mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for cleaning a surface, in particular at solar collectors or photovoltaic installations, having at least one cleaning head which has at least one cleaning member, in particular a brush which can be set into rotation, and having a movement device for moving the cleaning head over at least a part of the surface to be cleaned, wherein the movement device has a first movement unit movable in a first movement direction and a second movement unit, wherein the cleaning head is movable transversely or obliquely to the first movement direction by means of the second movement unit along a guide means which is connected to the first movement unit, and wherein a control means is provided which is arranged at the first and/or second movement unit (16 or 22) and by which the first movement unit is automatically movable in dependence on a position of the second movement unit, characterized in that the control means has a proximity switch or a corresponding sensor which is configured to effect a drive of the first movement unit on an approach of the movement units (16, 22), or in that the control means has a contact switch or a corresponding sensor which is configured to effect a drive of the first movement unit on a contact of the movement units (16, 22). wherein the movement device has a first movement unit movable in a first movement direction and a second movement unit, wherein the cleaning head is movable transversely or obliquely to the first movement direction by means of the second movement unit along a guide means which is connected to the first movement unit, and wherein a control means is provided which is arranged at the first and/or second movement unit (16 or 22) and by which the first movement unit is automatically movable in dependence on a position of the second movement unit, characterized in that the control means has a proximity switch or a corresponding sensor which is configured to effect a drive of the first movement unit on an approach of the movement units (16, 22), or in that the control means has a contact switch or a corresponding sensor which is configured to effect a drive of the first movement unit on a contact of the movement units (16, 22).
A lighting device comprising: a substrate comprising a plurality of holes, wherein the holes extend from a surface of the substrate; a non-III-nitride material disposed within the plurality of holes, wherein the surface of the substrate is free of the non-III-nitride material; and a semiconductor structure grown on the surface of the substrate, the semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region; characterized in that, the holes are partially filled up by the non-III-nitride material, a first portion of the n-type layer of the semiconductor structure fills in the holes; and the non-III-nitride material is a stack of layers (36a, 36b) that forms a gradient index optical interface between the semiconductor structure (38, 40, 42) and the substrate, wherein the gradient index optical material interface smoothly transitions from a high refractive index to a low refractive index; and wherein the layer of the stack of layers closest to the substrate has the lowest refractive index. a substrate comprising a plurality of holes, wherein the holes extend from a surface of the substrate; a non-III-nitride material disposed within the plurality of holes, wherein the surface of the substrate is free of the non-III-nitride material; and a semiconductor structure grown on the surface of the substrate, the semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region; characterized in that, the holes are partially filled up by the non-III-nitride material, a first portion of the n-type layer of the semiconductor structure fills in the holes; and the non-III-nitride material is a stack of layers (36a, 36b) that forms a gradient index optical interface between the semiconductor structure (38, 40, 42) and the substrate, wherein the gradient index optical material interface smoothly transitions from a high refractive index to a low refractive index; and wherein the layer of the stack of layers closest to the substrate has the lowest refractive index. wherein the gradient index optical material interface smoothly transitions from a high refractive index to a low refractive index; and wherein the layer of the stack of layers closest to the substrate has the lowest refractive index.
A computer-implemented method for transferring application state control comprising: receiving an input to initiate a function request at a web control of a native application, wherein the web control is configured to render data stored in a content data store accessible by a server; transmitting, to the server, the function request in response to receiving the input; transferring an application state of the native application from the web control to the native application when the function request is transmitted; initiating, by the native application, a native indicator to indicate that the function request is being processed; receiving, from the server, information in response to the function request; and transferring, in response to a determination that the function request is complete, the application state of the native application from the native application back to the web control. receiving an input to initiate a function request at a web control of a native application, wherein the web control is configured to render data stored in a content data store accessible by a server; transmitting, to the server, the function request in response to receiving the input; transferring an application state of the native application from the web control to the native application when the function request is transmitted; initiating, by the native application, a native indicator to indicate that the function request is being processed; receiving, from the server, information in response to the function request; and transferring, in response to a determination that the function request is complete, the application state of the native application from the native application back to the web control.
A receptacle comprising a respirable dry powder comprising respirable dry particles that comprise sodium chloride, leucine, and tiotropium bromide, wherein the sodium chloride is 75% to 82%, the leucine is 15% to 25%, the tiotropium bromide is 0.01% to 0.5%, and optionally one or more additional therapeutic agents up to 20%, wherein all percentages are weight percentages on a dry basis and all the components of the respirable dry particles amount to 100%, wherein the dry powder contains a nominal dose of tiotropium of 0.5 μg to 9 μg, and further wherein the respirable dry powder is for use in treating a respiratory disease in an individual, the use comprising administering to the respiratory tract of the individual an effective amount of the respirable dry powder, wherein the respiratory disease is treated.
