mhurhangee/patent-ind-claim-en huggingface dataset:
A mobility management method, which is applied to a network side device, wherein the method comprises: sending a radio resource control RRC connection reconfiguration message to an Internet of Vehicles terminal when determining that network handover is required to be performed for the Internet of Vehicles terminal; receiving a RRC connection reconfiguration completion message which carries current physical location information of the Internet of Vehicles terminal and is sent by the Internet of Vehicles terminal; wherein the current physical location information of the Internet of Vehicles terminal further carries current motion state information of the Internet of Vehicles terminal; the current motion state information of the Internet of Vehicles terminal includes: a current running speed, a running direction, an acceleration, a running time, and a destination of the Internet of Vehicles terminal; the network side device, according to the current physical location information of the Internet of Vehicles terminal and the current motion state information of the Internet of Vehicles terminal included in the current physical location information of the Internet of Vehicles terminal, predicts a subsequent motion track of the Internet of Vehicles terminal, wherein the method further comprises: transmitting another RRC connection reconfiguration message with an optimized resource allocation to the Internet of Vehicles terminal, wherein the optimized resource allocation is based on the current physical location information of the Internet of Vehicles terminal and the predicted subsequent motion track. sending a radio resource control RRC connection reconfiguration message to an Internet of Vehicles terminal when determining that network handover is required to be performed for the Internet of Vehicles terminal; receiving a RRC connection reconfiguration completion message which carries current physical location information of the Internet of Vehicles terminal and is sent by the Internet of Vehicles terminal; wherein the current physical location information of the Internet of Vehicles terminal further carries current motion state information of the Internet of Vehicles terminal; the current motion state information of the Internet of Vehicles terminal includes: a current running speed, a running direction, an acceleration, a running time, and a destination of the Internet of Vehicles terminal; the network side device, according to the current physical location information of the Internet of Vehicles terminal and the current motion state information of the Internet of Vehicles terminal included in the current physical location information of the Internet of Vehicles terminal, predicts a subsequent motion track of the Internet of Vehicles terminal, wherein the method further comprises: transmitting another RRC connection reconfiguration message with an optimized resource allocation to the Internet of Vehicles terminal, wherein the optimized resource allocation is based on the current physical location information of the Internet of Vehicles terminal and the predicted subsequent motion track.
Clamping element for connecting support tubes (12; 112) or rods of gripping and handling systems in body shell construction, wherein a middle part (14; 114) has half-shells (16a, b, c, and d; 116c and d) which are arranged rigidly relative to one another and can be closed by means of correspondingly formed, half-shell-shaped covers (20a, b, c and d; 120c, d), so that the support tubes (12; 112) or rods can be clamped between the covers and the half-shells of the middle part, wherein the middle part (14; 114) has four half-shells (16a, b, c and d; 116c, d) which are arranged in two pairs in alignment with one another and are connected by means of at least one additional connecting element (24a, b, c, d; 124a, b, c, d) which consists of a tube or rod body.
A tool assembly for monitoring reservoir water properties and reservoir production performance at a borehole, the tool assembly comprising: a water salinity measuring probe that includes a pair of electrodes , wherein the water salinity measuring probe is mounted at a tip of the tool assembly and configured to measure a water conductivity between the pair of electrodes when the tool assembly is immersed inside the borehole; a spinner tool configured to measure a total flow rate at where the tool assembly is immersed inside the borehole, wherein the spinner tool is located above the water salinity measuring probe when the tool assembly is immersed inside the borehole; and a temperature probe configured to measure a temperature at where the tool assembly is immersed inside the borehole, wherein the temperature probe is located above the spinner tool when the tool assembly is immersed inside the borehole. a water salinity measuring probe that includes a pair of electrodes , wherein the water salinity measuring probe is mounted at a tip of the tool assembly and configured to measure a water conductivity between the pair of electrodes when the tool assembly is immersed inside the borehole; a spinner tool configured to measure a total flow rate at where the tool assembly is immersed inside the borehole, wherein the spinner tool is located above the water salinity measuring probe when the tool assembly is immersed inside the borehole; and a temperature probe configured to measure a temperature at where the tool assembly is immersed inside the borehole, wherein the temperature probe is located above the spinner tool when the tool assembly is immersed inside the borehole.
