mhurhangee/ep-ind-claims huggingface dataset:
A gas engine heat pump comprising: an engine which burns a mixed air of air and fuel; a first charger including a first compressor which compresses the mixed air and supplies to the engine, and a first turbine which receives exhaust gas discharged from the engine to drive the first compressor; a second charger including a second compressor which compresses exhaust gas discharged from the engine to flow into the engine, and a second turbine which receives exhaust gas discharged from the engine to drive the second compressor; and an exhaust flow path which exhaust gas discharged from the engine flows, wherein the exhaust flow path including: a first exhaust flow path which connects the engine and the first turbine; a second exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine and connects the engine and the second turbine; and a third exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine, wherein the gas engine heat pump further comprising a second bypass valve configured to open and close the third exhaust flow path. an engine which burns a mixed air of air and fuel; a first charger including a first compressor which compresses the mixed air and supplies to the engine, and a first turbine which receives exhaust gas discharged from the engine to drive the first compressor; a second charger including a second compressor which compresses exhaust gas discharged from the engine to flow into the engine, and a second turbine which receives exhaust gas discharged from the engine to drive the second compressor; and an exhaust flow path which exhaust gas discharged from the engine flows, wherein the exhaust flow path including: a first exhaust flow path which connects the engine and the first turbine; a second exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine and connects the engine and the second turbine; and a third exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine, wherein the gas engine heat pump further comprising a second bypass valve configured to open and close the third exhaust flow path. a first exhaust flow path which connects the engine and the first turbine; a second exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine and connects the engine and the second turbine; and a third exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine, wherein the gas engine heat pump further comprising a second bypass valve configured to open and close the third exhaust flow path.
System for energy conversion from a flow of fluid comprising a fluid driven device, a tether and a base station, whereby the fluid driven device is coupled to the tether, and the tether is coupled with the base station, wherein the fluid driven device is provided with at least two adjustable vanes, a first and a second vane, whereby during use and as seen in the flow of the fluid the first vane and the second vane occupy a position following each other, wherein a) each of the vanes comprises a leading edge and a trailing edge, b) the system comprises a working mode and a retraction mode, characterized in that c) the vanes are arranged in a row along a frame whereby in the retraction mode a leading edge of the first vane is pointing towards a trailing edge of the second vane which is adjacent to the first vane. a) each of the vanes comprises a leading edge and a trailing edge, b) the system comprises a working mode and a retraction mode, characterized in that c) the vanes are arranged in a row along a frame whereby in the retraction mode a leading edge of the first vane is pointing towards a trailing edge of the second vane which is adjacent to the first vane.
Method of vacuum-treating a substrate or of manufacturing a vacuum-treated substrate, the method comprising the steps: - providing a vacuum chamber, - providing at least one substrate in said vacuum chamber, - generating a plasma environment in said vacuum chamber and exposing said at least one substrate to said plasma environment, wherein said plasma environment comprises a first plasma of a material deposition source and a second plasma of a non-deposition source; characterized in that the method comprises - operating said plasma environment repeatedly between a first and a second state, said first state being defined by: a higher plasma supply power to said first plasma causing a higher material deposition rate and a lower plasma supply power delivered to said second plasma, said second state being defined by: a lower plasma supply power to said first plasma, compared with said higher plasma supply power to said first plasma and causing a lower material deposition rate and a higher plasma supply power to said second plasma, compared with said lower plasma supply power to said second plasma. - providing a vacuum chamber, - providing at least one substrate in said vacuum chamber, - generating a plasma environment in said vacuum chamber and exposing said at least one substrate to said plasma environment, wherein said plasma environment comprises a first plasma of a material deposition source and a second plasma of a non-deposition source; - operating said plasma environment repeatedly between a first and a second state, said first state being defined by: a higher plasma supply power to said first plasma causing a higher material deposition rate and a lower plasma supply power delivered to said second plasma, said second state being defined by: a lower plasma supply power to said first plasma, compared with said higher plasma supply power to said first plasma and causing a lower material deposition rate and a higher plasma supply power to said second plasma, compared with said lower plasma supply power to said second plasma.
