mhurhangee/patent-ind-claim-en huggingface dataset:
A multistage compression system using refrigerant and oil, the multistage compression system comprising: a low-stage compressor configured to compress the refrigerant; a high-stage compressor configured to further compress the refrigerant compressed by the low-stage compressor; and an oil return pipe configured to return the oil discharged by the high-stage compressor or the oil in the high-stage compressor to the low-stage compressor, wherein the low-stage compressor has a low-stage compression part of a rotary type compressing the refrigerant, a low-stage motor driving the compression part and disposed above the compression part, a crankshaft, and a low-stage container , having a substantially cylindrical shape and an axis RA of the motor as a center axis, wherein a lower part of the inside of the container 30 is an oil reservoir for storing oil, the low-stage container housing the compression part, the crankshaft and the motor, and the high stage compressor has a compression part of a rotary type compressing the refrigerant, a motor driving the compression part and disposed above the compression part, a crankshaft, and a container , having a substantially cylindrical shape and an axis RA of the motor as a center axis, wherein a lower part of the inside of the container 30 is an oil reservoir for storing oil, the low-stage container housing the compression part, the crankshaft and the motor, and the oil return pipe is connected to a space below the low-stage motor inside the low-stage container. a low-stage compressor configured to compress the refrigerant; a high-stage compressor configured to further compress the refrigerant compressed by the low-stage compressor; and an oil return pipe configured to return the oil discharged by the high-stage compressor or the oil in the high-stage compressor to the low-stage compressor, wherein the low-stage compressor has a low-stage compression part of a rotary type compressing the refrigerant, a low-stage motor driving the compression part and disposed above the compression part, a crankshaft, and a low-stage container , having a substantially cylindrical shape and an axis RA of the motor as a center axis, wherein a lower part of the inside of the container 30 is an oil reservoir for storing oil, the low-stage container housing the compression part, the crankshaft and the motor, and the high stage compressor has a compression part of a rotary type compressing the refrigerant, a motor driving the compression part and disposed above the compression part, a crankshaft, and a container , having a substantially cylindrical shape and an axis RA of the motor as a center axis, wherein a lower part of the inside of the container 30 is an oil reservoir for storing oil, the low-stage container housing the compression part, the crankshaft and the motor, and the oil return pipe is connected to a space below the low-stage motor inside the low-stage container.
A safety device of a lifting system characterized in that it comprises: - at least one support structure which can fan-fold open and be stably coupled to the lifting system; - at least one covering permanently coupled to said at least one support structure and shaped to make a vertical facing when said at least one support structure is fan-folded open. - at least one support structure which can fan-fold open and be stably coupled to the lifting system; - at least one covering permanently coupled to said at least one support structure and shaped to make a vertical facing when said at least one support structure is fan-folded open.
An apparatus comprising: a body forming a slot ; testing cells along a length of the slot , each testing cell comprising: a microfluidic channel extending from the slot ; a photosensor ; and a light guide to receive light from an external light source and serially transmit the light to the microfluidic channel of each of the testing cells ; characterized in that each testing cell further comprises: a pump to move fluid from the slot into the channel ; a discharge passage through which fluid exits the channel ; and a fluid discharger to discharge fluid from the channel through the discharge passage . a body forming a slot ; testing cells along a length of the slot , each testing cell comprising: a microfluidic channel extending from the slot ; a photosensor ; and a microfluidic channel extending from the slot ; a photosensor ; and a light guide to receive light from an external light source and serially transmit the light to the microfluidic channel of each of the testing cells ; a pump to move fluid from the slot into the channel ; a discharge passage through which fluid exits the channel ; and a fluid discharger to discharge fluid from the channel through the discharge passage .
Cooking appliance, in particular an oven, having a cooking chamber for cooking a product to be cooked and an optical sensor module for detecting properties of the product to be cooked , wherein the sensor module can be reversibly removed, wherein the sensor module , preferably a housing of the sensor module , has a grip element , characterised in that the sensor module is arranged in the door .