A sensor system comprising: a triplet element comprising a first hydrophone , a second hydrophone (110-1), and a third hydrophone (110-2) configured to receive an incoming signal at a first phase, a second phase, and a third phase, respectively, the first to third hydrophones extending along a first direction; and a processor configured to: determine an incidence direction of the incoming signal based on a depth of the triplet element, a water column depth, a timing of transmission of a signal being reflected back from a seabed and a water surface as the incoming signal, and dynamically generate a cardioid null in the incidence direction to reject the incoming signal based on the incoming signal at the first to third phases. a triplet element comprising a first hydrophone , a second hydrophone (110-1), and a third hydrophone (110-2) configured to receive an incoming signal at a first phase, a second phase, and a third phase, respectively, the first to third hydrophones extending along a first direction; and a processor configured to: determine an incidence direction of the incoming signal based on a depth of the triplet element, a water column depth, a timing of transmission of a signal being reflected back from a seabed and a water surface as the incoming signal, and dynamically generate a cardioid null in the incidence direction to reject the incoming signal based on the incoming signal at the first to third phases. determine an incidence direction of the incoming signal based on a depth of the triplet element, a water column depth, a timing of transmission of a signal being reflected back from a seabed and a water surface as the incoming signal, and dynamically generate a cardioid null in the incidence direction to reject the incoming signal based on the incoming signal at the first to third phases.
A linear transport system having at least one stationary unit , at least one movable unit and a drive for driving the movable unit , wherein the drive comprises a linear motor , wherein the linear motor comprises a stator and a rotor , wherein the stator is arranged at the stationary unit , wherein the stationary unit further comprises an energy transmitting coil , wherein a rotor is arranged at the movable unit and comprises one or a plurality of magnets , wherein the movable unit further comprises a switch-on unit comprising an energy receiving coil , wherein energy is transmitted from the energy transmitting coil of the stationary unit to the energy receiving coil of the switch-on unit , wherein the movable unit comprises a fixing device , wherein the fixing device is set up to fix the movable unit in the linear transport system , wherein the fixing device comprises a movable element and an electromagnet , wherein the movable element is movable between a first position and a second position , wherein the movable element triggers a mechanical fixing of the movable unit in the first position , wherein the movable element is held in the second position with the aid of the electromagnet , wherein a reset element acts against a force generated by the electromagnet , wherein movement of the movable element to the first position is effected by the reset element, wherein the switch-on unit is connected to the electromagnet in order to supply the electromagnet with current via an energy receiving coil .
A tubular handling apparatus , comprising: a power tong ; a backup tong ; a load transfer assembly connected between the power tong and the backup tong, wherein the load transfer assembly includes: a first link having a first load cell positioned to measure a first force exerted on the first link; and a second link having a second load cell positioned to measure a second force exerted on the second link; and a tong control assembly configured to select the first load cell for use in a tubular makeup operation and to select the second load cell for use in a tubular breakout operation, the tong control assembly further configured to measure both forces in makeup and breakout and to compare the measurements against each other. a power tong ; a backup tong ; a load transfer assembly connected between the power tong and the backup tong, wherein the load transfer assembly includes: a first link having a first load cell positioned to measure a first force exerted on the first link; and a second link having a second load cell positioned to measure a second force exerted on the second link; and a first link having a first load cell positioned to measure a first force exerted on the first link; and a second link having a second load cell positioned to measure a second force exerted on the second link; and a tong control assembly configured to select the first load cell for use in a tubular makeup operation and to select the second load cell for use in a tubular breakout operation, the tong control assembly further configured to measure both forces in makeup and breakout and to compare the measurements against each other.
A method for determining a physical vessel parameter of a vascular tissue in a vascular plant , wherein the method comprises: - a detection stage comprising detecting acoustic emission radiation from the vascular plant and providing an emission-related signal; and - an analysis stage comprising determining the physical vessel parameter based on the emission-related signal, wherein the physical vessel parameter comprises an elasticity or a vessel dimension, and wherein the analysis stage comprises fitting at least part of the emission-related signal to a model of flexural modes of a cylindrical beam, and determining the physical vessel parameter based on the model. - a detection stage comprising detecting acoustic emission radiation from the vascular plant and providing an emission-related signal; and - an analysis stage comprising determining the physical vessel parameter based on the emission-related signal, wherein the physical vessel parameter comprises an elasticity or a vessel dimension, and wherein the analysis stage comprises fitting at least part of the emission-related signal to a model of flexural modes of a cylindrical beam, and determining the physical vessel parameter based on the model.
