mhurhangee/patent-ind-claim-en huggingface dataset:
Gas turbine engine for an aircraft, having: - an engine core which comprises a turbine , a compressor and a turbine shaft which connects the turbine to the compressor and which is in the form of a hollow shaft; - a fan which is positioned upstream of the engine core , wherein the fan comprises multiple fan blades; and - a gearbox which receives an input from the turbine shaft and which outputs drive for the fan for the purposes of driving the fan at a lower rotational speed than the turbine shaft , wherein - the gearbox has a sun gear which is driven by the turbine shaft , and - the turbine shaft and the sun gear form a spline connection which is lubricated with oil, characterized in that the turbine shaft has, on its radially inner side , at least one indentation which is suitable for receiving oil, and the turbine shaft has at least one bore which extends from the indentation to the radially outer side of the turbine shaft and which is suitable for transporting oil from the at least one indentation to the radially outer side of the turbine shaft as the turbine shaft rotates and for introducing said oil into the spline connection . - an engine core which comprises a turbine , a compressor and a turbine shaft which connects the turbine to the compressor and which is in the form of a hollow shaft; - a fan which is positioned upstream of the engine core , wherein the fan comprises multiple fan blades; and - a gearbox which receives an input from the turbine shaft and which outputs drive for the fan for the purposes of driving the fan at a lower rotational speed than the turbine shaft , wherein - the gearbox has a sun gear which is driven by the turbine shaft , and - the turbine shaft and the sun gear form a spline connection which is lubricated with oil,
A computer-implemented method comprising: receiving first positron emission tomography (PET) measurement data from an image scanning system , the first PET measurement data being obtained with no patient within the image scanning system ; determining a reference level of radiation of the image scanning system based on the first PET measurement data; receiving magnetic resonance (MR) measurement data and second PET measurement data from the image scanning system , the second PET measurement data being obtained with a patient within the image scanning system ; generating a first attenuation map based on the first PET measurement data and the second PET measurement data; training a neural network with the first attenuation map and the MR measurement data; and storing the trained neural network in a database . receiving first positron emission tomography (PET) measurement data from an image scanning system , the first PET measurement data being obtained with no patient within the image scanning system ; determining a reference level of radiation of the image scanning system based on the first PET measurement data; receiving magnetic resonance (MR) measurement data and second PET measurement data from the image scanning system , the second PET measurement data being obtained with a patient within the image scanning system ; generating a first attenuation map based on the first PET measurement data and the second PET measurement data; training a neural network with the first attenuation map and the MR measurement data; and storing the trained neural network in a database .
A display device, comprising: a display panel disposed in a first non-folding region (NFR1), a second non-folding region (NFR2), and a folding region (FR), wherein the folding region (FR) is between the first non-folding region (NFR1) and the second non-folding region (NFR2); a first buffer member disposed on one surface of the display panel in the first non-folding region (NFR1); a second buffer member disposed on the one surface of the display panel in the second non-folding region (NFR2); a metal layer disposed in the first non-folding region (NFR1), the second non-folding region (NFR2), and the folding region (FR), and on one surface of the first buffer member and one surface of the second buffer member ; and a fingerprint sensor disposed on the metal layer , wherein the first buffer member and the second buffer member are separated from each other with the folding region (FR) therebetween, the metal layer comprises a first metal portion located in the first non-folding region (NFR1), a second metal portion located in the second non-folding region (NFR2), and a third metal portion located in the folding region (FR), and the fingerprint sensor is attached to the third metal portion . a display panel disposed in a first non-folding region (NFR1), a second non-folding region (NFR2), and a folding region (FR), wherein the folding region (FR) is between the first non-folding region (NFR1) and the second non-folding region (NFR2); a first buffer member disposed on one surface of the display panel in the first non-folding region (NFR1); a second buffer member disposed on the one surface of the display panel in the second non-folding region (NFR2); a metal layer disposed in the first non-folding region (NFR1), the second non-folding region (NFR2), and the folding region (FR), and on one surface of the first buffer member and one surface of the second buffer member ; and a fingerprint sensor disposed on the metal layer , wherein the first buffer member and the second buffer member are separated from each other with the folding region (FR) therebetween, the metal layer comprises a first metal portion located in the first non-folding region (NFR1), a second metal portion located in the second non-folding region (NFR2), and a third metal portion located in the folding region (FR), and the fingerprint sensor is attached to the third metal portion .
