mhurhangee/ep-ind-claims huggingface dataset:
A flow table-based table entry addressing method for a software defined network using an Openflow protocol, comprising: receiving, by a switch, a packet; matching, by the switch, the packet based on a previous Openflow flow table; sending, by the switch after matching is successful and based on a write storage index instruction in a flow table entry that is successfully matched, storage index information along with the packet to a lower-level Openflow flow table, wherein, the storage index information corresponds to a flow table entry in the lower-level flow table, and the write storage index instruction, where a parameter of the write storage index instruction includes the storage index information, is sent by a Openflow controller; and directly addressing, by the switch in the lower-level Openflow flow table based on the storage index information, the flow table entry corresponding to the storage index information. receiving, by a switch, a packet; matching, by the switch, the packet based on a previous Openflow flow table; sending, by the switch after matching is successful and based on a write storage index instruction in a flow table entry that is successfully matched, storage index information along with the packet to a lower-level Openflow flow table, wherein, the storage index information corresponds to a flow table entry in the lower-level flow table, and the write storage index instruction, where a parameter of the write storage index instruction includes the storage index information, is sent by a Openflow controller; and directly addressing, by the switch in the lower-level Openflow flow table based on the storage index information, the flow table entry corresponding to the storage index information.
Rotational damper having a damper housing which surrounds a damper motor and is mounted via a mounting device on a first mass, and having a feedback lever which is pivotably mounted relative to the damper housing and connected to a second mass, and having a gear for transferring and/or converting a relative rotary motion between the masses to the damper motor for vibration damping, characterised in that the feedback lever has a cam projection in whose trajectory two limit stops (44, 46) are provided during pivoting of the feedback lever relative to the damper housing, said limit stops being connected to the damper housing.
An assembly (50; 150) for an aircraft having a propeller, the assembly (50; 150) comprising: a wheel well configured for receiving a retracted landing gear; first and second cooling ducts (60,62); and an engine assembly (10; 110) having an engine shaft configured for driving engagement with a propeller, the engine assembly (10; 110) including a coolant circulation system for circulation of a liquid coolant, a lubricant circulation system for circulation of a lubricant, a first heat exchanger in fluid communication with at least the coolant circulation system, and a second heat exchanger in fluid communication with at least the lubricant circulation system, the first heat exchanger positioned and configured for receiving a first cooling airflow from the first cooling duct, the second heat exchanger positioned and configured for receiving a second cooling airflow from the second cooling duct, and the wheel well located between the first and second heat exchangers (42,46). a wheel well configured for receiving a retracted landing gear; first and second cooling ducts (60,62); and an engine assembly (10; 110) having an engine shaft configured for driving engagement with a propeller, the engine assembly (10; 110) including a coolant circulation system for circulation of a liquid coolant, a lubricant circulation system for circulation of a lubricant, a first heat exchanger in fluid communication with at least the coolant circulation system, and a second heat exchanger in fluid communication with at least the lubricant circulation system, the first heat exchanger positioned and configured for receiving a first cooling airflow from the first cooling duct, the second heat exchanger positioned and configured for receiving a second cooling airflow from the second cooling duct, and the wheel well located between the first and second heat exchangers (42,46).
Modular robotic kit containing a set of components each of which is assignable into one of at least three different functional groups in which the first functional group contains at least one type of an actuator, the second functional group contains at least one type of a joint and the third functional group contains at least one type of a structure, wherein the actuator type component contains at least one motor driven shaft, at which at least one end of a tension transmitting element, like a cable, is fixed for up- and unrolling at least of a section of the tension transmitting element around the shaft, and at least one mechanical interface to attach the actuator type component on the structure type component, the joint type component has two sections (21, 22) providing each at least one connection interface (211, 221) and being arranged relative to each other by having one up to three degrees of freedom of rotation and zero up to one degree of freedom of translation between the both sections (21, 22), at least one of the both sections provides a fixing means for fixing at least one section of the tension transmitting element of an actuator type component and said connection interfaces (211, 221) being adapted for a releasable and direct or indirect connection with the connection interface (211, 221) of another joint or with a connection interface of a structure type component, and the structure type component contains a rigid support structure having at least two ends, at each end a plate like structure is arranged at which the connection interface is provided for a releasable and direct or indirect connection with the connection interface (211, 221) of a joint type component or another structure type component, and the rigid support structure provides at least one mechanical interface for connecting with the mechanical interface of the actuator type component.