A processing method for classification of contents in a domain (500; 501) that can be represented through taxonomy, the method comprising: generating a first digital mathematical representation of the taxonomy by generating first keyword vectors representative of the concepts of the taxonomy; generating a second digital mathematical representation of text documents different from said contents by generating second keyword vectors representative of said text documents; enriching the first digital mathematical representation of the taxonomy by processing the first and second keyword vectors in order to associate keywords of the second vectors to concepts of the first vectors to form a first enriched digital mathematical representation of the taxonomy; generating a third digital mathematical representation of the contents; processing the first enriched digital mathematical representation and the third digital mathematical representation for classifying the content in the enriched taxonomy. generating a first digital mathematical representation of the taxonomy by generating first keyword vectors representative of the concepts of the taxonomy; generating a second digital mathematical representation of text documents different from said contents by generating second keyword vectors representative of said text documents; enriching the first digital mathematical representation of the taxonomy by processing the first and second keyword vectors in order to associate keywords of the second vectors to concepts of the first vectors to form a first enriched digital mathematical representation of the taxonomy; generating a third digital mathematical representation of the contents; processing the first enriched digital mathematical representation and the third digital mathematical representation for classifying the content in the enriched taxonomy.
Electric pump comprising an electric actuation assembly, having an electric motor member arranged inside a casing and fixed to a motor shaft having a longitudinal axis, to drive in rotation the same motor shaft about said longitudinal axis, a hydraulic assembly, having at least one pumping stage provided with an impeller fixed to said motor shaft and a fixed body shaping a diffuser member fixed with respect to said impeller, to pump a pumping liquid from a suction portion to a discharge portion of said electric pump, a sealing system interposed between said hydraulic assembly and said electric actuation assembly to prevent the suction of said pumping liquid inside said electric actuation assembly, further comprising a detection assembly intended to detect possible faults of said sealing system, said detection assembly comprising a detection device, placed inside a collection chamber interposed between said hydraulic assembly and said electric actuation assembly, predisposed to collect possible leakage of said pumping liquid coming from said hydraulic assembly, a protection device associated with said detection device, comprising at least one flame arrester element to ensure, in particular to said detection assembly of said electric pump, an explosion-proof behaviour, and a detection duct arranged in communication with the inside of said collection chamber and with said detection device, said flame arrester element shaping a body inserted inside said detection duct between said inside of said collection chamber and said detection device, said at least one flame arrester element inserted in said detection duct being permeable to said pumping liquid, so as to ensure direct detection of possible leakage of said pumping liquid from said hydraulic assembly to said collection camber.
A trim assembly comprising: a plurality of different cages (202, 600, 700) for use with a fluid regulator and configured to control a flow of fluid through the trim assembly; and a plurality of different seat rings (204, 800, 900) for use with the fluid regulator, wherein each of the seat rings (204, 800, 900) defines a fluid orifice through which fluid may pass through the trim assembly, wherein each of the seat rings (204, 800, 900) includes a first shoulder configured to removably couple each of the seat rings (204, 800, 900) to each of the cages (202, 600, 700) and a second shoulder between the first shoulder and a sealing surface of each of the seat rings (204, 800, 900) adjacent to the fluid orifice, and wherein each of the cages (202, 600, 700) is configured to be removably coupled to each of the seat rings (204, 800, 900), characterised in that, the first shoulder of each of the seat rings (204, 800, 900) is configured to removably bind each of the seat rings (204, 800, 900) to each of the cages (202, 600, 700), each of the cages (202, 600, 700) is configured to be removably bound to each of the seat rings (204, 800, 900) and each of the seat rings (204, 800, 900) is configured to be removably coupled and bound to each of the cages (202, 600, 700) via at least one of an interference fit, threads, adhesive, a set screw, a roll pin, or grease. a plurality of different cages (202, 600, 700) for use with a fluid regulator and configured to control a flow of fluid through the trim assembly; and a plurality of different seat rings (204, 800, 900) for use with the fluid regulator, wherein each of the seat rings (204, 800, 900) defines a fluid orifice through which fluid may pass through the trim assembly, wherein each of the seat rings (204, 800, 900) includes a first shoulder configured to removably couple each of the seat rings (204, 800, 900) to each of the cages (202, 600, 700) and a second shoulder between the first shoulder and a sealing surface of each of the seat rings (204, 800, 900) adjacent to the fluid orifice, and wherein each of the cages (202, 600, 700) is configured to be removably coupled to each of the seat rings (204, 800, 900), characterised in that,
