mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing resource and admission control in PUSH mode in nomadism scenario of a next generation network, after a subscriber accesses a next generation network in a visited network and initiates a service request to Application Function, AF, of the subscriber's home network, the method comprising the following steps of: A: after receiving a resource request transmitted by the AF corresponding to the service request, Service-based Policy Decision Function, SPDF, of the home network transmitting the resource request to Access-Resource and Admission Control Function, A-RACF, of the visited network through SPDF of the visited network; B: the A-RACF of the visited network making a resource policy decision on the resource request, and transmitting a decision result to Resource Control Enforcement Function, RCEF, of the visited network for policy installation; C: the A-RACF of the visited network transmitting a resource request response to the SPDF of the home network through the SPDF of the visited network; wherein in the above steps, after receiving the resource request, the SPDF of the home network and/or the SPDF of the visited network perform authorization examining for the resource request; characterized in that if the service corresponding to the service request needs to visit the core network of the home network and both of the visited network and the home network have their own network access and service, then in the step C, the SPDF of the visited network transmits a request message to the Border Gateway Function, BGF, of the visited network after receiving the resource request response, wherein the request message contains policy information for controlling the BGF; the BGF performs processing according to the policy information and sends a response to the SPDF of the visited network. A: after receiving a resource request transmitted by the AF corresponding to the service request, Service-based Policy Decision Function, SPDF, of the home network transmitting the resource request to Access-Resource and Admission Control Function, A-RACF, of the visited network through SPDF of the visited network; B: the A-RACF of the visited network making a resource policy decision on the resource request, and transmitting a decision result to Resource Control Enforcement Function, RCEF, of the visited network for policy installation; C: the A-RACF of the visited network transmitting a resource request response to the SPDF of the home network through the SPDF of the visited network;
A device for monitoring a cell signal, such as an electrical signal, produced by living cells in response to external stimulation comprising (a) at least one discrete area comprising a high electron mobility transistor (HEMT); (b) non-excitable cells attached to said HEMT; and (c) at least one further discrete area comprising a HEMT, said further area being free of cells. (a) at least one discrete area comprising a high electron mobility transistor (HEMT); (b) non-excitable cells attached to said HEMT; and (c) at least one further discrete area comprising a HEMT, said further area being free of cells.
A lithium secondary battery comprising: a positive electrode; a negative electrode; a separator disposed between the positive electrode and the negative electrode; and an electrolyte, wherein the positive electrode comprises one or more positive electrode active materials selected from the group consisting of LiFe x M y PO 4, Li 2 Fe x M y P 2 O 7, Li 3 Fe x M y (PO 4) 3, and LiFe x M y O 2, and coated on at least one surface of a positive current collector, where M is at least one or more selected from the group consisting of Co, Ni, Mn, Al, Sn, and Sb, 0 < x ≤ 1, 0 ≤ y < 1, wherein the negative electrode comprises one or more negative electrode active materials selected from the group consisting of Li 4 (Ti p N q) 5 O 12 and Li 2 (Ti p N q) 3 O 7, and coated on at least one surface of a negative current collector, where N is at least one or more selected from the group consisting of Co, Ni, Mn, Al, Sn, and Sb, 0 < p ≤ 1, 0 ≤ q < 1, and the electrolyte comprises a Li ion-containing aqueous solution, characterized in that the coating of the positive electrode comprising positive electrode active material includes one or more conductive agents selected from the group consisting of Co, Ni, Cu, and cobalt oxide. a positive electrode; a negative electrode; a separator disposed between the positive electrode and the negative electrode; and an electrolyte, wherein the positive electrode comprises one or more positive electrode active materials selected from the group consisting of LiFe x M y PO 4, Li 2 Fe x M y P 2 O 7, Li 3 Fe x M y (PO 4) 3, and LiFe x M y O 2, and coated on at least one surface of a positive current collector, where M is at least one or more selected from the group consisting of Co, Ni, Mn, Al, Sn, and Sb, 0 < x ≤ 1, 0 ≤ y < 1, wherein the negative electrode comprises one or more negative electrode active materials selected from the group consisting of Li 4 (Ti p N q) 5 O 12 and Li 2 (Ti p N q) 3 O 7, and coated on at least one surface of a negative current collector, where N is at least one or more selected from the group consisting of Co, Ni, Mn, Al, Sn, and Sb, 0 < p ≤ 1, 0 ≤ q < 1, and the electrolyte comprises a Li ion-containing aqueous solution, characterized in that the coating of the positive electrode comprising positive electrode active material includes one or more conductive agents selected from the group consisting of Co, Ni, Cu, and cobalt oxide.
