mhurhangee/ep-ind-claims huggingface dataset:
A cladding part for a motor vehicle, comprising: - a cladding base member with an outside that is visible when used for the intended purpose, - a support structure, which is arranged on the back of the cladding base member opposite to the outside, - at least one light-emitting lighting unit, which is concealed by the cladding base member when used for the intended purpose, wherein the cladding base member has a light exit region which consists partially or completely of a material that is translucent for the light emitted by the lighting unit, wherein the cladding part is a spoiler, wherein a light-guiding element is provided, which is coupled to the lighting unit in such a way that the light emitted by the lighting unit is guided from a light input region up to a light output region at least in part to the light exit region of the cladding base member and is visible on the outside of the cladding base member through the light exit region, characterised in that the light exit region is partly covered on the inside opposite to the outside thereof with a non-transparent covering element adjacent to the light output region, so that the emitted light can only exit from the light exit region through a gap next to the covering element, wherein the covering element is formed as part of the support structure and in one piece therewith. - a cladding base member with an outside that is visible when used for the intended purpose, - a support structure, which is arranged on the back of the cladding base member opposite to the outside, - at least one light-emitting lighting unit, which is concealed by the cladding base member when used for the intended purpose,
A power generation system comprising: a combustion engine associated with a generator and a turbine; a power source (108; 128) operable to provide power; a converter operable to receive power from the power source (108; 128) and to provide frequency variable power for accelerating the generator and the associated turbine to a predetermined speed; characterized in that the generator is a doubly fed induction generator operable to receive frequency variable power from the converter; wherein the converter is disconnected from the generator and associated turbine when the predetermined speed is reached; and by a processor operable to modulate operation of the converter; said processor being configured to modulate subsequent operation of the generator using frequency variable power from the converter. a combustion engine associated with a generator and a turbine; a power source (108; 128) operable to provide power; a converter operable to receive power from the power source (108; 128) and to provide frequency variable power for accelerating the generator and the associated turbine to a predetermined speed; characterized in that the generator is a doubly fed induction generator operable to receive frequency variable power from the converter; wherein the converter is disconnected from the generator and associated turbine when the predetermined speed is reached; and by a processor operable to modulate operation of the converter; said processor being configured to modulate subsequent operation of the generator using frequency variable power from the converter.
A zonal gel electrophoresis method of assessing the level of specific lipoprotein particles present in a biological sample comprising: providing a first and a second lipoprotein-binding complex, wherein the first lipoprotein-binding complex comprises an antibody that binds to a first lipoprotein particle or portion thereof, wherein the antibody is bound to a first fluorescent signal producing molecule capable of producing or causing production of a first detectable signal and the second lipoprotein-binding complex comprises a second antibody that binds to a second lipoprotein particle or portion thereof, wherein the second antibody is bound to a second fluorescent signal producing molecule capable of producing or causing production of a second detectable signal and wherein the first and the second detectable signals are distinguishable from each other when detected in a single lane of an electrophoretic gel; separating the lipoprotein particles present in the biological sample by depositing the biological sample on an electrophoretic gel and carrying out gel electrophoresis; probing the lipoprotein particles or portions thereof in the electrophoresed gel with the first and second lipoprotein-binding complexes to produce the first and the second detectable signals; detecting the first and second detectable signals produced on the electrophoretic gel, wherein the detectable signals are detectable by fluorometric means; and determining the level of the first and the second lipoprotein particles or portions present in the biological sample based on said detecting. providing a first and a second lipoprotein-binding complex, wherein the first lipoprotein-binding complex comprises an antibody that binds to a first lipoprotein particle or portion thereof, wherein the antibody is bound to a first fluorescent signal producing molecule capable of producing or causing production of a first detectable signal and the second lipoprotein-binding complex comprises a second antibody that binds to a second lipoprotein particle or portion thereof, wherein the second antibody is bound to a second fluorescent signal producing molecule capable of producing or causing production of a second detectable signal and wherein the first and the second detectable signals are distinguishable from each other when detected in a single lane of an electrophoretic gel; separating the lipoprotein particles present in the biological sample by depositing the biological sample on an electrophoretic gel and carrying out gel electrophoresis; probing the lipoprotein particles or portions thereof in the electrophoresed gel with the first and second lipoprotein-binding complexes to produce the first and the second detectable signals; detecting the first and second detectable signals produced on the electrophoretic gel, wherein the detectable signals are detectable by fluorometric means; and determining the level of the first and the second lipoprotein particles or portions present in the biological sample based on said detecting.
