mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine (1; 101) comprising a turbine shaft (2; 102) rotatable about an axis (Z), a centrifugal compressor (4; 104) and a radial turbine (14; 114) each mounted to the shaft for rotation therewith about the axis, and a plurality of combustion chambers (10; 110) in an air/gas flow path between the compressor and the turbine, the combustion chambers being spaced circumferentially about the axis of the turbine shaft, each combustion chamber being elongate in the direction of air/gas flow through the combustion chamber and curved in the longitudinal direction, the combustion chambers being aligned with their longitudinal axes curving about the axis of the turbine shaft; a diffuser (6; 106) located circumferentially about an outer diameter of the compressor wheel, the diffuser configured to direct air radially outwardly, a circumferentially extending air flow buffer channel (62; 162) for receiving compressed air from the diffuser and fluidly connected with an inlet end of each of the combustion chambers, a nozzle (12; 112) located circumferentially about an outer diameter of the turbine for directing exhaust gas onto the turbine, an exhaust gas flow buffer channel (82; 182) extending circumferentially about the nozzle, the exhaust gas flow buffer channel being fluidly connected with an outlet end of each of the combustion chambers and with the nozzle, the engine being characterised in that the combustion chambers are located radially outboard of the nozzle.
A method for removing contamination from a support surface of a chuck, comprising: (a) providing a treatment tool comprising a treatment surface configured to contact and pass lightly over said support surface, wherein said treatment surface features turn-up edges such that the treatment surface assumes a toroidal shape so that when said treatment surface is brought into contact with a flat surface, an area of contact between said treatment surface and said flat surface is a circle, ring or annulus, wherein the toroidal shape of the treatment surface involves deviations from the treatment surface being flat that are less than a micron; (b) contacting said treatment surface to said support surface; (c) moving said treatment tool over at least a portion of said support surface containing contamination, wherein at least during said moving, the force applied by said treatment tool against said support surface is maintained at a level of pressure below a level of pressure that would alter an elevation or roughness of the support surface of the chuck; and (d) continuing said moving for a time or a number of passes over the contaminated surface sufficient to remove said contamination, and (e) wherein a diameter of said support surface is greater than a size of said treatment surface. (a) providing a treatment tool comprising a treatment surface configured to contact and pass lightly over said support surface, wherein said treatment surface features turn-up edges such that the treatment surface assumes a toroidal shape so that when said treatment surface is brought into contact with a flat surface, an area of contact between said treatment surface and said flat surface is a circle, ring or annulus, wherein the toroidal shape of the treatment surface involves deviations from the treatment surface being flat that are less than a micron; (b) contacting said treatment surface to said support surface; (c) moving said treatment tool over at least a portion of said support surface containing contamination, wherein at least during said moving, the force applied by said treatment tool against said support surface is maintained at a level of pressure below a level of pressure that would alter an elevation or roughness of the support surface of the chuck; and (d) continuing said moving for a time or a number of passes over the contaminated surface sufficient to remove said contamination, and (e) wherein a diameter of said support surface is greater than a size of said treatment surface.
An information processing apparatus worn on the head of a user which is a glasses-type HMD comprising a transmission type display unit ; an estimating unit configured to estimate behavior of the user by comparing data detected by a detecting unit worn on the head of the user and configured to detect motion of the head with a behavior characteristic amount calculated based on learning data; and a control unit configured to perform control of display content according to the behavior estimated by the estimating unit by recognizing a position of a face of another party with whom the user is having a conversation and controlling a display content's position so as not to overlap with the face of the other party. an estimating unit configured to estimate behavior of the user by comparing data detected by a detecting unit worn on the head of the user and configured to detect motion of the head with a behavior characteristic amount calculated based on learning data; and a control unit configured to perform control of display content according to the behavior estimated by the estimating unit by recognizing a position of a face of another party with whom the user is having a conversation and controlling a display content's position so as not to overlap with the face of the other party.
