mhurhangee/ep-ind-claims huggingface dataset:
A protective respiratory mask for normal-pressure and overpressure operation having at least one respiratory connection, an expiratory valve with a valve spring, an adjusting element affecting the pre-tension of the valve spring, a sliding element having a first switching position and a second switching position, wherein the sliding element is constructed in such a way in order to act on the adjusting element, in the case of a translatory movement from the first switching position into the second switching position, so that a change in the pre-tension of the valve spring can be achieved and thus a switch-over from an operating mode "normal pressure" to an operating mode "overpressure" can be effected, characterised in that the adjusting element is formed as a pivotable lever arm, and in that the lever arm has at least one transmission element which in an upper position of the lever arm is formed obliquely with respect to the plane of the sliding element, wherein the sliding element is moved over the slope of the transmission element in the case of the translatory movement from the first switching position into the second switching position, and wherein the transmission element is arranged on the lever arm so that in the case of a movement of the sliding element out of the first switching position into the second switching position the lever arm is pressed onto the valve spring.
A display apparatus, comprising: a display module including a display panel configured to display an image; a vibration plate connected to the display module; and a vibration module configured to vibrate the vibration plate, and a buffer member disposed on the vibration plate near to the vibration module, wherein a height of the buffer member with respect to a top surface of the vibration plate is higher than a height of the vibration module with respect to the top surface of the vibration plate; wherein the display panel is configured to vibrate based on a vibration of the vibration plate to output sound to a front direction of the display panel, and wherein a top surface of the buffer member is located between a top surface of the vibration module and a rear surface of the display module. a display module including a display panel configured to display an image; a vibration plate connected to the display module; and a vibration module configured to vibrate the vibration plate, and a buffer member disposed on the vibration plate near to the vibration module, wherein a height of the buffer member with respect to a top surface of the vibration plate is higher than a height of the vibration module with respect to the top surface of the vibration plate; wherein the display panel is configured to vibrate based on a vibration of the vibration plate to output sound to a front direction of the display panel, and wherein a top surface of the buffer member is located between a top surface of the vibration module and a rear surface of the display module.
A method of repairing a variable vane having an airfoil, an inner trunnion shaft and an outer trunnion shaft, with said outer trunnion shaft having a threaded hole and a groove extending around a circumference of the outer trunnion shaft, comprising the steps of: removing a portion of said outer trunnion shaft at a location between said airfoil and said groove leaving a shaft stub; preparing a repair detail, said repair detail having an outer peripheral shaft portion with a nominal outer diameter, with said repair detail further having a pilot portion extending forwardly and having a smaller outer diameter than an outer diameter of said nominal outer diameter, with said shaft stub having a remaining bore portion, which is a portion of said threaded hole and with said pilot portion being sized to be received within said remaining bore ortion; and inserting said pilot portion into said remaining bore portion, and welding said repair detail to said shaft stub; and wherein said repair detail is formed with a pilot hole that extends through said repair detail, but is of a smaller diameter than said remaining bore portion. removing a portion of said outer trunnion shaft at a location between said airfoil and said groove leaving a shaft stub; preparing a repair detail, said repair detail having an outer peripheral shaft portion with a nominal outer diameter, with said repair detail further having a pilot portion extending forwardly and having a smaller outer diameter than an outer diameter of said nominal outer diameter, with said shaft stub having a remaining bore portion, which is a portion of said threaded hole and with said pilot portion being sized to be received within said remaining bore ortion; and inserting said pilot portion into said remaining bore portion, and welding said repair detail to said shaft stub; and wherein said repair detail is formed with a pilot hole that extends through said repair detail, but is of a smaller diameter than said remaining bore portion.
