mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling the temperature of a beverage in a device for heating and/or frothing said beverage, wherein said beverage is heated and/or frothed by means of introduction of steam into said beverage, said method comprising the steps of: - starting to introduce steam into said beverage; - continuously detecting the temperature of said beverage, until the beverage temperature increases linearly with time; - while the beverage temperature increases linearly with time, continuously detecting said beverage temperature and identifying the first derivative of the function of the temperature over time, said first derivative being a constant, positive value (T' const); - calculating the increase of the beverage temperature after the interruption of the steam introduction (dT) as a function of said value of the first derivative of the function of the temperature over time; - determining a switch-off temperature (T s) as a difference between a desired, target temperature (T d) and said increase of the beverage temperature after the interruption of the steam introduction (dT); - interrupting the introduction of the steam into the beverage when the beverage temperature reaches said switch-off temperature (T s), characterized in that said step of continuously detecting the temperature of said beverage until the beverage temperature increases linearly with time is carried out by continuously detecting the temperature of said beverage and monitoring the second derivative of the function of the temperature over time until it becomes zero. - starting to introduce steam into said beverage; - continuously detecting the temperature of said beverage, until the beverage temperature increases linearly with time; - while the beverage temperature increases linearly with time, continuously detecting said beverage temperature and identifying the first derivative of the function of the temperature over time, said first derivative being a constant, positive value (T' const); - calculating the increase of the beverage temperature after the interruption of the steam introduction (dT) as a function of said value of the first derivative of the function of the temperature over time; - determining a switch-off temperature (T s) as a difference between a desired, target temperature (T d) and said increase of the beverage temperature after the interruption of the steam introduction (dT); - interrupting the introduction of the steam into the beverage when the beverage temperature reaches said switch-off temperature (T s), characterized in that said step of continuously detecting the temperature of said beverage until the beverage temperature increases linearly with time is carried out by continuously detecting the temperature of said beverage and monitoring the second derivative of the function of the temperature over time until it becomes zero.
Microscope, comprising an objective system, having at least two objectives (44, 52) of different focal lengths, which are selectively insertable into the beam path, a zoom system, having a total zoom region, wherein the respective overall magnification of an object that is to be examined using the microscope is obtained in each case from the focal length of the selected objective (44, 52) and the magnification of the zoom system that is set within the total zoom region, a stop for delimiting the aperture of the beam path, a control unit for controlling the stop, characterized in that the objectives (44, 52) are assigned zoom subregions (96, 98) within the total zoom region, wherein the assigned zoom subregion of each of the objectives (44, 52) is smaller than the total zoom region of the zoom system, in that limitation means (46, 48, 54, 56) by way of which the adjustability of the zoom system is in each case limited to the zoom subregion (96, 98) that is assigned to the selected objective (44, 52) are present, and in that the control unit ascertains the setting of the stop to be set in dependence on the respectively selected objective (44, 52) and/or the set focal length of the zoom system.
A method of printing, the method comprising: mixing a clay mixture with an alkaline agent to form a printable mixture; forming pellets from the printable mixture; ejecting the pellets from a print head onto a printing surface; and curing the pellets. mixing a clay mixture with an alkaline agent to form a printable mixture; forming pellets from the printable mixture; ejecting the pellets from a print head onto a printing surface; and curing the pellets.
An isolated chimeric or humanized antibody, wherein the antibody specifically binds (+) methamphetamine and comprises: (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 5; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:6; (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 7; (d) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 8; (e) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 9; and (f) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:10. (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 5; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:6; (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 7; (d) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 8; (e) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 9; and (f) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:10.
