mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving a resource assignment; determining a first set of time-frequency resources in a subframe from the resource assignment; determining a second set of time-frequency resources in the subframe, the second set of time-frequency resources used for a second latency data transmission, and the second set of time-frequency resources overlapping with at least a portion of the first set of time-frequency resources; and decoding a first latency data transmission in the subframe based on the determined first and second set of time-frequency resources, where the first latency transmission has a longer latency than the second latency transmission, wherein the subframe is a first subframe, and characterised in that , the method further comprises receiving higher layer signaling in a subframe earlier than the first subframe, where the higher layer comprises a layer higher than a physical layer, and where the higher layer signaling indicates a set of orthogonal frequency multiplexed symbols including time-frequency resources used for the second latency data transmission where a latency related marker signal is transmitted receiving a resource assignment; determining a first set of time-frequency resources in a subframe from the resource assignment; determining a second set of time-frequency resources in the subframe, the second set of time-frequency resources used for a second latency data transmission, and the second set of time-frequency resources overlapping with at least a portion of the first set of time-frequency resources; and decoding a first latency data transmission in the subframe based on the determined first and second set of time-frequency resources, where the first latency transmission has a longer latency than the second latency transmission, wherein the subframe is a first subframe, and characterised in that , the method further comprises receiving higher layer signaling in a subframe earlier than the first subframe, where the higher layer comprises a layer higher than a physical layer, and where the higher layer signaling indicates a set of orthogonal frequency multiplexed symbols including time-frequency resources used for the second latency data transmission where a latency related marker signal is transmitted
An optical arrangement comprising an objective having at least one lens and a lens module , the lens module comprising a module housing having a base and a side wall , a variable focal length adaptive lens in the module housing , and a pressure member having a wave spring to retain the adaptive lens in the module housing , and wherein the optical arrangement includes a second spring that presses the lens module onto the objective.
A quick gimbal connector , comprising: a first cylinder , a second cylinder , a connecting plate and a connector ; wherein the second cylinder is coaxially and rotatably connected with the first cylinder , the connector is detachably mounted between the first cylinder and the second cylinder ; wherein the connecting plate is fixedly connected with the second cylinder , the connecting plate is configured to connect with an aerial device; wherein the first cylinder includes a sliding slot and a first boss , at least one entrance is provided at the sliding slot , at least one rib is provided on the connector , the at least one rib is configured to fit with the at least one entrance , and the at least one rib is configured to enter into or exist from the sliding slot via the at least one entrance ; wherein a second boss is provided at a connection between the connecting plate and the second cylinder ; the quick gimbal connector is configured to have the at least one rib enter into the sliding slot via the at least one entrance , so as to lock the first cylinder with the connector by using the first boss and the second boss for position limitation; and the quick gimbal connector is configured to have the at least one rib exit from the sliding slot via the at least one entrance , so as to separate the first cylinder from the connector . a first cylinder , a second cylinder , a connecting plate and a connector ; wherein the second cylinder is coaxially and rotatably connected with the first cylinder , the connector is detachably mounted between the first cylinder and the second cylinder ; wherein the connecting plate is fixedly connected with the second cylinder , the connecting plate is configured to connect with an aerial device; wherein the first cylinder includes a sliding slot and a first boss , at least one entrance is provided at the sliding slot , at least one rib is provided on the connector , the at least one rib is configured to fit with the at least one entrance , and the at least one rib is configured to enter into or exist from the sliding slot via the at least one entrance ; wherein a second boss is provided at a connection between the connecting plate and the second cylinder ; the quick gimbal connector is configured to have the at least one rib enter into the sliding slot via the at least one entrance , so as to lock the first cylinder with the connector by using the first boss and the second boss for position limitation; and the quick gimbal connector is configured to have the at least one rib exit from the sliding slot via the at least one entrance , so as to separate the first cylinder from the connector .
