mhurhangee/ep-ind-claims huggingface dataset:
An atomizer, comprising: an atomizing device comprising an engaging part; and a liquid supply detachably connected with the atomizing device, the liquid supply comprising a liquid chamber, the liquid chamber being configured for storing tobacco liquid, the liquid supply comprising a connecting end and a liquid outlet defined in the connecting end, the engaging part matching with the connecting end, the engaging part defining a liquid inlet through which tobacco liquid can flow into the atomizing device; wherein the liquid supply further comprises a sliding block slidable between a first position and a second position, when the sliding block is in the first position, the sliding block seals the liquid outlet, when the sliding block is in the second position, the liquid outlet is opened; the engaging part is capable of sliding along a predetermined track to form a snap-fit connection with the connecting end, and simultaneously driving the sliding block to move from the first position to the second position; when the engaging part returns along the predetermined track to be detached from the connecting end, the engaging part is capable of driving the sliding block to move to the first position; characterized in that the liquid supply further comprises a holder and a guiding element in the connecting end, the sliding block is assembled in the holder, and the guiding element is configured for guiding the engaging part to move along the predetermined track of a straight line. an atomizing device comprising an engaging part; and a liquid supply detachably connected with the atomizing device, the liquid supply comprising a liquid chamber, the liquid chamber being configured for storing tobacco liquid, the liquid supply comprising a connecting end and a liquid outlet defined in the connecting end, the engaging part matching with the connecting end, the engaging part defining a liquid inlet through which tobacco liquid can flow into the atomizing device; wherein the liquid supply further comprises a sliding block slidable between a first position and a second position, when the sliding block is in the first position, the sliding block seals the liquid outlet, when the sliding block is in the second position, the liquid outlet is opened; the engaging part is capable of sliding along a predetermined track to form a snap-fit connection with the connecting end, and simultaneously driving the sliding block to move from the first position to the second position; when the engaging part returns along the predetermined track to be detached from the connecting end, the engaging part is capable of driving the sliding block to move to the first position; characterized in that the liquid supply further comprises a holder and a guiding element in the connecting end, the sliding block is assembled in the holder, and the guiding element is configured for guiding the engaging part to move along the predetermined track of a straight line.
Device for manufacturing a product from plastic, wherein the device comprises a mould which is coupled to a screw pump, wherein the screw pump is configured to fill the mould with plastic, wherein the screw pump is coupled to a first granulate storage via a feed system for controlling the feed of first granulate from the first granulate storage to the screw pump, wherein the screw pump is coupled to a second granulate storage via the feed system, wherein the feed system is further provided to control the feed of second granulate from the second granulate storage to the screw pump at a predetermined ratio to the first granulate, wherein the predetermined ratio is defined between a minimum ratio and a maximum ratio by an operator on the basis of product properties, characterised in that the feed system is configured to set an effective ratio between the minimum ratio and the maximum ratio on the basis of a quantity of second granulate in the second granulate storage.
A chip, wherein the chip is formed by packaging at least two dies; the at least two dies form at least one die group, the die group comprises a first die and a second die, a first processing unit and n groups of ports are disposed on the first die, and a second processing unit and m groups of ports are disposed on the second die, wherein n and m are both integers greater than or equal to 1; and the first processing unit is configured to: monitor a queue depth of a processing queue of outputting data from the first die to the second die, and when the queue depth reaches a first preset threshold, by means of handshaking with the second processing unit, switch at least one group of first type ports in the n groups of ports from input to output and switch a second type port that is in the m groups of ports and that is coupled to each group of the first type ports from output to input, wherein the first type port is a port that can be switched between input and output in the n groups of ports, and the second type port that is coupled to the port can also be switched between input and output.
A method for forming sealed partially-filled packages filled with a pourable product comprising at least the steps of: - forming a tube from a web of packaging material; - filling the pourable product into the tube for forming a product column within the tube; - directing a sterile gas into the product column for forming and/or maintaining a gas cushion within the product column; - forming and transversally sealing the tube, for obtaining the packages containing the pourable product and a gas space formed from a defined volume of the sterile gas originating from the gas cushion, characterized in that it further comprises the steps of: - detecting and/or determining an elevation level of the product column; - controlling the pressure of the sterile gas as a function of the elevation level; wherein the step of forming and transversally sealing the tube comprises the step of transversally sealing the tube through a portion of the gas cushion for obtaining the gas space in the packages. - forming a tube from a web of packaging material; - filling the pourable product into the tube for forming a product column within the tube; - directing a sterile gas into the product column for forming and/or maintaining a gas cushion within the product column; - forming and transversally sealing the tube, for obtaining the packages containing the pourable product and a gas space formed from a defined volume of the sterile gas originating from the gas cushion, characterized in that it further comprises the steps of: - detecting and/or determining an elevation level of the product column; - controlling the pressure of the sterile gas as a function of the elevation level; wherein the step of forming and transversally sealing the tube comprises the step of transversally sealing the tube through a portion of the gas cushion for obtaining the gas space in the packages.
