mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: establishing an Evolved Packet System, EPS, bearer by a user equipment, UE , in a 3 rd Generation Partnership Project, 3GPP, system, wherein the 3GPP system includes 2G, 3G and 4G radio access technologies, RAT; performing a first inter-RAT bearer change from a 4G system to a 3G system, characterized by the method further comprising: attempting a second inter-RAT bearer change from the 3G system to a 2G system in an idle state; detecting one or more mandatory parameters missing during the second inter-RAT bearer change in an idle state; and performing a bearer preservation procedure upon detecting the one or more missing mandatory parameters, wherein the bearer preservation procedure maintains a continuity of the bearer for the inter-RAT change. establishing an Evolved Packet System, EPS, bearer by a user equipment, UE , in a 3 rd Generation Partnership Project, 3GPP, system, wherein the 3GPP system includes 2G, 3G and 4G radio access technologies, RAT; performing a first inter-RAT bearer change from a 4G system to a 3G system, characterized by the method further comprising: attempting a second inter-RAT bearer change from the 3G system to a 2G system in an idle state; detecting one or more mandatory parameters missing during the second inter-RAT bearer change in an idle state; and performing a bearer preservation procedure upon detecting the one or more missing mandatory parameters, wherein the bearer preservation procedure maintains a continuity of the bearer for the inter-RAT change. attempting a second inter-RAT bearer change from the 3G system to a 2G system in an idle state; detecting one or more mandatory parameters missing during the second inter-RAT bearer change in an idle state; and performing a bearer preservation procedure upon detecting the one or more missing mandatory parameters, wherein the bearer preservation procedure maintains a continuity of the bearer for the inter-RAT change.
An implantable system comprising: an expandable device comprising: a first endplate ; a second endplate ; a body positioned between the first endplate and the second endplate ; and a ratcheting mechanism positioned within the body , wherein the ratcheting mechanism is configured to increase a distance between the first endplate and the second endplate wherein the expandable device is capable of being placed in a first locked configuration whereby the ratcheting mechanism is enabled and a second disengaged configuration whereby the ratcheting mechanism is disabled. a first endplate ; a second endplate ; a body positioned between the first endplate and the second endplate ; and a ratcheting mechanism positioned within the body , wherein the ratcheting mechanism is configured to increase a distance between the first endplate and the second endplate wherein the expandable device is capable of being placed in a first locked configuration whereby the ratcheting mechanism is enabled and a second disengaged configuration whereby the ratcheting mechanism is disabled.
A system for identifying a vehicle using a horn based on sound source positioning and image pairing, the system comprising: an integrated microphone array configured to acquire audio and a low-resolution image frame in real time; a high-definition camera configured to acquire a high-resolution image frame in real time; a control unit ; and an image pairing system, wherein the integrated microphone array includes a microphone array composed of a plurality of microphones and a camera configured to acquire the low-resolution image frame; the control unit is configured to monitor the image frame of low-resolution which is acquired from the integrated microphone array and superimposed with a central position coordinate of a horn sound source when a horn is honked which is obtained by the integrated microphone array after calculation, and at the same time, is configured to acquire the image frame of high-resolution from the high-definition camera and is configured to output the high-resolution image frame to the image pairing system; and the image pairing system is configured to acquire an inter-image transformation coefficient between the low-resolution image frame and the high-resolution image frame, so as to obtain a corresponding position of the central position coordinate of the horn sound source in the high-resolution image frame, and is configured to provide License information of a vehicle corresponding to the position via an image target recognition technology. an integrated microphone array configured to acquire audio and a low-resolution image frame in real time; a high-definition camera configured to acquire a high-resolution image frame in real time; a control unit ; and an image pairing system, wherein the integrated microphone array includes a microphone array composed of a plurality of microphones and a camera configured to acquire the low-resolution image frame; the control unit is configured to monitor the image frame of low-resolution which is acquired from the integrated microphone array and superimposed with a central position coordinate of a horn sound source when a horn is honked which is obtained by the integrated microphone array after calculation, and at the same time, is configured to acquire the image frame of high-resolution from the high-definition camera and is configured to output the high-resolution image frame to the image pairing system; and the image pairing system is configured to acquire an inter-image transformation coefficient between the low-resolution image frame and the high-resolution image frame, so as to obtain a corresponding position of the central position coordinate of the horn sound source in the high-resolution image frame, and is configured to provide License information of a vehicle corresponding to the position via an image target recognition technology.