A processing line for depositing thin-film coating comprising at least one lock-chamber, at least one buffer chamber, and at least one processing chamber containing technological devices for depositing of layering material and for further processing of the depositioned layer, as well as two substrate supports supporting substrates which substrate supports are located each on one carriage (9, 10) configured to pass through the chambers in parallel and next to each other, at least one technological device is adapted to deposit material on a surface of the substrate and at least one further device is adapted to further process the depositioned material on the substrate surface and a transport system with each substrate support embodied in the form of a rotating drum, wherein the carriages (9, 10) each have a rotating drum oriented parallel to each other and mounted thereon and the arranged drums are installed on the carriages (9, 10) coaxially to the carriage's movement direction and are configured to rotate at a constant angular velocity, and the carriages (9, 10) are movable forward at a constant linear velocity wherein the technological device for depositing of layering material is located between the drums and the technological device for further processing of the depositioned layer is located between the drums. a transport system with each substrate support embodied in the form of a rotating drum, wherein the carriages (9, 10) each have a rotating drum oriented parallel to each other and mounted thereon and the arranged drums are installed on the carriages (9, 10) coaxially to the carriage's movement direction and are configured to rotate at a constant angular velocity, and the carriages (9, 10) are movable forward at a constant linear velocity wherein the technological device for depositing of layering material is located between the drums and the technological device for further processing of the depositioned layer is located between the drums.
Illuminator for an image acquisition system comprising an optical apparatus for acquiring images of an object, wherein said optical apparatus includes an acquisition sensor and a control device to command the acquisition and processing of an image and the switching on of the illuminator, wherein said optical apparatus is provided with optical means and said illuminator is associable with said optical apparatus; wherein said illuminator comprises: a body provided with an opening, for receiving said optical means; illuminating means arranged around said opening in a frontal face of said body and commandable by said control device of said optical apparatus to illuminate a space in front of said frontal face; electronic control means of said illuminator; heat dissipating means; connecting means for removably fixing said illuminator at least to said optical apparatus; wherein said body comprises a rear face opposite said frontal face which comprises a plurality of distinct functional case elements suitable for receiving at least said electronic control means or suitable for defining said heat dissipating means or defining said connecting means, wherein said functional case elements are fixed to a rear wall of said rear face, characterised in that said functional case elements are positioned around said opening, distributed around said opening and conveniently spaced apart from said opening in such a manner as to enable an operator, when said optical apparatus is associated with said illuminator, to access said optical means in order to dismantle said optical means from said apparatus or to adjust optical adjusting means (7, 8) of said optical means, said functional case elements including a first set of functional case elements, wherein the elements of said first set of functional case elements have a reduced height lesser than a preset height and are arranged in a first sector of said rear wall between said opening and a side wall of said body to define a preferential lateral access portion devoid of obstacles to said optical means.
A petroleum well formation pressure meter system comprising - a petroleum fluid conducting tubing in a borehole through a reservoir rock formation, - said tubing comprising a blank pipe section forming a blank-pipe-isolated first annulus section isolated by a first and a second packer (1, 2), said tubing comprising an adjacent non-blank pipe section beyond said first packer forming a tubing-communicating petroleum producing second annulus section, characterized by - said first packer comprising a tracer-conducting channel allowing through passage of tracer material (Trb) from an inlet from a bellows comprising a fluid tracer (Tr b) in pressure communication with said blank-pipe-isolated annulus section, to an outlet to said tubing-communicating annulus section. - a petroleum fluid conducting tubing in a borehole through a reservoir rock formation, - said tubing comprising a blank pipe section forming a blank-pipe-isolated first annulus section isolated by a first and a second packer (1, 2), said tubing comprising an adjacent non-blank pipe section beyond said first packer forming a tubing-communicating petroleum producing second annulus section, - said first packer comprising a tracer-conducting channel allowing through passage of tracer material (Trb) from an inlet from a bellows comprising a fluid tracer (Tr b) in pressure communication with said blank-pipe-isolated annulus section, to an outlet to said tubing-communicating annulus section.