A user authentication method, comprising: an authentication step, by an authentication device , for authenticating a login by a user; an information receiving step, by an evaluation device that evaluates a risk of the login being an unauthorized access, for receiving, via the authentication device : a hash value of a user identifier for identifying the user, the hash value being generated in a terminal unit used for the login by the user; and information that indicates a login environment of the terminal unit , the information being encrypted in the terminal unit ; a calculation step, by the evaluation device , for calculating an evaluation value that indicates the risk, the evaluation value being calculated based on a statistic related to a degree of similarity between the login environment of the terminal unit and a previous login environment by the user corresponding to the hash value; an evaluation notification step, by the evaluation device , for notifying the authentication device of a comparison result between the calculated evaluation value and a predetermined threshold; and an additional authentication step, by the authentication device , for performing an additional authentication on the user if the comparison result indicates that the risk of unauthorized access is high. an authentication step, by an authentication device , for authenticating a login by a user; an information receiving step, by an evaluation device that evaluates a risk of the login being an unauthorized access, for receiving, via the authentication device : a hash value of a user identifier for identifying the user, the hash value being generated in a terminal unit used for the login by the user; and information that indicates a login environment of the terminal unit , the information being encrypted in the terminal unit ; a calculation step, by the evaluation device , for calculating an evaluation value that indicates the risk, the evaluation value being calculated based on a statistic related to a degree of similarity between the login environment of the terminal unit and a previous login environment by the user corresponding to the hash value; an evaluation notification step, by the evaluation device , for notifying the authentication device of a comparison result between the calculated evaluation value and a predetermined threshold; and an additional authentication step, by the authentication device , for performing an additional authentication on the user if the comparison result indicates that the risk of unauthorized access is high.
A dental abutment assembly , comprising: a dental abutment having a tubular passage with an internal abutment thread at a lower end of said tubular passage; a dental implant fixture having an upper socket with an internal implant fixture thread ; and a screw shaft having an upper external thread , with an upper external helix twisted in a first direction, and a lower external thread and a connecting shaft, wherein said lower external helix is twisted in a second direction, said upper and lower threads are located at opposite ends of said connecting shaft ; wherein said first direction and said second direction are opposite to one another; wherein said connecting shaft comprises a smooth surface and a diameter smaller than a minor diameter of said internal abutment thread; characterized in that when said assembly is assembled a) said upper external thread extends upwardly beyond said internal abutment thread; and b) said connecting shaft is surrounded by said internal abutment thread. a dental abutment having a tubular passage with an internal abutment thread at a lower end of said tubular passage; a dental implant fixture having an upper socket with an internal implant fixture thread ; and a screw shaft having an upper external thread , with an upper external helix twisted in a first direction, and a lower external thread and a connecting shaft, wherein said lower external helix is twisted in a second direction, said upper and lower threads are located at opposite ends of said connecting shaft ; wherein said first direction and said second direction are opposite to one another; wherein said connecting shaft comprises a smooth surface and a diameter smaller than a minor diameter of said internal abutment thread; characterized in that when said assembly is assembled a) said upper external thread extends upwardly beyond said internal abutment thread; and b) said connecting shaft is surrounded by said internal abutment thread. a) said upper external thread extends upwardly beyond said internal abutment thread; and b) said connecting shaft is surrounded by said internal abutment thread.
An apparatus , comprising: a transceiver arranged to receive, at a first network function of a mobile wireless communication network, a first authorization of unmanned aerial vehicle, UAV, operations and a second authorization for associating a UAV-controller with the UAV, the first and second authorizations associated with a first identifier; and a processor arranged to: create a 5G local area network, LAN, group within the mobile wireless communication for facilitating communications between the UAV and the UAV-controller and associating a second identifier with the 5G LAN group; configure the 5G LAN group based on at least at least one parameter associated with the UAV; and update a third network function with information for the 5G LAN group for establishing a protocol data unit, PDU, session between the UAV and the UAV controller. a transceiver arranged to receive, at a first network function of a mobile wireless communication network, a first authorization of unmanned aerial vehicle, UAV, operations and a second authorization for associating a UAV-controller with the UAV, the first and second authorizations associated with a first identifier; and a processor arranged to: create a 5G local area network, LAN, group within the mobile wireless communication for facilitating communications between the UAV and the UAV-controller and associating a second identifier with the 5G LAN group; configure the 5G LAN group based on at least at least one parameter associated with the UAV; and update a third network function with information for the 5G LAN group for establishing a protocol data unit, PDU, session between the UAV and the UAV controller. create a 5G local area network, LAN, group within the mobile wireless communication for facilitating communications between the UAV and the UAV-controller and associating a second identifier with the 5G LAN group; configure the 5G LAN group based on at least at least one parameter associated with the UAV; and update a third network function with information for the 5G LAN group for establishing a protocol data unit, PDU, session between the UAV and the UAV controller.
