mhurhangee/patent-ind-claim-en huggingface dataset:
An image decoding method comprising: splitting a first block included in an image on the basis of at least one of a split type and/or a split direction of the first block to determine at least one second block from the first block (S105); setting a prediction mode of the at least one second block according to whether or not a size of the determined at least one second block is smaller than or equal to a predetermined size (S110); obtaining a prediction block of a block included in the at least one second block on the basis of the set prediction mode (S115); and reconstructing the block included in the at least one second block on the basis of the prediction block of the block included in the at least one second block (S120), wherein the split type represents one of binary-split, tri-split, and quad-split; the method being characterized in that the setting of the prediction mode (S110) comprises forcedly setting an intra mode as the prediction mode instead of an inter mode, if the size of the determined at least one second block is smaller than or equal to the predetermined size. splitting a first block included in an image on the basis of at least one of a split type and/or a split direction of the first block to determine at least one second block from the first block (S105); setting a prediction mode of the at least one second block according to whether or not a size of the determined at least one second block is smaller than or equal to a predetermined size (S110); obtaining a prediction block of a block included in the at least one second block on the basis of the set prediction mode (S115); and reconstructing the block included in the at least one second block on the basis of the prediction block of the block included in the at least one second block (S120), wherein the split type represents one of binary-split, tri-split, and quad-split; the method being characterized in that the setting of the prediction mode (S110) comprises forcedly setting an intra mode as the prediction mode instead of an inter mode, if the size of the determined at least one second block is smaller than or equal to the predetermined size.
Aircraft configured to operate at Mach numbers from 0,80 and up to about 1,2 with wing sweep angles defined by the wing outboard leading edge sweep angularity of less than 35 degrees, characterized by said wing having a parameter ATC incorporating calculated values of the ratio of outboard wing panel aspect ratio (Ap) raised to an exponent of 0,78 divided by the ratio of maximum thickness to chord (t/c), greater than about 45, and having one of the following: a) where said maximum thickness divided by chord (t/c) is at a location approximately 70% of the distance outboard from the attaching aircraft body to the wing tip, or b) where said maximum thickness divided by chord (t/c) is the average value of (t/c)'s located between approximately 50% of the distance outboard from the attaching aircraft body to the wing tip.
Method for the production of a bonding wire having a rectangular cross-section, comprising a wire core made of a first material and a wire jacket made of a second material and enclosing the wire core, wherein the first material has a first metal and the second material has a second metal and the first metal and the second metal are different, wherein the bonding wire has a cross-sectional ratio, in the form of the ratio of width to length of the rectangular structure of the cross-section, of no more than 0.8, characterized in that, in the method, (i) a round wire is provided, comprising a wire core made of a first material and a wire jacket made of a second material and enclosing the wire core, wherein the first material has a first metal and the second material has a second metal and the first metal and the second metal are different, and (ii) this round wire is reshaped, wherein no tools which can cause burr formation along the longitudinal side of the wire are used upon reshaping. (i) a round wire is provided, comprising a wire core made of a first material and a wire jacket made of a second material and enclosing the wire core, wherein the first material has a first metal and the second material has a second metal and the first metal and the second metal are different, and (ii) this round wire is reshaped, wherein no tools which can cause burr formation along the longitudinal side of the wire are used upon reshaping.
Non therapeutic use of carnosol for increasing muscle protein synthesis and/or for reducing muscle protein degradation in a subject.
Encapsulated plug-in connector which is fabricated with a cable and comprises an arrangement composed of a plug-in connector housing and a cylindrical encapsulating adapter sleeve for screw-connection to the plug-in connector housing , wherein the encapsulating adapter sleeve has a thread at one end in order to be connected to a mating thread of the plug-in connector housing and the encapsulating adapter sleeve has an internal channel for guiding a cable through, wherein, furthermore, a plurality of ribs and/or grooves are provided on the outer sheath of the encapsulating adapter sleeve , and the region with the ribs and/or grooves is formed as intended for mutual encapsulation with a cable by means of a plastic in an encapsulating tool, wherein the encapsulating adapter sleeve is screwed to the plug-in connector housing and is provided with a plastic encapsulation (K) in the region of the plurality of ribs and/or grooves , wherein the plastic encapsulation (K) encloses at least part of the cable sheath of the cable in a form-fitting manner, wherein the plug-in connector on the plug-in connector housing has a rotatably mounted screw-connection sleeve for screw-connection to a correspondingly formed mating connector, characterized in that present between the screw-connection sleeve and the plug-in connector housing is an annular gap into which projects an annular housing-side portion of the encapsulating adapter sleeve , on which annular housing-side portion the thread of the encapsulating adapter sleeve is formed.
