mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic diagnostic imaging system for identifying a fetal heartbeat, the system comprising: an ultrasound probe including an array transducer; an image processor adapted to process echo data from the probe for display; an image display coupled to the image processor and adapted to display an ultrasound image including a fetal heart; and a graphics generator responsive to a user control that identifies a region of interest (ROI) in the ultrasound image;, wherein the imaging system is adapted to initiate generation of a plurality of spatially different M-mode lines associated with the region of interest and to acquire echo data corresponding to the spatially different M-mode lines and analyze the echo data to identify the fetal heartbeat associated with at least one of the spatially different M-mode lines, characterized in that the system is further adapted to rank the acquired echo data based on fetal heart rates measured for each of the corresponding M-mode lines. an ultrasound probe including an array transducer; an image processor adapted to process echo data from the probe for display; an image display coupled to the image processor and adapted to display an ultrasound image including a fetal heart; and a graphics generator responsive to a user control that identifies a region of interest (ROI) in the ultrasound image;, wherein the imaging system is adapted to initiate generation of a plurality of spatially different M-mode lines associated with the region of interest and to acquire echo data corresponding to the spatially different M-mode lines and analyze the echo data to identify the fetal heartbeat associated with at least one of the spatially different M-mode lines, characterized in that the system is further adapted to rank the acquired echo data based on fetal heart rates measured for each of the corresponding M-mode lines.
A laundry washing machine comprising: - a casing supporting a washing tub external to a washing drum suitable to receive the laundry to be washed; - a detergent supply system (5; 35; 55; 65; 105) comprising a mixing chamber (6; 56; 86; 106) and an inlet water line to supply clean water (W) into said mixing chamber (6; 56; 86; 106), said inlet water line comprising at least one supply pipe connected to an external water supply line provided with a input controlled valve , said mixing chamber (6; 56; 86; 106) being suitable to receive detergent (D) and said water (W) and comprising a mixing device (20; 40; 100) suitable to mix said detergent (D) and said water (W) in said mixing chamber (6; 56; 86; 106) to form a washing solution (S), wherein said mixing chamber (6; 56; 86; 106) and said mixing device (20; 40; 100) are disposed inside said casing and said mixing chamber (6; 56; 86; 106) comprises an inlet (7; 57; 87; 107) accessible from outside of the casing for the insertion of said detergent (D) and an outlet (14; 94) for delivering said washing solution (S) in said washing tub , said mixing device (20; 100) comprises a recirculating device (20; 100) including a recirculating circuit (22, 23; 102; 103) with a recirculating pump (21; 101), an inlet connecting line (22; 102) connecting the recirculation pump (21; 101) to the mixing chamber (6; 56; 86; 106), and an outlet connecting line (23; 103) connecting the recirculation pump (21; 101) to the mixing chamber (6; 56; 86; 106), wherein said mixing chamber (56; 106) is slidable with respect to said casing . - a casing supporting a washing tub external to a washing drum suitable to receive the laundry to be washed; - a detergent supply system (5; 35; 55; 65; 105) comprising a mixing chamber (6; 56; 86; 106) and an inlet water line to supply clean water (W) into said mixing chamber (6; 56; 86; 106), said inlet water line comprising at least one supply pipe connected to an external water supply line provided with a input controlled valve , said mixing chamber (6; 56; 86; 106) being suitable to receive detergent (D) and said water (W) and comprising a mixing device (20; 40; 100) suitable to mix said detergent (D) and said water (W) in said mixing chamber (6; 56; 86; 106) to form a washing solution (S), wherein said mixing chamber (6; 56; 86; 106) and said mixing device (20; 40; 100) are disposed inside said casing and said mixing chamber (6; 56; 86; 106) comprises an inlet (7; 57; 87; 107) accessible from outside of the casing for the insertion of said detergent (D) and an outlet (14; 94) for delivering said washing solution (S) in said washing tub , said mixing device (20; 100) comprises a recirculating device (20; 100) including a recirculating circuit (22, 23; 102; 103) with a recirculating pump (21; 101), an inlet connecting line (22; 102) connecting the recirculation pump (21; 101) to the mixing chamber (6; 56; 86; 106), and an outlet connecting line (23; 103) connecting the recirculation pump (21; 101) to the mixing chamber (6; 56; 86; 106), wherein said mixing chamber (56; 106) is slidable with respect to said casing .