Bellows with a first fastening region with a first diameter and with a second fastening region with a second diameter, the first diameter being smaller than the second diameter, and wherein the first fastening region comprises a binder seat region on its outer circumference, wherein on an inner circumference of the first fastening region at least a first and at least a second aeration means are axially spaced apart from one another arranged on said inner circumference which has a flat surface , and protrude above the surface of the inner circumference , wherein by fastening the first fastening region by means of a fastening means between axially spaced-apart first and second aeration means , an area with a bead-like material displacement is formable, which can be brought into contact with a surface of a first machine part.
A loudspeaker parameter prediction system (100; 200; 300), comprising: a loudspeaker having a force transducer and a diaphragm; a non-linear excursion model configured to estimate non-linear excursion of the loudspeaker based on an incoming audio signal; an excursion limiter configured to receive a displacement calculation from the non-linear excursion model to prevent over excursion at all drive levels, and further configured to output an audio signal to be fed to the loudspeaker ; a thermal model (120; 120a, 120b) configured to: utilize frequency dependent parameters based on at least one thermal property of the loudspeaker ; receive the audio signal from the excursion limiter after the excursion limiter has been engaged to determine real-time temperature of the loudspeaker and impedance of the voice coil based only on the incoming audio signal and using the frequency dependent parameters; and a gain adjustment thermal limiter (105; 105a, 105b) configured to apply a gain reduction to the incoming audio signal based on the real-time temperature of the loudspeaker to protect the loudspeaker from thermal and excursion overload. a loudspeaker having a force transducer and a diaphragm; a non-linear excursion model configured to estimate non-linear excursion of the loudspeaker based on an incoming audio signal; an excursion limiter configured to receive a displacement calculation from the non-linear excursion model to prevent over excursion at all drive levels, and further configured to output an audio signal to be fed to the loudspeaker ; a thermal model (120; 120a, 120b) configured to: utilize frequency dependent parameters based on at least one thermal property of the loudspeaker ; receive the audio signal from the excursion limiter after the excursion limiter has been engaged to determine real-time temperature of the loudspeaker and impedance of the voice coil based only on the incoming audio signal and using the frequency dependent parameters; and utilize frequency dependent parameters based on at least one thermal property of the loudspeaker ; receive the audio signal from the excursion limiter after the excursion limiter has been engaged to determine real-time temperature of the loudspeaker and impedance of the voice coil based only on the incoming audio signal and using the frequency dependent parameters; and a gain adjustment thermal limiter (105; 105a, 105b) configured to apply a gain reduction to the incoming audio signal based on the real-time temperature of the loudspeaker to protect the loudspeaker from thermal and excursion overload.
An apparatus for treating obesity of an obese patient with abdominal laparoscopic or open surgery, having a stomach with a food cavity, the apparatus comprising at least one volume filling device adapted to be at least substantially invaginated by a stomach wall portion of the patient, wherein the volume filling device is inflatable and adapted to be placed on the outside of the stomach wall with the outer surface of the volume filling device resting against the outside of the stomach wall, wherein the volume filling device forms an expandable chamber that can change the volume it occupies in the stomach wall, thereby forming a hydraulically or pneumatically regulated inflatable device, and wherein the volume filling device has a volume in the range of 0.1 - 1 dm 3 , characterized in that the apparatus further comprises a different hydraulic or pneumatic reservoir , and wherein the size of the volume filling device can be adjusted by moving fluid or gel thereto or from the different reservoir.