A process for the conversion of a solid material containing hemicellulose, cellulose and lignin, which process comprises the following steps: (i) hydrolyzing, at a temperature equal to or less than 40°C, preferably equal to or less than 30°C, at least part of the hemicellulose of the solid material by contacting the solid material with a first aqueous hydrochloric acid solution, which first aqueous hydrochloric acid solution has a hydrochloric acid concentration in the range from equal to or more than 15.0 wt. % to less than 40.0 wt. %, based on the weight amount of water and hydrochloric acid in such first aqueous hydrochloric acid solution, yielding a remaining solid material and an aqueous first hydrolysate product solution; (ii) displacing aqueous solution from the remaining solid material with a non-aqueous displacement fluid; (iii) hydrolyzing, at a temperature equal to or less than 40°C, preferably equal to or less than 30°C, at least part of the cellulose of the remaining solid material by replacing the non-aqueous displacement fluid with a second aqueous hydrochloric acid solution, which second aqueous hydrochloric acid solution has a hydrochloric acid concentration in the range from equal to or more than 40.0 wt. % to equal to or less than 51.0 wt. %, based on the weight amount of water and hydrochloric acid in such second aqueous hydrochloric acid solution, yielding a residue and an aqueous second hydrolysate product solution. (i) hydrolyzing, at a temperature equal to or less than 40°C, preferably equal to or less than 30°C, at least part of the hemicellulose of the solid material by contacting the solid material with a first aqueous hydrochloric acid solution, which first aqueous hydrochloric acid solution has a hydrochloric acid concentration in the range from equal to or more than 15.0 wt. % to less than 40.0 wt. %, based on the weight amount of water and hydrochloric acid in such first aqueous hydrochloric acid solution, yielding a remaining solid material and an aqueous first hydrolysate product solution; (ii) displacing aqueous solution from the remaining solid material with a non-aqueous displacement fluid; (iii) hydrolyzing, at a temperature equal to or less than 40°C, preferably equal to or less than 30°C, at least part of the cellulose of the remaining solid material by replacing the non-aqueous displacement fluid with a second aqueous hydrochloric acid solution, which second aqueous hydrochloric acid solution has a hydrochloric acid concentration in the range from equal to or more than 40.0 wt. % to equal to or less than 51.0 wt. %, based on the weight amount of water and hydrochloric acid in such second aqueous hydrochloric acid solution, yielding a residue and an aqueous second hydrolysate product solution.
A component for a delivery system, the component comprising: a body of material; a plurality of aerosol-modifying agent capsules in the body of material; and, a plurality of particles in the body of material, wherein the aerosol-modifying agent capsules and/or particles are interspersed within the body of material, the particles configured such that, in use, the particles promote breaking of the aerosol modifying agent capsules upon the application of an external force to the aerosol provision system component by a user.
An infusion catheter comprising: an elongate flexible shaft comprising a wall and a lumen extending a length between a proximal end and a distal end ; a sealing member within the shaft lumen comprising a wall and a lumen extending a length between a proximal end and a distal end , the distal end of the sealing member being attached to the distal end of the shaft ; a slidable, retractable elongate central axis member extending through the shaft and sealing member lumen and connecting to a distal end cap ; and a plurality of eluting arms for the delivery of therapeutic fluid from the shaft , each eluting arm having a lumen fluidly connected to the distal end of the shaft lumen, extending radially around the central axis member , and connecting to the distal end cap . an elongate flexible shaft comprising a wall and a lumen extending a length between a proximal end and a distal end ; a sealing member within the shaft lumen comprising a wall and a lumen extending a length between a proximal end and a distal end , the distal end of the sealing member being attached to the distal end of the shaft ; a slidable, retractable elongate central axis member extending through the shaft and sealing member lumen and connecting to a distal end cap ; and a plurality of eluting arms for the delivery of therapeutic fluid from the shaft , each eluting arm having a lumen fluidly connected to the distal end of the shaft lumen, extending radially around the central axis member , and connecting to the distal end cap .
Method for manufacturing artificial building materials from municipal solid waste treatment residue which is characterized by the following process steps: Step 1: Waste feeding to a chain conveyor type redler, equipped with integrated primary shredding system Step 2: Input in sorter of 1 st material separation with outputs for ferrous, nonferrous, soil, stones, glass, equipped with a filter device for filtration of exhaust air from the suspended solid particles Step 3: Drying of the waste stream residue in a hot air drying unit, consisting of a rotary treatment cylindrical shell Step 4: Input of the waste stream residue to a horizontal feeder and dry sieving device as 2nd materials separation, final separation of the materials flow from inert materials Step 5: The waste enters to a cylindrical chamber-reactor, equipped with multiple cutting elements, where takes place the conversion of MSW in fibrous form Step 6: Controlled melting of the material with exposure to temperatures between 200-300 °C Step 7: Entering to a mold in controlled high pressure and to a final forming-cooling unit. Step 1: Waste feeding to a chain conveyor type redler, equipped with integrated primary shredding system Step 2: Input in sorter of 1 st material separation with outputs for ferrous, nonferrous, soil, stones, glass, equipped with a filter device for filtration of exhaust air from the suspended solid particles Step 3: Drying of the waste stream residue in a hot air drying unit, consisting of a rotary treatment cylindrical shell Step 4: Input of the waste stream residue to a horizontal feeder and dry sieving device as 2nd materials separation, final separation of the materials flow from inert materials Step 5: The waste enters to a cylindrical chamber-reactor, equipped with multiple cutting elements, where takes place the conversion of MSW in fibrous form Step 6: Controlled melting of the material with exposure to temperatures between 200-300 °C Step 7: Entering to a mold in controlled high pressure and to a final forming-cooling unit.
