mhurhangee/patent-ind-claim-en huggingface dataset:
A memory device comprising: a crosspoint memory array ; a timer ; and hardware logic coupled with the crosspoint memory array , the hardware logic including a buffer and a command pipeline , wherein the hardware logic is configured to: receive multiple write commands to an address, send a first of the write commands to the crosspoint memory array and start the timer , hold subsequent write commands to the address received after the first of the write commands and before expiration of the timer in the buffer , after expiration of the timer , send a most recent of the subsequent write commands from the buffer to the crosspoint memory array , and for each of the subsequent write commands to the address received before expiration of the timer : overwrite write data corresponding to the address in the buffer with write data for the subsequent write command, and send a signal to the command pipeline to drop the subsequent write command. a crosspoint memory array ; a timer ; and hardware logic coupled with the crosspoint memory array , the hardware logic including a buffer and a command pipeline , wherein the hardware logic is configured to: receive multiple write commands to an address, send a first of the write commands to the crosspoint memory array and start the timer , hold subsequent write commands to the address received after the first of the write commands and before expiration of the timer in the buffer , after expiration of the timer , send a most recent of the subsequent write commands from the buffer to the crosspoint memory array , and for each of the subsequent write commands to the address received before expiration of the timer : overwrite write data corresponding to the address in the buffer with write data for the subsequent write command, and send a signal to the command pipeline to drop the subsequent write command. receive multiple write commands to an address, send a first of the write commands to the crosspoint memory array and start the timer , hold subsequent write commands to the address received after the first of the write commands and before expiration of the timer in the buffer , after expiration of the timer , send a most recent of the subsequent write commands from the buffer to the crosspoint memory array , and for each of the subsequent write commands to the address received before expiration of the timer : overwrite write data corresponding to the address in the buffer with write data for the subsequent write command, and send a signal to the command pipeline to drop the subsequent write command. overwrite write data corresponding to the address in the buffer with write data for the subsequent write command, and send a signal to the command pipeline to drop the subsequent write command.
An antenna, the antenna comprising: two oppositely wound antenna coils , each antenna coil being formed by concentric conductor coils, wherein an outermost conductor coil of one antenna coil is conductively connected to an outermost conductor coil of the other antenna coil via a shared conductive portion , wherein an innermost conductor coil of each antenna coil terminates in a bridge connector ; a bridge conductively linking the bridge connectors , and the antenna is flexible so that the two antenna coils are configured to be positioned about an article so as to functionally align an inner area of one antenna coil with an inner area of the other antenna coil , such that one of the two antenna coils is effectively reversed in orientation in order for the directions of the induced electromagnetic force, EMF, to add together, thereby increasing the effective induced EMF due to increasing the number of turns. two oppositely wound antenna coils , each antenna coil being formed by concentric conductor coils, wherein an outermost conductor coil of one antenna coil is conductively connected to an outermost conductor coil of the other antenna coil via a shared conductive portion , wherein an innermost conductor coil of each antenna coil terminates in a bridge connector ; a bridge conductively linking the bridge connectors , and the antenna is flexible so that the two antenna coils are configured to be positioned about an article so as to functionally align an inner area of one antenna coil with an inner area of the other antenna coil , such that one of the two antenna coils is effectively reversed in orientation in order for the directions of the induced electromagnetic force, EMF, to add together, thereby increasing the effective induced EMF due to increasing the number of turns.
A telemetry monitoring system comprising: a central monitoring unit configured to display data regarding one or more portable devices included in the system, each portable device associated with breathing apparatus of a user; and removable data storage removably connected to the central monitoring unit and configured to store system status data of the central monitoring unit as recovery data, wherein the system status data defines an operational status of the central monitoring unit and is generated at the central monitoring unit ; wherein, in the event of a failure of the telemetry monitoring system , the telemetry monitoring system can be recovered by restoring the recovery data to the central monitoring unit or a replacement central monitoring unit from the removable data storage . a central monitoring unit configured to display data regarding one or more portable devices included in the system, each portable device associated with breathing apparatus of a user; and removable data storage removably connected to the central monitoring unit and configured to store system status data of the central monitoring unit as recovery data, wherein the system status data defines an operational status of the central monitoring unit and is generated at the central monitoring unit ; wherein, in the event of a failure of the telemetry monitoring system , the telemetry monitoring system can be recovered by restoring the recovery data to the central monitoring unit or a replacement central monitoring unit from the removable data storage .
