mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the support of nomadic or fixed users in a mobile network, said mobile network comprising a core network accessed by a radio access network, said mobile network providing packet data network connectivity between a user equipment and at least one external packet data network, via a selected packet data network gateway associated with said packet data network, said method including support of a nomadic or fixed user in non-mobile mode of operation wherein said selected local packet data network gateway is co-located with a radio access network node serving said user equipment, based on knowledge of the user's mobility pattern, said method being performed by a core network node having control plane functions and comprising the steps of: - if there is a change in the mobility state of the user equipment, from a moving state wherein the user equipment is moving, to a stationary state wherein the user equipment is not moving for at least a given period of time, instructing said user equipment to detach and immediately re-attach to said mobile network, - when said user equipment re-attaches to said mobile network, selecting said local packet data network gateway, for packet data network connectivity to at least one packet data network represented by an access point name eligible for said non-mobile mode of operation, and: - if there is a change in the mobility state of the user equipment, from a stationary state wherein the user equipment is not moving for at least a given period of time, to a moving state wherein the user equipment is moving, instructing said user equipment to detach and immediately re-attach to said mobile network, - when said user equipment re-attaches to said mobile network, selecting a packet data network gateway located in said core network, in a mobile mode of operation. - if there is a change in the mobility state of the user equipment, from a moving state wherein the user equipment is moving, to a stationary state wherein the user equipment is not moving for at least a given period of time, instructing said user equipment to detach and immediately re-attach to said mobile network, - when said user equipment re-attaches to said mobile network, selecting said local packet data network gateway, for packet data network connectivity to at least one packet data network represented by an access point name eligible for said non-mobile mode of operation, - if there is a change in the mobility state of the user equipment, from a stationary state wherein the user equipment is not moving for at least a given period of time, to a moving state wherein the user equipment is moving, instructing said user equipment to detach and immediately re-attach to said mobile network, - when said user equipment re-attaches to said mobile network, selecting a packet data network gateway located in said core network, in a mobile mode of operation.
Method for operating an electric machine , in particular of a motor vehicle, which has a stator and a rotor , wherein the stator has a stator winding with at least three phases (U,V,W), and wherein the rotor is arranged/arrangeable on a rotor shaft , wherein a desired current value ( I Soll,fl ) of the stator winding for generating a required torque and/or a required speed is determined on the basis of a time-invariant differential equation modeling the machine , wherein the desired current value ( I Soll,fl ) is compared with an actual current value ( I Ist,fl ) of the stator winding , which corresponds to electric phase currents ( I U , I V , I W ) flowing through the phases (U,V,W), and wherein, on the basis of the comparison, the phases (U,V,W) are energized such that a deviation of the actual current value ( I Ist,fl ) from the desired current value ( I Soll,fl ) is reduced, characterized in that the time-invariant differential equation is determined on the basis of a periodic, linear time-variant differential equation by means of a Floquet transformation.
A method of producing a dry pet food composition, the method comprising: forming a meat slurry from fresh or frozen meat; adding the meat slurry to a dry blend of ingredients to form a mixture in which the meat slurry is 14 wt% to 20 wt% of the mixture; subjecting the mixture to extrusion cooking to form an extrudate; and processing the extrudate to form the pet food composition, wherein processing the extrudate comprises cutting the extrudate into pieces and drying the pieces. forming a meat slurry from fresh or frozen meat; adding the meat slurry to a dry blend of ingredients to form a mixture in which the meat slurry is 14 wt% to 20 wt% of the mixture; subjecting the mixture to extrusion cooking to form an extrudate; and processing the extrudate to form the pet food composition, wherein processing the extrudate comprises cutting the extrudate into pieces and drying the pieces.
