mhurhangee/patent-ind-claim-en huggingface dataset:
A blower comprising: a housing having a perimeter at least partially defining a chamber , the chamber defining a channel region extending along the perimeter to an outlet of the housing and having a cross-sectional shape with an axial height ; and an impeller driven about a rotational axis to generate an air flow within the chamber, the impeller having a first axial end , an opposite, second axial end , and a periphery, the impeller defining a first airflow path having a first axial inlet proximate the first axial end and open in a first axial direction and a first radial outlet extending about the periphery and open in a substantially radial direction, the impeller defining a second airflow path separate from the first airflow path, the second airflow path having a second axial inlet proximate a second axial end and open in an opposite, second axial direction and a second radial outlet extending along the periphery of the impeller in a substantially radial direction; wherein the housing defines a chamber inlet communicating with the first radial outlet and the second radial outlet, characterized in that the chamber inlet is completely on one side of a midpoint of the axial height of the channel region. a housing having a perimeter at least partially defining a chamber , the chamber defining a channel region extending along the perimeter to an outlet of the housing and having a cross-sectional shape with an axial height ; and an impeller driven about a rotational axis to generate an air flow within the chamber, the impeller having a first axial end , an opposite, second axial end , and a periphery, the impeller defining a first airflow path having a first axial inlet proximate the first axial end and open in a first axial direction and a first radial outlet extending about the periphery and open in a substantially radial direction, the impeller defining a second airflow path separate from the first airflow path, the second airflow path having a second axial inlet proximate a second axial end and open in an opposite, second axial direction and a second radial outlet extending along the periphery of the impeller in a substantially radial direction; wherein the housing defines a chamber inlet communicating with the first radial outlet and the second radial outlet, characterized in that the chamber inlet is completely on one side of a midpoint of the axial height of the channel region.
A progressive multifocal contact lens having a distance portion for aiding a far vision, a near portion for aiding a near vision, and an intermediate portion in which a power is changed progressively between the distance portion and the near portion , in a lens optical region , wherein said distance portion , said intermediate portion , and said near portion are arranged sequentially from one end to another end along a prescribed direction of said lens optical region ; characterized in that said prescribed direction is a vertical direction of an eye during wearing the progressive multifocal contact lens; and a power distribution of said lens optical region along said prescribed direction is set according to the following formula ; [Formula 1] PowerDist = P − Power + Max − Add π tan − 1 Wave Bnf X − Wave + tan − 1 Wave wherein each symbol in the formula is defined as follows: PowerDist: power distribution (unit: D (diopter)); P-Power: power (unit: D) at one end point of the lens optical region ; Max-Add: power difference (unit: D) between one end point and the other end point of the lens optical region ; Bnf: distance (unit: mm) from one end point of the lens optical region to a boundary between a distance power of the distance portion and a near power of the near portion ; Wave: power variation coefficient (wave degree); x: distance (unit: mm) from one end point of the lens optical region ; -25D ≤ P-Power ≤ +25D; ±0D < Max-Add ≤+8D; 0.5 mm ≤ Bnf ≤ 7 mm; and 1 ≤ Wave ≤ 8. PowerDist: power distribution (unit: D (diopter)); P-Power: power (unit: D) at one end point of the lens optical region ; Max-Add: power difference (unit: D) between one end point and the other end point of the lens optical region ; Bnf: distance (unit: mm) from one end point of the lens optical region to a boundary between a distance power of the distance portion and a near power of the near portion ; Wave: power variation coefficient (wave degree); x: distance (unit: mm) from one end point of the lens optical region ; -25D ≤ P-Power ≤ +25D; ±0D < Max-Add ≤+8D; 0.5 mm ≤ Bnf ≤ 7 mm; and 1 ≤ Wave ≤ 8.
