mhurhangee/ep-ind-claims huggingface dataset:
A process for converting a biomass material comprising minerals to a stabilized bio-oil, said process comprising the steps of (i) exposing said biomass material to a solvent under conditions that allow extraction of at least part of said minerals from said biomass material; (ii) converting at least part of the biomass material to a pyrolytic oil having particles of metal compounds suspended therein; and (iii) removing at least part of the suspended metal compounds from said pyrolytic oil with a liquid/solid separation technique to obtain a biol-oil having a reduced metal content.
A tensioning roller for a transmission belt, which comprises a support part intended to be fixed at at least one fixing point by a fixing element on an assembly carrying at least two pulleys (3, 5, 7) surrounded by the transmission belt, the tensioning roller comprising a roller carried by a swivel arm, the swivel arm comprising a catch pin capable of abutting with a limit stop (10b, 10c) carried by the support part, characterised in that the limit stop (10b, 10c) is independent of the tensioning roller and is fixed on the support part of the tensioning roller at said at least one fixing point by said fixing element of the support part, the limit stop (10b, 10c) comprising a stop element (17, 19) for the catch pin, this stop element (17, 19) being elastically deformable.
A device for cooking foodstuffs placed in a container (21, 22), comprising a heating source for heating said ontainer (21, 22) and a means for supporting said container (21, 22), arranged for heating said container (21, 22) in an all the more concentrated manner as the distance from the container (21, 22) to the source is smaller, said device being arranged such that the bottom of a container with a bulged bottom, for example a wok, extends closer to the source than the bottom of a container with a flat bottom, for example a saucepan, said device comprising a grid for supporting said container comprising a container-supporting mean, arranged such that said container with a bulged bottom, for example a wok, comes in abutment along a contact surface located between its lower and upper end portions, and such that said container with a flat bottom, for example a saucepan, comes in abutment, by means of the bottom thereof, on the mean, characterized in that said mean is a plurality of tilted bars corresponding to the edges of a pyramid.
A ventilation regulating box for regulating the air flow between a ventilation duct and a terminal device, such as a ceiling diffuser, which regulating box comprises a body which is essentially a rectangular prism in shape, the body comprises two connected sheet parts (1, 2), an outer part and an inner part, the regulating box comprises at least one air inlet aperture on which is arranged a coupling sleeve configured to be connected to a ventilation duct and at least one air outlet aperture on which is arranged a coupling sleeve configured to be connected to a terminal device, characterized in that - the outer part and the inner part are both essentially U-shaped such that the U-shaped outer part comprises a top plate, a bottom plate and one end of the rectangular prism shaped regulating box, and respectively the U-shaped inner part comprises both sides and the other end of said regulating box, - the U-shaped outer part comprises first free edges (5, 6, 8) and the U-shaped inner part comprises second free edges, - the first and second free edges comprise respectively first edge folds and second edge folds being bent essentially 90° inwards, - the U-shaped inner part and the U-shaped outer part comprise claws (7, 10) configured to position the first edge fold of the U-shaped inner part with the second edge fold of the U-shaped outer part in the assembled state of the U-shaped inner part and the U-shaped outer part forming the regulating box and to lock the inner part and the outer part to each other. - the outer part and the inner part are both essentially U-shaped such that the U-shaped outer part comprises a top plate, a bottom plate and one end of the rectangular prism shaped regulating box, and respectively the U-shaped inner part comprises both sides and the other end of said regulating box, - the U-shaped outer part comprises first free edges (5, 6, 8) and the U-shaped inner part comprises second free edges, - the first and second free edges comprise respectively first edge folds and second edge folds being bent essentially 90° inwards, - the U-shaped inner part and the U-shaped outer part comprise claws (7, 10) configured to position the first edge fold of the U-shaped inner part with the second edge fold of the U-shaped outer part in the assembled state of the U-shaped inner part and the U-shaped outer part forming the regulating box and to lock the inner part and the outer part to each other.
An anode for a secondary battery, comprising: a wire-type current collector; a metal-based anode active material layer formed on the surface of the wire-type current collector, and comprising a metallic active material; and a graphite-based anode composite layer formed on the surface of the metal-based anode active material layer, and comprising a mixture of a graphite-based active material, a conductive material and a first polymer binder. a wire-type current collector; a metal-based anode active material layer formed on the surface of the wire-type current collector, and comprising a metallic active material; and a graphite-based anode composite layer formed on the surface of the metal-based anode active material layer, and comprising a mixture of a graphite-based active material, a conductive material and a first polymer binder.