A hydroelectric machine comprising an electric motor-generator and a pump-turbine connected to the electric motor-generator, the machine being configured to generate electricity from a flow of water and to pump water, the electric motor-generator comprising a rotor, a shaft about which the rotor is bi-directional rotatable, and a bi-directional fan, the fan comprising a plurality of blades rotatable about an axis of rotation and extending radially from the axis of rotation, the fan being arranged to cool the hydroelectric machine in pump mode by rotating in a first direction and cool the machine in turbine mode by rotating in a second direction, the first direction being opposite to the second direction, characterized in that: the fan is a bi-directional radial fan, which is mounted on the rotor, wherein each of the blades has a transverse profile that is symmetrical about a radial line of symmetry extending through the blade, at least a portion of the profile of each blade being curved, the fan further comprising a lower sealing component which is connected directly to the rotor of the electric motor-generator and an upper sealing component comprising a rounded upper flange defining an air inlet, the cross-sectional area of the air inlet reducing as air is drawn through the inlet, the blades being located between the upper and the lower sealing component. the fan is a bi-directional radial fan, which is mounted on the rotor, wherein each of the blades has a transverse profile that is symmetrical about a radial line of symmetry extending through the blade, at least a portion of the profile of each blade being curved, the fan further comprising a lower sealing component which is connected directly to the rotor of the electric motor-generator and wherein each of the blades has a transverse profile that is symmetrical about a radial line of symmetry extending through the blade, at least a portion of the profile of each blade being curved, the fan further comprising a lower sealing component which is connected directly to the rotor of the electric motor-generator and an upper sealing component comprising a rounded upper flange defining an air inlet, the cross-sectional area of the air inlet reducing as air is drawn through the inlet, the blades being located between the upper and the lower sealing component.
A peptide composition, comprising: a self-assembling peptide having an amide group at the C-terminus; a buffering agent selected from histidine, thiamine nitrate, pyridine, bis-tris methane, ethylenediamine, and/or N-methylmorpholine; and water, wherein: the amino acid at the C-terminus of the self-assembling peptide is a basic amino acid, the self-assembling peptide has the following amino acid sequence: a 1 b 1 c 1 b 2 a 2 b 3 db 4 a 3 b 5 c 2 b 6 a 4 wherein: each of a 1 to a 4 is a basic amino acid residue, each of b 1 to b 6 is an uncharged polar amino acid residue and/or a hydrophobic amino acid residue, provided that at least five thereof are each a hydrophobic amino acid residue, each of c 1 and c 2 is an acidic amino acid residue, and d is a hydrophobic amino acid residue, the buffering agent is present, in the peptide composition, at a concentration comprised between 1mM and 100 mM, and the peptide composition has a pH of from 4.5 to 6.6. a self-assembling peptide having an amide group at the C-terminus; a buffering agent selected from histidine, thiamine nitrate, pyridine, bis-tris methane, ethylenediamine, and/or N-methylmorpholine; and water, the amino acid at the C-terminus of the self-assembling peptide is a basic amino acid, the self-assembling peptide has the following amino acid sequence: a 1 b 1 c 1 b 2 a 2 b 3 db 4 a 3 b 5 c 2 b 6 a 4 each of a 1 to a 4 is a basic amino acid residue, each of b 1 to b 6 is an uncharged polar amino acid residue and/or a hydrophobic amino acid residue, provided that at least five thereof are each a hydrophobic amino acid residue, each of c 1 and c 2 is an acidic amino acid residue, and d is a hydrophobic amino acid residue,
A wireless terminal (10, 100) characterized in that said wireless terminal (10, 100) comprises: a first obtaining device (11, 127) obtaining time point information from a second wireless base station (30, 200) in a first non-communication period in which communication with a first wireless base station (20, 200) is temporarily stopped, the time point information indicating a time point at which service information is transmitted from the second wireless base station (30, 200), the service information indicating a service provided via the second wireless base station; and a second obtaining device (12, 127) obtaining the service information from the second wireless base station (30, 200) in a second non-communication period which is ensured in accordance with the time point indicated by the time point information and in which the communication with the first wireless base station (20, 200) is temporarily stopped, wherein the first wireless base station (20, 200) belongs to a first NAP (Network Access Provider) via which a first NSP (Network Service Provider) provides a service to the wireless terminal (10, 100), and the second wireless base station (30, 200) belongs to a second NAP via which a second NSP provides a service to the wireless terminal (10, 100), the second NSP is different from the first NSP and has a roaming relationship with the