mhurhangee/ep-ind-claims huggingface dataset:
A driving assembly comprising a driving member, the driving member comprising a body drilled with an axial bore in which a piston is translationally movably mounted, the anterior end of which is able to come out of the body, - the bore opening into a larger diameter housing which includes, at the intersection thereof with the bore, a frustroconical surface open towards its posterior part and tilted relative to the longitudinal axis (xx') of the bore by an angle (α) between 30° and 65°, - a sealing ring provided with a frustroconical anterior face being sleeved on the piston so that this frustroconical face bears against the frustroconical surface of the housing, - the piston having a head at its posterior end, - a compression spring being disposed between this head and the posterior face of the sealing ring, the driving assembly being characterised in that it includes a cylindrical housing in which the body is attached and which is in communication with a pressurised driving fluid supply duct, the depth (e) of this housing being such that, when the piston head is in contact with the bottom of the housing, the spring is in a compressed state. - the bore opening into a larger diameter housing which includes, at the intersection thereof with the bore, a frustroconical surface open towards its posterior part and tilted relative to the longitudinal axis (xx') of the bore by an angle (α) between 30° and 65°, - a sealing ring provided with a frustroconical anterior face being sleeved on the piston so that this frustroconical face bears against the frustroconical surface of the housing, - the piston having a head at its posterior end, - a compression spring being disposed between this head and the posterior face of the sealing ring, the driving assembly being characterised in that it includes a cylindrical housing in which the body is attached and which is in communication with a pressurised driving fluid supply duct, the depth (e) of this housing being such that, when the piston head is in contact with the bottom of the housing, the spring is in a compressed state.
A method for separating a multi-component fluid, comprising: introducing a multi-component fluid to a dividing wall column comprising a rectification section, a fractionating section and a stripping section, whereby the fractionating section is disposed between the rectification section and the stripping section and whereby the fractionating section is divided by a dividing wall disposed within the fractionating section providing a first fractionating zone and a second fractionating zone; heating the multi-component fluid to provide a first product, a second product, an intermediate distillate, and a process fluid, whereby the first product is removed from the rectification section, the second product is withdrawn from the second fractionating zone, the intermediate distillate is withdrawn from the stripping section and the process fluid is recovered from a bottom section of the stripping section; compressing at least a portion of the first product to provide a compressed first product; indirectly transferring heat from the compressed first product to at least a portion of the intermediate distillate to provide a heated intermediate distillate; recycling the heated intermediate distillate to the dividing wall column; and expanding the compressed first product to provide an expanded first product. introducing a multi-component fluid to a dividing wall column comprising a rectification section, a fractionating section and a stripping section, whereby the fractionating section is disposed between the rectification section and the stripping section and whereby the fractionating section is divided by a dividing wall disposed within the fractionating section providing a first fractionating zone and a second fractionating zone; heating the multi-component fluid to provide a first product, a second product, an intermediate distillate, and a process fluid, whereby the first product is removed from the rectification section, the second product is withdrawn from the second fractionating zone, the intermediate distillate is withdrawn from the stripping section and the process fluid is recovered from a bottom section of the stripping section; compressing at least a portion of the first product to provide a compressed first product; indirectly transferring heat from the compressed first product to at least a portion of the intermediate distillate to provide a heated intermediate distillate; recycling the heated intermediate distillate to the dividing wall column; and expanding the compressed first product to provide an expanded first product.
Anti-flooding hose comprising a safety valve for liquids, wherein the anti-flooding hose comprises: an inner pressurized water hose and an outer safety hose, coaxial to the inner hose for the entire length of the inner hose; the anti-flooding hose being connectable by an attachment to the water mains and being watertight towards the external environment up to an outlet end; the safety valve comprises a valve body, a shutter body in ferromagnetic material and a valve seat made in the valve body coaxial to said inner hose; the safety valve further comprises an outer permanent magnet, housed in a movable element, said movable element being sensitive to the flooding of a gap and hydraulically connected thereto; the movable element being positioned between the inner hose and the outer safety hose; the outer permanent magnet being made with magnetic interaction with said shutter body; wherein said movable element is positioned and slides on said valve body (6, 36) between an opening position, defined in its manufacture, and a closing position; the movable element being sensitive to the flooding of said gap and wherein the shutter body is held in the opening position with the precise positioning of the outer permanent magnet; said outer permanent magnet being housed on the movable element, the anti-flooding hose being characterized in that the shutter body remains positioned by the magnetic interaction on an axial abutment, housed inside the valve body (1, 31), against a thrust spring pre-loaded and housed coaxially with the axial abutment and the shutter body in the valve body (6, 36).
