mhurhangee/ep-ind-claims huggingface dataset:
A method for cleaning a filter element made of a porous material, the method comprising: - directing ultrasound by an ultrasonic element to the filter element, wherein the ultrasonic element is inside the filter element for cleaning the filter element, and - directing after at least 1 second from starting of the ultrasound an impulse to a filtrate reservoir causing filtrate inside the filtrate reservoir to be forced inside the filter element in order to remove particles from the surface of the filter element, wherein pressure of the impulse is between 4 to 8 times higher than the forward pressure and the reverse flux, measured in volume of the filtrate directed inside the filter element by the impulse per area time, caused by the impulse is at the minimum 2 to 8 times the feed flux, and wherein feeding of a liquid to be clarified to the filtering element is not interrupted during the cleaning of the filter element. - directing ultrasound by an ultrasonic element to the filter element, wherein the ultrasonic element is inside the filter element for cleaning the filter element, and - directing after at least 1 second from starting of the ultrasound an impulse to a filtrate reservoir causing filtrate inside the filtrate reservoir to be forced inside the filter element in order to remove particles from the surface of the filter element, wherein pressure of the impulse is between 4 to 8 times higher than the forward pressure and the reverse flux, measured in volume of the filtrate directed inside the filter element by the impulse per area time, caused by the impulse is at the minimum 2 to 8 times the feed flux, and wherein feeding of a liquid to be clarified to the filtering element is not interrupted during the cleaning of the filter element.
A method, comprising: identifying, by a first network device, a Media Access Control Security, MACsec, session between the first network device and a second network device, wherein the MACsec session utilizes a connectivity association key, CAK; determining, by the first network device and using a key derivation function, KDF, and one or more KDF input parameters, an additional CAK; encrypting, by the first network device, at least one of the one or more KDF input parameters or KDF identification information that identifies the KDF and the one or more KDF input parameters to generate encrypted KDF input information; sending, by the first network device and to the second network device, a first message that includes the encrypted KDF input information; receiving, by the first network device, from the second network device, and based on sending the first message, a second message that includes a checksum value; determining, by the first network device and based on the checksum value, that the second network device has determined the additional CAK; and communicating, by the first network device and with the second network device, to cause the MACsec session to utilize the additional CAK. identifying, by a first network device, a Media Access Control Security, MACsec, session between the first network device and a second network device, wherein the MACsec session utilizes a connectivity association key, CAK; determining, by the first network device and using a key derivation function, KDF, and one or more KDF input parameters, an additional CAK; encrypting, by the first network device, at least one of the one or more KDF input parameters or KDF identification information that identifies the KDF and the one or more KDF input parameters to generate encrypted KDF input information; sending, by the first network device and to the second network device, a first message that includes the encrypted KDF input information; receiving, by the first network device, from the second network device, and based on sending the first message, a second message that includes a checksum value; determining, by the first network device and based on the checksum value, that the second network device has determined the additional CAK; and communicating, by the first network device and with the second network device, to cause the MACsec session to utilize the additional CAK.