An aircraft comprising an auxiliary power unit and an aircraft auxiliary power unit sound attenuation apparatus, wherein the aircraft auxiliary power unit sound attenuation apparatus comprising: a perforated body having a center aperture through which exhaust fluid passes; a backing member outwardly offset from the perforated body; a plurality of connecting members coupling the perforated body to the backing member to form a locally reacting sound attenuation member having a plurality of channels spanning outwardly from the perforated body to the backing member wherein: the locally reacting sound attenuation member is in fluid communication with the auxiliary power unit of the aircraft so that the plurality of channels are oriented in a direction crossing a pressure drop direction of an exhaust fluid flow passing through the center aperture and each channel circumscribes the center aperture; wherein: the aircraft auxiliary power unit sound attenuation apparatus further comprises a bulk absorber (161A,161B) disposed in each of the plurality of channels where the bulk absorber is in fluid communication with the exhaust fluid; and at least one septum layer disposed between the perforated body and backing member where the at least one septum layer divides each channel into at least two portions. a perforated body having a center aperture through which exhaust fluid passes; a backing member outwardly offset from the perforated body; a plurality of connecting members coupling the perforated body to the backing member to form a locally reacting sound attenuation member having a plurality of channels spanning outwardly from the perforated body to the backing member wherein: the locally reacting sound attenuation member is in fluid communication with the auxiliary power unit of the aircraft so that the plurality of channels are oriented in a direction crossing a pressure drop direction of an exhaust fluid flow passing through the center aperture and each channel circumscribes the center aperture; wherein: the aircraft auxiliary power unit sound attenuation apparatus further comprises a bulk absorber (161A,161B) disposed in each of the plurality of channels where the bulk absorber is in fluid communication with the exhaust fluid; and at least one septum layer disposed between the perforated body and backing member where the at least one septum layer divides each channel into at least two portions. the aircraft auxiliary power unit sound attenuation apparatus further comprises a bulk absorber (161A,161B) disposed in each of the plurality of channels where the bulk absorber is in fluid communication with the exhaust fluid; and at least one septum layer disposed between the perforated body and backing member where the at least one septum layer divides each channel into at least two portions.
A method for fluid contacting in a downflow catalyst bed reactor, the method comprising: collecting liquid on a liquid collection tray; passing at least a portion of the liquid through an inlet of an enclosed mixing channel of a mixing device and downstream through the mixing channel; and passing at least a portion of vapor through a vapor inlet of the mixing channel downstream of the liquid inlet and across the liquid stream flowing through the mixing channel to contact the vapor and liquid in the mixing channel; wherein the mixing channel is an elongate generally annular channel extending about the center axis of the reactor; wherein passing at least a portion of the vapor through the mixing channel vapor inlet further comprises passing at least a portion of the vapor through an upper chimney opening of a vapor chimney surrounding the vapor inlet and passing the vapor downwardly through the chimney to the mixing channel vapor inlet, and further comprising passing at least another portion of the vapor through a second vapor inlet of the mixing channel at a different downstream distance from the liquid inlet than the first vapor inlet and across the liquid stream flowing through the mixing channel to contact the vapor and liquid in the mixing channel. collecting liquid on a liquid collection tray; passing at least a portion of the liquid through an inlet of an enclosed mixing channel of a mixing device and downstream through the mixing channel; and passing at least a portion of vapor through a vapor inlet of the mixing channel downstream of the liquid inlet and across the liquid stream flowing through the mixing channel to contact the vapor and liquid in the mixing channel; wherein the mixing channel is an elongate generally annular channel extending about the center axis of the reactor; wherein passing at least a portion of the vapor through the mixing channel vapor inlet further comprises passing at least a portion of the vapor through an upper chimney opening of a vapor chimney surrounding the vapor inlet and passing the vapor downwardly through the chimney to the mixing channel vapor inlet, and further comprising passing at least another portion of the vapor through a second vapor inlet of the mixing channel at a different downstream distance from the liquid inlet than the first vapor inlet and across the liquid stream flowing through the mixing channel to contact the vapor and liquid in the mixing channel.
A method of mixing a heterogeneous solvent volume that includes a first plug of a first mobile phase type immediately adjacent to a second plug of a second mobile phase type, where the first mobile phase type and the second mobile phase type are different, the method comprising: pumping a first mobile phase type and a second mobile phase type with a pump to output the heterogeneous solvent volume; inputting the heterogeneous solvent volume into a multi-lumen mixing device, the multi-lumen mixing device comprising; a mixer body having an inlet portion and an outlet portion; an array of capillary channels (128A, 128B, 128C, 128D, 128E) within the mixer body, in which each capillary channel has a same length, in which an inlet for each of the capillaries is proximate to the inlet portion and an outlet for each of the capillaries is proximate to the outlet portion, in which the capillary channels of the array have at least three different cross-sectional areas; outputting a mixture from the multi-lumen mixing device, in which the mixture contains the first mobile phase type and the second mobile phase type; and inputting the mixture into a chromatography column. pumping a first mobile phase type and a second mobile phase type with a pump to output the heterogeneous solvent volume; inputting the heterogeneous solvent volume into a multi-lumen mixing device, the multi-lumen mixing device comprising; a mixer body having an inlet portion and an outlet portion; an array of capillary channels (128A, 128B, 128C, 128D, 128E) within the mixer body, in which each capillary channel has a same length, in which an inlet for each of the capillaries is proximate to the inlet portion and an outlet for each of the capillaries is proximate to the outlet portion, in which the capillary channels of the array have at least three different cross-sectional areas; a mixer body having an inlet portion and an outlet portion; an array of capillary channels (128A, 128B, 128C, 128D, 128E) within the mixer body, in which each capillary channel has a same length, in which an inlet for each of the capillaries is proximate to the inlet portion and an outlet for each of the capillaries is proximate to the outlet portion, in which the capillary channels of the array have at least three different cross-sectional areas; outputting a mixture from the multi-lumen mixing device, in which the mixture contains the first mobile phase type and the second mobile phase type; and inputting the mixture into a chromatography column.
