mhurhangee/patent-ind-claim-en huggingface dataset:
A throwing object comprising a hollow front element and a hollow tail element attached to the front element , wherein the front element comprises a first and a second section , each section being cylinder shaped, where the first section has a larger radius than the second section and is folded over the second section at an edge between the sections, the first section having a first thickness T1 and stretching a first distance d1 in an axial direction away from the edge and the second section having a second thickness T2 at the edge and the tail element being inserted and held between the first and second sections, characterised in that the throwing object further comprises a third section joined to the second section , wherein the third section has a third thickness T3 that is essentially the same as the first thickness and stretches a third distance d3 away from the second section in the axial direction.
A topology switching method based on an isochronous channel applied to a first central slave device, wherein there are a plurality of first isochronous channels between the first central slave device and a master device, and there is a first communication channel between the first central slave device and a peripheral slave device; wherein the method comprises: sending (S101), by the first central slave device, first isochronization information to the peripheral slave device through the first communication channel between the first central slave device and the peripheral slave device, wherein the first isochronization information comprises a channel parameter of a first isochronous channel, so that the peripheral slave device starts (S104) data transmission with the master device according to the channel parameter of the first isochronous channel; stopping (S103), by the first central slave device, data transmission with the master device through the first isochronous channel, before the peripheral slave device starts the data transmission with the master device according to the channel parameter of the first isochronous channel. sending (S101), by the first central slave device, first isochronization information to the peripheral slave device through the first communication channel between the first central slave device and the peripheral slave device, wherein the first isochronization information comprises a channel parameter of a first isochronous channel, so that the peripheral slave device starts (S104) data transmission with the master device according to the channel parameter of the first isochronous channel; stopping (S103), by the first central slave device, data transmission with the master device through the first isochronous channel, before the peripheral slave device starts the data transmission with the master device according to the channel parameter of the first isochronous channel.
A security device comprising: an anticounterfeit structure including a metallic layer with a plurality of slits , the slits forming a plurality of rings, each of the slits including one end facing another end of the slit with a gap interposed therebetween, the anticounterfeit structure having a transmittance peak resulting from resonance in the metallic layer ; and an adhesive layer provided on one main surface of the anticounterfeit structure , characterized in that the adhesive layer includes a first portion in contact with a partial region of the main surface and a second portion in contact with another partial region of the main surface, the first portion is configured to achieve a lower adhesive strength to the anticounterfeit structure than that achieved by the second portion , and one of the first portion and the second portion is located at a portion of the metallic layer which is surrounded by each of the rings formed by the slits . an anticounterfeit structure including a metallic layer with a plurality of slits , the slits forming a plurality of rings, each of the slits including one end facing another end of the slit with a gap interposed therebetween, the anticounterfeit structure having a transmittance peak resulting from resonance in the metallic layer ; and an adhesive layer provided on one main surface of the anticounterfeit structure , characterized in that the adhesive layer includes a first portion in contact with a partial region of the main surface and a second portion in contact with another partial region of the main surface, the first portion is configured to achieve a lower adhesive strength to the anticounterfeit structure than that achieved by the second portion , and one of the first portion and the second portion is located at a portion of the metallic layer which is surrounded by each of the rings formed by the slits .
Radio node for a wireless communication network, the radio node being adapted for transmitting data, based on a Listen-Before-Talk, LBT, procedure, on a plurality of carriers, characterized in that , the data is transmitted on the plurality of carriers when and/or after reaching a wait time, wherein the wait time is determined based on one or more operational conditions and/or parameters, wherein the wait time indicates a point in time, up to which one or more carriers of the plurality of carriers with completed backoff procedure will wait, before transmission of the data.
A method of wireless communication implemented by a vehicle in a vehicular network, comprising: receiving a first data packet determining a first distance between the vehicle and a destination of the first data packet; determining a second distance between a source of the first data packet and the destination of the first data packet; characterized by determining a first ratio between the first distance and the second distance; and deleting the first data packet based at least in part on whether the first ratio exceeds a threshold ratio value. receiving a first data packet determining a first distance between the vehicle and a destination of the first data packet; determining a second distance between a source of the first data packet and the destination of the first data packet; characterized by determining a first ratio between the first distance and the second distance; and deleting the first data packet based at least in part on whether the first ratio exceeds a threshold ratio value.
