mhurhangee/patent-ind-claim-en huggingface dataset:
A cooking device, comprising: a heating unit ; and an oil discharge roast pan mounted on the heating unit to be heated up by the heating unit , the oil discharge roast pan comprising a pan body , a plurality of oil discharge holes extending through top and bottom surfaces of the pan body , and a plurality of protrusions protruding downwardly from the bottom surface , the pan body including a plurality of food support portions which are spaced apart from each other to cooperatively define the oil discharge holes , the protrusions being disposed under the food support portions , each of the protrusions tapering downwardly from the bottom surface , the cooking device being characterized in that each of the protrusions of said oil discharge roast pan has a shape selected from a hemispherical shape, a conical shape, and a pyramidal shape. a heating unit ; and an oil discharge roast pan mounted on the heating unit to be heated up by the heating unit , the oil discharge roast pan comprising a pan body , a plurality of oil discharge holes extending through top and bottom surfaces of the pan body , and a plurality of protrusions protruding downwardly from the bottom surface , the pan body including a plurality of food support portions which are spaced apart from each other to cooperatively define the oil discharge holes , the protrusions being disposed under the food support portions , each of the protrusions tapering downwardly from the bottom surface , the cooking device being characterized in that each of the protrusions of said oil discharge roast pan has a shape selected from a hemispherical shape, a conical shape, and a pyramidal shape.
Rotor blade for a turbine stage or compressor stage of a gas turbine, comprising an airfoil and a radially outer shroud , a wall thickness of the shroud at at least one edge point (PR) of the shroud, the connecting line (V) of which edge point to the contour point includes an angle (σ) of at most 15° together with a normal (N) which is perpendicular to the outer contour of the profile cross section at the contour point, being smaller than a wall thickness of the shroud at the contour point for at least one contour point (PK) of an outer contour of a profile cross section (P) of the airfoil at a radially outer gas channel boundary, the wall thickness of the shroud decreasing strictly monotonically along the connecting line, at least one end face of the shroud in the circumferential direction having at least one cam having an uppermost cam point (O) in the circumferential direction and at least one groove having a lowermost groove point (U) in the circumferential direction, characterized in that the wall thickness at at least one edge point between the cam and the groove and at at least one edge point on a side of the cam facing away from the groove and at at least one edge point on a side of the groove facing away from the cam is smaller than at the cam point and/or groove point.
A method for processing a temporal envelope of an audio signal, comprising: obtaining a low-band signal of a current frame signal and a high-band signal of the current frame signal according to the received current frame signal; encoding the low-band signal of the current frame signal, to obtain a low-band encoded excitation signal; performing linear prediction on the high-band signal of the current frame signal, to obtain a linear prediction coefficient; quantizing the linear prediction coefficient, to obtain a quantized linear prediction coefficient; obtaining a predicted high-band signal according to the low-band encoded excitation signal and the quantized linear prediction coefficient; dividing the predicted high-band signal of the current frame into eight subframes; and calculating and quantizing a temporal envelope of each of the subframes, and encoding the quantized temporal envelopes; wherein the calculating a temporal envelope of each of the subframes comprises: performing windowing on the first subframe of the eight subframes and the last subframe of the eight subframes by using an asymmetric window function; and performing windowing on the subframes except the first subframe and the last subframe of the eight subframes by using a symmetric window function. obtaining a low-band signal of a current frame signal and a high-band signal of the current frame signal according to the received current frame signal; encoding the low-band signal of the current frame signal, to obtain a low-band encoded excitation signal; performing linear prediction on the high-band signal of the current frame signal, to obtain a linear prediction coefficient; quantizing the linear prediction coefficient, to obtain a quantized linear prediction coefficient; obtaining a predicted high-band signal according to the low-band encoded excitation signal and the quantized linear prediction coefficient; dividing the predicted high-band signal of the current frame into eight subframes; and calculating and quantizing a temporal envelope of each of the subframes, and encoding the quantized temporal envelopes; wherein the calculating a temporal envelope of each of the subframes comprises: performing windowing on the first subframe of the eight subframes and the last subframe of the eight subframes by using an asymmetric window function; and performing windowing on the subframes except the first subframe and the last subframe of the eight subframes by using a symmetric window function. performing windowing on the first subframe of the eight subframes and the last subframe of the eight subframes by using an asymmetric window function; and performing windowing on the subframes except the first subframe and the last subframe of the eight subframes by using a symmetric window function.
