mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operation of a head-mounted audio visual device of an augmented reality system, the method comprising: generating , by the ahead-mounted audio visual device , a virtual world immersive experience within a virtual space while physically moving within a physical space ; receiving , by the head-mounted audio visual device , a teleport control signal; and moving , in response to the teleport control signal, a virtual object of interest in the virtual space to a location in the virtual space that corresponds to a target location in the physical space , wherein the target location in the physical space is an approximate center of the physical space determined by the head-mounted audio visual device . generating , by the ahead-mounted audio visual device , a virtual world immersive experience within a virtual space while physically moving within a physical space ; receiving , by the head-mounted audio visual device , a teleport control signal; and moving , in response to the teleport control signal, a virtual object of interest in the virtual space to a location in the virtual space that corresponds to a target location in the physical space , wherein the target location in the physical space is an approximate center of the physical space determined by the head-mounted audio visual device .
An image data entropy-encoding apparatus based on context-based adaptive binary arithmetic coding, CABAC, the apparatus comprising: a context modeling unit configured to set current context model information for entropy-encoding a syntax element of a first block of image data and a syntax element of a second block of the image data based on previous context model information that is used to entropy-encode a syntax element of a previously encoded block that is adjacent to the first block; and an entropy encoder configured to perform entropy-encoding of the syntax element of the first block and of the syntax element of the second block based on the current context model information, characterized in that the previous context model information indicates a most probable symbol, corresponding to a context index, and an occurrence probability of the most probable symbol applied to context-based adaptive binary arithmetic coding, CABAC, of the previously encoded block, and the current context model information is obtained by updating the information that indicates the most probable symbol and the occurrence probability of the most probable symbol in the previous context model information based on a result of the context-based adaptive binary arithmetic coding of the previously encoded block. a context modeling unit configured to set current context model information for entropy-encoding a syntax element of a first block of image data and a syntax element of a second block of the image data based on previous context model information that is used to entropy-encode a syntax element of a previously encoded block that is adjacent to the first block; and an entropy encoder configured to perform entropy-encoding of the syntax element of the first block and of the syntax element of the second block based on the current context model information, characterized in that the previous context model information indicates a most probable symbol, corresponding to a context index, and an occurrence probability of the most probable symbol applied to context-based adaptive binary arithmetic coding, CABAC, of the previously encoded block, and the current context model information is obtained by updating the information that indicates the most probable symbol and the occurrence probability of the most probable symbol in the previous context model information based on a result of the context-based adaptive binary arithmetic coding of the previously encoded block.
A device housing for an IMD, comprising: - a front side , - a flat end face that is arranged perpendicularly to the front side and adjoins a straight upper edge of the front side, - the front side having a maximum width (Bmax) that is measured in parallel with the straight upper edge and a maximum height (Hmax) that is measured perpendicularly to the straight upper edge , - the ratio of the surface area of the front side to the surface area of a rectangle that is spanned by the maximum width (Bmax) and the maximum height (Hmax), surface area front side surface area rectangle , being at least 0.6, characterized in that the ratio R of maximum width (Bmax) to maximum height (Hmax), i.e. Bmax/Hmax, has a value between 1.2 and 1.275, and the IMD being an implantable cardioverter defibrillator, or a CRT device. - a front side , - a flat end face that is arranged perpendicularly to the front side and adjoins a straight upper edge of the front side, - the front side having a maximum width (Bmax) that is measured in parallel with the straight upper edge and a maximum height (Hmax) that is measured perpendicularly to the straight upper edge , - the ratio of the surface area of the front side to the surface area of a rectangle that is spanned by the maximum width (Bmax) and the maximum height (Hmax), surface area front side surface area rectangle , being at least 0.6, characterized in that the ratio R of maximum width (Bmax) to maximum height (Hmax), i.e. Bmax/Hmax, has a value between 1.2 and 1.275, and the IMD being an implantable cardioverter defibrillator, or a CRT device.
