mhurhangee/patent-ind-claim-en huggingface dataset:
A method for helical milling with forward-backward feeding, comprising the following steps: S1. determining an aperture D1 of a pre-processing hole; S2. selecting a suitable tool according to a final aperture D of a through-hole to-be-processed and the aperture D1 of the pre-processing hole; S3. clamping a workpiece to-be-processed and the tool; S4. feeding the tool forward to process the pre-processing hole with the aperture D1 , and D 1 <D , until a back-end cutting section of a cutting portion of the tool extends out of an outlet side of the workpiece; and S5. adjusting an eccentricity of the tool one or more times, feeding backward from the outlet side, using the back-end cutting section of the cutting portion of the tool to perform helical milling, obtaining a through-hole with aperture D , characterized in that determining the aperture D1 of the pre-processing hole in step S1 comprises: according to the aperture D of the through-hole to-be-processed, a radial one-side maximum width K of a damage area required by processing, and a radial one-side maximum width K1 of a damage area produced by the pre-processing hole based on previous experiment data and production experience, wherein D1 satisfies: D1 < D +2× K -2×K1, and the value of D1 is determined according to the actual situation. S1. determining an aperture D1 of a pre-processing hole; S2. selecting a suitable tool according to a final aperture D of a through-hole to-be-processed and the aperture D1 of the pre-processing hole; S3. clamping a workpiece to-be-processed and the tool; S4. feeding the tool forward to process the pre-processing hole with the aperture D1 , and D 1 <D , until a back-end cutting section of a cutting portion of the tool extends out of an outlet side of the workpiece; and S5. adjusting an eccentricity of the tool one or more times, feeding backward from the outlet side, using the back-end cutting section of the cutting portion of the tool to perform helical milling, obtaining a through-hole with aperture D , characterized in that determining the aperture D1 of the pre-processing hole in step S1 comprises: according to the aperture D of the through-hole to-be-processed, a radial one-side maximum width K of a damage area required by processing, and a radial one-side maximum width K1 of a damage area produced by the pre-processing hole based on previous experiment data and production experience, wherein D1 satisfies: D1 < D +2× K -2×K1, and the value of D1 is determined according to the actual situation.
An UMLILO IncRNA inhibitor for use in a method of treating an inflammatory condition, an autoimmune disorder or cancer in a subject by decreasing the production of ELR+ proinflammatory chemokines in the subject, the method comprising administering an effective amount of the UMLILO IncRNA inhibitor to the subject, wherein the UMLILO IncRNA is encoded by the sequence provided in SEQ ID NO:1, wherein the UMLILO IncRNA inhibitor is selected from the group consisting of antisense oligonucleotides, miRNAs, siRNAs, piRNAs, snRNAs, CAS9/CRISPR, TALENS, zinc finger nucleases and BUD1 nucleases.
A mask for the delivery of breathable gases to a patient, the mask comprising a cushion and one or more restriction components , the cushion comprising a compressible gel material and having an outer perimeter and a sealing surface , the sealing surface being configured to form a seal around at least one airway of a patient in use, and the one or more restriction components extending at least partly around, or forming part of, the outer perimeter of the cushion , and reducing or limiting radial expansion or deformation of the cushion in use, characterized by the cushion comprises a first layer , a second layer , and a third layer , the first and third layers comprising the compressible gel material, and the second layer , situated between the first and third layers , comprising an inelastic or rigid material acting as the one or more restriction components , and the cushion is substantially frustoconical and a sealing end is smaller in diameter than a frame end. the cushion comprising a compressible gel material and having an outer perimeter and a sealing surface , the sealing surface being configured to form a seal around at least one airway of a patient in use, and the one or more restriction components extending at least partly around, or forming part of, the outer perimeter of the cushion , and reducing or limiting radial expansion or deformation of the cushion in use, characterized by the cushion comprises a first layer , a second layer , and a third layer , the first and third layers comprising the compressible gel material, and the second layer , situated between the first and third layers , comprising an inelastic or rigid material acting as the one or more restriction components , and the cushion is substantially frustoconical and a sealing end is smaller in diameter than a frame end.