A blade element for a razor cartridge comprising a blade support comprising a base portion and a bent upper portion ; a blade arranged at the upper portion of the blade support and comprising a cutting edge ; and a comb-like element comprising: a shaft portion ; and a plurality of teeth ; wherein the comb-like element is arranged parallel to the blade ; and wherein the plurality of teeth extend parallel to each other from the shaft portion to beyond the cutting edge of the blade ; characterized in that the comb-like element is disposed above the blade . a blade support comprising a base portion and a bent upper portion ; a blade arranged at the upper portion of the blade support and comprising a cutting edge ; and a comb-like element comprising: a shaft portion ; and a plurality of teeth ; a shaft portion ; and a plurality of teeth ; wherein the comb-like element is arranged parallel to the blade ; and wherein the plurality of teeth extend parallel to each other from the shaft portion to beyond the cutting edge of the blade ; characterized in that the comb-like element is disposed above the blade .
A process for producing a highly purified glucosyl stevia composition, comprising the steps of: adding starch into water to form a starch suspension; adding a mixture of α-amylase and CGTase into the starch suspension and incubating for 0.5 to 2 hours at 75-80°C, resulting in a liquefied starch suspension; inactivating the α-amylase by low pH heat treatment; cooling the liquefied starch suspension and adjusting the pH to 5.5 to 7.0; adding steviol glycosides into the liquefied starch suspension, resulting in a reaction mixture; adding a second batch of CGTase into the reaction mixture and incubating for 12 to 48 hours at 55-75°C; adding β-amylase to reaction mixture and incubating for 12-24 hours at 35-55°C; inactivating the enzymes in the reaction mixture by heat treatment; decolourising the reaction mixture; removing non-diterpene compounds by contacting the decolourised reaction mixture with macroporous adsorbent resin and subsequently eluting adsorbed diterpene glycosides with aqueous ethanol to result in a glycoside-containing aqueous ethanol eluate; desalting the glycoside-containing aqueous ethanol eluate with ion-exchange resins; removing ethanol from the aqueous ethanol eluate, resulting in an aqueous eluate; and concentrating and drying the aqueous eluate to obtain the highly purified glucosyl stevia composition, wherein the highly purified glucosyl stevia composition comprises short-chain steviol glycoside derivatives having four or less a-1,4-glucosyl residues, and unmodified steviol glycosides. adding starch into water to form a starch suspension; adding a mixture of α-amylase and CGTase into the starch suspension and incubating for 0.5 to 2 hours at 75-80°C, resulting in a liquefied starch suspension; inactivating the α-amylase by low pH heat treatment; cooling the liquefied starch suspension and adjusting the pH to 5.5 to 7.0; adding steviol glycosides into the liquefied starch suspension, resulting in a reaction mixture; adding a second batch of CGTase into the reaction mixture and incubating for 12 to 48 hours at 55-75°C; adding β-amylase to reaction mixture and incubating for 12-24 hours at 35-55°C; inactivating the enzymes in the reaction mixture by heat treatment; decolourising the reaction mixture; removing non-diterpene compounds by contacting the decolourised reaction mixture with macroporous adsorbent resin and subsequently eluting adsorbed diterpene glycosides with aqueous ethanol to result in a glycoside-containing aqueous ethanol eluate; desalting the glycoside-containing aqueous ethanol eluate with ion-exchange resins; removing ethanol from the aqueous ethanol eluate, resulting in an aqueous eluate; and concentrating and drying the aqueous eluate to obtain the highly purified glucosyl stevia composition, wherein the highly purified glucosyl stevia composition comprises short-chain steviol glycoside derivatives having four or less a-1,4-glucosyl residues, and unmodified steviol glycosides.
A noise emitting device comprising a tool in the form of a pile driver and a workpiece in the form of a driven pile or of a sheet pile, wherein the driven pile , respectively the sheet pile, is provided for manipulation by the tool and wherein a bellows is arranged at the pile driver )10) and/or at the driven pile, respectively the sheet pile, to reduce the noise emission, with the bellows at least substantially surrounding the noise emitting region of the tool and workpiece, characterized in that the bellows is formed as a corrugated bellows .
