mhurhangee/patent-ind-claim-en huggingface dataset:
Reader (10; 30) for wirelessly receiving a signal (12; 12a-c) from a tag (20; 20a-c), the signal (12; 12a-c) comprising a portion on a first side , a portion on a second side and a synchronization sequence to be detected between the first and the second side, wherein the portion on the first side , the synchronization sequence and the portion on the second side are serially arranged to each other, the reader (10; 30) comprising: a processor configured for storing the received signal (12; 12a-c); for detecting the synchronization sequence in the received signal (12; 12a-c); for calculating a transmission characteristic (H) between the tag (20; 20a-c) and the reader (10; 30), using the portion of the received signal (12; 12a-c) on the first side ; and for extracting a payload information from the portion of the received signal (12; 12a-c) on the second side , using the calculated transmission characteristic (H). a processor configured for storing the received signal (12; 12a-c); for detecting the synchronization sequence in the received signal (12; 12a-c); for calculating a transmission characteristic (H) between the tag (20; 20a-c) and the reader (10; 30), using the portion of the received signal (12; 12a-c) on the first side ; and for extracting a payload information from the portion of the received signal (12; 12a-c) on the second side , using the calculated transmission characteristic (H).
System for planning a radiation therapy treatment of at least one structure in a region of a patient body, the system comprising a planning unit configured to: - obtain a first treatment plan generated on the basis of a planning image of the region of the patient body and on the basis of dose objectives with respect to the region of the patient body, the first treatment plan corresponding to a first dose distribution in the region of the patient body, - receive a further image of the region of the patient body, - determine a transformation for generating an adapted treatment plan from the first treatment plan and/or for generating an adapted dose distribution from the first dose distribution on the basis of the further image, and - determine an adapted treatment plan for controlling the radiation therapy treatment on the basis of the transformation and/or the adapted dose distribution, characterised in that the planning unit is configured to determine the transformation on the basis of the dose objectives. - obtain a first treatment plan generated on the basis of a planning image of the region of the patient body and on the basis of dose objectives with respect to the region of the patient body, the first treatment plan corresponding to a first dose distribution in the region of the patient body, - receive a further image of the region of the patient body, - determine a transformation for generating an adapted treatment plan from the first treatment plan and/or for generating an adapted dose distribution from the first dose distribution on the basis of the further image, and - determine an adapted treatment plan for controlling the radiation therapy treatment on the basis of the transformation and/or the adapted dose distribution, characterised in that the planning unit is configured to determine the transformation on the basis of the dose objectives.
Method for regenerating a particulate filter in an exhaust gas system of an internal combustion engine , wherein the particulate filter is regenerated in an overrun phase of the internal combustion engine , the method comprising the following steps: - determining a load state of the particulate filter , - heating the particulate filter to a regeneration temperature (T reg ), wherein the temperature of the particulate filter is determined by a highly dynamic measurement at a plurality of measuring points of the particulate filter - calculating an amount of oxygen required for regenerating the particulate filter , - adjusting the amount of overrun air to the amount of oxygen necessary for regenerating the particulate filter , - increasing the amount of overrun air by opening the throttle valve when the particulate filter reaches a lower threshold temperature (Tsu) in the range of 550°C - 600°C, wherein - the throttle valve is opened in the overrun mode to such an extent that a maximum soot conversion on the particulate filter is achieved, and - decreasing the amount of overrun air by closing the throttle valve when the particulate filter reaches an upper threshold temperature (Tso) in the range of 800° - 900°. - determining a load state of the particulate filter , - heating the particulate filter to a regeneration temperature (T reg ), wherein the temperature of the particulate filter is determined by a highly dynamic measurement at a plurality of measuring points of the particulate filter - calculating an amount of oxygen required for regenerating the particulate filter , - adjusting the amount of overrun air to the amount of oxygen necessary for regenerating the particulate filter , - increasing the amount of overrun air by opening the throttle valve when the particulate filter reaches a lower threshold temperature (Tsu) in the range of 550°C - 600°C, wherein - the throttle valve is opened in the overrun mode to such an extent that a maximum soot conversion on the particulate filter is achieved, and - decreasing the amount of overrun air by closing the throttle valve when the particulate filter reaches an upper threshold temperature (Tso) in the range of 800° - 900°.
