mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication system, comprising: a first base station device and a second base station device, the first base station device and the second base station device performing a dual connect-with a terminal device through a first cell and a second cell, respectively, wherein the first base station device transmits to the second base station device a dual connect request message regarding a change of a data path for user data of the terminal device, the second base station device being to be added; receives, from the second base station device, a dual connect response message, the dual connect response message being a response to the dual connect request message; and transmits, to the terminal device, a configuration message, the configuration message including information for data transmission control for the second cell, characterized in that the first base station device transmits, to a mobility management entity, a path change request message for the change of the data path. a first base station device and a second base station device, the first base station device and the second base station device performing a dual connect-with a terminal device through a first cell and a second cell, respectively, wherein the first base station device transmits to the second base station device a dual connect request message regarding a change of a data path for user data of the terminal device, the second base station device being to be added; receives, from the second base station device, a dual connect response message, the dual connect response message being a response to the dual connect request message; and transmits, to the terminal device, a configuration message, the configuration message including information for data transmission control for the second cell, characterized in that the first base station device transmits, to a mobility management entity, a path change request message for the change of the data path.
Method for regulating a switching converter having at least one switching element in a quasi-resonant operation, wherein the at least one switching element is switched in a regulated state of the switching converter at a predetermined stable switching frequency, and wherein switch-on points in time of the at least one switching element are predetermined by a switching signal that is generated owing to a sawtooth signal, which is influenced with a valley-identifying signal, reaching a switch-on threshold value, wherein owing to the valley-identifying signal a respective switch-on point in time of the at least one switching element falls in a valley of an oscillating voltage that is prevailing at the switched-off switching element, characterised in that a prevailing period duration of the switching signal is determined, that the determined prevailing period duration of the switching signal is compared with a predetermined reference period duration (Tref), that a control variable is derived from a comparison of the determined prevailing period duration with the reference period duration (Tref), and that in the case of a change in the load at the output of the switching converter by the control variable a gap between the sawtooth signal, which is influenced with the valley-identifying signal, and the switch-on threshold value is changed until with reference to the determined prevailing period duration it is ascertained that the predetermined stable switching frequency is reached.
Use as a refrigerant composition, of a composition comprising 1,3,3,3-tetrafluoropropene (HFO-1234ze) or 2,3,3,3-tetrafluoropropene (HFO-1234yf), and a lubricant selected from polyol esters and polyalkylene glycols.
A magnetic latching actuator operable to control the movement of a first contact (58, 60) between a closed position in which the first contact physically engages a second contact (32, 34) and an open position in which the first and second contacts (58, 60, 32, 34) are spaced from each other, comprising: a first permanent magnet positioned to create a first magnetic field having a first polarity; a second permanent magnet positioned relative to the first permanent magnet to create a second magnetic field having a second polarity opposite the first polarity; a magnet housing that receives and retains the first and second permanent magnets (118, 120); an actuation coil surrounding both the first and second permanent magnets wherein the actuation coil is operable to create an actuation magnetic field having either the first polarity or the second polarity; and a yoke positioned to surround at least a portion of the magnet housing and movable along the magnet housing relative to the first and second permanent magnets (118, 120) between a first position and a second position, wherein the yoke is held in the first position by the first permanent magnet and is held in the second position by the second permanent magnet. a first permanent magnet positioned to create a first magnetic field having a first polarity; a second permanent magnet positioned relative to the first permanent magnet to create a second magnetic field having a second polarity opposite the first polarity; a magnet housing that receives and retains the first and second permanent magnets (118, 120); an actuation coil surrounding both the first and second permanent magnets wherein the actuation coil is operable to create an actuation magnetic field having either the first polarity or the second polarity; and a yoke positioned to surround at least a portion of the magnet housing and movable along the magnet housing relative to the first and second permanent magnets (118, 120) between a first position and a second position, wherein the yoke is held in the first position by the first permanent magnet and is held in the second position by the second permanent magnet.
A method for crimping a first connector in a second connector, wherein the two connectors (4, 6) are pressed between first and second walls of a mold, these walls each having different shapes in zones following one another along a main axis of the connectors (4, 6), wherein, in cross-section perpendicular to the main axis, and in each of the zones, each wall is generally W-shaped, and wherein the second connector has ridges on an inner surface.
