mhurhangee/ep-ind-claims huggingface dataset:
A hybrid imaging system comprising: a first imaging system configured to acquire anatomical data of a first field of view of an anatomical structure; a second imaging system configured to acquire functional data of the anatomical structure, the second imaging system acquiring the functional data in a two-pass list-mode acquisition scheme; a reconstruction processor configured to reconstruct the functional data based on anatomical data for attenuation correction into an attenuation corrected image: characterised in that wherein the two-pass list-mode acquisition scheme for acquiring the functional data includes a reconnaissance scan in a first pass, the reconstruction processor being further configured to reconstruct the data from the reconnaissance scan into a reconnaissance image, and a targeted scan in a second pass, which is configured based on the reconnaissance image by utilizing the reconnaissance data to determine optimal acquisition and reconstruction parameters for the patient being scanned; and wherein the reconstruction processor is further configured to reconstruct the anatomical data into one or more high resolution images of one or more regions of interest from data from the reconnaissance scan as well as the targeted scan. a first imaging system configured to acquire anatomical data of a first field of view of an anatomical structure; a second imaging system configured to acquire functional data of the anatomical structure, the second imaging system acquiring the functional data in a two-pass list-mode acquisition scheme; a reconstruction processor configured to reconstruct the functional data based on anatomical data for attenuation correction into an attenuation corrected image: characterised in that wherein the two-pass list-mode acquisition scheme for acquiring the functional data includes a reconnaissance scan in a first pass, the reconstruction processor being further configured to reconstruct the data from the reconnaissance scan into a reconnaissance image, and a targeted scan in a second pass, which is configured based on the reconnaissance image by utilizing the reconnaissance data to determine optimal acquisition and reconstruction parameters for the patient being scanned; and wherein the reconstruction processor is further configured to reconstruct the anatomical data into one or more high resolution images of one or more regions of interest from data from the reconnaissance scan as well as the targeted scan.
A method for transmitting messages over a mesh network via routing, comprising: initiating a mesh network, the mesh network including a first mesh device, a second mesh device and an access point, the mesh devices each including a neighbor information table and a temporary path table; transmitting a first message from the first mesh device to a destination, the destination being the access point or the second mesh device, wherein each of the first mesh device and a set of intermediate mesh devices forward the first message to a respective next mesh device, wherein the respective next mesh device is selected from the neighbor information table as being closer to the access point if the destination is the access point, and wherein the respective next mesh device is selected according to a path determined by a route discovery routine if the destination is the second mesh device; storing, by each of the mesh devices receiving the first message from a transmitting mesh device, an entry in the temporary path table including the respective transmitting mesh device (112, 110); and transmitting a second message from the destination (102, 106) to the first mesh device by forwarding the second message according to the entries in the respective temporary path tables of the mesh devices that received the first message. initiating a mesh network, the mesh network including a first mesh device, a second mesh device and an access point, the mesh devices each including a neighbor information table and a temporary path table; transmitting a first message from the first mesh device to a destination, the destination being the access point or the second mesh device, wherein each of the first mesh device and a set of intermediate mesh devices forward the first message to a respective next mesh device, wherein the respective next mesh device is selected from the neighbor information table as being closer to the access point if the destination is the access point, and wherein the respective next mesh device is selected according to a path determined by a route discovery routine if the destination is the second mesh device; storing, by each of the mesh devices receiving the first message from a transmitting mesh device, an entry in the temporary path table including the respective transmitting mesh device (112, 110); and transmitting a second message from the destination (102, 106) to the first mesh device by forwarding the second message according to the entries in the respective temporary path tables of the mesh devices that received the first message.
Blade for a turbomachine, comprising an airfoil having a suction side and a pressure side which extend between a leading edge and a trailing edge of the airfoil, and a blade root for connecting the blade to a main rotor body, characterized in that the blade comprises a crack affecting device which has a changed cross-sectional geometry, at least in the radial direction and/orthe circumferential direction, by comparison with an aerodynamically optimized blade profile, in that the crack affecting device comprises a platform, in that the platform is arranged between the airfoil and the blade root and has a greater cross-sectional thickness than the airfoil, in that the platform comprises in the radial direction at least two adjoining profile regions (28a, 28b) which are different from one another, and in that the profile regions (28a, 28b) are formed by concave free-form surfaces, a maximum curvature of the free-form surfaces of the profile regions 28a, 28b of the suction side being greaterthan the corresponding maximum curvature of the free-form surfaces of the profile regions 28a', 28b' on the pressure side. an airfoil having a suction side and a pressure side which extend between a leading edge and a trailing edge of the airfoil, and a blade root for connecting the blade to a main rotor body, characterized in that the blade comprises a crack affecting device which has a changed cross-sectional geometry, at least in the radial direction and/orthe circumferential direction, by comparison with an aerodynamically optimized blade profile, in that the crack affecting device comprises a platform, in that the platform is arranged between the airfoil and the blade root and has a greater cross-sectional thickness than the airfoil, in that the platform comprises in the radial direction at least two adjoining profile regions (28a, 28b) which are different from one another, and in that the profile regions (28a, 28b) are formed by concave free-form surfaces, a maximum curvature of the free-form surfaces of the profile regions 28a, 28b of the suction side being greaterthan the corresponding maximum curvature of the free-form surfaces of the profile regions 28a', 28b' on the pressure side.