A sensor device comprising: a sensor die comprising: a first member and a second member that are attached together, wherein a buried cavity is formed between the first and second members, a first membrane integral with the first member, the first membrane disposed between a first outside surface of the sensor die and the buried cavity in the sensor die extending a depth from the outside surface, wherein the first membrane is configured to deflect into the buried cavity in response to external force disposed thereon; wherein the second member includes a recessed section formed in the second member and positioned directly opposite the first membrane to provide the buried cavity; a second membrane integral with the second member, the second membrane disposed between the buried cavity and a recessed section of a second outside surface of the sensor die that is opposite the first outside surface, wherein the second membrane is configured to deflect by contact from the first membrane when the first membrane is deflected in response to an external force; wherein the second member comprises the recessed section disposed along an outer surface of the second member and forms a backside cavity positioned opposite from the buried cavity; and electrical sensing elements (48, 54) disposed within the sensor die for measuring movement of the first and second sensing membranes. a first member and a second member that are attached together, wherein a buried cavity is formed between the first and second members, a first membrane integral with the first member, the first membrane disposed between a first outside surface of the sensor die and the buried cavity in the sensor die extending a depth from the outside surface, wherein the first membrane is configured to deflect into the buried cavity in response to external force disposed thereon; wherein the second member includes a recessed section formed in the second member and positioned directly opposite the first membrane to provide the buried cavity; a second membrane integral with the second member, the second membrane disposed between the buried cavity and a recessed section of a second outside surface of the sensor die that is opposite the first outside surface, wherein the second membrane is configured to deflect by contact from the first membrane when the first membrane is deflected in response to an external force; wherein the second member comprises the recessed section disposed along an outer surface of the second member and forms a backside cavity positioned opposite from the buried cavity; and electrical sensing elements (48, 54) disposed within the sensor die for measuring movement of the first and second sensing membranes.
A thermally conductive polysiloxane composition comprising: a thermally conductive filler; a polyorganosiloxane resin having a curable functional group in the polysiloxane molecule, the polyorganosiloxane resin comprising at least one polysiloxane having one curable functional group in the molecule thereof; a siloxane compound having an alkoxysilyl group and a linear siloxane structure; a hydrogenpolyorganosiloxane; and a platinum catalyst, wherein the content of the polysiloxane having one curable functional group in the molecule thereof in the polyorganosiloxane resin is more than 80% by mass, and wherein the curable functional group in the component is a vinyl group. a thermally conductive filler; a polyorganosiloxane resin having a curable functional group in the polysiloxane molecule, the polyorganosiloxane resin comprising at least one polysiloxane having one curable functional group in the molecule thereof; a siloxane compound having an alkoxysilyl group and a linear siloxane structure; a hydrogenpolyorganosiloxane; and a platinum catalyst, wherein the content of the polysiloxane having one curable functional group in the molecule thereof in the polyorganosiloxane resin is more than 80% by mass, and wherein the curable functional group in the component is a vinyl group.
A storage system (112, 224), comprising a rack comprising front and rear rack rails and a storage enclosure, wherein the storage enclosure is mounted in the rack, the storage enclosure comprising: a chassis comprising a rear, front, left, and right surfaces and a midplane; a plurality of drawers located to the front of the midplane and accessible through the chassis front surface, the plurality of drawers each comprising up to a predetermined number of storage devices; and the plurality of drawers are individually extendable up to a predetermined distance through a front surface of the chassis; characterised in that: two power supply modules and two control modules are located to the rear of the midplane and accessible through the chassis rear surface, wherein when all drawers of the plurality of drawers comprise the predetermined number of storage devices and are extended the predetermined distance through the front surface of the chassis, the weight and location of the power supply modules and control modules is such that the center of mass of the storage enclosure is generally centered between between the left and right surfaces of the chassis and is between the front rack rails and the rear rack rails. a chassis comprising a rear, front, left, and right surfaces and a midplane; a plurality of drawers located to the front of the midplane and accessible through the chassis front surface, the plurality of drawers each comprising up to a predetermined number of storage devices; and the plurality of drawers are individually extendable up to a predetermined distance through a front surface of the chassis; characterised in that: two power supply modules and two control modules are located to the rear of the midplane and accessible through the chassis rear surface, wherein when all drawers of the plurality of drawers comprise the predetermined number of storage devices and are extended the predetermined distance through the front surface of the chassis, the weight and location of the power supply modules and control modules is such that the center of mass of the storage enclosure is generally centered between between the left and right surfaces of the chassis and is between the front rack rails and the rear rack rails.
