mhurhangee/patent-ind-claim-en huggingface dataset:
A system for determining a mass of a quantity of fluid, the system comprising: a vessel having a determinable size, the vessel containing the quantity of fluid ; a first acoustic sensor and a second acoustic sensor , wherein the second acoustic sensor is located along a bottom wall of the vessel , wherein the second acoustic sensor measures a fill level of the fluid in the vessel ; a temperature sensor measures a temperature of the fluid within the vessel ; characterized in that : the first acoustic sensor is located along a wall of the vessel , wherein a fluid identity of the fluid is determined by the first acoustic sensor ; and a computerized device in communication with the first and second acoustic sensors and the temperature sensor , wherein a processor of the computerized device calculates a density of the fluid using the temperature and the fluid identity of the fluid and a mass of the quantity of fluid using a determined size of the vessel , the determined fill level, and the fluid density. a vessel having a determinable size, the vessel containing the quantity of fluid ; a first acoustic sensor and a second acoustic sensor , wherein the second acoustic sensor is located along a bottom wall of the vessel , wherein the second acoustic sensor measures a fill level of the fluid in the vessel ; a temperature sensor measures a temperature of the fluid within the vessel ; characterized in that : the first acoustic sensor is located along a wall of the vessel , wherein a fluid identity of the fluid is determined by the first acoustic sensor ; and a computerized device in communication with the first and second acoustic sensors and the temperature sensor , wherein a processor of the computerized device calculates a density of the fluid using the temperature and the fluid identity of the fluid and a mass of the quantity of fluid using a determined size of the vessel , the determined fill level, and the fluid density. the first acoustic sensor is located along a wall of the vessel , wherein a fluid identity of the fluid is determined by the first acoustic sensor ; and a computerized device in communication with the first and second acoustic sensors and the temperature sensor , wherein a processor of the computerized device calculates a density of the fluid using the temperature and the fluid identity of the fluid and a mass of the quantity of fluid using a determined size of the vessel , the determined fill level, and the fluid density.
Turbo machine comprising: - a barrel casing having a cylindrical internal surface defining an internal containment volume, - a bundle having a cylindrical shape, adapted to be accommodated into said internal containment volume, - a cylindrical cover connected to the bundle to close said internal containment volume and hold the bundle inside the barrel casing , - a split shear ring adapted to fix said barrel casing with said cylindrical cover wherein the external cylindrical surface of the cylindrical cover is provided with a first groove , the first groove being circumferential, and the cylindrical internal surface of the barrel casing is provided with a second groove , the second groove being circumferential, the first groove and second groove being adapted to accommodate said shear ring , characterized in that said first groove is adapted to completely accommodate the cross section of said split shear ring , and said shear ring is maneuverable from radially outside the barrel casing by means of screwing means . - a barrel casing having a cylindrical internal surface defining an internal containment volume, - a bundle having a cylindrical shape, adapted to be accommodated into said internal containment volume, - a cylindrical cover connected to the bundle to close said internal containment volume and hold the bundle inside the barrel casing , - a split shear ring adapted to fix said barrel casing with said cylindrical cover
A method comprising: receiving, by a source virtual routing node of a single-chassis network device having a plurality of packet forwarding engines, PFEs, and a plurality of fabric links coupling respective pairs of the plurality of PFEs at respective fabric interfaces of the plurality of PFEs, a plurality of packets; storing a count for each prefix match shorter than the longest prefix match occurring within a period of time for the plurality of packets; determining, by the source virtual routing node, that a packet of the plurality of packets belongs to a data flow with a high packet rate by determining that the count of prefix matches shorter than the longest prefix match for the data flow exceeds a defined threshold; in response to determining that the packet of the plurality of packets belongs to the data flow, adding, by the source virtual routing node, a fabric path header to a next incoming packet of the data flow, so as to create a modified packet; sending, by the source virtual routing node, the modified packet to a receiving PFE of the plurality of PFEs to request fabric path information associated with an egress PFE ; receiving, by the source virtual routing node and from a path module , the fabric path information associated with the egress PFE; storing, by the source virtual routing node, the fabric path information associated with the egress PFE in forwarding information of the source virtual routing node; and sending, by the source virtual routing node, a next packet of the data flow directly to the egress PFE. receiving, by a source virtual routing node of a single-chassis network device having a plurality of packet forwarding engines, PFEs, and a plurality of fabric links coupling respective pairs of the plurality of PFEs at respective fabric interfaces of the plurality of PFEs, a plurality of packets; storing a count for each prefix match shorter than the longest prefix match occurring within a period of time for the plurality of packets; determining, by the source virtual routing node, that a packet of the plurality of packets belongs to a data flow with a high packet rate by determining that the count of prefix matches shorter than the longest prefix match for the data flow exceeds a defined threshold; in response to determining that the packet of the plurality of packets belongs to the data flow, adding, by the source virtual routing node, a fabric path header to a next incoming packet of the data flow, so as to create a modified packet; sending, by the source virtual routing node, the modified packet to a receiving PFE of the plurality of PFEs to request fabric path information associated with an egress PFE ; receiving, by the source virtual routing node and from a path module , the fabric path information associated with the egress PFE; storing, by the source virtual routing node, the fabric path information associated with the egress PFE in forwarding information of the source virtual routing node; and sending, by the source virtual routing node, a next packet of the data flow directly to the egress PFE.