A method for building a multiparametric model, comprising: measuring seismic, gravity and electromagnetic data relating to a geologic subsurface, characterized in that the method comprises the steps of: performing simultaneous joint inversion of the seismic, gravity and electromagnetic data to produce the multiparametric model; wherein the method further comprises: comparing the multiparametric model with one or more quality requirements, and when the multiparametric model does not meet one or more quality requirements: choosing a modified set of joint inversion parameters; and performing a second iteration of simultaneous joint inversion of the seismic, gravity and electromagnetic data based on the modified set of joint inversion parameters to update the multiparametric model. performing simultaneous joint inversion of the seismic, gravity and electromagnetic data to produce the multiparametric model; wherein the method further comprises: comparing the multiparametric model with one or more quality requirements, and when the multiparametric model does not meet one or more quality requirements: choosing a modified set of joint inversion parameters; and performing a second iteration of simultaneous joint inversion of the seismic, gravity and electromagnetic data based on the modified set of joint inversion parameters to update the multiparametric model. choosing a modified set of joint inversion parameters; and performing a second iteration of simultaneous joint inversion of the seismic, gravity and electromagnetic data based on the modified set of joint inversion parameters to update the multiparametric model.
A method for use in a wireless local area network, WLAN, system, the method comprising: receiving (S1710), by a receiving station, STA, a physical protocol data unit, PPDU, wherein the PPDU includes a legacy signal field, a control signal field contiguous to the legacy signal field, and a data field, wherein the legacy signal field is received through a first symbol, and the control signal field is received through a second symbol, wherein the legacy signal field and the control signal field are generated based on binary phase shift keying, BPSK, wherein the legacy signal field is generated based on first signal bits, wherein the control signal field is generated based on second signal bits, and wherein the second signal bits include packet indication bits indicating whether the PPDU is an extreme high throughput, EHT, PPDU, first information related to a transmission opportunity, TXOP, and second information related to a bandwidth; and determining (S1720), by the receiving STA, whether the PPDU is an EHT PPDU based on the control signal field. receiving (S1710), by a receiving station, STA, a physical protocol data unit, PPDU, wherein the PPDU includes a legacy signal field, a control signal field contiguous to the legacy signal field, and a data field, wherein the legacy signal field is received through a first symbol, and the control signal field is received through a second symbol, wherein the legacy signal field and the control signal field are generated based on binary phase shift keying, BPSK, wherein the legacy signal field is generated based on first signal bits, wherein the control signal field is generated based on second signal bits, and wherein the second signal bits include packet indication bits indicating whether the PPDU is an extreme high throughput, EHT, PPDU, first information related to a transmission opportunity, TXOP, and second information related to a bandwidth; and determining (S1720), by the receiving STA, whether the PPDU is an EHT PPDU based on the control signal field.
Method for manufacturing a cellulose-regenerate-molded body , wherein the method comprises: supplying a cellulose comprising starting material which is manufactured by a lyocell-method, which is manufactured by solving a cellulose source in a solvent for manufacturing a spinning mass, by extruding the spinning mass, and by subsequently precipitating in a spinning bath; solving the cellulose comprising starting material in a solvent for manufacturing a spinning mass, wherein solving the starting material is performed by a direct solving method; and extruding and subsequently precipitating the spinning mass in a spinning bath , wherein thereby the molded body is obtained. supplying a cellulose comprising starting material which is manufactured by a lyocell-method, which is manufactured by solving a cellulose source in a solvent for manufacturing a spinning mass, by extruding the spinning mass, and by subsequently precipitating in a spinning bath; solving the cellulose comprising starting material in a solvent for manufacturing a spinning mass, wherein solving the starting material is performed by a direct solving method; and extruding and subsequently precipitating the spinning mass in a spinning bath , wherein thereby the molded body is obtained.
An uninterruptible power supply, UPS, comprising: an AC output configured to be coupled to a load; an inverter coupled to the AC output and configured to provide power at the AC output; a switch configured to selectively couple a generator to the AC output; characterised by further comprising a control circuit configured to alternately control the switch and the inverter to alternate the load between the generator and the inverter in respective separate non-overlapping intervals to gradually increase power flow from the generator to the AC output. an AC output configured to be coupled to a load; an inverter coupled to the AC output and configured to provide power at the AC output; a switch configured to selectively couple a generator to the AC output; characterised by further comprising a control circuit configured to alternately control the switch and the inverter to alternate the load between the generator and the inverter in respective separate non-overlapping intervals to gradually increase power flow from the generator to the AC output.
