mhurhangee/ep-ind-claims huggingface dataset:
A program-generating device for generating a procedure program by changing processing-condition information concerning a script selected for execution, the program-generating device comprising: a processing-condition-information-acquiring means configured to acquire the processing-condition information concerning the script selected for execution from a plurality of pieces of script information stored in a storage means, wherein the script is a simple procedure program for executing at least one predetermined process, and the processing-condition information concerning the script selected for execution is information indicative of selections and settings concerning the at least one predetermined process; an attribute-information-acquiring means configured to acquire attribute information relating to a user from the storage means, wherein the attribute information is information indicative of a function allowed when the user uses an apparatus that executes the procedure program; a difference extracting means configured to extract a difference between the processing-condition information acquired by said processing-condition-information-acquiring means and the attribute information acquired by said attribute-information-acquiring means; a changing means configured to change the processing-condition information acquired by said processing-condition-information-acquiring means based on the difference extracted by said difference extracting means; and a program-generating means configured to generate the procedure program based on the processing-condition information changed by said changing means. a processing-condition-information-acquiring means configured to acquire the processing-condition information concerning the script selected for execution from a plurality of pieces of script information stored in a storage means, wherein the script is a simple procedure program for executing at least one predetermined process, and the processing-condition information concerning the script selected for execution is information indicative of selections and settings concerning the at least one predetermined process; an attribute-information-acquiring means configured to acquire attribute information relating to a user from the storage means, wherein the attribute information is information indicative of a function allowed when the user uses an apparatus that executes the procedure program; a difference extracting means configured to extract a difference between the processing-condition information acquired by said processing-condition-information-acquiring means and the attribute information acquired by said attribute-information-acquiring means; a changing means configured to change the processing-condition information acquired by said processing-condition-information-acquiring means based on the difference extracted by said difference extracting means; and a program-generating means configured to generate the procedure program based on the processing-condition information changed by said changing means.
Circuit breaker (LS1, LS2, LSDISP) for a low-voltage circuit, comprising input and output connections for conductors of the low-voltage circuit, wherein the low-voltage circuit can be interrupted or closed inside the circuit breaker, comprising a current sensor that determines the level of the electric current in the low-voltage circuit and is connected to an electronic trip unit that has a display (DISP) for displaying information and interrupts the low-voltage circuit if current limit values or current/time limit values are exceeded, wherein the display (DISP) is designed to be removable, characterized in that the removable display (DISP) has a sensor for determining an inclination or an angle of a horizontal or vertical position of the display (DISP), and is designed in such a way that the content of the displayed information is adjusted depending on a horizontal or vertical mounting of the display (DISP), such that the displayed information can be read in a user-friendly manner, and the display (DISP) has a display microcontroller, which is connected to the sensor, for controlling the display of the displayed information. comprising input and output connections for conductors of the low-voltage circuit, wherein the low-voltage circuit can be interrupted or closed inside the circuit breaker, comprising a current sensor that determines the level of the electric current in the low-voltage circuit and is connected to an electronic trip unit that has a display (DISP) for displaying information and interrupts the low-voltage circuit if current limit values or current/time limit values are exceeded, wherein the display (DISP) is designed to be removable, characterized in that the removable display (DISP) has a sensor for determining an inclination or an angle of a horizontal or vertical position of the display (DISP), and is designed in such a way that the content of the displayed information is adjusted depending on a horizontal or vertical mounting of the display (DISP), such that the displayed information can be read in a user-friendly manner, and the display (DISP) has a display microcontroller, which is connected to the sensor, for controlling the display of the displayed information.
