mhurhangee/patent-ind-claim-en huggingface dataset:
Scroll compressor for compressing a fluid, comprising: a compression section with • an inlet of the compression section for sucking the fluid into the compression section , • an outlet of the compression section for discharging the compressed fluid out of the compression section , • a stationary disk having a stationary spiral , and • an orbiting disk having an orbiting spiral , the orbiting disk being orbitable relative to the stationary disk along a compression direction to move the fluid from the inlet of the compression section to the outlet of the compression section , thereby compressing the fluid; and an oil separator for separating oil from the compressed fluid; wherein the scroll compressor additionally comprises a direct oil return for directly returning oil from the oil separator to the compression section , the direct oil return comprising at least one orifice opening , wherein the direct oil return comprises a first flow valve , characterized in that the direct oil return comprises an outgassing chamber arranged between the first flow valve and the orifice opening of the direct oil return , and in that the scroll compressor has a fluid return for returning fluid from the outgassing chamber to the compression section . a compression section with • an inlet of the compression section for sucking the fluid into the compression section , • an outlet of the compression section for discharging the compressed fluid out of the compression section , • a stationary disk having a stationary spiral , and • an orbiting disk having an orbiting spiral , the orbiting disk being orbitable relative to the stationary disk along a compression direction to move the fluid from the inlet of the compression section to the outlet of the compression section , thereby compressing the fluid; and • an inlet of the compression section for sucking the fluid into the compression section , • an outlet of the compression section for discharging the compressed fluid out of the compression section , • a stationary disk having a stationary spiral , and • an orbiting disk having an orbiting spiral , the orbiting disk being orbitable relative to the stationary disk along a compression direction to move the fluid from the inlet of the compression section to the outlet of the compression section , thereby compressing the fluid; and an oil separator for separating oil from the compressed fluid; wherein the scroll compressor additionally comprises a direct oil return for directly returning oil from the oil separator to the compression section , the direct oil return comprising at least one orifice opening , wherein the direct oil return comprises a first flow valve , characterized in that the direct oil return comprises an outgassing chamber arranged between the first flow valve and the orifice opening of the direct oil return , and in that the scroll compressor has a fluid return for returning fluid from the outgassing chamber to the compression section .
Support arm system for movably holding at least one medical device, comprising at least one movably supported support arm which is configured to hold at least one medical device, at least one load detection device which is configurged to detect respective load data of the support arm system during usage thereof, wherein the support arm system comprises a plurality of support arms which are supported adjacent to one another, wherein the load detection device is configured to individually detect the load for the respective support arms , and/or the respective bearings. and at least one storage device which is configured for storing the detected load data. at least one movably supported support arm which is configured to hold at least one medical device, at least one load detection device which is configurged to detect respective load data of the support arm system during usage thereof, wherein the support arm system comprises a plurality of support arms which are supported adjacent to one another, wherein the load detection device is configured to individually detect the load for the respective support arms , and/or the respective bearings. and at least one storage device which is configured for storing the detected load data.
Probe head for visual observation of a hot gas-carrying system from the inside, wherein the probe head is designed for arrangement in the hot gas and comprises the following: - a viewing window formed in the probe head and completely or partially covered by a completely or partially transparent protective element , and - an observation unit at least partially arranged in the probe head and configured for observation through the viewing window , - characterized in that the probe head comprises an adjustment device , by means of which a viewing direction of the observation unit is adjustable within an adjustment range relative to the rest of the probe head . - a viewing window formed in the probe head and completely or partially covered by a completely or partially transparent protective element , and - an observation unit at least partially arranged in the probe head and configured for observation through the viewing window , - characterized in that the probe head comprises an adjustment device , by means of which a viewing direction of the observation unit is adjustable within an adjustment range relative to the rest of the probe head .
A neuromodulation catheter , comprising: an elongate shaft including- a first segment made at least partially of a first shape-memory alloy having a first shape-memory transformation temperature range, and a second segment made at least partially of a second shape-memory alloy having a second shape-memory transformation temperature range lower than the first shape-memory transformation temperature range, the second segment being proximal to the first segment along a longitudinal axis of the shaft ; and a neuromodulation element operably connected to the shaft via a distal end portion of the shaft . an elongate shaft including- a first segment made at least partially of a first shape-memory alloy having a first shape-memory transformation temperature range, and a second segment made at least partially of a second shape-memory alloy having a second shape-memory transformation temperature range lower than the first shape-memory transformation temperature range, the second segment being proximal to the first segment along a longitudinal axis of the shaft ; and a first segment made at least partially of a first shape-memory alloy having a first shape-memory transformation temperature range, and a second segment made at least partially of a second shape-memory alloy having a second shape-memory transformation temperature range lower than the first shape-memory transformation temperature range, the second segment being proximal to the first segment along a longitudinal axis of the shaft ; and a neuromodulation element operably connected to the shaft via a distal end portion of the shaft .