A polyester film, wherein an arbitrary direction on a film surface is defined to have an angle of 0°, and three directions are defined to have angles of 45°, 90°, and 135°, respectively, clockwise from the 0° direction, and a difference between a maximum value and a minimum value of stresses at 5% elongation in the four directions is 50 MPa or less, the difference between the maximum value and the minimum value of the stresses at 15% elongation in the four directions is 70 MPa or less, and a modulus of elasticity in any one of the four directions falls within a range from 2.0 to 3.5 GPa, when the stresses at 5% and 15% elongation and the modulus of elasticity in the four directions of the polyester film are determined in accordance with the method indicated in the description.
A wearable phototherapeutic eye contact lens comprising: a contact lens having a first chamber ; and a plurality of radioluminescent light sources arranged in a pattern around a center of the contact lens to form an inner circle and an outer circle , wherein the inner circle has a diameter that corresponds substantially to a diameter of an average human pupil in a contracted state, and wherein the outer circle has a diameter that corresponds substantially to a diameter of the average human pupil in a dilated state; a radioluminescent light source of the plurality of radioluminescent light sources comprising one or more walls that form a second chamber , wherein: the radioluminescent light source is in the first chamber of the lens , phosphor material coats at least one of the one or more walls, and radioisotope material is within the second chamber . a contact lens having a first chamber ; and a plurality of radioluminescent light sources arranged in a pattern around a center of the contact lens to form an inner circle and an outer circle , wherein the inner circle has a diameter that corresponds substantially to a diameter of an average human pupil in a contracted state, and wherein the outer circle has a diameter that corresponds substantially to a diameter of the average human pupil in a dilated state; a radioluminescent light source of the plurality of radioluminescent light sources comprising one or more walls that form a second chamber , wherein: the radioluminescent light source is in the first chamber of the lens , phosphor material coats at least one of the one or more walls, and radioisotope material is within the second chamber . the radioluminescent light source is in the first chamber of the lens , phosphor material coats at least one of the one or more walls, and radioisotope material is within the second chamber .
A method for machining a bore hole into a shroud block , the method comprising: designating a location of the bore hole on an exterior surface of the shroud block ; positioning the shroud block in a machining device , the machining device comprising a locating tool , a machining tool , a platform , a securing device , and a radial support , securing the shroud block in the machining device ; and, machining the bore hole ; wherein the designating step comprises locating the location of the bore hole on the exterior surface of the shroud block and marking the location of the bore hole on the exterior surface of the shroud block , characterized in that the radial support is configured to mate with a radial exterior surface of the shroud block such that a machining axis of the machining device is aligned with a radial axis of the shroud block during positioning; and wherein that the bore hole is machined in the shroud block ; and wherein the locating step comprises introducing an adapter to the mating bore hole and placing a designation device through the adapter such that the designation device interacts with the exterior surface of the shroud block , the designation device having an outer perimeter approximately equal to the inner perimeter of the adapter . designating a location of the bore hole on an exterior surface of the shroud block ; positioning the shroud block in a machining device , the machining device comprising a locating tool , a machining tool , a platform , a securing device , and a radial support , securing the shroud block in the machining device ; and, machining the bore hole ; wherein the designating step comprises locating the location of the bore hole on the exterior surface of the shroud block and marking the location of the bore hole on the exterior surface of the shroud block , characterized in that the radial support is configured to mate with a radial exterior surface of the shroud block such that a machining axis of the machining device is aligned with a radial axis of the shroud block during positioning; and wherein that the bore hole is machined in the shroud block ; and wherein the locating step comprises introducing an adapter to the mating bore hole and placing a designation device through the adapter such that the designation device interacts with the exterior surface of the shroud block , the designation device having an outer perimeter approximately equal to the inner perimeter of the adapter .
Supplemental oxygen for use in a method for a post-flight seizure prevention, wherein the method comprises providing the supplemental oxygen by a source suitable for transport on an aircraft during a flight at altitude; wherein the method comprises administering the supplemental oxygen to a person during air transport on the aircraft to compensate for a reduced oxygen partial pressure existing in the aircraft during the flight; and wherein the method comprises administering the supplemental oxygen in an amount such that the person experiences an oxygen partial pressure that substantially mimics a target oxygen partial pressure, wherein the target oxygen partial pressure is adjusted, automatically or manually, during the flight from an initial target oxygen partial pressure to an end target oxygen partial pressure and wherein the oxygen partial pressure of a departure city is set as the initial target oxygen partial pressure and the oxygen partial pressure of an arrival city is set as the end target oxygen partial pressure. wherein the method comprises administering the supplemental oxygen to a person during air transport on the aircraft to compensate for a reduced oxygen partial pressure existing in the aircraft during the flight; and wherein the method comprises administering the supplemental oxygen in an amount such that the person experiences an oxygen partial pressure that substantially mimics a target oxygen partial pressure, wherein the target oxygen partial pressure is adjusted, automatically or manually, during the flight from an initial target oxygen partial pressure to an end target oxygen partial pressure and wherein the oxygen partial pressure of a departure city is set as the initial target oxygen partial pressure and the oxygen partial pressure of an arrival city is set as the end target oxygen partial pressure.