A three-dimensional data processing and recognizing method, comprising: scanning and re-constructing objects to be detected so as to obtain three-dimensional data for recognition of the objects to be detected; extracting data matching to features of a target of interest from the three-dimensional data, so that the extracted data constitute the target of interest; with respect to the data matching to features, merging and classifying data points of the three-dimensional data as one group, to form an image of the merged target of interest; recognizing a cross section of the target of interest; cutting the target of interest by at least one perpendicular plane which passes through a central point of the cross section and is perpendicular to the cross section, in order to obtain a graph characterising a shape of the target of interest; and recognizing a shape of the target of interest based on a property of the graph. scanning and re-constructing objects to be detected so as to obtain three-dimensional data for recognition of the objects to be detected; extracting data matching to features of a target of interest from the three-dimensional data, so that the extracted data constitute the target of interest; with respect to the data matching to features, merging and classifying data points of the three-dimensional data as one group, to form an image of the merged target of interest; recognizing a cross section of the target of interest; cutting the target of interest by at least one perpendicular plane which passes through a central point of the cross section and is perpendicular to the cross section, in order to obtain a graph characterising a shape of the target of interest; and recognizing a shape of the target of interest based on a property of the graph.
A manufacturing method of an OLED array substrate comprising a plurality of pixel units each including a plurality of sub-pixel units; the manufacturing method comprising: successively forming, on a base substrate, a first electrode, an organic light-emitting layer, a second electrode, an organic film layer and a semi-reflecting mirror layer corresponding to each sub-pixel unit along a light exit direction of the OLED array substrate, wherein the first electrode comprises a reflective layer, the second electrode is a transparent electrode, a structure between the first electrode and the semi-reflecting mirror layer constitutes a microcavity structure, and organic film layers of the sub-pixel units of different colors of each pixel unit have different thicknesses; characterized in that the organic film layer of each of the sub-pixel units is integrally formed by steps of: spin coating a low-temperature curing organic material; and forming an organic film layer with non-uniform thickness by exposure and development using a half-tone mask. wherein the first electrode comprises a reflective layer, the second electrode is a transparent electrode, a structure between the first electrode and the semi-reflecting mirror layer constitutes a microcavity structure, and organic film layers of the sub-pixel units of different colors of each pixel unit have different thicknesses; characterized in that the organic film layer of each of the sub-pixel units is integrally formed by steps of: spin coating a low-temperature curing organic material; and forming an organic film layer with non-uniform thickness by exposure and development using a half-tone mask. spin coating a low-temperature curing organic material; and forming an organic film layer with non-uniform thickness by exposure and development using a half-tone mask.
An image forming apparatus comprising an image forming section comprising the components of an image carrier, a body, a developing device, a cleaning device and an image transferring device, wherein said components are configured to be removably mountable on a pair of sidewalls (24a, 24b) of the body, such that the developing device, the cleaning device and the image transferring device are arranged around said image carrier, wherein said components (5,14,16,17,19) are configured to be removable from said image forming apparatus in a preselected direction in a preselected order, characterized in that the body is unable to be mounted to or dismounted from said image forming apparatus when the image carrier exists in the body and indication means are provided on each of the components of said image forming section for indicating an order in which said component should be mounted or dismounted from the body of said image forming apparatus.
A device designed for clamping a turbine vane, wherein the device is formed by a clamping unit having at least two clamping block parts (31, 32) forming a clamping block that enclose the turbine vane with a turbine blade shell formed from a plastic shell layer that remains at least substantially dimensionally stable under clamping force, that at least substantially accommodates the turbine blade over its axial length and at least substantially surrounds it in a positive-fitting seat at its profile contour and can be separated from the turbine blade, wherein on the concave underside of the turbine blade and convex upper side of the turbine blade, the plastic shell layer has outwardly exposed surfaces, characterized in that the outwardly exposed surfaces are patrix surfaces that are respectively defined by a three-dimensionally structured patrix profile forming a relief, and in that the clamping block parts (31, 32) each have a matrix surface on an inside which is defined by a three-dimensionally structured matrix profile forming a relief, wherein the patrix surfaces and matrix surfaces are formed as associated complementary surfaces that correspond to one another and create a reference and clamping engagement.
