is used to indicate that uplink data are sent to the network device in a message 3 ; • receiving a message 2 of the random access process from the network device, wherein the message 2 comprises uplink grant information, the uplink grant information comprises first indication information, wherein the first indication information is used to indicate a largest transport block size, TBS, allowed for the message 3 of the random access process ; • when a coverage level corresponding to the message 1 belongs to a coverage level set indicated by the network device: ∘ determining a target TBS in candidate TBSs based on the allowed largest TBS, wherein the target TBS is less than or equal to the allowed largest TBS , and ∘ sending the message 3 by using the target TBS to the network device, wherein the message 3 comprises the uplink data , • when the coverage level corresponding to the message 1 does not belong to the coverage level set indicated by the network device: ∘ sending the message 3 to the network device based on the allowed largest TBS indicated by the first indication information. • sending a message 1 of the random access process to a network device, wherein the message 1 is carried on a first resource, wherein the sending of the message 1 on the first resource is used to indicate that uplink data are sent to the network device in a message 3 ; • receiving a message 2 of the random access process from the network device, wherein the message 2 comprises uplink grant information, the uplink grant information comprises first indication information, wherein the first indication information is used to indicate a largest transport block size, TBS, allowed for the message 3 of the random access process ; • when a coverage level corresponding to the message 1 belongs to a coverage level set indicated by the network device: ∘ determining a target TBS in candidate TBSs based on the allowed largest TBS, wherein the target TBS is less than or equal to the allowed largest TBS , and ∘ sending the message 3 by using the target TBS to the network device, wherein the message 3 comprises the uplink data , ∘ determining a target TBS in candidate TBSs based on the allowed largest TBS, wherein the target TBS is less than or equal to the allowed largest TBS , and ∘ sending the message 3 by using the target TBS to the network device, wherein the message 3 comprises the uplink data , • when the coverage level corresponding to the message 1 does not belong to the coverage level set indicated by the network device: ∘ sending the message 3 to the network device based on the allowed largest TBS indicated by the first indication information. ∘ sending the message 3 to the network device based on the allowed largest TBS indicated by the first indication information.