An uplink data transmission indication method, applied to a terminal, characterized by comprising: receiving , from a network side device, downlink control information, DCI, used for scheduling uplink data transmission, wherein the DCI comprises at least one of a channel state information reference signal indicator, CRI, field and a synchronization signal block indicator, SSBRI, field, wherein at least one of the CRI field and the SSBRI field is used to indicate an optimal uplink transmit beam required in uplink data transmission; and performing uplink data transmission in accordance with the optimal uplink transmit beam indicated by the DCI, wherein before the step of receiving , from a network side device, DCI used for scheduling uplink data transmission, further comprising: receiving first configuration information from the network side device, wherein the first configuration information comprises a group of channel state information reference signal, CSI-RS, resources and/or synchronization signal block, SSB, resources used to indicate the optimal uplink transmit beam. receiving , from a network side device, downlink control information, DCI, used for scheduling uplink data transmission, wherein the DCI comprises at least one of a channel state information reference signal indicator, CRI, field and a synchronization signal block indicator, SSBRI, field, wherein at least one of the CRI field and the SSBRI field is used to indicate an optimal uplink transmit beam required in uplink data transmission; and performing uplink data transmission in accordance with the optimal uplink transmit beam indicated by the DCI, wherein before the step of receiving , from a network side device, DCI used for scheduling uplink data transmission, further comprising: receiving first configuration information from the network side device, wherein the first configuration information comprises a group of channel state information reference signal, CSI-RS, resources and/or synchronization signal block, SSB, resources used to indicate the optimal uplink transmit beam.
A connector , suitable for at least two antennas, the connector comprising: - a base layer , made of a flexible material - first and second electrical conductors provided on the base layer - wherein the first electrical conductor is suitable for signals in a first frequency band F1 and the second electrical conductor is suitable for signals in a second frequency band F2 - wherein the second frequency band F2 is higher than the first frequency band F1 - wherein first and second electrical conductors comprise first and second input portions , which are configured to be coupled to coupling electrodes of the respective two antennas, first and second output portions , which are configured to be connected to at least one electronic unit, and first and second linear portions extending between the first and second input portions and first and second output portions respectively - wherein the first and second linear portions extend substantially parallel with each other, such that they are configured to maximize a linear capacitance effect between each other, wherein - an average width W1 of the first linear portion is less than an average width W2 of the second linear portion and - the input portion of each electrical conductor has a principal axis at an angle greater than 45 degrees to a principal axis of the linear portion of each electrical conductor . - a base layer , made of a flexible material - first and second electrical conductors provided on the base layer - wherein the first electrical conductor is suitable for signals in a first frequency band F1 and the second electrical conductor is suitable for signals in a second frequency band F2 - wherein the second frequency band F2 is higher than the first frequency band F1 - wherein first and second electrical conductors comprise first and second input portions , which are configured to be coupled to coupling electrodes of the respective two antennas, first and second output portions , which are configured to be connected to at least one electronic unit, and first and second linear portions extending between the first and second input portions and first and second output portions respectively - wherein the first and second linear portions extend substantially parallel with each other, such that they are configured to maximize a linear capacitance effect between each other, wherein - an average width W1 of the first linear portion is less than an average width W2 of the second linear portion and - the input portion of each electrical conductor has a principal axis at an angle greater than 45 degrees to a principal axis of the linear portion of each electrical conductor .