Device for reshaping the gable surfaces of packages with a slanted gable, comprising: - a conveyor apparatus with cells fastened thereto for receiving the packages and for transporting the packages along a transport direction (T), - at least one gable folder for folding a fin seam in the gable region of the packages and - at least two ear folders for folding ears in the gable region of the packages , - wherein both the gable folder and the ear folders are mounted in a movable manner relative to the conveyor apparatus and the packages transported therewith, characterised by at least one forming tool for reshaping the fin seam in the gable region of the packages , wherein the forming tool is mounted in a movable manner relative to the conveyor apparatus and the packages transported therewith. - a conveyor apparatus with cells fastened thereto for receiving the packages and for transporting the packages along a transport direction (T), - at least one gable folder for folding a fin seam in the gable region of the packages and - at least two ear folders for folding ears in the gable region of the packages , - wherein both the gable folder and the ear folders are mounted in a movable manner relative to the conveyor apparatus and the packages transported therewith,
A method of uplink leveling a communication path in a distributed antenna system , the method comprising: calibrating measurements of a signal measurement receiver that is communicatively coupled to a communication path with a point of interface; generating at least one test signal of a select frequency and power level in an uplink direction of the communication path; measuring the power level of the at least one test signal with the signal measurement receiver at the select frequency; determining a gain adjustment based at least on the calibration of measurements of the signal measurement receiver and the measured power level of the at least one test signal with the signal measurement receiver ; and leveling the communication path based on the determined gain adjustments. calibrating measurements of a signal measurement receiver that is communicatively coupled to a communication path with a point of interface; generating at least one test signal of a select frequency and power level in an uplink direction of the communication path; measuring the power level of the at least one test signal with the signal measurement receiver at the select frequency; determining a gain adjustment based at least on the calibration of measurements of the signal measurement receiver and the measured power level of the at least one test signal with the signal measurement receiver ; and leveling the communication path based on the determined gain adjustments.
A terminal, characterized by comprising: a first detecting module , configured to detect whether an overall coupling capacitance between the terminal and a second terminal is less than a predetermined value; an adjusting module , configured to, when it is detected that the overall coupling capacitance between the terminal and the second terminal is less than the predetermined value, adjust an electrical connection of a driving channel (Y1-Yn) and/or a sensing channel (X1-Xm) of the terminal , to adjust the overall coupling capacitance between the terminal and the second terminal ; and an establishing module , configured to establish capacitive communication between the terminal and the second terminal when it is detected that the overall coupling capacitance between the terminal and the second terminal is greater than or equal to the predetermined value. a first detecting module , configured to detect whether an overall coupling capacitance between the terminal and a second terminal is less than a predetermined value; an adjusting module , configured to, when it is detected that the overall coupling capacitance between the terminal and the second terminal is less than the predetermined value, adjust an electrical connection of a driving channel (Y1-Yn) and/or a sensing channel (X1-Xm) of the terminal , to adjust the overall coupling capacitance between the terminal and the second terminal ; and an establishing module , configured to establish capacitive communication between the terminal and the second terminal when it is detected that the overall coupling capacitance between the terminal and the second terminal is greater than or equal to the predetermined value.
A brake lift ring system (1.0) for transmitting a brake lift effected by a driver to a brake system of a vehicle, the vehicle comprising a vehicle frame (2.0), and the brake lift ring system comprises a brake lift ring (3.0) which is arranged to be pulled in the direction of a steering wheel (2.1) by a driver of the vehicle, the brake lift ring (3.0) being arranged about a handlebar axis (2.2), wherein the brake lift ring (3.0) is connected or connectable to a brake lift ring guide structure (3.1), wherein the brake lift ring guide structure (3.1) is axially displaceable along the handlebar axis (2.2) and radially rotatable about the handlebar axis (2.2), wherein the brake lift ring guide structure (3.1) is connected or connectable to a decoupler (4.0), the decoupler comprising a first decoupler half (4.1) which is oriented proximally to the steering wheel (2.1) and a second decoupler half (4.2) which is oriented distally to the steering wheel (2.1), characterized in that the decoupler (4.0) is configured so that a radial rotation exerted on the first decoupler half (4.1) is not transmitted to the second decoupler half (4.2), while an axial shift is transmitted. the brake lift ring system comprises a brake lift ring (3.0) which is arranged to be pulled in the direction of a steering wheel (2.1) by a driver of the vehicle, the brake lift ring (3.0) being arranged about a handlebar axis (2.2), wherein the brake lift ring (3.0) is connected or connectable to a brake lift ring guide structure (3.1), wherein the brake lift ring guide structure (3.1) is axially displaceable along the handlebar axis (2.2) and radially rotatable about the handlebar axis (2.2), wherein the brake lift ring guide structure (3.1) is connected or connectable to a decoupler (4.0), the decoupler comprising a first decoupler half (4.1) which is oriented proximally to the steering wheel (2.1) and a second decoupler half (4.2) which is oriented distally to the steering wheel (2.1), characterized in that the decoupler (4.0) is configured so that a radial rotation exerted on the first decoupler half (4.1) is not transmitted to the second decoupler half (4.2), while an axial shift is transmitted.