Method of non-destructive ultrasonic testing of a part by analysis of echoes returned by said part in response to the emission of an ultrasound wave by means of an ultrasound transducer, said method including a step of determination of a variable gain curve and a step of correction of the amplitude of the echoes returned by the part as a function of the variable gain curve and of the times of reception of said echoes, characterized in that said method includes steps of: - obtaining a wave function representative of the frequency spectrum of the ultrasound waves emitted by the ultrasound transducer, - obtaining transfer functions F m representative of the frequency responses of reference samples R m of the material forming said part, with respective different thicknesses e m, - calculating reference attenuation values between on the one hand the wave function and on the other hand the results of calculations that filter said wave function by the respective transfer functions F m of the reference samples R m, the variable gain curve being determined as a function of the reference attenuation values. - obtaining a wave function representative of the frequency spectrum of the ultrasound waves emitted by the ultrasound transducer, - obtaining transfer functions F m representative of the frequency responses of reference samples R m of the material forming said part, with respective different thicknesses e m, - calculating reference attenuation values between on the one hand the wave function and on the other hand the results of calculations that filter said wave function by the respective transfer functions F m of the reference samples R m,
Use of a composition comprising: i) at least one chroman-based compound selected from β-tocopherol; γ-tocopherol; δ-tocopherol; α-tocotrienol; β-tocotrienol; γ-tocotrienol; δ-tocotrienol; and vitamin E or its acetate according to Formula Va wherein R 21 is chosen from OH; and -OC CH 3, respectively; and ii) at least one compound chosen from the group of organic phosphites or phosphonites; as a stabilizer composition in a polymer composition for producing a polymeric hollow article in a rotational molding process, wherein the stabilizer composition reduces the cycle time of said rotational molding process. i) at least one chroman-based compound selected from β-tocopherol; γ-tocopherol; δ-tocopherol; α-tocotrienol; β-tocotrienol; γ-tocotrienol; δ-tocotrienol; and vitamin E or its acetate according to Formula Va wherein R 21 is chosen from OH; and -OC CH 3, respectively; and ii) at least one compound chosen from the group of organic phosphites or phosphonites;
An ophthalmic lens device with a variable optic insert (200, 300, 356, 400, 500) positioned within at least a portion of an optical zone of the ophthalmic lens device, wherein the variable optic insert comprises: a curved first front surface and a curved first back surface, wherein the first front surface and the first back surface are configured to bound at least a portion of a first chamber; a dielectric layer (340, 385, 390, 395, 445,) proximate to at least one of the curved first front surface and the curved first back surface, wherein the dielectric layer varies in thickness at least within the portion within the optical zone; an energy source embedded in the variable optic insert in at least a region comprising a non-optical zone; and a layer containing liquid crystal material (375, 435, 525, 545, 604, 605) positioned within the first chamber, wherein the layer includes polymer networked regions of interstitially located liquid crystal material, and wherein the density of liquid crystal molecules within the layer is spatially varied such that the variation is capable of causing an optical effect. a curved first front surface and a curved first back surface, wherein the first front surface and the first back surface are configured to bound at least a portion of a first chamber; a dielectric layer (340, 385, 390, 395, 445,) proximate to at least one of the curved first front surface and the curved first back surface, wherein the dielectric layer varies in thickness at least within the portion within the optical zone; an energy source embedded in the variable optic insert in at least a region comprising a non-optical zone; and a layer containing liquid crystal material (375, 435, 525, 545, 604, 605) positioned within the first chamber, wherein the layer includes polymer networked regions of interstitially located liquid crystal material, and wherein the density of liquid crystal molecules within the layer is spatially varied such that the variation is capable of causing an optical effect.
An antenna device (1 to 11) comprising: a patch antenna serving as a first antenna; a second antenna including capacitance loading elements (40 to 48, 51 to 59); and a helical element connected to an end one of the capacitance loading elements (40 to 48, 51 to 59), wherein the capacitance loading elements (40 to 48, 51 to 59) are arranged separately in a predetermined direction, the patch antenna is completely overlapped or a part of the patch antenna is overlapped with the capacitance loading elements (40 to 48, 51 to 59) when observed from above of the antenna device (1 to 11), characterized in that each pair of adjacent capacitance loading elements (40 to 48, 51 to 59) is connected by a respective filter. a patch antenna serving as a first antenna; a second antenna including capacitance loading elements (40 to 48, 51 to 59); and a helical element connected to an end one of the capacitance loading elements (40 to 48, 51 to 59), wherein the capacitance loading elements (40 to 48, 51 to 59) are arranged separately in a predetermined direction, the patch antenna is completely overlapped or a part of the patch antenna is overlapped with the capacitance loading elements (40 to 48, 51 to 59) when observed from above of the antenna device (1 to 11), characterized in that each pair of adjacent capacitance loading elements (40 to 48, 51 to 59) is connected by a respective filter.
