mhurhangee/patent-ind-claim-en huggingface dataset:
- Hydraulic circuit for an agricultural vehicle comprising a pump carried by a torque source to provide oil to a primary conduit and to a secondary conduit , said primary conduit being configured to be fluidly connected to essential operative system hydraulic circuits of said vehicle and said secondary conduit being configured to be fluidly connected to other operative systems hydraulic circuits of said vehicle, said other operative systems hydraulic circuits comprising at least two among a stabilizer system circuit , a hitch system circuit , a hydraulic link system circuit , a cabin suspension system circuit and a front suspension system circuit ,each among said circuits (8a-8e) respectively being connected by conduits (11a-11e, 12) to said secondary conduit , wherein said hydraulic circuit comprises sensor means (13a-13e, 14) configured to be interposed on said conduits (11a-11e, 12) and configured to detect oil characteristics of the oil flow flowing into said conduits (11a-11e, 12), and said hydraulic circuit being provided by an electronic control unit electrically connected to said sensor means (13a-13e, 14) and to said torque source and comprising elaboration means configured to acquire the data detected by said sensor means (13a-13e, 14) and, in function of said acquired data, to control the oil flow demand of said other operative systems hydraulic circuits and execute at least one between the actions i) provide a warning signal and ii) control said torque source , the hydraulic circuit is characterized in that said electronic control unit is electrically connected to user control means configured to allow the user to control the oil flow priority among said hydraulic circuits (8a-8e, 9). said primary conduit being configured to be fluidly connected to essential operative system hydraulic circuits of said vehicle and said secondary conduit being configured to be fluidly connected to other operative systems hydraulic circuits of said vehicle, said other operative systems hydraulic circuits comprising at least two among a stabilizer system circuit , a hitch system circuit , a hydraulic link system circuit , a cabin suspension system circuit and a front suspension system circuit ,each among said circuits (8a-8e) respectively being connected by conduits (11a-11e, 12) to said secondary conduit , wherein said hydraulic circuit comprises sensor means (13a-13e, 14) configured to be interposed on said conduits (11a-11e, 12) and configured to detect oil characteristics of the oil flow flowing into said conduits (11a-11e, 12), and said hydraulic circuit being provided by an electronic control unit electrically connected to said sensor means (13a-13e, 14) and to said torque source and comprising elaboration means configured to acquire the data detected by said sensor means (13a-13e, 14) and, in function of said acquired data, to control the oil flow demand of said other operative systems hydraulic circuits and execute at least one between the actions i) provide a warning signal and ii) control said torque source ,
A method of producing a sodium iron(II)-hexacyanoferrate(II) material, Na 2-y Fe[Fe(CN) 6 ].mH 2 O), where y<0.2, the method comprising the steps of: - acid decomposition of Na 4 Fe(CN) 6 .10H 2 O to a powder of Na 2-x Fe[Fe(CN) 6 ].mH 2 O, where x is < 0.4 and m is between 0 and 10; - filtering and drying the Na 2-x Fe[Fe(CN) 6 ].mH 2 O powder; and - enriching the sodium content in the Na 2-x Fe[Fe(CN) 6 ].mH 2 O powder, resulting in a Na 2-y Fe[Fe(CN) 6 ].mH 2 O powder, where y<x; - separating and drying the enriched Na 2-y Fe[Fe(CN) 6 ].mH 2 O powder resulting in the sodium iron(II)-hexacyanoferrate(II) material, characterized in that the steps of acid decomposition and enriching the sodium content are performed under non-hydrothermal conditions, and in that the step of enriching the sodium content comprises mixing the dried Na 2-x Fe[Fe(CN) 6 ].mH 2 O powder with a supersaturated solution of a reducing agent containing sodium in dry solvent under an inert gas. - acid decomposition of Na 4 Fe(CN) 6 .10H 2 O to a powder of Na 2-x Fe[Fe(CN) 6 ].mH 2 O, where x is < 0.4 and m is between 0 and 10; - filtering and drying the Na 2-x Fe[Fe(CN) 6 ].mH 2 O powder; and - enriching the sodium content in the Na 2-x Fe[Fe(CN) 6 ].mH 2 O powder, resulting in a Na 2-y Fe[Fe(CN) 6 ].mH 2 O powder, where y<x; - separating and drying the enriched Na 2-y Fe[Fe(CN) 6 ].mH 2 O powder resulting in the sodium iron(II)-hexacyanoferrate(II) material, characterized in that the steps of acid decomposition and enriching the sodium content are performed under non-hydrothermal conditions, and in that the step of enriching the sodium content comprises mixing the dried Na 2-x Fe[Fe(CN) 6 ].mH 2 O powder with a supersaturated solution of a reducing agent containing sodium in dry solvent under an inert gas.