A method performed by a master base station of a user equipment operating in a dual connectivity network and configured to communicate with both said master base station and a secondary base station, the method comprising: receiving configuration information for radio resource control of a connection between said user equipment and said secondary base station; maintaining said configuration information for use in response to a change to said connection between said user equipment and said secondary base station; calculating a change to said configuration information as a result of said change to said connection; and informing said user equipment of said change to said configuration information. receiving configuration information for radio resource control of a connection between said user equipment and said secondary base station; maintaining said configuration information for use in response to a change to said connection between said user equipment and said secondary base station; calculating a change to said configuration information as a result of said change to said connection; and informing said user equipment of said change to said configuration information.
A method of welding components along a welding joint , the method comprising: (a) causing by a controller a first manipulator to manipulate a joint detection device along a predetermined welding trajectory ; (b) detecting by the joint detection device welding joint characteristics; (c) determining by the controller a corrected trajectory based on the predetermined trajectory and on the detected welding joint characteristics; characterized in that in step (b) the joint detection device detects said welding joint characteristics by means of a camera combined with a recognition software, and the method further comprises: (d) causing by the controller the first manipulator to manipulate a first welding device of the high energy welding type, such as laser, plasma or electron beam types along a first corrected trajectory after a first time delay determined by the controller as a function of the corrected trajectory and a distance between the joint detection device and the first welding device ; and (e) causing by the controller a second manipulator to manipulate a second welding device of an electrode type along a second corrected trajectory after a second time delay determined by the controller as a function of the corrected trajectory and a distance between the joint detection device and the second welding device or as a function of the corrected trajectory and a distance between the first welding device and the second welding device ; wherein the first welding device melts a material of the components to be welded along the welding joint , and the second welding device adds filler material to the weld pool created between the components to be welded . (a) causing by a controller a first manipulator to manipulate a joint detection device along a predetermined welding trajectory ; (b) detecting by the joint detection device welding joint characteristics; (c) determining by the controller a corrected trajectory based on the predetermined trajectory and on the detected welding joint characteristics; (d) causing by the controller the first manipulator to manipulate a first welding device of the high energy welding type, such as laser, plasma or electron beam types along a first corrected trajectory after a first time delay determined by the controller as a function of the corrected trajectory and a distance between the joint detection device and the first welding device ; and (e) causing by the controller a second manipulator to manipulate a second welding device of an electrode type along a second corrected trajectory after a second time delay determined by the controller as a function of the corrected trajectory and a distance between the joint detection device and the second welding device or as a function of the corrected trajectory and a distance between the first welding device and the second welding device ;
A method comprising: receiving, by a session management function, SMF, from a network exposure function, NEF, a request message for a delivery of a trigger to a wireless device , the request message comprising: a trigger payload comprising information , for an application on the wireless device, indicating a request to establish a packet data unit, PDU, session; and a trigger indication identifying that the request message carries the trigger payload; sending, by the SMF to the wireless device, a non-access stratum, NAS, message comprising: the trigger indication; and the trigger payload; receiving, by the SMF from the wireless device via an access and mobility management function, AMF, a session establishment request for establishing the PDU session for the application based on the trigger payload; and sending, by the SMF to the NEF, a connection request for establishing the PDU session for the application. receiving, by a session management function, SMF, from a network exposure function, NEF, a request message for a delivery of a trigger to a wireless device , the request message comprising: a trigger payload comprising information , for an application on the wireless device, indicating a request to establish a packet data unit, PDU, session; and a trigger indication identifying that the request message carries the trigger payload; a trigger payload comprising information , for an application on the wireless device, indicating a request to establish a packet data unit, PDU, session; and a trigger indication identifying that the request message carries the trigger payload; sending, by the SMF to the wireless device, a non-access stratum, NAS, message comprising: the trigger indication; and the trigger payload; the trigger indication; and the trigger payload; receiving, by the SMF from the wireless device via an access and mobility management function, AMF, a session establishment request for establishing the PDU session for the application based on the trigger payload; and sending, by the SMF to the NEF, a connection request for establishing the PDU session for the application.
