mhurhangee/ep-ind-claims huggingface dataset:
A method for fabricating a hollow object in a powder bed, comprising the steps of: (a) irradiating a layer of powder in the powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed; (c) repeating steps (a) and (b) until the object and at least one support structure is formed in the powder bed, wherein the support structure comprises a weakened portion and the formed object comprises an outlet; and (d) breaking the removable support structure at the weakened portion into at least two parts; wherein the support structure is capable of passing through the outlet after breaking the support structure via the weakened portion; wherein the support structure is within the object along the direction of a recoater arm of a system for direct metal laser sintering (DMLS) or direct metal laser melting (DMI,M) used for carrying out steps (a) - (c); wherein the support structure is incapable of passing through the outlet prior to breaking the support structure via the weakened portion; further comprising: (e) removing at least one of the at least two parts of the support structure from the object by passing the support structure through the outlet of the object. (a) irradiating a layer of powder in the powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed; (c) repeating steps (a) and (b) until the object and at least one support structure is formed in the powder bed, wherein the support structure comprises a weakened portion and the formed object comprises an outlet; and (d) breaking the removable support structure at the weakened portion into at least two parts; wherein the support structure is capable of passing through the outlet after breaking the support structure via the weakened portion; wherein the support structure is within the object along the direction of a recoater arm of a system for direct metal laser sintering (DMLS) or direct metal laser melting (DMI,M) used for carrying out steps (a) - (c); wherein the support structure is incapable of passing through the outlet prior to breaking the support structure via the weakened portion; further comprising: (e) removing at least one of the at least two parts of the support structure from the object by passing the support structure through the outlet of the object. the support structure is capable of passing through the outlet after breaking the support structure via the weakened portion; wherein the support structure is within the object along the direction of a recoater arm of a system for direct metal laser sintering (DMLS) or direct metal laser melting (DMI,M) used for carrying out steps (a) - (c); wherein the support structure is incapable of passing through the outlet prior to breaking the support structure via the weakened portion; further comprising: (e) removing at least one of the at least two parts of the support structure from the object by passing the support structure through the outlet of the object.
A method for controlling an emergency brake device of a rail vehicle or of a rail vehicle train which is composed of a plurality of rail vehicles, which rail vehicle or rail vehicle train has a number of axles which are braked by friction brakes, wherein emergency braking is started by an emergency braking request, comprising at least the following steps: a) identifying at least one axle which has inadmissible brake slip during the emergency braking and at which inadmissible brake slip occurs outside a predefined optimum brake slip range, b) identifying at least one axle which has no, or admissible, brake slip during the emergency braking and by which a larger friction braking force can be transmitted than by the at least one axle with inadmissible brake slip, c) adapting the friction braking forces at the at least one axle which has no, or admissible, brake slip such that by at least partially compensating the friction braking force which is lost at the at least one axle owing to the inadmissible brake slip, a deviation of the actual deceleration of the rail vehicle or of the rail vehicle train from a setpoint deceleration predefined by the emergency braking request can be kept within a tolerable range by means of this adaptation. a) identifying at least one axle which has inadmissible brake slip during the emergency braking and at which inadmissible brake slip occurs outside a predefined optimum brake slip range, b) identifying at least one axle which has no, or admissible, brake slip during the emergency braking and by which a larger friction braking force can be transmitted than by the at least one axle with inadmissible brake slip, c) adapting the friction braking forces at the at least one axle which has no, or admissible, brake slip such that by at least partially compensating the friction braking force which is lost at the at least one axle owing to the inadmissible brake slip, a deviation of the actual deceleration of the rail vehicle or of the rail vehicle train from a setpoint deceleration predefined by the emergency braking request can be kept within a tolerable range by means of this adaptation.