Turbomachine comprising - a stator with at least one stator component, with a guide vane component as a first one of the stator component and a stator ring as a second one of the stator component; - a rotor with at least one rotor component; - at least one working fluid channel for channeling a working fluid for driving the rotor, wherein the working fluid channel is bordered by the guide vane component and the rotor component, - a cavity located downstream of the guide vane component and upstream of the rotor component in respect of the flow of the working fluid in the working fluid channel, wherein - at least one heat shield is located in the cavity separating the cavity into a first cavity and a second cavity for reducing the working fluid ingress into the second cavity for protecting the stator ring and/or the rotor component from an erosive attack of the working fluid, characterized in that the heat shield is mechanically fixed between the stator ring and a guide vane component and the heat shield is a consumable. - a stator with at least one stator component, with a guide vane component as a first one of the stator component and a stator ring as a second one of the stator component; - a rotor with at least one rotor component; - at least one working fluid channel for channeling a working fluid for driving the rotor, wherein the working fluid channel is bordered by the guide vane component and the rotor component, - a cavity located downstream of the guide vane component and upstream of the rotor component in respect of the flow of the working fluid in the working fluid channel, wherein - at least one heat shield is located in the cavity separating the cavity into a first cavity and a second cavity for reducing the working fluid ingress into the second cavity for protecting the stator ring and/or the rotor component from an erosive attack of the working fluid, characterized in that the heat shield is mechanically fixed between the stator ring and a guide vane component and the heat shield is a consumable.
A method, comprising: a user equipment initiating an attach request and indicating the user equipment's device trigger capabilities in the device properties section of the request; a mobility management entity processing an attach procedure; the mobility management entity storing the received device trigger capabilities of the user equipment; the mobility management entity notifying a machine type communication interworking function of the device trigger capabilities; the machine type communication interworking function receiving from a machine type communication server, a request to trigger the user equipment; the machine type communication interworking function sending a device trigger request message to the mobility management entity; the mobility management entity triggering the user equipment upon receiving the device trigger message. a user equipment initiating an attach request and indicating the user equipment's device trigger capabilities in the device properties section of the request; a mobility management entity processing an attach procedure; the mobility management entity storing the received device trigger capabilities of the user equipment; the mobility management entity notifying a machine type communication interworking function of the device trigger capabilities; the machine type communication interworking function receiving from a machine type communication server, a request to trigger the user equipment; the machine type communication interworking function sending a device trigger request message to the mobility management entity; the mobility management entity triggering the user equipment upon receiving the device trigger message.
An imaging apparatus comprising: an image pickup device that includes a first pixel group which has a plurality of imaging pixels for photoelectric conversions of an object image formed by an imaging optical system, and a second pixel group which outputs a pair of image signals used to detect a focusing state of the imaging optical system; and a controller configured to calculate, based on the pair of image signals, a defocus amount indicative of a focusing state of the imaging optical system to the object whose image is formed on the focus detection area, and to selectively implement one of a first focus control of a phase difference detection method that utilizes an output of the second pixel group, or a combination of both a second focus control of a contrast detection method that utilizes an output of the first pixel group and a third focus control of a contrast detection method that utilizes an output of the second pixel group, based on the defocus amount of the imaging optical system wherein the controller is configured to implement the first focus control when the defocus amount is smaller than a threshold, and to implement the second and third focus controls when the defocus amount is larger than the threshold. an image pickup device that includes a first pixel group which has a plurality of imaging pixels for photoelectric conversions of an object image formed by an imaging optical system, and a second pixel group which outputs a pair of image signals used to detect a focusing state of the imaging optical system; and a controller configured to calculate, based on the pair of image signals, a defocus amount indicative of a focusing state of the imaging optical system to the object whose image is formed on the focus detection area, and to selectively implement one of a first focus control of a phase difference detection method that utilizes an output of the second pixel group, or a combination of both a second focus control of a contrast detection method that utilizes an output of the first pixel group and a third focus control of a contrast detection method that utilizes an output of the second pixel group, based on the defocus amount of the imaging optical system wherein the controller is configured to implement the first focus control when the defocus amount is smaller than a threshold, and to implement the second and third focus controls when the defocus amount is larger than the threshold.
