mhurhangee/patent-ind-claim-en huggingface dataset:
A machine tool, comprising: a first component (4; 5) which comprises a first antenna coil for wireless signal transmission, and a second component (3; 7.2), which is removably and/or movably arranged on the first component (4; 5) and comprises a second antenna coil for wireless signal transmission, wherein the first component (4; 5) and the second component (3; 7.2) together bound a cavity which is surrounded essentially completely by an electrically conductive material, in particular by a metal, and wherein the first antenna coil and the second antenna coil are arranged together in the cavity in order to permit wireless signal transmission between the first antenna coil and the second antenna coil , characterised in that an interchangeable third component (1; 2) is connected to the second component (3; 7.2); the second component (3; 7.2) comprises a third antenna coil which is electrically connected to the second antenna coil by means of a cable (20.1, 19.2), preferably a coaxial cable, the cable (20.1, 19.2) running completely in the interior of the second component (3; 7.2); the third component (1; 2) comprises a fourth antenna coil ; the second component (3; 7.2) and the third component (1; 2) together define a further cavity which is surrounded essentially completely by an electrically conductive material, in particular a metal, and the third antenna coil and the fourth antenna coil are arranged together in the further cavity in order to permit wireless signal transmission between the third antenna coil and the fourth antenna coil . a first component (4; 5) which comprises a first antenna coil for wireless signal transmission, and a second component (3; 7.2), which is removably and/or movably arranged on the first component (4; 5) and comprises a second antenna coil for wireless signal transmission, wherein the first component (4; 5) and the second component (3; 7.2) together bound a cavity which is surrounded essentially completely by an electrically conductive material, in particular by a metal, and wherein the first antenna coil and the second antenna coil are arranged together in the cavity in order to permit wireless signal transmission between the first antenna coil and the second antenna coil , characterised in that an interchangeable third component (1; 2) is connected to the second component (3; 7.2); the second component (3; 7.2) comprises a third antenna coil which is electrically connected to the second antenna coil by means of a cable (20.1, 19.2), preferably a coaxial cable, the cable (20.1, 19.2) running completely in the interior of the second component (3; 7.2); the third component (1; 2) comprises a fourth antenna coil ; the second component (3; 7.2) and the third component (1; 2) together define a further cavity which is surrounded essentially completely by an electrically conductive material, in particular a metal, and the third antenna coil and the fourth antenna coil are arranged together in the further cavity in order to permit wireless signal transmission between the third antenna coil and the fourth antenna coil .
A sheet manufacturing apparatus comprising: a fibrillating unit that fibrillates a raw material including fibers in a gas; an additive supply unit that supplies an additive; a mixing unit including a first rotating unit that mixes a fibrillated matter fibrillated by the fibrillating unit and the additive supplied by the additive supply unit ; a depositing unit that deposits a mixture mixed by the mixing unit ; a web forming unit including a mesh belt that transports a deposited material deposited by the depositing unit and a suction mechanism that sucks the deposited material to the mesh belt ; and a control unit that changes granularity, which is the roughness, of a surface of the sheet by controlling at least one of a supply amount per unit time from the additive supply unit , a rotation velocity of the first rotating unit of the mixing unit , and a suction force of the suction mechanism ; wherein the fibrillating unit has a second rotating unit that fibrillates the raw material, and the control unit changes a rotation velocity of the second rotating unit. a fibrillating unit that fibrillates a raw material including fibers in a gas; an additive supply unit that supplies an additive; a mixing unit including a first rotating unit that mixes a fibrillated matter fibrillated by the fibrillating unit and the additive supplied by the additive supply unit ; a depositing unit that deposits a mixture mixed by the mixing unit ; a web forming unit including a mesh belt that transports a deposited material deposited by the depositing unit and a suction mechanism that sucks the deposited material to the mesh belt ; and a control unit that changes granularity, which is the roughness, of a surface of the sheet by controlling at least one of a supply amount per unit time from the additive supply unit , a rotation velocity of the first rotating unit of the mixing unit , and a suction force of the suction mechanism ; wherein the fibrillating unit has a second rotating unit that fibrillates the raw material, and the control unit changes a rotation velocity of the second rotating unit.