A method of conditioning a particle filter provided for receiving exhaust gases from an internal combustion engine, wherein diesel and gas are used as fuel during the operation of the engine, said method comprises the steps of - providing a first engine control mode and a second engine control mode, wherein in the second engine control mode at least one combustion control parameter that affects the characteristics of particles emitted together with and carried by the exhaust gases from the engine is different in relation to the first control mode such that the filling rate of the particle filter with particles that will increase the ability of the particle filter to trap smaller particles is increased compared to the filling rate that would have been achieved with the first engine control mode, and - temporarily applying said second engine control mode to the engine as a response to a regeneration of the particle filter or based on a current soot loading status, wherein said at least one combustion control parameter comprises the diesel/gas ratio, and said diesel/gas ratio is increased compared to if the first control mode would have been applied. - providing a first engine control mode and a second engine control mode, wherein in the second engine control mode at least one combustion control parameter that affects the characteristics of particles emitted together with and carried by the exhaust gases from the engine is different in relation to the first control mode such that the filling rate of the particle filter with particles that will increase the ability of the particle filter to trap smaller particles is increased compared to the filling rate that would have been achieved with the first engine control mode, and - temporarily applying said second engine control mode to the engine as a response to a regeneration of the particle filter or based on a current soot loading status,
A method of predictive modeling and mitigating misfire that influences combustion cyclic variation and convariance of indicated mean effective pressure (COV of IMEP) in a spark-ignited engine, the spark-ignited engine having at least one cylinder, the method comprising: obtaining engine data and determining temperature and pressure within the cylinder in response to the engine data; determining crank angle resolved flame velocity evolution based on the engine data; comparing the crank angle resolved flame velocity to predetermined turbulent combustion regime data to determine a misfire occurrence; and updating a misfire occurrence indicator and outputting a control signal when the misfire occurrence indicator is greater than a predetermined limit, the control signal being capable of adjusting an engine actuator of the spark-ignited engine on a cycle to cycle basis, wherein the determining crank angle resolved flame velocity comprises determining crank angle resolved flame velocity based on a flame model module, and wherein the flame model module is executed on a crank angle basis and comprises a flame kernel initiation model, a laminar flame burning velocity model, a variable volume flame model, and a turbulent combustion regime model. obtaining engine data and determining temperature and pressure within the cylinder in response to the engine data; determining crank angle resolved flame velocity evolution based on the engine data; comparing the crank angle resolved flame velocity to predetermined turbulent combustion regime data to determine a misfire occurrence; and updating a misfire occurrence indicator and outputting a control signal when the misfire occurrence indicator is greater than a predetermined limit, the control signal being capable of adjusting an engine actuator of the spark-ignited engine on a cycle to cycle basis, wherein the determining crank angle resolved flame velocity comprises determining crank angle resolved flame velocity based on a flame model module, and wherein the flame model module is executed on a crank angle basis and comprises a flame kernel initiation model, a laminar flame burning velocity model, a variable volume flame model, and a turbulent combustion regime model.
A blade for a wind turbine, the blade having a twist distribution defining a varying twist angle of the blade along the span of the blade wherein an inboard portion of the twist distribution has a forward twist along an inboard portion of the blade, and an outer portion of the twist distribution has a total backward twist of between 6 and 15 degrees between an outer 1 percent to 10 percent of a rotor radius of the blade, and wherein the blade has the following tip twist distribution r/R θ.960 -1.63.967 -0.76.974 0.99.981 2.98.986 4.40.991 5.53.996 6.17. wherein "r/R" is a normalized distance outward from a center of rotation of blade along the blade span, and θ is an angle of the twist in degrees.
Adaptive blade for a laryngoscope, comprising: a proximal end; a distal end; a first chain connected to the proximal end and the distal end of the adaptive blade and composed of a plurality of chain links (30,40) which are each connected in pairs in an articulated manner; a second chain connected to the proximal end and the distal end of the adaptive blade and composed of a plurality of chain links (50, 60) which are each connected in pairs in an articulated manner; a spacer component, wherein a first end of the spacer component is connected in an articulated manner to one of the chain links (30,40) of the first chain, and wherein a second end of the spacer component is connected in an articulated manner to one of the chain links (50,60) of the second chain, wherein one or more or all of the articulated connections between the chain links (30,40) of the first chain, the chain links (50,60) of the second chain and the spacer component comprise a form-fit hinge (38,48,78,80,81, 83,84,87;59,69,79,90,95,96,97), wherein the adaptive blade comprises a distal end piece which forms the distal end of the adaptive blade a proximal end; a distal end; a first chain connected to the proximal end and the distal end of the adaptive blade and composed of a plurality of chain links (30,40) which are each connected in pairs in an articulated manner; a second chain connected to the proximal end and the distal end of the adaptive blade and composed of a plurality of chain links (50, 60) which are each connected in pairs in an articulated manner; a spacer component, wherein a first end of the spacer component is connected in an articulated manner to one of the chain links (30,40) of the first chain, and wherein a second end of the spacer component is connected in an articulated manner to one of the chain links (50,60) of the second chain, wherein one or more or all of the articulated connections between the chain links (30,40) of the first chain, the chain links (50,60) of the second chain and the spacer component comprise a form-fit hinge (38,48,78,80,81, 83,84,87;59,69,79,90,95,96,97), wherein the adaptive blade comprises a distal end piece which forms the distal end of the adaptive blade
