mhurhangee/patent-ind-claim-en huggingface dataset:
A first packet data conversion device for a sender, the packet data conversion device comprising: a data interface configured to provide first packet data according to a first network protocol , wherein the first network protocol is a Datagram Congestion Control Protocol, DCCP, wherein each packet of the first packet data comprises a first packet header ; and a converter configured to convert the first packet data into second packet data , wherein the conversion is based on rearranging contents of the first packet header , wherein the rearranged first packet header indicates that the second packet data is generated according to a second network protocol , wherein the second network protocol is a User Datagram Protocol, UDP or a UDP-Lite protocol, characterized in that the rearranged first packet header shows at least the following bit fields in a definite sequence a Source Port , a Destination Port , a checksum coverage field CsCov , wherein the CsCov is extended to a size of a length field comprised in a packet header of the UDP or a UDP-Lite protocol, and a Checksum , wherein the rearranged header matches an UDP header , wherein the conversion is further based on changing a protocol field of the first packet header from indicating the first network protocol to indicating the second network protocol . a data interface configured to provide first packet data according to a first network protocol , wherein the first network protocol is a Datagram Congestion Control Protocol, DCCP, wherein each packet of the first packet data comprises a first packet header ; and a converter configured to convert the first packet data into second packet data , wherein the conversion is based on rearranging contents of the first packet header , wherein the rearranged first packet header indicates that the second packet data is generated according to a second network protocol , wherein the second network protocol is a User Datagram Protocol, UDP or a UDP-Lite protocol, characterized in that
A control method in an power and communications network convergence system (PCS) comprising: wireless base stations (BS1 ... BS3); and direct-current grid groups, each direct-current grid group belonging to a cell (CELL1 ... CELL3) formed by a corresponding one of the wireless base stations (BS1 ... BS3), the method comprising: performing first control by each direct-current grid (gDC11 ... gDC33) in the direct-current grid group, the direct-current grid having a direct-current power line to which electric power devices including a power generation device and a power storage device are connected, the first control being performed, based on state information on each electric power device wirelessly communicated among the electric power devices, for reducing power fluctuations over time in the direct-current power line; performing, by a first direct-current grid of direct-current grids (gDC11 ... gDC13) belonging to a cell (CELL1), based on state information on each direct current grid wirelessly communicated among the direct-current grids (gDC11 ... gDC13), second control for interchanging power with a second direct-current grid belonging to the cell (CELL1); and if a power situation of a first direct-current grid group belonging to a first cell (CELL1) and a power situation of a second direct-current grid group belonging to a second cell (CELL2) satisfy a first preset condition, performing, by the first direct-current grid group, third control for interchanging power with the second direct-current grid group. performing first control by each direct-current grid (gDC11 ... gDC33) in the direct-current grid group, the direct-current grid having a direct-current power line to which electric power devices including a power generation device and a power storage device are connected, the first control being performed, based on state information on each electric power device wirelessly communicated among the electric power devices, for reducing power fluctuations over time in the direct-current power line; performing, by a first direct-current grid of direct-current grids (gDC11 ... gDC13) belonging to a cell (CELL1), based on state information on each direct current grid wirelessly communicated among the direct-current grids (gDC11 ... gDC13), second control for interchanging power with a second direct-current grid belonging to the cell (CELL1); and if a power situation of a first direct-current grid group belonging to a first cell (CELL1) and a power situation of a second direct-current grid group belonging to a second cell (CELL2) satisfy a first preset condition, performing, by the first direct-current grid group, third control for interchanging power with the second direct-current grid group.