A method comprising: generating a first trace request at an initiator node configured for segment routing, said first trace request comprising a query for FEC, Forwarding Equivalence Class, information; transmitting said first trace request on a path comprising at least one node wherein FEC information for the node are unknown by the initiator node; receiving a response to said first trace request comprising the FEC information to be used to fill in a target FEC stack; inserting, at the initiator node, the FEC information into a second trace request for use in verifying connectivity; transmitting the second trace request with the FEC information; and receiving a response to said second trace request providing FEC validation. generating a first trace request at an initiator node configured for segment routing, said first trace request comprising a query for FEC, Forwarding Equivalence Class, information; transmitting said first trace request on a path comprising at least one node wherein FEC information for the node are unknown by the initiator node; receiving a response to said first trace request comprising the FEC information to be used to fill in a target FEC stack; inserting, at the initiator node, the FEC information into a second trace request for use in verifying connectivity; transmitting the second trace request with the FEC information; and receiving a response to said second trace request providing FEC validation.
A cooling apparatus for a charged particle beam device, the cooling apparatus comprising: a primary storage container that has a primary storage space which stores a liquid coolant; a secondary storage container that surrounds the primary storage container ; a secondary storage space being the gap between the primary storage container and the secondary storage container , wherein the secondary storage space is arranged to store a vaporized coolant generated by vaporization of the liquid coolant in the primary storage container , the vaporized coolant flowing through an upper opening of the primary container into the secondary storage space ; a housing that houses the primary storage container and the secondary storage container ; and a heat conductive member that is connected to the primary storage container and arranged to transfer heat to cool a sample which is irradiated with a charged particle beam, and an introduction pipe that is arranged to introduce the liquid coolant to the primary storage space , wherein a level of a lower end opening of the introduction pipe is lower than a level of the upper opening of the primary storage container so that the entrance of the liquid coolant into the secondary storage container can be prevented. a primary storage container that has a primary storage space which stores a liquid coolant; a secondary storage container that surrounds the primary storage container ; a secondary storage space being the gap between the primary storage container and the secondary storage container , wherein the secondary storage space is arranged to store a vaporized coolant generated by vaporization of the liquid coolant in the primary storage container , the vaporized coolant flowing through an upper opening of the primary container into the secondary storage space ; a housing that houses the primary storage container and the secondary storage container ; and a heat conductive member that is connected to the primary storage container and arranged to transfer heat to cool a sample which is irradiated with a charged particle beam, and an introduction pipe that is arranged to introduce the liquid coolant to the primary storage space , wherein a level of a lower end opening of the introduction pipe is lower than a level of the upper opening of the primary storage container so that the entrance of the liquid coolant into the secondary storage container can be prevented.
Method for updating a characteristic curve in a heating system , wherein at least two updating points along the characteristic curve are recorded and the characteristic curve is newly determined in dependence on the at least two updating points , characterized in that the at least two updating points are recorded in a closed loop mode .
A method of forming a monolithic aircraft structure having multiple aerodynamic surfaces, the method comprising steps of: forming a body component to have a body skin , defining a body skin outer surface , and a body side wall , integrally formed with the body skin and defining a body mating surface , the body skin outer surface providing a first aerodynamic surface, the body component comprising at least one stiffener integrally formed with the body skin and the body side wall and defining a stiffener mating surface , the at least one stiffener comprising bosses , forming a portion of the stiffener mating surface ; forming a cover component to have a cover mating surface and a cover outer surface , opposite the cover mating surface , the cover outer surface defining a second aerodynamic surface, the cover component comprising sockets , each sized to receive a portion of a corresponding one of the bosses ; positioning the body component relative to the cover component so that the body mating surface engages the cover mating surface and the bosses are received in the sockets ; friction stir welding at least portions of the cover mating surface to the body mating surface to form friction stir welded joints between the body component and the cover component ; and friction stir welding at least a portion of the stiffener mating surface to the cover mating surface so that an additional friction stir welded joint is formed between the body component and the cover component , wherein the bosses are friction stir welded to the cover mating surface . forming a body component to have a body skin , defining a body skin outer surface , and a body side wall , integrally formed with the body skin and defining a body mating surface , the body skin outer surface providing a first aerodynamic surface, the body component comprising at least one stiffener integrally formed with the body skin and the body side wall and defining a stiffener mating surface , the at least one stiffener comprising bosses , forming a portion of the stiffener mating surface ; forming a cover component to have a cover mating surface and a cover outer surface , opposite the cover mating surface , the cover outer surface defining a second aerodynamic surface, the cover component comprising sockets , each sized to receive a portion of a corresponding one of the bosses ; positioning the body component relative to the cover component so that the body mating surface engages the cover mating surface and the bosses are received in the sockets ; friction stir welding at least portions of the cover mating surface to the body mating surface to form friction stir welded joints between the body component and the cover component ; and friction stir welding at least a portion of the stiffener mating surface to the cover mating surface so that an additional friction stir welded joint is formed between the body component and the cover component , wherein the bosses are friction stir welded to the cover mating surface .