A Piezoelectric Micromachined Ultrasonic Transducer (PMUT) device (100, 701, 801, 901, 1000) consisting of a single PMUT, comprising: a substrate; a surrounding edge support structure (102, 702, 802, 902, 1002, 1102, 1302) connected to the substrate; a membrane (120, 1320) connected to the surrounding edge support structure (102, 702, 802, 902, 1002, 1102, 1302) such that a cavity (130, 1330) is defined between the membrane (120, 1320) and the substrate, the membrane (120, 1320) configured to allow movement at ultrasonic frequencies, the membrane (120, 1320) comprising: a piezoelectric layer; and first and second (106, 706, 806, 906, 1006, 1026) electrodes coupled to opposing sides of the piezoelectric layer; and an interior support structure (104, 704, 804, 904, 1104a, 1104b, 1104c, 1104d, 1304) disposed within the cavity (130, 1330), characterized in that the interior support structure (104, 704, 804, 904, 1104a, 1104b, 1104c, 1104d, 1304) is attached to the substrate and the membrane (120, 1320). a substrate; a surrounding edge support structure (102, 702, 802, 902, 1002, 1102, 1302) connected to the substrate; a membrane (120, 1320) connected to the surrounding edge support structure (102, 702, 802, 902, 1002, 1102, 1302) such that a cavity (130, 1330) is defined between the membrane (120, 1320) and the substrate, the membrane (120, 1320) configured to allow movement at ultrasonic frequencies, the membrane (120, 1320) comprising: a piezoelectric layer; and first and second (106, 706, 806, 906, 1006, 1026) electrodes coupled to opposing sides of the piezoelectric layer; and a piezoelectric layer; and first and second (106, 706, 806, 906, 1006, 1026) electrodes coupled to opposing sides of the piezoelectric layer; and an interior support structure (104, 704, 804, 904, 1104a, 1104b, 1104c, 1104d, 1304) disposed within the cavity (130, 1330), characterized in that the interior support structure (104, 704, 804, 904, 1104a, 1104b, 1104c, 1104d, 1304) is attached to the substrate and the membrane (120, 1320).
Threshold having means for reducing the barrier action of the threshold and for guiding a lift and slide door, wherein the threshold has a main body produced in the extrusion process and having hollow chambers, the threshold having a substantially level upper side, into which a running rail running in the direction in which the threshold extends is integrated, wherein underneath the upper side there is arranged a middle surface, vertical struts being arranged between the upper side and the middle surface, the upper side having a rectilinear opening running in the direction in which the threshold extends, wherein in each case a part of the upper side runs as far as the next vertical strut on both sides of the opening and there is in each case a distance (9, 10) between the opening and the next vertical strut, a clip strip is inserted into the opening, wherein the clip strip has latching means (12, 13) on both sides of its extension line, which engage in the opening and latch into the upper side, the clip strip includes the running rail, characterized in that the clip strip has, at least approximately, the vertical extent that is present between the upper side and the middle surface, as a result of which the clip strip ends virtually level with the upper side with the running rail and the latching means (12, 13) at the top, and, when latched in the main body, the latching means (12, 13) of the clip strip touches the upper side vertically from below on both sides, wherein the latching means on one side projects further horizontally under the upper side in the direction of the next vertical strut than the latching means on the other side of the opening. underneath the upper side there is arranged a middle surface, vertical struts being arranged between the upper side and the middle surface, the upper side having a rectilinear opening running in the direction in which the threshold extends, wherein in each case a part of the upper side runs as far as the next vertical strut on both sides of the opening and there is in each case a distance (9, 10) between the opening and the next vertical strut, a clip strip is inserted into the opening, wherein the clip strip has latching means (12, 13) on both sides of its extension line, which engage in the opening and latch into the upper side, the clip strip includes the running rail, characterized in that the clip strip has, at least approximately, the vertical extent that is present between the upper side and the middle surface, as a result of which the clip strip ends virtually level with the upper side with the running rail and the latching means (12, 13) at the top, and, when latched in the main body, the latching means (12, 13) of the clip strip touches the upper side vertically from below on both sides, wherein the latching means on one side projects further horizontally under the upper side in the direction of the next vertical strut than the latching means on the other side of the opening.
