mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: determining, by a network node , whether a cell on a backward compatible first carrier of a first type is to be used as a reference cell, wherein the first carrier and a second carrier of a new carrier type are synchronized and part of a carrier aggregation, and wherein the reference cell is at least one selected from among a pathloss reference cell and a timing reference cell; sending, by the network node to a mobile device , information regarding the second carrier of the new carrier type in an RRC message, wherein the second carrier of the new carrier type does not carry primary synchronization signals, PSS, or secondary synchronization signals, SSS; sending, by the network node to the mobile device , information indicating whether the cell on the first carrier of the first type is to be used as the reference cell; sending, by the network node to the mobile device , configuration information regarding whether the mobile device is to monitor an enhanced control channel; determining, by the network node , a delay value associated with modification of the carrier aggregation, the delay value representing a time delay during which the mobile device is unable to receive signaling from the network node responsive to the modification of the carrier aggregation; and sending, by the network node to the mobile device , the delay value. determining, by a network node , whether a cell on a backward compatible first carrier of a first type is to be used as a reference cell, wherein the first carrier and a second carrier of a new carrier type are synchronized and part of a carrier aggregation, and wherein the reference cell is at least one selected from among a pathloss reference cell and a timing reference cell; sending, by the network node to a mobile device , information regarding the second carrier of the new carrier type in an RRC message, wherein the second carrier of the new carrier type does not carry primary synchronization signals, PSS, or secondary synchronization signals, SSS; sending, by the network node to the mobile device , information indicating whether the cell on the first carrier of the first type is to be used as the reference cell; sending, by the network node to the mobile device , configuration information regarding whether the mobile device is to monitor an enhanced control channel; determining, by the network node , a delay value associated with modification of the carrier aggregation, the delay value representing a time delay during which the mobile device is unable to receive signaling from the network node responsive to the modification of the carrier aggregation; and sending, by the network node to the mobile device , the delay value.
A heavy duty tire comprising: a recess portion that is formed in a buttress portion and that opens toward a tire outside; and air entry and exit promotion portions , each of which is linked to a side portion of the recess portion , that is open toward the tire outside, and that includes a slope from a surface of the tire toward a bottom portion of the recess portion , such that a depth dimension from the tire surface gradually increases; an average incline angle of the slope with respect to the tire surface being no greater than 45°; and the air entry and exit promotion portions being disposed at two or more locations, wherein the air entry and exit promotion portions are disposed at least at two locations corresponding to two tire circumferential direction sides of the recess portion . a recess portion that is formed in a buttress portion and that opens toward a tire outside; and air entry and exit promotion portions , each of which is linked to a side portion of the recess portion , that is open toward the tire outside, and that includes a slope from a surface of the tire toward a bottom portion of the recess portion , such that a depth dimension from the tire surface gradually increases; an average incline angle of the slope with respect to the tire surface being no greater than 45°; and the air entry and exit promotion portions being disposed at two or more locations,
A gas generator for a vehicle safety system, comprising a sleeve positioned inside the gas generator which has first flow orifices and encloses an ignition chamber including a first propellant , wherein at the outside of the sleeve there is connected a combustion chamber filled with a second propellant which is surrounded by a diffusor located inside the gas generator and having second flow orifices , and comprising a baffle plate which has third flow orifices and surrounds the diffusor , wherein the sleeve is in the form of a substantially hollow-cylindrical component having a front-side first opening and an axially opposed second opening , wherein the first opening is closed by the diffusor and the sleeve is closed at its second opening by a holder , characterized in that the sleeve , the diffusor and the baffle plate are adhesively bonded to each other and that the sleeve can be displaced in a displacing direction (V) away from the holder , along the holder such that areas of the diffusor and of the baffle plate can be displaced along with the sleeve as a structural unit in the displacing direction (V).
A structure comprising: a semiconductor on insulator substrate; an insulator layer under the semiconductor on insulator substrate; a handle substrate under insulator layer; a first well of a first dopant type in the handle substrate; a second well of a second dopant type in the handle substrate, adjacent to the first well; and a back-gate diode partially in the first well. a semiconductor on insulator substrate; an insulator layer under the semiconductor on insulator substrate; a handle substrate under insulator layer; a first well of a first dopant type in the handle substrate; a second well of a second dopant type in the handle substrate, adjacent to the first well; and a back-gate diode partially in the first well.