Steel having a chemical composition consisting of • 1.0 ≤ C < 3.0 • 4.0 ≤ Ti < 12.0 • 0.05 ≤ Mn < 3.0 • 0.005 ≤ Al_sol < 0.5 • 0 ≤ Cr < 1.0 • 0 ≤ Si < 1.0 • 0 ≤ Ni < 1.0 • 0 ≤ Cu < 1.0 • 0 ≤ Mo < 0.5 • 0 ≤ W < 0.5 • 0 ≤ Nb < 0.5 • 0 ≤ V < 0.5 • 0 ≤ S < 0.030 • 0 ≤ P < 0.1 • 0 ≤ N < 0.04 • 0 ≤ B < 1.0 • remainder iron and inevitable impurities; wherein the steel comprises at least 5 wt% of TiC-particles and wherein -0.1<=C-((12/48)*(Ti-2.22*B))-((12/184)*W)-((12/51)*V)-((12/93)*Nb) <=0.3. • 1.0 ≤ C < 3.0 • 4.0 ≤ Ti < 12.0 • 0.05 ≤ Mn < 3.0 • 0.005 ≤ Al_sol < 0.5 • 0 ≤ Cr < 1.0 • 0 ≤ Si < 1.0 • 0 ≤ Ni < 1.0 • 0 ≤ Cu < 1.0 • 0 ≤ Mo < 0.5 • 0 ≤ W < 0.5 • 0 ≤ Nb < 0.5 • 0 ≤ V < 0.5 • 0 ≤ S < 0.030 • 0 ≤ P < 0.1 • 0 ≤ N < 0.04 • 0 ≤ B < 1.0 • remainder iron and inevitable impurities;
A system comprising: an exciter configured to generate a variable field current for a synchronous generator, the synchronous generator configured to rotate and output variable electric power in accordance with the variable field current; and a controller configured to control an exciter voltage of the exciter using a voltage input signal to generate the variable field current for the synchronous generator; characterised in that the controller further configured to selectively include at least one of a DC component or an AC component in the exciter voltage with the voltage input signal, and the controller further configured to include only the AC component in the exciter voltage when the exciter is at a rotational speed of zero, and transition the AC component to the DC component as the rotational speed of the exciter increases by independently varying the level of the AC component and the level of the DC component, to maintain a true RMS value of a current associated with the exciter voltage substantially constant and avoid decoupling of the exciter rotor and the exciter stator such that a decrease in the AC component is offset with a corresponding increase in the DC component, in response to the rotational speed of the exciter and the synchronous generator increasing, as the synchronous generator outputs variable electric power. an exciter configured to generate a variable field current for a synchronous generator, the synchronous generator configured to rotate and output variable electric power in accordance with the variable field current; and a controller configured to control an exciter voltage of the exciter using a voltage input signal to generate the variable field current for the synchronous generator; characterised in that the controller further configured to selectively include at least one of a DC component or an AC component in the exciter voltage with the voltage input signal, and the controller further configured to include only the AC component in the exciter voltage when the exciter is at a rotational speed of zero, and transition the AC component to the DC component as the rotational speed of the exciter increases by independently varying the level of the AC component and the level of the DC component, to maintain a true RMS value of a current associated with the exciter voltage substantially constant and avoid decoupling of the exciter rotor and the exciter stator such that a decrease in the AC component is offset with a corresponding increase in the DC component, in response to the rotational speed of the exciter and the synchronous generator increasing, as the synchronous generator outputs variable electric power.
