mhurhangee/patent-ind-claim-en huggingface dataset:
A folded camera module , comprising: a) a lens module having a lens optical axis , and b) an optical path folding element (OPFE) for folding light from a first optical path to a second optical path towards an image sensor , the second optical path being along the lens optical axis , characterized in that the lens module is designed to be moved for auto-focus (AF) along a first direction substantially parallel to the lens optical axis and to be moved for optical image stabilization (OIS) along a second direction substantially orthogonal to both the first and second optical paths to compensate for tilt of the folded camera module around the first direction, and wherein the OPFE is designed to be tilted for OIS around an OPFE tilt axis which is parallel to the second direction to compensate for tilt of the folded camera module around the second direction. a) a lens module having a lens optical axis , and b) an optical path folding element (OPFE) for folding light from a first optical path to a second optical path towards an image sensor , the second optical path being along the lens optical axis , the lens module is designed to be moved for auto-focus (AF) along a first direction substantially parallel to the lens optical axis and to be moved for optical image stabilization (OIS) along a second direction substantially orthogonal to both the first and second optical paths to compensate for tilt of the folded camera module around the first direction, and wherein the OPFE is designed to be tilted for OIS around an OPFE tilt axis which is parallel to the second direction to compensate for tilt of the folded camera module around the second direction.
An electronic apparatus comprising: a memory configured to store at least one instruction; a processor configured to execute the at least one instruction stored in the memory , which when executed causes the processor to control to: acquire input data to be input into a text-to-speech, TTS, module for outputting a voice through the TTS module , acquire a voice signal corresponding to the input data through the TTS module , detect an error in the voice signal based on the input data, correct the input data based on a result of detecting the error, and acquire a corrected voice signal corresponding to the input data corrected based on the result of detecting the error through the TTS module ; and a speaker , characterized in that the processor when executing the at least one instruction is further configured to: add an indicator indicating correction to the corrected voice signal, and output the corrected voice signal having the indicator through the speaker . a memory configured to store at least one instruction; a processor configured to execute the at least one instruction stored in the memory , which when executed causes the processor to control to: acquire input data to be input into a text-to-speech, TTS, module for outputting a voice through the TTS module , acquire a voice signal corresponding to the input data through the TTS module , detect an error in the voice signal based on the input data, correct the input data based on a result of detecting the error, and acquire a corrected voice signal corresponding to the input data corrected based on the result of detecting the error through the TTS module ; and a speaker , characterized in that the processor when executing the at least one instruction is further configured to: add an indicator indicating correction to the corrected voice signal, and output the corrected voice signal having the indicator through the speaker . acquire input data to be input into a text-to-speech, TTS, module for outputting a voice through the TTS module , acquire a voice signal corresponding to the input data through the TTS module , detect an error in the voice signal based on the input data, correct the input data based on a result of detecting the error, and acquire a corrected voice signal corresponding to the input data corrected based on the result of detecting the error through the TTS module ; and a speaker , characterized in that the processor when executing the at least one instruction is further configured to: add an indicator indicating correction to the corrected voice signal, and output the corrected voice signal having the indicator through the speaker . add an indicator indicating correction to the corrected voice signal, and output the corrected voice signal having the indicator through the speaker .
A filter element assembly having at least three stages, for a pressure vessel having a tube sheet with a plurality of openings, the filter element assembly comprising: at least one internal filter element adapted to be installed through one of the openings, the at least one internal filter element having a seal member disposed between the ends of the filter element assembly positioned for sealing against the tube sheet, the at least one internal filter element providing for two stages of filtration with a flow passage upstream of the seal member radially through filter media into a central passage and then another stage radially outward through the media downstream of the seal; charaterized in that the filter element assembly comprises a prefilter element surrounding the at least one internal filter element upstream of the seal to provide a prefilter stage upstream of the at least one internal filter element . at least one internal filter element adapted to be installed through one of the openings, the at least one internal filter element having a seal member disposed between the ends of the filter element assembly positioned for sealing against the tube sheet, the at least one internal filter element providing for two stages of filtration with a flow passage upstream of the seal member radially through filter media into a central passage and then another stage radially outward through the media downstream of the seal; charaterized in that the filter element assembly comprises a prefilter element surrounding the at least one internal filter element upstream of the seal to provide a prefilter stage upstream of the at least one internal filter element .
