mhurhangee/ep-ind-claims huggingface dataset:
A system for enabling a User Equipment, UE, to roam to a visited IP Multimedia Subsystem, IMS, based network from a home network that does not have an IMS infrastructure, said system characterized by: an Intelligent Roaming Application Server, I-RAS, in the visited IMS-based network, said I-RAS comprising: means for receiving a first registration request message originated by the UE, said first registration request message including a SIP Uniform Resource Identifier, SIP URI, designated for identifying UEs visiting from home networks that do not have an IMS infrastructure; means for sending a rejection message to the UE in response to detecting the SIP URI, said rejection message including a temporary SIP URI for use while roaming in the visited IMS-based network; means for receiving a second registration request message originated by the UE, said second registration request message including the temporary SIP URI; means (97, 121) for registering the visiting UE in response to detecting the temporary SIP URI; and means (98, 121) for performing an update location procedure with the UE's home network. an Intelligent Roaming Application Server, I-RAS, in the visited IMS-based network, said I-RAS comprising: means for receiving a first registration request message originated by the UE, said first registration request message including a SIP Uniform Resource Identifier, SIP URI, designated for identifying UEs visiting from home networks that do not have an IMS infrastructure; means for sending a rejection message to the UE in response to detecting the SIP URI, said rejection message including a temporary SIP URI for use while roaming in the visited IMS-based network; means for receiving a second registration request message originated by the UE, said second registration request message including the temporary SIP URI; means (97, 121) for registering the visiting UE in response to detecting the temporary SIP URI; and means (98, 121) for performing an update location procedure with the UE's home network. means for receiving a first registration request message originated by the UE, said first registration request message including a SIP Uniform Resource Identifier, SIP URI, designated for identifying UEs visiting from home networks that do not have an IMS infrastructure; means for sending a rejection message to the UE in response to detecting the SIP URI, said rejection message including a temporary SIP URI for use while roaming in the visited IMS-based network; means for receiving a second registration request message originated by the UE, said second registration request message including the temporary SIP URI; means (97, 121) for registering the visiting UE in response to detecting the temporary SIP URI; and means (98, 121) for performing an update location procedure with the UE's home network.
Piston of an internal combustion engine, designed as a liquid-cooled piston, composed of a piston lower part and of a piston upper part which has a combustion chamber depression, which piston lower part and piston upper part are supported and joined together by means of joining webs (2, 3) which are radially spaced apart from one another and which form a parting plane, wherein, in the piston upper part, there is formed a ring-shaped cooling channel which extends into the piston lower part and which is connected via connecting channels to an internal cooling chamber and which has recesses which are oriented in the direction of a piston crown and which are formed as blind holes and which form cooling chambers, characterized in that the recesses are designed to conically widen proceeding from the cooling channel to a recess base of the respective recess.
A method for controlling processing of a signal transmitted by a radio transmitter of a radio access node, comprising: receiving feedback information that indirectly characterizes performance of an output signal of the radio transmitter based on measurement of a feedback signal generated by the radio transmitter from the output signal; the method being further characterized by: adjusting processing of an input signal to the radio transmitter based on the received feedback information, as needed, to maintain a prioritized performance metric in long-term compliance with a corresponding first threshold associated with a defined performance level of the output signal, while tolerating a certain duration and extent of short-term non-compliance of a non-prioritized performance metric with a corresponding second threshold. receiving feedback information that indirectly characterizes performance of an output signal of the radio transmitter based on measurement of a feedback signal generated by the radio transmitter from the output signal; the method being further characterized by: adjusting processing of an input signal to the radio transmitter based on the received feedback information, as needed, to maintain a prioritized performance metric in long-term compliance with a corresponding first threshold associated with a defined performance level of the output signal, while tolerating a certain duration and extent of short-term non-compliance of a non-prioritized performance metric with a corresponding second threshold. adjusting processing of an input signal to the radio transmitter based on the received feedback information, as needed, to maintain a prioritized performance metric in long-term compliance with a corresponding first threshold associated with a defined performance level of the output signal, while tolerating a certain duration and extent of short-term non-compliance of a non-prioritized performance metric with a corresponding second threshold.