A surgical lamp for illuminating a surgical site, comprising: a housing defining an internal cavity; a light source disposed within said internal cavity of said housing for producing a light field having a light intensity and pattern size at a surgical site that is remote from said housing; a voltage sensitive device disposed between said light source and said surgical site, said voltage sensitive device having light transmissive properties that change in response to a biasing voltage applied thereto; a portable light intensity sensor, operable to detect the intensity of light on said surgical site; and a programmable controller for controlling said biasing voltage to said voltage sensitive device, said controller being programmable to receive signals from said light intensity sensor that are indicative of the light intensity in the light fields and being programmable to maintain a desired light intensity in the light field by applying a biasing voltage across said voltage sensitive device to maintain a desired light intensity in the light field, said controller being programmable to maintain a first mode of operation and a second mode of operation wherein said controller in said first mode of operation is programmable to maintain a desired light intensity in the light field regardless of changes of the pattern size of the light field, and in said second mode of operation is programmable to maintain a desired light intensity in the light field based on changes to the pattern size of the light field. a housing defining an internal cavity; a light source disposed within said internal cavity of said housing for producing a light field having a light intensity and pattern size at a surgical site that is remote from said housing; a voltage sensitive device disposed between said light source and said surgical site, said voltage sensitive device having light transmissive properties that change in response to a biasing voltage applied thereto; a portable light intensity sensor, operable to detect the intensity of light on said surgical site; and a programmable controller for controlling said biasing voltage to said voltage sensitive device, said controller being programmable to receive signals from said light intensity sensor that are indicative of the light intensity in the light fields and being programmable to maintain a desired light intensity in the light field by applying a biasing voltage across said voltage sensitive device to maintain a desired light intensity in the light field, said controller being programmable to maintain a first mode of operation and a second mode of operation wherein said controller in said first mode of operation is programmable to maintain a desired light intensity in the light field regardless of changes of the pattern size of the light field, and in said second mode of operation is programmable to maintain a desired light intensity in the light field based on changes to the pattern size of the light field.
Dosing pipette system for discharging a medium, said dosing pipette system having: a housing, a plurality of dosing inserts, and a dosing piston that can be introduced into the housing and said dosing piston is embodied from a piston and a freely-selectable dosing insert of the plurality of dosing inserts, wherein after the introduction into the housing the dosing piston is connected in a positive-locking manner to the housing, wherein a fixed stop is embodied as a single piece with a housing edge of the housing and/or wherein the dosing pipette system comprises a locking ring and a fixed stop is embodied as a single piece with the locking ring of the dosing pipette system, wherein each dosing insert comprises a stepped stop surface having multiple dosing stops that after the introduction of the dosing piston into the housing are in an operative connection with the fixed stop in such a manner that an extraction of the dosing piston from the housing is limited by means of the fixed stop, wherein a respective dosing path extends between each of the dosing stops and the fixed stop, and wherein a dosing volume depends on a length of the respective dosing path, wherein after the introduction into the housing the dosing piston is mounted in the housing at least in part in a twistable manner in order to set one of the dosing paths by means of twisting the dosing piston, and wherein the dosing inserts are shaped differently so that the dosing volumes that can be set differ for different dosing inserts. a housing, a plurality of dosing inserts, and a dosing piston that can be introduced into the housing and said dosing piston is embodied from a piston and a freely-selectable dosing insert of the plurality of dosing inserts, wherein after the introduction into the housing the dosing piston is connected in a positive-locking manner to the housing, wherein a fixed stop is embodied as a single piece with a housing edge of the housing and/or wherein the dosing pipette system comprises a locking ring and a fixed stop is embodied as a single piece with the locking ring of the dosing pipette system, wherein each dosing insert comprises a stepped stop surface having multiple dosing stops that after the introduction of the dosing piston into the housing are in an operative connection with the fixed stop in such a manner that an extraction of the dosing piston from the housing is limited by means of the fixed stop, wherein a respective dosing path extends between each of the dosing stops and the fixed stop, and wherein a dosing volume depends on a length of the respective dosing path, wherein after the introduction into the housing the dosing piston is mounted in the housing at least in part in a twistable manner in order to set one of the dosing paths by means of twisting the dosing piston, and wherein the dosing inserts are shaped differently so that the dosing volumes that can be set differ for different dosing inserts.
Duplex stainless steels with ferrite-austenite phases, comprising chromium (Cr), molybdenum (Mo), tungsten, manganese (Mn), nitrogen, carbon, silicon (Si), iron (Fe) and unavoidable impurities CHARACTERIZED in that they consist of: 16.5-19.5 wt.% of (Cr), 2.5-3.5 wt.% of (Mo), 1.0-5.5 wt.% of, 5.5-7.0 wt.% of (Mn), 0.35-0.45 wt.% of nitrogen, none or 0.7 wt.% or less of (Ni), from the level of impurities up to 0.03 wt. % of, and from the level of impurities up to 0.5 wt.% of (Si) with a remainder adding up to 100% of (Fe) and the unavoidable impurities. 16.5-19.5 wt.% of (Cr), 2.5-3.5 wt.% of (Mo), 1.0-5.5 wt.% of, 5.5-7.0 wt.% of (Mn), 0.35-0.45 wt.% of nitrogen, none or 0.7 wt.% or less of (Ni), from the level of impurities up to 0.03 wt. % of, and from the level of impurities up to 0.5 wt.% of (Si) with a remainder adding up to 100% of (Fe) and the unavoidable impurities.
