mhurhangee/patent-ind-claim-en huggingface dataset:
A hydraulic fluid comprising: (a) 40 to 150 ppm by weight in terms of nitrogen content of a corrosion inhibiting agent which is one or more compounds of formula (I): and/or tribologically acceptable salts thereof, wherein in formula (I): - each R 1 is independently a hydrocarbyl group comprising 1 to 10 carbon atoms, - x is 0 to 4, and - R 2 is hydrogen or a hydrocarbyl group containing 1 to 10 carbon atoms; (b) 1500 to 4000 ppm by weight of an ashless nitrogen-containing dispersant; and (c) a major amount of a base oil, wherein the hydraulic fluid further comprises 100 to 1030 ppm by weight of one or more alkaline earth metal phenates. (a) 40 to 150 ppm by weight in terms of nitrogen content of a corrosion inhibiting agent which is one or more compounds of formula (I): and/or tribologically acceptable salts thereof, wherein in formula (I): - each R 1 is independently a hydrocarbyl group comprising 1 to 10 carbon atoms, - x is 0 to 4, and - R 2 is hydrogen or a hydrocarbyl group containing 1 to 10 carbon atoms; - each R 1 is independently a hydrocarbyl group comprising 1 to 10 carbon atoms, - x is 0 to 4, and - R 2 is hydrogen or a hydrocarbyl group containing 1 to 10 carbon atoms; (b) 1500 to 4000 ppm by weight of an ashless nitrogen-containing dispersant; and (c) a major amount of a base oil,
A self-supporting anti-reflective AR film or skin to be disposed between first and second media wherein the first medium is air and the second medium is glass, for use as an air-to-glass interface, the self-supporting anti-reflective AR film or skin comprising: at least one layer at least partially transparent to optical energy at one or more optical wavelengths, the at least one layer being substantially flexible and/or stretchable and having a refractive index profile which imparts anti-reflection AR behavior for incident light when used as an optical interface between the first and second media; and wherein the AR behavior is retained when the at least one layer is flexed and/or stretched; wherein the at least one layer comprises a monolithic ETFE skin; and wherein a graded, or step-index multi-layer AR structure is engineered by diffusion or other doping of the monolithic ETFE skin with an index increasing dopant from its glass interface. at least one layer at least partially transparent to optical energy at one or more optical wavelengths, the at least one layer being substantially flexible and/or stretchable and having a refractive index profile which imparts anti-reflection AR behavior for incident light when used as an optical interface between the first and second media; and wherein the AR behavior is retained when the at least one layer is flexed and/or stretched; wherein the at least one layer comprises a monolithic ETFE skin; and wherein a graded, or step-index multi-layer AR structure is engineered by diffusion or other doping of the monolithic ETFE skin with an index increasing dopant from its glass interface.
A milling apparatus comprising: a main body comprising an internal bore defining a flow path through the body; a mill head having at least one flow port ; an internal chamber which can contain a fluid, the internal bore of the main body defining at least part of the chamber; a first seal assembly disposed within the internal bore ; a second seal assembly disposed within the internal bore ; and a communication port located at a position which is, in use, upstream of the second seal assembly ; in which the first and second seal assemblies are initially sealed relative to the main body , so that fluid communication along the internal bore past the first and second seal assemblies is restricted and fluid contained in the chamber isolated from fluid external to the chamber; in which at least part of the first seal assembly is translatable within the internal bore in a direction towards the second seal assembly , to transmit fluid contained in the chamber through the communication port to a fluid operated device associated with the milling apparatus , to operate the device; and in which at least part of the second seal assembly is translatable within the internal bore from a closed position in which said part of the second seal assembly is in sealing contact with the main body so that said flow port is out of communication with the chamber , to an open position in which said part of the second seal assembly is out of sealing contact with the main body so that fluid can flow along the internal bore past the second seal assembly and so out of the apparatus through said flow port. a main body comprising an internal bore defining a flow path through the body; a mill head having at least one flow port ; an internal chamber which can contain a fluid, the internal bore of the main body defining at least part of the chamber; a first seal assembly disposed within the internal bore ; a second seal assembly disposed within the internal bore ; and a communication port located at a position which is, in use, upstream of the second seal assembly ; in which the first and second seal assemblies are initially sealed relative to the main body , so that fluid communication along the internal bore past the first and second seal assemblies is restricted and fluid contained in the chamber isolated from fluid external to the chamber; in which at least part of the first seal assembly is translatable within the internal bore in a direction towards the second seal assembly , to transmit fluid contained in the chamber through the communication port to a fluid operated device associated with the milling apparatus , to operate the device; and in which at least part of the second seal assembly is translatable within the internal bore from a closed position in which said part of the second seal assembly is in sealing contact with the main body so that said flow port is out of communication with the chamber , to an open position in which said part of the second seal assembly is out of sealing contact with the main body so that fluid can flow along the internal bore past the second seal assembly and so out of the apparatus through said flow port.