A method of coupling reference signals of a wireless network , the method comprising: establishing a wireless connection with a wireless device , wherein the wireless connection comprises a first reference signal and a second reference signal and each of the first and second reference signals are associated with one or more antenna ports; determining a mapping between the one or more antenna ports associated with the first reference signal and the one or more antenna ports associated with the second reference signal , wherein the mapping indicates, to the wireless device , that there is a one-to-one relationship between the one or more antenna ports associated with the first reference signal and the one or more antenna ports associated with the second reference signal , and that channel estimation is based on both the first reference signal and the second reference signal ; communicating the mapping of antenna ports to the wireless device ; and transmitting the first reference signal and the second reference signal to the wireless device according to the communicated mapping, wherein the first reference signal comprises a demodulation reference signal, DMRS, and the second reference signal comprises a cell-specific reference signal, CRS. establishing a wireless connection with a wireless device , wherein the wireless connection comprises a first reference signal and a second reference signal and each of the first and second reference signals are associated with one or more antenna ports; determining a mapping between the one or more antenna ports associated with the first reference signal and the one or more antenna ports associated with the second reference signal , wherein the mapping indicates, to the wireless device , that there is a one-to-one relationship between the one or more antenna ports associated with the first reference signal and the one or more antenna ports associated with the second reference signal , and that channel estimation is based on both the first reference signal and the second reference signal ; communicating the mapping of antenna ports to the wireless device ; and transmitting the first reference signal and the second reference signal to the wireless device according to the communicated mapping, wherein the first reference signal comprises a demodulation reference signal, DMRS, and the second reference signal comprises a cell-specific reference signal, CRS.
A method for calibrating the detection value of a sensor for detecting the contact with a steering wheel, comprising the following steps: distinguishing whether or not a user is on a driver's seat of a vehicle by distinguishing an opening operation or unlocking of a door of the vehicle; distinguishing whether or not an in-vehicle device mounted in the vehicle is in a second mode in which a power consumption of the in-vehicle device is lower than that of a first mode in which the in-vehicle device is being operated; acquiring, from a sensor that converts contact with a steering wheel into an electric signal for detection, a detection value of a detected electric signal; starting acquisition of the detection value when the opening operation or unlocking of the door has been distinguished, and when the in-vehicle device has been distinguished as being in the second mode; determining whether or not a difference between the detection value acquired when it has been distinguished that the user is not on the driver's seat at the time of starting acquisition of the detection value, and a reference value is equal to or larger than a threshold value; and setting the detection value as the reference value when it has been determined that the difference is not equal to or larger than the threshold value. distinguishing whether or not a user is on a driver's seat of a vehicle by distinguishing an opening operation or unlocking of a door of the vehicle; distinguishing whether or not an in-vehicle device mounted in the vehicle is in a second mode in which a power consumption of the in-vehicle device is lower than that of a first mode in which the in-vehicle device is being operated; acquiring, from a sensor that converts contact with a steering wheel into an electric signal for detection, a detection value of a detected electric signal; starting acquisition of the detection value when the opening operation or unlocking of the door has been distinguished, and when the in-vehicle device has been distinguished as being in the second mode; determining whether or not a difference between the detection value acquired when it has been distinguished that the user is not on the driver's seat at the time of starting acquisition of the detection value, and a reference value is equal to or larger than a threshold value; and setting the detection value as the reference value when it has been determined that the difference is not equal to or larger than the threshold value.