A power supply unit for an aerosol inhaler , the power supply unit comprising: a power supply able to discharge power to a load for generating an aerosol from an aerosol source; a connector able to be electrically connected to an external power supply ; a control device configured to control at least one of charging and discharging of the power supply or configured to be able to convert power which is input from the connector into charging power for the power supply ; and a zener diode provided between the connector and the control device so as to be connected in parallel with the control device , characterized by a maximum value of a zener voltage range of the zener diode being lower than a maximum operation voltage value of the control device , a minimum value of the zener voltage range of the zener diode being higher than a minimum operation voltage value of the control device , and a value which is obtained by subtracting the maximum value of the zener voltage range of the zener diode from the maximum operation voltage value of the control device being smaller than a value which is obtained by subtracting the minimum operation voltage value of the control device from the minimum value of the zener voltage range of the zener diode . a power supply able to discharge power to a load for generating an aerosol from an aerosol source; a connector able to be electrically connected to an external power supply ; a control device configured to control at least one of charging and discharging of the power supply or configured to be able to convert power which is input from the connector into charging power for the power supply ; and a zener diode provided between the connector and the control device so as to be connected in parallel with the control device , characterized by a maximum value of a zener voltage range of the zener diode being lower than a maximum operation voltage value of the control device , a minimum value of the zener voltage range of the zener diode being higher than a minimum operation voltage value of the control device , and a value which is obtained by subtracting the maximum value of the zener voltage range of the zener diode from the maximum operation voltage value of the control device being smaller than a value which is obtained by subtracting the minimum operation voltage value of the control device from the minimum value of the zener voltage range of the zener diode .
Laser module for an image projection system, having: a dichromatic laser diode , which is designed to generate a first beam with laser light at a first wavelength and laser light at a second wavelength; a first collimating optical unit , which is designed to collimate the first beam ; at least one first monochromatic laser diode, which is designed to generate a second beam with laser light at a third wavelength; a second collimating optical unit , which is designed to collimate the second beam ; a first optical combining apparatus , which is designed to combine the first and second collimated beam into an output beam of the laser module ; a second monochromatic laser diode , which is designed to generate a third beam with laser light at a fourth wavelength; a third collimating optical unit , which is designed to collimate the third beam ; a second optical combining apparatus , which is designed to combine the first, second and third collimated beam into the output beam of the laser module ; and wherein the first, third and fourth wavelength are in the visible optical range, and the second wavelength is in the infrared range. a dichromatic laser diode , which is designed to generate a first beam with laser light at a first wavelength and laser light at a second wavelength; a first collimating optical unit , which is designed to collimate the first beam ; at least one first monochromatic laser diode, which is designed to generate a second beam with laser light at a third wavelength; a second collimating optical unit , which is designed to collimate the second beam ; a first optical combining apparatus , which is designed to combine the first and second collimated beam into an output beam of the laser module ; a second monochromatic laser diode , which is designed to generate a third beam with laser light at a fourth wavelength; a third collimating optical unit , which is designed to collimate the third beam ; a second optical combining apparatus , which is designed to combine the first, second and third collimated beam into the output beam of the laser module ; and wherein the first, third and fourth wavelength are in the visible optical range, and the second wavelength is in the infrared range.
Ignition device for igniting a pyrotechnic device of an electrically initiated priming and ignition apparatus , - with an electrically operated ignition bridge for heating the pyrotechnic device , - with a supply unit for supplying the ignition bridge with electrical energy for the generation of heat in the ignition bridge , - wherein the supply unit is configured to provide the energy in the form of at least two energy pulses by means of a PWM program , - where the pulse durations (tON) of the energy pulses and the pause durations (tOFF) of the pauses between two consecutive energy pulses are freely programmable. - with an electrically operated ignition bridge for heating the pyrotechnic device , - with a supply unit for supplying the ignition bridge with electrical energy for the generation of heat in the ignition bridge , - wherein the supply unit is configured to provide the energy in the form of at least two energy pulses by means of a PWM program , - where the pulse durations (tON) of the energy pulses and the pause durations (tOFF) of the pauses between two consecutive energy pulses are freely programmable.
An x-ray detector comprising a number of adjacent detector modules arranged in a configuration having central parts and peripheral parts, wherein the x-ray detector is configured to have higher dose efficiency in the central parts and lower dose efficiency in the peripheral parts according to at least one of the following: - the x-ray detector has a material variation along the detector configuration with a larger thickness, in the direction of incoming x-rays, of detector material in the central parts than in the peripheral parts, - the x-ray detector has a material variation along the detector configuration with a first type of detector material with higher dose efficiency in the central part and a second type of detector material with lower dose efficiency in the peripheral parts, and - the x-ray detector comprises a depth-segmented detector, and a reduced number of depth segments is used in the peripheral parts compared to the central parts and/or the length of each depth segment is reduced in the peripheral parts compared to the central parts. - the x-ray detector has a material variation along the detector configuration with a larger thickness, in the direction of incoming x-rays, of detector material in the central parts than in the peripheral parts, - the x-ray detector has a material variation along the detector configuration with a first type of detector material with higher dose efficiency in the central part and a second type of detector material with lower dose efficiency in the peripheral parts, and - the x-ray detector comprises a depth-segmented detector, and a reduced number of depth segments is used in the peripheral parts compared to the central parts and/or the length of each depth segment is reduced in the peripheral parts compared to the central parts.