first NSP; the time point information is sent from the second wireless base station (30, 200) to the wireless terminal (10, 100) by using SII (Service Identity Information) ADV Transmission Frame field of a Broadcast Control Pointer message in a DL-MAP (Down Link MAP) frame of an IEEE802.16 method; the service information is sent from the second wireless base station (30, 200) to the wireless terminal (10, 100) by using SII ADV message in the DL-MAP frame; each of the first and second non-communication periods is a period during which the wireless terminal (10, 100) is capable of scanning a neighboring base station which is different from the first wireless base station (20, 200); and the first wireless base station (20, 200) is a serving wireless base station and the second wireless base station (30, 200) is the neighboring wireless base station. a first obtaining device (11, 127) obtaining time point information from a second wireless base station (30, 200) in a first non-communication period in which communication with a first wireless base station (20, 200) is temporarily stopped, the time point information indicating a time point at which service information is transmitted from the second wireless base station (30, 200), the service information indicating a service provided via the second wireless base station; and a second obtaining device (12, 127) obtaining the service information from the second wireless base station (30, 200) in a second non-communication period which is ensured in accordance with the time point indicated by the time point information and in which the communication with the first wireless base station (20, 200) is temporarily stopped, wherein
A filter cartridge comprising a tubular filter membrane and at least a support plate fixed to the filter membrane, the filter cartridge having a longitudinal axis, the support plate being provided with at least an elastically yielding tooth that can yield in a radial direction, following an axial compression thereon in a direction parallel to the longitudinal axis, and defines an engaging surface facing towards the support plate, characterised in that the elastically yielding tooth comprises a flank which is inclined with respect to a radial plane of the filter cartridge and can flex the elastically yielding tooth in a radial direction, following a dragging rotation of the filter cartridge around the longitudinal axis.
Method for calibrating a technical system, wherein, during the calibration, the values of a number of control variables (θ) of the technical system, with which the technical system is controlled or tuned, are determined at specific operating points (x i) of the technical system and the calibration is carried out on the basis of a load cycle for the technical system which results in a sequence (T m) of a number of operating points (x i) of the technical system, characterized in that the load cycle is executed multiple times under the influence of at least one random influencing variable, with each realization of the load cycle resulting in a random sequence (T m) of the number i of operating points (x i), whereas each operating point (x i) is characterized by j=1...J state variables (ZVj) of the technical system, that ensue depending on given initial control variables for the control variables (θ) of the technical system, in that a cost function c(θ,Z) is defined which contains a target function y with a model f for an output variable of the technical system, the model f being dependent on the number of control variables (θ) of the technical system and on the number i of random operating points (x i) of the technical system so that the value of the cost function c(θ,Z), that is calculated for each realization of the load cycle for given control variables (θ) on a computing unit, is itself a random variable that has a probability distribution P(c(θ,Z)), whereas a risk measure ρ of the probability distribution P(c(θ,Z)) of the cost function c(θ,Z) is defined, with which the probability distribution P(c(θ,Z)) of the cost function c(θ,Z) is mapped to a scalar variable, and whereas the risk measure ρ is optimized on a computing unit by varying the number of control variables (θ) in order to obtain the optimal control variables (θ opt) for calibration, with which the technical system is controlled or tuned.
A ceramic member comprising enstatite and boron nitride as constituents, wherein the ceramic member is a sintered body in which the boron nitride is oriented in a single direction, wherein an index of an orientation degree K = |log 10 {(I /I)||/(I /I)⊥}|, which is given based on a ratio (I /I)∥ between strength I of x-ray diffraction along a plane of a crystal of the boron nitride and strength I of x-ray diffraction along a plane when x-ray irradiation is performed in a direction which is perpendicular to an orientation direction of the boron nitride and a ratio (I /I) ⊥ between strength I of x-ray diffraction along the plane and strength I of x-ray diffraction along the plane when x-ray irradiation is performed in the orientation direction, is not less than 0.8, a coefficient of thermal expansion which is measured based on JIS R 1618 at 20°C to 250°C in a direction in parallel to a direction in which the boron nitride is oriented is (3 to 5) × 10 -6 /°C, and three-point bending strength measured based on JIS R 1601 is not less than 200 MPa.