A resin decorative part (1, 1B) comprising: a clear decoration having a body transmitting light, a carbon color layer, the clear decoration including an irregular surface disposed on the body and having a pattern formed with protrusions and depressions, wherein the irregular surface has a plurality of unit patterns (12c, 12f) that constitute a weave of pseudo carbon fiber bundles presenting carbon fiber bundles in a pseudo manner, as the protrusions and depressions that form the pattern, each of the unit patterns (12c, 12f) has a top portion (12d, 12g) positioned at a center in an extending direction of the pseudo carbon fiber bundle and a pair of curved portions (12e, 12h) positioned on both sides of the top portion (12d, 12g) in the extending direction and formed in a curved shape, characterized in that said top portion (12d, 12g) is flat and formed in an ellipse shape when viewed from a viewer side of the body, and a curvature of the pair of curved portions (12e, 12h) in a section along the extending direction of the pair of curved portions (12e, 12h) is greater on a center portion side than on an end portion side in a crossing direction that crosses the extending direction. a clear decoration having a body transmitting light, a carbon color layer, the clear decoration including an irregular surface disposed on the body and having a pattern formed with protrusions and depressions, wherein the irregular surface has a plurality of unit patterns (12c, 12f) that constitute a weave of pseudo carbon fiber bundles presenting carbon fiber bundles in a pseudo manner, as the protrusions and depressions that form the pattern, each of the unit patterns (12c, 12f) has a top portion (12d, 12g) positioned at a center in an extending direction of the pseudo carbon fiber bundle and a pair of curved portions (12e, 12h) positioned on both sides of the top portion (12d, 12g) in the extending direction and formed in a curved shape, characterized in that said top portion (12d, 12g) is flat and formed in an ellipse shape when viewed from a viewer side of the body, and a curvature of the pair of curved portions (12e, 12h) in a section along the extending direction of the pair of curved portions (12e, 12h) is greater on a center portion side than on an end portion side in a crossing direction that crosses the extending direction.
Method for defrosting an evaporator, serving as an air cooler, of a cooling circuit with refrigerant lines, in particular in items of refrigeration equipment and cold storage rooms, wherein a build-up of frost or ice at the evaporator is defrosted by a heat transfer medium which is guided through a defrosting circuit and heated for defrosting, while the cooling process of the cooling circuit of the evaporator is switched off, characterised in that in defrosting operation, the heat transfer medium of the defrosting circuit is guided through a cylinder guiding the refrigerant and surrounding, at least in sections, the piping of the evaporator along the surface of the outer circumference of the refrigerant lines over its longitudinal dimension in the evaporator.
Flow rectifier for a flow inlet opening in a fan assembly, comprising a lattice structure made of intersecting lattice webs which delimit a plurality of lattice openings for the intake of air, a preferably circular outlet opening being provided for the outflow of air from the flow rectifier, which outlet opening is delimited by an outlet opening edge, the lattice openings delimited by the lattice structure being arranged in the circumferential direction around or radially outside of a closed central portion which is axially spaced from the outlet opening, and the intake-side outer face of the lattice structure delimiting an enveloping lateral surface of a three-dimensional geometric body, in particular of a body which is convexly curved towards the intake side or concavely curved inwards, of a truncated spherical segment, of a truncated spherical segment, of a truncated cone or of a truncated pyramid, characterised in that the enveloping lateral surface has at least two radially adjacent ring portions, which transition into one another in a mathematically discontinuous manner.
An access control system (112, 202) for controlling access to a shared resource for a plurality of functional circuits (102a, 102b), the access control system comprising: a comparison circuit configured to receive, based on a transaction initiated by a functional circuit of the plurality of functional circuits (102a, 102b), first identification data associated with the functional circuit, and compare the first identification data with a set of reference data to generate a select signal; a processing circuit that is coupled with the shared resource, and configured to receive error data and first response data that is outputted by the shared resource based on an execution of the transaction, and generate second response data; and a selection circuit that is coupled with the shared resource, the processing circuit, and the comparison circuit, and configured to select and output, based on the select signal, one of the first and second response data as third response data, wherein the third response data is provided to the functional circuit as a response to the transaction. a comparison circuit configured to receive, based on a transaction initiated by a functional circuit of the plurality of functional circuits (102a, 102b), first identification data associated with the functional circuit, and compare the first identification data with a set of reference data to generate a select signal; a processing circuit that is coupled with the shared resource, and configured to receive error data and first response data that is outputted by the shared resource based on an execution of the transaction, and generate second response data; and a selection circuit that is coupled with the shared resource, the processing circuit, and the comparison circuit, and configured to select and output, based on the select signal, one of the first and second response data as third response data, wherein the third response data is provided to the functional circuit as a response to the transaction.