A method for mapping the structure of an automation system on a computer , the automation system comprising at least one communication network and a plurality of devices (21 - 24) connectable thereto, comprising the steps of: generating structural information containing system-specific data and communication information, wherein the system-specific data contain information about the structure of the system, and/or the configuration and location of the system, and/or the division of the system into functional units, and/or the connected devices and their location, and/or the network used, and/or the device drivers used and/or storage locations thereof, and/or the user interface and/or storage location thereof; storing the structural information in the automation system ; connecting at least one computer to the automation system ; transferring predeterminable structural information from the automation system to the computer ; and in response to the structural information received, loading into the computer the data for mapping the structure of the automation system ; and using the computer for addressing and parameterizing and/or configuring at least one device . generating structural information containing system-specific data and communication information, wherein the system-specific data contain information about the structure of the system, and/or the configuration and location of the system, and/or the division of the system into functional units, and/or the connected devices and their location, and/or the network used, and/or the device drivers used and/or storage locations thereof, and/or the user interface and/or storage location thereof; storing the structural information in the automation system ; connecting at least one computer to the automation system ; transferring predeterminable structural information from the automation system to the computer ; and in response to the structural information received, loading into the computer the data for mapping the structure of the automation system ; and using the computer for addressing and parameterizing and/or configuring at least one device .
A method of operating a service robot of a ring spinning machine , which is displaceable along a row of spinning units of the ring spinning machine , each spinning unit comprising a spindle , wherein the service robot can be stopped at a specific spinning unit in order to perform a service operation at the spinning unit ; the method comprising the steps of • storing in a memory different sets (A, B, C) of setting parameters (e, f, g) for the service robot , which setting parameters (e, f, g) depend on yarn characteristics and characteristics of the ring spinning machine ; • choosing a specific yarn to be produced on the spinning machine ; • applying one of the sets (A, B, C) of setting parameters (e, f, g) to the service robot according to the chosen yarn to be produced and the ring spinning machine for use during the service operation; characterised by the steps of • monitoring success rate and energy consumption of the service robot and • changing at least one setting parameter (e, f, g) of the applied set (A, B, C) of parameters (e, f, g) in dependency of success rate and/or energy consumption. • storing in a memory different sets (A, B, C) of setting parameters (e, f, g) for the service robot , which setting parameters (e, f, g) depend on yarn characteristics and characteristics of the ring spinning machine ; • choosing a specific yarn to be produced on the spinning machine ; • applying one of the sets (A, B, C) of setting parameters (e, f, g) to the service robot according to the chosen yarn to be produced and the ring spinning machine for use during the service operation; characterised by the steps of • monitoring success rate and energy consumption of the service robot and • changing at least one setting parameter (e, f, g) of the applied set (A, B, C) of parameters (e, f, g) in dependency of success rate and/or energy consumption. • choosing a specific yarn to be produced on the spinning machine ; • applying one of the sets (A, B, C) of setting parameters (e, f, g) to the service robot according to the chosen yarn to be produced and the ring spinning machine for use during the service operation; characterised by the steps of • monitoring success rate and energy consumption of the service robot and • changing at least one setting parameter (e, f, g) of the applied set (A, B, C) of parameters (e, f, g) in dependency of success rate and/or energy consumption.
A flow-restricted compound spray generating device for a faucet having a spout with a spout orifice diameter , comprising: (a) a housing having a water inlet and outlet aligned along a central or spray axis , said housing defining an interior terminating distally at said outlet in a spray face member having an interior surface in fluid communication with said housing's inlet and interior and an exterior surface having a central area surrounded by a periphery defining a spray face member peripheral edge; (b) said spray face member including at least a first fluidic circuit oscillator defining geometry including an outlet orifice wherein said first fluidic circuit oscillator defining geometry is molded in-situ into the interior surface of said spray face member's central area and is configured to aim an oscillating spray having a selected oscillating spray thickness distally along the spray axis; and (c) said spray face member also including a plurality of non-oscillating laminar or jet spray generating orifices arrayed evenly around said spray face member's periphery to aim a plurality of non-oscillating laminar or jet sprays distally along an axis which is either parallel to or slightly diverging from the spray axis, wherein