A base for a portable computing device , the base comprising: a keyboard configured to communicate with the portable computing device ; a frame surrounding the keyboard ; a shaft rotationally attached to the frame , the rotational attachment of the shaft to the frame having a friction greater than a force of gravity on the portable computing device ; a mount configured to hold the portable computing device , further characterized by the mount defining a shaft recess through which the shaft extends and in which the shaft freely rotates when the portable computing device is not placed onto the mount ; and a shaft engagement element configured to rotationally couple the mount to the shaft in response to the portable computing device being placed on the mount , wherein the shaft engagement element is configured to rotationally couple the mount to the shaft by sliding along the shaft and engaging a mount engagement interface of the mount in response to the portable computing device being placed on the mount. a keyboard configured to communicate with the portable computing device ; a frame surrounding the keyboard ; a shaft rotationally attached to the frame , the rotational attachment of the shaft to the frame having a friction greater than a force of gravity on the portable computing device ; a mount configured to hold the portable computing device , further characterized by the mount defining a shaft recess through which the shaft extends and in which the shaft freely rotates when the portable computing device is not placed onto the mount ; and a shaft engagement element configured to rotationally couple the mount to the shaft in response to the portable computing device being placed on the mount , wherein the shaft engagement element is configured to rotationally couple the mount to the shaft by sliding along the shaft and engaging a mount engagement interface of the mount in response to the portable computing device being placed on the mount.
Method for operating a mobile device in a railway system with at least one optical waveguide which is laid next to at least one railway track , with the optical waveguide being used as a distributed acoustic sensor into which light pulses are fed, and back-scattered light is detected, characterised in that • a mobile device , with a sound generator which can be adjusted with respect to its frequency spectrum in a way which designates a device, is used, • the sound generator is adjusted with respect to its frequency spectrum in a way which designates a device by assigning a frequency selection to the mobile device , • the sound generator transmits sound waves with a frequency spectrum which comprises frequencies of the frequency selection , and • an identification number signal (IS2) of the mobile device is acquired by detecting the back-scattered light from the detected frequency selection . • a mobile device , with a sound generator which can be adjusted with respect to its frequency spectrum in a way which designates a device, is used, • the sound generator is adjusted with respect to its frequency spectrum in a way which designates a device by assigning a frequency selection to the mobile device , • the sound generator transmits sound waves with a frequency spectrum which comprises frequencies of the frequency selection , and • an identification number signal (IS2) of the mobile device is acquired by detecting the back-scattered light from the detected frequency selection .
A device for measuring a length of a bone tunnel, the device comprising: a gauge comprising an annular shaft coupled to a handle ; and a passing pin ; wherein: the handle comprises a constrained channel configured for receiving the passing pin from the annular shaft and displaying the passing pin in relation to a scale; the constrained channel including at least one section of retaining material to retain the passing pin within the constrained channel , and the passing pin exhibits a cross-sectional area configured to be maintained within the constrained channel ; wherein the handle comprises an exit-way from the channel and characterised in that an open portion of the channel has a width that is less than a diameter or width of the passing pin. a gauge comprising an annular shaft coupled to a handle ; and a passing pin ; wherein: the handle comprises a constrained channel configured for receiving the passing pin from the annular shaft and displaying the passing pin in relation to a scale; the constrained channel including at least one section of retaining material to retain the passing pin within the constrained channel , and the passing pin exhibits a cross-sectional area configured to be maintained within the constrained channel ; wherein the handle comprises an exit-way from the channel and characterised in that an open portion of the channel has a width that is less than a diameter or width of the passing pin. the handle comprises a constrained channel configured for receiving the passing pin from the annular shaft and displaying the passing pin in relation to a scale; the constrained channel including at least one section of retaining material to retain the passing pin within the constrained channel , and the passing pin exhibits a cross-sectional area configured to be maintained within the constrained channel ; wherein the handle comprises an exit-way from the channel and characterised in that an open portion of the channel has a width that is less than a diameter or width of the passing pin.