An immediate release compressed tablet for oral delivery of ( R )-2-amino-3-phenylpropyl carbamate, the tablet comprising: ( R )-2-amino-3-phenylpropyl carbamate or a pharmaceutically acceptable salt thereof in an amount of about 90-98% by weight of the tablet; at least one binder in an amount of about 1-5% by weight of the tablet; and at least one lubricant in an amount of about 0.1-1.4% by weight of the tablet; wherein the tablet releases at least 85% of the ( R )-2-amino-3-phenylpropyl carbamate or a pharmaceutically acceptable salt thereof contained therein within a period of less than 15 minutes after administration of the tablet to a subject; wherein the at least one binder is selected from at least one of hydroxypropyl cellulose, hydroxypropyl methylcellulose, and povidone; and wherein the at least one lubricant is selected from at least one of magnesium stearate, calcium stearate, and sodium stearyl fumarate; wherein the term "about", when used to refer to an amount, encompasses variations of ± 10%, ± 5%, ± 1%, ± 0.5%, or ± 0.1% of the specified amount. ( R )-2-amino-3-phenylpropyl carbamate or a pharmaceutically acceptable salt thereof in an amount of about 90-98% by weight of the tablet; at least one binder in an amount of about 1-5% by weight of the tablet; and at least one lubricant in an amount of about 0.1-1.4% by weight of the tablet; wherein the tablet releases at least 85% of the ( R )-2-amino-3-phenylpropyl carbamate or a pharmaceutically acceptable salt thereof contained therein within a period of less than 15 minutes after administration of the tablet to a subject; wherein the at least one binder is selected from at least one of hydroxypropyl cellulose, hydroxypropyl methylcellulose, and povidone; and wherein the at least one lubricant is selected from at least one of magnesium stearate, calcium stearate, and sodium stearyl fumarate; wherein the term "about", when used to refer to an amount, encompasses variations of ± 10%, ± 5%, ± 1%, ± 0.5%, or ± 0.1% of the specified amount.
A vehicle , comprising: a first lift device capable of providing hydrostatic buoyancy, the first lift device being an envelope configured to hold a gas that is capable of providing displacement buoyancy to the vehicle; a second lift device comprising first and second wings capable of providing dynamic lift through movement of the vehicle, the first and second wings each having a respective thrust generation device coupled thereto and each of the first and second wings configured to individually rotate about a lateral axis of the envelope independently of the other of the first and second wings or to rotate together about the lateral axis of the envelope; a compartment attached to the envelope , the compartment having the first and second wings attached to the compartment on opposing sides and not to the envelope ; the vehicle characterised in further comprising: a tail boom extending aft from the compartment ; a horizontal stabilizer at an aftward end of the tail boom and having free ends (116,) with first and second vertical stabilizers projecting upward from the respective free ends of the horizontal stabilizer ; and a pair of support struts extending from the tail boom and attached to the first lift device . a first lift device capable of providing hydrostatic buoyancy, the first lift device being an envelope configured to hold a gas that is capable of providing displacement buoyancy to the vehicle; a second lift device comprising first and second wings capable of providing dynamic lift through movement of the vehicle, the first and second wings each having a respective thrust generation device coupled thereto and each of the first and second wings configured to individually rotate about a lateral axis of the envelope independently of the other of the first and second wings or to rotate together about the lateral axis of the envelope; a compartment attached to the envelope , the compartment having the first and second wings attached to the compartment on opposing sides and not to the envelope ; the vehicle characterised in further comprising: a tail boom extending aft from the compartment ; a horizontal stabilizer at an aftward end of the tail boom and having free ends (116,) with first and second vertical stabilizers projecting upward from the respective free ends of the horizontal stabilizer ; and a pair of support struts extending from the tail boom and attached to the first lift device . a tail boom extending aft from the compartment ; a horizontal stabilizer at an aftward end of the tail boom and having free ends (116,) with first and second vertical stabilizers projecting upward from the respective free ends of the horizontal stabilizer ; and a pair of support struts extending from the tail boom and attached to the first lift device .
