mhurhangee/ep-ind-claims huggingface dataset:
A microscope comprising a control device and a confocal detection system, wherein the control device comprises: an actuator configured to shift a microscopic field of view relative to a sample, an operating device configured to be operated by a user to control the actuator in accordance with a response characteristic determining a shift sensitivity according to which the field of view is shifted relative to the sample in response to a user operation of the operating device, a display device, and a processor, characterized in that the processor is configured to determine a total visual magnification based on which the field of view is visualized by the microscope on the display device to the user and to control the response characteristic of the operating device based on the total visual magnification, that the processor is configured to obtain an optical magnification and to determine the total visual magnification based thereon, and that the processor is configured to obtain the optical magnification in accordance with a variable scanning parameter of the confocal detection system, said scanning parameter defining the size of the field of view which is scanned by the confocal detection system. an actuator configured to shift a microscopic field of view relative to a sample, an operating device configured to be operated by a user to control the actuator in accordance with a response characteristic determining a shift sensitivity according to which the field of view is shifted relative to the sample in response to a user operation of the operating device, a display device, and a processor, characterized in that the processor is configured to determine a total visual magnification based on which the field of view is visualized by the microscope on the display device to the user and to control the response characteristic of the operating device based on the total visual magnification, that the processor is configured to obtain an optical magnification and to determine the total visual magnification based thereon, and that the processor is configured to obtain the optical magnification in accordance with a variable scanning parameter of the confocal detection system, said scanning parameter defining the size of the field of view which is scanned by the confocal detection system.
Insulating double glazing comprising a glass sheet which exhibits, on the face 2, a set of "low-e" layers which are produced by cathode sputtering and which comprise at least one infrared-reflecting metal layer, the other glass sheet comprising, on the face 4, one or more layers of metal oxides which are deposited by gas pyrolysis, the space located between the sheets being closed and filled with insulating gas composed of krypton for at least 86% by volume and at most 5% of air, this glazing exhibiting a solar factor at most equal to 35% for thickness of the clear glass sheets of 4 mm.
An apparatus for coating granular particles comprising: a static fluidized bed preheater apparatus for heating granular particles having a source of heated air or gas and an outlet, a rotary drum having an entry horizontally coupled to the static fluidized bed preheater to receive heated granular particles from the static fluidized bed preheater, the entry of the rotary drum comprising a combined chute and support truss, where the chute is coupled to the rotary drum (60, 308) and a feed end ring is positioned about the chute, the chute having a first section including a housing having a first end and a second end, the second end having a generally circular shape and which is coupled to a second section of the chute, the second section having a generally elliptical shape with a discharge end and positioned at an angle with respect to the position of the rotary drum (60, 308), and an intermediate segment of the second section penetrating the support truss located within the rotary drum (60, 308), a coating apparatus positioned within the rotary drum to apply a coating to the heated granular particles, a cooling apparatus positioned horizontally in association with the rotary drum, the cooling apparatus comprising a gas inlet for a flow of cooling air or gas to cool the granular particles subsequent to coating and an outlet for the air and vapor, and a rotary screener. a static fluidized bed preheater apparatus for heating granular particles having a source of heated air or gas and an outlet, a rotary drum having an entry horizontally coupled to the static fluidized bed preheater to receive heated granular particles from the static fluidized bed preheater, the entry of the rotary drum comprising a combined chute and support truss, where the chute is coupled to the rotary drum (60, 308) and a feed end ring is positioned about the chute, the chute having a first section including a housing having a first end and a second end, the second end having a generally circular shape and which is coupled to a second section of the chute, the second section having a generally elliptical shape with a discharge end and positioned at an angle with respect to the position of the rotary drum (60, 308), and an intermediate segment of the second section penetrating the support truss located within the rotary drum (60, 308), a coating apparatus positioned within the rotary drum to apply a coating to the heated granular particles, a cooling apparatus positioned horizontally in association with the rotary drum, the cooling apparatus comprising a gas inlet for a flow of cooling air or gas to cool the granular particles subsequent to coating and an outlet for the air and vapor, and a rotary screener.
