mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a wind turbine comprising a rotor which has multiple rotor blades which are settable with respect to blade angle and has a means for detection of formation of ice on the rotor blades , wherein the blade-angle setting is realized during normal operation on the basis of a standard characteristic curve in a manner dependent on a characteristic number that can be ascertained during the operation of the wind turbine (step 90), and is realized in the case where formation of ice is detected (step 95) according to the following steps: a) operating the wind turbine on the basis of an initial special characteristic curve for the blade angles of a rotor blade or of all the rotor blades in a manner dependent on a characteristic number that can be ascertained during the operation of the wind turbine (step 100); b) recording a first power curve for a specified period of time (step 105); c) changing the special characteristic curve (step 110); d) recording a further power curve for a specified period of time (step 115); and e) checking whether the last ascertained further power curve represents an optimum (step 125): - if so, operating the wind turbine on the basis of the optimum special characteristic curve on which the last ascertained further power curve is based; - if not, iterating from step c), characterized in that , after ascertaining the optimum special characteristic curve (step 130) for one rotor blade , steps a) to e) are repeated one after the other for the further rotor blades . a) operating the wind turbine on the basis of an initial special characteristic curve for the blade angles of a rotor blade or of all the rotor blades in a manner dependent on a characteristic number that can be ascertained during the operation of the wind turbine (step 100); b) recording a first power curve for a specified period of time (step 105); c) changing the special characteristic curve (step 110); d) recording a further power curve for a specified period of time (step 115); and e) checking whether the last ascertained further power curve represents an optimum (step 125): - if so, operating the wind turbine on the basis of the optimum special characteristic curve on which the last ascertained further power curve is based; - if not, iterating from step c), - if so, operating the wind turbine on the basis of the optimum special characteristic curve on which the last ascertained further power curve is based; - if not, iterating from step c),
A colpotomy system comprising: a surgical instrument having a cutting element at a distal end thereof; and a uterine instrument having a handle operably coupled to a shaft having a balloon at a distal end thereof, the shaft extending through a retaining member to access a surgical site, the retaining member including a plurality of transmitters disposed about a distal ring of the retaining member for transmitting at least one signal to define a predetermined operating zone; said surgical instrument further having a receiver at a distal end thereof for receiving said at least one signal emitted from said plurality of transmitters ; a processor configured to calculate a distance between the cutting element of the surgical instrument and one end of the retaining member of the uterine instrument to determine whether the cutting element is within the predetermined operating zone. a surgical instrument having a cutting element at a distal end thereof; and a uterine instrument having a handle operably coupled to a shaft having a balloon at a distal end thereof, the shaft extending through a retaining member to access a surgical site, the retaining member including a plurality of transmitters disposed about a distal ring of the retaining member for transmitting at least one signal to define a predetermined operating zone; said surgical instrument further having a receiver at a distal end thereof for receiving said at least one signal emitted from said plurality of transmitters ; a processor configured to calculate a distance between the cutting element of the surgical instrument and one end of the retaining member of the uterine instrument to determine whether the cutting element is within the predetermined operating zone.
Illuminable switch arrangement for a motor vehicle, wherein the switch arrangement has at least one switch element for detecting an activating action of a user and a transparent light conductor film , which has a thickness (d), a first side and a second side , wherein the first side and the second side delimit the light conductor film in its thickness (d) and are arranged opposite and spaced apart by the thickness of the light conductor film , wherein dimensions of the first side and the second side are greater respectively than the thickness (d) of the light conductor film , wherein the light conductor film also has a light inlet side different from the first and second side , into which light can be coupled, and which connects the first side and the second side to one another, wherein the switch element is arranged on the second side of the light conductor film , characterised in that on the first side of the light conductor film there is a coating for maintaining the light conduction, wherein there is colour coating on the coating for maintaining the light conduction, and wherein the coating and the colour coating each have a recess , so that at least one first light outlet area of the first side of the light conductor film is not covered by the coating for maintaining the light conduction and the colour coating .
A method for processing service data, comprising: calling , by a first process, a Virtio to establish a communication connection with a Vhost deployed on a virtual switch when the first process starts; applying for, by the first process, a target storage space and dividing, by the first process, the target storage space into a plurality of sub-storage spaces; and determining , by a second process, a target sub-storage space in the plurality sub-storage spaces and processing, by the second process, the service data based on the target sub-storage space when the second process starts. calling , by a first process, a Virtio to establish a communication connection with a Vhost deployed on a virtual switch when the first process starts; applying for, by the first process, a target storage space and dividing, by the first process, the target storage space into a plurality of sub-storage spaces; and determining , by a second process, a target sub-storage space in the plurality sub-storage spaces and processing, by the second process, the service data based on the target sub-storage space when the second process starts.