A negative electrode active material for a lithium secondary battery which comprises: a silicon-silicon oxide-magnesium silicate composite comprising: a silicon oxide (SiO x , 0 < x ≤ 2) matrix; and silicon (Si) crystal grains, MgSiO 3 crystal grains and Mg 2 SiO 4 crystal grains present in the silicon oxide matrix; wherein the MgSiO 3 crystal grains have a crystal size of 5-30 nm and the Mg 2 SiO 4 crystal grains have a crystal size of 20-100 nm in the silicon-silicon oxide-magnesium silicate composite, the crystal size being determined as described in the specification, and the content ratio of MgSiO 3 crystal grains to Mg 2 SiO 4 crystal grains is 2:1-1:1 on the weight basis. a silicon oxide (SiO x , 0 < x ≤ 2) matrix; and silicon (Si) crystal grains, MgSiO 3 crystal grains and Mg 2 SiO 4 crystal grains present in the silicon oxide matrix; wherein the MgSiO 3 crystal grains have a crystal size of 5-30 nm and the Mg 2 SiO 4 crystal grains have a crystal size of 20-100 nm in the silicon-silicon oxide-magnesium silicate composite, the crystal size being determined as described in the specification, and the content ratio of MgSiO 3 crystal grains to Mg 2 SiO 4 crystal grains is 2:1-1:1 on the weight basis.
A method comprising: a cloud server saving a plurality of security events that occurred within a secured area where each saved security event includes an identifier on a device or person monitored by the security system , an identifier of the monitoring function that triggered the saving of the event in the cloud and a time of the event; a user input receiving an identifier of a monitored device or person and an identifier for each of at least two different functions associated with the received identifier and that are monitored by the security system; a processor downloading information of some of the plurality of saved events identified by the received identifiers from the cloud server and presenting the downloaded information of each event at corresponding locations along a timeline with a first area along the timeline reserved for information of events associated with a first of the at least two different functions and a second area reserved for information of events associated with a second of the at least two different functions; and wherein the first of the two different functions comprises reading an identity card of the person and presenting a retrieved image of an authorized user of the identity card in the first area along the timeline. a cloud server saving a plurality of security events that occurred within a secured area where each saved security event includes an identifier on a device or person monitored by the security system , an identifier of the monitoring function that triggered the saving of the event in the cloud and a time of the event; a user input receiving an identifier of a monitored device or person and an identifier for each of at least two different functions associated with the received identifier and that are monitored by the security system; a processor downloading information of some of the plurality of saved events identified by the received identifiers from the cloud server and presenting the downloaded information of each event at corresponding locations along a timeline with a first area along the timeline reserved for information of events associated with a first of the at least two different functions and a second area reserved for information of events associated with a second of the at least two different functions; and wherein the first of the two different functions comprises reading an identity card of the person and presenting a retrieved image of an authorized user of the identity card in the first area along the timeline.
A method for adaptation of a frame loss concealment method in audio decoding, the method comprising: - detecting a transient in a previously received and reconstructed audio signal; - modifying the frame loss concealment method by selectively adjusting a spectrum magnitude of a substitution frame spectrum in response to detected transient; - further detecting a burst loss with several consecutive frame losses; and - further modifying the frame loss concealment method by selectively adjusting the spectrum magnitude of the substitution frame spectrum in response to detected burst loss. - detecting a transient in a previously received and reconstructed audio signal; - modifying the frame loss concealment method by selectively adjusting a spectrum magnitude of a substitution frame spectrum in response to detected transient; - further detecting a burst loss with several consecutive frame losses; and - further modifying the frame loss concealment method by selectively adjusting the spectrum magnitude of the substitution frame spectrum in response to detected burst loss.