A combined structure of a piezoelectric receiver and an ultrasonic generator, comprising: a piezoelectric plate of the piezoelectric receiver, the piezoelectric plate being configured to vibrate for transmitting the vibration to a panel of a mobile phone, so as to successively make a sound; an ultrasonic signal generator configured to generate an electrical signal of the ultrasonic frequency band to realize gesture positioning; an audio signal input circuit ; and a switching circuit , the input end of the switching circuit being connected with the ultrasonic signal generator and the audio signal input circuit , respectively, so as to switch therebetween, and the output end of the switching circuit being connected with the piezoelectric plate , characterized by a mode recognition circuit for controlling the switching circuit , the mode recognition circuit recognizing an ultrasonic mode in which the switching circuit is switched into the ultrasonic signal generator and other modes in which the switching circuit is switched to the audio signal input circuit , and further characterized in that in the ultrasonic mode an ultrasonic electric signal output by the ultrasonic signal generator is input into the piezoelectric plate via a power amplifying circuit .
A quantum dot composite comprising: a matrix and a plurality of quantum dots dispersed in the matrix, wherein the plurality of the quantum dots comprises a semiconductor nanocrystal core including indium and phosphorous, a semiconductor nanocrystal shell disposed on the semiconductor nanocrystal core, the semiconductor nanocrystal shell including zinc, selenium, and sulfur, wherein an arithmetic size of the plurality of the quantum dots is greater than or equal to 8 nm and less than or equal to 15 nm, wherein the quantum dot composite is configured to emit red light, and wherein the arithmetic size is a size of a given population of quantum dots and is determined from a size of the semiconductor nanocrystal core and a thickness of the semiconductor nanocrystal shell, wherein the size of the semiconductor nanocrystal core is determined by a core composition and a UV absorption wavelength and the thickness of the semiconductor nanocrystal shell is determined from the size of the semiconductor nanocrystal core and a composition of the quantum dots, wherein the composition of the quantum dots is determined by an inductively coupled plasma atomic emission spectroscopy analysis. wherein the plurality of the quantum dots comprises a semiconductor nanocrystal core including indium and phosphorous, a semiconductor nanocrystal shell disposed on the semiconductor nanocrystal core, the semiconductor nanocrystal shell including zinc, selenium, and sulfur, wherein an arithmetic size of the plurality of the quantum dots is greater than or equal to 8 nm and less than or equal to 15 nm, wherein the quantum dot composite is configured to emit red light, and wherein the arithmetic size is a size of a given population of quantum dots and is determined from a size of the semiconductor nanocrystal core and a thickness of the semiconductor nanocrystal shell, wherein the size of the semiconductor nanocrystal core is determined by a core composition and a UV absorption wavelength and the thickness of the semiconductor nanocrystal shell is determined from the size of the semiconductor nanocrystal core and a composition of the quantum dots, wherein the composition of the quantum dots is determined by an inductively coupled plasma atomic emission spectroscopy analysis.
A Hybrid Automatic Repeat reQuest, HARQ, feedback method, comprising: obtaining (S510), by a terminal, first configuration information from a network device, wherein the first configuration information comprises information on a HARQ feedback mode to the network device for a first service transmitted between the network device and the terminal; and determining (S520), by the terminal based on the first configuration information, the HARQ feedback mode to the network device for the first service as one of a NACK-Only feedback mode, an ACK-or-NACK feedback mode, and No-HARQ feedback, wherein the first service is a Multimedia Broadcast Multicast Service, MBMS, service, characterized in that the first configuration information is transmitted by the network device via Downlink Control Information, DCI, scheduling the first service, and the first configuration information is presented in a form of a bitmap in which HARQ feedback modes to be used by all terminals receiving the first service in a communication system are indicated collectively, and each bit of the bitmap indicates the HARQ feedback mode of a respective one of the terminals. obtaining (S510), by a terminal, first configuration information from a network device, wherein the first configuration information comprises information on a HARQ feedback mode to the network device for a first service transmitted between the network device and the terminal; and determining (S520), by the terminal based on the first configuration information, the HARQ feedback mode to the network device for the first service as one of a NACK-Only feedback mode, an ACK-or-NACK feedback mode, and No-HARQ feedback, wherein the first service is a Multimedia Broadcast Multicast Service, MBMS, service, characterized in that the first configuration information is transmitted by the network device via Downlink Control Information, DCI, scheduling the first service, and the first configuration information is presented in a form of a bitmap in which HARQ feedback modes to be used by all terminals receiving the first service in a communication system are indicated collectively, and each bit of the bitmap indicates the HARQ feedback mode of a respective one of the terminals.