A user interface access control system for controlling access to a plurality of user interfaces for atmosphere control with an atmosphere creation system including a lighting system, which is provided to create atmospheres including a lighting scene in an environment, wherein the user interface access control system comprises: a plurality of user interfaces; a plurality of access control codes (14, 16), wherein each access control code of the plurality of access control codes is assigned to a respective one of the plurality of user interfaces; and a user interface access control means (18, 20) being adapted to, for each user interface of said plurality of user interfaces, receive a corresponding access control code of the plurality of access control codes and to access the user interface assigned to the corresponding access control code, wherein each user interface of the plurality of user interfaces is adapted to provide a dedicated degree of controllability of the lighting scene, each user interface offering more or less selectable lighting scenes and controls for creating and adjusting different lighting scenes in the environment, wherein the plurality of user interfaces include at least a first user interface containing controls for selecting different lighting scenes for the environment and a first degree of controls for adjusting a selected lighting scene in the environment, and a second user interface containing controls for selecting different lighting scenes for the environment and a second degree, different from the first degree, of controls for adjusting a selected lighting scene in the environment. a plurality of user interfaces; a plurality of access control codes (14, 16), wherein each access control code of the plurality of access control codes is assigned to a respective one of the plurality of user interfaces; and a user interface access control means (18, 20) being adapted to, for each user interface of said plurality of user interfaces, receive a corresponding access control code of the plurality of access control codes and to access the user interface assigned to the corresponding access control code, wherein each user interface of the plurality of user interfaces is adapted to provide a dedicated degree of controllability of the lighting scene, each user interface offering more or less selectable lighting scenes and controls for creating and adjusting different lighting scenes in the environment, wherein the plurality of user interfaces include at least a first user interface containing controls for selecting different lighting scenes for the environment and a first degree of controls for adjusting a selected lighting scene in the environment, and a second user interface containing controls for selecting different lighting scenes for the environment and a second degree, different from the first degree, of controls for adjusting a selected lighting scene in the environment.
A method of supporting security context setup in a wireless communication network, the method comprising initiating, by a radio access network, RAN, element of the wireless communication network, Access Stratum, AS, security context setup for a first Radio Access Technology, RAT, and a second RAT in a common signaling procedure, wherein the RAN element corresponds to the RAN element implementing the first RAT and is different from a RAN element implementing the second RAT, wherein the step of initiating the AS security context setup comprises transmitting, by a core network, CN, element via the RAN element, a single common Non-Access Stratum, NAS, security mode command message for the first RAT and the second RAT to a wireless communication device of the wireless communication network.
Divider conveyor comprising an endless belt of parallel interconnected elements arranged around at least two opposite end rollers (2, 3), wherein the two opposite end rollers (2, 3) are axially displaceable relative to each other between two end positions characterized by at least one side guide (5, 6) for guiding the interconnected elements between the two rollers (2, 3), wherein the at least one side guide (5, 6) is arranged under an angle relative to the axis of the rollers (2, 3), wherein the sides (12, 13), adjacent the at least one side guide (5, 6), of the interconnected elements are angled parallel to the at least one guide (5, 6) in one of the two end positions.
A method for analyzing lipoproteins, comprising the steps of: detecting concentrations of total cholesterol (Cho) and triglyceride in lipoproteins contained in a subject sample, for each fraction generated depending on particle size of the lipoproteins, and calculating a concentration of cholesterol ester or free cholesterol using the concentrations of total cholesterol and triglyceride for each fraction, wherein the calculation of the concentration of cholesterol ester or free cholesterol is performed using a modelled relationship among the concentrations of total cholesterol, triglyceride, and cholesterol ester or free cholesterol and wherein the modeled relationship is expressed by at least one of the following formulae: y = b 1 / x + b 0, y = b 1 x ′ + b 0, and y ′ = b 2 × x " 2 + b 1 ′ × x " + b 0 ′ wherein: x is Cho / (Cho + TG), y is CE / Cho, b 1 is a coefficient obtained by statistical fitting based on actual values from individuals, b 0 is a constant obtained by statistical fitting based on actual values from individuals, Cho is the concentration of total cholesterol, TG is the concentration of triglyceride, CE is the concentration of cholesterol ester or free cholesterol, x' is (Cho + TG) / Cho, x" is Cho / (TG + Cho) × 100, y' is CE / (TG + CE) × 100, b 2 is a coefficient obtained by statistical fitting based on actual values from individuals, b 1 ' is a coefficient obtained by statistical fitting based on actual values from individuals, and b 0 ' is a constant obtained by statistical fitting based on actual values from individuals. detecting concentrations of total cholesterol (Cho) and triglyceride in lipoproteins contained in a subject sample, for each fraction generated depending on particle size of the lipoproteins, and calculating a concentration of cholesterol ester or free cholesterol using the concentrations of total cholesterol and triglyceride for each fraction, wherein the calculation of the concentration of cholesterol ester or free cholesterol is performed using a modelled relationship among the concentrations of total cholesterol, triglyceride, and cholesterol ester or free cholesterol and x is Cho / (Cho + TG), y is CE / Cho, b 1 is a coefficient obtained by statistical fitting based on actual values from individuals, b 0 is a constant obtained by statistical fitting based on actual values from individuals, Cho is the concentration of total cholesterol, TG is the concentration of triglyceride, CE is the concentration of cholesterol ester or free cholesterol, x' is (Cho + TG) / Cho, x" is Cho / (TG + Cho) × 100, y' is CE / (TG + CE) × 100, b 2 is a coefficient obtained by statistical fitting based on actual values from individuals, b 1 ' is a coefficient obtained by statistical fitting based on actual values from individuals, and b 0 ' is a constant obtained by statistical fitting based on actual values from individuals.