An additive magnetic compensation circuit, comprising at least one sensor package configured for outputting a first digital signal, and a controller configured for receiving said first digital signal, computing a digital compensation signal, and then sending said digital compensation signal to said sensor package, wherein at said sensor package comprises: • a magnetic sensor configured for creating a first analogue signal by sensing a component of the magnetic field; • an adder configured for receiving the first analogue signal and outputting a second analogue signal; • an ADC configured for converting said second analogue signal to said first digital signal, and • a DAC configured for converting said digital compensation signal to a third analogue signal for input to the adder, CHARACTERIZED IN THAT the additive magnetic compensation circuit comprises a computer configured for forming a digitally predicted model of the magnetic field, wherein the controller in said compensation circuit is configured for importing said first digital signal and said digitally predicted model of the magnetic field, and for outputting said digital compensation signal to said compensation circuit. • a magnetic sensor configured for creating a first analogue signal by sensing a component of the magnetic field; • an adder configured for receiving the first analogue signal and outputting a second analogue signal; • an ADC configured for converting said second analogue signal to said first digital signal, and • a DAC configured for converting said digital compensation signal to a third analogue signal for input to the adder, CHARACTERIZED IN THAT the additive magnetic compensation circuit comprises a computer configured for forming a digitally predicted model of the magnetic field, wherein the controller in said compensation circuit is configured for importing said first digital signal and said digitally predicted model of the magnetic field, and for outputting said digital compensation signal to said compensation circuit.
A composition for use in a method for selectively treating tumor cells in a subject, the composition comprising an effective amount of a compound represented by formula (III): or a pharmaceutically acceptable salt, crystal or polymorph thereof, whereby the compound is metabolized and is effective in inhibiting the synthesis of glutamic acid in the gamma-glutamyl cycle.
Medicament delivery device comprising, - a housing having a proximal and a distal end, - a delivery member connected to the housing, the delivery member including an injection needle having a proximal pointed end and a distal pointed end ; - a medicament container operably arranged within the housing; - a drive mechanism comprising a plunger rod and capable of acting on the medicament container for priming and for expelling a dose of medicament; characterised in that the device further comprises an activator mechanism configured to interact with the drive mechanism; wherein the activator mechanism includes a rotator operably arranged inside the housing ; a safety member removably arranged to the distal end of the housing and operably connected to the rotator ; wherein the safety member comprises second contact members arranged with side edges having a curved shape; wherein removal of the safety member by pulling in a distal direction causes curved side surfaces , which are in contact with an end surface of a first outer guiding member of the rotator , to force a rotation of the rotator causing first contact members of the plunger rod to move from an initial state where they leave contact with a first inner transversal and circumferential section (100 II ) of an inner guiding member on the inner surface of the rotator and come in contact with an inner inclined section (100 III ) of the inner guiding member (100 III ), such that the drive mechanism moves the medicament container and a medicament container holder as a unit in the proximal direction toward the distal pointed end of the injection needle , to first penetrate the protective sheath and then a septum at the neck portion of the medicament container , while compressing a protective sheath surrounding the distal end of the needle. - a housing having a proximal and a distal end, - a delivery member connected to the housing, the delivery member including an injection needle having a proximal pointed end and a distal pointed end ; - a medicament container operably arranged within the housing; - a drive mechanism comprising a plunger rod and capable of acting on the medicament container for priming and for expelling a dose of medicament;
Refrigerator and/or freezer, comprising a refrigerant circuit having at least two parallelly-interconnected evaporators , which preferably cool different compartments of the refrigerator and/or freezer, a compressor , by means of which a refrigerant is conveyed to the evaporators , and a controller that can be moved in multiple positions, which controller is arranged upstream of the evaporator in the flow direction of the refrigerant and which is configured in such a way that it distributes the refrigerant to the evaporators , wherein the suction lines, leading away from the evaporators , of the cooling circuit communicate with one another and do not comprise any shut-off means, characterized in that the controller is configured to connect the evaporator assigned to the hottest compartment and not being operated for a certain time on the basis of the temperature measured by a temperature sensor arranged on one of the suction lines leading away from the evaporators when a temperature threshold value of a suction line leading away from one of the evaporators is not reached.