A bean roasting apparatus , comprising: a stirring barrel body , comprising an opening ; a receiving structure , disposed on a side of the stirring barrel body , and comprising a bean-through opening and an observation opening , wherein the bean-through opening is connected to the opening ; and an image capturing assembly , disposed on a side of the receiving structure and comprising at least one image capturing device ; wherein the at least one image capturing device is configured to capture an image inside the receiving structure through the observation opening . a stirring barrel body , comprising an opening ; a receiving structure , disposed on a side of the stirring barrel body , and comprising a bean-through opening and an observation opening , wherein the bean-through opening is connected to the opening ; and an image capturing assembly , disposed on a side of the receiving structure and comprising at least one image capturing device ; wherein the at least one image capturing device is configured to capture an image inside the receiving structure through the observation opening .
Method for the machining of at least one exhaust-gas-conducting surface region of an internal combustion engine or crankcase part in order to provide a corrosion-resistant surface layer, by means of a surface-condition-changing machining tool, wherein the at least one exhaust-gas-conducting surface region, which is produced from a corrodible material is brought into contact, during the course of the machining by means of the surface-condition-changing machining tool, with a tribochemically activatable substance formed by at least one metal silicate, which substance is activated during the course of the machining as a function of a defined contact pressure of the machining tool and/or as a function of a defined machining temperature generated during the machining, and which forms with the respective surface region, by tribochemical reaction, the corrosion-resistant surface as a triboreaction layer.
A tire having a visual effect on its outer surface, comprising a plurality of surface features including: at least one of a first surface feature and at least one of a second surface feature ; wherein each of the surface features is contained within a distinct area ; wherein the at least one first surface feature includes a plurality of parallel linear elements oriented at a first angle, wherein the plurality of linear elements includes a series of linear protrusions and indentations; wherein the at least one second surface feature includes a plurality of parallel linear elements oriented at a second angle, wherein the plurality of linear elements includes a series of linear protrusions and indentations; characterised in that a relative angle formed by the parallel linear elements of adjacent surface features is at least one of: about 30°, about 45°, about 60°, and about 90°; wherein the plurality of surface features creates a camouflage appearance having a mottled design having a pattern of varying shades of color; and wherein additional contrast within the surface features is achieved by varying a depth, a width, and a spacing of the linear elements of the surface feature .
A method for use in a wireless transmit/receive unit, WTRU , for providing beamforming feedback, the method comprising: receiving a sounding frame from an access point, AP ; performing a first measurement on the sounding frame; performing a Givens rotation based decomposition on the performed first measurement; said method being characterized in that it further comprises: performing a second measurement on the sounding frame; performing a Givens rotation based decomposition on the performed second measurement; calculating a difference between the resulting angles of the Givens rotation based decomposition on the performed first measurement and the resulting angles of the Givens rotation based decomposition on the performed second measurement to determine differential resulting angles; quantizing each differential resulting angle by assigning a range to each differential resulting angle, wherein each range is a subset of [0, 2 π ]; and transmitting the quantized angles to the AP in a feedback frame. receiving a sounding frame from an access point, AP ; performing a first measurement on the sounding frame; performing a Givens rotation based decomposition on the performed first measurement; said method being characterized in that it further comprises: performing a second measurement on the sounding frame; performing a Givens rotation based decomposition on the performed second measurement; calculating a difference between the resulting angles of the Givens rotation based decomposition on the performed first measurement and the resulting angles of the Givens rotation based decomposition on the performed second measurement to determine differential resulting angles; quantizing each differential resulting angle by assigning a range to each differential resulting angle, wherein each range is a subset of [0, 2 π ]; and transmitting the quantized angles to the AP in a feedback frame. performing a second measurement on the sounding frame; performing a Givens rotation based decomposition on the performed second measurement; calculating a difference between the resulting angles of the Givens rotation based decomposition on the performed first measurement and the resulting angles of the Givens rotation based decomposition on the performed second measurement to determine differential resulting angles; quantizing each differential resulting angle by assigning a range to each differential resulting angle, wherein each range is a subset of [0, 2 π ]; and transmitting the quantized angles to the AP in a feedback frame.