A turbine engine , comprising a rotor assembly which includes at least one row of turbine blades extending radially outward from a rotor ; at least one combustor positioned upstream from the rotor assembly , a compressor positioned upstream from the at least one combustor ; at least one compressor exhaust plenum extending between the compressor and the at least one combustor ; and at least one combustor inlet mixing system formed from a plurality of circumferentially spaced swirler vanes extending radially outward from a nozzle hub, each of the plurality of swirler vanes having a length that extends downstream along at least a portion of the at least one combustor inlet mixing system and further having a thickness that extends along a circumference of the nozzle hub, wherein the nozzle hub further comprises a heat shield and a gas diffusion outlet which are each positioned downstream of the plurality of swirler vanes , characterized in that : at least one swirler vane of the plurality of swirler vanes further has at least one slot cut entirely through the thickness of a portion of the at least one swirler vane , the at least one slot separating the at least one swirler vane from the nozzle hub along a portion of the length of the at least one swirler vane.
A method of manufacturing a component , comprising: providing a core structure ; casting a component about the core structure, wherein the component comprises a structure having walls providing a cooling passage having a cooling surface, wherein the structure includes a nickel alloy; removing a first portion of the core structure from the cast component; and leaving a second portion of the core structure in the cast component to provide a reduced cross-section in the cast component, wherein the second portion provides an obstruction provided by a material that is different than the nickel alloy. providing a core structure ; casting a component about the core structure, wherein the component comprises a structure having walls providing a cooling passage having a cooling surface, wherein the structure includes a nickel alloy; removing a first portion of the core structure from the cast component; and leaving a second portion of the core structure in the cast component to provide a reduced cross-section in the cast component, wherein the second portion provides an obstruction provided by a material that is different than the nickel alloy.
A method for determining a concentration of at least one analyte in bodily fluid, the method comprising the following steps: - at least one signal generation step , wherein at least one excitation voltage signal is generated by at least one signal generator device , wherein the excitation voltage signal comprises at least one poly frequent alternating current (AC) voltage and at least one direct current (DC) voltage profile, wherein the poly frequent AC voltage comprises at least two frequencies and the AC voltage and the DC voltage are superimposed to form the excitation voltage signal; - at least one signal application step , wherein the excitation voltage signal is applied to at least two measurement electrodes which are in contact with the bodily fluid; - at least one measurement step , wherein a response is measured by using the measurement electrodes ; - at least one evaluation step , wherein an AC current response for each frequency and a DC current response are evaluated from the response by at least one evaluation device , and wherein for each frequency at least one phase information and at least one impedance information is evaluated from the AC current response by the evaluation device ; - at least one determination step , wherein the concentration of the analyte is determined from the DC current response and from one or both of the phase information and impedance information by using at least one predetermined relationship. - at least one signal generation step , wherein at least one excitation voltage signal is generated by at least one signal generator device , wherein the excitation voltage signal comprises at least one poly frequent alternating current (AC) voltage and at least one direct current (DC) voltage profile, wherein the poly frequent AC voltage comprises at least two frequencies and the AC voltage and the DC voltage are superimposed to form the excitation voltage signal; - at least one signal application step , wherein the excitation voltage signal is applied to at least two measurement electrodes which are in contact with the bodily fluid; - at least one measurement step , wherein a response is measured by using the measurement electrodes ; - at least one evaluation step , wherein an AC current response for each frequency and a DC current response are evaluated from the response by at least one evaluation device , and wherein for each frequency at least one phase information and at least one impedance information is evaluated from the AC current response by the evaluation device ; - at least one determination step , wherein the concentration of the analyte is determined from the DC current response and from one or both of the phase information and impedance information by using at least one predetermined relationship.