A metering system for metering a metered medium comprising - a frame housing unit , - a lever mounting unit which is supported on the frame housing unit comprising a lever mount , - a, preferably asymmetrical, lever which is supported rotatably by means of the lever mount about a tilt axis (R) comprising a two-sided lever arm extending substantially in a longitudinal direction of the lever , wherein one lever arm side , preferably the longer lever arm side , has a first actuator engagement point close to the tilt axis and is in contact remotely from the tilt axis at an end portion with an ejection element , preferably a ram , and wherein the other lever arm side , preferably the shorter lever arm side , has a second actuator engagement point close to the tilt axis, - two actuators , which, during operation, exert a tilting moment in opposite directions on the lever at the first and second actuator engagement point , wherein together, the lever mounting unit , the lever , and the two actuators form a movement mechanism , which is braced on the frame housing unit by means of at least one spring element , preferably a disc spring set , wherein the spring element is preferably arranged so that it braces the lever mounting unit against the frame housing unit via the lever as well as via the two actuators , characterized in that the actuators are placed obliquely to one another in a V-shaped manner. - a frame housing unit , - a lever mounting unit which is supported on the frame housing unit comprising a lever mount , - a, preferably asymmetrical, lever which is supported rotatably by means of the lever mount about a tilt axis (R) comprising a two-sided lever arm extending substantially in a longitudinal direction of the lever , wherein one lever arm side , preferably the longer lever arm side , has a first actuator engagement point close to the tilt axis and is in contact remotely from the tilt axis at an end portion with an ejection element , preferably a ram , and wherein the other lever arm side , preferably the shorter lever arm side , has a second actuator engagement point close to the tilt axis, - two actuators , which, during operation, exert a tilting moment in opposite directions on the lever at the first and second actuator engagement point , wherein together, the lever mounting unit , the lever , and the two actuators form a movement mechanism , which is braced on the frame housing unit by means of at least one spring element , preferably a disc spring set , wherein the spring element is preferably arranged so that it braces the lever mounting unit against the frame housing unit via the lever as well as via the two actuators , characterized in that the actuators are placed obliquely to one another in a V-shaped manner.
A composition, which comprises an exosome comprising a fusion protein, wherein the fusion protein comprises a targeting protein and an exosomal transmembrane protein, the targeting protein comprises an anti-HLA-G protein, and the sequence of the anti-HLA-G protein comprises SEQ ID NO: 2.
A fraud detection system for a reverse vending machine , the system comprising: a detector adapted to detect at least one container entered into the reverse vending machine; a compactor load sensor adapted to measure load of a compactor of the reverse vending machine during operation, wherein the compactor is adapted to compact entered containers downstream of said detector; and a compactor load sensor monitoring device configured to determine whether the detected at least one container is compacted as expected based on the load measured by the compactor load sensor, wherein the compactor load sensor monitoring device is configured to determine an expected compaction time window for a container of the at least one container based on the moment the container is detected by the detector , and wherein the compactor load sensor monitoring device is configured to determine that the container is not compacted as expected if the measured load in the expected compaction time window does not exceed a predetermined value. a detector adapted to detect at least one container entered into the reverse vending machine; a compactor load sensor adapted to measure load of a compactor of the reverse vending machine during operation, wherein the compactor is adapted to compact entered containers downstream of said detector; and a compactor load sensor monitoring device configured to determine whether the detected at least one container is compacted as expected based on the load measured by the compactor load sensor, wherein the compactor load sensor monitoring device is configured to determine an expected compaction time window for a container of the at least one container based on the moment the container is detected by the detector , and wherein the compactor load sensor monitoring device is configured to determine that the container is not compacted as expected if the measured load in the expected compaction time window does not exceed a predetermined value.