A micro robot comprising: a drilling body which has a drilling tip formed at an end thereof; and a spiral coupling body which has a magnet disposed therein, and is spirally coupled to an outer circumference of the drilling body, and wherein a medicine accommodating space, which has a hollow shape and accommodates a medicine, is formed in the drilling body. a drilling body which has a drilling tip formed at an end thereof; and a spiral coupling body which has a magnet disposed therein, and is spirally coupled to an outer circumference of the drilling body, and wherein a medicine accommodating space, which has a hollow shape and accommodates a medicine, is formed in the drilling body.
Use of a viscosity modifier comprising a copolymer having units derived from monomers of (i) an α-olefin and (ii) an ethylenically unsaturated carboxylic acid or derivatives thereof esterified with an alcohol for improving at least one of wear control as determined by ASTM D4172, load carrying capacity as determined by ASTM D2783 and traction reduction as determined by Mini-Traction Machine (MTM, Ball-on-Disc apparatus) in a driveline device lubricated with a lubricating composition as compared to at least one of wear control, load carrying capacity and traction reduction achieved with a lubricating composition containing a viscosity modifier other than said viscosity modifier copolymer, at an equal or lower kinematic viscosity (Kv@100°C), said lubricating composition comprising comprising: a first base stock component comprising one or more metallocene catalyzed polyalphaolefins (mPAOs), each mPAO having a kinematic viscosity (Kv 100) from 40 cSt to 155 cSt and a viscosity index from 150 to 207; and a second base stock comprising one or more polyalphaolefins (PAOs), each PAO having a kinematic viscosity (Kv 100) less than 10 cSt and a VI from 130 to 145. a first base stock component comprising one or more metallocene catalyzed polyalphaolefins (mPAOs), each mPAO having a kinematic viscosity (Kv 100) from 40 cSt to 155 cSt and a viscosity index from 150 to 207; and a second base stock comprising one or more polyalphaolefins (PAOs), each PAO having a kinematic viscosity (Kv 100) less than 10 cSt and a VI from 130 to 145.
An energy storage element comprising: a positive electrode including a substance that occludes and releases lithium ions, a negative electrode including a substance that occludes and releases lithium ions, and a non-aqueous electrolyte, wherein the non-aqueous electrolyte contains: lithium difluorobis(oxalato)phosphate that is a first additive represented by Formula: and lithium tetrafluorooxalatophosphate that is a second additive represented by Formula: and an amount of the first additive to be added is not less than 0.3% by weight and not more than 1.0% by weight based on a total weight of the non-aqueous electrolyte, and an amount of the second additive to be added is not less than 0.05 times and not more than 0.3 times the amount of the first additive to be added, wherein the negative electrode includes a non-graphitizable carbon having an average particle size D50 of 6 μm or less as a negative electrode active material. lithium difluorobis(oxalato)phosphate that is a first additive represented by Formula: and lithium tetrafluorooxalatophosphate that is a second additive represented by Formula: and an amount of the first additive to be added is not less than 0.3% by weight and not more than 1.0% by weight based on a total weight of the non-aqueous electrolyte, and an amount of the second additive to be added is not less than 0.05 times and not more than 0.3 times the amount of the first additive to be added, wherein the negative electrode includes a non-graphitizable carbon having an average particle size D50 of 6 μm or less as a negative electrode active material.