A sealant composition comprising: (a) an elastomer selected from butyl rubber, polyisobutylene rubber, ethylene-propylene rubber, and mixtures thereof, (b) an inorganic filler, and (c) an adhesion promoter comprising an epoxy-based silane and an amino-based silane, wherein the weight ratio between the epoxy-based silane and the amino-based silane ranges from 60/40 to 90/10. (a) an elastomer selected from butyl rubber, polyisobutylene rubber, ethylene-propylene rubber, and mixtures thereof, (b) an inorganic filler, and (c) an adhesion promoter comprising an epoxy-based silane and an amino-based silane, wherein the weight ratio between the epoxy-based silane and the amino-based silane ranges from 60/40 to 90/10.
A pharmaceutical composition comprising one or more typical auxiliary substances and an active ingredient, characterized in that as the active ingredient it contains urolithin A or urolithin A 3,8-diacetate, preferably synthetic urolithin A for use in the treatment, inhibition and prevention of inflammatory diseases of skin and/or mucous membranes, and wherein the composition is for topical external administration.
A combination comprising (i) one or more of a benzoheterocyclic compound, a pharmaceutically acceptable salt, solvate, polymorph, co-crystal, stereoisomer, isotope compound thereof and (ii) an androgen receptor pathway modulator, wherein the benzoheterocyclic compound is any one of the following compounds: and wherein the androgen receptor pathway modulator is selected from one or more of Enzalutamide, ARN-509, Abiraterone, Abiraterone acetate, Galeterone, and ODM-201.
Method for producing a holding apparatus for x-ray films of a patient's teeth, wherein an image registration of a first two-dimensional x-ray image of a tooth in the lower or upper jaw is performed in a three-dimensional volume-tomographic dataset of the jaw by means of a computer, wherein the location of the first x-ray image within the volume-tomographic dataset is determined, wherein a virtual model for a holding apparatus that is attachable in form-fitting manner to the teeth of the lower or upper jaw is prepared on the basis of the volume-tomographic dataset, which holding apparatus includes a holding element for holding an x-ray film in a defined position, wherein the defined position is established by the location of the first two-dimensional x-ray image in the three-dimensional volume-tomographic dataset, and wherein the holding apparatus is produced on the basis of the virtual model. an image registration of a first two-dimensional x-ray image of a tooth in the lower or upper jaw is performed in a three-dimensional volume-tomographic dataset of the jaw by means of a computer, wherein the location of the first x-ray image within the volume-tomographic dataset is determined, wherein a virtual model for a holding apparatus that is attachable in form-fitting manner to the teeth of the lower or upper jaw is prepared on the basis of the volume-tomographic dataset, which holding apparatus includes a holding element for holding an x-ray film in a defined position, wherein the defined position is established by the location of the first two-dimensional x-ray image in the three-dimensional volume-tomographic dataset, and wherein the holding apparatus is produced on the basis of the virtual model.
Method for producing a pore-containing opaque quartz glass, the method comprising the steps of: (a) producing porous SiO 2 granulate particles by agglomeration of amorphous, synthetically produced SiO 2 primary particles, (b) thermally densifying the SiO 2 granulate particles to form partly densified SiO 2 granulate particles, (c) forming a dispersion containing a dispersion liquid and the partly densified SiO 2 granulate particles dispersed therein, (d) comminuting at least a part of the partly densified SiO 2 granulate particles in the dispersion to form a slip which contains comminuted SiO 2 granulate particles, (e) shaping the slip into a shaped body and removing the dispersion liquid to form a porous SiO 2 green body with a green density pG, and (f) sintering the SiO 2 green body into the opaque quartz glass, characterized in (i) that during the thermal densification of step (b), the partly densified SiO 2 granulate particles are produced with a specific surface BET-(A) in the range of 0.025 to 2.5 m 2 /g determined by BET sorption measurement, and (ii) that during the comminution of step (d), the comminuted SiO 2 granulate particles are produced with a specific surface BET-(B) in the range of 4 to 10 m 2 /g determined by BET sorption measurement. (a) producing porous SiO 2 granulate particles by agglomeration of amorphous, synthetically produced SiO 2 primary particles, (b) thermally densifying the SiO 2 granulate particles to form partly densified SiO 2 granulate particles, (c) forming a dispersion containing a dispersion liquid and the partly densified SiO 2 granulate particles dispersed therein, (d) comminuting at least a part of the partly densified SiO 2 granulate particles in the dispersion to form a slip which contains comminuted SiO 2 granulate particles, (e) shaping the slip into a shaped body and removing the dispersion liquid to form a porous SiO 2 green body with a green density pG, and (f) sintering the SiO 2 green body into the opaque quartz glass, (i) that during the thermal densification of step (b), the partly densified SiO 2 granulate particles are produced with a specific surface BET-(A) in the range of 0.025 to 2.5 m 2 /g determined by BET sorption measurement, and (ii) that during the comminution of step (d), the comminuted SiO 2 granulate particles are produced with a specific surface BET-(B) in the range of 4 to 10 m 2 /g determined by BET sorption measurement.