An apparatus for mitigating a defect in an electrochromic device disposed on a window , the apparatus comprising: a first mechanism configured to detect the defect, wherein the first mechanism comprises at least one of a microscope, a camera, and a photo detector; a second mechanism configured to mitigate the defect, wherein the second mechanism comprises at least one of a laser , a heat source, an induction coil, a microwave source, and a voltage source; and a third mechanism including an X-Y stage the X-Y stage configured to mount to (i) a wall (ii) a window frame in which the window is installed, or (iii) a movable frame, wherein the first mechanism and second mechanism are mounted to the X-Y stage and the X-Y stage is configured for moving the first and second mechanisms to different positions within the window frame, wherein the window is installed in a building or a vehicle, and wherein the apparatus is a portable apparatus. a first mechanism configured to detect the defect, wherein the first mechanism comprises at least one of a microscope, a camera, and a photo detector; a second mechanism configured to mitigate the defect, wherein the second mechanism comprises at least one of a laser , a heat source, an induction coil, a microwave source, and a voltage source; and a third mechanism including an X-Y stage the X-Y stage configured to mount to (i) a wall (ii) a window frame in which the window is installed, or (iii) a movable frame, wherein the first mechanism and second mechanism are mounted to the X-Y stage and the X-Y stage is configured for moving the first and second mechanisms to different positions within the window frame, wherein the window is installed in a building or a vehicle, and wherein the apparatus is a portable apparatus.
An apparatus for determining an optimal route of a maritime ship, wherein the maritime ship is to depart at a predetermined departure location, wherein the maritime ship is to arrive at a predetermined destination location, and wherein the maritime ship is using propulsion to move ahead, the apparatus comprising: a communication interface configured to receive a predetermined ship performance model, predetermined bathymetry information, and predetermined metocean information over a communication network; a database configured to store the predetermined ship performance model, the predetermined bathymetry information, the predetermined metocean information, and at least one optimization constraint parameter, wherein the at least one optimization constraint parameter comprises a predetermined constant shaft power of the propel shaft of the maritime ship; and a processor configured to execute a multi-objective route optimization algorithm based on the predetermined departure location, the predetermined destination location, the predetermined ship performance model, the predetermined bathymetry information, the predetermined metocean information, and the at least one optimization constraint parameter in order to obtain the optimal route of the maritime ship, characterised in that an increased resistance experienced by the ship from water based on a restriction of the water flow under the ship due to insufficient space between the ship's hull and a seabed is considered as one parameter in the optimization. a communication interface configured to receive a predetermined ship performance model, predetermined bathymetry information, and predetermined metocean information over a communication network; a database configured to store the predetermined ship performance model, the predetermined bathymetry information, the predetermined metocean information, and at least one optimization constraint parameter, wherein the at least one optimization constraint parameter comprises a predetermined constant shaft power of the propel shaft of the maritime ship; and a processor configured to execute a multi-objective route optimization algorithm based on the predetermined departure location, the predetermined destination location, the predetermined ship performance model, the predetermined bathymetry information, the predetermined metocean information, and the at least one optimization constraint parameter in order to obtain the optimal route of the maritime ship, characterised in that an increased resistance experienced by the ship from water based on a restriction of the water flow under the ship due to insufficient space between the ship's hull and a seabed is considered as one parameter in the optimization.
Modified cellulose nanofibers obtained by neutralizing cationic groups of cationic cellulose nanofibers with an anionic additives, wherein the diameter of the modified cellulose nanofibers on average is 4 nm to 800 nm, the fiber length of the modified cellulose nanofibers on average is 50 nm to 200 μm, the anionic additives are at least one type of anionic styrene resins, anionic (meth)acrylic resins, anionic polyolefin resins, anionic polyester resins, rosins, and alkenyl succinates, the amount of the anionic additives is 1 part by weight to 100 parts by weight, based on 100 parts by weight of cationic cellulose nanofibers, and the degree of anionization of the anionic additives is 20 mgKOH/g or more, calculated based on the following equation: Degree of anionization (mg KOH/g) = Titrated amount of 1/1000 mol/L poly-DADMAC solution (ml) /2 × 56, determined using the measurement method described in the description.