Adapter for a rolling assembly having a rotation axis and comprising: - a tyre having two beads, - a rim, - said adapter providing the connection between one of the beads and the rim, said rim having two rim seats, said adapter having: - an axially inner end that is intended to be mounted on the rim seat and comprises an inner reinforcer element, - an axially outer end that comprises an outer reinforcer element, - a body that connects said outer end to said inner end so as to form a single piece and comprises at least one main reinforcement that provides the connection between said outer reinforcer and said inner reinforcer, - a substantially cylindrical adapter seat intended to receive one of said beads, said seat being situated at the axially outer end of said body, - an adapter bearing face substantially contained in a plane perpendicular to the rotation axis, said bearing face being situated on the axially inner face of the axially outer end, the reinforcer element of the axially outer end being entirely situated axially outside the bearing face, characterized in that the body comprises, opposite the adapter seat, an annular seat reinforcer. - a tyre having two beads, - a rim, - said adapter providing the connection between one of the beads and the rim, - an axially inner end that is intended to be mounted on the rim seat and comprises an inner reinforcer element, - an axially outer end that comprises an outer reinforcer element, - a body that connects said outer end to said inner end so as to form a single piece and comprises at least one main reinforcement that provides the connection between said outer reinforcer and said inner reinforcer, - a substantially cylindrical adapter seat intended to receive one of said beads, said seat being situated at the axially outer end of said body, - an adapter bearing face substantially contained in a plane perpendicular to the rotation axis, said bearing face being situated on the axially inner face of the axially outer end,
A method for reconfiguring clock generation circuitry in a clock distribution network of a synchronous digital system, the method comprising: generating a first clock signal using the clock generation circuitry; selecting the first clock signal as a primary clock for the synchronous digital system; selecting a second clock signal as the primary clock, wherein the selecting the second clock signal comprises causing the second clock signal to replace the first clock signal as the primary clock without causing clock-induced errors in the synchronous digital system; reconfiguring the clock generation circuitry during the time that the second clock signal is acting as the primary clock; and selecting the first clock signal as the primary clock for the synchronous digital system after the clock generation circuitry has stabilized, wherein the selecting the first clock signal comprises causing the first clock signal to replace the second clock signal as the primary clock without causing clock-induced errors in the synchronous digital system; wherein the synchronous digital system is comprised on a chip; and wherein the second clock signal is generated by an on-chip oscillator that is independent of external clock signals; detecting a condition requiring selection of a clock signal generated on-chip as the primary clock; selecting the second clock signal in response to the detecting; and characterised in that the condition requiring selection of a clock signal generated on-chip as the primary clock comprises a signal indicating possible tampering with the synchronous digital system. generating a first clock signal using the clock generation circuitry; selecting the first clock signal as a primary clock for the synchronous digital system; selecting a second clock signal as the primary clock, wherein the selecting the second clock signal comprises causing the second clock signal to replace the first clock signal as the primary clock without causing clock-induced errors in the synchronous digital system; reconfiguring the clock generation circuitry during the time that the second clock signal is acting as the primary clock; and selecting the first clock signal as the primary clock for the synchronous digital system after the clock generation circuitry has stabilized, wherein the selecting the first clock signal comprises causing the first clock signal to replace the second clock signal as the primary clock without causing clock-induced errors in the synchronous digital system; wherein the synchronous digital system is comprised on a chip; and wherein the second clock signal is generated by an on-chip oscillator that is independent of external clock signals; detecting a condition requiring selection of a clock signal generated on-chip as the primary clock; selecting the second clock signal in response to the detecting; and characterised in that the condition requiring selection of a clock signal generated on-chip as the primary clock comprises a signal indicating possible tampering with the synchronous digital system.
A method of constructing a gas turbine system, the method comprising: placing a foundation interface of a gas turbine mannequin on a foundation; aligning the gas turbine mannequin with a load; aligning the gas turbine mannequin with an exhaust structure; connecting the gas turbine mannequin to the load and the exhaust structure; removing the gas turbine mannequin; and installing a gas turbine. placing a foundation interface of a gas turbine mannequin on a foundation; aligning the gas turbine mannequin with a load; aligning the gas turbine mannequin with an exhaust structure; connecting the gas turbine mannequin to the load and the exhaust structure; removing the gas turbine mannequin; and installing a gas turbine.
Electronic equipment comprising a chassis engaged in a box having a face parallel to the engagement direction for engaging the chassis in the box and provided with at least one push button (20.1, 20.2, 20.3) that is mounted to slide perpendicularly to said face and that includes a light guide (23.1, 23.2, 23.3) projecting into said box, at least one electronic card being mounted on the chassis so as to extend parallel to said face of the box and being provided with at least one switch (5.1, 5.2, 5.3) designed to cooperate both with the push button and also with at least one light source (6.1, 6.2, 6.3) that is surrounded by a light-tight frame (7.1, 7.2, 7.3), which frame receives the free end of the light guide, the light-tight frame being of height that decreases on going away from the chassis and the end of the light guide being of height that decreases in the opposite direction so that they come mutually into contact only once the chassis is fully engaged in the box.