A method for manufacturing a piston for an internal combustion engine, the method comprising the steps of: irradiating a piston crown surface of a piston body made of aluminum alloy with laser light to form a recess in a part of the piston crown surface irradiated with the laser light; and forming an anodized film (20 - 25) on the piston crown surface by an anodizing treatment to close an opening of the recess , wherein the piston has a hollow space closed with the anodized film (20 - 25) inside the recess . irradiating a piston crown surface of a piston body made of aluminum alloy with laser light to form a recess in a part of the piston crown surface irradiated with the laser light; and forming an anodized film (20 - 25) on the piston crown surface by an anodizing treatment to close an opening of the recess , wherein the piston has a hollow space closed with the anodized film (20 - 25) inside the recess .
An integrated sensor module for detection and discrimination between chemical substances, the sensor module comprising: a UV radiation source operable to emit UV radiation onto a sample ; and a sensor including a plurality of spectrally sensitive UV channels disposed so as to receive UV radiation from the sample , each of the UV channels including a respective sensing device and a respective UV interference filter disposed over a UV radiation sensitive portion of the respective sensing device, the respective UV interference filter for each particular one of the channels having transmission characteristics that are spectrally responsive to a respectively different spectral signature of a respective chemical substance; a separate broad band radiation source operable to emit broad band radiation at longer wavelengths than the UV radiation source, outside the UV, onto the sample , wherein at least some channels in the sensor are operable to detect radiation based on a fluorescence effect of the sample in response to the broad band radiation and to provide output signals to a signal processor. a UV radiation source operable to emit UV radiation onto a sample ; and a sensor including a plurality of spectrally sensitive UV channels disposed so as to receive UV radiation from the sample , each of the UV channels including a respective sensing device and a respective UV interference filter disposed over a UV radiation sensitive portion of the respective sensing device, the respective UV interference filter for each particular one of the channels having transmission characteristics that are spectrally responsive to a respectively different spectral signature of a respective chemical substance; a separate broad band radiation source operable to emit broad band radiation at longer wavelengths than the UV radiation source, outside the UV, onto the sample , wherein at least some channels in the sensor are operable to detect radiation based on a fluorescence effect of the sample in response to the broad band radiation and to provide output signals to a signal processor.
A dental splint as an training tool for dentistry and dental technology, having a first, concave surface adapted to the teeth and adjacent gingival topography of a wearer, and a second, convex surface having formed therein at least portions of a tooth surface configuration having predetermined defects for the purpose of diagnosis, planning and restoration.
Organo-modified lamellar double hydroxide material corresponding to formula (I): [M 1-x M' x (OH) 2 ] x+ (HO-Φ-Y-X) x .mH 2 O (I) in which: - X represents a group chosen from: -COO - and -SO 3 - , - Y represents a group chosen from: -CH 2 -CH 2 - and -CH=CH-, - Φ represents a phenyl group substituted in ortho, in meta or in para, on the one hand by the hydroxyl group, on the other hand by the group -Y-X, - m represents a number going from 0 to 2, and • if: M represents one or more cations chosen from: Mg, Zn, Co, Ni, Ca, Cu, M' represents one or more cations chosen from: Al, Ga, Fe, Cr, and x represents a number 0.1 ≤ x ≤ 0.5, or • if: M represents Li, M' represents Al, and x = 2/3. - X represents a group chosen from: -COO - and -SO 3 - , - Y represents a group chosen from: -CH 2 -CH 2 - and -CH=CH-, - Φ represents a phenyl group substituted in ortho, in meta or in para, on the one hand by the hydroxyl group, on the other hand by the group -Y-X, - m represents a number going from 0 to 2, and • if: M represents one or more cations chosen from: Mg, Zn, Co, Ni, Ca, Cu, M' represents one or more cations chosen from: Al, Ga, Fe, Cr, and x represents a number 0.1 ≤ x ≤ 0.5, or • if: M represents Li, M' represents Al, and x = 2/3. • if: M represents one or more cations chosen from: Mg, Zn, Co, Ni, Ca, Cu, M' represents one or more cations chosen from: Al, Ga, Fe, Cr, and x represents a number 0.1 ≤ x ≤ 0.5, M represents one or more cations chosen from: Mg, Zn, Co, Ni, Ca, Cu, M' represents one or more cations chosen from: Al, Ga, Fe, Cr, and x represents a number 0.1 ≤ x ≤ 0.5, • if: M represents Li, M' represents Al, and x = 2/3.