A system for treating mucosal tissue from a small intestine of a patient, said system comprising: an elongate tube comprising a shaft having a distal portion; a treatment element (320; 321) positioned on the distal portion of the shaft, said treatment element configured to treat the mucosal tissue; means for delivering a fluid into submucosal tissue to expand said submucosal tissue circumferentially to increase a target treatment area, the target treatment area including the mucosal tissue on the small intestine to be treated by the treatment element, and a vacuum port configured to bring the shaft and/or the treatment element (320; 321) in contact with the tissue; wherein the treatment element (320; 321) is configured to treat mucosal tissue on the small intestine; and wherein the treatment element (320; 321) comprises an expandable balloon including fluid at a temperature of 65°C to 90°C. an elongate tube comprising a shaft having a distal portion; a treatment element (320; 321) positioned on the distal portion of the shaft, said treatment element configured to treat the mucosal tissue; means for delivering a fluid into submucosal tissue to expand said submucosal tissue circumferentially to increase a target treatment area, the target treatment area including the mucosal tissue on the small intestine to be treated by the treatment element, and a vacuum port configured to bring the shaft and/or the treatment element (320; 321) in contact with the tissue; wherein the treatment element (320; 321) is configured to treat mucosal tissue on the small intestine; and wherein the treatment element (320; 321) comprises an expandable balloon including fluid at a temperature of 65°C to 90°C.
A medical device tracking system comprising: a surgical screw having a distal end and a proximal portion proximal to the distal end; a first component; a second component coupled with the first component to capture the proximal portion of the surgical screw; and a tracking device associated with the first component or the second component; wherein a portion of the surgical screw, which portion extends from the first component to the distal end and which portion is provided with an external thread, is completely exposed when the proximal portion of the surgical screw is captured by the first and second components; and wherein either or both of the first and second components are configured to be, at least in part, fractured or changed when the first and second components are decoupled so that separation between first and second components is detectable. a surgical screw having a distal end and a proximal portion proximal to the distal end; a first component; a second component coupled with the first component to capture the proximal portion of the surgical screw; and a tracking device associated with the first component or the second component; wherein a portion of the surgical screw, which portion extends from the first component to the distal end and which portion is provided with an external thread, is completely exposed when the proximal portion of the surgical screw is captured by the first and second components; and wherein either or both of the first and second components are configured to be, at least in part, fractured or changed when the first and second components are decoupled so that separation between first and second components is detectable.
Sealing element for sealing a building structure, in particular a wall, in the area of the surface of a structural element, in particular a pipe, protruding from a building structure, wherein the sealing element is formed at least substantially planar and has a sealing zone made of an elastic material for abutment against the structural element, wherein the sealing zone has a pass through zone for guiding the structural element through the sealing element, wherein the sealing zone has a thickened portion surrounding the pass through zone, wherein the thickened portion is dimensioned such that, when the structural element is guided through the sealing element, it is forcibly subjected to a deformation, characterized in that the sealing zone has a zone surrounded by the thickened portion, wherein the perimeter of the zone of the sealing zone surrounded by the thickened portion is smaller than the perimeter of the surface of the structural element against which the sealing zone abuts.
A passive compliance mechanism (10, 10'), comprising: a fixing member; a base installed on the fixing member, and comprising two notches and an elastic slice, wherein the two notches are arranged side by side, the elastic slice is arranged between the two notches and protruded externally from the base in a direction toward an outer periphery of the fixing member, a first end of the elastic slice is connected with the base, and a second end of the elastic slice is located near the outer periphery of the fixing member; and a stiffness adjustment assembly installed on the fixing member, and comprising: a linear guide installed on the fixing member and aligned with the elastic slice; a sliding block movably installed on the linear guide; and two stopping blocks fixedly disposed on the sliding block and synchronously moved with the sliding block, wherein the two stopping blocks are contacted with two opposite sides of the elastic slice to clamp the elastic slice, and a stiffness of the base is adjustable according to a clamped position of the elastic slice. a fixing member; a base installed on the fixing member, and comprising two notches and an elastic slice, wherein the two notches are arranged side by side, the elastic slice is arranged between the two notches and protruded externally from the base in a direction toward an outer periphery of the fixing member, a first end of the elastic slice is connected with the base, and a second end of the elastic slice is located near the outer periphery of the fixing member; and a stiffness adjustment assembly installed on the fixing member, and comprising: a linear guide installed on the fixing member and aligned with the elastic slice; a sliding block movably installed on the linear guide; and two stopping blocks fixedly disposed on the sliding block and synchronously moved with the sliding block, wherein the two stopping blocks are contacted with two opposite sides of the elastic slice to clamp the elastic slice, and a stiffness of the base is adjustable according to a clamped position of the elastic slice. a linear guide installed on the fixing member and aligned with the elastic slice; a sliding block movably installed on the linear guide; and two stopping blocks fixedly disposed on the sliding block and synchronously moved with the sliding block, wherein the two stopping blocks are contacted with two opposite sides of the elastic slice to clamp the elastic slice, and a stiffness of the base is adjustable according to a clamped position of the elastic slice.