A dental chair assembly, comprising: a base ; a support movably coupled to the base, the support being configured to support a chair seat defined to extend in a forward direction and a chair back positioned rearward of the chair seat , the support having a forward side , an opposite rearward side and a longitudinal axis (L) extending through the forward and rearward sides; a first pivot mount defined along a pivot mount section and configured to support at least one movable arm , the first pivot mount defining a first upright pivot axis (P 1 ); and a second pivot mount configured to support at least one movable arm and defining a second upright pivot axis (P 2 ) parallel to the first upright pivot axis (P 1 ); characterized in that the pivot mount section extends forwardly from a main body of the support ; the first pivot mount is positioned along the longitudinal axis (L) forward of the rear side of the support ; the second pivot mount is positioned along the longitudinal axis (L) and spaced forwardly from the first pivot mount ; and the first upright pivot axis (P 1 ) and the second upright pivot axis (P 2 ) intersect the chair seat . a base ; a support movably coupled to the base, the support being configured to support a chair seat defined to extend in a forward direction and a chair back positioned rearward of the chair seat , the support having a forward side , an opposite rearward side and a longitudinal axis (L) extending through the forward and rearward sides; a first pivot mount defined along a pivot mount section and configured to support at least one movable arm , the first pivot mount defining a first upright pivot axis (P 1 ); and a second pivot mount configured to support at least one movable arm and defining a second upright pivot axis (P 2 ) parallel to the first upright pivot axis (P 1 ); characterized in that the pivot mount section extends forwardly from a main body of the support ; the first pivot mount is positioned along the longitudinal axis (L) forward of the rear side of the support ; the second pivot mount is positioned along the longitudinal axis (L) and spaced forwardly from the first pivot mount ; and the first upright pivot axis (P 1 ) and the second upright pivot axis (P 2 ) intersect the chair seat .
A method for producing a 6xxx series aluminium sheet comprising the steps of - homogenizing an ingot made from a 6XXX series aluminium alloy comprising 0.3 - 1.5 wt.% of Si, 0.1-1.2 wt.% of Mg and 0.5 wt.% or less of Cu, Mn 0.03 - 0.5 wt.% and/or Cr 0.01 - 0.4 wt.%, Fe 0.03 to 0.4 wt.%, Zn up to 0.5 wt.%, V up to 0.2 wt.%, Zr up to 0.2 wt.%, Ti up to 0.1 wt%, rest aluminium and unavoidable impurities up to 0.05 wt.% each and 0.15 wt.% total, - cooling the homogenized ingot with a cooling rate in a range from 150 °C/h to 2000 °C/h directly to a hot rolling starting temperature HRST, - hot rolling the ingot to a hot rolling exit thickness and coiling at the hot rolling final thickness and at a hot rolling exit temperature with such conditions that at least 90% recrystallization is obtained, wherein said HRST is between 350 °C and 450 °C and the hot rolling exit temperature is at least 300 °C and is comprised between 1.2*HRST-135 °C and 1.2*HRST-109 °C and is set to obtain an average grain size in L/ST section between mid-thickness and quarter thickness according to ASTM E-112 intercept method of less than 160 μm in the longitudinal direction, - cold rolling to obtain a cold rolled sheet, - solution heat treating and quenching in a continuous annealing line of the cold rolled sheet. - homogenizing an ingot made from a 6XXX series aluminium alloy comprising 0.3 - 1.5 wt.% of Si, 0.1-1.2 wt.% of Mg and 0.5 wt.% or less of Cu, Mn 0.03 - 0.5 wt.% and/or Cr 0.01 - 0.4 wt.%, Fe 0.03 to 0.4 wt.%, Zn up to 0.5 wt.%, V up to 0.2 wt.%, Zr up to 0.2 wt.%, Ti up to 0.1 wt%, rest aluminium and unavoidable impurities up to 0.05 wt.% each and 0.15 wt.% total, - cooling the homogenized ingot with a cooling rate in a range from 150 °C/h to 2000 °C/h directly to a hot rolling starting temperature HRST, - hot rolling the ingot to a hot rolling exit thickness and coiling at the hot rolling final thickness and at a hot rolling exit temperature with such conditions that at least 90% recrystallization is obtained, wherein said HRST is between 350 °C and 450 °C and the hot rolling exit temperature is at least 300 °C and is comprised between 1.2*HRST-135 °C and 1.2*HRST-109 °C and is set to obtain an average grain size in L/ST section between mid-thickness and quarter thickness according to ASTM E-112 intercept method of less than 160 μm in the longitudinal direction, - cold rolling to obtain a cold rolled sheet, - solution heat treating and quenching in a continuous annealing line of the cold rolled sheet.