A facility for spreading bedding materials over a farming area, said facility comprising: - a hopper able to receive a supply of bulk bedding materials, said hopper comprising a bottom equipped with two closable discharge openings and side walls, - a distribution device comprising two spreading discs mounted on a support frame and means for rotating the spreading discs, each spreading disc, equipped with at least one radial ejection blade, extending, in the usage configuration of the facility, below one of the discharge openings of the hopper with its vertical rotation axis to receive the bedding materials falling by gravity from the associated discharge opening and to spray them on the ground, the support frame of the spreading discs being coupled to the hopper to form an assembly secured in movement, and - means for moving the assembly, characterized in that the means for moving the assembly are means for moving said assembly along a predetermined guide path and in that the spreading discs are mounted on the support frame adjustable in position at least in the direction of a variation of the distance between the disc centers and in that the hopper comprises, above the discharge openings, two closable emptying outlets of the hopper, arranged on the hopper, at a level higher than that occupied by the discharge openings, in the laid state of the hopper resting by its bottom on the ground. - a hopper able to receive a supply of bulk bedding materials, said hopper comprising a bottom equipped with two closable discharge openings and side walls, - a distribution device comprising two spreading discs mounted on a support frame and means for rotating the spreading discs, each spreading disc, equipped with at least one radial ejection blade, extending, in the usage configuration of the facility, below one of the discharge openings of the hopper with its vertical rotation axis to receive the bedding materials falling by gravity from the associated discharge opening and to spray them on the ground, the support frame of the spreading discs being coupled to the hopper to form an assembly secured in movement, and - means for moving the assembly,
A method of curing a layer of a target material using a holographic projection device including a light source, a MEMS device, and a LCOS-SLM arranged in optical contact, the method comprising the ordered steps of: generating a laser control signal, a MEMS control signal and a LCOS-SLM control signal based on a two-dimensional content; generating, with the laser source, a plurality of individual laser beams based on the laser control signal; receiving the plurality of individual laser beams from the laser source on the MEMS device; controlling the MEMS device based on the MEMS control signal to reflect the plurality of individual laser beams to a plurality of locations on the LCOS-SLM; receiving the plurality of individual laser beams at the plurality of locations on the LCOS-SLM; and modulating the plurality of individual laser beams based on the LCOS-SLM control signal to generate a holographic wavefront (402, 404) from each modulated individual laser beam, each holographic wavefront forming at least one corresponding focal point, to generate a plurality of distinct focused light field regions based on the focal points of the plurality of holographic wavefronts (402, 404), and thereby curing a layer of the target material at the plurality of distinct focused light field regions, wherein, together, the plurality of distinct focused light field regions correspond to the two-dimensional content. generating a laser control signal, a MEMS control signal and a LCOS-SLM control signal based on a two-dimensional content; generating, with the laser source, a plurality of individual laser beams based on the laser control signal; receiving the plurality of individual laser beams from the laser source on the MEMS device; controlling the MEMS device based on the MEMS control signal to reflect the plurality of individual laser beams to a plurality of locations on the LCOS-SLM; receiving the plurality of individual laser beams at the plurality of locations on the LCOS-SLM; and modulating the plurality of individual laser beams based on the LCOS-SLM control signal to generate a holographic wavefront (402, 404) from each modulated individual laser beam, each holographic wavefront forming at least one corresponding focal point, to generate a plurality of distinct focused light field regions based on the focal points of the plurality of holographic wavefronts (402, 404), and thereby curing a layer of the target material at the plurality of distinct focused light field regions, wherein, together, the plurality of distinct focused light field regions correspond to the two-dimensional content.
A portable electric motorized shears (100;200;300;400;500) comprising: - at least one movable blade, - an electric motor for driving said at least one movable blade, and - at least one mechanical end-of-travel end stop (114;202;402;502) of said movable blade in at least one direction of displacement; characterized in that it also comprises an end stop detection means (130; 330) in said at least one direction of displacement, as a function of a current consumed by said electric motor. - at least one movable blade, - an electric motor for driving said at least one movable blade, and - at least one mechanical end-of-travel end stop (114;202;402;502) of said movable blade in at least one direction of displacement;
Etching solution, comprising HF, HNO 3, acetic acid and an alkali iodide, preferably potassium iodide, wherein the alkali iodide is present in an amount of 1 mmol/100 ml or more, and wherein the acetic acid is present in an amount of 50 to 90 vol%, based on an acetic acid having a concentration of 99%.