An outdoor unit of an air conditioner , comprising: an outdoor heat exchanger provided with a plurality of refrigerant paths (23a to 23g), including a flow rate-variable refrigerant path (23a to 23c) with a flow rate balancer, and including refrigerant paths (23d to 23g) without a flow rate balancer; an ambient air temperature detector that detects an ambient air temperature; and a controller ; characterized in that the controller is adapted to decrease a flow rate of a refrigerant flowing into the flow rate-variable refrigerant path (23a to 23c) in a case where the ambient air temperature detected by the ambient air temperature detector is equal to or higher than a threshold ambient air temperature as compared to a case where the ambient air temperature is lower than the threshold ambient air temperature, when the outdoor heat exchanger serves as an evaporator. an outdoor heat exchanger provided with a plurality of refrigerant paths (23a to 23g), including a flow rate-variable refrigerant path (23a to 23c) with a flow rate balancer, and including refrigerant paths (23d to 23g) without a flow rate balancer; an ambient air temperature detector that detects an ambient air temperature; and a controller ; characterized in that the controller is adapted to decrease a flow rate of a refrigerant flowing into the flow rate-variable refrigerant path (23a to 23c) in a case where the ambient air temperature detected by the ambient air temperature detector is equal to or higher than a threshold ambient air temperature as compared to a case where the ambient air temperature is lower than the threshold ambient air temperature, when the outdoor heat exchanger serves as an evaporator.
A base station (101; 102; 103) operable to receive an uplink signal transmitted by a subscriber station (111; 112; 113; 114; 115; 116) in a wireless network configured to communicate with a plurality of subscriber stations according to a multi-carrier protocol, the subscriber station configured to transmit in the uplink using a configurable spectral shaping filter and using a plurality of selectable modulation orders, wherein the base station (101; 102; 103) is configured to: determine a required bandwidth efficiency associated with the subscriber station; and select a modulation order and a spectral shaping filter parameter to be used by the subscriber station (111; 112; 113; 114; 115; 116) to transmit in the uplink, wherein the base station (101; 102; 103) selects the modulation order and the spectral shaping filter parameter from a look-up table based on a power efficiency of the subscriber station (111; 112; 113; 114; 115; 116) while meeting the required bandwidth efficiency. determine a required bandwidth efficiency associated with the subscriber station; and select a modulation order and a spectral shaping filter parameter to be used by the subscriber station (111; 112; 113; 114; 115; 116) to transmit in the uplink, wherein the base station (101; 102; 103) selects the modulation order and the spectral shaping filter parameter from a look-up table based on a power efficiency of the subscriber station (111; 112; 113; 114; 115; 116) while meeting the required bandwidth efficiency.
A cooking apparatus comprising: a cooking chamber for cooking a food product therein; an air delivery and circulation device comprising a duct member mounted in the cooking chamber, the duct member comprising an airflow inlet for receiving heated air and at least one opening into the cooking chamber , in which the duct member is operable to channel the heated air from the airflow inlet to each opening , characterised in that an aerofoil shaped extension member projects externally from the duct member into the cooking chamber at or adjacent to each opening , in which each aerofoil shaped extension member comprises a pair of spaced apart extension member wings and each wing has aerofoil shaped profile, in which each extension member wing comprises a top surface and a bottom surface, and the top surface of each extension member wing is profiled with an aerofoil shape such that the top surfaces of the pair of extension member wings when arranged at or adjacent an opening together define a substantially arc-like or curve-like profiled surface, and whereby each aerofoil shaped extension member is operable to direct streams of heated air from the opening between the extension member wings into the cooking chamber to thereby heat or cook a food product in the cooking chamber . a cooking chamber for cooking a food product therein; an air delivery and circulation device comprising a duct member mounted in the cooking chamber, the duct member comprising an airflow inlet for receiving heated air and at least one opening into the cooking chamber , in which the duct member is operable to channel the heated air from the airflow inlet to each opening , characterised in that an aerofoil shaped extension member projects externally from the duct member into the cooking chamber at or adjacent to each opening , in which each aerofoil shaped extension member comprises a pair of spaced apart extension member wings and each wing has aerofoil shaped profile, in which each extension member wing comprises a top surface and a bottom surface, and the top surface of each extension member wing is profiled with an aerofoil shape such that the top surfaces of the pair of extension member wings when arranged at or adjacent an opening together define a substantially arc-like or curve-like profiled surface, and whereby each aerofoil shaped extension member is operable to direct streams of heated air from the opening between the extension member wings into the cooking chamber to thereby heat or cook a food product in the cooking chamber .