An electrical power unit comprising: a power unit main body ; an electrical component which drives the power unit main body by supplying electricity; and a connection terminal which is provided to a leading end of a conductive path member extending from the power unit main body and capable of connecting to and capable of being removed from the electrical component , characterized in that the connection terminal is provided to be capable of attaching and detaching to a mounting part of the electrical power unit , and that the electrical power unit further comprises a placement member to which the electrical component is detachably provided, wherein the mounting part of the electrical power unit is provided to the placement member . a power unit main body ; an electrical component which drives the power unit main body by supplying electricity; and a connection terminal which is provided to a leading end of a conductive path member extending from the power unit main body and capable of connecting to and capable of being removed from the electrical component , characterized in that the connection terminal is provided to be capable of attaching and detaching to a mounting part of the electrical power unit , and that the electrical power unit further comprises a placement member to which the electrical component is detachably provided, wherein the mounting part of the electrical power unit is provided to the placement member .
A wireless device , the wireless device being provided with different beam indications for reception, from a network node , of at least a first signal and a second signal, the wireless device being configured to receive, from the network node , the first signal of a first signal type on a beam indicated by one of the beam indications, the first signal type having a higher priority than a second signal type of the second signal, wherein receiving, from the network node , the first signal of the first signal type on the beam indicated by one of the beam indications corresponds to receiving only the first signal of the first signal type having the higher priority if the wireless device is provided with the different beam indications at the same time.
A system for additive manufacturing, comprising: a dispensing head for dispensing building materials on a working surface a hardening system for hardening said building materials; a cooling system for evacuating heat away from said building materials a thermal sensing system , mounted above said working surface in a manner that allows relative motion between said sensing system and said working surface, and being configured to generate sensing signals responsively to thermal energy sensed thereby; and a computerized controller having a circuit for controlling said dispensing head to dispense said building materials in layers, a circuit for controlling said sensing system to generate said sensing signals only when said sensing system is above said building materials once hardened and a circuit for controlling a heat evacuation rate of said cooling system responsively to said sensing signals. a dispensing head for dispensing building materials on a working surface a hardening system for hardening said building materials; a cooling system for evacuating heat away from said building materials a thermal sensing system , mounted above said working surface in a manner that allows relative motion between said sensing system and said working surface, and being configured to generate sensing signals responsively to thermal energy sensed thereby; and a computerized controller having a circuit for controlling said dispensing head to dispense said building materials in layers, a circuit for controlling said sensing system to generate said sensing signals only when said sensing system is above said building materials once hardened and a circuit for controlling a heat evacuation rate of said cooling system responsively to said sensing signals.
A needle channel usable in a hair transplanter, the needle channel being configured to be coupled to an outer circumference of a center shaft in the hair transplanter to be slidable up and down, the needle channel comprising: a body having a tubular inner space formed therein; a needle coupled to a lower end of the body ; a core shaft slidably disposed in the tubular inner space and the needle ; characterized in that a slot formed on the body in a longitudinal direction and opened in an outward radial direction from a center axis of the center shaft ; a lever coupled to an upper end of the core shaft , and disposed to be slidable up and down in the slot; and a spring fitted over a circumference of the core shaft and having an upper end supported on the lever and a lower end supported on a bottom surface of the slot . a body having a tubular inner space formed therein; a needle coupled to a lower end of the body ; a core shaft slidably disposed in the tubular inner space and the needle ; characterized in that a slot formed on the body in a longitudinal direction and opened in an outward radial direction from a center axis of the center shaft ; a lever coupled to an upper end of the core shaft , and disposed to be slidable up and down in the slot; and a spring fitted over a circumference of the core shaft and having an upper end supported on the lever and a lower end supported on a bottom surface of the slot .
Wire netting (10a; 10b; 10c), in particular safety net, with a plurality of helices (12a, 14a; 12b; 12c) which are braided with one another and at least one (helix of which is manufactured of at least one single wire, a wire bundle, a wire strand, a wire rope and/or another longitudinal element (16a; 16b; 16c) with at least one wire (18a; 18b; 18c) made of a high-tensile steel having a tensile strength of at least 800 N mm -2 , characterised in that in a reverse-bend test the wire (18a; 18b; 18c) is bendable in opposite directions, by at least 90° respectively, around at least one bending cylinder having a diameter of maximally 2d, at least M times without breaking, wherein M can be determined, by rounding down if necessary, to be C · R - 0.5 · d -0.5 and wherein d is a diameter of the wire (18a; 18b; 18c) given in mm, R is a tensile strength of the wire (18a; 18b; 18c) in N mm -2 and C is a factor of at least 400 N 0.5 mm -0.5 .