A gas turbine combustor comprising: a combustion liner forming a combustion chamber ; a fuel injector provided at an upstream portion of the combustion liner ; and a housing chamber located upstream of the combustion chamber and housing the fuel injector , wherein the fuel injector includes a fuel supply tube penetrating through the housing chamber and configured to supply fuel to the combustion chamber , and a guide member provided on an outer side of a downstream portion of the fuel supply tube , the guide member being configured to allow air to pass therethrough, the fuel supply tube and the guide member are connected by a connection wall , the fuel supply tube includes, in the downstream portion thereof, a plurality of fuel injection holes arranged at equal intervals in the circumferential direction of the fuel supply tube and configured to inject fuel to the air passing through the guide member therein, so as to mix the fuel with the air, a plurality of guide grooves that the fuel injection hole faces are formed on the connection wall , the guide grooves being arranged at equal intervals in the circumferential direction of the guide member , and the guide member is configured to supply the air and the fuel therefrom into the combustion chamber . a combustion liner forming a combustion chamber ; a fuel injector provided at an upstream portion of the combustion liner ; and a housing chamber located upstream of the combustion chamber and housing the fuel injector , wherein the fuel injector includes a fuel supply tube penetrating through the housing chamber and configured to supply fuel to the combustion chamber , and a guide member provided on an outer side of a downstream portion of the fuel supply tube , the guide member being configured to allow air to pass therethrough, the fuel supply tube and the guide member are connected by a connection wall , a fuel supply tube penetrating through the housing chamber and configured to supply fuel to the combustion chamber , and a guide member provided on an outer side of a downstream portion of the fuel supply tube , the guide member being configured to allow air to pass therethrough, the fuel supply tube includes, in the downstream portion thereof, a plurality of fuel injection holes arranged at equal intervals in the circumferential direction of the fuel supply tube and configured to inject fuel to the air passing through the guide member therein, so as to mix the fuel with the air, a plurality of guide grooves that the fuel injection hole faces are formed on the connection wall , the guide grooves being arranged at equal intervals in the circumferential direction of the guide member , and the guide member is configured to supply the air and the fuel therefrom into the combustion chamber .
A method, comprising: transmitting, from a user equipment (UE) to a first network node , a first message requesting authentication configuration information, wherein the first message is formatted according to a first protocol; in response to the first message, receiving a second message that includes the authentication configuration information; transmitting, from the UE to a second network node , a third message that includes authentication information based upon the received authentication configuration information, wherein the third message is formatted according to a second protocol; receiving, from the second network node, an authentication challenge request that is formatted according to the second protocol; and in response to receiving the authentication challenge request, transmitting an authentication response to the second network node. transmitting, from a user equipment (UE) to a first network node , a first message requesting authentication configuration information, wherein the first message is formatted according to a first protocol; in response to the first message, receiving a second message that includes the authentication configuration information; transmitting, from the UE to a second network node , a third message that includes authentication information based upon the received authentication configuration information, wherein the third message is formatted according to a second protocol; receiving, from the second network node, an authentication challenge request that is formatted according to the second protocol; and in response to receiving the authentication challenge request, transmitting an authentication response to the second network node.
A state control method for a display screen, wherein the state control method is applied to a terminal provided with a first signal transmitter, a second signal transmitter and a signal receiver, a distance between the second signal transmitter and the signal receiver being longer than a distance between the first signal transmitter and the signal receiver, and the state control method being characterised by : acquiring (S101, S201, S301) a current state of a display screen, wherein the current state is an on state or an off state; when the display screen is in the on state, controlling (S202) the second signal transmitter to transmit a first detection signal, wherein the first detection signal is reflected by the barrier to form a first reflected signal; judging a distance state between the terminal and the barrier according to an intensity of the first reflected signal received by the signal receiver; when the display screen is in the off state, controlling (S302) the second signal transmitter to transmit a second detection signal, and controlling the first signal transmitter to transmit a third detection signal, wherein the second detection signal is reflected by a barrier to form a second reflected signal and the third detection signal is reflected by the barrier to form a third reflected signal; judging the distance state between the terminal and the barrier according to intensities of the second reflected signal and the third reflected signal received by the signal receiver; and controlling (SI04) the state of the display screen according to the distance state. acquiring (S101, S201, S301) a current state of a display screen, wherein the current state is an on state or an off state; when the display screen is in the on state, controlling (S202) the second signal transmitter to transmit a first detection signal, wherein the first detection signal is reflected by the barrier to form a first reflected signal; judging a distance state between the terminal and the barrier according to an intensity of the first reflected signal received by the signal receiver; when the display screen is in the off state, controlling (S302) the second signal transmitter to transmit a second detection signal, and controlling the first signal transmitter to transmit a third detection signal, wherein the second detection signal is reflected by a barrier to form a second reflected signal and the third detection signal is reflected by the barrier to form a third reflected signal; judging the distance state between the terminal and the barrier according to intensities of the second reflected signal and the third reflected signal received by the signal receiver; and controlling (SI04) the state of the display screen according to the distance state.