An optical pattern generator for generating an optical pattern, the optical pattern generator comprising a light source that delivers an incident optical beam; a rotatable component rotating about a rotation axis, the rotatable component comprising a plurality of deflection sectors (8a, 8b, 8c) arranged around the rotation axis, where each deflection sector (8a, 8b, 8c) comprises at least two reflective surfaces (2,3) that in combination deflect the incident optical beam by a constant angular deflection to generate the optical pattern as the deflection sector (8a, 8b, 8c) rotates through the incident optical beam and at least two of the deflection sectors (8a, 8b, 8c) deflect the incident optical beam by a different constant angular deflection to generate the respective optical patterns at different locations.
A solenoid valve comprising a valve sleeve, inside of which a spool is movably arranged in an axial direction, and a solenoid portion mounted on an axial end of said valve sleeve to give a force for moving said spool in the axial direction, wherein a plurality of ports (51, 52, 53, 54) is formed on said valve sleeve to properly communicate to an internal flow passage internally formed in the valve sleeve, the plurality of ports (51, 52, 53, 54) includes at least an outlet port, a control port, an input port and a feedback port, the control port and the feedback port are communicated with each other outside the solenoid valve, an anterior end of the spool comes into contact with a spring along the axial direction, a posterior end of the spool comes into contact with a rod along the axial direction, the spool is adapted to receive a pressure of the spring and a pressure due to movement of a plunger via the rod in addition to a pressure based on a pressure of a control fluid from the feedback port, the spool is adapted to move in the axial direction so that the pressure of the spring, the force with which the plunger presses the spool due to an electromagnetic force of a magnetic field generated by current provided to a coil and the pressure that the spool receives due to the pressure of the control fluid from the feedback port come into balance with each other, a ring-shaped groove extending in circumferential direction is formed on an inner circumference surface of a valve seat of said valve sleeve, where said outlet port is formed, characterized in that a relation of S1>S0 is fulfilled in at least the outlet port, where S1 is defined as an opening area of a valve portion between said outlet port and said internal flow passage when said spool moves in the axial direction to maximally open the valve portion, and S0 is defined as a total flow passage cross-sectional area of said outlet port, wherein by moving said spool in the axial direction and blocking said ring-shaped groove with a first large-diameter portion formed on said spool, said valve portion is closed to block communication of said outlet port and said internal flow passage, and the opening area S1 can be expressed by π×D1×W max, where D1 is an outer diameter of the first large-diameter portion, and Wmax is the maximum value of a distance between the posterior end of the first large-diameter portion and the posterior end side face of the ring-shaped groove.
A method for assigning information related to a demodulation, DM, reference signal, RS associated with transmission of physical uplink shared channel, PUSCH, or physical uplink control channel, PUCCH, in a communication system, wherein a base station, BS, transmits in Physical Downlink Control Channels, PDCCHs, a respective set of Downlink Control Information, DCI, formats to a plurality of User Equipments, UEs, the method comprising the steps of: indicating, by the BS, through an RS Configuration, RSC, Information Element, IE, included in a first DCI format from a subset of a set of DCI formats, a first Cyclic Shift, CS, and a first Orthogonal Cover Code, OCC, for the first RS transmission by a first UE; and indicating, by the BS, through an RSC IE in a second DCI format from a subset of the set of DCI formats, a second, different CS and a second, different OCC for the second RS transmission by a second UE, wherein each DCI format from a subset of the set of DCI formats includes IEs configuring data and RS transmissions from the plurality of UEs to the BS, and the IEs include an RSC IE for an RS transmission by a UE. indicating, by the BS, through an RS Configuration, RSC, Information Element, IE, included in a first DCI format from a subset of a set of DCI formats, a first Cyclic Shift, CS, and a first Orthogonal Cover Code, OCC, for the first RS transmission by a first UE; and indicating, by the BS, through an RSC IE in a second DCI format from a subset of the set of DCI formats, a second, different CS and a second, different OCC for the second RS transmission by a second UE, wherein each DCI format from a subset of the set of DCI formats includes IEs configuring data and RS transmissions from the plurality of UEs to the BS, and the IEs include an RSC IE for an RS transmission by a UE.