A telecommunication gateway device for facilitating distribution of multimedia broadcast multicast services, MBMS, in a telecommunications network (20, 400), wherein the telecommunication gateway device is connectable to a serving node via a control interface and a backbone interface, and wherein the telecommunication gateway device is adapted for: - receiving an MBMS session start message from a broadcast/multicast service center; - sending control traffic, via the control interface, on a control network to the serving node; - receiving a common tunnel end-point identifier, cTEID, from an infrastructure device; - sending as control traffic to the serving node an MBMS session start request message including the cTEID and an Internet Protocol, IP, multicast address for backbone distribution; - receiving information from the serving node indicating that the serving node accepts to use IP multicast; and - sending, via the backbone interface, a data packet on an IP multicast backbone for reception by hosts that have joined a multicast group using the cTEID, wherein the data packet comprises a header with the IP multicast address, the cTEID, a MBMS Multicast address and a payload with media content data, and wherein the multicast group is associated with the IP multicast address. - receiving an MBMS session start message from a broadcast/multicast service center; - sending control traffic, via the control interface, on a control network to the serving node; - receiving a common tunnel end-point identifier, cTEID, from an infrastructure device; - sending as control traffic to the serving node an MBMS session start request message including the cTEID and an Internet Protocol, IP, multicast address for backbone distribution; - receiving information from the serving node indicating that the serving node accepts to use IP multicast; and - sending, via the backbone interface, a data packet on an IP multicast backbone for reception by hosts that have joined a multicast group using the cTEID, wherein the data packet comprises a header with the IP multicast address, the cTEID, a MBMS Multicast address and a payload with media content data, and wherein the multicast group is associated with the IP multicast address.
A preparation method for a compound of formula I, comprising the step of synthetizing the compound of formula I from a compound of formula II, wherein the compound of formula II reacts with R 4 2 PH and R 5 2 PH in an organic solvent and under the action of a metal catalyst to obtain the ligand of formula I; wherein R 1, R 2, R 3, R 6, R 7 and R 8 are independently selected from a hydrogen, a C 1 -C 6 alkyl, a C 3 -C 10 cycloalkyl or a phenyl; R 4 and R 5 are selected from substituted or unsubstituted following groups: a C 3 -C 10 cycloalkyl, a C 1 -C 10 alkyl, 2-furyl, or an aryl; and R 4 and R 5 are the same; X is selected from CH 2, NH, NCH 3, O or S; n=0; or the compound of formula I is selected from the following group: wherein the substitution refers to be substituted by the following substituents: a halogen, a C 1-6 alkyl, a C 1-6 haloalkyl, or a C 1-6 alkoxyl; Y is Cl, Br or I; said metal catalyst is at least one selected from Pd(OAc) 2, PdCl 2, Pd 2 (dba) 3, Pd(dba) 2, [Pd(C 3 H 5)Cl] 2, Pd(PPh 3) 4, Pd(PPh 3) 2 Cl 2, Pd(CH 3 CN)Cl 2, dpppNiCl 2, Ni(PPh 3) 2 Cl 2, CuI or a combination thereof. wherein R 1, R 2, R 3, R 6, R 7 and R 8 are independently selected from a hydrogen, a C 1 -C 6 alkyl, a C 3 -C 10 cycloalkyl or a phenyl; R 4 and R 5 are selected from substituted or unsubstituted following groups: a C 3 -C 10 cycloalkyl, a C 1 -C 10 alkyl, 2-furyl, or an aryl; and R 4 and R 5 are the same; X is selected from CH 2, NH, NCH 3, O or S; n=0; or the compound of formula I is selected from the following group: wherein the substitution refers to be substituted by the following substituents: a halogen, a C 1-6 alkyl, a C 1-6 haloalkyl, or a C 1-6 alkoxyl; Y is Cl, Br or I; said metal catalyst is at least one selected from Pd(OAc) 2, PdCl 2, Pd 2 (dba) 3, Pd(dba) 2, [Pd(C 3 H 5)Cl] 2, Pd(PPh 3) 4, Pd(PPh 3) 2 Cl 2, Pd(CH 3 CN)Cl 2, dpppNiCl 2, Ni(PPh 3) 2 Cl 2, CuI or a combination thereof.
