mhurhangee/patent-ind-claim-en huggingface dataset:
Loudspeaker assembly comprising a sound transducer and an acoustic lens , said acoustic lens having one or more movable members , where said movable members may be moved from a first position where the movable members have a first influence on the directivity of the acoustic lens , to a second position where the movable members have a second influence on the directivity of the acoustic lens , and any position in-between said first position and said second position characterized in that the sound transducer is arranged adjacent the acoustic lens , for emitting sound in a first direction , and where the movable members rotate around one or more first axes parallel to the first direction .
An imaging apparatus comprising: a detection unit that detects a pupil in a captured image; an autofocus control unit that executes, in a still image capturing mode, a pupil autofocus control to perform single autofocus on the pupil detected by the detection unit according to a predetermined operation, wherein once focusing is achieved, the focus is fixed thereto, and executes, in a moving image capturing mode, a pupil autofocus control to perform continuous autofocus when the pupil is detected by the detection unit; and a display control unit that performs a control to display a pupil frame indicating the pupil detected by the detection unit on a displayed captured monitor image that is based on the captured image, wherein in the still image capturing mode, the display control unit performs the control to display a pupil focus frame, which represents a focus state, as the pupil frame when focusing is achieved by the pupil autofocus control, and in the moving image capturing mode, the display control unit performs the control to display a pupil detection frame, which represents the detection of a pupil and is in a different display form from the pupil focus frame, as the pupil frame when the pupil has been detected by the detection unit regardless of whether or not focusing is performed. a detection unit that detects a pupil in a captured image; an autofocus control unit that executes, in a still image capturing mode, a pupil autofocus control to perform single autofocus on the pupil detected by the detection unit according to a predetermined operation, wherein once focusing is achieved, the focus is fixed thereto, and executes, in a moving image capturing mode, a pupil autofocus control to perform continuous autofocus when the pupil is detected by the detection unit; and a display control unit that performs a control to display a pupil frame indicating the pupil detected by the detection unit on a displayed captured monitor image that is based on the captured image, wherein in the still image capturing mode, the display control unit performs the control to display a pupil focus frame, which represents a focus state, as the pupil frame when focusing is achieved by the pupil autofocus control, and in the moving image capturing mode, the display control unit performs the control to display a pupil detection frame, which represents the detection of a pupil and is in a different display form from the pupil focus frame, as the pupil frame when the pupil has been detected by the detection unit regardless of whether or not focusing is performed.
A polymer composition (C1) comprising: - from 25 to 59 wt.% of at least one poly(aryl ether sulfone) (PAES); - from 1 to 35 wt.% of at least one poly(aryletherketone) (PAEK) ; - from 20 to 35 wt.% of at least one polyphenylsulfide (PPS) ; and - from 5 to 50 wt.% of glass fibers, based on the total weight of the polymer composition (C1). - from 25 to 59 wt.% of at least one poly(aryl ether sulfone) (PAES); - from 1 to 35 wt.% of at least one poly(aryletherketone) (PAEK) ; - from 20 to 35 wt.% of at least one polyphenylsulfide (PPS) ; and - from 5 to 50 wt.% of glass fibers,
Electronic module (10a; 10b; 10c; 10d), in particular for a hand-held power tool , having at least one electronic unit (12a; 12b; 12c; 12d), having at least one contacting unit (14a; 14b; 14c; 14d), which is intended to contact an electrical energy source (16b; 16d) and/or to transmit electronic data, and having at least one cover unit (18a; 18b; 18c; 18d), wherein the contacting unit (14a; 14b; 14c; 14d) is arranged on a side (20a; 20b; 20c; 20d) of the electronic unit (12a; 12b; 12c; 12d) that faces away from the cover unit (18a; 18b; 18c; 18d), characterized by at least one damping unit , which is arranged on a side (20a; 20b) of the electronic unit (12a; 12b) that faces away from the cover unit (18a; 18b; 18c; 18d), and which is at least partially in the form of an energy harvesting unit and is intended to use a mechanical vibrational energy to operate the electronic unit (12a; 12b), in particular to convert it into electrical energy for operating the electronic unit (12a; 12b).