A method performed by a network node for communicating with a wireless device , the network node and the wireless device being operable in a wireless communication network employing Orthogonal Frequency Division Multiplexing, OFDM, technology wherein a channel between the network node and the wireless device comprises a set of Resource Block Groups, RBGs, the method comprising: - receiving , from the wireless device, a measurement report indicating a channel quality of the channel between the network node and the wireless device, wherein the channel quality is represented by a geometry, - determining whether the channel quality is acceptable or unacceptable by comparing the geometry to a geometry threshold , G th , and - transmitting , to the wireless device, an indication of which RBG(s) to report channel quality measurements for, when the geometry is above the geometry threshold, wherein the indication is associated with a bitmap indicating which RBG(s) to report channel quality for and which RBGs to exclude, and wherein the indication excludes only both the first and the last RBG at the frequency band edges of a bandwidth of the channel. - receiving , from the wireless device, a measurement report indicating a channel quality of the channel between the network node and the wireless device, wherein the channel quality is represented by a geometry, - determining whether the channel quality is acceptable or unacceptable by comparing the geometry to a geometry threshold , G th , and - transmitting , to the wireless device, an indication of which RBG(s) to report channel quality measurements for, when the geometry is above the geometry threshold, wherein the indication is associated with a bitmap indicating which RBG(s) to report channel quality for and which RBGs to exclude, and wherein the indication excludes only both the first and the last RBG at the frequency band edges of a bandwidth of the channel. wherein the indication is associated with a bitmap indicating which RBG(s) to report channel quality for and which RBGs to exclude, and wherein the indication excludes only both the first and the last RBG at the frequency band edges of a bandwidth of the channel.
A white ink, comprising: an aqueous ink vehicle; from 2 wt% to 50 wt% of colorant consisting essentially of metal oxide particles having a mean particle size from 100 nm to 1000 nm; and from 2 wt% to 20 wt% of latex particles having a glass transition temperature from 0 °C to 130 °C, wherein the metal oxide particles and latex particles are present in the white ink at weight ratio is from 6:1 to 1:3; and wherein the metal oxide particles have a high refractive index at from 1.8 to 2.8, and the latex particles have a low refractive index at from 1.3 to 1.6; wherein the latex particles comprise polymerized monomers of vinyl monomers, vinyl ester monomers, acrylate monomers, methacrylate monomers, styrene monomers, ethylene, maleate esters, fumarate esters, and itaconate esters combinations thereof, or mixtures thereof; and wherein the white ink further comprises a dispersant chosen from polyether alkoxysilane and polyether phosphate. an aqueous ink vehicle; from 2 wt% to 50 wt% of colorant consisting essentially of metal oxide particles having a mean particle size from 100 nm to 1000 nm; and from 2 wt% to 20 wt% of latex particles having a glass transition temperature from 0 °C to 130 °C, wherein the metal oxide particles and latex particles are present in the white ink at weight ratio is from 6:1 to 1:3; and
An azeotrope-like composition consisting essentially of from 10 to 40 parts by weight water and from 60 to 90 parts by weight cis-1,1,1,4,4,4-hexafluoro-2-butene (Z-HFO-1336mzzm).
A decomposition mitigation assembly, for treating an exhaust gas flow, comprising: a decomposition tube elbow including an inner bend wall portion and an outer bend wall portion, an injector port formed in the outer bend wall portion, the injector port configured to receive a reductant injector therein; an injection exhaust flow path divider wall positioned in the decomposition tube elbow , the injection exhaust flow path divider wall forming an injector passage the injector passage extending along at least a portion of the outer bend wall portion; and the decomposition mitigation assembly being characterised in that it further comprises a bypass exhaust flow path divider wall positioned in the decomposition tube elbow , the bypass exhaust flow path divider wall forming a bypass passage , the bypass passage extending along at least a portion of the inner bend wall portion of the decomposition tube elbow , the bypass exhaust flow path divider wall and the injection exhaust flow path divider wall forming a primary passage , the primary passage positioned in the decomposition tube elbow between the injection exhaust flow path divider wall and the bypass exhaust flow path divider wall . a decomposition tube elbow including an inner bend wall portion and an outer bend wall portion, an injector port formed in the outer bend wall portion, the injector port configured to receive a reductant injector therein; an injection exhaust flow path divider wall positioned in the decomposition tube elbow , the injection exhaust flow path divider wall forming an injector passage the injector passage extending along at least a portion of the outer bend wall portion; and the decomposition mitigation assembly being characterised in that it further comprises a bypass exhaust flow path divider wall positioned in the decomposition tube elbow , the bypass exhaust flow path divider wall forming a bypass passage , the bypass passage extending along at least a portion of the inner bend wall portion of the decomposition tube elbow , the bypass exhaust flow path divider wall and the injection exhaust flow path divider wall forming a primary passage , the primary passage positioned in the decomposition tube elbow between the injection exhaust flow path divider wall and the bypass exhaust flow path divider wall .