A power source supply structure for a saddle-type vehicle, the saddle-type vehicle comprising: a chassis frame; a front cover that is provided to a front part of the chassis frame, and at least covers a head pipe pivotally supporting a front wheel to be steerable; the power source supply structure comprising: an accommodating part; and an accessory socket that is provided in the accommodating part and supplies electric power to an external device, wherein the accommodating part includes an openable lid configured to be provided near a seat of the saddle-type vehicle and at a rear side of the front cover, wherein said lid opens and closes a rear side of the accommodating part, characterized in that the accommodating part comprises a far wall disposed forwards to oppose the openable lid in a state where the accommodating part is closed, wherein the accessory socket is disposed at the far wall, wherein the far wall has a first face (83a, 904) orthogonal to an axis line of the accessory socket, and a second face (83b, 383b) curving at a curved part that curves forwards relative to the first face (83a, 904), the second face curving forwards relative to the first face (83a, 383a, 904, 3904), at a neighboring position below the accessory socket; wherein the accommodating part includes a bottom wall below an opening that is closed by the openable lid, and includes a groove that extends vertically to an outer side in the width direction of the opening, at a position adjacent to the opening of a side wall of the accommodating part. a chassis frame; a front cover that is provided to a front part of the chassis frame, and at least covers a head pipe pivotally supporting a front wheel to be steerable; the power source supply structure comprising: an accommodating part; and an accessory socket that is provided in the accommodating part and supplies electric power to an external device, an accommodating part; and an accessory socket that is provided in the accommodating part and supplies electric power to an external device, wherein the accommodating part includes an openable lid configured to be provided near a seat of the saddle-type vehicle and at a rear side of the front cover, wherein said lid opens and closes a rear side of the accommodating part, characterized in that the accommodating part comprises a far wall disposed forwards to oppose the openable lid in a state where the accommodating part is closed, wherein the accessory socket is disposed at the far wall, wherein the far wall has a first face (83a, 904) orthogonal to an axis line of the accessory socket, and a second face (83b, 383b) curving at a curved part that curves forwards relative to the first face (83a, 904), the second face curving forwards relative to the first face (83a, 383a, 904, 3904), at a neighboring position below the accessory socket; wherein the accommodating part includes a bottom wall below an opening that is closed by the openable lid, and includes a groove that extends vertically to an outer side in the width direction of the opening, at a position adjacent to the opening of a side wall of the accommodating part.
A method for manufacturing decorative panels comprising the steps of: 1) providing a paper substrate including one or more ink receiving layers; 2) jetting and drying a colour image with pigmented aqueous inkjet inks from a pigmented aqueous inkjet ink set on the paper substrate including one or more ink receiving layers; 3) impregnating the paper substrate having the jetted and dried colour image with a thermosetting resin; 4) heat pressing the impregnated paper substrate between a core layer and a protective layer into a decorative surface; and 5) cutting the decorative surface into a decorative panel; wherein the pigmented aqueous inkjet ink set comprises: a) optionally a cyan aqueous inkjet ink containing a copper phthalocyanine pigment; b) a red aqueous inkjet ink containing a red pigment selected from the group consisting of C.I. Pigment Red 254, C.I. Pigment Red 176 and mixed crystals thereof; c) a yellow aqueous inkjet ink containing a pigment C.I Pigment Yellow 150 or a mixed crystal thereof; and d) a black aqueous inkjet ink containing a carbon black pigment; and wherein the aqueous inkjet inks contain a surfactant; and wherein the jetting in step 2 is performed in a bidirectional multi-pass mode using 2, 3 or 4 passes or wherein the jetting in step 2 is performed according to a single pass inkjet printing process. 