An oxygen sensor comprising: a housing defining an interior space; a sensing electrode; a reference electrode; a counter electrode; a separator extending in a plane within the housing between the sensing electrode, the reference electrode, and the counter electrode, wherein the sensing electrode, the reference electrode, and the counter electrode are disposed in a planar arrangement in contact with an electrolyte retained by the separator, wherein the electrolyte provides an ionically conductive pathway between each of the sensing electrode, the reference electrode, and the counter electrode, within the housing, wherein the sensing electrode, the reference electrode, and the counter electrode are arranged in series on the conductive pathway, with the sensing electrode and the counter electrode at the ends of the conductive pathway; and a chamber within the housing, wherein the chamber contains the sensing electrode, wherein the chamber comprises an opening, and wherein the separator extends into the chamber and substantially fills the opening; characterized in that the conductive pathway does not extend in a straight line, and in that a shorter path is not present between the sensing electrode and the counter electrode than between either of the sensing electrode and the counter electrode and the reference electrode. a housing defining an interior space; a sensing electrode; a reference electrode; a counter electrode; a separator extending in a plane within the housing between the sensing electrode, the reference electrode, and the counter electrode, wherein the sensing electrode, the reference electrode, and the counter electrode are disposed in a planar arrangement in contact with an electrolyte retained by the separator, wherein the electrolyte provides an ionically conductive pathway between each of the sensing electrode, the reference electrode, and the counter electrode, within the housing, wherein the sensing electrode, the reference electrode, and the counter electrode are arranged in series on the conductive pathway, with the sensing electrode and the counter electrode at the ends of the conductive pathway; and a chamber within the housing, wherein the chamber contains the sensing electrode, wherein the chamber comprises an opening, and wherein the separator extends into the chamber and substantially fills the opening; characterized in that the conductive pathway does not extend in a straight line, and in that a shorter path is not present between the sensing electrode and the counter electrode than between either of the sensing electrode and the counter electrode and the reference electrode.
A hydrogenated branched conjugated diene copolymer prepared by copolymerizing a branched conjugated diene compound represented by the general formula: wherein R 1 is an aliphatic hydrocarbon having 6 to 11 carbon atoms, a conjugated diene compound represented by the general formula: wherein R 2 and R 3 are the same or different and each is a hydrogen atom, an aliphatic hydrocarbon group having 1 to 3 carbon atoms or a halogen atom, and a vinyl compound represented by the general formula or α-methylstyrene: wherein R 4 is a hydrogen atom, an aliphatic hydrocarbon group having 1 to 3 carbon atoms, an alicyclic hydrocarbon group having 3 to 8 carbon atoms, or an aromatic hydrocarbon group having 6 to 10 carbon atoms, and then hydrogenating the resulting copolymer, wherein a copolymerization ratio of the branched conjugated diene compound is 1 to 99% by weight, a copolymerization ratio (m) of the conjugated diene compound is 99 to more than 0% by weight, and a copolymerization ratio (n) of the vinyl compound is 99 to more than 0% by weight, wherein the total of, (m) and (n) is 100% by weight, and wherein the branched conjugated diene compound is farnesene.