A fan device comprising a base unit, a cover unit, a preheat inner tube, a fan unit and a heating unit, characterized by: said base unit having at least one air inlet and including an outer tube that defines an accommodation space fluidly communicating with said at least one air inlet; said cover unit being disposed on said base unit and having a receiving chamber fluidly communicating with said accommodation space, and an air outlet fluidly communicating with said receiving chamber, said cover unit including a lower seat disposed in said accommodation space, said lower seat including an inner annular wall, an outer annular wall spaced apart from said inner annular wall, and a connecting wall interconnecting said inner and outer annular walls (231, 232); said preheat inner tube being disposed in and dividing said accommodation space into a heating chamber defined by said preheat inner tube and a preheat circulation channel that is defined cooperatively by said preheat inner tube, said connecting wall and said outer tube and that fluidly communicates with said heating chamber, said preheat inner tube having a top portion disposed in said inner annular wall of said lower seat; said fan unit being disposed in said receiving chamber; said heating unit including at least one heating component disposed in said heating chamber; wherein, when said fan unit is activated, air flows from said air inlet into said preheat circulation channel, and from said preheat circulation channel, the air flows consecutively through said heating chamber and said receiving chamber and out into an external environment through said air outlet. said base unit having at least one air inlet and including an outer tube that defines an accommodation space fluidly communicating with said at least one air inlet; said cover unit being disposed on said base unit and having a receiving chamber fluidly communicating with said accommodation space, and an air outlet fluidly communicating with said receiving chamber, said cover unit including a lower seat disposed in said accommodation space, said lower seat including an inner annular wall, an outer annular wall spaced apart from said inner annular wall, and a connecting wall interconnecting said inner and outer annular walls (231, 232); said preheat inner tube being disposed in and dividing said accommodation space into a heating chamber defined by said preheat inner tube and a preheat circulation channel that is defined cooperatively by said preheat inner tube, said connecting wall and said outer tube and that fluidly communicates with said heating chamber, said preheat inner tube having a top portion disposed in said inner annular wall of said lower seat; said fan unit being disposed in said receiving chamber; said heating unit including at least one heating component disposed in said heating chamber; wherein, when said fan unit is activated, air flows from said air inlet into said preheat circulation channel, and from said preheat circulation channel, the air flows consecutively through said heating chamber and said receiving chamber and out into an external environment through said air outlet.
A refrigerator comprising: a cabinet disposed at a storage compartment; a door disposed to open and close the storage compartment; a basket for accommodating goods; a moving frame coupled to the basket at a lower part of the basket, the moving frame supporting the basket, the moving frame being capable of vertically moving at the door in an integrated manner with the basket; a rail disposed at the door; and a supporter disposed between the moving frame and the rail to support the moving frame with respect to the rail, wherein the supporter comprises rollers, and the rail comprises a roller guide capable of vertically moving the rollers, characterized in that the roller guide includes a plurality of roller openings spaced away a certain distance from one another at one side of the roller guide, and characterized in that the rollers are disposed at upper and lower sides of the supporter; and in that wherein the rollers have outer parts formed of an elastic material, and the rollers are elastically deformed when the rollers move along the roller guide, and the rollers are elastically restored at the roller openings to be partially inserted into the roller openings. a cabinet disposed at a storage compartment; a door disposed to open and close the storage compartment; a basket for accommodating goods; a moving frame coupled to the basket at a lower part of the basket, the moving frame supporting the basket, the moving frame being capable of vertically moving at the door in an integrated manner with the basket; a rail disposed at the door; and a supporter disposed between the moving frame and the rail to support the moving frame with respect to the rail, wherein the supporter comprises rollers, and the rail comprises a roller guide capable of vertically moving the rollers, characterized in that the roller guide includes a plurality of roller openings spaced away a certain distance from one another at one side of the roller guide, and characterized in that the rollers are disposed at upper and lower sides of the supporter; and in that wherein the rollers have outer parts formed of an elastic material, and the rollers are elastically deformed when the rollers move along the roller guide, and the rollers are elastically restored at the roller openings to be partially inserted into the roller openings.