A mixed powder production method for producing a mixed powder with a plurality of types of powders as raw materials, comprising: a first step of pressure-feeding the plurality of types of powders to a gap space by using a plurality of raw material powder supply passages provided respectively for each of the plurality of types of powders; a second step of spraying the pressure-fed plurality of types of powders into the gap space having a cross-sectional area larger than a total of cross-sectional areas of the plurality of raw material powder supply passages , mixing the plurality of types of powders, and obtaining the mixed powder; and a third step of discharging the mixed powder from a discharge opening provided downstream from the gap space ; wherein the mixed powder production method is characterized in that , a ratio (S2/S1) of the cross-sectional area (S2) of the gap space to the total of cross-sectional areas (S1) of the plurality of raw material powder supply passages is 2 or more; a ratio (S2/S3) of the cross-sectional area (S2) of the gap space to an opening area (S3) of the discharge opening is 2 or more; a ratio (S1/S3) of the total of cross-sectional areas (S1) of the plurality of raw material powder supply passages to the opening area (S3) of the discharge opening is 1.2 or more. a first step of pressure-feeding the plurality of types of powders to a gap space by using a plurality of raw material powder supply passages provided respectively for each of the plurality of types of powders; a second step of spraying the pressure-fed plurality of types of powders into the gap space having a cross-sectional area larger than a total of cross-sectional areas of the plurality of raw material powder supply passages , mixing the plurality of types of powders, and obtaining the mixed powder; and a third step of discharging the mixed powder from a discharge opening provided downstream from the gap space ; wherein the mixed powder production method is characterized in that , a ratio (S2/S1) of the cross-sectional area (S2) of the gap space to the total of cross-sectional areas (S1) of the plurality of raw material powder supply passages is 2 or more; a ratio (S2/S3) of the cross-sectional area (S2) of the gap space to an opening area (S3) of the discharge opening is 2 or more; a ratio (S1/S3) of the total of cross-sectional areas (S1) of the plurality of raw material powder supply passages to the opening area (S3) of the discharge opening is 1.2 or more.
Punching shear reinforcement element, wherein the punching shear reinforcement element has at least one reinforcement bar , wherein the reinforcement bar has an anchoring portion at its respective ends , wherein the reinforcement bar comprises a first portion , a second portion and a third portion , and wherein the reinforcement bar has a first bending portion between the first portion and the second portion and a second bending portion between the second portion and the third portion , wherein the first portion encloses a first bending angle (α 1 ), which is from 30° to 50°, with the second portion in a first side view, that the second portion encloses a second bending angle (α 2 ), which is from 30° to 50°, with the third portion in the first side view, and that the first portion encloses an angle of 0° to 20° with the third portion in the first side view, wherein the punching shear reinforcement element comprises at least two fixedly interconnected reinforcement bars , wherein the two reinforcement bars are configured to be mirror-symmetrical, wherein the first portions , the second portions and the third portions of the two reinforcement bars lie congruently over one another in the first side view, characterized in that , in a second side view which is perpendicular to the first side view, the second portion and the third portion of a reinforcement bar extend with respect to one another so as to be inclined by an angle (β) which is from 2° to 10°. wherein the first portion encloses a first bending angle (α 1 ), which is from 30° to 50°, with the second portion in a first side view, that the second portion encloses a second bending angle (α 2 ), which is from 30° to 50°, with the third portion in the first side view, and that the first portion encloses an angle of 0° to 20° with the third portion in the first side view, wherein the punching shear reinforcement element comprises at least two fixedly interconnected reinforcement bars , wherein the two reinforcement bars are configured to be mirror-symmetrical, wherein the first portions , the second portions and the third portions of the two reinforcement bars lie congruently over one another in the first side view, characterized in that , in a second side view which is perpendicular to the first side view, the second portion and the third portion of a reinforcement bar extend with respect to one another so as to be inclined by an angle (β) which is from 2° to 10°.
A seating unit having a base (21; 21B), a seat , a back (23; 23B), and a control which is arranged to be operably coupled to and supporting the back for movement between upright and reclined positions, the control including a housing, a first mechanism arranged to provide a biasing supporting force to the back during recline, an energy adjustment mechanism and a back stop mechanism , characterised by : the control including an actuator movable to a first operative position for selectively engaging the energy adjustment mechanism, and movable to a second operative position for selectively engaging the back stop mechanism; the energy adjustment mechanism comprising a booster spring mechanism capable of increasing the supporting force, the actuator comprising an on/off selector device for selectively activating and deactivating the booster spring mechanism.