An aluminum alloy material for a high-pressure hydrogen gas container, comprising: 0.6 to 1.5 mass% of Si, 0.6 to 1.6 mass% of Mg; 0.2 to 0.8 mass% of Cu, 0.05 to 0.4 mass% of Fe; Mn limited to 0.60 mass% or less; Cr limited to 0.3 mass% or less; Zr limited to 0.15 mass% or less; V limited to 0.2 mass% or less; Zn limited to 0.25 mass% or less; and Ti limited to 0.1 mass% or less, with the balance consisting in Al and inevitable impurities, wherein the total content of Mn, Cr, Zr, and V is 0.05 mass% or more, wherein the aluminum alloy material has a yield strength S (MPa) and an electrical conductivity E (IACS%) satisfying: S ≤ − 10.46 × E + 801; and S ≥ − 25 × E + 1296, and wherein the aluminum alloy material has a yield strength S of 270 MPa or more and an electrical conductivity of 36 IACS% or more. 0.6 to 1.5 mass% of Si, 0.6 to 1.6 mass% of Mg; 0.2 to 0.8 mass% of Cu, 0.05 to 0.4 mass% of Fe; Mn limited to 0.60 mass% or less; Cr limited to 0.3 mass% or less; Zr limited to 0.15 mass% or less; V limited to 0.2 mass% or less; Zn limited to 0.25 mass% or less; and Ti limited to 0.1 mass% or less, with the balance consisting in Al and inevitable impurities, wherein the total content of Mn, Cr, Zr, and V is 0.05 mass% or more, wherein the aluminum alloy material has a yield strength S (MPa) and an electrical conductivity E (IACS%) satisfying: S ≤ − 10.46 × E + 801; and S ≥ − 25 × E + 1296, and wherein the aluminum alloy material has a yield strength S of 270 MPa or more and an electrical conductivity of 36 IACS% or more.
A system for transferring mechanical power in a turbine engine including a low pressure spool and a high pressure spool, the system comprising: a power transfer unit coupled between an output shaft of the low pressure spool and a drive shaft of the high pressure spool to mechanically link the low pressure spool to the high pressure spool; and a clutch coupled to the power transfer unit, wherein the clutch is configured to transfer power produced from the low pressure spool to the high pressure spool, the system being characterized in that the power transfer unit is configured to modulate or control the amount of power transferred. a power transfer unit coupled between an output shaft of the low pressure spool and a drive shaft of the high pressure spool to mechanically link the low pressure spool to the high pressure spool; and a clutch coupled to the power transfer unit, wherein the clutch is configured to transfer power produced from the low pressure spool to the high pressure spool, the system being characterized in that the power transfer unit is configured to modulate or control the amount of power transferred.
Steering shaft for a motor vehicle, having an inner shaft, which is arranged in an outer shaft so as to be displaceable axially in the direction of an axis of rotation, wherein the inner shaft comprises axially running radial projections on its outer side, and the outer shaft comprises axially running grooves on its inner side, into which grooves the projections of the inner shaft engage in a positively locking manner in a direction of rotation and displaceably in an axial direction, wherein, on the inner shaft, there is arranged a profiled sleeve, the inner circumferential surface of which lies against the flanks of the projections of the inner shaft and the outer circumferential surface of which lies against the flanks of the grooves of the outer shaft, and that the profiled sleeve is connected to the inner shaft by means of one or more fastening points (14, 15, 16) distributed over the circumference of the profiled sleeve, characterized in that the fastening points (14, 15, 16) are formed by means of an ultrasound sonotrode, wherein the projections of the inner shaft are equipped with a knurling on their radial outer side.