Method for controlling the volume flow of a fan driven by a rotational speed variable drive motor, comprising the steps a. Determination of a volume flow (q V ) conveyed by a fan, said volume flow (q V ) being dependent on a fan wheel rotational speed (n V ), wherein an impeller wheel driven by the volume flow of the fan is arranged in a blow-out section of the fan, wherein the rotational speed (n F ) of said impeller wheel is detected and serves as a reference value of the volume flow (q V ) of the fan, b. Detection of at least one fan parameter, wherein the at least one fan parameter is the fan wheel rotational speed (n V ), c. Definition of a correction function (f) for the volume flow (q V ) as a function of the rotational speed (n F ) of the impeller wheel and the fan wheel rotational speed (n V ), so that q V = f (n F , n V ) applies, wherein a calculation of the volume flow (qV) using the correction function (f) is carried out for determining the volume flow (q V ), d. Adjustment of the fan wheel rotational speed (n V ) by the drive motor to adjust the calculated volume flow (q V ) to a fixed target value of volume flow (q V -soll). a. Determination of a volume flow (q V ) conveyed by a fan, said volume flow (q V ) being dependent on a fan wheel rotational speed (n V ), wherein an impeller wheel driven by the volume flow of the fan is arranged in a blow-out section of the fan, wherein the rotational speed (n F ) of said impeller wheel is detected and serves as a reference value of the volume flow (q V ) of the fan, b. Detection of at least one fan parameter, wherein the at least one fan parameter is the fan wheel rotational speed (n V ), c. Definition of a correction function (f) for the volume flow (q V ) as a function of the rotational speed (n F ) of the impeller wheel and the fan wheel rotational speed (n V ), so that q V = f (n F , n V ) applies, wherein a calculation of the volume flow (qV) using the correction function (f) is carried out for determining the volume flow (q V ), d. Adjustment of the fan wheel rotational speed (n V ) by the drive motor to adjust the calculated volume flow (q V ) to a fixed target value of volume flow (q V -soll).
A system for increasing blood flow through a user's limb during a blood collection procedure comprising: a. an inflatable cuff configured to be worm around the user's limb b. a pump in fluid communication with the inflatable cuff; c. a deflation valve in fluid communication with the inflatable cuff; d. a heating element attached to the inflatable cuff; e. a motion sensor ; f. a temperature sensor attached to the inflatable cuff g. a controller in communication with the pump, the deflation valve, the heating element and the temperature and motion sensors, said controller configured to detect a blood pressure or blood flow of the user, control inflation and deflation of the inflatable cuff and control energization of the heating element based on data from the motion sensor and the temperature sensor. a. an inflatable cuff configured to be worm around the user's limb b. a pump in fluid communication with the inflatable cuff; c. a deflation valve in fluid communication with the inflatable cuff; d. a heating element attached to the inflatable cuff; e. a motion sensor ; f. a temperature sensor attached to the inflatable cuff g. a controller in communication with the pump, the deflation valve, the heating element and the temperature and motion sensors, said controller configured to detect a blood pressure or blood flow of the user, control inflation and deflation of the inflatable cuff and control energization of the heating element based on data from the motion sensor and the temperature sensor.
Lifting apparatus for a lifting crane , adapted to carry an elongated component having a non-circular cross section extending over the major part of its length, especially a rotor blade of a wind turbine , comprising a frame with at least one holding means for holding the component with an essentially horizontal orientation, whereby a pitching system for pitching the component around its longitudinal axis is provided; and characterized in that the or each holding means comprises a C-shaped holding part with holding elements for engaging the component, which holding part is movable along an arched guide means .
A sensor system (1; 1'; 1") for determining a flow rate of a fluid flow (6; 7) within a fluid channel (2; 2'; 2"), with the fluid channel (2; 2'; 2"), preferably in the form of a fluid tube, the fluid channel (2; 2'; 2") comprising an elastic segment (22, 22', 22") arranged next to at least one rigid segment , at least a first pair of electrodes , the electrodes of the first pair of electrodes being arranged opposing each other, at least a second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42") provided at said elastic segment (22, 22', 22") of the fluid channel (2; 2'; 2"), with the electrodes (41, 42; 41', 42'; 41", 42") of the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42") being arranged opposing each other, and a sensor unit for detecting a capacitance of the first pair of electrodes and the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42"), characterized in that said first pair of electrodes is provided at said rigid segment of the fluid channel (2; 2'; 2"), with the first pair of electrodes being in contact with said rigid segment of the fluid channel (2; 2'; 2"), and wherein the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41 ", 42") is in contact with said elastic segment (22, 22', 22") of the fluid channel (2; 2'; 2"), and the sensor system (1; 1'; 1") further comprises a processing unit for calculating and monitoring a distance (d 2nd ; d' 2nd ; d" 2nd ) between the electrodes (41, 42; 41', 42'; 41", 42") of the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42") based on the detected capacitance of the first pair of electrodes and the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42"). at least a first pair of electrodes , the electrodes of the first pair of electrodes being arranged opposing each other, at least a second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42") provided at said elastic segment (22, 22', 22") of the fluid channel (2; 2'; 2"), with the electrodes (41, 42; 41', 42'; 41", 42") of the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42") being arranged opposing each other, and a sensor unit for detecting a capacitance of the first pair of electrodes and the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42"), characterized in that said first pair of electrodes is provided at said rigid segment of the fluid channel (2; 2'; 2"), with the first pair of electrodes being in contact with said rigid segment of the fluid channel (2; 2'; 2"), and wherein the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41 ", 42") is in contact with said elastic segment (22, 22', 22") of the fluid channel (2; 2'; 2"), and the sensor system (1; 1'; 1") further comprises a processing unit for calculating and monitoring a distance (d 2nd ; d' 2nd ; d" 2nd ) between the electrodes (41, 42; 41', 42'; 41", 42") of the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42") based on the detected capacitance of the first pair of electrodes and the second pair (4; 4'; 4") of electrodes (41, 42; 41', 42'; 41", 42").