Communication method between a primary network and a secondary network, the secondary network comprising a plurality of remote stations (210 to 230) and having transmission capacities lower than the transmission capacities of the primary network, a base station enabling data transmissions between the primary and secondary networks, characterized in that the method, carried out by the base station, comprises: - a creation of at least one wireless virtual channel (21 to 23), associated with the secondary network with configurable channel parameters, said configurable channel parameters guaranteeing a determined quality of service, and - a routing of the data that transits through said base station to be transmitted to the secondary network according to the virtual channel or channels created, each virtual channel enabling a point-to-point link between the base station and a remote station of said plurality. - a creation of at least one wireless virtual channel (21 to 23), associated with the secondary network with configurable channel parameters, said configurable channel parameters guaranteeing a determined quality of service, and - a routing of the data that transits through said base station to be transmitted to the secondary network according to the virtual channel or channels created,
A packet processing method, comprising: receiving, by a forwarding element, a packet through an inbound port; searching for, by the forwarding element, a port table according to the inbound port, and characterized in comprising the steps of determining a first offset, first length, and an identifier of a first table, wherein the first offset, the first length, and the identifier of the first table correspond to the inbound port; determining, by the forwarding element, a first key according to the first offset and the first length, searching for the first table according to the first key, and determining a first instruction; and processing, by the forwarding element, the packet according to the first instruction. receiving, by a forwarding element, a packet through an inbound port; searching for, by the forwarding element, a port table according to the inbound port, and characterized in comprising the steps of determining a first offset, first length, and an identifier of a first table, wherein the first offset, the first length, and the identifier of the first table correspond to the inbound port; determining, by the forwarding element, a first key according to the first offset and the first length, searching for the first table according to the first key, and determining a first instruction; and processing, by the forwarding element, the packet according to the first instruction.
A refrigerator comprising: a storage compartment; an evaporator configured to cool the storage compartment; an evaporator housing configured to house the evaporator; a machine room including a discharge plug that is connected to the evaporator housing and configured to discharge defrost water from the evaporator housing to the machine room; a defrost water tray installed in the machine room and configured to collect the defrost water discharged from the evaporator housing through the discharge plug; and a drain hose assembly (1, 2, 3, 4) connecting the discharge plug to the defrost water tray to transfer the defrost water from the discharge plug to the defrost water tray, wherein the drain hose assembly includes, a drain cap (10, 20, 30, 40) connected to the discharge plug and configured to limit an introduction of air into the evaporator housing, and a drain hose having a first end connected to the drain cap and a second end connected to the defrost water tray, and wherein a length of the drain hose assembly is adjustable by adjusting an insertion amount of the drain cap (10, 20, 30, 40) into the drain hose. a storage compartment; an evaporator configured to cool the storage compartment; an evaporator housing configured to house the evaporator; a machine room including a discharge plug that is connected to the evaporator housing and configured to discharge defrost water from the evaporator housing to the machine room; a defrost water tray installed in the machine room and configured to collect the defrost water discharged from the evaporator housing through the discharge plug; and a drain hose assembly (1, 2, 3, 4) connecting the discharge plug to the defrost water tray to transfer the defrost water from the discharge plug to the defrost water tray, wherein the drain hose assembly includes, a drain cap (10, 20, 30, 40) connected to the discharge plug and configured to limit an introduction of air into the evaporator housing, and a drain hose having a first end connected to the drain cap and a second end connected to the defrost water tray, and wherein a length of the drain hose assembly is adjustable by adjusting an insertion amount of the drain cap (10, 20, 30, 40) into the drain hose.
