mhurhangee/patent-ind-claim-en huggingface dataset:
Supporting pole for apparatuses comprising: - at least one bearing base ; - at least one elongated cylindrical structure placed above the bearing base ; characterized in that it further comprises: - a plurality of brackets for fastening a respective apparatus to a corresponding one bracket , said apparatus being cameras, radio bridges, lamps, sound diffusers, TV cameras, electronic flag-type signboards, traffic lights or telecommunication apparatuses, each bracket being placed above said elongated cylindrical structure at an opposite end with respect to an end to which the bearing base is connected, each bracket being structurally built, in order to create an interruption on said pole at a height at which each of said apparatuses is fastened, each apparatus being screwed onto the corresponding one bracket in a perfect coupling, each of said brackets being designed to orient the corresponding one apparatus along a desired direction due to a regulation on the fastening of the bracket through slots with which the bracket is equipped; - a technical room, which contains the necessary devices for an operation of the various apparatuses , said technical room being placed in the base of the pole and being integrated therein; and - a system for connecting the various modules which allows keeping a ground connection inside the pole . - at least one bearing base ; - at least one elongated cylindrical structure placed above the bearing base ; - a plurality of brackets for fastening a respective apparatus to a corresponding one bracket , - a technical room, which contains the necessary devices for an operation of the various apparatuses , said technical room being placed in the base of the pole and being integrated therein; and - a system for connecting the various modules which allows keeping a ground connection inside the pole .
A film structure comprising at least a functional film , a carrier layer , and a counter-force liner , said functional film being in between said carrier layer and said counter-force liner in a predetermined receiving area, the carrier layer and the counter-force liner being larger than the functional film , and the counter-force liner being fastened to the carrier layer , directly or indirectly, at least on a portion of a zone outside the receiving area on at least two opposite sides of the receiving area, wherein the film structure comprises at least one of: - a carrier-side sliding layer that is positioned in between said carrier layer and said functional film , said carrier-side sliding layer being adapted to enable a positioning float of the functional film with regard to the carrier layer , and - a liner-side sliding layer adapted to enable a positioning float of the functional film with regard to the counter-force liner , the liner-side sliding layer being positioned in between said counter force liner and said functional film , either in contact with the counter-force liner or in contact with a layer fastened to the counter-force liner . - a carrier-side sliding layer that is positioned in between said carrier layer and said functional film , said carrier-side sliding layer being adapted to enable a positioning float of the functional film with regard to the carrier layer , and - a liner-side sliding layer adapted to enable a positioning float of the functional film with regard to the counter-force liner , the liner-side sliding layer being positioned in between said counter force liner and said functional film , either in contact with the counter-force liner or in contact with a layer fastened to the counter-force liner .
A modular heat exchange tower that extends vertically along a longitudinal axis, comprising: a first module comprising a first basin disposed therein; a second module that defines a plenum, wherein said second module comprises a outlet ; characterized in that the modular heat exchange tower comprises: a first flume in fluid communication with said outlet , wherein said flume extends inside the modular heat exchange tower from said second module to said first module ; a first suction hood disposed through said flume and positioned over the outlet , extending from the second module to the first module that provides a suction force in first basin ; a first heat exchange section; and an air current generator . a first module comprising a first basin disposed therein; a second module that defines a plenum, wherein said second module comprises a outlet ; characterized in that the modular heat exchange tower comprises: a first flume in fluid communication with said outlet , wherein said flume extends inside the modular heat exchange tower from said second module to said first module ; a first suction hood disposed through said flume and positioned over the outlet , extending from the second module to the first module that provides a suction force in first basin ; a first heat exchange section; and an air current generator . a first flume in fluid communication with said outlet , wherein said flume extends inside the modular heat exchange tower from said second module to said first module ; a first suction hood disposed through said flume and positioned over the outlet , extending from the second module to the first module that provides a suction force in first basin ; a first heat exchange section; and an air current generator .