1) providing a paper substrate including one or more ink receiving layers; 2) jetting and drying a colour image with pigmented aqueous inkjet inks from a pigmented aqueous inkjet ink set on the paper substrate including one or more ink receiving layers; 3) impregnating the paper substrate having the jetted and dried colour image with a thermosetting resin; 4) heat pressing the impregnated paper substrate between a core layer and a protective layer into a decorative surface; and 5) cutting the decorative surface into a decorative panel; a) optionally a cyan aqueous inkjet ink containing a copper phthalocyanine pigment; b) a red aqueous inkjet ink containing a red pigment selected from the group consisting of C.I. Pigment Red 254, C.I. Pigment Red 176 and mixed crystals thereof; c) a yellow aqueous inkjet ink containing a pigment C.I Pigment Yellow 150 or a mixed crystal thereof; and d) a black aqueous inkjet ink containing a carbon black pigment; and
A short pitched switched reluctance motor controller for controlling current in a phase winding of a switched reluctance motor, the controller comprising: a voltage provider comprising a plurality of controlled impedances (M3, M4, M5, M6) arranged to provide an H-bridge and configured to be coupled to the phase winding and operable to selectively apply voltage to the winding to drive current in the phase winding in a first direction and in a second direction opposite to the first direction, and further comprising a first coupling and a second coupling configured to be coupled together by the phase winding; and a controller configured to control switching of the controlled impedances (M3, M4, M5, M6) so that the direction of the applied voltage alternates between the first direction and the second direction; characterized in that the controller is further configured to apply a first voltage pulse to the first coupling, and to apply a second voltage pulse to the second coupling, wherein the start of the second pulse is delayed with respect to the start of the first pulse, and the end of the first pulse is delayed with respect to the end of the second pulse. a voltage provider comprising a plurality of controlled impedances (M3, M4, M5, M6) arranged to provide an H-bridge and configured to be coupled to the phase winding and operable to selectively apply voltage to the winding to drive current in the phase winding in a first direction and in a second direction opposite to the first direction, and further comprising a first coupling and a second coupling configured to be coupled together by the phase winding; and a controller configured to control switching of the controlled impedances (M3, M4, M5, M6) so that the direction of the applied voltage alternates between the first direction and the second direction; characterized in that the controller is further configured to apply a first voltage pulse to the first coupling, and to apply a second voltage pulse to the second coupling, wherein the start of the second pulse is delayed with respect to the start of the first pulse, and the end of the first pulse is delayed with respect to the end of the second pulse.
A method for breath analysis, comprising determining an isotopic composition profile of a first breath cycle, wherein determining the isotopic composition profile of a first breath cycle comprises measuring the absorption of various isotopologues of carbon dioxide, wherein the isotopologues comprise 16 O 12 C 16 O, 16 O 13 C 16 O and 16 O 12 C 18 O; determining a threshold from the first breath cycle; determining a sampling time for a second breath cycle based on the determined threshold; and measuring the isotopic composition during a second breath cycle at the sampling time triggered by reaching the threshold wherein determining the threshold and the sampling time comprises choosing the threshold and the sampling time at a point where isotope ratios 12C/13C and 18O/16O have as large a difference as possible. determining an isotopic composition profile of a first breath cycle, wherein determining the isotopic composition profile of a first breath cycle comprises measuring the absorption of various isotopologues of carbon dioxide, wherein the isotopologues comprise 16 O 12 C 16 O, 16 O 13 C 16 O and 16 O 12 C 18 O; determining a threshold from the first breath cycle; determining a sampling time for a second breath cycle based on the determined threshold; and measuring the isotopic composition during a second breath cycle at the sampling time triggered by reaching the threshold wherein determining the threshold and the sampling time comprises choosing the threshold and the sampling time at a point where isotope ratios 12C/13C and 18O/16O have as large a difference as possible.