An in vitro method for identifying a subject as having or having a propensity to develop neoplasia, the method comprising: identifying an increased level of M264 (β-D-Ribofuranosylcreatine) in a biological sample derived from the subject relative to the level present in a reference, in combination with an increased level of one or more additional biomarkers from among the following: biomarkers related to methylation comprising, symmetric-dimethylarginine, carnitine, methionine, dimethylglycine, and betaine; biomarkers related to nucleic acid metabolism comprising xanthosine, inosine, deoxyuridine, thymidine, deoxycytidine, cytosine, hypoxanthine, xanthine, uracil, guanosine, and adenosine; and biomarkers related to urea cycle and polyamine metabolism comprising N1-acetylspermidine, N8-acetylspermidine, spermine, arginine ornithine, and citrulline; biomarkers related to amino acid metabolism comprising proline, glutamine, glutamic acid, threonine, and Na-acetyllysine, wherein an increase in said levels of M264 and the one or more biomarkers identifies a subject as having or having a propensity to develop neoplasia, wherein the method optionally further comprises selecting a method of treatment for treating neoplasia, wherein said treatment preferably corresponds to a more aggressive neoplasia. identifying an increased level of M264 (β-D-Ribofuranosylcreatine) in a biological sample derived from the subject relative to the level present in a reference, in combination with an increased level of one or more additional biomarkers from among the following: biomarkers related to methylation comprising, symmetric-dimethylarginine, carnitine, methionine, dimethylglycine, and betaine; biomarkers related to nucleic acid metabolism comprising xanthosine, inosine, deoxyuridine, thymidine, deoxycytidine, cytosine, hypoxanthine, xanthine, uracil, guanosine, and adenosine; and biomarkers related to urea cycle and polyamine metabolism comprising N1-acetylspermidine, N8-acetylspermidine, spermine, arginine ornithine, and citrulline; biomarkers related to methylation comprising, symmetric-dimethylarginine, carnitine, methionine, dimethylglycine, and betaine; biomarkers related to nucleic acid metabolism comprising xanthosine, inosine, deoxyuridine, thymidine, deoxycytidine, cytosine, hypoxanthine, xanthine, uracil, guanosine, and adenosine; and biomarkers related to urea cycle and polyamine metabolism comprising N1-acetylspermidine, N8-acetylspermidine, spermine, arginine ornithine, and citrulline; biomarkers related to amino acid metabolism comprising proline, glutamine, glutamic acid, threonine, and Na-acetyllysine, wherein an increase in said levels of M264 and the one or more biomarkers identifies a subject as having or having a propensity to develop neoplasia, wherein the method optionally further comprises selecting a method of treatment for treating neoplasia, wherein said treatment preferably corresponds to a more aggressive neoplasia.
A method of determining a transmission power for device to device, D2D, transmissions between a first user equipment device and a second user equipment device using transmission resources being used for transmissions to a cellular network entity by a third user equipment device, the method comprising: determining a measure of a path loss from the cellular network entity to the first user equipment device, using the measure of the path loss to determine a maximum transmission power such that the D2D transmissions are received at the cellular network entity with a signal level around or below a noise level, characterized in that the determining of the maximum transmission power includes using a correction value for compensating for a difference between the measured downlink path loss from the cellular network entity to the first user equipment device and an uplink path loss from the first user equipment device to the cellular network entity, and in that the correction value is determined by multiplying a logarithm of a carrier frequency for the D2D transmissions divided by a carrier frequency of transmissions from the cellular network entity to the first user equipment device by a constant. determining a measure of a path loss from the cellular network entity to the first user equipment device, using the measure of the path loss to determine a maximum transmission power such that the D2D transmissions are received at the cellular network entity with a signal level around or below a noise level, characterized in that the determining of the maximum transmission power includes using a correction value for compensating for a difference between the measured downlink path loss from the cellular network entity to the first user equipment device and an uplink path loss from the first user equipment device to the cellular network entity, and in that the correction value is determined by multiplying a logarithm of a carrier frequency for the D2D transmissions divided by a carrier frequency of transmissions from the cellular network entity to the first user equipment device by a constant.
A traffic bearer mapping method, comprising: receiving, by a relay node, RN, a traffic data flow of a user; obtaining, by the RN, attribute information of the traffic data flow, wherein when a backhaul terminates at the RN, the obtaining the attribute information of the traffic data flow comprises: analyzing a transport layer Internet protocol, IP, packet header of a data packet of the traffic data flow to obtain the attribute information of the traffic data flow from the transport layer IP packet header, wherein the transport layer IP packet header comprises a transport layer user datagram protocol/Internet protocol, UDP/IP, header, and the attribute information of the traffic data flow is located in the transport layer UDP/IP header; selecting, by the RN, a relay transmission tunnel according to the attribute information of the traffic data flow, wherein the relay transmission tunnel comprises a relay link radio bearer, Un RB, and an attribute parameter of the Un RB is matched with the attribute information of the traffic data flow; and mapping, by the RN, the traffic data flow to the selected relay transmission tunnel for transmission. receiving, by a relay node, RN, a traffic data flow of a user; obtaining, by the RN, attribute information of the traffic data flow, wherein when a backhaul terminates at the RN, the obtaining the attribute information of the traffic data flow comprises: analyzing a transport layer Internet protocol, IP, packet header of a data packet of the traffic data flow to obtain the attribute information of the traffic data flow from the transport layer IP packet header, wherein the transport layer IP packet header comprises a transport layer user datagram protocol/Internet protocol, UDP/IP, header, and the attribute information of the traffic data flow is located in the transport layer UDP/IP header; selecting, by the RN, a relay transmission tunnel according to the attribute information of the traffic data flow, wherein the relay transmission tunnel comprises a relay link radio bearer, Un RB, and an attribute parameter of the Un RB is matched with the attribute information of the traffic data flow; and mapping, by the RN, the traffic data flow to the selected relay transmission tunnel for transmission. analyzing a transport layer Internet protocol, IP, packet header of a data packet of the traffic data flow to obtain the attribute information of the traffic data flow from the transport layer IP packet header, wherein the transport layer IP packet header comprises a transport layer user datagram protocol/Internet protocol, UDP/IP, header, and the attribute information of the traffic data flow is located in the transport layer UDP/IP header; selecting, by the RN, a relay transmission tunnel according to the attribute information of the traffic data flow, wherein the relay transmission tunnel comprises a relay link radio bearer, Un RB, and an attribute parameter of the Un RB is matched with the attribute information of the traffic data flow; and mapping, by the RN, the traffic data flow to the selected relay transmission tunnel for transmission.