A method of imparting reversible color-changing properties to a nonwoven wipe, comprising the steps of: providing a nonwoven wipe comprising absorbent nonwoven fibers; applying a solution including a reversible color-changing ink formulation to the fabric; drying the solution on the nonwoven wipe; and durably binding the reversible color-changing ink formulation to the nonwoven wipe; wherein the reversible color-changing ink formulation comprises about 10-50% by weight of a polymer binder, about 10-50% by weight of a plasticizer, about 10-50% by weight of a wetting agent and about 1-10% by weight of an anionic indicator compound, based on a dry weight of the reversible color-changing ink formulation; and wherein the drying causes the reversible color-changing ink formulation to durably bind to the nonwoven wipe; and impregnating the dried nonwoven wipe with a quaternary ammonium compound-based sanitizer solution; wherein the anionic indicator compound indicates the need to recharge the nonwoven wipe by changing the reversible color-changing ink formulation back and forth between a first color when the free quaternary ammonium compound exceeds a threshold concentration and a second color when the free quaternary ammonium compound falls below the threshold concentration. providing a nonwoven wipe comprising absorbent nonwoven fibers; applying a solution including a reversible color-changing ink formulation to the fabric; drying the solution on the nonwoven wipe; and durably binding the reversible color-changing ink formulation to the nonwoven wipe; wherein the reversible color-changing ink formulation comprises about 10-50% by weight of a polymer binder, about 10-50% by weight of a plasticizer, about 10-50% by weight of a wetting agent and about 1-10% by weight of an anionic indicator compound, based on a dry weight of the reversible color-changing ink formulation; and wherein the drying causes the reversible color-changing ink formulation to durably bind to the nonwoven wipe; and impregnating the dried nonwoven wipe with a quaternary ammonium compound-based sanitizer solution; wherein the anionic indicator compound indicates the need to recharge the nonwoven wipe by changing the reversible color-changing ink formulation back and forth between a first color when the free quaternary ammonium compound exceeds a threshold concentration and a second color when the free quaternary ammonium compound falls below the threshold concentration.
A computer-implemented face editing method, comprising: acquiring (S101) a face image in an image to be processed; converting (S102) an attribute of the face image according to an editing attribute to generate an attribute image; characterized in that , the method further comprises: segmenting (S103) semantically the attribute image to divide face parts in the attribute image, determining different edited parts of the face parts according to the editing attribute to generate a mask image with values of pixels in the edited parts being 1, and values of pixels in the remaining parts of the face parts being 0; and merging (S104) the attribute image with the image to be processed using the mask image to generate a result image. acquiring (S101) a face image in an image to be processed; converting (S102) an attribute of the face image according to an editing attribute to generate an attribute image; segmenting (S103) semantically the attribute image to divide face parts in the attribute image, determining different edited parts of the face parts according to the editing attribute to generate a mask image with values of pixels in the edited parts being 1, and values of pixels in the remaining parts of the face parts being 0; and merging (S104) the attribute image with the image to be processed using the mask image to generate a result image.
A correlator comprising: a counter for receiving a pulse signal at given time intervals and counting the number of pulses; a number of channels, wherein for each channel there is provided: a sampling part for receiving the number of pulses counted by the counter, a delay part for receiving and sequentially delaying an output from the sampling part , and an operation part for performing a product-sum operation of the output from the sampling part and the output delayed by the delay part ; and wherein the correlator is characterised by a control part for setting a delay time or a sampling time T n for the channel n to T n = f n × T 0 , where f n = a n-1 x f n-1 + a n-2 x f n-2 + a n-3 x f n-3 + ... + a 1 x f 1 , a 1 = , and i = n-1, n-2, ...1; wherein the elements f n are integer numbers, and wherein a sequence r k = f k /f k-1 of ratios of consecutive integer elements of the series f n converges for k → ∞ asymptotically to a geometric ratio r that satisfies 1 ≤ r < 2, and T o represents a unit sampling time defined by a base clock. a counter for receiving a pulse signal at given time intervals and counting the number of pulses; a number of channels, wherein for each channel there is provided: a sampling part for receiving the number of pulses counted by the counter, a delay part for receiving and sequentially delaying an output from the sampling part , and an operation part for performing a product-sum operation of the output from the sampling part and the output delayed by the delay part ; a sampling part for receiving the number of pulses counted by the counter, a delay part for receiving and sequentially delaying an output from the sampling part , and an operation part for performing a product-sum operation of the output from the sampling part and the output delayed by the delay part ; and wherein the correlator is characterised by a control part for setting a delay time or a sampling time T n for the channel n to T n = f n × T 0 , where f n = a n-1 x f n-1 + a n-2 x f n-2 + a n-3 x f n-3 + ... + a 1 x f 1 , a 1 = , and i = n-1, n-2, ...1; wherein a control part for setting a delay time or a sampling time T n for the channel n to T n = f n × T 0 , where f n = a n-1 x f n-1 + a n-2 x f n-2 + a n-3 x f n-3 + ... + a 1 x f 1 , a 1 = , and i = n-1, n-2, ...1; wherein the elements f n are integer numbers, and wherein a sequence r k = f k /f k-1 of ratios of consecutive integer elements of the series f n converges for k → ∞ asymptotically to a geometric ratio r that satisfies 1 ≤ r < 2, and T o represents a unit sampling time defined by a base clock.