A mixing apparatus for introducing a first liquid , a second liquid , and a third liquid into a process liquid flow which is flowing in a linear flow duct section , wherein the mixing apparatus has a first liquid inlet conduit for feeding first liquid into the mixing apparatus , a second liquid inlet conduit for feeding second liquid into the mixing apparatus , a third liquid inlet conduit for feeding third liquid into the mixing apparatus , and an outlet assembly configured to feed mixture of first liquid , second liquid , and third liquid from the mixing apparatus , characterized by the outlet assembly of the mixing apparatus including a pair of identical first outlet openings arranged symmetrically with respect to a center plane (X) of the outlet assembly , wherein each first outlet opening is configured to feed mixture of first liquid , second liquid and third liquid from the mixing apparatus , a second outlet opening arranged at said center plane (X), wherein said second outlet opening is configured to feed mixture of first liquid , second liquid and third liquid from the mixing apparatus , a pair of identical third outlet openings arranged symmetrically with respect to said center plane (X) and along said center plane (X) of the outlet assembly between said pair of identical first outlet openings and said second outlet opening , wherein each third outlet opening is configured to feed mixture of first liquid , second liquid and third liquid from the mixing apparatus , by the third liquid inlet conduit being at a third downstream end of the third liquid inlet conduit in fluid connection with five outlet conduits of the outlet assembly , wherein each outlet conduit of the outlet assembly terminating in one of said first outlet openings , the second outlet opening , and said third outlet openings , by the first liquid inlet conduit having a first inlet opening at a first upstream end of the first liquid inlet conduit and a first downstream end , by the second liquid inlet conduit having a second inlet opening at a second upstream end of the second liquid inlet conduit and a second downstream end , by the third liquid inlet conduit having a third inlet opening at a third upstream end of the third liquid inlet conduit and a third downstream end , by the first liquid inlet conduit at the first downstream end of the first liquid inlet conduit opening up inside the second liquid inlet conduit , and by the second liquid inlet conduit at the second downstream end of the second liquid inlet conduit opening up inside the third liquid inlet conduit .
Application of a turbopump to a closed circuit, the turbopump comprising a fixed housing containing a pump with a pump rotor comprising pump vanes and a turbine housing a turbine rotor bearing turbine vanes , the turbine rotor being positioned coaxially around the rotor of the pump in the one same plane perpendicular to the axis of said rotors.
A robotic paint repair system , comprising: a consumable abrasive product configured to abrade a substrate; a tool configured to drive the consumable abrasive product to abrade; a backup pad configured to couple with the consumable abrasive product ; a robotic device configured to manipulate the tool ; a pressure regulating apparatus mountable to the robotic device and configured to apply a desired pressure to the consumable abrasive product ; a sensor configured to measure at least one of a rotational velocity of the backup pad or a debris pattern from the substrate that results from abrading; and a pressure controller configured to control the pressure regulating apparatus to apply the desired pressure based upon the at least one of the measured rotational velocity of the backup pad or the measured debris pattern. a consumable abrasive product configured to abrade a substrate; a tool configured to drive the consumable abrasive product to abrade; a backup pad configured to couple with the consumable abrasive product ; a robotic device configured to manipulate the tool ; a pressure regulating apparatus mountable to the robotic device and configured to apply a desired pressure to the consumable abrasive product ; a sensor configured to measure at least one of a rotational velocity of the backup pad or a debris pattern from the substrate that results from abrading; and a pressure controller configured to control the pressure regulating apparatus to apply the desired pressure based upon the at least one of the measured rotational velocity of the backup pad or the measured debris pattern.
A coil unit (12; 112; 212) for inductive energy transfer, with an induction coil (16; 116; 216) and a ferrite core (17; 117; 217) which cooperates with the induction coil, characterised in that the ferrite core (17; 117; 217) is produced from a fibre-reinforced ceramic material.
A sintering powder comprising: a particulate having a mean longest diameter of less than 10 microns, wherein at least some of the particles forming the particulate comprise a metal at least partially coated with a capping agent, wherein the particulate comprises a first type of particles having a longest diameter of from 1 to 100 nm and a second type of particles having a longest diameter of from greater than 100 nm to 50 microns, wherein the particulate comprises from 85 to 95 wt.% of the first type of particles and from 5 to 15 wt.% of the second type of particles, and wherein the sintering powder comprises up to 5 wt% capping agent.