A fabric heater, comprising: a piece of fabric that is formed by twist-braiding a plurality of loop portions (21; 5, 21) with each other, the plurality of loop portions (21; 5, 21) being formed by coupling with a conductive thread; and electrodes that are formed by at least one electrode thread (31, 35) and by spacing from each other; characterized in that the conductive thread has: a core formed by a fiber; and a conductive layer or a conductive foil that covers a surface of the core; and the electrodes comprises: a first electrode thread that has a twisted thread of relatively thin copper around an outer of a core; and a second electrode thread that has a twisted thread of relatively thick copper around an outer of a core, and the first electrode thread is braided from one side of the piece of fabric, and the second electrode thread is braided from another side of the piece of fabric. a piece of fabric that is formed by twist-braiding a plurality of loop portions (21; 5, 21) with each other, the plurality of loop portions (21; 5, 21) being formed by coupling with a conductive thread; and electrodes that are formed by at least one electrode thread (31, 35) and by spacing from each other; characterized in that the conductive thread has: a core formed by a fiber; and a conductive layer or a conductive foil that covers a surface of the core; and a core formed by a fiber; and a conductive layer or a conductive foil that covers a surface of the core; and the electrodes comprises: a first electrode thread that has a twisted thread of relatively thin copper around an outer of a core; and a second electrode thread that has a twisted thread of relatively thick copper around an outer of a core, and a first electrode thread that has a twisted thread of relatively thin copper around an outer of a core; and a second electrode thread that has a twisted thread of relatively thick copper around an outer of a core, and the first electrode thread is braided from one side of the piece of fabric, and the second electrode thread is braided from another side of the piece of fabric.
Lighting system for providing light in a room comprising; first illuminating means; a first control unit configured to control the light emitted from the first illuminating means and further configured to receive wireless control communication from a mobile device after being paired with said mobile device; wherein the lighting system further comprises a sensor for detecting presence in the room and for being communicatively connected to said control unit; and characterised in that said control unit is configured to only allow pairing of the mobile device to said control unit during a predetermined time following a detection of presence in the room by said sensor.
An X-ray system, comprising: a. a source providing an X-ray diverging beam having treatment and imaging angular portions; b. one or more lenses (104a, 104b, 104c) transforming the treatment portion of the X-ray beam into a converging beam directed to a target for treating thereof;; c. a first shutter and a second shutter; the first and second shutters (208, 210) located between the X-ray source and the target in the imaging and treating portions of the X-ray radiation, respectively; the first and second shutters (208, 210) being selectively openable such that imaging and treating portions of X-ray beam reach the target; and d. a detector configured to detect at least a portion of the imaging radiation after the imaging radiation has interacted with the target to provide imaging information of the target characterized in that the first shutter is located in a direct path between the X-Ray source and the target; the second shutter is placed in the path between the X-ray source and the one or more lenses (104a, 104b, 104c) so as to block or attenuate the radiation that would normally reach the lenses (104a, 104b, 104c) or the second shutter is located between the one or more lenses and the target; each of the first and second shutters (208, 210) have open and closed positions and cooperatively configured to be controlled independently from one another to enable simultaneous or time-multiplexed operation of the first and second shutters (208, 210), respectively. a. a source providing an X-ray diverging beam having treatment and imaging angular portions; b. one or more lenses (104a, 104b, 104c) transforming the treatment portion of the X-ray beam into a converging beam directed to a target for treating thereof;; c. a first shutter and a second shutter; the first and second shutters (208, 210) located between the X-ray source and the target in the imaging and treating portions of the X-ray radiation, respectively; the first and second shutters (208, 210) being selectively openable such that imaging and treating portions of X-ray beam reach the target; and d. a detector configured to detect at least a portion of the imaging radiation after the imaging radiation has interacted with the target to provide imaging information of the target characterized in that the first shutter is located in a direct path between the X-Ray source and the target; the second shutter is placed in the path between the X-ray source and the one or more lenses (104a, 104b, 104c) so as to block or attenuate the radiation that would normally reach the lenses (104a, 104b, 104c) or the second shutter is located between the one or more lenses and the target; each of the first and second shutters (208, 210) have open and closed positions and cooperatively configured to be controlled independently from one another to enable simultaneous or time-multiplexed operation of the first and second shutters (208, 210), respectively.