Device for measuring the flow rate of a liquid circulating in a flow duct, from upstream to downstream, comprising: a shutoff member that is able to close/open said flow duct , a deformable membrane that closes off an opening formed through the wall of said flow duct and situated upstream of said shutoff member, and an electronic device comprising a detection means for detecting deformations of said deformable membrane , able to deliver deformation signals (Sd), a means for controlling said shutoff member , a means for taking readings of the values (Sd 1, Sd2) of at least two deformation signals, separated by a predetermined time interval (ΔT), established when the solenoid valve is closed, and a calculation means for calculating a liquid volume (V) on the basis of the read deformation signals (Sd1, Sd2) and for calculating a flow rate (D) on the basis of said calculated volume (V) and the predetermined time interval (ΔT) the device for measuring comprising a second shutoff member that is able to close/open said flow duct , such that said deformable membrane is situated between said shutoff member and this second shutoff member, and comprising a means for controlling this second shutoff member. a shutoff member that is able to close/open said flow duct , a deformable membrane that closes off an opening formed through the wall of said flow duct and situated upstream of said shutoff member, and an electronic device comprising a detection means for detecting deformations of said deformable membrane , able to deliver deformation signals (Sd), a means for controlling said shutoff member , a means for taking readings of the values (Sd 1, Sd2) of at least two deformation signals, separated by a predetermined time interval (ΔT), established when the solenoid valve is closed, and a calculation means for calculating a liquid volume (V) on the basis of the read deformation signals (Sd1, Sd2) and for calculating a flow rate (D) on the basis of said calculated volume (V) and the predetermined time interval (ΔT) the device for measuring comprising a second shutoff member that is able to close/open said flow duct , such that said deformable membrane is situated between said shutoff member and this second shutoff member, and comprising a means for controlling this second shutoff member.
A system for determining an energy requirement of a vehicle for a journey, the system adapted to: obtain journey data relating to the journey; and obtain vehicle data associated with the vehicle ; and the system comprising a predictor mechanism to predict, using an energy prediction algorithm, a vehicle energy requirement for the journey from the journey data and vehicle data; characterised in that the system comprises an updater mechanism configured to adjust the energy prediction algorithm for the vehicle by: determining for each of a number of historical journeys undertaken by the vehicle , an error between an actual vehicle energy usage for the historical journey and a predicted energy usage derived using the energy prediction algorithm for the historical journey from historical journey data and historical vehicle data, each historical journey of the number of historical journeys being associated with a respective error of a set of errors; determining an aggregate error from the set of errors; and adjusting the energy prediction algorithm to reduce the aggregate error. obtain journey data relating to the journey; and obtain vehicle data associated with the vehicle ; and the system comprising a predictor mechanism to predict, using an energy prediction algorithm, a vehicle energy requirement for the journey from the journey data and vehicle data; characterised in that the system comprises an updater mechanism configured to adjust the energy prediction algorithm for the vehicle by: determining for each of a number of historical journeys undertaken by the vehicle , an error between an actual vehicle energy usage for the historical journey and a predicted energy usage derived using the energy prediction algorithm for the historical journey from historical journey data and historical vehicle data, each historical journey of the number of historical journeys being associated with a respective error of a set of errors; determining an aggregate error from the set of errors; and adjusting the energy prediction algorithm to reduce the aggregate error. determining for each of a number of historical journeys undertaken by the vehicle , an error between an actual vehicle energy usage for the historical journey and a predicted energy usage derived using the energy prediction algorithm for the historical journey from historical journey data and historical vehicle data, each historical journey of the number of historical journeys being associated with a respective error of a set of errors; determining an aggregate error from the set of errors; and adjusting the energy prediction algorithm to reduce the aggregate error.
A method for connecting at least two structural parts of an orthopedic component , in which the structural parts are retained in an orienting device while oriented in relation to each other with an intermediate space thus being formed between the structural parts , wherein the orienting device and the structural parts together form a hollow space , which is fluidically connected to at least one feed connection and via which an adhesive for adhesively bonding the structural parts is introduced into the hollow space characterized in that the orienting device is not separated from the structural parts after the adhesive bonding.
An apparatus for collecting netflow data comprising: means for receiving a plurality of flow records from a network device, each flow record having at least a source IP address and a destination IP address; means for extracting data from the received flow records into a block data structure, wherein the block data structure includes a plurality of individual elements each storing extracted data from a respective flow record, and an index of the plurality of individual elements; characterised by means for sorting the individual elements in the block data structure by re-ordering the index of each of the plurality of individual elements; and means for processing the sorted block data structure as a data stream according to the sorted individual elements to identify a pattern of network usage based on a number of flow records indicating at least a same source IP address or destination IP address. means for receiving a plurality of flow records from a network device, each flow record having at least a source IP address and a destination IP address; means for extracting data from the received flow records into a block data structure, wherein the block data structure includes a plurality of individual elements each storing extracted data from a respective flow record, and an index of the plurality of individual elements; characterised by means for sorting the individual elements in the block data structure by re-ordering the index of each of the plurality of individual elements; and means for processing the sorted block data structure as a data stream according to the sorted individual elements to identify a pattern of network usage based on a number of flow records indicating at least a same source IP address or destination IP address.