A system for provisioning a simultaneous key negotiation process, having a plurality of port access entities, the system comprising: at least one first port access entity, from the plurality of port access entities, configured to: initiate a key agreement process by sending a first message with a basic Type-Length-Value, TLV, information to at least one second port access entity from the plurality of port access entities, the TLV information comprises a message number, MN, and a message indicator, MI, unique for the first message; receive a second message with a potential peer TLV from the at least one second port access entity in response to the first message, the potential peer TLV comprises an MN and an MI unique for at least one message received eventually by the at least one second port access entity; detect an occurrence of a simultaneous key agreement process session initiation, indicating a race condition, based on the MN in the second message; store, if the race condition is detected, the MN in the second message; and respond by sending a third message to the at least one second port access entity with the stored MN and a live peer TLV to achieve the key agreement process, wherein the third message is sent when the MN associated with the first message is received in a potential peer TLV from the at least one second port access entity. initiate a key agreement process by sending a first message with a basic Type-Length-Value, TLV, information to at least one second port access entity from the plurality of port access entities, the TLV information comprises a message number, MN, and a message indicator, MI, unique for the first message; receive a second message with a potential peer TLV from the at least one second port access entity in response to the first message, the potential peer TLV comprises an MN and an MI unique for at least one message received eventually by the at least one second port access entity; detect an occurrence of a simultaneous key agreement process session initiation, indicating a race condition, based on the MN in the second message; store, if the race condition is detected, the MN in the second message; and respond by sending a third message to the at least one second port access entity with the stored MN and a live peer TLV to achieve the key agreement process, wherein the third message is sent when the MN associated with the first message is received in a potential peer TLV from the at least one second port access entity.
A method for configuring a service, wherein the method comprises: obtaining identifier information and a condition, the identifier information is used to identify a first device group, the first device group comprises a device that provides a service, and the condition is a communication requirement corresponding to the service; obtaining information about a network device group according to the identifier information and the condition, wherein the network device group comprises a network device satisfying the condition; obtaining a first forwarding rule according to the condition, wherein the first forwarding rule corresponds to the network device group, wherein the first forwarding rule is used to enable the network device in the network device group to provide the service to the device in the first device group; and sending the first forwarding rule. obtaining identifier information and a condition, the identifier information is used to identify a first device group, the first device group comprises a device that provides a service, and the condition is a communication requirement corresponding to the service; obtaining information about a network device group according to the identifier information and the condition, wherein the network device group comprises a network device satisfying the condition; obtaining a first forwarding rule according to the condition, wherein the first forwarding rule corresponds to the network device group, wherein the first forwarding rule is used to enable the network device in the network device group to provide the service to the device in the first device group; and sending the first forwarding rule.
An integrated circuit comprising a plurality of memories and a circuitry configured to perform parallel test of the plurality of memories, the circuitry comprising: a first controller for generating a test data pattern to be applied to one or more groups of the plurality of memories ; a first group of local comparators , each local comparator of the first group of local comparators being associated with a respective one of a first group of the plurality of memories , the first group of the plurality of memories including at least two memories ; and a first shared local delay response generator , coupled to receive the test data pattern from the first controller and coupled to each of the first group of local comparators , for simultaneously applying an expected data response corresponding to the test data pattern to the first group of local comparators after a first selected delay; a second group of local comparators , each local comparator of the second group of local comparators being associated with a respective one of a second group of the plurality of memories ; and a second shared local delay response generator , coupled to receive the test data pattern from the first controller and coupled to each of the second group of local comparators , for simultaneously applying an expected data response corresponding to the test data pattern to the second group of local comparators after a second selected delay. a first controller for generating a test data pattern to be applied to one or more groups of the plurality of memories ; a first group of local comparators , each local comparator of the first group of local comparators being associated with a respective one of a first group of the plurality of memories , the first group of the plurality of memories including at least two memories ; and a first shared local delay response generator , coupled to receive the test data pattern from the first controller and coupled to each of the first group of local comparators , for simultaneously applying an expected data response corresponding to the test data pattern to the first group of local comparators after a first selected delay; a second group of local comparators , each local comparator of the second group of local comparators being associated with a respective one of a second group of the plurality of memories ; and a second shared local delay response generator , coupled to receive the test data pattern from the first controller and coupled to each of the second group of local comparators , for simultaneously applying an expected data response corresponding to the test data pattern to the second group of local comparators after a second selected delay.