A damping compression force controller for adjusting the compression damping characteristics of a vehicle shock absorber containing a shock absorber housing and shock absorber fluid contained within the shock absorber housing , the controller comprising; a controller housing having a fluid passageway (e.g. 140, 158, 162, 168, 176, 186, 210, 242, 280, 284) therein, the housing including a shock coupler for coupling the housing to the shock absorber housing and for placing the shock absorber housing in fluid communication with the fluid passageway, a reservoir for storing a reservoir of shock absorber fluid in the controller , a first valve disposed in the fluid passageway between the shock coupler and the reservoir through which shock absorber fluid can pass between the shock coupler and the reservoir , the first valve including a first valve controller configured for controlling the rate of flow through the first valve to achieve a first compression damping rate, a second valve disposed in the fluid passageway between the shock coupler and the reservoir through which shock absorber fluid can pass between the shock coupler and the reservoir , the second valve including a second valve controller for controlling the flow of shock absorber fluid through the second valve to achieve a second compression damping rate and a flow director for directing the flow of shock absorber fluid to either the first valve or the second valve to achieve one of the first or second compression damping rates, wherein the valve controller of the first valve is configured to control the flow of shock absorber fluid to achieve the first compression damping rate independently of the control exerted by the second valve over the flow of shock absorber fluid to achieve the second compression damping rate; characterized in that : the flow director includes a hollow flow director receiving cavity , a flow director disposed within the flow director receiving cavity and a user actuable handle operatively coupled to the flow director and disposed exteriorly of the flow director receiving cavity , and the flow director is movable by the handle between a first position wherein the flow director directs shock absorber fluid to the first valve , and a second position wherein the flow director directs fluid to the second valve .
A data processing apparatus , comprising: a control information generation unit configured to generate control information for controlling a method of using data by a reception side, the data being wirelessly transmitted and received by the reception side; and a data generation unit configured to add the control information to data to generate data-with-control-information, characterized in that the control information generation unit generates the control information on the basis of a characteristic amount when insertion or discard of data is performed by the reception side, the characteristic amount representing a degree that the insertion or discard of the data is detected. a control information generation unit configured to generate control information for controlling a method of using data by a reception side, the data being wirelessly transmitted and received by the reception side; and a data generation unit configured to add the control information to data to generate data-with-control-information, characterized in that the control information generation unit generates the control information on the basis of a characteristic amount when insertion or discard of data is performed by the reception side, the characteristic amount representing a degree that the insertion or discard of the data is detected.
Non-therapeutic use of a repellent comprising a compound selected from the group consisting of benzyl alcohol, 2-phenylethanol, 3-phenylpropanol and 1-phenyl-2-propanol for repelling a Vespidae wasp, wherein the repellent does not cause damage to an Apidae bee.