A computer-implemented method for onboard validation of labelled audio data utilizing an autonomous driving vehicle, ADV, while the ADV is operating within a driving environment, the method comprising: recording a sound emitted by an obstacle within the driving environment of the ADV to create audio samples; labelling the audio samples to produce a labelled audio samples comprising the audio samples, an audio sample identifier, ID, one or more positions associated with the audio samples, and a direction associated with the audio samples, and refining the labelled audio samples in a useable form, which comprises performing obstacle cropping and/or rotation to refine the position and/or direction associated with the audio samples, to generate a refined labelled audio data, wherein the refined labelled audio data is utilized to subsequently train a machine learning algorithm to recognize a sound source during autonomous driving of the ADV; determining a position of the obstacle and a relative direction of the obstacle based on sensors data provided by visual sensors of the ADV; and using the audio samples, the position of the obstacle, and the relative direction of the obstacle to generate a performance profile of the refined labelled audio data,. recording a sound emitted by an obstacle within the driving environment of the ADV to create audio samples; labelling the audio samples to produce a labelled audio samples comprising the audio samples, an audio sample identifier, ID, one or more positions associated with the audio samples, and a direction associated with the audio samples, and refining the labelled audio samples in a useable form, which comprises performing obstacle cropping and/or rotation to refine the position and/or direction associated with the audio samples, to generate a refined labelled audio data, wherein the refined labelled audio data is utilized to subsequently train a machine learning algorithm to recognize a sound source during autonomous driving of the ADV; determining a position of the obstacle and a relative direction of the obstacle based on sensors data provided by visual sensors of the ADV; and using the audio samples, the position of the obstacle, and the relative direction of the obstacle to generate a performance profile of the refined labelled audio data,.
A method of inspecting a joint in a structure, the method comprising: sending, by an ion beam source , an ion beam into a first surface of the structure to form an acoustic pulse source in the structure at a depth corresponding to a Bragg peak of the ion beam, wherein the acoustic pulse source is adjacent to the joint; and sensing, by an acoustic sensor positioned at a second surface of the structure, a travel time and a magnitude of an acoustic pulse generated by the acoustic pulse source to thereby form a response, wherein the joint is between the acoustic pulse source and the second surface; comparing the response to an acceptable response; and identifying an inconsistency if at least one of the travel time or the magnitude of the acoustic pulse is outside the acceptable response. sending, by an ion beam source , an ion beam into a first surface of the structure to form an acoustic pulse source in the structure at a depth corresponding to a Bragg peak of the ion beam, wherein the acoustic pulse source is adjacent to the joint; and sensing, by an acoustic sensor positioned at a second surface of the structure, a travel time and a magnitude of an acoustic pulse generated by the acoustic pulse source to thereby form a response, wherein the joint is between the acoustic pulse source and the second surface; comparing the response to an acceptable response; and identifying an inconsistency if at least one of the travel time or the magnitude of the acoustic pulse is outside the acceptable response.
Satellite propelled by laser ablation comprising: - a device for managing the attitude and the orbit of the satellite ; - a device for external communication; - a laser ablation propulsion device comprising one or more lasers and a module for managing the one or more lasers; characterized in that the satellite comprises: a device for capturing and potentially for processing a target spaceborne body ; a device for visually inspecting the target spaceborne body ; and in that the module for managing the one or more lasers is suitable for determining the one or more laser beams to be generated on the captured target spaceborne body according to the movement desired for the satellite . - a device for managing the attitude and the orbit of the satellite ; - a device for external communication; - a laser ablation propulsion device comprising one or more lasers and a module for managing the one or more lasers; a device for capturing and potentially for processing a target spaceborne body ; a device for visually inspecting the target spaceborne body ; and in that the module for managing the one or more lasers is suitable for determining the one or more laser beams to be generated on the captured target spaceborne body according to the movement desired for the satellite .
A support garment for a pregnant woman, comprising tights and a belt assembled together, the tights being a medical compression orthosis, everyday tights, sport tights or comfort compression tights, characterized in that the belt comprises: - a first band which extends around the waist in an uninterrupted manner between two ends and which is intended to come into contact with the skin, on the abdomen and the back of the pregnant woman, by putting it on or by employing adjustment means disposed at the two ends , and - a second band made of a material that is less elastic than the first band and disposed on the first band as a reinforcement in order to support the weight of the forwardly swelling abdomen and thus relieve the back of the pregnant woman. - a first band which extends around the waist in an uninterrupted manner between two ends and which is intended to come into contact with the skin, on the abdomen and the back of the pregnant woman, by putting it on or by employing adjustment means disposed at the two ends , and - a second band made of a material that is less elastic than the first band and disposed on the first band as a reinforcement in order to support the weight of the forwardly swelling abdomen and thus relieve the back of the pregnant woman.