A method for providing a satellite correction signal, the method comprising: receiving (S900) a series of raw satellite signal measurements; storing (S902) the received raw satellite signal measurements for a series of time windows prior to a current time, each one of the satellite signal measurements associated with a respective stored measurement time tag; during a warm-start mode, estimating (S904) a satellite correction signal based on satellite orbit data, satellite clock data, and satellite bias correction data, the satellite orbit data, satellite clock data, and satellite bias correction data being derived from stored received raw satellite signal measurements; determining when the satellite orbit data, the satellite clock data, and the satellite bias data have converged to reliable satellite correction data with ambiguity resolution and seamlessly switching (S906) a measurement data source from the stored received raw satellite signal measurements to live, real-time raw satellite signal measurements in a normal mode, where the satellite correction signal is estimated with satellite orbit data, satellite clock bias data, and satellite bias data based on real-time live received raw measurements, if the respective measurement time tag of a last-processed one of the stored received satellite signal measurements approaches or reaches the current time, where a difference between the respective measurement time tag of the corresponding last-processed, stored received raw satellite measurement and the current time is less than a threshold time range. receiving (S900) a series of raw satellite signal measurements; storing (S902) the received raw satellite signal measurements for a series of time windows prior to a current time, each one of the satellite signal measurements associated with a respective stored measurement time tag; during a warm-start mode, estimating (S904) a satellite correction signal based on satellite orbit data, satellite clock data, and satellite bias correction data, the satellite orbit data, satellite clock data, and satellite bias correction data being derived from stored received raw satellite signal measurements; determining when the satellite orbit data, the satellite clock data, and the satellite bias data have converged to reliable satellite correction data with ambiguity resolution and seamlessly switching (S906) a measurement data source from the stored received raw satellite signal measurements to live, real-time raw satellite signal measurements in a normal mode, where the satellite correction signal is estimated with satellite orbit data, satellite clock bias data, and satellite bias data based on real-time live received raw measurements, if the respective measurement time tag of a last-processed one of the stored received satellite signal measurements approaches or reaches the current time, where a difference between the respective measurement time tag of the corresponding last-processed, stored received raw satellite measurement and the current time is less than a threshold time range.
A sidewall brace for use in a collapsible fluid containment device , the sidewall brace comprising: a base support leg ; and a sidewall support arm pivotally mounted on the base support leg and rotatable around an axis of rotation from a collapsed position in which the sidewall support arm is substantially parallel with the base support leg to a raised position in which the sidewall support arm is substantially perpendicular to the base support leg , wherein the sidewall support arm comprises a locking tab including a radial projection extending from the locking tab radially from the axis of rotation frictionally engageable with a contact surface of the base support leg to thereby resist rotational movement of the sidewall support arm when the sidewall support arm is rotated from its raised position towards its collapsed position, characterized in that the locking tab is eccentric around the axis of rotation, and in that the locking tab comprises a notch radially inside the radial projection that provides resiliency and spring action for the radial projection as it moves over the contact surface of the base support leg . a base support leg ; and a sidewall support arm pivotally mounted on the base support leg and rotatable around an axis of rotation from a collapsed position in which the sidewall support arm is substantially parallel with the base support leg to a raised position in which the sidewall support arm is substantially perpendicular to the base support leg , wherein the sidewall support arm comprises a locking tab including a radial projection extending from the locking tab radially from the axis of rotation frictionally engageable with a contact surface of the base support leg to thereby resist rotational movement of the sidewall support arm when the sidewall support arm is rotated from its raised position towards its collapsed position, characterized in that the locking tab is eccentric around the axis of rotation, and in that the locking tab comprises a notch radially inside the radial projection that provides resiliency and spring action for the radial projection as it moves over the contact surface of the base support leg .