the plurality of non-oscillating laminar or jet sprays distally along said axes which are either parallel to or slightly diverging from the spray axis define a plurality of high velocity streams arrayed along the axes which define a ring of spray with a diameter which is substantially equal to the spout orifice diameter , and wherein the oscillating spray's oscillating spray thickness is substantially equal to the spout orifice diameter when viewed from a user's perspective, so that a compound flow is generated having an apparent outflow which has a pleasing spray density with an apparent outflow thickness which is substantially equal to or larger than the spout orifice's diameter. (a) a housing having a water inlet and outlet aligned along a central or spray axis , said housing defining an interior terminating distally at said outlet in a spray face member having an interior surface in fluid communication with said housing's inlet and interior and an exterior surface having a central area surrounded by a periphery defining a spray face member peripheral edge; (b) said spray face member including at least a first fluidic circuit oscillator defining geometry including an outlet orifice wherein said first fluidic circuit oscillator defining geometry is molded in-situ into the interior surface of said spray face member's central area and is configured to aim an oscillating spray having a selected oscillating spray thickness distally along the spray axis; and (c) said spray face member also including a plurality of non-oscillating laminar or jet spray generating orifices arrayed evenly around said spray face member's periphery to aim a plurality of non-oscillating laminar or jet sprays distally along an axis which is either parallel to or slightly diverging from the spray axis,
Subscriber station for connection to a bus line , wherein the subscriber station is configured to transmit a signal of a CAN bus system in coexistence with a signal of a further bus system via the bus line , wherein the subscriber station comprises: a receiving unit for receiving a signal (r Bus (t)) of the further bus system and for compensating for a disturbance in the received signal (r Bus (t)) that arises on account of a changing output impedance (R OUT (t)) of another subscriber station of the CAN bus system that is connected to the bus line , wherein r Bus (t) is provided by r Bus (t) = a 1 S CAN (t) + a 2 S HF (t) + a 3 S CAN (t) x S HF (t), wherein S CAN (t) is the signal of the other subscriber station connected to the bus line , s HF (t) is the signal of the subscriber station and a 1 , a 2 and a 3 are factors of the signal r Bus (t), and the signal component a 3 s CAN (t) x S HF (t) represents the disturbance, wherein the receiving unit has a determining device for determining predetermined coefficients a 1 ', a 2 ' and a 3 ' for the signal r Bus (t) received by the receiving unit , wherein the predetermined coefficients a 1 ', a 2 ' and a 3 ' are estimates of the factors a 1 , a 2 and a 3 , and wherein the receiving unit has a compensating device for compensating for the component of the received CAN signal S CAN (t) in the signal of the further bus system by using the predetermined coefficients a 1 ', a 2 ' and a 3 '. a receiving unit for receiving a signal (r Bus (t)) of the further bus system and for compensating for a disturbance in the received signal (r Bus (t)) that arises on account of a changing output impedance (R OUT (t)) of another subscriber station of the CAN bus system that is connected to the bus line , wherein r Bus (t) is provided by r Bus (t) = a 1 S CAN (t) + a 2 S HF (t) + a 3 S CAN (t) x S HF (t), wherein S CAN (t) is the signal of the other subscriber station connected to the bus line , s HF (t) is the signal of the subscriber station and a 1 , a 2 and a 3 are factors of the signal r Bus (t), and the signal component a 3 s CAN (t) x S HF (t) represents the disturbance, wherein the receiving unit has a determining device for determining predetermined coefficients a 1 ', a 2 ' and a 3 ' for the signal r Bus (t) received by the receiving unit , wherein the predetermined coefficients a 1 ', a 2 ' and a 3 ' are estimates of the factors a 1 , a 2 and a 3 , and wherein the receiving unit has a compensating device for compensating for the component of the received CAN signal S CAN (t) in the signal of the further bus system by using the predetermined coefficients a 1 ', a 2 ' and a 3 '.
A helmet adaptable to different head shapes comprising a first absorber arranged in the interior of a shell, a second absorber arranged in the interior of the first absorber , characterized by a regulator arranged between the first absorber and the second absorber wherein, when a force acts on the first absorber or the second absorber , the regulator changes the distance between the first absorber and the second absorber , wherein the regulator has a lower modulus of elasticity than the first absorber and the second absorber , and wherein the regulator has a predetermined thickness and is compressed in the thickness direction to change the distance between the first absorber and the second absorber when a force acts on the second absorber . a regulator arranged between the first absorber and the second absorber wherein, when a force acts on the first absorber or the second absorber , the regulator changes the distance between the first absorber and the second absorber , wherein the regulator has a lower modulus of elasticity than the first absorber and the second absorber , and wherein the regulator has a predetermined thickness and is compressed in the thickness direction to change the distance between the first absorber and the second absorber when a force acts on the second absorber .