A sliding member comprising: a base material ; and an amorphous hard carbon film formed on a surface of the base material , characterized in that the amorphous hard carbon film has a graded structure in which a sp 2 ratio increases from an inner surface (F1) side corresponding to the base material side toward an outer surface (F2) side, wherein said sp 2 ratio indicates a ratio of sp 2 bond with respect to sp 2 bond and sp 3 bond of the amorphous hard carbon film , wherein said sp 2 ratio is determined on the basis of spectrum obtained by electron energy loss spectroscopy EELS, and wherein when a sp 2 ratio of the inner surface (F1) side of the amorphous hard carbon film is indicated by A% and a sp 2 ratio of the outer surface (F2) side of the amorphous hard carbon film is indicated by B%, a value of, B - A, is 20 or more. a base material ; and an amorphous hard carbon film formed on a surface of the base material , characterized in that the amorphous hard carbon film has a graded structure in which a sp 2 ratio increases from an inner surface (F1) side corresponding to the base material side toward an outer surface (F2) side, wherein said sp 2 ratio indicates a ratio of sp 2 bond with respect to sp 2 bond and sp 3 bond of the amorphous hard carbon film , wherein said sp 2 ratio is determined on the basis of spectrum obtained by electron energy loss spectroscopy EELS, and wherein when a sp 2 ratio of the inner surface (F1) side of the amorphous hard carbon film is indicated by A% and a sp 2 ratio of the outer surface (F2) side of the amorphous hard carbon film is indicated by B%, a value of, B - A, is 20 or more.
A catheter comprising: at least one interior lumen defined by a side wall having an exterior circumferential surface between a first end of said catheter and a second end of said catheter; a titanium surface area on said circumferential surface, characterised by said titanium surface area extending a distance toward a central portion (I) of said catheter from one or both of said first end and said second end and defining means for inhibiting pathogens, and means for enhancing lubricity with tissue contacting said circumferential surface, thereby providing prevention of tissue adherence thereto, and an anti-pathogenic and/or anti-microbial surface coating over said titanium surface area circumferential surface at one or both of said first and said second end. at least one interior lumen defined by a side wall having an exterior circumferential surface between a first end of said catheter and a second end of said catheter; a titanium surface area on said circumferential surface, characterised by said titanium surface area extending a distance toward a central portion (I) of said catheter from one or both of said first end and said second end and defining means for inhibiting pathogens, and means for enhancing lubricity with tissue contacting said circumferential surface, thereby providing prevention of tissue adherence thereto, and an anti-pathogenic and/or anti-microbial surface coating over said titanium surface area circumferential surface at one or both of said first and said second end.
A method, performed by a policy server , for managing traffic steering policies for steering of traffic of a user equipment, wherein the traffic steering policies are applicable by a traffic steering server to manage the traffic, wherein the method comprises: generating (A020) a policy request, wherein the policy request comprises the traffic steering policies, wherein the traffic steering policies include a first traffic steering policy and a container Attribute-Value-Pair, AVP, wherein the container AVP comprises a second traffic steering policy, both the first and second traffic steering policies being applicable to the traffic in one direction with respect to the user equipment, and sending (A030) the policy request to the traffic steering server ; wherein the container AVP further comprises a service chain identifier and a service chain threshold associated with the service chain identifier, wherein the service chain identifier and the service chain threshold are related to the first and/or second traffic steering policy, and wherein the method further comprises: receiving (A100), from the traffic steering server , a report, wherein the report comprises: the first or second traffic steering policy, the service chain identifier, and the service chain threshold. generating (A020) a policy request, wherein the policy request comprises the traffic steering policies, wherein the traffic steering policies include a first traffic steering policy and a container Attribute-Value-Pair, AVP, wherein the container AVP comprises a second traffic steering policy, both the first and second traffic steering policies being applicable to the traffic in one direction with respect to the user equipment, and sending (A030) the policy request to the traffic steering server ; wherein the container AVP further comprises a service chain identifier and a service chain threshold associated with the service chain identifier, wherein the service chain identifier and the service chain threshold are related to the first and/or second traffic steering policy, and wherein the method further comprises: receiving (A100), from the traffic steering server , a report, wherein the report comprises: the first or second traffic steering policy, the service chain identifier, and the service chain threshold. the first or second traffic steering policy, the service chain identifier, and the service chain threshold.