A radiation shielding method comprising: installing a hollow container at a predetermined portion of an object to be shielded; feeding fluid into the container via a feeding hose; supplying a shielding material to the feeding hose and transporting and filling a granular shielding material into the container by the fluid; extracting the shielding material filled in the container from the container together with fluid discharged to outside of the container via a returning hose, while feeding fluid into the container via a feeding hose, in a state that the shielding material is filled in the container; and recovering the shielding material from the fluid, wherein extracting the shielding material filled in the container from the container includes injecting the fluid which is fed from the feeding hose to the returning hose, from an injecting nozzle toward an inlet of a fetching member connected to the returning hose, said injecting nozzle and said fetching member being placed in the container. installing a hollow container at a predetermined portion of an object to be shielded; feeding fluid into the container via a feeding hose; supplying a shielding material to the feeding hose and transporting and filling a granular shielding material into the container by the fluid; extracting the shielding material filled in the container from the container together with fluid discharged to outside of the container via a returning hose, while feeding fluid into the container via a feeding hose, in a state that the shielding material is filled in the container; and recovering the shielding material from the fluid, wherein extracting the shielding material filled in the container from the container includes injecting the fluid which is fed from the feeding hose to the returning hose, from an injecting nozzle toward an inlet of a fetching member connected to the returning hose, said injecting nozzle and said fetching member being placed in the container.
Method for calculating an optimized trajectory (T_opt) of at least one component for transporting the component into a production machine and/or out of the production machine, wherein at least one optimization routine (Opt) is assigned to a simulation program, wherein the simulation program simulates an introduction of the component into the production machine and the removal therefrom, wherein a first trajectory is calculated using the simulation program on the basis of boundary conditions, a parameter (v), in particular the speed (v), being calculated from the first trajectory in the optimization routine (Opt), wherein a modified parameter (v') is ascertained by means of the optimization routine (Opt) and at least one further trajectory (Tw) is produced on the basis of the modified parameter (v'), wherein the further trajectory (Tw) is modified in a loop, wherein the loop comprises at least the following steps: - the further trajectory (Tw) being fitted to the boundary conditions and assigned to the optimization routine (Opt) in one step by means of the simulation program, - the parameter (v) being ascertained on the basis of the further trajectory (Tw) in one step, - the modified parameter (v') being ascertained on the basis of the parameter (v) in one step, - the further trajectory (Tw) being calculated on the basis of the modified parameter (v') and the further trajectory (Tw) being assigned to the stimulation program in one step, wherein the loop is run through until the modified parameter (v') reaches a predetermined value (v_ex) or an extremal value (v_ex), wherein the optimized trajectory (T_opt) is calculated from the extremal value (v ex) or the predetermined value (v_ex) and adapted to the boundary conditions with the simulation program, wherein the at least one component and the production machine are displayed in a 3D display, wherein the production machine and at least one component are presented in a three-dimensional virtual space with the aid of the 3D display, wherein at least the component is displayed moving along the optimized trajectory (T_opt). - the further trajectory (Tw) being fitted to the boundary conditions and assigned to the optimization routine (Opt) in one step by means of the simulation program, - the parameter (v) being ascertained on the basis of the further trajectory (Tw) in one step, - the modified parameter (v') being ascertained on the basis of the parameter (v) in one step, - the further trajectory (Tw) being calculated on the basis of the modified parameter (v') and the further trajectory (Tw) being assigned to the stimulation program in one step,
An external counter-wall structure for thermal-acoustic insulation of buildings, comprising: - a coating adapted to covcr the external wall of a building to increase its thermal and/or acoustic insulation features; - anchoring means of said coating to the external wall; - spacer means adapted to be placed between said coating and the external wall to maintain said coating spaced apart from the latter and define a first interspace; - a supporting frame for an outer covering, said supporting frame being placed on the opposite side of said coating with respect to said spacer means; wherein said anchoring means each comprise a plug adapted to be fixed in the outer wall of the building and a pin that can be inserted in said plug to protrude from the external wall, said pin being adapted to make a corresponding hole in said coating upon application by pressure of this latter on said anchoring means, wherein said pin comprises a threaded bar having a pointed free end for piercing said coating and said spacer means comprise a plurality of spacer blocks inserted on respective of said pins and screwed onto the threaded bars of the corresponding pins with adjustable depth to locally vary the distance of said coating from the external wall; characterized in that said coating is a multilayer coating, and said spacer blocks are adapted to be inserted in the holes made in said multilayer coating upon its application to said anchoring means. - a coating adapted to covcr the external wall of a building to increase its thermal and/or acoustic insulation features; - anchoring means of said coating to the external wall; - spacer means adapted to be placed between said coating and the external wall to maintain said coating spaced apart from the latter and define a first interspace; - a supporting frame for an outer covering, said supporting frame being placed on the opposite side of said coating with respect to said spacer means; wherein said anchoring means each comprise a plug adapted to be fixed in the outer wall of the building and a pin that can be inserted in said plug to protrude from the external wall, said pin being adapted to make a corresponding hole in said coating upon application by pressure of this latter on said anchoring means, wherein said pin comprises a threaded bar having a pointed free end for piercing said coating and said spacer means comprise a plurality of spacer blocks inserted on respective of said pins and screwed onto the threaded bars of the corresponding pins with adjustable depth to locally vary the distance of said coating from the external wall; characterized in that said coating is a multilayer coating, and said spacer blocks are adapted to be inserted in the holes made in said multilayer coating upon its application to said anchoring means.