A solid, heterogeneous catalyst preparation for use in an esterification or transesterification reaction, the catalyst preparation comprising at least one modified molecular sieve, where the at least one modified molecular sieve is modified to enhance the basicity of the at least one modified molecular sieve, and at least one metal oxide according to the formula selected from the group consisting of 6.0(Al 2 O 3 ).9.8(La 2 O 3 ).11.5(MMS-4ÅK), 2.3(Al 2 O 3 ).4.6(La 2 O 3 ).2.3(MMS-4ÅK), 8.0(Al 2 O 3 ).16.0(ZnO).16.0(TiO 2 ).30.0(MMS-4ÅK), 30.0(Al 2 O 3 ).30.0(ZnO).30.0(TiO 2 ).250.0(MMS-4ÅK), 18.0(ZnO).18.0(La 2 O 3 .TiO 2 ).30.0(MMS-4ÅK), 4.5(Al 2 O 3 ).9.0(La2O3.TiO 2 ).10.5(MMS-4ÅK), 3.0(Al 2 O 3 ).3.0(ZnO).3.0(TiO 2 ).6.0(Fe 3 O 4 ).25.0(MMS-4ÅK), 3.6(Al 2 O 3 ).8.2(ZnO).8.2(TiO 2 ).13.4(MMS-5ÅK), 1.5{Fe 2 La 3 (CN) 10 }.0.75(Al 2 O 3 ).1.5(TiO 2 ).7.5(MMS-4ÅK) 3.0{Fe 2 Cu 3 (CN) 10 }.1.5(Al 2 O 3 ).3.0(TiO 2 ).15.0(MMS-4ÅK) 1.5{Fe 2 Al 3 (CN) 10 }.0.75(Al 2 O 3 ).1.5(TiO 2 ).7.5(MMS-4ÅK), and 5.0{Fe 2 Zn 3 (CN) 10 }.3.0(Al 2 O 3 ).5.0(TiO 2 ).5.0(MMS-4ÅK), and wherein MMS-4ÅK is the modified molecular sieve of the general formula K n Na( 12-n) [(AlO 2 ) 12 (SiO 2 ) 12 ].xH 2 O, and MMS-5ÅK is the modified molecular sieve of the general formula K m Ca n Na{ 12-(m+2n) }[(AlO 2 ) 12 (SiO 2 ) 12 ].xH 2 O. 6.0(Al 2 O 3 ).9.8(La 2 O 3 ).11.5(MMS-4ÅK), 2.3(Al 2 O 3 ).4.6(La 2 O 3 ).2.3(MMS-4ÅK), 8.0(Al 2 O 3 ).16.0(ZnO).16.0(TiO 2 ).30.0(MMS-4ÅK), 30.0(Al 2 O 3 ).30.0(ZnO).30.0(TiO 2 ).250.0(MMS-4ÅK), 18.0(ZnO).18.0(La 2 O 3 .TiO 2 ).30.0(MMS-4ÅK), 4.5(Al 2 O 3 ).9.0(La2O3.TiO 2 ).10.5(MMS-4ÅK), 3.0(Al 2 O 3 ).3.0(ZnO).3.0(TiO 2 ).6.0(Fe 3 O 4 ).25.0(MMS-4ÅK), 3.6(Al 2 O 3 ).8.2(ZnO).8.2(TiO 2 ).13.4(MMS-5ÅK), 1.5{Fe 2 La 3 (CN) 10 }.0.75(Al 2 O 3 ).1.5(TiO 2 ).7.5(MMS-4ÅK) 3.0{Fe 2 Cu 3 (CN) 10 }.1.5(Al 2 O 3 ).3.0(TiO 2 ).15.0(MMS-4ÅK) 1.5{Fe 2 Al 3 (CN) 10 }.0.75(Al 2 O 3 ).1.5(TiO 2 ).7.5(MMS-4ÅK), and 5.0{Fe 2 Zn 3 (CN) 10 }.3.0(Al 2 O 3 ).5.0(TiO 2 ).5.0(MMS-4ÅK),
A device for beam steering in a Light Detection and Ranging, LiDAR, system of an autonomous vehicle, the device comprising: a mirror comprising: a reflective surface ; and a supporting beam , wherein the supporting beam is configured to rotate the reflective surface by force being applied to the supporting beam; a combdrive actuator , wherein: the combdrive actuator is configured to apply a torque to the supporting beam ; and the supporting beam is mechanically between the combdrive actuator and the reflective surface ; a lever mechanically coupling the combdrive actuator with the supporting beam , wherein the lever is configured to apply a force to the supporting beam ; a hinge coupling the lever with the supporting beam , wherein the hinge is configured to allow for articulated movement between the lever and the supporting beam ; and an actuator with a spring and a shaft , the spring and the shaft being coupled with the mirror , the actuator being configured to harmonically oscillate the mirror about a first axis by applying a second force to the shaft to rotate the mirror around the first axis , wherein the mechanical energy stored in the spring increases as the mirror rotates around the first axis , wherein the supporting beam is configured to rotate the reflective surface about a second axis , and wherein the first axis is not parallel to the second axis . a mirror comprising: a reflective surface ; and a supporting beam , wherein the supporting beam is configured to rotate the reflective surface by force being applied to the supporting beam; a reflective surface ; and a supporting beam , wherein the supporting beam is configured to rotate the reflective surface by force being applied to the supporting beam; a combdrive actuator , wherein: the combdrive actuator is configured to apply a torque to the supporting beam ; and the supporting beam is mechanically between the combdrive actuator and the reflective surface ; the combdrive actuator is configured to apply a torque to the supporting beam ; and the supporting beam is mechanically between the combdrive actuator and the reflective surface ; a lever mechanically coupling the combdrive actuator with the supporting beam , wherein the lever is configured to apply a force to the supporting beam ; a hinge coupling the lever with the supporting beam , wherein the hinge is configured to allow for articulated movement between the lever and the supporting beam ; and an actuator with a spring and a shaft , the spring and the shaft being coupled with the mirror , the actuator being configured to harmonically oscillate the mirror about a first axis by applying a second force to the shaft to rotate the mirror around the first axis , wherein the mechanical energy stored in the spring increases as the mirror rotates around the first axis , wherein the supporting beam is configured to rotate the reflective surface about a second axis , and wherein the first axis is not parallel to the second axis .