An apparatus, comprising: a digital video link interface; a display interface; a block decipher to generate a session key for a reception session within which a multi-frame video content is to be received from a video source device via the digital video link interface, and to generate a successive number of frame keys using the session key for corresponding frames of the multi-frame video content, each of the frame keys being distinctively generated for each of the frames respectively; and a stream decipher coupled to the block decipher to generate a pseudo random bit sequence for each frame, using at least the corresponding frame key, for deciphering a particular frame of the multi-frame video content suitable to be displayed at a display device via the display interface. a digital video link interface; a display interface; a block decipher to generate a session key for a reception session within which a multi-frame video content is to be received from a video source device via the digital video link interface, and to generate a successive number of frame keys using the session key for corresponding frames of the multi-frame video content, each of the frame keys being distinctively generated for each of the frames respectively; and a stream decipher coupled to the block decipher to generate a pseudo random bit sequence for each frame, using at least the corresponding frame key, for deciphering a particular frame of the multi-frame video content suitable to be displayed at a display device via the display interface.
A magnetic field sensor, comprising: at least one magnetoresistive sensor element; and an electric conductor in the proximity of the magnetoresistive sensor element in order to generate a magnetic biasing field, wherein the magnetic field sensor is configured to generate a magnetic biasing field such that the magnetic offset field of the magnetoresistive sensor element is equal to the coercivity of the magnetoresistive sensor element, wherein the magnetic field sensor is configured to apply an electric current to the electric conductor to generate a magnetic biasing field or a magnetic biasing field component parallel to a sensing axis of the magnetoresistive sensor element, wherein the magnetic field sensor is configured to apply a first electric current to reset the magnetic field sensor, and wherein the magnetic field sensor is configured to apply a second electric current to calibrate the magnetic field sensor. at least one magnetoresistive sensor element; and an electric conductor in the proximity of the magnetoresistive sensor element in order to generate a magnetic biasing field,
An isolated and/or artificial pG1-x promoter, which is a functional variant of the carbon source regulatable pG1 promoter of Pichia pastoris identified by SEQ ID 1, which pG1-x promoter consists of or comprises at least a part of SEQ ID 1, which part of SEQ ID 1 has a length of at least 293 bp, which pG1-x promoter comprises the following promoter regions a) at least two copies of a core regulatory promoter region, which core regulatory promoter region comprises the nucleotide sequences SEQ ID 2 and SEQ ID 3, wherein SEQ ID 2 and/or SEQ ID 3 comprises one or more transcription factor binding sites (TFBS); and b) a non-core regulatory promoter region, which is any region within the pG1-x promoter sequence other than the core regulatory region; wherein the pG1-x promoter has a sequence identity to the corresponding region of SEQ ID 1, which is at least 80% to SEQ ID 2 and SEQ ID 3, and at least 50% in any region other than SEQ ID 2 or SEQ ID 3; and further wherein the pG1-x promoter is characterized by an increased promoter strength and/or induction ratio as compared to the pG1 promoter, wherein - the promoter strength is at least 1.1-fold increased in the induced state as compared to the pG1 promoter, and/or - the induction ratio is at least 1.1-fold increased as compared to the pG1 promoter. a) at least two copies of a core regulatory promoter region, which core regulatory promoter region comprises the nucleotide sequences SEQ ID 2 and SEQ ID 3, wherein SEQ ID 2 and/or SEQ ID 3 comprises one or more transcription factor binding sites (TFBS); and b) a non-core regulatory promoter region, which is any region within the pG1-x promoter sequence other than the core regulatory region; - the promoter strength is at least 1.1-fold increased in the induced state as compared to the pG1 promoter, and/or - the induction ratio is at least 1.1-fold increased as compared to the pG1 promoter.
A method for transmitting information related to a vehicle-to-everything, V2X, communication in a wireless communication system, the method performed by a user equipment, UE, and comprising: determining priority of information related to the V2X communication; selecting a transmission time interval, TTI, based on the priority; and transmitting the information based on the selected TTI, wherein based on the information related to the V2X communication being information having high priority, a first TTI is selected, and based on the information related to the V2X communication being information having relatively lower priority than the information having high priority, a second TTI is selected, wherein a resource element of the first TTI is K times longer than a resource element of the second TTI in terms of a frequency and is 1/K times shorter than the resource element of the second TTI in terms of a time, where the K is a positive integer other than 0, and wherein based on the UE selecting the first TTI, the UE repeatedly transmits the information N times per each of encoded bits of the information, where the N is a positive integer other than 0. determining priority of information related to the V2X communication; selecting a transmission time interval, TTI, based on the priority; and transmitting the information based on the selected TTI, wherein based on the information related to the V2X communication being information having high priority, a first TTI is selected, and based on the information related to the V2X communication being information having relatively lower priority than the information having high priority, a second TTI is selected, wherein a resource element of the first TTI is K times longer than a resource element of the second TTI in terms of a frequency and is 1/K times shorter than the resource element of the second TTI in terms of a time, where the K is a positive integer other than 0, and wherein based on the UE selecting the first TTI, the UE repeatedly transmits the information N times per each of encoded bits of the information, where the N is a positive integer other than 0.