A lighting apparatus with interchangeable modules, the lighting apparatus comprising: a frame ; and at least two light source modules detachably coupled to the frame , wherein the light source modules are interchangeable and each of the light source modules comprises: a board having a plurality of light emitting diodes arranged thereon; and a lens unit provided in front of the light emitting diodes to control a radiation angle of light emitted from the light emitting diodes , wherein the lens unit comprises a plurality of lenses arranged at positions corresponding to the plurality of light emitting diodes and a lens bracket securing the plurality of lenses to the board , wherein the lens bracket is detachably coupled to the board ; characterized in that the at least two light source modules are selected from a first light source module emitting light at a large radiation angle and a second light source module emitting light at a small radiation angle. a frame ; and at least two light source modules detachably coupled to the frame , wherein the light source modules are interchangeable and each of the light source modules comprises: a board having a plurality of light emitting diodes arranged thereon; and a lens unit provided in front of the light emitting diodes to control a radiation angle of light emitted from the light emitting diodes , wherein the lens unit comprises a plurality of lenses arranged at positions corresponding to the plurality of light emitting diodes and a lens bracket securing the plurality of lenses to the board , wherein the lens bracket is detachably coupled to the board ; a board having a plurality of light emitting diodes arranged thereon; and a lens unit provided in front of the light emitting diodes to control a radiation angle of light emitted from the light emitting diodes , wherein the lens unit comprises a plurality of lenses arranged at positions corresponding to the plurality of light emitting diodes and a lens bracket securing the plurality of lenses to the board , wherein the lens bracket is detachably coupled to the board ; characterized in that the at least two light source modules are selected from a first light source module emitting light at a large radiation angle and a second light source module emitting light at a small radiation angle.
A method of operation of a network node for user data traffic handling (UPF), the method comprising: receiving traffic for an application, wherein the traffic is to be sent to a logical server associated with the application, wherein the logical server resides on a network server (10.4), and wherein the application has a corresponding application function (AF); detecting that the received traffic includes an encrypted server name indication such that the associated logical server cannot be identified; requesting from the corresponding application function information identifying the application, wherein the request for information identifying the application comprises the encrypted server name indication and flow information of the received traffic; receiving the information identifying said application; and handling the traffic based on the identified application. receiving traffic for an application, wherein the traffic is to be sent to a logical server associated with the application, wherein the logical server resides on a network server (10.4), and wherein the application has a corresponding application function (AF); detecting that the received traffic includes an encrypted server name indication such that the associated logical server cannot be identified; requesting from the corresponding application function information identifying the application, wherein the request for information identifying the application comprises the encrypted server name indication and flow information of the received traffic; receiving the information identifying said application; and handling the traffic based on the identified application.
An audio system comprising: a first compensation channel configured to receive a first audio signal, the first compensation channel including a series connected delay circuit and frequency equalizer circuit to generate a first compensated audio signal; a second compensation channel configured to receive a second audio signal, the second compensation channel including a series connected delay circuit and frequency equalizer circuit to generate a second compensated audio signal; a first summing circuit having inputs to receive the first audio signal and the second compensated audio signal, where the first summing circuit generates an output signal for provision to the first speaker to generate a first audible sound; and a second summing circuit having inputs to receive the second audio signal and the first compensated audio signal, where the second summing circuit generates an output signal for provision to the second speaker to generate a second audible sound, wherein the first and second audio compensation signals are generated by appropriate delay and adjustment of the energy level such that deviations in a target frequency response at a listening position due to acoustical interference between direct sounds and reflected sounds in a listening environment wherein the first and second speakers are located are corrected without changes in psychoacoustically perceived physical locations of the first speaker and the second speaker. a first compensation channel configured to receive a first audio signal, the first compensation channel including a series connected delay circuit and frequency equalizer circuit to generate a first compensated audio signal; a second compensation channel configured to receive a second audio signal, the second compensation channel including a series connected delay circuit and frequency equalizer circuit to generate a second compensated audio signal; a first summing circuit having inputs to receive the first audio signal and the second compensated audio signal, where the first summing circuit generates an output signal for provision to the first speaker to generate a first audible sound; and a second summing circuit having inputs to receive the second audio signal and the first compensated audio signal, where the second summing circuit generates an output signal for provision to the second speaker to generate a second audible sound, wherein the first and second audio compensation signals are generated by appropriate delay and adjustment of the energy level such that deviations in a target frequency response at a listening position due to acoustical interference between direct sounds and reflected sounds in a listening environment wherein the first and second speakers are located are corrected without changes in psychoacoustically perceived physical locations of the first speaker and the second speaker.