A frame provided with a drainage system, which frame comprises a section provided with at least a plate member , a connecting member extending transversely to the plate member and at least one passage extending through at least one wall of the connecting member in which passage a tube suitable for water drainage is present, the frame is further provided with at least one sealing strip on said plate member , characterized in that the sealing strip is located below the connecting member , whilst at least a portion of an upper end of the tube is positioned in the wall to enable water on the wall to flow into the tube and a lower end of the tube extends trough the sealing strip , which upper end of the tube is provided with a fixing element supported on the wall .
Cover for a hood of a motor-vehicle , comprising: - a main sheet adapted to cover an external surface of said hood , said main sheet having a plurality of perimetric recesses , each one of said perimetric recesses being delimited by two edges opposed each other, said two edges being arranged to engage each other in such a way to form a contraction portion , characterized in that said edges of at least one of said perimetric recesses have two respective first openings adapted to be placed one on the other and to anchor with a corresponding protuberance of an internal surface of said hood . - a main sheet adapted to cover an external surface of said hood , said main sheet having a plurality of perimetric recesses , each one of said perimetric recesses being delimited by two edges opposed each other, said two edges being arranged to engage each other in such a way to form a contraction portion , characterized in that said edges of at least one of said perimetric recesses have two respective first openings adapted to be placed one on the other and to anchor with a corresponding protuberance of an internal surface of said hood .
Device for inserting/extracting at least one optical subband into/from an optical channel (C i ) composed of a plurality of optical subbands comprising at least two orthogonally frequency-multiplexed optical signals, the device comprising: - a duplication means able to duplicate the optical channel (C i ) to a first duplication port (s 1 ) and a second duplication port (s 2 ): - extraction means able to extract a first multiplexed optical subband (SB) belonging to the optical channel (C i ), consisting of bandpass filtering means connected to the first duplication port (s 1 ) so as to receive a first duplicated optical channel (C i ) and devised so as to let through, to an extraction port (s D ), the first multiplexed optical subband (SB) of the first duplicated optical channel; - deletion means devised so as to obtain a filtered optical channel (C i *) on the basis of the optical channel (C i ) in which at least one second multiplexed subband (SB") is deleted, consisting of bandstop filtering means connected to the second duplication port (s 2 ) so as to receive a second duplicated optical channel (C i ) and devised so as to filter the second subband (SB") in said second duplicated optical channel so as to obtain the filtered optical channel (C i *); - a coupling means able to insert a replacement optical subband (SB') in place of the second multiplexed subband (SB") into the filtered optical channel (C i *) so as to obtain a modified optical channel (C i ') in which the width of the spectral passband of the bandpass filtering means and/or of the spectral band rejected by the bandstop filtering means lies in a frequency band ranging from 7 GHz to 10 GHz. - a duplication means able to duplicate the optical channel (C i ) to a first duplication port (s 1 ) and a second duplication port (s 2 ): - extraction means able to extract a first multiplexed optical subband (SB) belonging to the optical channel (C i ), consisting of bandpass filtering means connected to the first duplication port (s 1 ) so as to receive a first duplicated optical channel (C i ) and devised so as to let through, to an extraction port (s D ), the first multiplexed optical subband (SB) of the first duplicated optical channel; - deletion means devised so as to obtain a filtered optical channel (C i *) on the basis of the optical channel (C i ) in which at least one second multiplexed subband (SB") is deleted, consisting of bandstop filtering means connected to the second duplication port (s 2 ) so as to receive a second duplicated optical channel (C i ) and devised so as to filter the second subband (SB") in said second duplicated optical channel so as to obtain the filtered optical channel (C i *); - a coupling means able to insert a replacement optical subband (SB') in place of the second multiplexed subband (SB") into the filtered optical channel (C i *) so as to obtain a modified optical channel (C i ') in which the width of the spectral passband of the bandpass filtering means and/or of the spectral band rejected by the bandstop filtering means lies in a frequency band ranging from 7 GHz to 10 GHz.