A modular femoral endoprosthesis, used in femoral amputations, comprising: a proximal stem having a grooved body and a threaded hole, and a spacer with a damping and integrating system, wherein the spacer has a series of holes in the area intended to be in contact with the front of the femur, favoring osseointegration and damping; wherein the endoprosthesis has a condyle-shaped end; and wherein the endoprosthesis further comprises: A) a short closing screw adapted to be screwed into the threaded hole of the proximal stem so as to secure the spacer and a closing cap to the proximal stem, when the endoprosthesis is intended to be used for a first phase, or B) a long screw adapted to be screwed into the threaded hole of the proximal stem so as to secure a locking modular extending cylinder, and an adapter with a prosthesis connector terminal to the proximal stem, when the endoprosthesis is intended to be used for a second phase. a proximal stem having a grooved body and a threaded hole, and a spacer with a damping and integrating system, wherein the spacer has a series of holes in the area intended to be in contact with the front of the femur, favoring osseointegration and damping; wherein the endoprosthesis has a condyle-shaped end; and wherein the endoprosthesis further comprises: A) a short closing screw adapted to be screwed into the threaded hole of the proximal stem so as to secure the spacer and a closing cap to the proximal stem, when the endoprosthesis is intended to be used for a first phase, or B) a long screw adapted to be screwed into the threaded hole of the proximal stem so as to secure a locking modular extending cylinder, and an adapter with a prosthesis connector terminal to the proximal stem, when the endoprosthesis is intended to be used for a second phase. A) a short closing screw adapted to be screwed into the threaded hole of the proximal stem so as to secure the spacer and a closing cap to the proximal stem, when the endoprosthesis is intended to be used for a first phase, or B) a long screw adapted to be screwed into the threaded hole of the proximal stem so as to secure a locking modular extending cylinder, and an adapter with a prosthesis connector terminal to the proximal stem, when the endoprosthesis is intended to be used for a second phase.
A coupling assembly, comprising: a first slide rail assembly comprising a first rail and a second rail, the first rail and the second rail being movable relative to each other; and a first cable management device, comprising: a first cable management arm; a second cable management arm pivoted to the first cable management arm by a connecting base, the second cable management arm being pivotable relative to the first cable management arm; an auxiliary member; a first connecting member movably connected to the auxiliary member and configured to connect the auxiliary member with the first rail; a second connecting member movably connected to the second cable management arm and configured to connect the second cable management arm with the second rail; and at least one supporting member being movably configured on a bottom portion of the connecting base so as to support the first cable management arm and the second cable management arm; wherein the auxiliary member is movable along a length direction of the first cable management arm, such that a length of the first cable management arm is increased when the auxiliary member is extracted. a first slide rail assembly comprising a first rail and a second rail, the first rail and the second rail being movable relative to each other; and a first cable management device, comprising: a first cable management arm; a second cable management arm pivoted to the first cable management arm by a connecting base, the second cable management arm being pivotable relative to the first cable management arm; an auxiliary member; a first connecting member movably connected to the auxiliary member and configured to connect the auxiliary member with the first rail; a second connecting member movably connected to the second cable management arm and configured to connect the second cable management arm with the second rail; and at least one supporting member being movably configured on a bottom portion of the connecting base so as to support the first cable management arm and the second cable management arm; wherein the auxiliary member is movable along a length direction of the first cable management arm, such that a length of the first cable management arm is increased when the auxiliary member is extracted. a first cable management arm; a second cable management arm pivoted to the first cable management arm by a connecting base, the second cable management arm being pivotable relative to the first cable management arm; an auxiliary member; a first connecting member movably connected to the auxiliary member and configured to connect the auxiliary member with the first rail; a second connecting member movably connected to the second cable management arm and configured to connect the second cable management arm with the second rail; and at least one supporting member being movably configured on a bottom portion of the connecting base so as to support the first cable management arm and the second cable management arm; wherein the auxiliary member is movable along a length direction of the first cable management arm, such that a length of the first cable management arm is increased when the auxiliary member is extracted.