A cryogenic storage system comprising: at least one vault configured to store a plurality of samples in at least a first cryogenic environment; and a sample handling module configured to transfer automatically an individual sample of the plurality of samples between the first cryogenic environment and a second cryogenic environment; characterized in that , during the transfer, the sample handling module is further configured to 1) move the individual sample through a non-cryogenic environment, and 2) maintain the individual sample below a glass transition temperature of the individual sample by moving quickly the individual sample through the non-cryogenic environment before the non-cryogenic environment raises the temperature of the individual sample above the glass transition temperature. at least one vault configured to store a plurality of samples in at least a first cryogenic environment; and a sample handling module configured to transfer automatically an individual sample of the plurality of samples between the first cryogenic environment and a second cryogenic environment; characterized in that , during the transfer, the sample handling module is further configured to 1) move the individual sample through a non-cryogenic environment, and 2) maintain the individual sample below a glass transition temperature of the individual sample by moving quickly the individual sample through the non-cryogenic environment before the non-cryogenic environment raises the temperature of the individual sample above the glass transition temperature.
Furniture hinge with at least one control cam and at least one spring , wherein the spring is formed as a leg spring and has a circular cross-section at least in some areas, wherein the control cam moves along on the spring in order to produce a closing force and/or opening force, characterized in that a sliding element , on which the control cam moves along, is attached to the spring , wherein the sliding element has a substantially cylindrical cavity, which corresponds with the spring , wherein the sliding element has an outer contour differing from the cylinder shape.
The use of a polymer dispersion for producing sound deadener compositions, the polymer dispersion comprising at least one polymer obtainable by emulsion polymerization of radically polymerizable monomers, and the polymer having alkyleneimine side chains, the alkyleneimine side chains having one or more alkyleneimine units.
A rotorcraft comprising: a fuselage ; a tailboom extending from the fuselage , the tailboom having an aft portion; a power system including a generator , one or more batteries (528; 570) and one or more dedicated yaw control system batteries ; and an electrically distributed yaw control system comprising: a shroud coupled to the aft portion of the tailboom and forming a plurality of ducts ; a plurality of tail rotors each disposed in one of the ducts , each of the tail rotors including an electric motor ; and a power distribution unit comprising: a power management monitoring module configured to monitor one or more flight parameters of the rotorcraft ; and a power management command module configured to allocate power between the power system and the tail rotor motors based on the one or more flight parameters of the rotorcraft ; wherein, the one or more dedicated yaw control system batteries provide power to only the tail rotor motors . a fuselage ; a tailboom extending from the fuselage , the tailboom having an aft portion; a power system including a generator , one or more batteries (528; 570) and one or more dedicated yaw control system batteries ; and an electrically distributed yaw control system comprising: a shroud coupled to the aft portion of the tailboom and forming a plurality of ducts ; a plurality of tail rotors each disposed in one of the ducts , each of the tail rotors including an electric motor ; and a power distribution unit comprising: a power management monitoring module configured to monitor one or more flight parameters of the rotorcraft ; and a power management command module configured to allocate power between the power system and the tail rotor motors based on the one or more flight parameters of the rotorcraft ; a shroud coupled to the aft portion of the tailboom and forming a plurality of ducts ; a plurality of tail rotors each disposed in one of the ducts , each of the tail rotors including an electric motor ; and a power distribution unit comprising: a power management monitoring module configured to monitor one or more flight parameters of the rotorcraft ; and a power management command module configured to allocate power between the power system and the tail rotor motors based on the one or more flight parameters of the rotorcraft ; a power management monitoring module configured to monitor one or more flight parameters of the rotorcraft ; and a power management command module configured to allocate power between the power system and the tail rotor motors based on the one or more flight parameters of the rotorcraft ; wherein, the one or more dedicated yaw control system batteries provide power to only the tail rotor motors .
Equipment for playing basketball, comprising a base intended to be disposed bearing on the ground and a post having an upper section carrying a board on which a basketball hoop is mounted, said post having a lower section which is rotatably mounted on said base so as to be able to dispose said post reversibly between a stowed storage configuration against the base and an upright use configuration, the board being mounted on the upper section through a rotational mechanism between an angular use position and an angular storage position, said equipment being characterised in that the mechanism comprises a subplate for joining together the upper end of the upper section , said subplate comprising an extension linked to the board through a friction pivot, the use position of said board being delimited by the abutment of said subplate on a member secured to the board.