A fuel container comprises: a body for receiving fuel, the body has a handle and an inlet with a neck that extends upwards and is arranged at an angle with respect to an upper surface of the body and has a threaded collar (9A/B) which is closable by a threaded cap (6A/B), the length of the neck from its opening to the upper surface of the body defines a guide, for receiving and orienting a dog-leg part of a fuel dispenser nozzle in order to prevent the fuel dispenser nozzle from twisting when fully inserted in the neck; and a shoulder, defined by a junction with the material forming the handle and a throat region where the neck narrows, is provided and defines an end stop, against which the dog-leg nozzle rests when inserted in the neck; characterised in that the guide and the shoulder orient and locate the dog-leg part of the nozzle, at a preselected distance within the neck, so that an upper surface of liquid fuel dispensed in the container causes a Venturi shutoff mechanism to trigger at a predefined volume of dispensed fuel.
A transmission control method, comprising: obtaining interference information, wherein the interference information comprises first information used to represent a degree to which a first radar is interfered with on a first frequency band, and the interference information further comprises a quantity of radars that are interfered with on the first frequency band, characterized in that the interference information further comprises second information used to represent a degree to which the first radar is interfered with by another radar on a second frequency band, and the degree to which the first radar is interfered with on the second frequency band is higher than the degree to which the first radar is interfered with on the first frequency band; selecting the first frequency band as the next transmit frequency band; obtaining the interference information on the first frequency band, and determining first transmission duration of the first radar on the first frequency band based on the interference information on the first frequency band, wherein the interference information on the first frequency band is used to indicate a difference between the first transmission duration and initial transmission duration of the first radar, or the interference information on the first frequency band is used to indicate the first transmission duration. obtaining interference information, wherein the interference information comprises first information used to represent a degree to which a first radar is interfered with on a first frequency band, and the interference information further comprises a quantity of radars that are interfered with on the first frequency band, characterized in that the interference information further comprises second information used to represent a degree to which the first radar is interfered with by another radar on a second frequency band, and the degree to which the first radar is interfered with on the second frequency band is higher than the degree to which the first radar is interfered with on the first frequency band; selecting the first frequency band as the next transmit frequency band; obtaining the interference information on the first frequency band, and determining first transmission duration of the first radar on the first frequency band based on the interference information on the first frequency band, wherein the interference information on the first frequency band is used to indicate a difference between the first transmission duration and initial transmission duration of the first radar, or the interference information on the first frequency band is used to indicate the first transmission duration.
Exhaust assembly with an exhaust manifold connected with an exhaust gas inlet of a distributing housing, wherein an adjusting element is arranged in the distributing housing which is suitable for supplying exhaust gas to a low-pressure connection and/or a high-pressure connection of the distributing housing, wherein, on the high-pressure side, a high-pressure turbine housing of a high-pressure turbine is connected with the distributing housing, and, on the low-pressure side, a low-pressure turbine housing of a low-pressure turbine is connected with the distributing housing, and wherein a connecting channel at least partly runs through the distributing housing and connects a high-pressure exhaust gas outlet of the high-pressure turbine housing with a low-pressure exhaust gas inlet of the low-pressure turbine housing, wherein the distributing housing is a cast component, characterised in that inner and outer housings (19, 30; 23, 32) of the low-pressure and high-pressure turbine (13,15) are formed of metal shells, wherein the outer housings of the low-pressure and high-pressure turbine stage (13,15) are bonded to the outer housing of the exhaust manifold, wherein the outer housing (30, 32) of the low-pressure and high-pressure turbine (13, 15) embraces the outer housing of the exhaust manifold.
A process for preparing a collagen powder, the process comprising the steps of: (a) providing a collagen source; (b) adjusting the collagen source to a concentration of 1.5 - 4.0%; (c) adjusting the collagen source to a pH of 2.9 - 5.2 by introducing a carboxylic acid to the collagen source; (d) freezing the collagen source to a temperature of -33°C to -42°C; (e) dehydrating the frozen collagen, comprising removing the aqueous phase by reducing the pressure to 5 Pa to 100 Pa (0.05 mbar to 1 mbar); and (f) degrading the dehydrated collagen to a powder. (a) providing a collagen source; (b) adjusting the collagen source to a concentration of 1.5 - 4.0%; (c) adjusting the collagen source to a pH of 2.9 - 5.2 by introducing a carboxylic acid to the collagen source; (d) freezing the collagen source to a temperature of -33°C to -42°C; (e) dehydrating the frozen collagen, comprising removing the aqueous phase by reducing the pressure to 5 Pa to 100 Pa (0.05 mbar to 1 mbar); and (f) degrading the dehydrated collagen to a powder.