A method for predicting the risk of having respiratory failure in a patient having severe sepsis or septic shock comprising a step consisting of measuring the concentration of endocan in a blood sample obtained from said septic patient and a step of comparing the concentration of endocan with a predetermined threshold value representing the concentration measured in average in healthy patients and wherein a lower concentration than the predetermined threshold value predicts respiratory failure at 48-72 hours following ICU admission of the patient having severe sepsis or septic shock.
An optical network device, wherein the optical network device comprises an enclosure , and the enclosure is provided with ports ; and the optical network device further comprises adapters mounted on the ports , the adapters are configured to connect to optical fiber connectors , optical cables are connected to the optical fiber connectors , an outer sidewall of the optical fiber connectors or an outer sidewall of the optical cables is provided with a first identification area , and the first identification area is used to identify the optical fiber connectors or the optical cables ; all of the ports are mutually arranged in a staggered manner, the adapters mounted on all of the ports are mutually arranged in a staggered manner, and the optical fiber connectors mounted on all of the adapters are mutually arranged in a staggered manner, so that at least a first photographing direction is present, in which the first identification areas on the optical fiber connectors or the first identification areas on the optical cables are photographable in the first photographing direction; and wherein the enclosure and/or one of the ports and/or one of the adapters is provided with a photographing direction indication structure for indicating the first photographing direction. all of the ports are mutually arranged in a staggered manner, the adapters mounted on all of the ports are mutually arranged in a staggered manner, and the optical fiber connectors mounted on all of the adapters are mutually arranged in a staggered manner, so that at least a first photographing direction is present, in which the first identification areas on the optical fiber connectors or the first identification areas on the optical cables are photographable in the first photographing direction; and wherein the enclosure and/or one of the ports and/or one of the adapters is provided with a photographing direction indication structure for indicating the first photographing direction.
An assembly for an aircraft propulsion system , comprising: an inner cowl door ; an outer cowl door radially outboard of and overlapping the inner cowl door , when the assembly is installed; and a flexible linkage configured to connect to and thereby link the inner cowl door and the outer cowl door , characterized in that : the flexible linkage is configured as a flexible tether. an inner cowl door ; an outer cowl door radially outboard of and overlapping the inner cowl door , when the assembly is installed; and a flexible linkage configured to connect to and thereby link the inner cowl door and the outer cowl door ,
Transport aid device for at least a first and a second pallet , wherein the pallets have a loading base which is oriented substantially horizontally in a usage position during transport, having a first support device and having a second support device for supporting at least one of the pallets , both of the support devices having: - at least one connecting element for the mechanical connection of the support device to the first pallet , wherein the connecting element has two first connecting projections which can engage mechanically in different lifting means recesses of the first pallet and are spaced apart from one another for this purpose, and wherein each first connecting projection has at least one stiffening limb and a second limb which is angled off with respect to the stiffening limb, - at least two support beams which, in the usage position during transport, extend substantially in a vertical direction, each having a first end which, in the usage position during transport, forms the upper end of the respective support beam, - at least two holding elements which are connected in each case to the first end of one of the two support beams , wherein each of the holding elements is provided for, in the usage position during transport of the two pallets , holding or supporting the second of said pallets with a vertical spacing from the first pallet , characterized in that the support device is formed with a bottom plate from which two stiffening ribs extend from opposite ends of the bottom plate and are oriented substantially in parallel, wherein the first connecting projections of the connecting element extend substantially at a right angle and, in the usage position, substantially horizontally from the bottom plate of the support device . - at least one connecting element for the mechanical connection of the support device to the first pallet , wherein the connecting element has two first connecting projections which can engage mechanically in different lifting means recesses of the first pallet and are spaced apart from one another for this purpose, and wherein each first connecting projection has at least one stiffening limb and a second limb which is angled off with respect to the stiffening limb, - at least two support beams which, in the usage position during transport, extend substantially in a vertical direction, each having a first end which, in the usage position during transport, forms the upper end of the respective support beam, - at least two holding elements which are connected in each case to the first end of one of the two support beams , wherein each of the holding elements is provided for, in the usage position during transport of the two pallets , holding or supporting the second of said pallets with a vertical spacing from the first pallet ,
Layered cell sheets comprising a cell population containing myoblasts, wherein each cell sheet comprises myoblasts with controlled orientations, wherein the myoblasts with controlled orientation are unidirectionally aligned in each cell sheet, and wherein between the layered cell sheets comprising unidirectionally aligned myoblasts are vascular endothelial cells or nerve cells with orientations identical to the unidirectionally aligned myoblasts.