System comprising • a high-temperature electrolyser (HTE) , • a first electrolyser supply line configured to supply the electrolyser with steam, • a first electrolyser discharge line configured to discharge dihydrogen from the electrolyser , • a second electrolyser discharge line configured to discharge dioxygen from the electrolyser , • a first heat exchange module configured to provide a heat exchange between the first steam supply line and the first dihydrogen discharge line , characterised in that the system comprises a steam ejector arranged downstream of the first heat exchange module on the first dihydrogen discharge line and configured to inject steam into the first dihydrogen discharge line . • a high-temperature electrolyser (HTE) , • a first electrolyser supply line configured to supply the electrolyser with steam, • a first electrolyser discharge line configured to discharge dihydrogen from the electrolyser , • a second electrolyser discharge line configured to discharge dioxygen from the electrolyser , • a first heat exchange module configured to provide a heat exchange between the first steam supply line and the first dihydrogen discharge line ,
A RFID system (1; 10; 100) configured to be attached to fabrics, said RFID system (1; 10; 100) comprising at least a device (D), said device (D) comprising: - at least one dielectric base layer ; - at least one dielectric cover layer ; - a conductive foil comprising at least one slit , the foil being provided between the at least one dielectric base layer and the at least one dielectric cover layer ; - at least one rigid electronic module comprising an antenna; said RFID system (1; 10; 100) being characterized in that : - said RFID system (1; 10; 100) is a HF and/or a NFC RFID system, - the at least one rigid electronic module comprising the antenna is provided between the conductive foil and the at least one dielectric cover layer , wherein the antenna has dimensions such that it fits on the slit , - said device (D) comprises at least one fabric layer structurally supporting said device (D) and being provided on an outside of the at least one dielectric base layer , - said slit being longitudinal and centred on the foil to allow distribution of the magnetic field lines, thereby reversing the direction of the magnetic field, wherein the magnetic field crosses the conductive foil through the slit , thereby activating the electronic module and amplifying a signal emitted by said module , - the at least one dielectric base layer , the module , the foil , the at least one dielectric cover layer and the fabric layer are fused together. - at least one dielectric base layer ; - at least one dielectric cover layer ; - a conductive foil comprising at least one slit , the foil being provided between the at least one dielectric base layer and the at least one dielectric cover layer ; - at least one rigid electronic module comprising an antenna; said RFID system (1; 10; 100) being characterized in that : - said RFID system (1; 10; 100) is a HF and/or a NFC RFID system, - the at least one rigid electronic module comprising the antenna is provided between the conductive foil and the at least one dielectric cover layer , wherein the antenna has dimensions such that it fits on the slit , - said device (D) comprises at least one fabric layer structurally supporting said device (D) and being provided on an outside of the at least one dielectric base layer , - said slit being longitudinal and centred on the foil to allow distribution of the magnetic field lines, thereby reversing the direction of the magnetic field, wherein the magnetic field crosses the conductive foil through the slit , thereby activating the electronic module and amplifying a signal emitted by said module , - the at least one dielectric base layer , the module , the foil , the at least one dielectric cover layer and the fabric layer are fused together.
A method for switching between channels on different bands, the method comprising: communicating with a wireless device on a base channel; determining, based on a distance to the wireless device, that communication with the wireless device should occur on a 60 GHz channel; sending a channel switch request to the wireless device; receiving an acknowledgment from the wireless device; and switching to the 60 GHz channel for communicating with the wireless device; and wherein the method is performed by a subscriber station, STA, and further comprising sending a test frame on the 60 GHz channel to determine channel characteristics of the 60 GHz channel before switching to the 60 GHz channel, wherein the test frame uses a robust physical layer, PHY, mode. communicating with a wireless device on a base channel; determining, based on a distance to the wireless device, that communication with the wireless device should occur on a 60 GHz channel; sending a channel switch request to the wireless device; receiving an acknowledgment from the wireless device; and switching to the 60 GHz channel for communicating with the wireless device; and wherein the method is performed by a subscriber station, STA, and further comprising sending a test frame on the 60 GHz channel to determine channel characteristics of the 60 GHz channel before switching to the 60 GHz channel, wherein the test frame uses a robust physical layer, PHY, mode.
A thread or textile surface comprising fibres, wherein the fibres comprise a polymer composition containing a polymer and at least one agent selected from the group consisting of petrolatum, an oil or a fat, wherein the oil or the fat contains at least 25 wt% oleic acid, a non-saponifiable lipid from an oil, wherein the oil contains at least 25 wt% oleic acid, and mixtures thereof, characterized in that the polymer composition contains another agent selected from the group consisting of dicaprylyl carbonate, cetyl isononanoate, cetearyl isononanoate, isopropyl isostearate, isostearyl isostearate, isopropyl palmitate, and mixtures thereof.