An acoustical structure comprising: A first substrate comprising a substantially open first core having a plurality of open cells defined by cell walls extending perpendicular to opposing first and second major sides of the first core ; A first facing layer attached to the first major side of the first core , wherein the first facing layer is porous and has an airflow resistance of 100 to 1000 mks rayls; a second substrate comprising a substantially open second core having a plurality of open cells defined by cell walls extending perpendicular to opposing first and second major sides of the second core ; a second facing layer attached to the second major side of the second core ; and an interlayer disposed between the first and second substrates , the first and second substrates being bonded to opposite sides of the interlayer. A first substrate comprising a substantially open first core having a plurality of open cells defined by cell walls extending perpendicular to opposing first and second major sides of the first core ; A first facing layer attached to the first major side of the first core , wherein the first facing layer is porous and has an airflow resistance of 100 to 1000 mks rayls; a second substrate comprising a substantially open second core having a plurality of open cells defined by cell walls extending perpendicular to opposing first and second major sides of the second core ; a second facing layer attached to the second major side of the second core ; and an interlayer disposed between the first and second substrates , the first and second substrates being bonded to opposite sides of the interlayer.
A connection system operable to secure a surface panel of a structure to a support, the system including a male connector and a female connector, each of which is to be engaged with either of the surface panel or the support respectively, the male connector defining an engagement projection extending from an engagement surface of the male connector, and the female connector defining a receiving cavity with a form complementary to the engagement projection , wherein: - the receiving cavity is movable in two dimensions substantially perpendicular to a longitudinal axis of the received engagement projection said movement being relative to an engagement surface of the female connector; - the engagement projection and complementary receiving cavity are operable to secure a portion of the engagement projection in a positioning zone of the receiving cavity and alternatively in a locking zone of the receiving cavity , wherein: - when the portion of the engagement projection is secured in the positioning zone the male connector is secured to the female connector but movable with the receiving cavity to allow movement of the male connector relative engagement surface of the female connector in said two dimensions; and - when the portion of the engagement projection is secured in the locking zone the engagement surfaces of the male and female part engage with each other to prevent said two dimensional movement to lock the male connector in position. - the receiving cavity is movable in two dimensions substantially perpendicular to a longitudinal axis of the received engagement projection said movement being relative to an engagement surface of the female connector; - the engagement projection and complementary receiving cavity are operable to secure a portion of the engagement projection in a positioning zone of the receiving cavity and alternatively in a locking zone of the receiving cavity , wherein: - when the portion of the engagement projection is secured in the positioning zone the male connector is secured to the female connector but movable with the receiving cavity to allow movement of the male connector relative engagement surface of the female connector in said two dimensions; and - when the portion of the engagement projection is secured in the locking zone the engagement surfaces of the male and female part engage with each other to prevent said two dimensional movement to lock the male connector in position. - when the portion of the engagement projection is secured in the positioning zone the male connector is secured to the female connector but movable with the receiving cavity to allow movement of the male connector relative engagement surface of the female connector in said two dimensions; and - when the portion of the engagement projection is secured in the locking zone the engagement surfaces of the male and female part engage with each other to prevent said two dimensional movement to lock the male connector in position.
A dry-process method for the production of an easy-to-take solid preparation wherein a compression-molded core is coated with a coating agent comprising a gelling agent that will show slipperiness when it is brought into contact with water, comprising directly applying only powder of the coating agent to a mortar inner surface, the bottom end surface of an upper-pestle, and the top end surface of a lower-pestle, and subsequently loading and integrally compression-molding a core-molding material.
Audio post-processor for post-processing an audio signal having a time-variable high frequency gain information as side information , comprising: a band extractor for extracting a high frequency band of the audio signal and a low frequency band of the audio signal ; a high band processor for performing a time-variable amplification of the high frequency band in accordance with the time-variable high frequency gain information to obtain a processed high frequency band ; a combiner for combining the processed high frequency band and the low frequency band . a band extractor for extracting a high frequency band of the audio signal and a low frequency band of the audio signal ; a high band processor for performing a time-variable amplification of the high frequency band in accordance with the time-variable high frequency gain information to obtain a processed high frequency band ; a combiner for combining the processed high frequency band and the low frequency band .