Cigarette preparation device for introducing an active substance into a cigarette , wherein the cigarette preparation device has a receiving space for receiving a cigarette to be introduced into the cigarette preparation device and an introduction unit for introducing an active substance into a cigarette , wherein the introduction unit is set up to introduce the active substance into a cigarette when the cigarette is introduced into the receiving space and/or when the cigarette is removed from the receiving space , characterized in that the cigarette preparation device has at least one heating unit which is set up to heat or ignite an inner wall of the receiving space and/or, when the cigarette is received in the receiving space , the cigarette and/or an active substance introduced onto and/or into the cigarette , wherein the heating unit has at least one heating spiral , wherein the heating spiral is arranged a. spirally in the receiving space , so that a cigarette can be guided through the spiral heating spiral or can be received in the heating spiral , and/or b. is guided and/or wound around the receiving space , so that an inner wall of the receiving space can be heated by the heating spiral , and/or c. is arranged in a further space of the cigarette preparation device which is fluidically connected to the receiving space , so that active substance and/or air can be introduced into the receiving space via the heating spiral by means of a fan . a. spirally in the receiving space , so that a cigarette can be guided through the spiral heating spiral or can be received in the heating spiral , and/or b. is guided and/or wound around the receiving space , so that an inner wall of the receiving space can be heated by the heating spiral , and/or c. is arranged in a further space of the cigarette preparation device which is fluidically connected to the receiving space , so that active substance and/or air can be introduced into the receiving space via the heating spiral by means of a fan .
A stereo sound encoding method for encoding left and right channels of a stereo sound signal, comprising: down mixing the left and right channels of the stereo sound signal to produce primary and secondary channels; and encoding the primary channel and encoding the secondary channel; wherein encoding the secondary channel comprises analyzing coherence between coding parameters calculated during the secondary channel encoding and coding parameters calculated during the primary channel encoding to decide if the coding parameters calculated during the primary channel encoding are sufficiently close to the coding parameters calculated during the secondary channel encoding to be re-used during the secondary channel encoding. down mixing the left and right channels of the stereo sound signal to produce primary and secondary channels; and encoding the primary channel and encoding the secondary channel; wherein encoding the secondary channel comprises analyzing coherence between coding parameters calculated during the secondary channel encoding and coding parameters calculated during the primary channel encoding to decide if the coding parameters calculated during the primary channel encoding are sufficiently close to the coding parameters calculated during the secondary channel encoding to be re-used during the secondary channel encoding.
Plastic closure for a tubular outlet connector of a container, having a closure cap , which is detachably fastened on the connector in particular via a thread , wherein the closure cap is permanently connected to the connector via a retaining strip , wherein, when the connector axis is vertical, the retaining strip is fastened on the connector by way of a first lower end and, from there, runs upwards to the side of the closure cap by way of a first strip region , and, when the closure cap is closed, the retaining strip has a bent-over section in the upper region so as to run downwards again, by way of a second strip region , to its second lower end, which is fixed to the closure cap , characterized - in that , between its ends, the retaining strip is connected to the closure cap via at least one tearable crosspiece, and/or - in that the two strip regions are connected to one another by at least one tearable crosspiece , and/or - in that the retaining strip is connected to the closure cap or a cap grip surface via a tearable crosspiece , and - wherein the two strip regions run parallel to one another over a large part of their lengths and run parallel to the connector axis over part of their lengths, and - wherein the closure cap has laterally projecting wing-form grip surfaces at its upper end, and - wherein, in the closed state, the retaining strip fits against the underside of the wing-form grip surface by way of its upper, bent-over region , and - wherein, on its underside, the grip surface has a recess, into which the bent-over section protrudes. - in that , between its ends, the retaining strip is connected to the closure cap via at least one tearable crosspiece, and/or - in that the two strip regions are connected to one another by at least one tearable crosspiece , and/or - in that the retaining strip is connected to the closure cap or a cap grip surface via a tearable crosspiece , and - wherein the two strip regions run parallel to one another over a large part of their lengths and run parallel to the connector axis over part of their lengths, and - wherein the closure cap has laterally projecting wing-form grip surfaces at its upper end, and - wherein, in the closed state, the retaining strip fits against the underside of the wing-form grip surface by way of its upper, bent-over region , and - wherein, on its underside, the grip surface has a recess, into which the bent-over section protrudes.