A gateway reselection method performed by a terminal device accessing a 3GPP core network via an N3IWF, Non-3GPP Interworking Function, gateway, wherein the method comprises the steps of: obtaining (S802) information about a user plane network element corresponding to the terminal device, after the user plane network element changes; determining (S803), based on location information of the terminal device and the information about the user plane network element, a N3IWF gateway that the terminal device expects to access; determining (S804) that the N3IWF gateway that the terminal device expects to access is different from a source N3IWF gateway which the terminal device currently accesses; determining (S805) to perform gateway reselection on the terminal device; determining (S806) a target N3IWF gateway that is to be used to serve the terminal device; and performing (S807) reselection from the source N3IWF gateway to the target N3IWF gateway. obtaining (S802) information about a user plane network element corresponding to the terminal device, after the user plane network element changes; determining (S803), based on location information of the terminal device and the information about the user plane network element, a N3IWF gateway that the terminal device expects to access; determining (S804) that the N3IWF gateway that the terminal device expects to access is different from a source N3IWF gateway which the terminal device currently accesses; determining (S805) to perform gateway reselection on the terminal device; determining (S806) a target N3IWF gateway that is to be used to serve the terminal device; and performing (S807) reselection from the source N3IWF gateway to the target N3IWF gateway.
Power plant system comprising a solid oxide fuel cell (1, SOFC) and a gas turbine (GT), wherein the fuel cell and the gas turbine are set up such that compressed charge air (Lc) of a compressor of the gas turbine (GT) can be provided to the fuel cell and/or an exhaust gas (G) of the fuel cell can be provided to a combustion chamber of the gas turbine (GT), wherein the system is configured such that the solid oxide fuel cell can be operated in a load or cell mode, the system being characterized in that the solid oxide fuel cell can as well be operated in an electrolysis mode and in that the solid oxide fuel cell (SOFC) is set up such that an excess grid energy is used for executing an electrolysis in the electrolysis mode of the fuel cell and thereby to chemically reduce water (H 2 O) and/or carbon dioxide into hydrogen (H 2 ) and/or syngas.
A fluidity modifier for thermoplastic resin, said fluidity modifier comprising an aromatic polycarbonate copolymer containing: a carbonate structural unit (A) represented by the following Formula : (wherein in Formula , R 1 represents C 8 -C 24 alkyl; R 2 and R 3 each independently represent a C 1 -C 15 monovalent hydrocarbon group; and a and b each independently represent an integer of 0 to 4); and a carbonate structural unit (B) represented by the following Formula : wherein the ratio of the carbonate structural unit (A) to a total of 100 mol% of the carbonate structural unit (A) and the carbonate structural unit (B) is more than 10 mol% and not more than 36.5 mol%. a carbonate structural unit (A) represented by the following Formula : (wherein in Formula , R 1 represents C 8 -C 24 alkyl; R 2 and R 3 each independently represent a C 1 -C 15 monovalent hydrocarbon group; and a and b each independently represent an integer of 0 to 4); and a carbonate structural unit (B) represented by the following Formula : wherein the ratio of the carbonate structural unit (A) to a total of 100 mol% of the carbonate structural unit (A) and the carbonate structural unit (B) is more than 10 mol% and not more than 36.5 mol%.
A method comprising: assigning, by a network node within a network, a label to a specific link to a further network node such that any packet whose label stack includes the label assigned to the specific link is forwarded to the further network node by way of the specific link; enabling a plurality of label-switched paths to use the same label assigned to the specific link instead of assigning another label to the specific link for another label-switched path by sharing labels across the plurality of label-switched paths; receiving , at the network node, a packet from another network node within the network; identifying , within the packet, a label stack that includes a plurality of labels that collectively represent at least a portion of a label-switched path within the network; popping , from the label stack, the label that corresponds to the specific link to the further network node; and upon popping the label from the label stack, forwarding the packet to the further network node by way of the specific link. assigning, by a network node within a network, a label to a specific link to a further network node such that any packet whose label stack includes the label assigned to the specific link is forwarded to the further network node by way of the specific link; enabling a plurality of label-switched paths to use the same label assigned to the specific link instead of assigning another label to the specific link for another label-switched path by sharing labels across the plurality of label-switched paths; receiving , at the network node, a packet from another network node within the network; identifying , within the packet, a label stack that includes a plurality of labels that collectively represent at least a portion of a label-switched path within the network; popping , from the label stack, the label that corresponds to the specific link to the further network node; and upon popping the label from the label stack, forwarding the packet to the further network node by way of the specific link.
Lighting system , in particular for emergency and/or safety lighting, comprising a parallel connection of a plurality of lights , wherein each light has a luminous body , and a test device designed to measure the impedance of the parallel connection, wherein the test device has a processing unit with which a high-frequency signal can be generated as a measurement signal in order to determine the impedance both in a reference state and in an operating state in which the lights are switched on, characterized in that each light comprises a defined impedance connected upstream of the luminous body , and each light comprises a monitoring device for monitoring properties of the light , wherein each monitoring device comprises means for detuning the respective impedance to adjust the impedance depending on the monitored properties of the light .