A session management method, comprising: receiving (S201), by a first control plane network element, a user equipment, UE, context response message from a second control plane network element, wherein the UE context response message carries a first session message, wherein the first control plane network element is a target control plane network element newly connected to the UE in idle state after a control plane connection changes and the second control plane network element is a source control plane network element connected to the UE before the control plane connection changes; and sending (S202), by the first control plane network element, a second session message to the UE in idle state according to the UE context response message, characterized in that the first session message is a pending session message, the pending session message carrying pending session information that needs to be synchronized to the UE, and the second session message containing the pending session information. receiving (S201), by a first control plane network element, a user equipment, UE, context response message from a second control plane network element, wherein the UE context response message carries a first session message, wherein the first control plane network element is a target control plane network element newly connected to the UE in idle state after a control plane connection changes and the second control plane network element is a source control plane network element connected to the UE before the control plane connection changes; and sending (S202), by the first control plane network element, a second session message to the UE in idle state according to the UE context response message, characterized in that the first session message is a pending session message, the pending session message carrying pending session information that needs to be synchronized to the UE, and the second session message containing the pending session information.
An unsaturated polyester resin composition comprising: - a (meth)acrylate compound; and, - a polyester formed from at least: - reagent a) comprising itaconic acid and/or itaconic anhydride; - reagent b) comprising maleic acid, maleic anhydride, and/or fumaric acid; - reagent c) comprising dicyclopentadiene (DCPD); and, - reagent d) comprising at least one di- or poly-functional alcohol; wherein the combined weight of reagent a) is at least 10 wt.%, preferably at least 20 wt.%, of the total weight of di-acids and anhydrides used in the unsaturated polyester resin composition. - a (meth)acrylate compound; and, - a polyester formed from at least: - reagent a) comprising itaconic acid and/or itaconic anhydride; - reagent b) comprising maleic acid, maleic anhydride, and/or fumaric acid; - reagent c) comprising dicyclopentadiene (DCPD); and, - reagent d) comprising at least one di- or poly-functional alcohol; - reagent a) comprising itaconic acid and/or itaconic anhydride; - reagent b) comprising maleic acid, maleic anhydride, and/or fumaric acid; - reagent c) comprising dicyclopentadiene (DCPD); and, - reagent d) comprising at least one di- or poly-functional alcohol;
Routing method for routing power line communication (PLC) in a residential site equipped with a plurality of electrical equipments (T2-T4, Ti) able to communicate over a plurality of electrical subnetworks (CP2-CP4) through power line communication, each subnetwork corresponding to a part of the electrical network of the residential site that is electrically isolated from the other subnetworks, said method comprising the following steps for at least one subnetwork: - initializing (E0, E'0) an association data structure (BC) associating said subnetwork (CP2-CP4) with an identifier (MAC) of at least one first electrical equipment (Tl); - obtaining (E1, E10) a communication request containing an identifier of a second electrical equipment (T2); - obtaining the association data structure (BC) from the subnetwork; - comparing the obtained identifier of the second electrical equipment with the identifier of said at least one first electrical equipment associated with the subnetwork; - on the basis of the results of the comparison, commanding activation (E6) of the subnetwork. - initializing (E0, E'0) an association data structure (BC) associating said subnetwork (CP2-CP4) with an identifier (MAC) of at least one first electrical equipment (Tl); - obtaining (E1, E10) a communication request containing an identifier of a second electrical equipment (T2); - obtaining the association data structure (BC) from the subnetwork; - comparing the obtained identifier of the second electrical equipment with the identifier of said at least one first electrical equipment associated with the subnetwork; - on the basis of the results of the comparison, commanding activation (E6) of the subnetwork.