A cleaner comprising: a suction inlet configured to guide air into the cleaner; an impeller connected to and configured to rotate about a shaft extending vertically in a state in which the cleaner is positioned such that the shaft is arranged along a vertical direction to generate a suction force that suctions air into the cleaner through the suction inlet ; a suction motor comprising the impeller , the suction motor being configured to drive a rotation of the impeller via the shaft ; a first cyclone unit configured to separate dust from air that is suctioned into the cleaner; and a second cyclone unit having a plurality of cyclone bodies to separate dust from the air that is discharged from the first cyclone unit , the plurality of cyclone bodies being disposed below the suction motor so as to overlap in the vertical direction; and air exits configured to discharge air that has passed through a filter to an outside of the cleaner , characterized in that : the impeller is positioned at an upper portion in the suction motor ; and a filter unit includes: a filter configured to filter air that has passed through the suction motor ; a filter frame for supporting the filter ; and a sealing member configured to seal a gap between the filter unit and a body of the cleaner to which the filter unit is coupled. a suction inlet configured to guide air into the cleaner; an impeller connected to and configured to rotate about a shaft extending vertically in a state in which the cleaner is positioned such that the shaft is arranged along a vertical direction to generate a suction force that suctions air into the cleaner through the suction inlet ; a suction motor comprising the impeller , the suction motor being configured to drive a rotation of the impeller via the shaft ; a first cyclone unit configured to separate dust from air that is suctioned into the cleaner; and a second cyclone unit having a plurality of cyclone bodies to separate dust from the air that is discharged from the first cyclone unit , the plurality of cyclone bodies being disposed below the suction motor so as to overlap in the vertical direction; and air exits configured to discharge air that has passed through a filter to an outside of the cleaner , characterized in that : the impeller is positioned at an upper portion in the suction motor ; and a filter unit includes: a filter configured to filter air that has passed through the suction motor ; a filter frame for supporting the filter ; and a sealing member configured to seal a gap between the filter unit and a body of the cleaner to which the filter unit is coupled. the impeller is positioned at an upper portion in the suction motor ; and a filter unit includes: a filter configured to filter air that has passed through the suction motor ; a filter frame for supporting the filter ; and a sealing member configured to seal a gap between the filter unit and a body of the cleaner to which the filter unit is coupled.
A device comprising: a Magnetic Tunnel Junction (MTJ) memory element comprising, a reference layer, a free layer, and a magnetic tunneling layer between the reference layer and the free layer; and characterized by the device having a pair of magneto-electric controlling layers, which have in-plane uniaxial anisotropy, wherein the pair of magneto-electric controlling layers are disposed below the free layer. a Magnetic Tunnel Junction (MTJ) memory element comprising, a reference layer, a free layer, and a magnetic tunneling layer between the reference layer and the free layer; and characterized by the device having a pair of magneto-electric controlling layers, which have in-plane uniaxial anisotropy, wherein the pair of magneto-electric controlling layers are disposed below the free layer.
A supplementary turning function-equipped hub unit comprising: a hub unit main body including a hub bearing configured to support a wheel ; a unit support member configured to be provided to a chassis frame component of a suspension device, the unit support member supporting the hub unit main body so as to be rotatable about a turning axis extending in a vertical direction; and a turning actuator configured to rotationally drive the hub unit main body about the turning axis, characterised in that the unit support member includes an abutment part configured such that a part of the hub unit main body is brought into abutment with the abutment part in the vertical direction during non-normal time, the non-normal time in which the abutment is caused being defined as a time when an impact load equal to or greater than a predetermined value acts on the hub unit main body in the vertical direction due to an external force from the wheel , and the abutment part is separated from the hub unit main body in the vertical direction during normal time. a hub unit main body including a hub bearing configured to support a wheel ; a unit support member configured to be provided to a chassis frame component of a suspension device, the unit support member supporting the hub unit main body so as to be rotatable about a turning axis extending in a vertical direction; and a turning actuator configured to rotationally drive the hub unit main body about the turning axis, characterised in that the unit support member includes an abutment part configured such that a part of the hub unit main body is brought into abutment with the abutment part in the vertical direction during non-normal time, the non-normal time in which the abutment is caused being defined as a time when an impact load equal to or greater than a predetermined value acts on the hub unit main body in the vertical direction due to an external force from the wheel , and the abutment part is separated from the hub unit main body in the vertical direction during normal time.