A medium or high voltage circuit breaker for switchgear, with vacuum circuit breaker, with at least one fixed contact and at least one movable contact, driven by a drive , wherein, the drive comprises an energy storage module , and a latching module ; wherein, an energy storage mechanism of the energy storage module is based on a mechanical spring; wherein, the drive is configured to operate with different energy storage modules and associated different latching modules, such that the drive is configured to operate with vacuum circuit breakers with different ratings; wherein, each energy storage module of the different energy storage modules has a different mechanical spring to provide a different energy storage level; wherein, each latching module of the different latching modules has a design according to a different mechanical spring of the different mechanical springs of the different energy storage modules; and wherein, the drive is configured to operate with an energy storage module with a specific mechanical spring and an associated latching module that has a design according to the specific mechanical spring. wherein, the drive comprises an energy storage module , and a latching module ; wherein, an energy storage mechanism of the energy storage module is based on a mechanical spring; wherein, the drive is configured to operate with different energy storage modules and associated different latching modules, such that the drive is configured to operate with vacuum circuit breakers with different ratings; wherein, each energy storage module of the different energy storage modules has a different mechanical spring to provide a different energy storage level; wherein, each latching module of the different latching modules has a design according to a different mechanical spring of the different mechanical springs of the different energy storage modules; and wherein, the drive is configured to operate with an energy storage module with a specific mechanical spring and an associated latching module that has a design according to the specific mechanical spring.
Method for producing a multilayer film (M) comprising at least two layers (S1, S2) joined by means of a solventless two-component adhesive, comprising the following steps: - spreading a first component (A) of a two-component adhesive on a first face of a first layer of film; - spreading a second component (B) of the two-component adhesive on a first face of a second layer of film; - bringing the aforesaid first and second faces of the first and second layers into mutual contact joining the components (A) and (B) to form an adhesive and join the two layers (S1, S2) in a multilayer film (M); and - winding the multilayer film (M) obtained. - spreading a first component (A) of a two-component adhesive on a first face of a first layer of film; - spreading a second component (B) of the two-component adhesive on a first face of a second layer of film; - bringing the aforesaid first and second faces of the first and second layers into mutual contact joining the components (A) and (B) to form an adhesive and join the two layers (S1, S2) in a multilayer film (M); and - winding the multilayer film (M) obtained.
Method for configuring a user profile by a mobile terminal (T) for the coupling of a mobile terminal (T) with a physical and/or physiological measurement appliance (A), the configuration method comprising the following steps: - (Epro) creation or modification from the mobile terminal (T) of an item of user profile (pro) information comprising at least one user identification (id) and at least one indication relating to said user (usr), - (Ediv) detection by the mobile terminal (T) of a physical and/or physiological measurement appliance (A) capable of exchanging information with the mobile terminal (T) according to a first communication protocol, - (Ediv_u) reception by the mobile terminal (T) of a demand request (req) for complementary user profile (pro) information coming from the physical and/or physiological measurement appliance (A), said request being arranged to ask the user to use the physical and/or physiological measurement appliance (A) so as to make it possible for the mobile terminal (T) to obtain a complementary item of user profile (pro) information, - (Ediv_d) transmission of the user profile (pro) sent to the physical and/or physiological measurement appliance (A), - recording of the user profile (pro) in the physical and/or physiological measurement appliance (A). - (Epro) creation or modification from the mobile terminal (T) of an item of user profile (pro) information comprising at least one user identification (id) and at least one indication relating to said user (usr), - (Ediv) detection by the mobile terminal (T) of a physical and/or physiological measurement appliance (A) capable of exchanging information with the mobile terminal (T) according to a first communication protocol, - (Ediv_u) reception by the mobile terminal (T) of a demand request (req) for complementary user profile (pro) information coming from the physical and/or physiological measurement appliance (A), said request being arranged to ask the user to use the physical and/or physiological measurement appliance (A) so as to make it possible for the mobile terminal (T) to obtain a complementary item of user profile (pro) information, - (Ediv_d) transmission of the user profile (pro) sent to the physical and/or physiological measurement appliance (A), - recording of the user profile (pro) in the physical and/or physiological measurement appliance (A).