An apparatus comprising: digital functional circuitry on a first portion of a microelectronic die; and analog radio frequency circuitry on a second portion of the microelectronic die; and a plurality of isolation vias (410,510,610,710,810,830,910,1010) disposed between the digital functional circuitry and the analog RF circuitry, wherein the plurality of isolation vias are created through a silicon substrate of the microelectronic die between a silicon backend and a backplane metallization (730,920) so as to be isolated from the interconnectivity between the digital functional circuitry and the analog RF circuitry; characterized in that the plurality of isolation vias are placed periodically to provide an electromagnetic band-gap structure. digital functional circuitry on a first portion of a microelectronic die; and analog radio frequency circuitry on a second portion of the microelectronic die; and a plurality of isolation vias (410,510,610,710,810,830,910,1010) disposed between the digital functional circuitry and the analog RF circuitry, wherein the plurality of isolation vias are created through a silicon substrate of the microelectronic die between a silicon backend and a backplane metallization (730,920) so as to be isolated from the interconnectivity between the digital functional circuitry and the analog RF circuitry; characterized in that the plurality of isolation vias are placed periodically to provide an electromagnetic band-gap structure.
A method for detecting a preamble of a bi-phase modulation signal, the method comprising: sampling a bi-phase modulation signal at a sampling rate to generate consecutive digital samples of the bi-phase modulation signal; iteratively shifting each of the consecutive digital samples into a first finite impulse response, FIR, filter comprising filter taps having tap weights comprising values associated with at least one period of the preamble of the bi-phase modulation signal; generating an output from the first FIR filter based on mathematically evaluating a proper subset of the digital samples having been iteratively shifted into the first FIR filter relative to the respective proper subset of the filter taps at each iteration; shifting the output of the first FIR filter into a second FIR filter at each iteration to generate a second output; comparing the output from the second FIR filter with a threshold; and detecting the preamble of the bi-phase modulation signal for decoding of the bi-phase modulation signal in response to the output from the second FIR filter being greater than the threshold. sampling a bi-phase modulation signal at a sampling rate to generate consecutive digital samples of the bi-phase modulation signal; iteratively shifting each of the consecutive digital samples into a first finite impulse response, FIR, filter comprising filter taps having tap weights comprising values associated with at least one period of the preamble of the bi-phase modulation signal; generating an output from the first FIR filter based on mathematically evaluating a proper subset of the digital samples having been iteratively shifted into the first FIR filter relative to the respective proper subset of the filter taps at each iteration; shifting the output of the first FIR filter into a second FIR filter at each iteration to generate a second output; comparing the output from the second FIR filter with a threshold; and detecting the preamble of the bi-phase modulation signal for decoding of the bi-phase modulation signal in response to the output from the second FIR filter being greater than the threshold.
A method of transmitting data, the method comprising: receiving data at a wireless access point during a first transmission window for the wireless access point via a radio frequency channel; determining if the received data is aligned with a start of the first transmission window; and causing transmission of data via the radio frequency channel by the wireless access point during a second transmission window wherein the transmission of the data is shifted in time from a start of the second transmission window subject to a determination that the received data is aligned with the start of the first transmission window, wherein the first transmission window corresponds to a downlink frame of a first TDD frame and the second transmission window corresponds to a downlink frame for the access point of a second TDD frame. receiving data at a wireless access point during a first transmission window for the wireless access point via a radio frequency channel; determining if the received data is aligned with a start of the first transmission window; and causing transmission of data via the radio frequency channel by the wireless access point during a second transmission window wherein the transmission of the data is shifted in time from a start of the second transmission window subject to a determination that the received data is aligned with the start of the first transmission window, wherein the first transmission window corresponds to a downlink frame of a first TDD frame and the second transmission window corresponds to a downlink frame for the access point of a second TDD frame.
A compound comprising a nucleoside polyphosphate, a photoprotective agent, and a dye, and wherein said compound further comprises a linker and said photoprotective agent is integrated within said linker or is attached to a side group of said linker.