A method of communicating frequency converter data in a communications system, the method comprising receiving, in a local terminal device, frequency converter identification information, and frequency converter parameter information on frequency converter parameters modified by the user; forwarding the frequency converter identification information and the parameter information from the local terminal device to a remote device via a communications network; receiving the frequency converter identification information and the parameter information in the remote device from the local terminal device; based on the identification information and the parameter information, retrieving, in the remote device, frequency converter instructional documentation from a database; based on the retrieving, transmitting, from the remote device to the local terminal device, at least a part of the instructional documentation via the communications network; receiving the at least a part of the instructional documentation in the local terminal device from the remote device; and based on the current configuration setting of the frequency converter, detecting and displaying, in the local terminal device, relevant parts of the received documentation, wherein the method comprises, in the local terminal device, recognizing frequency converter parameter values that differ from default frequency converter parameter values, and displaying information contained in the received documentation regarding frequency converter parameters whose values differ from the default parameter values.
A continuous casting apparatus for casting a metal strip, comprising: a first belt carried by a first upstream pulley and a first downstream pulley; a second belt carried by a second upstream pulley and a second downstream pulley; and a mold region into which molten metal is supplied, the mold region being defined by a first mold support section arranged behind the first belt intermediate the first upstream pulley and the first downstream pulley and a second mold support section arranged behind the second belt intermediate the second upstream pulley and the second downstream pulley; wherein the first mold support section supports the first belt and defines a shape of the first belt in the mold region; wherein the second mold support section supports the second belt and defines a shape of the second belt in the mold region; wherein each of the first mold support section and the second mold support section includes a transition portion and a planar portion downstream from the transition portion; wherein the transition portion has a variable radius for receiving molten metal from a metal feeding device; and the opposed planar portions are tapered. a first belt carried by a first upstream pulley and a first downstream pulley; a second belt carried by a second upstream pulley and a second downstream pulley; and a mold region into which molten metal is supplied, the mold region being defined by a first mold support section arranged behind the first belt intermediate the first upstream pulley and the first downstream pulley and a second mold support section arranged behind the second belt intermediate the second upstream pulley and the second downstream pulley; wherein the first mold support section supports the first belt and defines a shape of the first belt in the mold region; wherein the second mold support section supports the second belt and defines a shape of the second belt in the mold region; wherein each of the first mold support section and the second mold support section includes a transition portion and a planar portion downstream from the transition portion; wherein the transition portion has a variable radius for receiving molten metal from a metal feeding device; and the opposed planar portions are tapered.
An enclosed space comprising: - a ceiling; - a base structure which comprises - - a first profile; - - a second profile; - a plurality of walls, wherein at least one of the walls comprises an opening to allow access to said enclosed space; - at least one sliding door arranged to close the opening, wherein said sliding door comprises two parallel glass panels; - a controller; - an input air fan equipped with an air filter; and - an air outlet equipped with a flow meter configured to provide flow information to said controller; wherein said controller is configured to control said input air fan based on the flow information from said flow meter, the enclosed space being characterized in that the height and inclination of said base structure are arranged to be adjustable, the base structure further comprising one or more bolts for arranging a tilting angle between said first profile and said second profile. - a ceiling; - a base structure which comprises - - a first profile; - - a second profile; - - a first profile; - - a second profile; - a plurality of walls, wherein at least one of the walls comprises an opening to allow access to said enclosed space; - at least one sliding door arranged to close the opening, wherein said sliding door comprises two parallel glass panels; - a controller; - an input air fan equipped with an air filter; and - an air outlet equipped with a flow meter configured to provide flow information to said controller;
A sensor system comprising: a clock generation module configured to generate a modulation signal and an output sampling signal, the modulation signal having a modulation frequency, the sampling signal having a sampling frequency, the modulation signal and the output sampling signal being phase shifted with respect to one another to produce a phase difference between the modulation signal and the output sampling signal; a sensor configured to generate an output signal having an output value, the output signal being modulated by the modulation signal, the output value including a sensor output value and an offset value; a conditioning module configured to receive the output signal, the conditioning module configured to condition the output signal to generate a conditioned output signal that includes the sensor output value and the offset value; and an output module configured to receive the conditioned output signal and the output sampling signal, the output sampling signal operable to be used to sample the conditioned output signal at a value that substantially corresponds to the sensor output value. a clock generation module configured to generate a modulation signal and an output sampling signal, the modulation signal having a modulation frequency, the sampling signal having a sampling frequency, the modulation signal and the output sampling signal being phase shifted with respect to one another to produce a phase difference between the modulation signal and the output sampling signal; a sensor configured to generate an output signal having an output value, the output signal being modulated by the modulation signal, the output value including a sensor output value and an offset value; a conditioning module configured to receive the output signal, the conditioning module configured to condition the output signal to generate a conditioned output signal that includes the sensor output value and the offset value; and an output module configured to receive the conditioned output signal and the output sampling signal, the output sampling signal operable to be used to sample the conditioned output signal at a value that substantially corresponds to the sensor output value.