A computer-implemented method for automatic network architecture configuration maintenance, the method comprising: initiating a proxy service connection with an external cloud system by sending an initiation request to a proxy system, wherein the initiation request includes identification information associated with the external cloud system based on which the proxy system communicates with the external cloud system to establish the proxy connection; transmitting a configurations retrieval request to the external cloud system via the proxy service connection; retrieving, from the external cloud system, an updated device configurations data object via the proxy service connection; identifying a vulnerable networked device set based at least in part on a detected networked device set and the updated device configurations data object; generating a device cyber risk score data object set comprising a device cyber risk score data object associated with one or more vulnerable network devices of the vulnerable networked device set; and outputting the device cyber risk score data object set. initiating a proxy service connection with an external cloud system by sending an initiation request to a proxy system, wherein the initiation request includes identification information associated with the external cloud system based on which the proxy system communicates with the external cloud system to establish the proxy connection; transmitting a configurations retrieval request to the external cloud system via the proxy service connection; retrieving, from the external cloud system, an updated device configurations data object via the proxy service connection; identifying a vulnerable networked device set based at least in part on a detected networked device set and the updated device configurations data object; generating a device cyber risk score data object set comprising a device cyber risk score data object associated with one or more vulnerable network devices of the vulnerable networked device set; and outputting the device cyber risk score data object set.
A hepatocyte growth factor preparation which is obtained by freeze-drying of an aqueous solution comprising an HGF protein as an active ingredient and lactose, glycine, sodium chloride, a pH buffering agent and a surfactant as additional ingredients, wherein the content of the lactose is in the range of 0.1 to 50 parts by weight relative to 1 part by weight of HGF.
An electric hub comprising a human-driving-force transmitting wheel (60, 160, 260) that receives a transmitted human driving force, a hub spindle (21, 22, 121, 122, 221, 222) fixed to a frame (2, 102, 202), a hub body (23, 123, 223) rotatable relative to the hub spindle (21, 22, 121, 122, 221, 222), a motor (24, 124, 224) provided in the hub body (23, 123, 223) so as to rotate the hub body (23, 123, 223), and a serration coupling (53, 153, 253) that transmits a human driving force from the human-driving-force transmitting wheel (60, 160, 260) to the hub body (23, 123, 223), characterized by the serration coupling (53, 153, 253) including an input serration section (53b, 153b, 253b) and an output serration section (53a, 153a, 253a) that are integrally formed, the input serration section (53b, 153b, 253b) receiving a human driving force from the human-driving-force transmitting wheel (60, 160, 260), the output serration section (53a, 153a, 253a) transmitting a human driving force to the hub body (23, 123, 223), the output serration section (53a, 153a, 253a) being larger in diameter than the input serration section (53b, 153b, 253b), the hub body (23, 123, 223) having a serration section that is shaped according to the output serration section (53a, 153a, 253a) and the electric hub further comprising an unshielded bearing that rotatably supports the hub body; and a grease holding section being capable of holding watertight grease, the grease holding section being formed in the hub body so as to hold watertight grease in a location facing the at least one bearing that rotatably supports the hub body.
A method for communication in a personal area network, comprising: receiving, from a personal area network coordinator, information regarding adjusted active duration and duty cycle of the communication of a sensor device; and performing further communication based upon the adjusted active duration and duty cycle, characterized in that the method further comprises transmitting, to the personal area network coordinator, joint information of the sensor device, wherein the joint information is indicated by reserved bits and includes a type, an overall successful channel access rate, and a latest node buffer occupation rate of the sensor device, and in that the adjustments of the active duration and duty cycle are determined based upon the joint information. receiving, from a personal area network coordinator, information regarding adjusted active duration and duty cycle of the communication of a sensor device; and performing further communication based upon the adjusted active duration and duty cycle, characterized in that the method further comprises transmitting, to the personal area network coordinator, joint information of the sensor device, wherein the joint information is indicated by reserved bits and includes a type, an overall successful channel access rate, and a latest node buffer occupation rate of the sensor device, and in that the adjustments of the active duration and duty cycle are determined based upon the joint information.
A printing system comprising: - an image formation module; - a drying/fixation module; and - a transport module arranged between the image formation module and the drying/fixation module for transporting a printed print substrate from the image formation module to the drying and fixing module, wherein the transport module comprises a control system configured for controlling the relative humidity inside the transport module to at least 50%, wherein the transport module comprises a transporting means providing a transport path having a length that satisfies the equation 1: L ≥ v printing / 60 * t abs * W image wherein: v printing = the printing speed in images per minute (ipm) t abs = print substrate and ink set dependent absorption time (s) which is 1000 ms W image = image width (m). - an image formation module; - a drying/fixation module; and - a transport module arranged between the image formation module and the drying/fixation module for transporting a printed print substrate from the image formation module to the drying and fixing module, wherein the transport module comprises a control system configured for controlling the relative humidity inside the transport module to at least 50%, v printing = the printing speed in images per minute (ipm) t abs = print substrate and ink set dependent absorption time (s) which is 1000 ms W image = image width (m).