A method of preparing a chlorinated alkane product comprising, reacting a chlorinated alkane substrate with a source of chlorine in the presence of a polyvalent molybdenum compound, thereby forming a product comprising said chlorinated alkane product, wherein said chlorinated alkane product has covalently bonded thereto at least one more chlorine group than said chlorinated alkane substrate, and said chlorinated alkane substrate and said chlorinated alkane product each have a carbon backbone structure that is in each case the same, wherein said polyvalent molybdenum compound comprises molybdenum pentachloride. reacting a chlorinated alkane substrate with a source of chlorine in the presence of a polyvalent molybdenum compound, thereby forming a product comprising said chlorinated alkane product, wherein said chlorinated alkane product has covalently bonded thereto at least one more chlorine group than said chlorinated alkane substrate, and said chlorinated alkane substrate and said chlorinated alkane product each have a carbon backbone structure that is in each case the same, wherein said polyvalent molybdenum compound comprises molybdenum pentachloride.
A humanized cys-diabody that binds to CD8 and comprises: a variable heavy (V H ) domain of SEQ ID NO: 48; and a variable light (V L ) domain of SEQ ID NO: 42. a variable heavy (V H ) domain of SEQ ID NO: 48; and a variable light (V L ) domain of SEQ ID NO: 42.
A fuel system , comprising: a fuel system frame comprising a frame rail connection portion and a tank end support portion , the frame rail connection portion extending along a longitudinal direction, and the tank end support portion extending across a diameter of a fuel tank and comprising a support surface configured to receive a boss of the fuel tank , the frame rail connection portion comprising a first position and a second position spaced apart from the first position at a different longitudinal position; a first bracket configured to connect to the frame rail connection portion of the fuel system frame at the first position or at the second position to support the fuel system frame from either the first position or the second position ; and a second bracket having a first portion configured to mate with the first bracket and a second portion configured to connect to a vehicle frame rail . a fuel system frame comprising a frame rail connection portion and a tank end support portion , the frame rail connection portion extending along a longitudinal direction, and the tank end support portion extending across a diameter of a fuel tank and comprising a support surface configured to receive a boss of the fuel tank , the frame rail connection portion comprising a first position and a second position spaced apart from the first position at a different longitudinal position; a first bracket configured to connect to the frame rail connection portion of the fuel system frame at the first position or at the second position to support the fuel system frame from either the first position or the second position ; and a second bracket having a first portion configured to mate with the first bracket and a second portion configured to connect to a vehicle frame rail .
A communication method for implementing a dual connection between a terminal device and a first access network device and between the terminal device and a second network device, comprising: receiving (S301), by the first access network device, a first message sent by the terminal device, wherein the first message comprises information about a network slice corresponding to a session to be established by the terminal device and information about channel quality of at least one measured cell, and the first access network device does not support the network slice corresponding to the session; and determining (S302), by the first access network device, the second access network device configured to connect to the terminal device, wherein the second access network device supports the network slice corresponding to the session. receiving (S301), by the first access network device, a first message sent by the terminal device, wherein the first message comprises information about a network slice corresponding to a session to be established by the terminal device and information about channel quality of at least one measured cell, and the first access network device does not support the network slice corresponding to the session; and determining (S302), by the first access network device, the second access network device configured to connect to the terminal device, wherein the second access network device supports the network slice corresponding to the session.
A method for controlling a valve for a turbine system , the method comprising: providing a valve comprising an electric motor actuator configured to move a valve member between an open valve position and a closed valve position; moving, by the electric motor actuator and at a first valve closure rate, the valve member away from the open valve position and toward a threshold valve position that is away from the closed valve position to reduce or prevent hard collisions between the valve member and a valve seat under expected operational conditions; measuring, by a position sensor , the valve member position; moving, by the electric motor actuator and at a second valve closure rate, the valve member from the threshold valve position toward the closed valve position, wherein the closed position is a fully closed position, and wherein the second valve closure rate is less than the first valve closure rate, and wherein the threshold valve position is based on a variability in the location of the fully closed valve position relative to the valve member, wherein the variability is determined based on at least one of 1) a collection of manufacturing tolerances for the valve, 2) a collection of coefficients of thermal expansion for the valve, or 3) a collection of wear characteristics for the valve. providing a valve comprising an electric motor actuator configured to move a valve member between an open valve position and a closed valve position; moving, by the electric motor actuator and at a first valve closure rate, the valve member away from the open valve position and toward a threshold valve position that is away from the closed valve position to reduce or prevent hard collisions between the valve member and a valve seat under expected operational conditions; measuring, by a position sensor , the valve member position; moving, by the electric motor actuator and at a second valve closure rate, the valve member from the threshold valve position toward the closed valve position, wherein the closed position is a fully closed position, and wherein the second valve closure rate is less than the first valve closure rate, and wherein the threshold valve position is based on a variability in the location of the fully closed valve position relative to the valve member, wherein the variability is determined based on at least one of 1) a collection of manufacturing tolerances for the valve, 2) a collection of coefficients of thermal expansion for the valve, or 3) a collection of wear characteristics for the valve.