A method of determining properties of a surface of an object by using white light interferometry that includes at least one film, the method comprising: illuminating the surface of the object with an illumination source; detecting light reflected from the surface to produce a measurement signal; processing the measurement signal to remove a height contribution from the measurement signal leaving a film contribution in the measurement signal to produce a film measurement signal; comparing the film measurement signal to a plurality of film signals in a library to determine film parameters of the surface of the object, the library comprising the plurality of film signals and a plurality of full signals, wherein the plurality of film signals are associated with the plurality of full signals and the plurality of film signals are produced by removing height contributions from the plurality of full signals; generating a reduced set of full signals using the film parameters of the surface, the reduced set of full signals having fewer signals than the plurality of film signals; comparing the measurement signal to the reduced set of full signals to determine a height parameter of the surface of the object; and storing the height parameter and the film parameters. illuminating the surface of the object with an illumination source; detecting light reflected from the surface to produce a measurement signal; processing the measurement signal to remove a height contribution from the measurement signal leaving a film contribution in the measurement signal to produce a film measurement signal; comparing the film measurement signal to a plurality of film signals in a library to determine film parameters of the surface of the object, the library comprising the plurality of film signals and a plurality of full signals, wherein the plurality of film signals are associated with the plurality of full signals and the plurality of film signals are produced by removing height contributions from the plurality of full signals; generating a reduced set of full signals using the film parameters of the surface, the reduced set of full signals having fewer signals than the plurality of film signals; comparing the measurement signal to the reduced set of full signals to determine a height parameter of the surface of the object; and storing the height parameter and the film parameters.
A lithium secondary battery, comprising: a negative electrode comprising a carbon material comprising a composite carbon material formed by coating a surface of hard carbon with artificial graphite, and an electrolyte solution comprising methylene methane disulfonate, and wherein a peak at 167 to 171 eV and a peak at 160 to 164 eV are present in XPS analysis of sulfur, S2p, of the negative electrode surface, and P169/P162 is in the range of 0.7 to 2.0 wherein the P169/P162 is the ratio between the intensity of the peak at 167 to 171 eV, P169, and the intensity of the peak at 160 to 164 eV, P162. a negative electrode comprising a carbon material comprising a composite carbon material formed by coating a surface of hard carbon with artificial graphite, and an electrolyte solution comprising methylene methane disulfonate, and wherein a peak at 167 to 171 eV and a peak at 160 to 164 eV are present in XPS analysis of sulfur, S2p, of the negative electrode surface, and P169/P162 is in the range of 0.7 to 2.0 wherein the P169/P162 is the ratio between the intensity of the peak at 167 to 171 eV, P169, and the intensity of the peak at 160 to 164 eV, P162.
Freehand-guidable manual separating device, in particular manual abrasive cutter or angle grinder, comprising a tool receptacle for a disc-shaped separating tool for producing a parting cut in a working object (W1, W2) to be machined and a drive motor located in a machine housing for the rotary drive of the tool receptacle about a tool axis, wherein the manual separating device comprises a cover device, which is located on the machine housing and comprises a side edge cover, which is fixed in place on the machine housing during the operation of the separating device to cover a side edge of the separating tool and in particular located on the top side of the workpiece while the parting cut is produced, characterised in that the cover device comprises a cover element pivotable relative to the side edge cover about a pivot axis coaxial with the tool axis or parallel to the tool axis between a covering position and at least one open position for covering a working section of the side edge of the separating tool, which projects in front of the fixed side edge cover, wherein the cover element covers in the covering position a larger part of the working section of the separating tool than in the open position, and in that a suction port for a dust extraction device is provided on the cover element.