A hinge configured for selectively retaining and removing at least one rotation stop without a supplementary tool, the hinge comprising: a hinge assembly comprising a locking device having a retaining member and at least one lever arranged to selectively rotate the retaining member for engagement and disengagement with the at least one rotation stop , characterized in that the retaining member forms an abutment portion extending from a first portion and a second portion extending from the abutment portion , the first portion , the abutment portion , and the second portion extending coaxial relative to one another along a first axis (A-A); the abutment portion defines an abutment profile protruding outwardly at least a length (L3) beyond the first portion and the second portion about at least one segment of a periphery of the abutment portion , the abutment portion defines a non-abutment profile located outside the abutment profile in at least another segment of the periphery of the abutment portion and defines a width (L2) generally commensurate to a width (D1) of the first and second portions . a hinge assembly comprising a locking device having a retaining member and at least one lever arranged to selectively rotate the retaining member for engagement and disengagement with the at least one rotation stop , characterized in that the retaining member forms an abutment portion extending from a first portion and a second portion extending from the abutment portion , the first portion , the abutment portion , and the second portion extending coaxial relative to one another along a first axis (A-A); the abutment portion defines an abutment profile protruding outwardly at least a length (L3) beyond the first portion and the second portion about at least one segment of a periphery of the abutment portion , the abutment portion defines a non-abutment profile located outside the abutment profile in at least another segment of the periphery of the abutment portion and defines a width (L2) generally commensurate to a width (D1) of the first and second portions .
A protein crystal device comprising a protein-adsorbing-bubble-jetting member, a counter electrode , and an electricity output means, wherein the protein-adsorbing-bubble-jetting member comprises: a bubble-jetting member assembly comprising: a bubble-jetting member comprising: a core formed of a conductive material; a shell part formed of an insulating material, the shell part including an extended section extending from the tip of the core , and at least a portion closely adhering to the core to cover the core ; and a gap having a bubble-jetting port , the gap being formed between the extended section and the tip of the core ; and characterized in that the protein-adsorbing-bubble-jetting member further comprises an outside shell part on the outside of the shell part with an axis coaxial with the center axis of the shell part , the outside shell part being formed at a position away from the shell part so that a space is left therebetween, and the outside shell part having a jetting port , and wherein the jetting port is a protein-adsorbing-bubble-jetting port. a core formed of a conductive material; a shell part formed of an insulating material, the shell part including an extended section extending from the tip of the core , and at least a portion closely adhering to the core to cover the core ; and a gap having a bubble-jetting port , the gap being formed between the extended section and the tip of the core ; and
A sounding reference signal, SRS power control method, comprising: generating (S201) power control information for a plurality of SRS resources, wherein the power control information comprises a separate value for first parameter for each of the plurality of SRS resources and a shared value for second parameter for the plurality of SRS resources; sending (S202) the power control information to a terminal device; wherein, the first parameter comprises a transmit power target value and a transmit power adjustment value, and the second parameter comprises path loss information; the first parameter comprises a transmit power target value, and the second parameter comprises a transmit power adjustment value and path loss information; the first parameter comprises a transmit power target value and path loss information, and the second parameter comprises a transmit power adjustment value; the first parameter comprises a transmit power adjustment value and path loss information, and the second parameter comprises a transmit power target value; the first parameter comprises a transmit power adjustment value, and the second parameter comprises a transmit power target value and path loss information; or the first parameter comprises path loss information, and the second parameter comprises a transmit power target value and a transmit power adjustment value. generating (S201) power control information for a plurality of SRS resources, wherein the power control information comprises a separate value for first parameter for each of the plurality of SRS resources and a shared value for second parameter for the plurality of SRS resources; sending (S202) the power control information to a terminal device; wherein, the first parameter comprises a transmit power target value and a transmit power adjustment value, and the second parameter comprises path loss information; the first parameter comprises a transmit power target value, and the second parameter comprises a transmit power adjustment value and path loss information; the first parameter comprises a transmit power target value and path loss information, and the second parameter comprises a transmit power adjustment value; the first parameter comprises a transmit power adjustment value and path loss information, and the second parameter comprises a transmit power target value; the first parameter comprises a transmit power adjustment value, and the second parameter comprises a transmit power target value and path loss information; or the first parameter comprises path loss information, and the second parameter comprises a transmit power target value and a transmit power adjustment value.
A pharmaceutical composition for use in forming a cushion in endoscopic procedures, wherein the pharmaceutical composition is in the form of an oil in water emulsion or microemulsion, comprising: a) an aqueous phase; b) an oily phase; c) at least one surfactant; d) at least one inverse thermosensitive polymer; and e) optionally at least one physiologically acceptable excipient; wherein the composition exhibits flowability for injection; and wherein the composition further comprises at least one dye and said dye is selected from Lugol's solution, methylene blue, toluidine blue, crystal violet, indigo carmine, congo red and phenol red; preferably methylene blue or indigo carmine. a) an aqueous phase; b) an oily phase; c) at least one surfactant; d) at least one inverse thermosensitive polymer; and e) optionally at least one physiologically acceptable excipient;
A rotating construction platform based on a monopile, comprising a rotary connecting mechanism arranged on a top of the monopile and a working platform arranged on the rotary connecting mechanism , wherein the rotary connecting mechanism comprises an upper connecting tube , a lower connecting tube , and a rotary support structure located between the upper connecting tube and the lower connecting tube , wherein the working platform is fixedly connected to the upper connecting tube , and the lower connecting tube is detachably fixed to the top of the monopile , wherein at least one side of the working platform sticks out of a side of the monopile .