A medical device, comprising: a sensing circuit configured to sense a first cardiac electrical signal; a control circuit configured to: determine, from the first cardiac electrical signal, at least one of a maximum peak amplitude of a positive slope of the first cardiac electrical signal and a maximum peak time interval from a pacing pulse to the maximum peak amplitude of the positive slope; and determine a capture type of the pacing pulse as being one of non-selective His-Purkinje system capture or ventricular myocardial capture based on at least one of the maximum peak amplitude and the maximum peak time interval. a sensing circuit configured to sense a first cardiac electrical signal; a control circuit configured to: determine, from the first cardiac electrical signal, at least one of a maximum peak amplitude of a positive slope of the first cardiac electrical signal and a maximum peak time interval from a pacing pulse to the maximum peak amplitude of the positive slope; and determine a capture type of the pacing pulse as being one of non-selective His-Purkinje system capture or ventricular myocardial capture based on at least one of the maximum peak amplitude and the maximum peak time interval. determine, from the first cardiac electrical signal, at least one of a maximum peak amplitude of a positive slope of the first cardiac electrical signal and a maximum peak time interval from a pacing pulse to the maximum peak amplitude of the positive slope; and determine a capture type of the pacing pulse as being one of non-selective His-Purkinje system capture or ventricular myocardial capture based on at least one of the maximum peak amplitude and the maximum peak time interval.
A gas valve , comprising: a valve body , including a gas inlet , a gas outlet , an inlet passage communicating with the gas inlet , an outlet passage communicating with the gas outlet , and an opening disposed between the inlet passage and the outlet passage ; a flow regulator , being movably disposed at the opening of the valve body , wherein the flow regulator is driven to change an opening degree of the opening ; a hot film anemometer , disposed in the valve body , wherein the hot film anemometer includes a probe which includes a hot film resistor exposed to the outlet passage to sense a gas flow rate passing through the outlet passage ; and a driver, disposed in the valve body and connected to the flow regulator , wherein the driver is adapted to receive a control signal to drive the flow regulator to move, characterized in that the gas valve further comprises a flow guiding member disposed in the outlet passage ; and that the probe of the hot film anemometer is disposed between the flow guiding member and the gas outlet . a valve body , including a gas inlet , a gas outlet , an inlet passage communicating with the gas inlet , an outlet passage communicating with the gas outlet , and an opening disposed between the inlet passage and the outlet passage ; a flow regulator , being movably disposed at the opening of the valve body , wherein the flow regulator is driven to change an opening degree of the opening ; a hot film anemometer , disposed in the valve body , wherein the hot film anemometer includes a probe which includes a hot film resistor exposed to the outlet passage to sense a gas flow rate passing through the outlet passage ; and a driver, disposed in the valve body and connected to the flow regulator , wherein the driver is adapted to receive a control signal to drive the flow regulator to move, characterized in that the gas valve further comprises a flow guiding member disposed in the outlet passage ; and that the probe of the hot film anemometer is disposed between the flow guiding member and the gas outlet .
A method of improving resistance to environmental stress cracking promoted by corn oil in a fitting for joining pipe sections comprising molding the fitting from a chlorinated vinyl chloride (CPVC) compound, wherein the CPVC compound comprises (A) at least one high molecular weight chlorinated vinyl chloride homopolymer resin (CPVC resin), wherein said high molecular weight CPVC homopolymer resin has a chlorine content of between 63 and 66.75 wt % and is prepared by chlorinating a vinyl chloride resin having an inherent viscosity of 0.79 to 1.02.
Fastening arrangement having an anchor rail for anchoring in concrete, having a C-profile rail which comprises a slot in a first side , and having an anchoring element on a second side opposite the first side, characterized in that the anchor rail comprises a surface anchor for providing tieback anchoring for the C-profile rail , which surface anchor rests on the first side of the C-profile rail and protrudes from the C-profile rail from a third side which is adjacent to the first side , the surface anchor comprising an anchoring means which is at a distance from the C-profile rail , the C-profile rail being anchored in a structural part made of concrete so as to be recessed in such a way that the first side of the rail comprising the slot is flush with a surface of the structural part , and that the surface anchor is connected to the C-profile rail on the first side and protrudes from the C-profile rail on the third side adjacent to the first side , and the surface anchor resting on the surface of the structural part and being fixed to the structural part at a distance from the C-profile rail , or penetrating the structural part laterally from the C-profile rail .