Pipeline internal centering device for centering a first pipe relative to a second pipe, with (a) a centering unit for aligning the second pipe relative to the first pipe, the centering unit comprising - a first centering ring to be fixed into the first pipe and - a second centering ring to be fixed into a second pipe, wherein the first centering ring is coaxially aligned to the second centering ring, (b) a transport device for moving it along a longitudinal axis of the pipeline internal centering device, and characterised by: (c) a rotary device by means of which the pipeline internal centering device can be rotated about its longitudinal axis, wherein the centering unit can be moved independently of the rotary device. (a) a centering unit for aligning the second pipe relative to the first pipe, the centering unit comprising - a first centering ring to be fixed into the first pipe and - a second centering ring to be fixed into a second pipe, wherein the first centering ring is coaxially aligned to the second centering ring, - a first centering ring to be fixed into the first pipe and - a second centering ring to be fixed into a second pipe, wherein the first centering ring is coaxially aligned to the second centering ring, (b) a transport device for moving it along a longitudinal axis of the pipeline internal centering device,
A pressure sensitive adhesive sheet comprising, laminated in this order, a supporting substrate, a pressure sensitive adhesive layer, a continuous void-containing layer including a composition containing fine particles (excepting silica) with a median diameter, measured according to the description, of from 0,001 to 100 μm, and a pressure sensitive adhesive layer, the continuous void-containing layer having a mass concentration of the fine particles of from 45 to 100%.
A method in a satellite communication system, the method comprising: instructing, by a satellite gateway over an outroute channel, a plurality of selected terminals (14a-f) to measure the signal to interference-plus-noise ratio, SINR, of a plurality of targeted inroute frequency channels, IFCs; measuring by the selected terminals (14a-f) the SINR of the plurality of targeted IFCs; receiving, at the satellite gateway from the selected terminals (14a-f) over an inroute channel, the measured SINR of the plurality of targeted IFCs; determining, by the satellite gateway, SINR offset calibrations for the plurality of targeted IFCs based on the received SINR measurements; and transmitting, by the satellite gateway over an outroute channel, the SINR offset calibrations for the plurality of targeted IFCs to the terminals, wherein the determined SINR offset calibrations for the plurality of targeted IFCs is used by terminals to account for a difference in SINR when switching from one IFC to another IFC. instructing, by a satellite gateway over an outroute channel, a plurality of selected terminals (14a-f) to measure the signal to interference-plus-noise ratio, SINR, of a plurality of targeted inroute frequency channels, IFCs; measuring by the selected terminals (14a-f) the SINR of the plurality of targeted IFCs; receiving, at the satellite gateway from the selected terminals (14a-f) over an inroute channel, the measured SINR of the plurality of targeted IFCs; determining, by the satellite gateway, SINR offset calibrations for the plurality of targeted IFCs based on the received SINR measurements; and transmitting, by the satellite gateway over an outroute channel, the SINR offset calibrations for the plurality of targeted IFCs to the terminals, wherein the determined SINR offset calibrations for the plurality of targeted IFCs is used by terminals to account for a difference in SINR when switching from one IFC to another IFC.