A hydraulic apparatus comprising a stator and a rotor, the rotor being movable in rotation relative to the stator along a first axis of rotation (Z-Z), a shaft mounted secured in rotation to the rotor, the shaft having a wheel carrier arranged at a proximal end, configured to receive a rim and a tire, wherein the shaft has a through channel from the proximal end to an opposite distal end, said hydraulic apparatus comprises an air chamber formed at the distal end of the shaft and connected to the through channel, the through channel and the air chamber being made so to allow an air circulation in order to control the pressure of a tire, said air chamber is isolated from the internal volume of the hydraulic apparatus by at least two sealing elements (81, 82) defining therebetween an intermediate volume, Said hydraulic apparatus being characterized in that the air chamber is at least partially delimited by a flange mounted on the distal end of the shaft, and comprising a release valve connecting the intermediate volume to a surrounding environment, said release valve being configured to allow air to escape toward the surrounding environment when the pressure within the intermediate volume exceeds a threshold value. a shaft mounted secured in rotation to the rotor, the shaft having a wheel carrier arranged at a proximal end, configured to receive a rim and a tire, wherein the shaft has a through channel from the proximal end to an opposite distal end, said hydraulic apparatus comprises an air chamber formed at the distal end of the shaft and connected to the through channel, the through channel and the air chamber being made so to allow an air circulation in order to control the pressure of a tire, said air chamber is isolated from the internal volume of the hydraulic apparatus by at least two sealing elements (81, 82) defining therebetween an intermediate volume, Said hydraulic apparatus being characterized in that the air chamber is at least partially delimited by a flange mounted on the distal end of the shaft, and comprising a release valve connecting the intermediate volume to a surrounding environment, said release valve being configured to allow air to escape toward the surrounding environment when the pressure within the intermediate volume exceeds a threshold value.
A robotic lawnmower comprising: a positioning module configured to direct movement of the robotic lawnmower; and an object detection module configured to detect objects proximate to the robotic lawnmower, the object detection module comprising a contact sensor and a contactless sensor, wherein sensitivity of the contactless sensor of the object detection module is configured to be automatically adjustable based on input from the contact sensor. a positioning module configured to direct movement of the robotic lawnmower; and an object detection module configured to detect objects proximate to the robotic lawnmower, the object detection module comprising a contact sensor and a contactless sensor, wherein sensitivity of the contactless sensor of the object detection module is configured to be automatically adjustable based on input from the contact sensor.
A computer-implemented method comprising: requesting, by a client device, an authorization code from an authentication server, the request specifying a set of a plurality of authorization scopes, the set of authorization scopes including authorization scopes for a plurality of security domains (115, 125); receiving, at the client device, the authorization code from the authentication server after authenticating the client device; sending, to the authentication server, a request for an access token, the request including the authorization code; receiving the access token at the client device from the authentication server, wherein the access token provides access to resource services distributed across the plurality of security domains; deriving, at the client device, a first subset of the plurality of authorization scopes of the access token, wherein the first subset is limited to a first security domain of the plurality of security domains; responsive to providing, by the client device, the first subset and the access token to the authentication server, receiving, at the client device, a first reduced-scope access token, wherein the first reduced-scope access token provides access to at least one resource service in the first security domain and includes a refresh token; utilizing, by the client device, the first reduced-scope access token to access the at least one resource service in the first security domain; and in response to expiry of the reduced-scope access token, using, by the client device, the refresh token to obtain another reduced-scope access token. requesting, by a client device, an authorization code from an authentication server, the request specifying a set of a plurality of authorization scopes, the set of authorization scopes including authorization scopes for a plurality of security domains (115, 125); receiving, at the client device, the authorization code from the authentication server after authenticating the client device; sending, to the authentication server, a request for an access token, the request including the authorization code; receiving the access token at the client device from the authentication server, wherein the access token provides access to resource services distributed across the plurality of security domains; deriving, at the client device, a first subset of the plurality of authorization scopes of the access token, wherein the first subset is limited to a first security domain of the plurality of security domains; responsive to providing, by the client device, the first subset and the access token to the authentication server, receiving, at the client device, a first reduced-scope access token, wherein the first reduced-scope access token provides access to at least one resource service in the first security domain and includes a refresh token; utilizing, by the client device, the first reduced-scope access token to access the at least one resource service in the first security domain; and in response to expiry of the reduced-scope access token, using, by the client device, the refresh token to obtain another reduced-scope access token.