Converter for an electric motor having, - power electronics and connection devices for power module L i comprising power cable, - a control head S f comprising an electronic circuit, the circuit board of which control head with the electronic circuit is designed for a control and regulating method with or without sensor for angle detection of the rotor of the electric motor, - and a connection unit A k comprising a circuit board wherein the circuit board of the connection unit A k has connection devices for a sensor for angle detection of the rotor of the electric motor, wherein the circuit board of the connection unit A k has connection devices for a serial or parallel interface, wherein the converter has the power module L i, the control head S f and the connection unit A k in such a way that the converter can be assembled and produced modularly, so that the power module L i, the control head S f and the connection unit A k is suitable for the control and regulating method, wherein a manual operating unit is fastened to the control head by means of a mechanical latching mechanism, wherein a plug is led into a socket at the underside of the manual operating unit, so that an electrical connection is made and at the same time the manual operating unit is mechanically releasably and fixedly connected to the control head, wherein an earthing plate is configured in such a way that said earthing plate constitutes an electrical earth connection from the power module L i to the control head S f, wherein the earthing plate is configured in such a way that a cooling function for at least one component of the circuit board of the control head S f is fulfilled. - power electronics and connection devices for power module L i comprising power cable, - a control head S f comprising an electronic circuit, the circuit board of which control head with the electronic circuit is designed for a control and regulating method with or without sensor for angle detection of the rotor of the electric motor, - and a connection unit A k comprising a circuit board
A photoconductive device, comprising: a light source (401, 1003), controlled by an electrical signal, configured to emit a beam of light; a crystalline material doped with a dopant positioned to receive the beam of light from the light source, wherein, upon excitation of the crystalline material by a particular wavelength or a range of wavelength of the beam of light, the dopant forms a mid-gap state within a bandgap of the crystalline material to achieve a recombination time that is at least one order of magnitude smaller than a characteristic time of a highest frequency component of the electrical signal controlling the light source; wherein the crystalline material is configured to exhibit a substantially linear transconductance in response to receiving the beam of light; and a pair of electrodes coupled to the crystalline material and configured to allow an electric field to be established across the crystalline material. a light source (401, 1003), controlled by an electrical signal, configured to emit a beam of light; a crystalline material doped with a dopant positioned to receive the beam of light from the light source, wherein, upon excitation of the crystalline material by a particular wavelength or a range of wavelength of the beam of light, the dopant forms a mid-gap state within a bandgap of the crystalline material to achieve a recombination time that is at least one order of magnitude smaller than a characteristic time of a highest frequency component of the electrical signal controlling the light source; wherein the crystalline material is configured to exhibit a substantially linear transconductance in response to receiving the beam of light; and a pair of electrodes coupled to the crystalline material and configured to allow an electric field to be established across the crystalline material.
A method of forwarding packets from a packet source to a packet destination through a network of switches, wherein the switches are controlled by a controller that is separate from the switches and that is coupled to the switches via control paths, wherein the switches include ports, and wherein groups of the ports form respective virtual switches (VSW1, VSW2), and wherein the first virtual switch contains physical ports from at least two switches in the switches, the method comprising: with the controller, receiving a packet from one of the switches; with the controller, identifying (124, 128), from information from the packet that identifies the packet destination and packet source, a virtual path through the virtual switches from a first virtual switch associated with the packet source to a second virtual switch associated with the packet destination, wherein the groups of the ports that form the first and second virtual switches (VSW1, VSW2) are dynamically determined based on end host identification information; with the controller, identifying a packet forwarding path through the switches from the packet source to the packet destination based on the virtual path and a network policy; and with the controller, generating the packet forwarding path by sending control messages to each of the switches in the packet forwarding path. with the controller, receiving a packet from one of the switches; with the controller, identifying (124, 128), from information from the packet that identifies the packet destination and packet source, a virtual path through the virtual switches from a first virtual switch associated with the packet source to a second virtual switch associated with the packet destination, wherein the groups of the ports that form the first and second virtual switches (VSW1, VSW2) are dynamically determined based on end host identification information; with the controller, identifying a packet forwarding path through the switches from the packet source to the packet destination based on the virtual path and a network policy; and with the controller, generating the packet forwarding path by sending control messages to each of the switches in the packet forwarding path.