A method for producing a radio frequency identification, RFID, tag , comprising: - attaching a communications enabled device to the substrate so as to form an electrical connection between the communications enabled device and a conductive trace of the substrate to form the tag , - determining , by a computing device , a characteristic of the conductive trace on a substrate to be incorporated into an item to configure a tag performance in view of at least one of a dielectric property or a tuning property of the item ; - altering the conductive trace on the substrate by removing a portion of a conductive material in an area of the conductive trace from the substrate to provide a tag that is specifically tuned and matched to the item ; and wherein the removing the portion of the conductive material in an area of the conductive trace from the substrate includes at least one of partly decreasing a thickness of the conductive trace, partly decreasing a width of the conductive trace, or partly decreasing a height of the conductive trace. - attaching a communications enabled device to the substrate so as to form an electrical connection between the communications enabled device and a conductive trace of the substrate to form the tag , - determining , by a computing device , a characteristic of the conductive trace on a substrate to be incorporated into an item to configure a tag performance in view of at least one of a dielectric property or a tuning property of the item ; - altering the conductive trace on the substrate by removing a portion of a conductive material in an area of the conductive trace from the substrate to provide a tag that is specifically tuned and matched to the item ; and
A stone trap assembly for a harvester , the stone trap assembly comprising: - an entrance configured to allow reception of foreign objects from a crop flow path for accumulation into the stone trap assembly during a harvesting operation; - an exit configured to allow evacuation of these accumulated foreign objects out of the stone trap assembly during an evacuation operation; - a door configured to be rotatable around a first rotation axis , substantially transverse to the crop flow path , for movement along a door movement trajectory between a closed position , in which the door closes off the exit ; and an evacuation position , in which the door opens up the exit ; - an impeller for forcing the accumulated foreign objects towards the exit , configured to be rotatable around a second rotation axis , substantially transverse to the crop flow path , for movement along an impeller movement trajectory between a retracted position and an extended position closer towards the exit , CHARACTERIZED IN THAT the door and the impeller are separately movable during at least a part of the door movement trajectory and/or the impeller movement trajectory . - an entrance configured to allow reception of foreign objects from a crop flow path for accumulation into the stone trap assembly during a harvesting operation; - an exit configured to allow evacuation of these accumulated foreign objects out of the stone trap assembly during an evacuation operation; - a door configured to be rotatable around a first rotation axis , substantially transverse to the crop flow path , for movement along a door movement trajectory between a closed position , in which the door closes off the exit ; and an evacuation position , in which the door opens up the exit ; - an impeller for forcing the accumulated foreign objects towards the exit , configured to be rotatable around a second rotation axis , substantially transverse to the crop flow path , for movement along an impeller movement trajectory between a retracted position and an extended position closer towards the exit ,
A microcontroller comprising: a central processing unit comprising at least one interrupt input ; an interrupt controller configured to provide at least one interrupt signal to the at least one interrupt input of the central processing unit ; a plurality of peripherals coupled with the central processing unit and the interrupt controller ; a mode control register comprising at least one bit controlling an operating mode of the microcontroller , wherein the microcontroller is configured to operate in a first and in a second mode, wherein in the first operating mode upon assertion of an interrupt by a peripheral of the microcontroller , the interrupt controller forwards an interrupt signal to the central processing unit and the peripheral sets an associated interrupt flag; wherein in the second operating mode upon assertion of an interrupt by a peripheral of the microcontroller , the interrupt controller forwards an interrupt signal to the central processing unit and the central processing unit receives additional interrupt information from the peripheral that generated the interrupt, and wherein in either operating mode, the interrupt causes the central processing unit to directly branch to a predefined interrupt address associated with the interrupt input (125 characterized in that in the second mode of operation the additional interrupt information is directly stored in a register of the central processing unit . . a central processing unit comprising at least one interrupt input ; an interrupt controller configured to provide at least one interrupt signal to the at least one interrupt input of the central processing unit ; a plurality of peripherals coupled with the central processing unit and the interrupt controller ; a mode control register comprising at least one bit controlling an operating mode of the microcontroller , wherein the microcontroller is configured to operate in a first and in a second mode, wherein in the first operating mode upon assertion of an interrupt by a peripheral of the microcontroller , the interrupt controller forwards an interrupt signal to the central processing unit and the peripheral sets an associated interrupt flag; wherein in the second operating mode upon assertion of an interrupt by a peripheral of the microcontroller , the interrupt controller forwards an interrupt signal to the central processing unit and the central processing unit receives additional interrupt information from the peripheral that generated the interrupt, and wherein in either operating mode, the interrupt causes the central processing unit to directly branch to a predefined interrupt address associated with the interrupt input (125 characterized in that in the second mode of operation the additional interrupt information is directly stored in a register of the central processing unit . .