A transport and/or support mat for use in the medical or nursing field, especially an x-ray table support, 1.1 having a flat form which extends along a longitudinal axis and transverse axis and which has a flat upper side and a flat bottom side, wherein 1.2 the outer surface of the form is formed exclusively by a fully enclosed cover; characterized in that 1.3 elevated handle elements are introduced on two mutually opposite edges (3, 4), which extend along the longitudinal axis, within the cover opposite the region of the form between the edges (3, 4), which handle elements are introduced completely within the cover and are surrounded fully by the cover. 1.1 having a flat form which extends along a longitudinal axis and transverse axis and which has a flat upper side and a flat bottom side, wherein 1.2 the outer surface of the form is formed exclusively by a fully enclosed cover; characterized in that 1.3 elevated handle elements are introduced on two mutually opposite edges (3, 4), which extend along the longitudinal axis, within the cover opposite the region of the form between the edges (3, 4), which handle elements are introduced completely within the cover and are surrounded fully by the cover.
Process for the production of ethylene polymers having a density of ≥ 935 kg/m 3 as measured according to ISO 1183-1, method A. in a tubular reactor comprising reacting in said tubular reactor a feed composition comprising ethylene and one or more composition comprising one or more cyclic olefin wherein the cyclic olefin is a compound having the structure of Formula: wherein R is a moiety comprising ≥1 and ≤10 carbon atoms; wherein R 1 and R 2 are each individually hydrogen or a moiety comprising ≥1 and ≤5 carbon atoms, R 1 and R 2 may be the same or different; wherein • the tubular reactor is operated at a pressure of ≥ 200 and ≤ 280 MPa; • the average reaction peak temperature is ≥ 220°C and ≤ 300°C; • the composition comprising one or more of cyclic olefins is fed to the reactor in one or more feed inlet of said tubular reactor; and • said cyclic olefin is fed to the tubular reactor in quantities of ≤ 1.0 mol %, with regards to the total feed composition. wherein R is a moiety comprising ≥1 and ≤10 carbon atoms; wherein R 1 and R 2 are each individually hydrogen or a moiety comprising ≥1 and ≤5 carbon atoms, R 1 and R 2 may be the same or different; wherein • the tubular reactor is operated at a pressure of ≥ 200 and ≤ 280 MPa; • the average reaction peak temperature is ≥ 220°C and ≤ 300°C; • the composition comprising one or more of cyclic olefins is fed to the reactor in one or more feed inlet of said tubular reactor; and • said cyclic olefin is fed to the tubular reactor in quantities of ≤ 1.0 mol %, with regards to the total feed composition. • the tubular reactor is operated at a pressure of ≥ 200 and ≤ 280 MPa; • the average reaction peak temperature is ≥ 220°C and ≤ 300°C; • the composition comprising one or more of cyclic olefins is fed to the reactor in one or more feed inlet of said tubular reactor; and • said cyclic olefin is fed to the tubular reactor in quantities of ≤ 1.0 mol %, with regards to the total feed composition.
A method of providing treatment information for treatment of a tumor comprising: determining from sequencing data a copy number and an allele fraction for an allele within the sequencing data; ascertaining allelic state information for the allele in the tumor ex-vivo based on the determined copy number and the determined allele fraction; and using the allelic state information for identifying the presence or emergence of an evolutionary pattern of clones within the tumor that is indicative of susceptibility of the tumor to treatment with a drug. determining from sequencing data a copy number and an allele fraction for an allele within the sequencing data; ascertaining allelic state information for the allele in the tumor ex-vivo based on the determined copy number and the determined allele fraction; and using the allelic state information for identifying the presence or emergence of an evolutionary pattern of clones within the tumor that is indicative of susceptibility of the tumor to treatment with a drug.
Use in vitro of deacylated gellan gum or a salt thereof for promoting the production of a desired protein by an animal cell to be cultivated, wherein the animal cell is a Chinese Hamster Ovary cell with a gene introduced encoding the desired protein or an antibody producing hybridoma cell.
Sanitary insert unit having an insert housing in which a first flow path and a second flow path are formed, wherein the first flow path and the second flow path extend in each case between at least one inflow-side inlet opening and an outflowside outlet end, and having a valve body on which a flow obstruction disposed in the first flow path is formed and which can be displaced from a first switching state into a second switching state against a return force, wherein flow can take place through the first flow path in the first switching state and in the second switching state, and wherein the second flow path is closed by the valve body in the first switching state and is opened in the second switching state, characterised in that the valve body comprises an elastic wall region which, in the first switching state, extends straight in an extension direction and, in the second switching state, extends in a bent manner in the extension direction.