Cooling radiator , notably for a motor vehicle, comprising at least: - a first manifold box which comprises at least one inlet opening for a heat-transfer fluid, - a second manifold box comprising at least one so-called first outlet opening for said heat-transfer fluid, - a bundle of tubes which communicates with said first box and with said second box and in which said heat-transfer fluid is intended to circulate to be placed in a heat-exchange relationship with another fluid passing over the heat-exchange surfaces associated with said bundle of tubes, said cooling radiator comprises at least one other, so-called second outlet opening , which is arranged in the first manifold box , characterized in that it comprises regulation means which are able to occupy at least: - an open position in which said heat-transfer fluid is discharged through the first outlet opening after having circulated in the bundle of tubes; and - a closed position in which said heat-transfer fluid is discharged by the second outlet opening by bypassing the bundle of tubes. - a first manifold box which comprises at least one inlet opening for a heat-transfer fluid, - a second manifold box comprising at least one so-called first outlet opening for said heat-transfer fluid, - a bundle of tubes which communicates with said first box and with said second box and in which said heat-transfer fluid is intended to circulate to be placed in a heat-exchange relationship with another fluid passing over the heat-exchange surfaces associated with said bundle of tubes, - an open position in which said heat-transfer fluid is discharged through the first outlet opening after having circulated in the bundle of tubes; and - a closed position in which said heat-transfer fluid is discharged by the second outlet opening by bypassing the bundle of tubes.
A light receiving apparatus, comprising: a light receiving unit including a light receiving element configured to receive light and photoelectrically convert the light into signals; a threshold varying unit configured to vary a threshold; a comparing unit configured to compare signal values of the signals output from the light receiving unit with a variable threshold changed by the threshold varying unit, and output signals indicating a comparison result; characterized by further comprising: a counting unit configured to count, for each of the thresholds, a number of times that signals indicating that the signal value is larger than the variable threshold is output from the comparing unit ; and a calculating unit configured to calculate a level of a noise included in the output signals based on a count result in the counting unit by calculating a standard deviation of the normal distribution obtained from the counting result in the counting unit. a light receiving unit including a light receiving element configured to receive light and photoelectrically convert the light into signals; a threshold varying unit configured to vary a threshold; a comparing unit configured to compare signal values of the signals output from the light receiving unit with a variable threshold changed by the threshold varying unit, and output signals indicating a comparison result; characterized by further comprising: a counting unit configured to count, for each of the thresholds, a number of times that signals indicating that the signal value is larger than the variable threshold is output from the comparing unit ; and a calculating unit configured to calculate a level of a noise included in the output signals based on a count result in the counting unit by calculating a standard deviation of the normal distribution obtained from the counting result in the counting unit. a counting unit configured to count, for each of the thresholds, a number of times that signals indicating that the signal value is larger than the variable threshold is output from the comparing unit ; and a calculating unit configured to calculate a level of a noise included in the output signals based on a count result in the counting unit by calculating a standard deviation of the normal distribution obtained from the counting result in the counting unit.
A mobility management entity, MME, comprising: a transmitter , configured to send a first message to a serving gateway, S-GW, wherein the first message carries a first indication, the first indication is configured to instruct the S-GW to allocate a first identifier and a second identifier to a first evolved packet system, EPS, bearer of user equipment, UE, the first identifier is configured to set up a first S1 interface user plane bearer for the UE, and the first S1 interface user plane bearer is a bearer between the S-GW and an eNB, the second identifier is configured to set up a first S11 interface user plane bearer for the UE, and the first S11 interface user plane bearer is a bearer between the S-GW and the MME;; and a receiver , configured to receive a first response message from the S-GW, wherein the first response message carries the first identifier and the second identifier. a transmitter , configured to send a first message to a serving gateway, S-GW, wherein the first message carries a first indication, the first indication is configured to instruct the S-GW to allocate a first identifier and a second identifier to a first evolved packet system, EPS, bearer of user equipment, UE, the first identifier is configured to set up a first S1 interface user plane bearer for the UE, and the first S1 interface user plane bearer is a bearer between the S-GW and an eNB, the second identifier is configured to set up a first S11 interface user plane bearer for the UE, and the first S11 interface user plane bearer is a bearer between the S-GW and the MME;; and a receiver , configured to receive a first response message from the S-GW, wherein the first response message carries the first identifier and the second identifier.