A thermal energy consumer controller arranged to control a local thermal energy consumer assembly comprising a thermal energy consumer heat exchanger being feed by heat transfer liquid of a hot conduit and being configured to output the, to the thermal energy consumer heat exchanger feed, heat transfer liquid to a cold conduit , wherein the thermal energy consumer heat exchanger is selectively connected to the hot conduit via a thermal energy consumer valve or a thermal energy consumer pump , characterized by the thermal energy consumer controller being configured to: receive (S300) a start signal, the start signal indicating that the local thermal energy consumer assembly shall start working for exhaling thermal energy to its surroundings; determine (S302) a local delivery differential pressure, Δp 1dp , according to Δp 1dp = p 1c - p 1h + Δp che , wherein p 1h is a local pressure of heat transfer liquid of the hot conduit , p 1c is a local pressure of heat transfer liquid of the cold conduit , and Δp che is a fixed differential pressure for overcoming a pressure drop over the thermal energy consumer heat exchanger ; in case the local delivery differential pressure, Δp 1dp , is a positive value, send (S304) a start signal to the thermal energy consumer pump ; and in case the local delivery differential pressure, Δp 1dp , is a negative value, send (S312) an opening signal to the thermal energy consumer valve . receive (S300) a start signal, the start signal indicating that the local thermal energy consumer assembly shall start working for exhaling thermal energy to its surroundings; determine (S302) a local delivery differential pressure, Δp 1dp , according to Δp 1dp = p 1c - p 1h + Δp che , wherein p 1h is a local pressure of heat transfer liquid of the hot conduit , p 1c is a local pressure of heat transfer liquid of the cold conduit , and Δp che is a fixed differential pressure for overcoming a pressure drop over the thermal energy consumer heat exchanger ; in case the local delivery differential pressure, Δp 1dp , is a positive value, send (S304) a start signal to the thermal energy consumer pump ; and in case the local delivery differential pressure, Δp 1dp , is a negative value, send (S312) an opening signal to the thermal energy consumer valve .
A gear shift lever knob comprising - a knob body forming a portion of said gear shift lever knob , said knob body being made of a first material, which allows light to pass through, and - a frame at least partly enclosing said knob body , such that said knob body is externally visible, said frame being made of a second material being different from the first material, characterized in that said knob body forms at least 50% of the volume of said gear shift lever knob . - a knob body forming a portion of said gear shift lever knob , said knob body being made of a first material, which allows light to pass through, and - a frame at least partly enclosing said knob body , such that said knob body is externally visible, said frame being made of a second material being different from the first material,
A luminaire comprising a first light source comprising a lamp and an active diffuser arranged to condition light emitted from the lamp to provide spatial uniformity and comprising a second light source arranged to inject additional illumination at one or more wavelengths; wherein the second light source comprises quantum dots and one or more energy sources arranged to stimulate the quantum dots to emit light; and comprises a sheet of optically transparent or translucent material and the quantum dots are distributed within the sheet; characterised in that : a substantially optically clear and electrically conductive coating is applied to upper and lower surfaces of the sheet and connected to a source of energy to create an electrical field which can controllably stimulate the quantum dots to emit light; and wherein the luminaire further comprises a control system which selectively chooses which quantum dots are stimulated to emit light; and wherein the luminaire further comprises a sensor for detecting light emitted from the lamp and/or from the luminaire and to determine its relative wavelength composition and intensity; wherein the sensor is disposed on a surface of the diffuser or within the diffuser ; wherein the control system adjusts the light emitted by the second light source in response to data from the sensors . a substantially optically clear and electrically conductive coating is applied to upper and lower surfaces of the sheet and connected to a source of energy to create an electrical field which can controllably stimulate the quantum dots to emit light; and wherein the luminaire further comprises a control system which selectively chooses which quantum dots are stimulated to emit light; and wherein the luminaire further comprises a sensor for detecting light emitted from the lamp and/or from the luminaire and to determine its relative wavelength composition and intensity; wherein the sensor is disposed on a surface of the diffuser or within the diffuser ; wherein the control system adjusts the light emitted by the second light source in response to data from the sensors .