A hydraulic system for construction equipment, comprising: a plurality of pressure control-type hydraulic pumps driven by an engine provided in construction equipment; an actuator driven by working oil discharged from the plurality of hydraulic pumps ; a closed center-type main control valve provided between the plurality of hydraulic pumps and the actuator , and bypassing a virtual flow rate; and a controller configured to control the plurality of hydraulic pumps by receiving the bypassed virtual flow rate from the main control valve , said controller further arranged to separately control the plurality of hydraulic pumps according to an operation mode of the construction equipment, wherein the controller is arranged to distribute a maximum horsepower value provided by the engine to each of the plurality of hydraulic pumps according to a distribution ratio preset for each operation mode of the construction equipment, and the plurality of hydraulic pumps comprise a first pump and a second pump ; and wherein the controller is arranged to detect operation quantities from a plurality of operating units provided in the construction equipment, said plurality of operating units being allocated to the first pump and the second pump , respectively, and is further arranged to sum the detected operation quantity for each of the first pump and the second pump , and is arranged to allocate the pump having the larger summed operation quantity as the first pump . a plurality of pressure control-type hydraulic pumps driven by an engine provided in construction equipment; an actuator driven by working oil discharged from the plurality of hydraulic pumps ; a closed center-type main control valve provided between the plurality of hydraulic pumps and the actuator , and bypassing a virtual flow rate; and a controller configured to control the plurality of hydraulic pumps by receiving the bypassed virtual flow rate from the main control valve , said controller further arranged to separately control the plurality of hydraulic pumps according to an operation mode of the construction equipment, wherein the controller is arranged to distribute a maximum horsepower value provided by the engine to each of the plurality of hydraulic pumps according to a distribution ratio preset for each operation mode of the construction equipment, and the plurality of hydraulic pumps comprise a first pump and a second pump ; and wherein the controller is arranged to detect operation quantities from a plurality of operating units provided in the construction equipment, said plurality of operating units being allocated to the first pump and the second pump , respectively, and is further arranged to sum the detected operation quantity for each of the first pump and the second pump , and is arranged to allocate the pump having the larger summed operation quantity as the first pump .
A wound dressing useable for collecting wound exudate during topical negative pressure therapy and for providing protection at a wound site, comprising: a transmission layer comprising a first, upper surface and a further, lower surface spaced apart from the first surface by a relax distance in a relaxed mode of operation; and a plurality of spacer elements extending between the first and further surfaces and, in a forced mode of operation, locatable whereby the first and further surfaces are spaced apart by a compression distance less than the relax distance wherein each spacer element comprises a fibre element extending between and substantially perpendicular to the first and further surfaces in the relaxed mode of operation; and wherein the first and further surfaces and spacer elements are disposed to dissipate force from a first region comprising a contact area of the first surface to a further region or dissipation area, greater than the contact area, of the further surface; and an absorbent layer for absorbing wound exudate located proximate to the upper surface of the transmission layer and unbonded thereto. a transmission layer comprising a first, upper surface and a further, lower surface spaced apart from the first surface by a relax distance in a relaxed mode of operation; and a plurality of spacer elements extending between the first and further surfaces and, in a forced mode of operation, locatable whereby the first and further surfaces are spaced apart by a compression distance less than the relax distance wherein each spacer element comprises a fibre element extending between and substantially perpendicular to the first and further surfaces in the relaxed mode of operation; and wherein the first and further surfaces and spacer elements are disposed to dissipate force from a first region comprising a contact area of the first surface to a further region or dissipation area, greater than the contact area, of the further surface; and an absorbent layer for absorbing wound exudate located proximate to the upper surface of the transmission layer and unbonded thereto.