Motor control unit intended to control an electric motor of an electromechanical actuator of a brake of a vehicle , which comprises: - a module supplying commands of an electric current to the electric motor , including commands to release the brake ; - a module for continuous measurement of the intensity (I) of the electric current supplied to the electric motor during the release commands; - a decision module connected to the modules for continuously measuring the intensity of the electric current and for supplying commands , which is designed, during each of the release commands, to evaluate successive values of said intensity of the electric current, to note a stabilisation of said intensity of the electric current, and to stop supplying the electric current after having noted the stabilisation, - the control unit being characterised in that it comprises a temperature sensor and a hydraulic-pressure sensor continuously making measurements, respectively, of a temperature and of a hydraulic pressure representing a temperature (θ) and a hydraulic pressure (P) present in the brake , - the decision module is connected to the temperature sensor and to the hydraulic-pressure sensor , - and the decision module is arranged to determine a given duration (Δt) of prolongation of supply of the electric current after the stabilisation has been noted, the given duration (Δt) being dependent on the measurements of the temperature sensor and of the hydraulic-pressure sensor . - a module supplying commands of an electric current to the electric motor , including commands to release the brake ; - a module for continuous measurement of the intensity (I) of the electric current supplied to the electric motor during the release commands; - a decision module connected to the modules for continuously measuring the intensity of the electric current and for supplying commands , which is designed, during each of the release commands, to evaluate successive values of said intensity of the electric current, to note a stabilisation of said intensity of the electric current, and to stop supplying the electric current after having noted the stabilisation, - the control unit being characterised in that it comprises a temperature sensor and a hydraulic-pressure sensor continuously making measurements, respectively, of a temperature and of a hydraulic pressure representing a temperature (θ) and a hydraulic pressure (P) present in the brake , - the decision module is connected to the temperature sensor and to the hydraulic-pressure sensor , - and the decision module is arranged to determine a given duration (Δt) of prolongation of supply of the electric current after the stabilisation has been noted, the given duration (Δt) being dependent on the measurements of the temperature sensor and of the hydraulic-pressure sensor .
An array substrate, comprising: a base substrate ; a gate electrode and a gate line, disposed on the base substrate ; a first insulating layer , an active layer and ohmic contact layers , sequentially formed on the gate electrode and the gate line; a second insulating layer , formed on the base substrate on which the active layer and the ohmic contact layers are formed, and patterned by etching, whereby at least contact holes are formed in the second insulating layer at positions corresponding to the ohmic contact layers ; a transparent conductive thin film , comprising parts which are disposed in the contact holes of the second insulating layer and a pixel electrode ; a drain electrode , a source electrode and a data line, formed on the second insulating layer and the pixel electrode film , wherein the drain electrode is directly contacting the pixel electrode , characterized in that a passivation layer is formed on the drain electrode , the source electrode and the data line; and in that the transparent conductive thin film is only disposed in regions where the second insulating layer has been etched away. a base substrate ; a gate electrode and a gate line, disposed on the base substrate ; a first insulating layer , an active layer and ohmic contact layers , sequentially formed on the gate electrode and the gate line; a second insulating layer , formed on the base substrate on which the active layer and the ohmic contact layers are formed, and patterned by etching, whereby at least contact holes are formed in the second insulating layer at positions corresponding to the ohmic contact layers ; a transparent conductive thin film , comprising parts which are disposed in the contact holes of the second insulating layer and a pixel electrode ; a drain electrode , a source electrode and a data line, formed on the second insulating layer and the pixel electrode film , wherein the drain electrode is directly contacting the pixel electrode , characterized in that a passivation layer is formed on the drain electrode , the source electrode and the data line; and in that the transparent conductive thin film is only disposed in regions where the second insulating layer has been etched away.
Method for producing precomposite particles, characterized in that mixtures comprising silicon particles, as polymers exclusively one or more oxygen-free polymers, one or more carbon additives based on a carbon modification, and one or more dispersing liquids are dried by means of spray drying.
A sample collection system comprising: a microfluidic container configured to collect a sample comprising a volume of biological fluid of less than about 0.1 ml; and (i) a reusable actuation chuck configured to provide an actuation force when the microfluidic container is contacted with the actuation chuck ; or (ii) an actuation subsystem integrated together with the microfluidic container , the actuation subsystem comprising a mechanism that generates an actuation force; wherein the microfluidic container comprises a reaction chamber , wherein the reaction chamber further comprises reagents disposed within the reaction chamber and an array of microposts configured for movement in the presence of the actuation force in order to mix the biological fluid with the reagents. (i) a reusable actuation chuck configured to provide an actuation force when the microfluidic container is contacted with the actuation chuck ; or (ii) an actuation subsystem integrated together with the microfluidic container , the actuation subsystem comprising a mechanism that generates an actuation force;