An instrument for biological analysis, comprising: an excitation source; an optical sensor configured to receive emissions from at least one biological sample in response to the excitation source; an excitation optical system disposed along an excitation optical path; an emission optical system disposed along an emission optical path; a sensor lens configured to direct emissions from at least some of the biological sample onto the optical sensor; a cover disposed in the excitation path immediately adjacent to the at least one sample, the cover having an illuminated surface which, when illuminated by the excitation light, produces reflected radiation comprising radiation from the excitation source that is reflected by the illuminated surface; and a radiation shield, wherein: the radiation shield comprises a sensor aperture disposed along the emission optical path and a blocking structure configured to cooperate with the sensor aperture such that, of the radiation which is reflected by the illuminated surface, only that which is subsequently reflected by another surface of the instrument is received by the optical sensor. an excitation source; an optical sensor configured to receive emissions from at least one biological sample in response to the excitation source; an excitation optical system disposed along an excitation optical path; an emission optical system disposed along an emission optical path; a sensor lens configured to direct emissions from at least some of the biological sample onto the optical sensor; a cover disposed in the excitation path immediately adjacent to the at least one sample, the cover having an illuminated surface which, when illuminated by the excitation light, produces reflected radiation comprising radiation from the excitation source that is reflected by the illuminated surface; and a radiation shield, wherein: the radiation shield comprises a sensor aperture disposed along the emission optical path and a blocking structure configured to cooperate with the sensor aperture such that, of the radiation which is reflected by the illuminated surface, only that which is subsequently reflected by another surface of the instrument is received by the optical sensor.
An inkjet printing method for manufacturing a decorative surface comprising staggered decorative laminate panels including the steps of: i) digitally dividing a first master image (15, 30) into decorative laminate panel images; ii) digitally staggering neighbouring decorative laminate panel images over a selected staggering distance having a value between L/2 and L/20 with L representing the length of a decorative laminate panel; iii) digitally composing a second master image (19, 33) from the neighbouring staggered decorative laminate panel images; iv) printing the second master image (19, 33) with one or more inkjet inks on a substrate; wherein the second master image (19, 33) shows vertical cutting lines (20, 34) and horizontal cutting lines (21, 35) which may be inkjet printed or not; wherein a decorative board or laminate including the substrate printed with the second master image can be cut into the decorative laminate panels (40, 50) following the vertical lines (20, 34) and the horizontal lines (21, 35); and wherein either a personalized image and a wood grain image as a background image are combined to the first master image; or otherwise a personalized image is taken as the first master image and modified to an image containing staggered decorative panel images, where the image is combined with a background image to compose the second master image. i) digitally dividing a first master image (15, 30) into decorative laminate panel images; ii) digitally staggering neighbouring decorative laminate panel images over a selected staggering distance having a value between L/2 and L/20 with L representing the length of a decorative laminate panel; iii) digitally composing a second master image (19, 33) from the neighbouring staggered decorative laminate panel images; iv) printing the second master image (19, 33) with one or more inkjet inks on a substrate; wherein the second master image (19, 33) shows vertical cutting lines (20, 34) and horizontal cutting lines (21, 35) which may be inkjet printed or not; wherein a decorative board or laminate including the substrate printed with the second master image can be cut into the decorative laminate panels (40, 50) following the vertical lines (20, 34) and the horizontal lines (21, 35); and wherein either a personalized image and a wood grain image as a background image are combined to the first master image; or otherwise a personalized image is taken as the first master image and modified to an image containing staggered decorative panel images, where the image is combined with a background image to compose the second master image.
A method for operating a field device for carrying out measurement and/or automation tasks in a wide-area automation network, comprising the following steps: detecting the position of the field device in the field device; generating a data set identifying the field device and containing the position and a unique identification of the field device; transmitting the data set from the field device to a server of the automation network; characterized by the steps of assigning an identifier to the field device identified by the data set; transmitting the identifier from the server to the field device; communicating in the automation network using the identifier; comparing the position of the field device identified by the data set with positions of known field devices in the automation network, and transmitting the identifier of a known field device having the same position to the field device identified by the data set. detecting the position of the field device in the field device; generating a data set identifying the field device and containing the position and a unique identification of the field device; transmitting the data set from the field device to a server of the automation network; characterized by the steps of assigning an identifier to the field device identified by the data set; transmitting the identifier from the server to the field device; communicating in the automation network using the identifier; comparing the position of the field device identified by the data set with positions of known field devices in the automation network, and transmitting the identifier of a known field device having the same position to the field device identified by the data set.