A mini-scope for multi-directional imaging, comprising: an elongated mini-scope body having a distal end, a proximal end and a center axis; an emissions aperture, disposed at the distal end of the elongated mini-scope body and configured to emit a beam of optical energy (32a, 34a, 40a) for illuminating an object; a plurality of selective mirrors (12, 12a), each disposed at the distal end of the elongated mini-scope body and along an optical path of the beam, and configured to selectively and differentially pass and reflect the beam of optical energy (32a, 34a, 40a); wherein said plurality of selective mirrors (12, 12a) includes at least two mirrors having different directional orientations relative to the center axis of the elongated mini-scope body, to reflect the beam of optical energy (32a, 34a, 40a) in at least two different directions; a solid state imaging device (SSID), disposed at the distal end of the elongated mini-scope body, for imaging illumination (32b, 34b, 40b) reflected by an external object in response to the beam of optical energy (32a, 34a, 40a), the illumination having passed through and reflected from the selective mirror to the solid state imaging device (SSID); and characterized in that the at least two mirrors selectively and differentially pass and reflect the beam of optical energy (32a, 34a, 40a) and the illumination (32b, 34b, 40b) from the external object based on the optical characteristics of the beam. an elongated mini-scope body having a distal end, a proximal end and a center axis; an emissions aperture, disposed at the distal end of the elongated mini-scope body and configured to emit a beam of optical energy (32a, 34a, 40a) for illuminating an object; a plurality of selective mirrors (12, 12a), each disposed at the distal end of the elongated mini-scope body and along an optical path of the beam, and configured to selectively and differentially pass and reflect the beam of optical energy (32a, 34a, 40a); wherein said plurality of selective mirrors (12, 12a) includes at least two mirrors having different directional orientations relative to the center axis of the elongated mini-scope body, to reflect the beam of optical energy (32a, 34a, 40a) in at least two different directions; a solid state imaging device (SSID), disposed at the distal end of the elongated mini-scope body, for imaging illumination (32b, 34b, 40b) reflected by an external object in response to the beam of optical energy (32a, 34a, 40a), the illumination having passed through and reflected from the selective mirror to the solid state imaging device (SSID); and characterized in that the at least two mirrors selectively and differentially pass and reflect the beam of optical energy (32a, 34a, 40a) and the illumination (32b, 34b, 40b) from the external object based on the optical characteristics of the beam.
- A mechanical steering lock for vehicles; the steering lock comprising a mechanical steering lock device manually operable by means of a mechanical key and an electric rotating switch coupled to the mechanical steering lock device to associate an electric function of the steering lock with each position of the key; the steering lock device comprising a control member operated by said mechanical key and said electric rotating switch comprising a printed circuit board, an operating member facing an outer flat surface of said printed circuit board and coupled to a fixed support, pivotally about a fixed axis orthogonal to said outer flat surface and in a position axially fixed and angularly integral with said control member; fixed first electric contacts (22; 23; 24; 25) carried by said printed circuit board; and movable second electric contacts, which are adapted to slidingly cooperate in a selective manner with said fixed first electric contacts and are angularly integral with said operating member; said fixed first electric contacts each comprising a respective layer of conducting material electrically insulated from the other layers and resting on said outer flat surface; characterized in that said rotating switch comprises an outer casing different from an outer casing of said steering lock device and releasably coupled to the casing of the steering lock device; the outer casing of said rotating switch housing said printed circuit board, said fixed first electric contacts and at least said movable second contacts; the outer casing being arranged entirely outside the casing of said steering lock device.