A method for fabricating a hollow object in a powder bed , comprising the steps of: (a) irradiating a layer of powder in the powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed ; (c) repeating steps (a) and (b) until the object and at least one support structure is formed in the powder bed , wherein the support structure comprises a weakened portion and the formed object comprises an outlet ; and (d) breaking the removable support structure at the weakened portion into at least two parts; wherein the support structure is capable of passing through the outlet after breaking the support structure via the weakened portion ; wherein the support structure is within the object along the direction of a recoater arm of a system for direct metal laser sintering (DMLS) or direct metal laser melting (DMI,M) used for carrying out steps (a) - (c); wherein the support structure is incapable of passing through the outlet prior to breaking the support structure via the weakened portion ; further comprising: (e) removing at least one of the at least two parts of the support structure from the object by passing the support structure through the outlet of the object . (a) irradiating a layer of powder in the powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed ; (c) repeating steps (a) and (b) until the object and at least one support structure is formed in the powder bed , wherein the support structure comprises a weakened portion and the formed object comprises an outlet ; and (d) breaking the removable support structure at the weakened portion into at least two parts; wherein the support structure is capable of passing through the outlet after breaking the support structure via the weakened portion ; wherein the support structure is within the object along the direction of a recoater arm of a system for direct metal laser sintering (DMLS) or direct metal laser melting (DMI,M) used for carrying out steps (a) - (c); wherein the support structure is incapable of passing through the outlet prior to breaking the support structure via the weakened portion ; further comprising: (e) removing at least one of the at least two parts of the support structure from the object by passing the support structure through the outlet of the object . the support structure is capable of passing through the outlet after breaking the support structure via the weakened portion ; wherein the support structure is within the object along the direction of a recoater arm of a system for direct metal laser sintering (DMLS) or direct metal laser melting (DMI,M) used for carrying out steps (a) - (c); wherein the support structure is incapable of passing through the outlet prior to breaking the support structure via the weakened portion ; further comprising: (e) removing at least one of the at least two parts of the support structure from the object by passing the support structure through the outlet of the object .
A long term evolution, LTE, relay node configured to: receive a first medium access control packet data unit, MAC PDU, from an LTE eNodeB, the relay node comprising a first hybrid automatic repeat request, HARQ, entity configured to perform HARQ functionality with respect to the first MAC PDU; and receive a second MAC PDU from an LTE user equipment, UE, the relay node comprising a second HARQ entity configured to perform HARQ functionality with respect to the second MAC PDU, wherein the LTE relay node is further configured to perform a cyclic redundant check, CRC, on the first MAC PDU and to transmit a non-acknowledgement/acknowledgement, NACK/ACK, signal to the LTE eNodeB, and wherein the LTE relay node is configured to avoid transmitting the first MAC PDU to the LTE UE unless the first MAC PDU is free of errors when received from the LTE eNodeB, wherein the LTE relay node is configured to break apart the first MAC PDU and/or the second MAC PDU to create smaller transport block sizes, TBS, and wherein transport block size depends on radio conditions. receive a first medium access control packet data unit, MAC PDU, from an LTE eNodeB, the relay node comprising a first hybrid automatic repeat request, HARQ, entity configured to perform HARQ functionality with respect to the first MAC PDU; and receive a second MAC PDU from an LTE user equipment, UE, the relay node comprising a second HARQ entity configured to perform HARQ functionality with respect to the second MAC PDU, wherein the LTE relay node is further configured to perform a cyclic redundant check, CRC, on the first MAC PDU and to transmit a non-acknowledgement/acknowledgement, NACK/ACK, signal to the LTE eNodeB, and wherein the LTE relay node is configured to avoid transmitting the first MAC PDU to the LTE UE unless the first MAC PDU is free of errors when received from the LTE eNodeB, wherein the LTE relay node is configured to break apart the first MAC PDU and/or the second MAC PDU to create smaller transport block sizes, TBS, and wherein transport block size depends on radio conditions.