A method for controlling the operation of an exhaust aftertreatment system in a vehicle, wherein said system comprises a SCR catalyst for reducing nitrogen oxides (NO x) in the exhaust gas of the engine based on a reaction between said nitrogen oxides (NO x) and ammonia (NH 3), and wherein a stored amount of ammonia (NH 3) being stored in said SCR catalyst is actively controlled by injection of ammonia (NH 3) or urea in a NH 3 -refilling process, said method comprises the following steps: a) determining whether at least one indicator for an impending interruption of the NH 3 -refilling process exists; and b) modifying, depending on the result of step a), the NH 3 -refilling process if said indicator exists, wherein said step b) includes increasing a prestored amount of ammonia (NH 3) in a state in which the engine is about to be stopped; characterized in that said step b) further includes continuing the injection of ammonia (NH 3) or urea for a lag time beyond a stop of the engine. a) determining whether at least one indicator for an impending interruption of the NH 3 -refilling process exists; and b) modifying, depending on the result of step a), the NH 3 -refilling process if said indicator exists, wherein said step b) includes increasing a prestored amount of ammonia (NH 3) in a state in which the engine is about to be stopped;
An air purifier, comprising: a tubular body comprising a wall defining an interior space, a first opening to the interior space, and a second opening to the interior space; an airflow pathway through the tubular body defined between the first and second openings (20, 22); a photocatalyst arranged within the interior space; and a source of ultraviolet radiation arranged to emit ultraviolet radiation onto at least a portion of the surface of the photocatalyst to activate the photocatalyst characterized in that the photocatalyst is arranged along the airflow pathway and that the air purifier further comprises a turbulence structure configured to generate turbulent airflow along the airflow pathway which turbulence structure comprises at least a first portion of the photocatalyst being arranged at an angle relative to a second portion of the photocatalyst and wherein at least a portion of the photocatalyst has a generally S-, U- or L-shaped geometry oriented along the direction of the airflow pathway. a tubular body comprising a wall defining an interior space, a first opening to the interior space, and a second opening to the interior space; an airflow pathway through the tubular body defined between the first and second openings (20, 22); a photocatalyst arranged within the interior space; and a source of ultraviolet radiation arranged to emit ultraviolet radiation onto at least a portion of the surface of the photocatalyst to activate the photocatalyst characterized in that the photocatalyst is arranged along the airflow pathway and that the air purifier further comprises a turbulence structure configured to generate turbulent airflow along the airflow pathway which turbulence structure comprises at least a first portion of the photocatalyst being arranged at an angle relative to a second portion of the photocatalyst and wherein at least a portion of the photocatalyst has a generally S-, U- or L-shaped geometry oriented along the direction of the airflow pathway.
A Bluetooth low energy-based communication method, wherein the method is applied to an electronic device that supports Bluetooth low energy, and the method comprises: receiving, by the electronic device, a user operation; and sending, by the electronic device, a help seeking advertising packet on a Bluetooth low energy advertising channel in response to the user operation, wherein the help seeking advertising packet comprises a significant data part and a non-significant data part, the significant data part comprises at least one advertising data unit, the advertising data unit comprises a length part and a data part, the length part is used to indicate a length of the data part, and the data part comprises an advertising data field and an advertising data type field, wherein the significant data part comprises a plurality of advertising data units, and a second advertising data unit in the advertising data units uses the advertising data field to carry location information of the electronic device; and a first advertising data unit in the advertising data units uses the advertising data field to carry emergency help seeking information. receiving, by the electronic device, a user operation; and sending, by the electronic device, a help seeking advertising packet on a Bluetooth low energy advertising channel in response to the user operation, wherein the help seeking advertising packet comprises a significant data part and a non-significant data part, the significant data part comprises at least one advertising data unit, the advertising data unit comprises a length part and a data part, the length part is used to indicate a length of the data part, and the data part comprises an advertising data field and an advertising data type field, wherein the significant data part comprises a plurality of advertising data units, and a second advertising data unit in the advertising data units uses the advertising data field to carry location information of the electronic device; and a first advertising data unit in the advertising data units uses the advertising data field to carry emergency help seeking information.
Inclination sensor with a housing which is filled with a liquid and a gas bubble and is closed by a convexly curved cover layer, along which the gas bubble moves when the inclination sensor is tilted relative to a horizontal reference plane, wherein the inclination sensor further comprises a light source and at least one photodetector, which are arranged opposite the cover layer, characterised in that the liquid has for the wavelength of the light source an absorption coefficient greater than 0.05 mm -1 and that the cover layer is reflective.