A method for performing ion mobility spectrometry, comprising: a. ionizing a sample to generate a plurality of analyte ions, the sample containing or suspected of containing an acidic analyte of interest; and b. transporting said plurality of analyte ions using a drift gas comprising CO 2 and a liquid modifier through an ion mobility spectrometer to effect separation of ions of said acidic analyte of interest from ions of an interfering acidic analyte present in said ionized sample. a. ionizing a sample to generate a plurality of analyte ions, the sample containing or suspected of containing an acidic analyte of interest; and b. transporting said plurality of analyte ions using a drift gas comprising CO 2 and a liquid modifier through an ion mobility spectrometer to effect separation of ions of said acidic analyte of interest from ions of an interfering acidic analyte present in said ionized sample.
A medicament transfer apparatus for transferring fluid from a fluid-containing vial to an injection device, comprising: a pressurized gas source comprising a pre-filled pressure vessel (100, 200) including a puncturable seal, at least one vial receiving station (110, 210) including a gas lumen and a liquid lumen, and a medication injection device receiving station (111, 211), a gas flow path (104, 204) communicable between the gas source and the vial receiving station and a fluid flow path (107, 207D) communicable between the vial receiving station and the medication injection device receiving station, a puncturing pin (112, 212) for puncturing the seal, a force-generating device (113, 213) for moving the puncturing pin and/or the vessel between a pre-puncture position and a puncture position; said at least one vial receiving station configured so that a vial received therein is moveable from a first position to a second position, wherein the gas lumen and the liquid lumen come into fluid communication with an interior of the vial when the vial is moved into the second position; and a latch (114, 214) that is moved when the vial in said at least one vial receiving station is moved into the second position whereby the puncturing pin and/or the pre-filled pressure vessel is moved into the puncture position by the force-generating device. a pressurized gas source comprising a pre-filled pressure vessel (100, 200) including a puncturable seal, at least one vial receiving station (110, 210) including a gas lumen and a liquid lumen, and a medication injection device receiving station (111, 211), a gas flow path (104, 204) communicable between the gas source and the vial receiving station and a fluid flow path (107, 207D) communicable between the vial receiving station and the medication injection device receiving station, a puncturing pin (112, 212) for puncturing the seal, a force-generating device (113, 213) for moving the puncturing pin and/or the vessel between a pre-puncture position and a puncture position; said at least one vial receiving station configured so that a vial received therein is moveable from a first position to a second position, wherein the gas lumen and the liquid lumen come into fluid communication with an interior of the vial when the vial is moved into the second position; and a latch (114, 214) that is moved when the vial in said at least one vial receiving station is moved into the second position whereby the puncturing pin and/or the pre-filled pressure vessel is moved into the puncture position by the force-generating device.
Device housing for an electrical device, wherein the device housing comprises on the one hand an inner housing with a lower shell of the inner housing and an upper shell of the inner housing and on the other hand an outer housing with a lower shell of the outer housing and an upper shell of the outer housing, wherein at least one cable seating profile in the lower shell of the inner housing and a flush cable cover profile in the upper shell of the inner housing form a cable insertion opening (30, 34) for a cable which can be routed to the device, wherein the inner housing retains a clamping body, wherein a friction and/or form-fitting contact between the clamping body and a cable routed to the device can be effected by means of the outer housing, by the clamping body being pressable onto an outer surface of the cable by means of the upper shell of the outer housing when the upper shell of the outer housing is connected to the lower shell of the outer housing, wherein a frame of the upper shell of the inner housing surrounds an area on an edge of the lower shell of the inner housing with the or each cable seating profile and wherein the inner housing retains the clamping body by means of the frame of the upper shell of the inner housing and of the edge of the lower shell of the inner housing. wherein the device housing comprises on the one hand an inner housing with a lower shell of the inner housing and an upper shell of the inner housing and on the other hand an outer housing with a lower shell of the outer housing and an upper shell of the outer housing, wherein at least one cable seating profile in the lower shell of the inner housing and a flush cable cover profile in the upper shell of the inner housing form a cable insertion opening (30, 34) for a cable which can be routed to the device, wherein the inner housing retains a clamping body, wherein a friction and/or form-fitting contact between the clamping body and a cable routed to the device can be effected by means of the outer housing, by the clamping body being pressable onto an outer surface of the cable by means of the upper shell of the outer housing when the upper shell of the outer housing is connected to the lower shell of the outer housing, wherein a frame of the upper shell of the inner housing surrounds an area on an edge of the lower shell of the inner housing with the or each cable seating profile and wherein the inner housing retains the clamping body by means of the frame of the upper shell of the inner housing and of the edge of the lower shell of the inner housing.