Fluid damper for mutually adjustable parts, in particular furniture parts, with a piston guided in a cylinder so as to be adjustable along a longitudinal axis, at least one passage opening (4.1, 4.2) for fluid flowing through, which is formed in the piston and/or between piston and cylinder, a sleeve with wings (2.1, 2.2; 2.1', 2.2'), which is arranged to be radially rotatable relative to the piston against a spring load about the longitudinal axis or about an axis extending parallel thereto and can be brought into operative connection with the passage openings (4.1, 4.2), characterized in that the fluid damper is formed with a hollow cylindrical part of the piston which radially surrounds the sleeve and the at least one vane (2.1, 2.2; 2.1', 2.2') arranged on its circumference along at least part of the longitudinal axis and that the vane (2.1, 2.2; 2.1', 2.2') is designed to progressively close the passage opening (4.1, 4.2) against a compressive load on the fluid damper and to release it both when the fluid damper is unloaded and when a tensile load is applied to the fluid damper.
A machine for the sizing and colouring of holes in leather or leatherette products, comprising - a structure having a supporting surface for a leather or leatherette product having a plurality of holes, - a movable base supporting a plurality of heads, each equipped with a respective tool adapted to size and colour the holes, - a movement unit configured to move said movable base, characterized in that said movable base is located below the supporting surface and in that said movement unit is configured to move said movable base between a colour dipping position, in which said heads interact with a containment volume containing the colour, and a hole sizing and colouring position, in which the tools protrude from the supporting surface for engaging, sizing and colouring the holes, wherein said movement unit is configured to rotate said movable base about an axis of rotation parallel to said supporting surface between a first intermediate position, in which said tools face the containment volume, and a second intermediate position, in which said tools are arranged below the supporting surface and face said supporting surface. - a structure having a supporting surface for a leather or leatherette product having a plurality of holes, - a movable base supporting a plurality of heads, each equipped with a respective tool adapted to size and colour the holes, - a movement unit configured to move said movable base, characterized in that said movable base is located below the supporting surface and in that said movement unit is configured to move said movable base between a colour dipping position, in which said heads interact with a containment volume containing the colour, and a hole sizing and colouring position, in which the tools protrude from the supporting surface for engaging, sizing and colouring the holes, wherein said movement unit is configured to rotate said movable base about an axis of rotation parallel to said supporting surface between a first intermediate position, in which said tools face the containment volume, and a second intermediate position, in which said tools are arranged below the supporting surface and face said supporting surface.
A mobile terminal with a periscope lens module, wherein the periscope lens module comprises a lens assembly, wherein the lens assembly comprises an enclosure, a first lens, and a plurality of second lenses, wherein the enclosure comprises a first cylinder and a second cylinder connected to the first cylinder, a diameter of the first cylinder is greater than a diameter of the second cylinder, at least one gap penetrating the first cylinder is disposed on a sidewall of the first cylinder, wherein an edge that is of each gap and that is located on an outside of the first cylinder is set to a cutting surface, and a distance from a center of the first lens to the cutting surface of the first lens is less than d+e, wherein d is the radius of the first lens and e is the sidewall thickness of the first cylinder; wherein the distance from the center of the first lens to the cutting surface is not less than the radius of the first lens; and the first lens is fastened in the first cylinder, the plurality of second lenses are fastened in the second cylinder, and the first lens, the plurality of second lenses, the first cylinder, and the second cylinder are coaxially disposed; wherein one of the at least one gap faces to a rear housing of the mobile terminal. wherein the distance from the center of the first lens to the cutting surface is not less than the radius of the first lens; and the first lens is fastened in the first cylinder, the plurality of second lenses are fastened in the second cylinder, and the first lens, the plurality of second lenses, the first cylinder, and the second cylinder are coaxially disposed; wherein one of the at least one gap faces to a rear housing of the mobile terminal.
Housing for an electronics device, in particular an antenna amplifier of a vehicle, wherein the housing accommodates at least one printed circuit board with electronic components and comprises at least two housing parts, such as a lower part and an upper part, wherein means for connecting the at least two housing parts to one another are provided, wherein, by virtue of the connection operation, the printed circuit board is clamped into subregions of the two housing parts and as a result is fixed in position in the housing, wherein the outer edge regions of the printed circuit board are clamped in between facing surfaces of circumferential edges (4, 5) of the housing parts, and the at least one electronic component is arranged very close to the circumferential edge, so that a distance "a" between this electronic component and the circumferential edge can be kept small, characterized in that the lower part or the upper part is provided with at least one fixing stem which can engage into a corresponding hole in the printed circuit board when said printed circuit board is mounted onto the lower part or the upper part.