Multi-effect evaporation process for the evaporation of a waste water stream comprising a mixture of inorganic and organic materials, said process comprising more than one forced circulation evaporator effects in series of which one or more and less than all effects comprise passing a waste water stream together with cleaning particles through a shell and tube heat exchanger of a forced circulation evaporator to mitigate fouling on the internal surface of the heat exchanger through which the waste water stream flows and wherein the one or more and less than all effects with the most extreme working temperatures and/or with the highest concentration of said mixture in the waste water stream relative to all effects of the multi-effect evaporation process comprise said passing the waste stream together with the cleaning particles through the shell and tube heat exchanger of the forced circulation evaporator.
A welding method in which a welding process is carried out with at least one welding device (B), wherein the at least one welding device (B) detects an electrical measurement variable in a welding electric circuit to control the welding process of the welding device (B), wherein during the welding process carried out using the welding device (B) synchronization information is transmitted to the at least one welding device (B) from at least one other electrical device (EG) in which a device current (IEG) that changes over time flows in a device electric circuit at least at a point in time, characterized in that the at least one welding device (B) uses the obtained synchronization information (Y) in order to ignore the measurement values for the measurement variable detected at the point in time.
Method for controlling a wind turbine connected to the utility grid comprising steps of: operating the wind turbine in a normal operational state (state 0), detecting a status of the utility grid, in response to detecting a utility grid fault, enter an operational state (state 1) where the wind turbine is controlled to stabilize the wind turbine rotor speed with new control parameters, operating the wind turbine at the stabilized level (state 2) during the grid fault event, upon detection of a recovery of the grid, control the wind turbine to return to the normal operational state (state 3), where controlling the wind turbine to return to the normal operational state with the comprises: detecting mechanical oscillations and/or loads of the wind turbine, and controlling one or more rotor blades and/or emitted power to the grid in dependency of said mechanical oscillations and/or loads. operating the wind turbine in a normal operational state (state 0), detecting a status of the utility grid, in response to detecting a utility grid fault, enter an operational state (state 1) where the wind turbine is controlled to stabilize the wind turbine rotor speed with new control parameters, operating the wind turbine at the stabilized level (state 2) during the grid fault event, upon detection of a recovery of the grid, control the wind turbine to return to the normal operational state (state 3), where controlling the wind turbine to return to the normal operational state with the comprises: detecting mechanical oscillations and/or loads of the wind turbine, and controlling one or more rotor blades and/or emitted power to the grid in dependency of said mechanical oscillations and/or loads. detecting mechanical oscillations and/or loads of the wind turbine, and controlling one or more rotor blades and/or emitted power to the grid in dependency of said mechanical oscillations and/or loads.
A joint movement supporting protection device, comprising a joint protection body matched with a joint in shape, and a fixing device in connection or contact with the joint protection body and tightly attaching the joint protection body to a joint of a human body, characterised in that : a cross section of the joint protection body is arc-like, a plurality of upper notches are formed in a portion, close to a joint movement area, of the joint protection body ; the upper notches divide the joint protection body into a plurality of joint pieces with some connecting parts of the joint protection body that connect adjacent joint pieces together, and adjacent joint pieces are capable of rotating around the connecting parts as fulcrums ; when the joint pieces rotate to a limiting position around the fulcrums , the joint pieces do not rotate any more since adjacent joint pieces contact to each other.