A method for providing credential gathering requirements for gathering credentials from a user, the method comprising: (a) receiving, by an agent executing on a client, authentication implementation information from a device intermediary to the client and one or more servers, the authentication implementation information identifying an authentication scheme, an authenticator and one or more parameters for authenticating via the authenticator, the authentication scheme comprising credential gathering requirements that identify a credential type and an input field type, the agent designed to be configurable such that the agent does not perform any specific authentication scheme until configured to do so; (b) obtaining, by the agent, the one or more parameters of the authentication implementation information to perform the identified authentication scheme, and performing, by the agent, the identified authentication scheme using the one or more parameters; (c) generating, by the agent, a user interface of the identified authentication scheme, that executes on the client and displays a user interface element corresponding to the identified input field type, to receive as input a credential identified by the credential type; and (d) transmitting, by the agent to the identified authenticator for authentication, the credential received from the user via the user interface element. (a) receiving, by an agent executing on a client, authentication implementation information from a device intermediary to the client and one or more servers, the authentication implementation information identifying an authentication scheme, an authenticator and one or more parameters for authenticating via the authenticator, the authentication scheme comprising credential gathering requirements that identify a credential type and an input field type, the agent designed to be configurable such that the agent does not perform any specific authentication scheme until configured to do so; (b) obtaining, by the agent, the one or more parameters of the authentication implementation information to perform the identified authentication scheme, and performing, by the agent, the identified authentication scheme using the one or more parameters; (c) generating, by the agent, a user interface of the identified authentication scheme, that executes on the client and displays a user interface element corresponding to the identified input field type, to receive as input a credential identified by the credential type; and (d) transmitting, by the agent to the identified authenticator for authentication, the credential received from the user via the user interface element.
A method, comprising: sending, from a master node device, a secondary node, SN,-Addition-Request message to a secondary node device, wherein the SN-Addition-Request message includes a list of secondary cell group, SCG, bearers to be configured in the secondary node device and a maximum allowed quality of service, QoS, level for at least one configuration for a split bearer; receiving, at the master node device from the secondary node device, an SN-Addition-Response message based on the SN-Addition-Request message, wherein the SN-Addition-Response message includes at least one configuration for the_split bearer and a secondary configuration that corresponds to at least one of a release of the split bearer and a configuration with a suggested quality of service, QoS, level; determining whether the master node device is able to allocate resources for the at least one configuration for the split bearer; sending, to at least one user equipment, a long term evolution radio resource control, LTE RRC, message based on the determination whether the master node device is able to allocate resources for the at least one configuration for the split bearer; and sending an SN reconfiguration complete message to the secondary node device. sending, from a master node device, a secondary node, SN,-Addition-Request message to a secondary node device, wherein the SN-Addition-Request message includes a list of secondary cell group, SCG, bearers to be configured in the secondary node device and a maximum allowed quality of service, QoS, level for at least one configuration for a split bearer; receiving, at the master node device from the secondary node device, an SN-Addition-Response message based on the SN-Addition-Request message, wherein the SN-Addition-Response message includes at least one configuration for the_split bearer and a secondary configuration that corresponds to at least one of a release of the split bearer and a configuration with a suggested quality of service, QoS, level; determining whether the master node device is able to allocate resources for the at least one configuration for the split bearer; sending, to at least one user equipment, a long term evolution radio resource control, LTE RRC, message based on the determination whether the master node device is able to allocate resources for the at least one configuration for the split bearer; and sending an SN reconfiguration complete message to the secondary node device.
A method for reducing quantization errors of at least one signal among a plurality of signals and noise, the plurality of signals including at least one other known signal, comprising: transmitting the plurality of signals via a wireless interface of a serving device; wherein the method is characterised by the serving device receiving information via the wireless interface, the information being indicative of an estimated network load based on a measured first attribute; comparing, by the serving device, the information against more than one threshold value, the more than one threshold values each corresponding to an amount of an adjustment of transmission power; determining, by the serving device, an amount of adjustment required of the transmission power for at least one but not all of the plurality of signals based on the comparison; and adjusting, by the serving device, the transmission power by the determined amount of at least one but not all of the plurality of signals. transmitting the plurality of signals via a wireless interface of a serving device; wherein the method is characterised by the serving device receiving information via the wireless interface, the information being indicative of an estimated network load based on a measured first attribute; comparing, by the serving device, the information against more than one threshold value, the more than one threshold values each corresponding to an amount of an adjustment of transmission power; determining, by the serving device, an amount of adjustment required of the transmission power for at least one but not all of the plurality of signals based on the comparison; and adjusting, by the serving device, the transmission power by the determined amount of at least one but not all of the plurality of signals.