A cooking apparatus comprising: a frame having a cooking chamber ; a burner cover provided in the frame to form a combustion chamber (C); a burner provided within the combustion chamber (C); a fan provided at an outside of the burner cover in the frame ; and a fan cover configured to cover the fan and the burner cover , wherein the frame comprises an air introduction hole through which air outside the frame is introduced into the frame , wherein the burner cover covers the air introduction hole , characterized in that the burner cover comprises an air introduction guide having a plurality of air introduction openings through which the air passed through the air introduction hole is introduced into the combustion chamber (C), and wherein the plurality of air introduction openings are arranged along a circumference of the air introduction guide . a frame having a cooking chamber ; a burner cover provided in the frame to form a combustion chamber (C); a burner provided within the combustion chamber (C); a fan provided at an outside of the burner cover in the frame ; and a fan cover configured to cover the fan and the burner cover , wherein the frame comprises an air introduction hole through which air outside the frame is introduced into the frame , wherein the burner cover covers the air introduction hole , characterized in that the burner cover comprises an air introduction guide having a plurality of air introduction openings through which the air passed through the air introduction hole is introduced into the combustion chamber (C), and wherein the plurality of air introduction openings are arranged along a circumference of the air introduction guide .
Guide vane for a turbomachine fan , comprising two opposite ends intended to be mounted on an internal casing and an external casing , concentric with the internal casing, of the turbomachine, the vane being hollow and traversed by a main conduit of heat transfer fluid circulation cooled circulating into the guided vane extending, from a fluid inlet at a first of the vane ends , into at least a height portion of the vane, the vane being composed of sections, each at a uniform position in a radial direction (R) of the turbomachine, the sections being each composed of a central region and at least one end region on either side of a principal axis of flexural inertia (Iz) of the section, the end region including a leading edge and a trailing edge of the vane, characterised in that , in each vane section of the height portion of the vane, the main conduit extends merely in the central region , said principal axis of inertia (Iz) being an axis about which the section has a quadratic moment of inertia and the vane has the lowest flexural rigidity, guide vane being also traversed, in the height portion of the vane, by lateral fluid circulation conduits between the main conduit and, respectively, the leading edge and the trailing edge of the vane, the lateral conduits extending between a fluid outlet and a first coupling , joining the ends of the lateral conduits to an end of the main conduit, the lateral conduits extending, in each section of the height portion of the vane, into said end region .
A method comprising: forming a laminate stack including a gas permeable nonwoven layer and a pressure sensitive adhesive layer , a surface of the pressure sensitive adhesive layer facing a surface of the gas permeable nonwoven layer; and processing the laminate stack such that a plurality of venting pathways are formed in the pressure sensitive adhesive layer to enable trapped gas to pass through the pressure sensitive adhesive layer, wherein processing the laminate stack such that the plurality of venting pathways are formed in the pressure sensitive adhesive layer includes exposing the pressure sensitive adhesive layer to localized ultraviolet light . forming a laminate stack including a gas permeable nonwoven layer and a pressure sensitive adhesive layer , a surface of the pressure sensitive adhesive layer facing a surface of the gas permeable nonwoven layer; and processing the laminate stack such that a plurality of venting pathways are formed in the pressure sensitive adhesive layer to enable trapped gas to pass through the pressure sensitive adhesive layer, wherein processing the laminate stack such that the plurality of venting pathways are formed in the pressure sensitive adhesive layer includes exposing the pressure sensitive adhesive layer to localized ultraviolet light .