A method for controlling service functions of a management device, MD, by a control device, CD, in a home network comprising the CD for controlling service functions of an electronic device, ED, connected to the home network and the MD , service functions of which are managed by the CD , the method comprising: sending , to the MD , a request for information on whether an error in at least one service function performed in the MD connected to the home network has occurred; receiving , from the MD , the information on whether the error in the at least one service function performed in the MD connected to the home network has occurred; and transmitting , to the MD , control information for controlling the at least one service function in which the error had occurred, according to information necessary to control the at least one service function, wherein information necessary to control the at least one service function corresponds to information necessary to deactivate the at least one service function, and wherein the at least one service function includes a function of a telephony terminal. sending , to the MD , a request for information on whether an error in at least one service function performed in the MD connected to the home network has occurred; receiving , from the MD , the information on whether the error in the at least one service function performed in the MD connected to the home network has occurred; and transmitting , to the MD , control information for controlling the at least one service function in which the error had occurred, according to information necessary to control the at least one service function, wherein information necessary to control the at least one service function corresponds to information necessary to deactivate the at least one service function, and wherein the at least one service function includes a function of a telephony terminal.
A communication method, wherein the method comprises: receiving (S602a), by an access device from a first mobility management entity , a first indication message, wherein the first indication message indicates that when a failure occurs in the first mobility management entity , a first terminal in a terminal group corresponding to a first group identifier is served by a second mobility management entity , wherein a context of the first terminal exists in the second mobility management entity ; obtaining, by the access device , the first group identifier of the terminal group to which the first terminal served by the first mobility management entity belongs; sending (S610a, S612a), by the access device , a message related to the first terminal to the second mobility management entity based on the first group identifier when the failure occurs in the first mobility management entity ; and receiving, by the second mobility management entity , the message from the access device . receiving (S602a), by an access device from a first mobility management entity , a first indication message, wherein the first indication message indicates that when a failure occurs in the first mobility management entity , a first terminal in a terminal group corresponding to a first group identifier is served by a second mobility management entity , wherein a context of the first terminal exists in the second mobility management entity ; obtaining, by the access device , the first group identifier of the terminal group to which the first terminal served by the first mobility management entity belongs; sending (S610a, S612a), by the access device , a message related to the first terminal to the second mobility management entity based on the first group identifier when the failure occurs in the first mobility management entity ; and receiving, by the second mobility management entity , the message from the access device .
A compound comprising at least 50 weight% of a functional agent, characterized in that it also comprises a waxy matrix within which said functional agent is dispersed, said compound being solid at room temperature and intended to be dispersed by fluidification and/or solubilization within a cosmetic and/or dermatological composition to integrate said functional agent therein, said functional agent being formed by solid particles having undergone a surface treatment causing a reduction of the capacity of absorption of the waxy matrix by said treated solid particles , in comparison with non-treated solid particles of the same kind.
A resin composition comprising a polyarylene sulfide; and a phenoxy resin of Formula 1, wherein the amount of outgassing is 300 ppm or less: wherein n is an integer of 100 to 900.
A method of recognizing a speaker, the method comprising: receiving electrical signals corresponding to a speech of the speaker from at least some resonators of a plurality of resonators having different resonance bands (S310); calculating a magnitude difference of the resonance bands using the electrical signals (S320), characterized in that the magnitude difference of the resonance bands is a magnitude difference of electrical signals output from two resonators having neighboring resonance frequencies based on a frequency; and the method further comprises: generating a bitmap of a band gradient (S1160) by encoding the magnitude difference of the resonance bands, wherein the bitmap of the band gradient is a sequence of the magnitude differences of the resonance bands; and recognizing the speaker using the bitmap of the band gradient. receiving electrical signals corresponding to a speech of the speaker from at least some resonators of a plurality of resonators having different resonance bands (S310); calculating a magnitude difference of the resonance bands using the electrical signals (S320), characterized in that the magnitude difference of the resonance bands is a magnitude difference of electrical signals output from two resonators having neighboring resonance frequencies based on a frequency; and the method further comprises: generating a bitmap of a band gradient (S1160) by encoding the magnitude difference of the resonance bands, wherein the bitmap of the band gradient is a sequence of the magnitude differences of the resonance bands; and recognizing the speaker using the bitmap of the band gradient. generating a bitmap of a band gradient (S1160) by encoding the magnitude difference of the resonance bands, wherein the bitmap of the band gradient is a sequence of the magnitude differences of the resonance bands; and recognizing the speaker using the bitmap of the band gradient.