A cleaner head adapted for a curved fitting comprising at least one pair of arms each bearing a wiper at one end of the arm; characterised in that the other ends of the arms are pivotally mounted on a base and the or each pair of arms includes a co-operating surface slidable over a corresponding profiled surface on the base, the respective surfaces (1a, 3) being so shaped that application of an axial force along the arms urges the arms to move apart.
A method for manufacturing a plastic optical fiber, comprising: a processing step on a plastic optical fiber, wherein hot-wet treatment at a relative humidity of 35-100%RH, or hot water treatment, is conducted on a plastic optical fiber, processing temperature is set at 30-56°C, and processing time is set for 5-5000 hours. a processing step on a plastic optical fiber, wherein hot-wet treatment at a relative humidity of 35-100%RH, or hot water treatment, is conducted on a plastic optical fiber, processing temperature is set at 30-56°C, and processing time is set for 5-5000 hours.
A system for controlling a digital signal processor comprising: a memory having an address space addressable at address words, said address words having front edge word boundaries, a set of variable length instructions stored in said memory, said variable length instructions each having front edge instruction boundaries, wherein a first portion of said front edge instruction boundaries correspond to said front edge word boundaries, and a second portion of said front edge instruction boundaries are different than said front edge word boundaries, characterized in that the system further comprising an instruction fetch unit arranged to load one or more words of instruction data from the memory, the instruction data including at least one of the variable length instructions, and output selected bits of the instruction data dependent on the location in the address space of the instruction data next in line to be processed, and in that said variable length instructions contain headers indicating how long each variable length instruction is, said headers being conveyed to control logic of said instruction fetch unit. a memory having an address space addressable at address words, said address words having front edge word boundaries, a set of variable length instructions stored in said memory, said variable length instructions each having front edge instruction boundaries, wherein a first portion of said front edge instruction boundaries correspond to said front edge word boundaries, and a second portion of said front edge instruction boundaries are different than said front edge word boundaries, characterized in that the system further comprising an instruction fetch unit arranged to load one or more words of instruction data from the memory, the instruction data including at least one of the variable length instructions, and output selected bits of the instruction data dependent on the location in the address space of the instruction data next in line to be processed,
A method of operation of a network node in a cellular communications network to configure Channel State Information Reference Signal, CSI-RS, resources for a wireless device, comprising: configuring a set of CSI-RS resources for the wireless device; and dynamically configuring, for the wireless device, measurement purposes for a plurality of CSI-RS resources comprised in the set of CSI-RS resources configured for the wireless device, wherein the method is characterized in that for each CSI-RS resource in the plurality of CSI-RS resources, the measurement purpose of the CSI-RS resource is one of a group consisting of: a desired CSI-RS resource measurement purpose, an interfering CSI-RS resource measurement purpose, and an external interfering CSI-RS resource measurement purpose, and by further comprising: receiving a report of one or more preferred CSI-RS hypotheses selected by the wireless device from the set of CSI-RS resources according to the measurement purposes for the plurality of CSI-RS resources comprised in the set of CSI-RS resources configured for the wireless device. configuring a set of CSI-RS resources for the wireless device; and dynamically configuring, for the wireless device, measurement purposes for a plurality of CSI-RS resources comprised in the set of CSI-RS resources configured for the wireless device, wherein the method is characterized in that for each CSI-RS resource in the plurality of CSI-RS resources, the measurement purpose of the CSI-RS resource is one of a group consisting of: a desired CSI-RS resource measurement purpose, an interfering CSI-RS resource measurement purpose, and an external interfering CSI-RS resource measurement purpose, and by further comprising: receiving a report of one or more preferred CSI-RS hypotheses selected by the wireless device from the set of CSI-RS resources according to the measurement purposes for the plurality of CSI-RS resources comprised in the set of CSI-RS resources configured for the wireless device.