A method of generating a vision treatment target for an eye of a patient, comprising: obtaining a wavefront measurement for the eye of the patient; characterised in that the method further comprises processing the wavefront measurement, using a low pass filter, to obtain an ocular wavefront; and generating the vision treatment target based on the ocular wavefront, wherein the processing step comprises: applying a Fourier transform to the wavefront measurement to obtain a Fourier spectrum of the wavefront; convolving, in the Fourier domain, the Fourier spectrum of the wavefront and the low pass filter to obtain a Fourier spectrum convolution result; and applying an inverse transform to the convolution result to obtain the ocular wavefront, wherein the ocular wavefront represents a low pass filtered version of the wavefront measurement, such that high spatial frequency features present in the wavefront measurement are not present in the ocular wavefront. obtaining a wavefront measurement for the eye of the patient; characterised in that the method further comprises processing the wavefront measurement, using a low pass filter, to obtain an ocular wavefront; and generating the vision treatment target based on the ocular wavefront, wherein the processing step comprises: applying a Fourier transform to the wavefront measurement to obtain a Fourier spectrum of the wavefront; convolving, in the Fourier domain, the Fourier spectrum of the wavefront and the low pass filter to obtain a Fourier spectrum convolution result; and applying an inverse transform to the convolution result to obtain the ocular wavefront, wherein the ocular wavefront represents a low pass filtered version of the wavefront measurement, such that high spatial frequency features present in the wavefront measurement are not present in the ocular wavefront. applying a Fourier transform to the wavefront measurement to obtain a Fourier spectrum of the wavefront; convolving, in the Fourier domain, the Fourier spectrum of the wavefront and the low pass filter to obtain a Fourier spectrum convolution result; and applying an inverse transform to the convolution result to obtain the ocular wavefront, wherein the ocular wavefront represents a low pass filtered version of the wavefront measurement, such that high spatial frequency features present in the wavefront measurement are not present in the ocular wavefront.
An apparatus for cutting a profile, comprising: a cutter configured to make cuts on the profile having a first surface and a second surface, and having at least one rib (110a, 110b) on the first surface, wherein the cuts are made on the first surface of the profile; a first drive unit (55,56,42,59,77,72) to drive said cutter forward and backward to and from the first surface of the profile; a second drive unit (80,81,40,41) to drive said cutter up and down along the first surface of the profile; a bi-directional rod coupled to said cutter driving motor; a first slide rail coupled to said cutter driving motor; a cylinder configured to drive said bi-directional rod; characterized in that said apparatus said apparatus further comprises: a cutter driving motor configured to rotate said cutter for cutting the profile, wherein said first drive unit comprises: a stopper; and a securing wheel, wherein said stopper and said securing wheel operates together to limit the movement of said bi-directional rod to control the depth of a cut made by said cutter on the first surface of the profile, and wherein the driving of said bi-directional rod moves said cutter driving motor on said first slide rail forward to and backward from the first surface of the profile. a cutter configured to make cuts on the profile having a first surface and a second surface, and having at least one rib (110a, 110b) on the first surface, wherein the cuts are made on the first surface of the profile; a first drive unit (55,56,42,59,77,72) to drive said cutter forward and backward to and from the first surface of the profile; a second drive unit (80,81,40,41) to drive said cutter up and down along the first surface of the profile; a bi-directional rod coupled to said cutter driving motor; a first slide rail coupled to said cutter driving motor; a cylinder configured to drive said bi-directional rod; characterized in that said apparatus said apparatus further comprises: a cutter driving motor configured to rotate said cutter for cutting the profile, wherein said first drive unit comprises: a stopper; and a securing wheel, wherein said stopper and said securing wheel operates together to limit the movement of said bi-directional rod to control the depth of a cut made by said cutter on the first surface of the profile, a cutter driving motor configured to rotate said cutter for cutting the profile, wherein said first drive unit comprises: a stopper; and a securing wheel, wherein said stopper and said securing wheel operates together to limit the movement of said bi-directional rod to control the depth of a cut made by said cutter on the first surface of the profile, a stopper; and a securing wheel, wherein said stopper and said securing wheel operates together to limit the movement of said bi-directional rod to control the depth of a cut made by said cutter on the first surface of the profile, and wherein the driving of said bi-directional rod moves said cutter driving motor on said first slide rail forward to and backward from the first surface of the profile.