Reactor (1-01) for the preparation of synthesis gas with a mixer (1-06), a mixing space (1-07), a reactor space, inlets for at least two fluid reactants and outlet for at least one fluid product and a reactor shell encompassing these, containing - between reactor shell and mixer in the interior of the reactor, an outer fluid-tight inlet (1-02) for at least one reactant within which at least one fluid-tight inlet (1-03) for a further reactant is disposed and - having a countercurrent construction, with regard to the flow of the reactants in the inlet, between mixing space and outlet, characterised by the mixer and in that the mixer contains - a mixer base (2-02), - at least one mixer disc (2-04) with channels for the first fluid leading outwards into the mixing space, - at least one mixer disc (2-05) with channels for the second fluid leading outwards into the mixing space, - a mixer closure (2-06) and - a mixer lid (2-07). - between reactor shell and mixer in the interior of the reactor, an outer fluid-tight inlet (1-02) for at least one reactant within which at least one fluid-tight inlet (1-03) for a further reactant is disposed - having a countercurrent construction, with regard to the flow of the reactants in the inlet, between mixing space and outlet, the mixer and in that the mixer contains - a mixer base (2-02), - at least one mixer disc (2-04) with channels for the first fluid leading outwards into the mixing space, - at least one mixer disc (2-05) with channels for the second fluid leading outwards into the mixing space, - a mixer closure (2-06) and - a mixer lid (2-07). - a mixer base (2-02), - at least one mixer disc (2-04) with channels for the first fluid leading outwards into the mixing space, - at least one mixer disc (2-05) with channels for the second fluid leading outwards into the mixing space, - a mixer closure (2-06) and - a mixer lid (2-07).
A display protector attaching apparatus for a smart device provided with a display, comprising: a base portion provided with a receiving groove adapted to receive a smart device (S); a cover portion detachably coupled to the base portion to cover the smart device (S) when received in the receiving groove with the display facing the cover portion ; characterized by said cover portion comprising a cover body , an opened central portion for receiving therein the display protector (P) to be attached to the display of the smart device (S), and an edge portion provided to protrude upwardly from the opened central portion of the cover body , a lifting supporter detachably coupled to a coupler provided in the base portion and comprising a lifting support body ,wherein said lifting supporter is free to move, thanks to a cutout of the edge portion forming a moving path for said lifting support body , from a first position wherein said lifting supporter is extending inside the opened central portion so as to support one side of the display protector (P) to be attached to the smart device (S) so that the supported side is spaced apart from the upper surface of the display of the smart device (S), and a second position wherein said lifting supporter is not extending inside the opened central portion to no longer lift the display protector (P) from the upper surface of the display of the smart device (S). a base portion provided with a receiving groove adapted to receive a smart device (S); a cover portion detachably coupled to the base portion to cover the smart device (S) when received in the receiving groove with the display facing the cover portion ; characterized by said cover portion comprising a cover body , an opened central portion for receiving therein the display protector (P) to be attached to the display of the smart device (S), and an edge portion provided to protrude upwardly from the opened central portion of the cover body , a lifting supporter detachably coupled to a coupler provided in the base portion and comprising a lifting support body ,wherein said lifting supporter is free to move, thanks to a cutout of the edge portion forming a moving path for said lifting support body , from a first position wherein said lifting supporter is extending inside the opened central portion so as to support one side of the display protector (P) to be attached to the smart device (S) so that the supported side is spaced apart from the upper surface of the display of the smart device (S), and a second position wherein said lifting supporter is not extending inside the opened central portion to no longer lift the display protector (P) from the upper surface of the display of the smart device (S).
A fan blade comprising a main body extending between a leading edge and a trailing edge , and having channels formed into said main body from at least one open side with a plurality of ribs extending across the main body intermediate the channels , with said fan blade having a dovetail , and an airfoil extending radially outwardly from said dovetail , said ribs having a thickness defined as measured from said leading edge toward said trailing edge ; characterised in that : said ribs have break-edges (38;66) at edges of said thickness, said break-edges being formed to extend away from an outer face at said open side, wherein said break-edges are respectively formed by a chamfer, wherein a nominal thickness (t 3 ) of the rib may be defined as a thickness between sides of the rib beyond the chamfer , and the nominal thickness (c) of the chamfer may be defined in a plane perpendicular to said outer face of said rib , with a ratio of said nominal thickness (c) of the chamfer to the nominal thickness (t 3 ) of the rib is between 0.02 and 0.15; or said break-edges are curved, wherein a ratio of a radius (r 1 ) of said curved break-edge to a nominal thickness (t 3 ) of the rib measured between sides of the rib at locations beyond the curved break-edge is between 0.02 and 0.15. said ribs have break-edges (38;66) at edges of said thickness, said break-edges being formed to extend away from an outer face at said open side, wherein said break-edges are respectively formed by a chamfer, wherein a nominal thickness (t 3 ) of the rib may be defined as a thickness between sides of the rib beyond the chamfer , and the nominal thickness (c) of the chamfer may be defined in a plane perpendicular to said outer face of said rib , with a ratio of said nominal thickness (c) of the chamfer to the nominal thickness (t 3 ) of the rib is between 0.02 and 0.15; or said break-edges are curved, wherein a ratio of a radius (r 1 ) of said curved break-edge to a nominal thickness (t 3 ) of the rib measured between sides of the rib at locations beyond the curved break-edge is between 0.02 and 0.15.