A lighting element with suspension system, comprising: - a lighting element to be suspended, comprising two receptacles in the form of grooves which extend in parallel at a top side and the openings of which are directed towards each other and which are designed to engage a suspension system ; - at least one suspension system comprising two substantially identical angle elements , each comprising a sheet which is bent at a right angle and has a bending edge dividing the angle element into two segments , wherein one segment each of the angle elements is provided with a hole and the bending edge is provided on a part of its length with a slot extending from one end of the bending edge , and wherein the angle elements can be pushed into each other by means of the slots so as to rotate 180 degrees in relation to each other in such a way that the two holes coincide and together form a continuous opening, and the respective other hole-free segments of the angle elements together form a base surface which is designed to engage with opposite edges in the grooves of the lighting element to be suspended. - a lighting element to be suspended, comprising two receptacles in the form of grooves which extend in parallel at a top side and the openings of which are directed towards each other and which are designed to engage a suspension system ; - at least one suspension system comprising two substantially identical angle elements , each comprising a sheet which is bent at a right angle and has a bending edge dividing the angle element into two segments ,
A component assembly comprising: a ceramic part ; a metal part comprised of a noble metal; and a titanium-nickel interlayer material disposed between and in contact with a surface of the ceramic part and a surface of the metal part wherein the ceramic part and the metal part are bonded together by means of said titanium-nickel interlayer material, characterised in that said titanium-nickel interlayer material is formed from either (i) a laminate foil having at least one layer of nickel and one layer of titanium, (ii) separate beads of titanium and nickel, or (iii) a coating comprising layers of nickel and titanium. a ceramic part ; a metal part comprised of a noble metal; and a titanium-nickel interlayer material disposed between and in contact with a surface of the ceramic part and a surface of the metal part wherein the ceramic part and the metal part are bonded together by means of said titanium-nickel interlayer material, characterised in that said titanium-nickel interlayer material is formed from either (i) a laminate foil having at least one layer of nickel and one layer of titanium, (ii) separate beads of titanium and nickel, or (iii) a coating comprising layers of nickel and titanium. (i) a laminate foil having at least one layer of nickel and one layer of titanium, (ii) separate beads of titanium and nickel, or (iii) a coating comprising layers of nickel and titanium.
A device arranged to be submerged in a water mass, the device comprising: an antenna dipole having first and second electrodes , the device being operable for disposing the antenna dipole such that the first electrode is placed approximately vertically above and at a distance from the second electrode in an operative position, characterized in that the device further comprises: a stand ; and a mast which is pivotally secured, in a portion distant from a lower end portion of the mast in said operative position, to the stand , where either: the first electrode and the second electrode are mounted on the mast , the first electrode being arranged near, in or on an upper end portion of the mast , and the second electrode being arranged near, in or on the lower end portion of the mast ; or the first electrode is mounted on the stand and the second electrode is mounted on the mast , the second electrode being arranged in the lower end portion of the mast ; wherein the mast and/or the stand includes means which are arranged to keep the mast in a prescribed orientation for placing the first electrode approximately vertically above and at a distance from the second electrode ; and the mast and stand are formed substantially of non-magnetic materials. a stand ; and a mast which is pivotally secured, in a portion distant from a lower end portion of the mast in said operative position, to the stand , where either: the first electrode and the second electrode are mounted on the mast , the first electrode being arranged near, in or on an upper end portion of the mast , and the second electrode being arranged near, in or on the lower end portion of the mast ; or the first electrode is mounted on the stand and the second electrode is mounted on the mast , the second electrode being arranged in the lower end portion of the mast ; the first electrode and the second electrode are mounted on the mast , the first electrode being arranged near, in or on an upper end portion of the mast , and the second electrode being arranged near, in or on the lower end portion of the mast ; or the first electrode is mounted on the stand and the second electrode is mounted on the mast , the second electrode being arranged in the lower end portion of the mast ; wherein the mast and/or the stand includes means which are arranged to keep the mast in a prescribed orientation for placing the first electrode approximately vertically above and at a distance from the second electrode ; and the mast and stand are formed substantially of non-magnetic materials.
A method of identifying a subject person by comparing at least biometric data of the subject person with biometric data of at least one physical characteristic of reference people previously recorded in a database , the method being characterized in that the comparison of the biometric data of the subject person with the data of each reference person is performed, for each physical characteristic, by means of a first algorithm or of a second algorithm presenting different performance ratings, the first algorithm being faster but less reliable than the second algorithm, and in that , for each reference person, the comparison algorithm is selected on the basis of at least one selection criterion specific to each reference person, the selection criterion corresponding to a quality level associated with the biometric data of each reference person, the quality level being compared with a predetermined threshold, the first algorithm or the second algorithm being selected from the result of the comparison.