A laundry liquid composition comprising at least 50 % wt. water, an alkyl ether sulphate surfactant and an alcohol ethoxylate surfactant, wherein at least one of the alkyl ether sulphate and alcohol ethoxylate comprises at least 10% weight C16/18 alkyl chains and a dye, wherein the total amount of dye is from 0.00001 to 0.1 wt.%.
A method of monitoring component health, the method comprising locating an elevator rail, rope or belt health monitor on an elevator car or on another similarly movable component of an elevator system: moving the elevator rail, rope or belt health monitor over a scattering surface of the monitored component; emitting light (122a-122c) of various wavelengths toward the scattering surface from a light source (120a-120c) of the elevator rail, rope or belt health monitor; observing one or more responses of the scattering surface to the light of the various wavelengths at a detector (130a-130c) of the elevator rail, rope or belt health monitor; and identifying a condition of the scattering surface from the observed one or more responses of the scattering surface to the light of the various wavelengths (122a-122c). moving the elevator rail, rope or belt health monitor over a scattering surface of the monitored component; emitting light (122a-122c) of various wavelengths toward the scattering surface from a light source (120a-120c) of the elevator rail, rope or belt health monitor; observing one or more responses of the scattering surface to the light of the various wavelengths at a detector (130a-130c) of the elevator rail, rope or belt health monitor; and identifying a condition of the scattering surface from the observed one or more responses of the scattering surface to the light of the various wavelengths (122a-122c).
A method of oxidizing unburnts in a chemical looping combustion system, comprising: injecting a fuel into a fuel reactor of a chemical looping combustion system; injecting oxidized oxygen carriers into the fuel reactor; oxidizing the fuel with oxygen provided by the oxygen carriers; removing solids (48, 56) from a flue gas stream of the fuel reactor; transmitting the flue gas stream of the fuel reactor containing unburnts to a post oxidation reactor; injecting the oxidized oxygen carriers into the post oxidation reactor; oxidizing unburnts in the post oxidation reactor with oxygen provided by the oxygen carriers; separating the reduced oxygen carriers from a flue gas stream of the post oxidation reactor; transmitting the reduced oxygen carriers to an air reactor; oxidizing the reduced oxygen carriers in the presence of air injected in the air reactor; separating the oxidized oxygen carriers from a flue gas stream of the air reactor: transmitting the oxidized oxygen carriers to the post oxidation reactor and fuel reactor, characterized in: that the oxygen carriers are chemical looping oxygen uncoupling particles; transmitting a portion of the flue gas stream of the fuel reactor to a post oxidation chamber; transmitting the flue gas stream of the post oxidation reactor first to the post oxidation chamber; wherein unburnts present in the portion of the flue gas stream of the fuel reactor transmitted to the post oxidation chamber are oxidized by oxygen present in the flue gas stream of the post oxidation reactor. injecting a fuel into a fuel reactor of a chemical looping combustion system; injecting oxidized oxygen carriers into the fuel reactor; oxidizing the fuel with oxygen provided by the oxygen carriers; removing solids (48, 56) from a flue gas stream of the fuel reactor; transmitting the flue gas stream of the fuel reactor containing unburnts to a post oxidation reactor; injecting the oxidized oxygen carriers into the post oxidation reactor; oxidizing unburnts in the post oxidation reactor with oxygen provided by the oxygen carriers; separating the reduced oxygen carriers from a flue gas stream of the post oxidation reactor; transmitting the reduced oxygen carriers to an air reactor; oxidizing the reduced oxygen carriers in the presence of air injected in the air reactor; separating the oxidized oxygen carriers from a flue gas stream of the air reactor: transmitting the oxidized oxygen carriers to the post oxidation reactor and fuel reactor, characterized in: transmitting the oxidized oxygen carriers to the post oxidation reactor and fuel reactor, characterized in: that the oxygen carriers are chemical looping oxygen uncoupling particles; transmitting a portion of the flue gas stream of the fuel reactor to a post oxidation chamber; transmitting the flue gas stream of the post oxidation reactor first to the post oxidation chamber; wherein unburnts present in the portion of the flue gas stream of the fuel reactor transmitted to the post oxidation chamber are oxidized by oxygen present in the flue gas stream of the post oxidation reactor.