A peptide consisting of the structure: A 1 -B-C or C-B-A 2 , wherein B is optionally present or absent; and wherein A 1 comprises the sequence CDIFTNSRGK (SEQ ID NO:2); A 2 comprises the sequence kGrsntfidc (SEQ ID NO:3); B is a linker sequence; and C is a cell penetrating peptide (CPP) sequence wherein when the peptide consists of the structure A 1 -B-C A 1 has a length of less than 15 esidues, and the linker sequence is a glycine or sarcosine sequence and/or the cell penetrating sequence is a polymeric arginine sequence. A 1 comprises the sequence CDIFTNSRGK (SEQ ID NO:2); A 2 comprises the sequence kGrsntfidc (SEQ ID NO:3); B is a linker sequence; and C is a cell penetrating peptide (CPP) sequence
A fill level measuring device for measuring a level in a container and for storing false echoes, using electromagnetic or acoustic waves, comprising the fill level measuring device : a false echo memory for storing the false echo data; and a computing unit for initializing and/or updating false echo data on the basis of a first value (N B ) corresponding to a first noise level, wherein the initialisation and/or the updating of the false echo data on the basis of the first value (N B ) is activated if the first noise level (N B ) is greater than the sensor-inherent noise (N S ) determined in a factory, wherein the first noise level (N B ) is a container noise level when the container is empty , wherein the computing unit is further adapted to update the false echo data on the basis of a further value corresponding to a further noise level corresponding to a container noise when the container is lightly filled, the further noise level being lower than the sensor-inherent noise of the sensor (N S ) determined in the factory, and wherein a current echo curve in the range from 0 m to a location of a beginning of the last measured level echo is stored in the false echo memory . a false echo memory for storing the false echo data; and a computing unit for initializing and/or updating false echo data on the basis of a first value (N B ) corresponding to a first noise level, wherein the initialisation and/or the updating of the false echo data on the basis of the first value (N B ) is activated if the first noise level (N B ) is greater than the sensor-inherent noise (N S ) determined in a factory, wherein the first noise level (N B ) is a container noise level when the container is empty , wherein the computing unit is further adapted to update the false echo data on the basis of a further value corresponding to a further noise level corresponding to a container noise when the container is lightly filled, the further noise level being lower than the sensor-inherent noise of the sensor (N S ) determined in the factory, and wherein a current echo curve in the range from 0 m to a location of a beginning of the last measured level echo is stored in the false echo memory . wherein the initialisation and/or the updating of the false echo data on the basis of the first value (N B ) is activated if the first noise level (N B ) is greater than the sensor-inherent noise (N S ) determined in a factory, wherein the first noise level (N B ) is a container noise level when the container is empty , wherein the computing unit is further adapted to update the false echo data on the basis of a further value corresponding to a further noise level corresponding to a container noise when the container is lightly filled, the further noise level being lower than the sensor-inherent noise of the sensor (N S ) determined in the factory, and wherein a current echo curve in the range from 0 m to a location of a beginning of the last measured level echo is stored in the false echo memory .
A method for processing video data, comprising: accessing a video signal having a first color component, a second color component, and a third color component in a first color space, wherein the first color component is a luma component, and the second and third color components are chroma components, and wherein the first color component is weakly correlated with the second and third color components; determining parameters for transforming and adaptive clipping bounds; encoding the parameters for transforming; transforming the second color component and the third color component into a transformed second color component and a transformed third color component in a second color space, responsive to the parameters for transforming, wherein the transforming is based on PCA (Principal Component Analysis); clipping , at an encoder, sample values of the transformed second color component and the transformed third color component, responsive to the adaptive clipping bounds; inverse transforming the clipped sample values of the transformed second color component and the transformed third color component; and clipping , at the encoder, sample values of the first color component in the first color space. accessing a video signal having a first color component, a second color component, and a third color component in a first color space, wherein the first color component is a luma component, and the second and third color components are chroma components, and wherein the first color component is weakly correlated with the second and third color components; determining parameters for transforming and adaptive clipping bounds; encoding the parameters for transforming; transforming the second color component and the third color component into a transformed second color component and a transformed third color component in a second color space, responsive to the parameters for transforming, wherein the transforming is based on PCA (Principal Component Analysis); clipping , at an encoder, sample values of the transformed second color component and the transformed third color component, responsive to the adaptive clipping bounds; inverse transforming the clipped sample values of the transformed second color component and the transformed third color component; and clipping , at the encoder, sample values of the first color component in the first color space.