A pharmaceutical composition for use in preventing or treating an interleukin-6 (IL-6)-mediated disease, comprising a Rosa rugosa Thunberg flower water or ethanol extract as an active ingredient, wherein the IL-6-mediated disease is osteoporosis, inflammatory bowel disease, or atopic dermatitis.
Combination of a liquid tank and a suction pipe , wherein the liquid tank comprises an outlet , wherein the outlet comprises a shut-off valve , and where the suction pipe is arranged within the liquid tank , wherein the suction pipe comprises a suction end and a connection end , and wherein the connection end of the suction pipe is connected to the outlet of the liquid tank , characterized in that, a relief valve is arranged in the wall of the suction pipe and adjacent to the connection end .
A fault tolerant synchronous rectifier PWM regulator system comprising: a force commutated synchronous rectifier (S1,100) operable to be coupled to an electrical bus ; a low side switch (Q1) operable to be coupled to a common ground ; a first fuse (F1) coupled to the force commutated synchronous rectifier and the low side switch, and operable to open in response to a first fault; an inductor (L1) coupled to the first fuse, the force commutated synchronous rectifier, and the low side switch; a second fuse (F2) coupled to the inductor and operable to be coupled to a current source 'Isp', and operable to open in response to a second fault; and a bypass rectifier (CR1) coupled to the second fuse, the electrical bus and the force commutated synchronous rectifier, and operable to be coupled to the current source, wherein the bypass rectifier is operable to bypass current from the current source to the electrical bus if the second fuse is open. a force commutated synchronous rectifier (S1,100) operable to be coupled to an electrical bus ; a low side switch (Q1) operable to be coupled to a common ground ; a first fuse (F1) coupled to the force commutated synchronous rectifier and the low side switch, and operable to open in response to a first fault; an inductor (L1) coupled to the first fuse, the force commutated synchronous rectifier, and the low side switch; a second fuse (F2) coupled to the inductor and operable to be coupled to a current source 'Isp', and operable to open in response to a second fault; and a bypass rectifier (CR1) coupled to the second fuse, the electrical bus and the force commutated synchronous rectifier, and operable to be coupled to the current source, wherein the bypass rectifier is operable to bypass current from the current source to the electrical bus if the second fuse is open.
Facilities for offshore liquefied natural gas (LNG) floating storage with jack-up platform regasification unit, the facilities comprising: a jack-up unit comprising legs having bottom portions that are fixable to a sea bed and top portions exposed to a surface of water, and a hull movable up and down with respect to the legs , a storage unit moored at the jack-up unit and providing a space for storing LNG, a regasification unit as a module for regasifying the LNG supplied from the storage unit , installed on a top portion of the hull of the jack-up unit, and separable from the jack-up unit , a utility unit comprising a power source to supply power to the regasification unit , a piping unit comprising unloading piping for connecting the regasification unit and the storage unit , and supplying piping for carrying natural gas gasified by the regasification unit , characterized in that the utility unit further comprises a sea water pump (P1) to supply sea water to the regasification unit , and the storage unit comprises a ballast water pump (P2), and the regasification unit comprises an open rack vaporizer (ORV) as a heat exchanger configured to vaporize liquefied natural gas, and the sea water pump (P1) and the ballast water pump (P2) are configured to be used simultaneously to supply sea water to the open rack vaporizer. a jack-up unit comprising legs having bottom portions that are fixable to a sea bed and top portions exposed to a surface of water, and a hull movable up and down with respect to the legs , a storage unit moored at the jack-up unit and providing a space for storing LNG, a regasification unit as a module for regasifying the LNG supplied from the storage unit , installed on a top portion of the hull of the jack-up unit, and separable from the jack-up unit , a utility unit comprising a power source to supply power to the regasification unit , a piping unit comprising unloading piping for connecting the regasification unit and the storage unit , and supplying piping for carrying natural gas gasified by the regasification unit , characterized in that the utility unit further comprises a sea water pump (P1) to supply sea water to the regasification unit , and the storage unit comprises a ballast water pump (P2), and the regasification unit comprises an open rack vaporizer (ORV) as a heat exchanger configured to vaporize liquefied natural gas, and the sea water pump (P1) and the ballast water pump (P2) are configured to be used simultaneously to supply sea water to the open rack vaporizer.