A method of retreading a tire, the method comprising: providing a tire casing having a casing profile with at least one casing groove , said at least one casing groove having a casing groove depth and a casing groove shape; providing a tire tread having a substantially smooth profile on a back side and at least one tread groove on a front side, the at least one tread groove having an initial tread groove depth (di), the substantially smooth profile on the back side of the tire tread having no discontinuities; aligning the tire tread on the tire casing to produce a tire assembly, wherein the substantially smooth profile on the back side of the tire tread faces the tire casing and wherein the at least one tread groove on the front side of the tire tread aligns with the at least one casing groove ; curing the tire assembly under pressure such that the back side of the tire tread conforms to at least a portion of the casing profile whereby the at least one tread groove conforms to the casing groove depth and the casing groove shape such that a final depth (d f ) of the tread groove is greater than the initial tread groove depth (d i ). providing a tire casing having a casing profile with at least one casing groove , said at least one casing groove having a casing groove depth and a casing groove shape; providing a tire tread having a substantially smooth profile on a back side and at least one tread groove on a front side, the at least one tread groove having an initial tread groove depth (di), the substantially smooth profile on the back side of the tire tread having no discontinuities; aligning the tire tread on the tire casing to produce a tire assembly, wherein the substantially smooth profile on the back side of the tire tread faces the tire casing and wherein the at least one tread groove on the front side of the tire tread aligns with the at least one casing groove ; curing the tire assembly under pressure such that the back side of the tire tread conforms to at least a portion of the casing profile whereby the at least one tread groove conforms to the casing groove depth and the casing groove shape such that a final depth (d f ) of the tread groove is greater than the initial tread groove depth (d i ).
A heat shield panel for a gas turbine engine combustor , comprising: a perimetrical rail extending at least partially around a perimeter of the heat shield panel and defining a main backside cavity ; a plurality of air admittance holes , each air admittance hole extending along an associated hole axis; a plurality of cooling holes ; and a midrail dividing the main backside cavity into a first backside cavity and a second backside cavity , wherein at least a portion of the midrail is axially offset from at least one of the hole axes, characterised in that a first location of the heat shield panel has an increased number of cooling holes relative to other locations of the heath shield panel , wherein the midrail comprises a first rail portion and a second rail portion axially spaced from the first rail portion , wherein the first location is between the air admittance holes , wherein the first location is a hot spot. a perimetrical rail extending at least partially around a perimeter of the heat shield panel and defining a main backside cavity ; a plurality of air admittance holes , each air admittance hole extending along an associated hole axis; a plurality of cooling holes ; and a midrail dividing the main backside cavity into a first backside cavity and a second backside cavity , wherein at least a portion of the midrail is axially offset from at least one of the hole axes, characterised in that a first location of the heat shield panel has an increased number of cooling holes relative to other locations of the heath shield panel , wherein the midrail comprises a first rail portion and a second rail portion axially spaced from the first rail portion , wherein the first location is between the air admittance holes , wherein the first location is a hot spot.
A system, comprising: a controller at a data link layer of a multilayer network including a layer mapping function module, the layer mapping function module configured to translate a network topology map in an optical network topology format and at the data link layer of the multilayer network into an internet protocol - IP - topology format in response to a request for a network topology from a controller at a network layer of the multilayer network; the controller at the data link layer configured to provide the network topology map in the IP topology format to a controller-to-controller interface module configured to convert the network topology map to a common link abstraction model format based on common attributes of the optical network topology format of the data link layer and the IP topology format of the network layer and provide the network topology map in the common link abstraction model format to the controller at the network layer. a controller at a data link layer of a multilayer network including a layer mapping function module, the layer mapping function module configured to translate a network topology map in an optical network topology format and at the data link layer of the multilayer network into an internet protocol - IP - topology format in response to a request for a network topology from a controller at a network layer of the multilayer network; the controller at the data link layer configured to provide the network topology map in the IP topology format to a controller-to-controller interface module configured to convert the network topology map to a common link abstraction model format based on common attributes of the optical network topology format of the data link layer and the IP topology format of the network layer and provide the network topology map in the common link abstraction model format to the controller at the network layer.