Auxiliary transport device for pallets which have a loading base which is oriented substantially horizontally during transport, comprising - a support device which extend substantially in the vertical direction during transport and has at least one support member which extends substantially in the vertical direction during transport, wherein the support member has an L-shaped cross section with a first and a second leg; - a connecting device which connects this support device to at least one first, in particular lower, pallet and has two horizontal support surfaces , and - a holding device which is connected to this support device and is provided to hold at least one second pallet at a vertical distance from this at least one first pallet , wherein the connecting device has a connecting means which is designed as a force transmission piece with a boundary surface , and wherein the force transmission piece is connected to the first leg of the L-shaped support member , and the boundary surface has a predetermined distance from the second leg of the same support member , characterized in that the force transmission piece is substantially plate-shaped in form and has a first and second leg for forming the two horizontal support surfaces , wherein the second leg extends in particular at a right angle to the first leg and in the mounted state substantially parallel to the loading base of the pallet within one of its recesses, with the result that a lifting means, which is guided into this recess to lift the first pallet, simultaneously lifts the force transmission piece. - a support device which extend substantially in the vertical direction during transport and has at least one support member which extends substantially in the vertical direction during transport, wherein the support member has an L-shaped cross section with a first and a second leg; - a connecting device which connects this support device to at least one first, in particular lower, pallet and has two horizontal support surfaces , and - a holding device which is connected to this support device and is provided to hold at least one second pallet at a vertical distance from this at least one first pallet ,
A non-hydroxylic-solvent soluble silver complex comprising: a reducible silver ion complexed with an α-oxy carboxylate and a primary alkylamine, the non-hydroxylic-solvent soluble silver complex being represented by the following formula (I): (Ag + ) a (L) b (P) c (I) wherein L represents the α-oxy carboxylate; P represents the primary alkylamine having a single nitrogen atom; a is 1 or 2; b is 1 or 2; and c is 1, 2, 3, or 4, provided that when a is 1, b is 1, and when a is 2, b is 2.
Indirect air conditioning circuit for a motor vehicle, comprising: • a first refrigerant-fluid loop (A) in which a refrigerant fluid circulates, the said first refrigerant-fluid loop (A) comprising, in the direction in which the refrigerant fluid circulates: ∘ a compressor , ∘ a first expansion device , ∘ a first heat exchanger intended to have passing through it a flow of air internal to the motor vehicle, ∘ a second expansion device , ∘ a second heat exchanger intended to have passing through it a flow of air external to the motor vehicle, and ∘ a bypass pipe bypassing the second heat exchanger , • a second heat-transfer-fluid loop (B) in which a heat-transfer fluid circulates, and • a two-fluid heat exchanger arranged jointly on the first refrigerant-fluid loop (A) downstream of the compressor , between the said compressor and the first expansion device , and on the second heat-transfer-fluid loop (B), so as to allow exchanges of heat between the first refrigerant-fluid loop (A) and the second heat-transfer-fluid loop (B), characterized in that the first refrigerant-fluid loop (A) comprises a bypass pipe for the refrigerant fluid, connecting the refrigerant-fluid outlet of the two-fluid heat exchanger to a point positioned upstream of the compressor , between the refrigerant-fluid outlet of the bypass pipe and the said compressor . • a first refrigerant-fluid loop (A) in which a refrigerant fluid circulates, the said first refrigerant-fluid loop (A) comprising, in the direction in which the refrigerant fluid circulates: ∘ a compressor , ∘ a first expansion device , ∘ a first heat exchanger intended to have passing through it a flow of air internal to the motor vehicle, ∘ a second expansion device , ∘ a second heat exchanger intended to have passing through it a flow of air external to the motor vehicle, and ∘ a bypass pipe bypassing the second heat exchanger , ∘ a compressor , ∘ a first expansion device , ∘ a first heat exchanger intended to have passing through it a flow of air internal to the motor vehicle, ∘ a second expansion device , ∘ a second heat exchanger intended to have passing through it a flow of air external to the motor vehicle, and ∘ a bypass pipe bypassing the second heat exchanger , • a second heat-transfer-fluid loop (B) in which a heat-transfer fluid circulates, and • a two-fluid heat exchanger arranged jointly on the first refrigerant-fluid loop (A) downstream of the compressor , between the said compressor and the first expansion device , and on the second heat-transfer-fluid loop (B), so as to allow exchanges of heat between the first refrigerant-fluid loop (A) and the second heat-transfer-fluid loop (B), characterized in that the first refrigerant-fluid loop (A) comprises a bypass pipe for the refrigerant fluid, connecting the refrigerant-fluid outlet of the two-fluid heat exchanger to a point positioned upstream of the compressor , between the refrigerant-fluid outlet of the bypass pipe and the said compressor .