A processor implemented method, comprising: receiving, via one or more hardware processors , an input comprising one or more parameters specific to an industrial internet of things ,IIoT, use case, wherein the one or more parameters comprise at least one of one or more available resources, the observational data, an input data query, an enterprise storage system type, and a file format ; selecting, via the one or more hardware processors , a first processing environment based on the one or more parameters ; generating, via the one or more hardware processors , metadata based on the first processing environment, wherein the metadata is generated based on a location information of an observational data comprised in a database , and wherein the observational data is specific to one or more sensors deployed in an IoT network ; populating, via the one or more hardware processors , the observational data in the first processing environment based on (i) a storage system, (ii) the metadata and (iii) number of available resources in the first processing environment ; receiving, via the one or more hardware processors , one or more input queries from one or more users ; executing, via the one or more hardware processors , the one or more input queries on the observational data, in the first processing environment to obtain a data frame ; and pre-processing, via the one or more hardware processors , the obtained data frame in one of the first processing environment or a second processing environment and plotting the pre-processed data frame in the second processing environment . receiving, via one or more hardware processors , an input comprising one or more parameters specific to an industrial internet of things ,IIoT, use case, wherein the one or more parameters comprise at least one of one or more available resources, the observational data, an input data query, an enterprise storage system type, and a file format ; selecting, via the one or more hardware processors , a first processing environment based on the one or more parameters ; generating, via the one or more hardware processors , metadata based on the first processing environment, wherein the metadata is generated based on a location information of an observational data comprised in a database , and wherein the observational data is specific to one or more sensors deployed in an IoT network ; populating, via the one or more hardware processors , the observational data in the first processing environment based on (i) a storage system, (ii) the metadata and (iii) number of available resources in the first processing environment ; receiving, via the one or more hardware processors , one or more input queries from one or more users ; executing, via the one or more hardware processors , the one or more input queries on the observational data, in the first processing environment to obtain a data frame ; and pre-processing, via the one or more hardware processors , the obtained data frame in one of the first processing environment or a second processing environment and plotting the pre-processed data frame in the second processing environment .
Stop log for object protection, comprising an elongated, hollow extruded body with an upper area , a lower area and two side walls which connect the upper area to the lower area , wherein the lower area has two bearing projections on both sides, and the upper area has on at least one side a sealing channel which is provided for introducing a seal onto which at least one of the two bearing projections of an adjacent stop log is fitted, characterized in that there is provided on the top side a lifting channel which has an undercut , and the undercut of the lifting channel is formed under the base of the at least one sealing channel .
A sealing arrangement for a shaft, comprising: a shaft ; a retaining ring, and a sealing assembly , the sealing assembly including: a seal cartridge having at least one sealing element, first and second mating rings configured to axially locate the seal cartridge with respect to the shaft , wherein the second mating ring includes at least one tang configured to extend through at least one corresponding slot in the shaft , and characterized by the at least one tang being configured to engage said retaining ring to axially retain the second mating ring on the shaft without a screw thread. a shaft ; a retaining ring, and a sealing assembly , the sealing assembly including: a seal cartridge having at least one sealing element, first and second mating rings configured to axially locate the seal cartridge with respect to the shaft , wherein the second mating ring includes at least one tang configured to extend through at least one corresponding slot in the shaft , and characterized by the at least one tang being configured to engage said retaining ring to axially retain the second mating ring on the shaft without a screw thread. a seal cartridge having at least one sealing element, first and second mating rings configured to axially locate the seal cartridge with respect to the shaft , wherein the second mating ring includes at least one tang configured to extend through at least one corresponding slot in the shaft , and characterized by the at least one tang being configured to engage said retaining ring to axially retain the second mating ring on the shaft without a screw thread.