A urinary catheter assembly comprising a first outer package of a first material, the first material having a first water vapour transmission rate (WVTR) measured according to ASTM F1249 at 90 % RH and 38°C between 1 g/(m 2 ·24h) and 6 g/(m 2 ·24h), the first outer package contains a second inner package of a second material, the second material having a second water vapour transmission rate (WVTR) at 65% RH and 30°C below 3 g/(m 2 ·24h) said second water vapour transmission rate (WVTR) measured according to test method A, which comprises enclosing an amount of liquid in a test-package made of a test-material and leaving this test-package in a conditioned environment at 30°C and at a difference between absolute RH value on either side of the test-material of 65% until the water vapour transmission per 24 h is steady; an intermediate cavity defined as an area inside the first outer package and outside the second inner package , the second inner package defining an enclosure , the enclosure containing an intermittent urinary catheter with a hydrophilic coating, and a swelling medium.
An electrically conductive film comprising: a compound represented by Chemical Formula 1 and having a layered crystal structure: Chemical Formula 1 MeCh 2 wherein Me is Ru, Os, Re, Rh, Ir, Pd, Pt, Cu, Ag, or Au, and Ch is sulfur, selenium, tellurium, or a combination thereof; wherein the electrically conductive film has a thickness of less than or equal to 50 nanometers; wherein a product of α and ρ is less than or equal to 30 ohms per square, wherein α is an absorption coefficient of the compound for light having a wavelength of 550 nm and ρ is a resistivity value of the compound; and wherein the electrically conductive film comprises a plurality of nanosheets comprising the compound of Chemical Formula 1. a compound represented by Chemical Formula 1 and having a layered crystal structure: Chemical Formula 1 MeCh 2 wherein Me is Ru, Os, Re, Rh, Ir, Pd, Pt, Cu, Ag, or Au, and Ch is sulfur, selenium, tellurium, or a combination thereof; wherein the electrically conductive film has a thickness of less than or equal to 50 nanometers; wherein a product of α and ρ is less than or equal to 30 ohms per square, wherein α is an absorption coefficient of the compound for light having a wavelength of 550 nm and ρ is a resistivity value of the compound; and wherein the electrically conductive film comprises a plurality of nanosheets comprising the compound of Chemical Formula 1.
Control system for a micro-motor for dental or surgical use comprising a control box provided with an adjustment knob , mounted in a way rotatable about a rotational axis (A-A), characterized in that the said adjustment knob is made up of a control support rotatable about the said rotational axis (A-A) and integral with an encoder integrated in the said box , and a sterilizable button coupled in a removable way to the said control support , wherein the removable coupling is achieved through friction, through a snap-on connection, or magnetically.
A multilayer electrode comprising: a current collector; a first electrode mixture layer, which is disposed on at least one surface of the current collector and comprises an active material, a conductive material and a binder; and a second electrode mixture layer, which is disposed on the first electrode mixture layer and comprises an active material, a conductive material and a binder, wherein the electrode is at least one selected from a positive electrode or a negative electrode, wherein a porosity of the conductive material contained in the second electrode mixture layer is greater than a porosity of the conductive material contained in the first electrode mixture layer, and wherein a content of the conductive material contained in the second electrode mixture layer is more than 0.5 wt% to less than 5 wt% of a total active material content of the first and second electrode mixture layers. a current collector; a first electrode mixture layer, which is disposed on at least one surface of the current collector and comprises an active material, a conductive material and a binder; and a second electrode mixture layer, which is disposed on the first electrode mixture layer and comprises an active material, a conductive material and a binder, wherein the electrode is at least one selected from a positive electrode or a negative electrode, wherein a porosity of the conductive material contained in the second electrode mixture layer is greater than a porosity of the conductive material contained in the first electrode mixture layer, and wherein a content of the conductive material contained in the second electrode mixture layer is more than 0.5 wt% to less than 5 wt% of a total active material content of the first and second electrode mixture layers.