A Universal Serial Bus USB apparatus, comprising: - a signal detecting unit, for detecting a known signal transmitted from a USB host and generating an acknowledgment signal according to a detection result; - an error detecting unit, coupled to the signal detecting unit, for counting a period of the acknowledgement signal with an output clock signal and generating a control signal by comparing the period with a predetermined value; and - a frequency generating unit, coupled to the error detecting unit for generating the output clock signal according to the control signal, - wherein the frequency generating unit comprises: -- a reference clock generator for generating a reference clock signal; and characterized by -- a fractional-N frequency synthesizing unit coupled to the reference clock generator for calibrating the reference clock into the output clock signal according to the control signal. - a signal detecting unit, for detecting a known signal transmitted from a USB host and generating an acknowledgment signal according to a detection result; - an error detecting unit, coupled to the signal detecting unit, for counting a period of the acknowledgement signal with an output clock signal and generating a control signal by comparing the period with a predetermined value; and - a frequency generating unit, coupled to the error detecting unit for generating the output clock signal according to the control signal, - wherein the frequency generating unit comprises: -- a reference clock generator for generating a reference clock signal; and characterized by -- a fractional-N frequency synthesizing unit coupled to the reference clock generator for calibrating the reference clock into the output clock signal according to the control signal. -- a reference clock generator for generating a reference clock signal; and characterized by -- a fractional-N frequency synthesizing unit coupled to the reference clock generator for calibrating the reference clock into the output clock signal according to the control signal.
A semiconductor nanoparticle dispersion comprising: a plurality of semiconductor nanoparticles having a radius equal to or larger than an exciton Bohr radius, wherein the plurality of semiconductor nanoparticles include first particles having a first radius and second particles having a second radius, wherein the first radius of the first particles is equal to the exciton Bohr radius and the second radius of the second particles is larger than the exciton Bohr radius; and a solvent dispersed with the plurality of semiconductor nanoparticles. a plurality of semiconductor nanoparticles having a radius equal to or larger than an exciton Bohr radius, wherein the plurality of semiconductor nanoparticles include first particles having a first radius and second particles having a second radius, wherein the first radius of the first particles is equal to the exciton Bohr radius and the second radius of the second particles is larger than the exciton Bohr radius; and a solvent dispersed with the plurality of semiconductor nanoparticles.
A shaving razor including a biasing member producing a progressively increasing cartridge return torque, the shaving razor comprising: a. a cartridge that comprises: 1) a cartridge housing having a front edge, a rear edge and two opposing side edges extending from the front edge to the rear edge; 2) a shaving blade between the front edge and the rear edge of the cartridge housing; 3) a cartridge pivot axis providing an axis of rotation for the cartridge; and 4) a connecting member; and b. a handle comprising a handle connecting structure that connects to the connecting member of the cartridge, the handle connecting structure includes a biasing member that contacts and exerts a progressively increasing return torque on the cartridge as the cartridge rotates about the pivot axis during use, wherein the progressively increasing return torque increases from a minimum torque of 0 Nmm when the cartridge is in a neutral position to a peak torque of about 14 Nmm or less when the cartridge is at a fully rotated position, and characterized in that the progressively increasing return torque increases at a gradient of less than 0.3Nmm/degree from 6 degrees to 40 degrees of cartridge rotation. a. a cartridge that comprises: 1) a cartridge housing having a front edge, a rear edge and two opposing side edges extending from the front edge to the rear edge; 2) a shaving blade between the front edge and the rear edge of the cartridge housing; 3) a cartridge pivot axis providing an axis of rotation for the cartridge; and 4) a connecting member; and 1) a cartridge housing having a front edge, a rear edge and two opposing side edges extending from the front edge to the rear edge; 2) a shaving blade between the front edge and the rear edge of the cartridge housing; 3) a cartridge pivot axis providing an axis of rotation for the cartridge; and 4) a connecting member; and b. a handle comprising a handle connecting structure that connects to the connecting member of the cartridge, the handle connecting structure includes a biasing member that contacts and exerts a progressively increasing return torque on the cartridge as the cartridge rotates about the pivot axis during use, wherein the progressively increasing return torque increases from a minimum torque of 0 Nmm when the cartridge is in a neutral position to a peak torque of about 14 Nmm or less when the cartridge is at a fully rotated position, and