A method for wireless communication at a user equipment, comprising: identifying a configuration of acknowledgement/negative acknowledgement, ACK/NACK, resource sets across a plurality of sub-slots in a slot, the plurality of sub-slots associated with a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook; receiving a first data transmission in a first data channel from a base station and a second data transmission in a second data channel from the base station; receiving an indication of a first resource set of the ACK/NACK resource sets that is located completely within a first sub-slot of the plurality of sub-slots in the slot to use for providing feedback for the first data transmission and a second resource set of the ACK/NACK resource sets that is located completely in a second sub-slot of the plurality of sub-slots in the slot to use for providing feedback for the second data transmission, wherein the first resource set and the second resource set are each exclusive of each other in a time domain based at least in part on a configuration of the ACK/NACK resource sets or on the indication of the first and second resource sets; and transmitting the feedback for the first data transmission on the first resource set and the feedback for the second data transmission on the second resource set. identifying a configuration of acknowledgement/negative acknowledgement, ACK/NACK, resource sets across a plurality of sub-slots in a slot, the plurality of sub-slots associated with a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook; receiving a first data transmission in a first data channel from a base station and a second data transmission in a second data channel from the base station; receiving an indication of a first resource set of the ACK/NACK resource sets that is located completely within a first sub-slot of the plurality of sub-slots in the slot to use for providing feedback for the first data transmission and a second resource set of the ACK/NACK resource sets that is located completely in a second sub-slot of the plurality of sub-slots in the slot to use for providing feedback for the second data transmission, wherein the first resource set and the second resource set are each exclusive of each other in a time domain based at least in part on a configuration of the ACK/NACK resource sets or on the indication of the first and second resource sets; and transmitting the feedback for the first data transmission on the first resource set and the feedback for the second data transmission on the second resource set.
An in vitro method for culturing hematopoietic stem cells, said method comprising: (a) propagating hematopoietic stem cells in a cell culture medium comprising a pyrimidoindole derivative that has the ability to stimulate hematopoietic stem cell expansion; and (b) incubating said hematopoietic stem cells in said cell culture medium at an incubation temperature between 38°C and 40°C. (a) propagating hematopoietic stem cells in a cell culture medium comprising a pyrimidoindole derivative that has the ability to stimulate hematopoietic stem cell expansion; and (b) incubating said hematopoietic stem cells in said cell culture medium at an incubation temperature between 38°C and 40°C.
A lightning-dissipative aircraft (A/C) assembly configured to be installed on an A/C including an A/C electrical ground plane , the lightning-dissipative A/C assembly comprising: a base dielectric component ; a strike-susceptible metallic component coupled to the base dielectric component ; an electrically-conductive coating formed on one or more surfaces of the base dielectric component ; and a lightning strike dissipation path extending from the strike-susceptible metallic component , through the electrically-conductive coating , and to the A/C electrical ground plane when the lightning-dissipative A/C assembly is installed on the A/C, wherein the base dielectric component comprises: a valve frame having a peripheral flange ; and a plurality of fastener openings spaced around the peripheral flange anc located adjacent the electrically-conductive coating . a base dielectric component ; a strike-susceptible metallic component coupled to the base dielectric component ; an electrically-conductive coating formed on one or more surfaces of the base dielectric component ; and a lightning strike dissipation path extending from the strike-susceptible metallic component , through the electrically-conductive coating , and to the A/C electrical ground plane when the lightning-dissipative A/C assembly is installed on the A/C, a valve frame having a peripheral flange ; and a plurality of fastener openings spaced around the peripheral flange anc located adjacent the electrically-conductive coating .
Shutoff valve for use in a conduit of an air conditioning system or a mechanical smoke ventilation assembly, wherein the shutoff valve comprises a housing , preferably with a rectangular cross-section and through which a gaseous medium flows, with a housing wall and a flap panel which is mounted in the housing such as to pivot about a pivot axis , characterised in that, in order for the shutoff valve to be used in conjunction with a chemically corrosive gaseous medium, at least all the regions of the shutoff valve which are in contact with the medium flowing in the housing are configured such as to be resistant to damaging chemical reactions with this medium or caused by this medium, wherein the resistance is formed by a coating applied onto the regions which come in contact with the flowing medium.
A method of manufacturing an electrical isolation component for insertion between components of an aircraft structural assembly, comprising: overlaying an electrically-insulating outer ply comprising glass fibers on a core preform comprising reinforcing fibers and a thermoplastic matrix material , wherein said outer ply comprises an outer ply on a top surface of said core and an outer ply on a bottom surface of said core ; applying pressure to said outer ply and core preform , thereby causing consolidation of said reinforcing fibers and matrix material; removing said pressure to allow said thermoplastic material to harden, thereby forming a laminate structure from the outer ply and the consolidated reinforcing fibers and matrix material ; wherein said reinforcing fibers and said glass fibers are formed of different materials. overlaying an electrically-insulating outer ply comprising glass fibers on a core preform comprising reinforcing fibers and a thermoplastic matrix material , wherein said outer ply comprises an outer ply on a top surface of said core and an outer ply on a bottom surface of said core ; applying pressure to said outer ply and core preform , thereby causing consolidation of said reinforcing fibers and matrix material; removing said pressure to allow said thermoplastic material to harden, thereby forming a laminate structure from the outer ply and the consolidated reinforcing fibers and matrix material ; wherein said reinforcing fibers and said glass fibers are formed of different materials.