A lighting apparatus comprising: a first string of light-emitting diodes, LEDs, having a first terminal coupled to a current source and configured to produce light having a first correlated color temperature, CCT; a second string of LEDs having a first terminal coupled to the current source and configured to produce light having a second CCT different from the first CCT; and a current control circuit coupled to second terminals of the first and second strings of LEDs and configured to vary a proportionality relationship between current levels in the first and second strings of LEDs responsive to variation in a current provided by the current source to the first terminals of the first and second strings of LEDs, characterised in that the current control circuit comprises: a current mirror circuit having first and second current paths coupled to second terminals of respective ones of the first and second strings of LEDs; and a bypass circuit coupled to the second string of LEDs and configured to bypass the second current path of the current mirror circuit . a first string of light-emitting diodes, LEDs, having a first terminal coupled to a current source and configured to produce light having a first correlated color temperature, CCT; a second string of LEDs having a first terminal coupled to the current source and configured to produce light having a second CCT different from the first CCT; and a current control circuit coupled to second terminals of the first and second strings of LEDs and configured to vary a proportionality relationship between current levels in the first and second strings of LEDs responsive to variation in a current provided by the current source to the first terminals of the first and second strings of LEDs, characterised in that the current control circuit comprises: a current mirror circuit having first and second current paths coupled to second terminals of respective ones of the first and second strings of LEDs; and a bypass circuit coupled to the second string of LEDs and configured to bypass the second current path of the current mirror circuit . a current mirror circuit having first and second current paths coupled to second terminals of respective ones of the first and second strings of LEDs; and a bypass circuit coupled to the second string of LEDs and configured to bypass the second current path of the current mirror circuit .
A method for feeding items of laundry to laundry treatment apparatus, preferably a mangle, wherein one respective item of laundry is transferred to a belt conveyor of at least one loading station and a smoothing means for smoothing the item of laundry is arranged upstream of the belt conveyor , the item of laundry is transferred from the at least one loading station onto a spreading apparatus , from which the item of laundry is spread out transversely to the feed direction in which the item of laundry is able to be fed to the laundry treatment apparatus, and the spread-out item of laundry is fed at least by at least one feed conveyor to the laundry treatment apparatus, characterized in that the smoothing means is brought from an inactive position into an active position after the item of laundry has been initially pulled onto the belt conveyor in the feed direction , wherein in the active position the smoothing means is supported below the item of laundry for smoothing the part of the item of laundry , which is still located upstream of the belt conveyor , when pulled further onto the belt conveyor , and wherein the smoothing means is pivoted from the active position into the inactive position and vice-versa..
A method of manufacturing a radio frequency identification, RFID, tag on a target surface of a non-planar object , the method comprising: scanning a target surface of the non-planar object using a camera system to determine the three dimensional position and shape of the non-planar object; selecting a design for an antenna suitable for the target surface; selecting a design of a reactive RFID strap based on one or more of the target surface and the selected antenna; positioning an antenna on the target surface of the non-planar object; positioning a reactive RFID strap on the target surface, so that, when in use, the reactive RFID strap couples to the antenna to induce an antenna response. scanning a target surface of the non-planar object using a camera system to determine the three dimensional position and shape of the non-planar object; selecting a design for an antenna suitable for the target surface; selecting a design of a reactive RFID strap based on one or more of the target surface and the selected antenna; positioning an antenna on the target surface of the non-planar object; positioning a reactive RFID strap on the target surface, so that, when in use, the reactive RFID strap couples to the antenna to induce an antenna response.
A rotary-style blow-fill-seal, BFS, manufacturing system , comprising: a BFS mold comprising two cooperatively matched mold halves , each mold half defining a plurality of vacuum cavities; a mold holder coupled to each mold half, the mold holders each comprising (i) a first vacuum port in communication with a first subset of the plurality of vacuum cavities of the respective mold half and (ii) a second vacuum port in communication with a second subset of the plurality of vacuum cavities of the respective mold half; and a vacuum slider in communication with the mold holder, the vacuum slider comprising two vacuum slots, each vacuum slot being operable to (i) be engaged with the first vacuum port of a respective mold holder at a first time in a rotary BFS cycle and (i) be engaged with the second vacuum port of a respective mold holder at a second time in the rotary BFS cycle. a BFS mold comprising two cooperatively matched mold halves , each mold half defining a plurality of vacuum cavities; a mold holder coupled to each mold half, the mold holders each comprising (i) a first vacuum port in communication with a first subset of the plurality of vacuum cavities of the respective mold half and (ii) a second vacuum port in communication with a second subset of the plurality of vacuum cavities of the respective mold half; and a vacuum slider in communication with the mold holder, the vacuum slider comprising two vacuum slots, each vacuum slot being operable to (i) be engaged with the first vacuum port of a respective mold holder at a first time in a rotary BFS cycle and (i) be engaged with the second vacuum port of a respective mold holder at a second time in the rotary BFS cycle.