An electronic component mounter comprising: a suction nozzle configured to pick up an electronic component (P) housed in a housing section that houses multiple of the electronic components (P) that are to be mounted on a circuit board (PB); a switching device configured to switch air supplied to a nozzle hole of the suction nozzle to negative pressure air when picking up the electronic component (P), and to switch the air supplied to the nozzle hole of the suction nozzle to positive pressure air when mounting the electronic component (P) that was picked up by the suction nozzle on the circuit board (PB); and a blow supply device configured to supply at least a first blow to the suction nozzle for a specified time when the positive pressure air is being supplied to the nozzle hole by the switching device , then, after the specified time has elapsed, stop the first blow and supply a second blow with a lower pressure than the first blow to the suction nozzle , wherein the blow supply device is configured to start supplying the second blow before stopping the first blow. a suction nozzle configured to pick up an electronic component (P) housed in a housing section that houses multiple of the electronic components (P) that are to be mounted on a circuit board (PB); a switching device configured to switch air supplied to a nozzle hole of the suction nozzle to negative pressure air when picking up the electronic component (P), and to switch the air supplied to the nozzle hole of the suction nozzle to positive pressure air when mounting the electronic component (P) that was picked up by the suction nozzle on the circuit board (PB); and a blow supply device configured to supply at least a first blow to the suction nozzle for a specified time when the positive pressure air is being supplied to the nozzle hole by the switching device , then, after the specified time has elapsed, stop the first blow and supply a second blow with a lower pressure than the first blow to the suction nozzle , wherein the blow supply device is configured to start supplying the second blow before stopping the first blow.
A portable grilling system comprising: a grate comprising a non-flammable material; at least two support members comprising a non-flammable material, wherein at least one of the support members comprises a support member mating surface; and a fuel insert comprising: a base tray formed of a biodegradable material having a bottom surface and one or more sidewalls extending upwards from the bottom surface; a biodegradable and non-flammable lining material positionable within the base tray; and a fuel source positionable within the lining material; wherein at least one of the sidewalls comprises a sidewall mating surface that interlocks with the support member mating surface of the at least two support members when the fuel insert is mated with the at least two support members . a grate comprising a non-flammable material; at least two support members comprising a non-flammable material, wherein at least one of the support members comprises a support member mating surface; and a fuel insert comprising: a base tray formed of a biodegradable material having a bottom surface and one or more sidewalls extending upwards from the bottom surface; a biodegradable and non-flammable lining material positionable within the base tray; and a fuel source positionable within the lining material; wherein at least one of the sidewalls comprises a sidewall mating surface that interlocks with the support member mating surface of the at least two support members when the fuel insert is mated with the at least two support members . a base tray formed of a biodegradable material having a bottom surface and one or more sidewalls extending upwards from the bottom surface; a biodegradable and non-flammable lining material positionable within the base tray; and a fuel source positionable within the lining material; wherein at least one of the sidewalls comprises a sidewall mating surface that interlocks with the support member mating surface of the at least two support members when the fuel insert is mated with the at least two support members .
A device for producing hollow tubes , in particular drinking straws, comprising a first formatting device which is configured to convey a first material strip in a longitudinally axial direction and to shape said first material strip into a first hollow tube during the conveying process, wherein a second formatting device is provided, which is arranged behind the first formatting device in the conveyer direction and is configured to wind a second material strip around the first material strip while the second material strip is being conveyed in a longitudinally axial direction such that a double-layer hollow tube is formed, which has the first hollow tube on the inside and the second material strip on the outside, wherein the first formatting device and the second formatting device partially overlap, characterized in that the two formatting devices overlap in the conveyer direction, that is to say partially lie above one another or partially lie next to one another, wherein the outlet of the first formatting device lies in the inlet region of the second material strip of the second formatting device .
An assembly comprising a cutter head arranged to rotate about an axis of rotation (RA) for removing material from a water bed and a backplate connectable to a vessel, the cutter head comprising: a base ring positioned around the axis of rotation (RA); and a hub positioned to rotate the cutter head about the axis of rotation (RA); a plurality of arms extending between the base ring and the hub , the arms comprising a plurality of cutting tools ; and a plurality of skirts , each skirt extending from one of the plurality of arms to the hub to form a closed surface between the arm and the hub from a distal end of the cutter head toward the base ring , characterized in that each skirt is ending with a side configured to be parallel to the backplate that is angled toward the distal end of the cutter head from the base ring , leaving an open channel between the skirt and the backplate. a base ring positioned around the axis of rotation (RA); and a hub positioned to rotate the cutter head about the axis of rotation (RA); a plurality of arms extending between the base ring and the hub , the arms comprising a plurality of cutting tools ; and a plurality of skirts , each skirt extending from one of the plurality of arms to the hub to form a closed surface between the arm and the hub from a distal end of the cutter head toward the base ring , characterized in that each skirt is ending with a side configured to be parallel to the backplate that is angled toward the distal end of the cutter head from the base ring , leaving an open channel between the skirt and the backplate.