A bio-electrochemical sensor for monitoring metabolic activity of a population of exo-electrogenic bacteria in response to one or more agents in oxygenated wastewater in a wastewater treatment system, the sensor comprising: at least one electrode pair comprising an anode and a cathode, the anode in electrical communication with the exo-electrogenic bacteria for receiving electrons therefrom, wherein the exo-electrogenic bacteria are formed into a multi-layered biofilm on the anode, said biofilm having a thickness of from about 0.2 mm to about 5.0 mm, and wherein the exo-electrogenic bacteria comprises one or more of Geobacter sulfurreducens, Geobacter metaloreducens, Pseudomonas aeruginosa and Shewanella putrefaciens; a current sensor for measuring electron flow between the anode and the cathode and producing an electrical output that correlates with metabolic activity of the exo-electrogenic bacteria; and a power source in electrical communication with the electrode pair for delivering a voltage across the electrode pair. at least one electrode pair comprising an anode and a cathode, the anode in electrical communication with the exo-electrogenic bacteria for receiving electrons therefrom, wherein the exo-electrogenic bacteria are formed into a multi-layered biofilm on the anode, said biofilm having a thickness of from about 0.2 mm to about 5.0 mm, and wherein the exo-electrogenic bacteria comprises one or more of Geobacter sulfurreducens, Geobacter metaloreducens, Pseudomonas aeruginosa and Shewanella putrefaciens; a current sensor for measuring electron flow between the anode and the cathode and producing an electrical output that correlates with metabolic activity of the exo-electrogenic bacteria; and a power source in electrical communication with the electrode pair for delivering a voltage across the electrode pair.
A gas turbine stator vane comprising: an airfoil , having a leading edge and a trailing edge ; an outer platform , connected to an outer end of the airfoil , and an inner platform , connected to an inner end of the airfoil , wherein the inner platform has a front edge and an aft edge at the leading edge and at the trailing edge of the airfoil , respectively and comprises: a stator aft sealing portion at the aft edge ; and at least one aft sealing rib (20; 20'; 20"), integral with the inner platform ; characterized in that the at least one aft sealing rib (20; 20'; 20") is delimited by adjacent aft grooves (21; 21") that extend parallel to each other all along the aft edge in the stator aft sealing portion , whereby in use the stator aft sealing portion contacts a respective adjacent rotor portion of a gas turbine rotor in response to thermal expansion only at the at least one aft sealing rib (20; 20'; 20"). an airfoil , having a leading edge and a trailing edge ; an outer platform , connected to an outer end of the airfoil , and an inner platform , connected to an inner end of the airfoil , wherein the inner platform has a front edge and an aft edge at the leading edge and at the trailing edge of the airfoil , respectively and comprises: a stator aft sealing portion at the aft edge ; and at least one aft sealing rib (20; 20'; 20"), integral with the inner platform ; characterized in that the at least one aft sealing rib (20; 20'; 20") is delimited by adjacent aft grooves (21; 21") that extend parallel to each other all along the aft edge in the stator aft sealing portion , whereby in use the stator aft sealing portion contacts a respective adjacent rotor portion of a gas turbine rotor in response to thermal expansion only at the at least one aft sealing rib (20; 20'; 20"). a stator aft sealing portion at the aft edge ; and at least one aft sealing rib (20; 20'; 20"), integral with the inner platform ; characterized in that the at least one aft sealing rib (20; 20'; 20") is delimited by adjacent aft grooves (21; 21") that extend parallel to each other all along the aft edge in the stator aft sealing portion , whereby in use the stator aft sealing portion contacts a respective adjacent rotor portion of a gas turbine rotor in response to thermal expansion only at the at least one aft sealing rib (20; 20'; 20").
Container for goods to be refrigerated (200; 600) for a refrigeration appliance with a base wall (214; 614), two side walls (206, 606; 208, 608), a rear wall (204; 604), which form a container carcass for goods to be refrigerated (202; 602), and a separate front wall (210; 610), which is formed by a plate-shaped, flat element, wherein the front wall (210; 610) has an inner side and an outer side (AS), which form mutually opposing main surfaces, characterised in that the container carcass for goods to be refrigerated (202; 602) has a plurality of supporting ribs (220, 222, 224; 620, 622, 624), and at least one first retaining protrusion (216; 616), which hold the front wall against the container carcass for goods to be refrigerated (202; 602) in a position for use, and the supporting ribs (220, 222, 224; 620, 622, 624) and the at least one first retaining protrusion rest against different main surfaces.