A device for stubble treatment once a crop has been harvested, which device comprises a frame, wherein at least one knife rolling segment is adapted to be coupled to said frame through a pair of bearings and to operate substantially horizontally, said device further comprises a vibration-absorbing arrangement for each bearing, which vibration-absorbing arrangement is adapted to be mounted between a bearing and a free-end of said frame, wherein said vibration-absorbing arrangement is at least partially made of a resilient material, wherein said vibration-absorbing arrangement is adapted to isolate the frame from vibrations generated at the rolling segment and propagated to each bearing, wherein said vibration-absorbing arrangement comprises a first plate and a second plate, said first plate being adapted to be attached to the free-end of said frame and said second plate being adapted to be attached to said bearing, said plates (5, 6) being adapted to be fastened together, wherein one or more vibration-absorbing elements (7, 8) are positioned in-between said plates (5, 6), characterized in that two vibration-absorbing elements (7, 8) are positioned symmetrically with respect to the centre of the plates (5, 6).
Wind turbine comprising a rotor blade, wherein the rotor blade comprises a pneumatically activatable aerodynamic device and the wind turbine comprises a pressure supply system for controlling the activatable aerodynamic device; and wherein the pressure supply system comprises a pressurized air supply system, a pressurized air transmission system with pressure lines for transmitting the supplied pressurized air from the pressurized air supply system to the aerodynamic device, and at least one pneumatic actuator for activating the aerodynamic device, characterized in that the pneumatically activatable aerodynamic device is a flap arranged at the trailing edge section of the rotor blade, the flap comprising one part directly connected to the trailing edge section of the rotor blade and another section attached to the pressure side of the rotor blade, the flap further comprising a cavity, and wherein the actuator comprises an inflatable hose arranged in the cavity and almost filling the entire cavity, and wherein the flap bends towards the pressure side of the rotor blade when the hose is inflated.
Boiler wall protection block (1, 11, 31, 41, 50, 51, 61, 71) for furnishing a boiler wall, comprising: - An essentially parallellogram-shaped body; and - an annular cut-out (3, 4, 5, 6, 62, 63, 64, 65) at all four corners, with the cutting point (A, B, C, D) of two adjacent sides (7, 8, 9, 10) as a centre, characterised in that each of the annular cut-outs (3, 4, 5, 6, 62, 63, 64, 65) is configured to be held in place by ferrules that are received at least partly in the annular cut-outs, and two adjacent sides (7, 8, 9,10,17, 18, 19, 20) of the body have a protrusion, and the other two sides (7, 8, 9, 10,17, 18, 19, 20) have a corresponding recess, wherein the protrusions and recesses are formed such as to allow two adjacent blocks to lock each other and prevent direct radiation of heat from reaching the boiler. - An essentially parallellogram-shaped body; and - an annular cut-out (3, 4, 5, 6, 62, 63, 64, 65) at all four corners, with the cutting point (A, B, C, D) of two adjacent sides (7, 8, 9, 10) as a centre,
A self-balancing human transporter comprising a platform flanked by two wheels and equipped with a handle for holding and steering, and with a gyroscopic stabilizing device acting on motors that drive the wheels, characterized in that each of the wheels comprises a rim which collaborates with bearings borne by respective crescent-shaped supports which each extend essentially facing the associated rim and which bear the associated drive motor such that this motor drives the corresponding wheel by acting on the rim, the supports being fixed to the sides of the platform.