Combustion engine (E) provided with a Waste Heat Recovery System (WHR) draining thermal energy from an exhaust pipe (EP) and/or other sources of the combustion engine (E) in order to produce mechanical energy (ME) by exploiting ethanol as working medium, wherein the combustion engine comprises an exhaust line (EP) connected to the combustion engine exhaust manifold and wherein the WHR comprises a fresh ethanol tank (ETH-T) connected with a first point of a WHR ethanol circuit in order to replace the WHR circuit ethanol with fresh one and a pipe connection (ATS-ETH1) connecting a second point of the WHR medium circuit with said exhaust line (EP) in order to burn ethanol within the exhaust line from the WHR ethanol circuit.
Method of preparing a composition comprising hydrolysed proteins from raw material of animal origin, characterised in that it comprises the following steps: a) crushing said raw material of animal origin; b) fluidising the product obtained in step a) by adding water up to a moisture content of between 70 and 75% by weight, and by increasing the temperature up to between 90oC and 98oC; c) hydrolysing the product obtained in step b) at a temperature of between 125°C and 135°C, at a pressure of between 3 and 4 absolute bars for 10 to 30 minutes; d) separating and discarding the impurities present in the product obtained in step c), e) hydrolysing the product obtained in step d) at a temperature of between 170°C and 200°C, at a pressure of between 10 and 50 absolute bars and for 20 to 60 seconds; f) separating and discarding the impurities, solids and oily phase present in the product obtained in step e); g) concentrating the product obtained in step f) by evaporating its aqueous phase; wherein the product obtained in step g) is a liquid composition comprising hydrolysed proteins having a solubility higher than 80% and in which at least 90% of the soluble fraction of said composition are proteins of molecular weight less than 10 000 Daltons. a) crushing said raw material of animal origin; b) fluidising the product obtained in step a) by adding water up to a moisture content of between 70 and 75% by weight, and by increasing the temperature up to between 90oC and 98oC; c) hydrolysing the product obtained in step b) at a temperature of between 125°C and 135°C, at a pressure of between 3 and 4 absolute bars for 10 to 30 minutes; d) separating and discarding the impurities present in the product obtained in step c), e) hydrolysing the product obtained in step d) at a temperature of between 170°C and 200°C, at a pressure of between 10 and 50 absolute bars and for 20 to 60 seconds; f) separating and discarding the impurities, solids and oily phase present in the product obtained in step e); g) concentrating the product obtained in step f) by evaporating its aqueous phase;
An electronic device comprising: a foldable body transitionable between an unfolded state and a folded state; a flexible display device disposed on a front face of the body, the flexible display device being foldable together with the body; and a cover enclosing at least a portion of a rear face of the body, the cover being foldable together with the body, wherein at least a portion of the flexible display device includes an exposed region that is visible at least when the foldable body is in the folded state, characterized by a second display device disposed on a rear face of the body to be opposite to the flexible display device; wherein the second display device is concealed by the cover when the foldable body is in the unfolded state and is exposed when the foldable body is in the folded state due to a difference in relative displacement between the flexible display device and the cover at a folding operation; wherein the cover and the foldable body are fixed to each other at a fixing portion and the cover is slidably coupled to the foldable body relative to the second display device ; and wherein the second display device is arranged in a region that is exposed due to a movement of the cover relative to the second display device , wherein the second display device is exposed to an outside of the cover as the cover is slid into the folded state of the foldable body. a foldable body transitionable between an unfolded state and a folded state; a flexible display device disposed on a front face of the body, the flexible display device being foldable together with the body; and a cover enclosing at least a portion of a rear face of the body, the cover being foldable together with the body, wherein at least a portion of the flexible display device includes an exposed region that is visible at least when the foldable body is in the folded state, characterized by a second display device disposed on a rear face of the body to be opposite to the flexible display device; wherein the second display device is concealed by the cover when the foldable body is in the unfolded state and is exposed when the foldable body is in the folded state due to a difference in relative displacement between the flexible display device and the cover at a folding operation; wherein the cover and the foldable body are fixed to each other at a fixing portion and the cover is slidably coupled to the foldable body relative to the second display device ; and wherein the second display device is arranged in a region that is exposed due to a movement of the cover relative to the second display device , wherein the second display device is exposed to an outside of the cover as the cover is slid into the folded state of the foldable body.