A method for determining a set point for a thermal sensor in an apparatus for the layer-by-layer manufacture of a three-dimensional object from particulate material; the method comprising: (a) distributing a layer of particulate material, the layer providing a build bed surface ; (b) depositing an amount of absorption modifier over at least one of a test region and a surrounding area surrounding the test region; (c) heating the test region over a period of time with a heat source (L1); (d) measuring with the thermal sensor a temperature value TR within the test region ; (e) distributing a further layer of material over the preceding layer of material, the new layer providing the build bed surface ; - repeating the steps (b) to (e) of the layer cycle at least until the particulate material within the test region starts to melt, wherein step (b) comprises depositing a further amount of absorption modifier over the test region , wherein the further amount of absorption modifier causes the particulate material of the test region to absorb more energy from the heat source (L1) than the test region of the preceding layer; - determining a set point for the thermal sensor from a characteristic of the material as identified from a characteristic in the evolution of the measured temperature value TR within the test region ; and - applying the determined set point to subsequent measurements of the thermal sensor . (a) distributing a layer of particulate material, the layer providing a build bed surface ; (b) depositing an amount of absorption modifier over at least one of a test region and a surrounding area surrounding the test region; (c) heating the test region over a period of time with a heat source (L1); (d) measuring with the thermal sensor a temperature value TR within the test region ; (e) distributing a further layer of material over the preceding layer of material, the new layer providing the build bed surface ; - repeating the steps (b) to (e) of the layer cycle at least until the particulate material within the test region starts to melt, wherein step (b) comprises depositing a further amount of absorption modifier over the test region , wherein the further amount of absorption modifier causes the particulate material of the test region to absorb more energy from the heat source (L1) than the test region of the preceding layer; - determining a set point for the thermal sensor from a characteristic of the material as identified from a characteristic in the evolution of the measured temperature value TR within the test region ; and - applying the determined set point to subsequent measurements of the thermal sensor .
A method of processing geometric measurements of a tire, comprising: measuring the distance between a surface of a tire and a sensor to obtain an electronic data set of geometric measurements associated with radial run out or lateral run out at respective angular positions relative to the given tire; characterized by : electronically identifying the geometric measurements that lie on a convex hull surrounding the entire set of geometric measurements; electronically interpolating the identified geometric measurements that lie on the convex hull to obtain a first set of filtered geometric measurements; inverting the set of geometric measurements to obtain a set of inverted geometric measurements; electronically identifying the inverted geometric measurements that lie on a convex hull surrounding the entire set of inverted geometric measurements; electronically interpolating the identified inverted geometric measurements to obtain a second set of inverted geometric measurements; inverting the second set of inverted geometric measurements to obtain a second set of filtered geometric measurements. measuring the distance between a surface of a tire and a sensor to obtain an electronic data set of geometric measurements associated with radial run out or lateral run out at respective angular positions relative to the given tire; characterized by : electronically identifying the geometric measurements that lie on a convex hull surrounding the entire set of geometric measurements; electronically interpolating the identified geometric measurements that lie on the convex hull to obtain a first set of filtered geometric measurements; inverting the set of geometric measurements to obtain a set of inverted geometric measurements; electronically identifying the inverted geometric measurements that lie on a convex hull surrounding the entire set of inverted geometric measurements; electronically interpolating the identified inverted geometric measurements to obtain a second set of inverted geometric measurements; inverting the second set of inverted geometric measurements to obtain a second set of filtered geometric measurements. electronically identifying the geometric measurements that lie on a convex hull surrounding the entire set of geometric measurements; electronically interpolating the identified geometric measurements that lie on the convex hull to obtain a first set of filtered geometric measurements; inverting the set of geometric measurements to obtain a set of inverted geometric measurements; electronically identifying the inverted geometric measurements that lie on a convex hull surrounding the entire set of inverted geometric measurements; electronically interpolating the identified inverted geometric measurements to obtain a second set of inverted geometric measurements; inverting the second set of inverted geometric measurements to obtain a second set of filtered geometric measurements.