A blood purification apparatus that includes a blood circuit including an arterial blood circuit and a venous blood circuit and through which blood of a patient is allowed to extracorporeally circulate; a blood purification unit connected to and provided between the arterial blood circuit and the venous blood circuit and that purifies the blood flowing through the blood circuit; a blood pump provided to the arterial blood circuit and that delivers the blood of the patient from a distal end of the arterial blood circuit to a distal end of the venous blood circuit ; a substitution line (La, Lb) through which a substitution fluid is allowed to be introduced into the blood circuit; and an infusion portion attached to the substitution line (La, Lb) and from which a predetermined liquid drug to be administered to the patient is allowed to be infused into the substitution line (La, Lb), characterized in that the blood purification apparatus further comprises a control unit that executes a drug introduction mode in which the substitution fluid in the substitution line (La, Lb) is introduced into the blood circuit, the control unit causing the liquid drug infused from the infusion portion in the drug introduction mode to be introduced into the blood circuit together with the substitution fluid; and a calculation unit that calculates a volume of the substitution fluid introduced from the substitution line (La, Lb) into the blood circuit with the execution of the drug introduction mode. a blood circuit including an arterial blood circuit and a venous blood circuit and through which blood of a patient is allowed to extracorporeally circulate; a blood purification unit connected to and provided between the arterial blood circuit and the venous blood circuit and that purifies the blood flowing through the blood circuit; a blood pump provided to the arterial blood circuit and that delivers the blood of the patient from a distal end of the arterial blood circuit to a distal end of the venous blood circuit ; a substitution line (La, Lb) through which a substitution fluid is allowed to be introduced into the blood circuit; and an infusion portion attached to the substitution line (La, Lb) and from which a predetermined liquid drug to be administered to the patient is allowed to be infused into the substitution line (La, Lb), characterized in that the blood purification apparatus further comprises a control unit that executes a drug introduction mode in which the substitution fluid in the substitution line (La, Lb) is introduced into the blood circuit, the control unit causing the liquid drug infused from the infusion portion in the drug introduction mode to be introduced into the blood circuit together with the substitution fluid; and a calculation unit that calculates a volume of the substitution fluid introduced from the substitution line (La, Lb) into the blood circuit with the execution of the drug introduction mode.
A telescopic device comprising a first tubular element , an extension member displaceably arranged in an axial direction within the first tubular element , the extension member being a second tubular element, and a coupling member provided relatively displaceable to the extension member , between at least, - a first axial position wherein the extension member is displaceable within the first tubular element , and - a second axial position wherein the coupling member engages between the extension member and the first tubular element limiting displacement in at least one longitudinal direction, where the coupling member is adapted to engage the interior of the first tubular element , characterised in that the telescopic device is a telescopic intermittent urinary catheter. - a first axial position wherein the extension member is displaceable within the first tubular element , and - a second axial position wherein the coupling member engages between the extension member and the first tubular element limiting displacement in at least one longitudinal direction,
A sintering press to perform a sintering of electronic components on a substrate , comprising a pressing unit comprising a multi-rod cylinder having a front head and a rear head which jointly delimit a compression chamber , presser rods which are parallel and independent of each other being slidingly supported in said front head, each of the presser rods having a respective rod axis such that the barycenter of respective electronic components to be sintered can be positioned coincident with said respective axes, the presser rods further having respective thrust sections which are proportional to the force to be applied to the respective electronic component , the area of each electronic component to be sintered being known, and for a predetermined sintering pressure, wherein a sealing membrane extends in the compression chamber and hermetically divides the compression chamber into a rear chamber and a front chamber (26"), the rear chamber being in fluidic communication with an inlet passage for a fluid under pressure at the sintering pressure, the front chamber (26") being delimited by a substantially flat bottom wall from which the rear ends of the presser rods project, the projection of the rear ends of the presser rods with respect to the bottom wall of the front chamber (26") and the distance between the sealing membrane and said bottom wall being such that the sealing membrane is deformable between an inactive position in the absence of pressure in the compression chamber in which the sealing membrane is substantially flat and is positioned so as to skim the rear ends of the presser rods , and an active position when the rear chamber is pressurised at the sintering pressure in which the sealing membrane abuts both against the rear ends of the presser rods and against the bottom wall for transferring the sintering pressure to each presser rod mutually independently.