A method to wake a receive circuitry of a station before receipt of data by the station, the method comprising: generating and transmitting , by the station, a communication to trigger transmission of a data packet; switching to a receive active state of the station to receive a first acknowledgement responsive to the communication; receiving , by the station, the first acknowledgement; and entering an idle state of the station to reduce power consumption of the receive circuitry; receiving , by the station, a wake frame indicating a receive address and a duration for the data packet to be transmitted to the receive address, while the station is in the idle state; determining , by the station, that the receive address is associated with the station; waking , by the station, the receive circuitry of the station from the idle state to receive active state to receive the data packet in response to the wake frame; and receiving, by the station, the data packet. generating and transmitting , by the station, a communication to trigger transmission of a data packet; switching to a receive active state of the station to receive a first acknowledgement responsive to the communication; receiving , by the station, the first acknowledgement; and entering an idle state of the station to reduce power consumption of the receive circuitry; receiving , by the station, a wake frame indicating a receive address and a duration for the data packet to be transmitted to the receive address, while the station is in the idle state; determining , by the station, that the receive address is associated with the station; waking , by the station, the receive circuitry of the station from the idle state to receive active state to receive the data packet in response to the wake frame; and receiving, by the station, the data packet.
A label processing method comprising: receiving (S202), by a first edge device, a label notified by a second edge device for identifying routing information; when it is determined that the label notified by the second edge device is the same as a label allocated by the first edge device, comparing (S204), by the first edge device, first identification information for identifying the first edge device and second identification information for identifying the second edge device; and reallocating (S206), by the first edge device, based on a comparison result, the label allocated by the first edge device, wherein before receiving, by the first edge device, the label notified by the second edge device, the method further comprises: notifying, by the first edge device, other devices of capability information of the first edge device, wherein the capability information is used for identifying that the first edge device is capable of reallocating a label. receiving (S202), by a first edge device, a label notified by a second edge device for identifying routing information; when it is determined that the label notified by the second edge device is the same as a label allocated by the first edge device, comparing (S204), by the first edge device, first identification information for identifying the first edge device and second identification information for identifying the second edge device; and reallocating (S206), by the first edge device, based on a comparison result, the label allocated by the first edge device, wherein before receiving, by the first edge device, the label notified by the second edge device, the method further comprises: notifying, by the first edge device, other devices of capability information of the first edge device, wherein the capability information is used for identifying that the first edge device is capable of reallocating a label.
A compound of a Formula I: wherein: X is -NH- or -N(CH 3 )-; L is O; Z is -CH(O-R 1 )-, -O- or -C(=O)-; R 1 is H, -C(O)-C 1-21 alkyl ; in free or salt form; optionally in an isolated or purified free or salt form. X is -NH- or -N(CH 3 )-; L is O; Z is -CH(O-R 1 )-, -O- or -C(=O)-; R 1 is H, -C(O)-C 1-21 alkyl ; in free or salt form;
A method for performing sidelink, SL, communication by a first device, the method comprising: obtaining information on sidelink synchronization signal block, S-SSB, transmission resources; determining a plurality of first slots in a first S-SSB period, related to a plurality of first S-SSBs, based on the information on the S-SSB transmission resources; and transmitting, to a second device, the plurality of first S-SSBs on the plurality of first slots, wherein a slot interval between the plurality of first slots is a constant, in the first S-SSB period, wherein each of the plurality of first S-SSBs includes a physical sidelink broadcast channel, PSBCH, wherein a generator of a scrambling sequence related to a primary scrambling or a secondary scrambling of the PSBCH is reset at a start of each of the plurality of first S-SSBs in the first S-SSB period, and is initialized based on a sidelink synchronization signal, SLSS, identity, ID. obtaining information on sidelink synchronization signal block, S-SSB, transmission resources; determining a plurality of first slots in a first S-SSB period, related to a plurality of first S-SSBs, based on the information on the S-SSB transmission resources; and transmitting, to a second device, the plurality of first S-SSBs on the plurality of first slots, wherein a slot interval between the plurality of first slots is a constant, in the first S-SSB period, wherein each of the plurality of first S-SSBs includes a physical sidelink broadcast channel, PSBCH, wherein a generator of a scrambling sequence related to a primary scrambling or a secondary scrambling of the PSBCH is reset at a start of each of the plurality of first S-SSBs in the first S-SSB period, and is initialized based on a sidelink synchronization signal, SLSS, identity, ID.