Process for producing metal nanoparticle dispersions, characterized by the following process steps: a) production of a two-phase layer system formed by an organic phase and a reducing phase, where the organic phase contains amphiphilic dendritically branched macromolecules dissolved in a suitable solvent and ions of a metal or a plurality of different metal ions complexed therein and the reducing phase is not miscible with the organic phase, b) superposition of the two phases in layers and reduction of the metal ions previously complexed in the dendritically branched macromolecule at the phase interface of this two-phase system and c) ending of the reduction reaction by separation of the two phases and formation of a storage-stable dispersion of very finely divided metal nanoparticles. a) production of a two-phase layer system formed by an organic phase and a reducing phase, where the organic phase contains amphiphilic dendritically branched macromolecules dissolved in a suitable solvent and ions of a metal or a plurality of different metal ions complexed therein and the reducing phase is not miscible with the organic phase, b) superposition of the two phases in layers and reduction of the metal ions previously complexed in the dendritically branched macromolecule at the phase interface of this two-phase system and c) ending of the reduction reaction by separation of the two phases and formation of a storage-stable dispersion of very finely divided metal nanoparticles.
Power equipment, comprising: an equipment main body provided with a propelling device; a power source for selectively powering the propelling device; an internal combustion engine having a plurality of cylinders and supported by the equipment main body, the engine including a throttle valve for adjusting a flow of air or mixture into the cylinders of the engine; an engine control unit for controlling the throttle valve of the engine, and selectively deactivating at least one of the cylinders; a work implement connected to the engine in a power transmitting relationship; and a clutch provided in a power transmission path between the engine and the work implement; characterized by a central control unit for controlling an operation of the propelling device, the clutch and the engine control unit; wherein the central control unit is configured to cause the engine control unit to operate the engine at a prescribed rotational speed with two or more of the cylinders kept activated when the clutch is engaged and the propelling device is propelling the power equipment forward, and to deactivate at least one of the cylinders when an opening of the throttle valve is below a first prescribed value for a prescribed time period while the clutch is maintained engaged and the propelling device is propelling the power equipment forward. an equipment main body provided with a propelling device; a power source for selectively powering the propelling device; an internal combustion engine having a plurality of cylinders and supported by the equipment main body, the engine including a throttle valve for adjusting a flow of air or mixture into the cylinders of the engine; an engine control unit for controlling the throttle valve of the engine, and selectively deactivating at least one of the cylinders; a work implement connected to the engine in a power transmitting relationship; and a clutch provided in a power transmission path between the engine and the work implement; characterized by a central control unit for controlling an operation of the propelling device, the clutch and the engine control unit; wherein the central control unit is configured to cause the engine control unit to operate the engine at a prescribed rotational speed with two or more of the cylinders kept activated when the clutch is engaged and the propelling device is propelling the power equipment forward, and to deactivate at least one of the cylinders when an opening of the throttle valve is below a first prescribed value for a prescribed time period while the clutch is maintained engaged and the propelling device is propelling the power equipment forward.
An internal combustion engine comprising: a cylinder defining a combustion chamber for combusting an air/fuel-mixture therein; a piston reciprocally movable within the cylinder between a top dead center and a bottom dead center, and including an uppermost piston ring configured to sealingly contact the cylinder; an annular crevice facing the combustion chamber and being defined by the cylinder, the piston, and the uppermost piston ring; and at least one flow channel fluidly connected to the combustion chamber and configured to direct unburned air/fuel-mixture out of the combustion chamber, the at least one flow channel being positioned to be directly fluidly connected to the annular crevice, when the piston has a position corresponding to a crank angle range of about 85° to 95° and about 265° to 275° after the top dead center. a cylinder defining a combustion chamber for combusting an air/fuel-mixture therein; a piston reciprocally movable within the cylinder between a top dead center and a bottom dead center, and including an uppermost piston ring configured to sealingly contact the cylinder; an annular crevice facing the combustion chamber and being defined by the cylinder, the piston, and the uppermost piston ring; and at least one flow channel fluidly connected to the combustion chamber and configured to direct unburned air/fuel-mixture out of the combustion chamber, the at least one flow channel being positioned to be directly fluidly connected to the annular crevice, when the piston has a position corresponding to a crank angle range of about 85° to 95° and about 265° to 275° after the top dead center.