A floating catalyst chemical vapour deposition method for producing nanotubes, the method including: supplying a nanotube-material precursor and a catalyst precursor, heating said precursors and injecting said precursors into a heated reaction chamber containing a process gas; pyrolysing the catalyst precursor within the reaction chamber to produce catalyst particles; and pyrolysing the nanotube-material precursor within the reaction chamber in the presence of the catalyst particles in order to produce nanotubes; wherein the method further comprises controlling one or more operational parameters of the reaction chamber and/or of the precursor supplies selected from (a) the injection temperature of the catalyst precursor, (b) the injection temperature of the nanotube-material precursor, (c) the flow rate of a carrier gas of the catalyst precursor, (d) the flow rate of a carrier gas of the nanotube-material precursor, and (e) the reaction temperature; wherein the catalyst precursor is injected by an injection pipe (7; 10) having an adjustable length within the reaction chamber , and controlling the injection temperature of the catalyst precursor comprises adjusting the extent to which its injection pipe (7; 10) extends into the reaction chamber ; and/or the nanotube-material precursor is injected by an injection pipe (7; 10) having an adjustable length within the reaction chamber , and controlling the injection temperature of the nanotube-material precursor comprises adjusting the extent to which its injection pipe (7; 10) extends into the reaction chamber . supplying a nanotube-material precursor and a catalyst precursor, heating said precursors and injecting said precursors into a heated reaction chamber containing a process gas; pyrolysing the catalyst precursor within the reaction chamber to produce catalyst particles; and pyrolysing the nanotube-material precursor within the reaction chamber in the presence of the catalyst particles in order to produce nanotubes; wherein the method further comprises controlling one or more operational parameters of the reaction chamber and/or of the precursor supplies selected from (a) the injection temperature of the catalyst precursor, (b) the injection temperature of the nanotube-material precursor, (c) the flow rate of a carrier gas of the catalyst precursor, (d) the flow rate of a carrier gas of the nanotube-material precursor, and (e) the reaction temperature; wherein the catalyst precursor is injected by an injection pipe (7; 10) having an adjustable length within the reaction chamber , and controlling the injection temperature of the catalyst precursor comprises adjusting the extent to which its injection pipe (7; 10) extends into the reaction chamber ; and/or the nanotube-material precursor is injected by an injection pipe (7; 10) having an adjustable length within the reaction chamber , and controlling the injection temperature of the nanotube-material precursor comprises adjusting the extent to which its injection pipe (7; 10) extends into the reaction chamber .
A crosslinked unreinforced cellulose hydrate membrane crosslinked using at least two different crosslinking agents selected from diepoxide compounds having different spacer groups between the terminal epoxy groups, the cellulose hydrate membrane exhibiting a degree of crosslinking of 0.04 to 0.10, a dimensional change in membrane area in aqueous solutions of 25% or less and an elongation at break according to DIN EN ISO 527-1 and DIN EN ISO 527-3 at a relative air humidity of 40% to 50% and at a temperature of 23°C to 25°C of at least 20%, wherein at least one alkanediol diglycidyl ether and at least one glycidyl ether of the following formula are used as crosslinking agents: where n is 3 to 50, and R is hydrogen or a methyl group, and wherein the degree of crosslinking and the dimensional change in membrane area are determined using the methods described in the description.
An electrode arrangement comprising at least two sets of conducting wires comprising different wires with coatings configured to allow transmission of charge carriers of two different types respectively, from a medium in surroundings thereof, wherein said at least two sets of conducting wires are arranged in the form of a grid such that the different wires adjacent to one another define a region of charge collection, and are insulated from one another in said region of charge collection; wherein the different wires of said at least two sets are coated with selective charge carriers blocking layers , respectively.
An optical path control apparatus comprising: an oscillating part , the oscillating part having an optical part on which light for displaying an image is made incident with a frame rate of the image, a first oscillating part for supporting the optical part , and a second oscillating part for supporting the first oscillating part in an oscillatable manner by a first shaft part , the second oscillating part being supported on a support part in an oscillatable manner by a second shaft part ; a first actuator configured to oscillate the oscillating part about a first oscillation axis (AX) including the first shaft part with the first shaft part as a support; and a second actuator configured to oscillate the oscillating part about a second oscillation axis (BX) including the second shaft part with the second shaft part as a support, wherein the first oscillation axis (AX) crosses the second oscillation axis (BX), torsional rigidity of the second shaft part is higher than torsional rigidity of the first shaft part , a natural frequency of the first oscillating part and a natural frequency of the second oscillating part are set to a value within a range larger than an odd (n) multiple of the corresponding frame rate of the image and smaller than an odd (n + 2) multiple of the corresponding frame rate, and the natural frequencies of the first oscillating part and the second oscillating part are the same around the respective oscillation axes (AX, BX). an oscillating part , the oscillating part having an optical part on which light for displaying an image is made incident with a frame rate of the image, a first oscillating part for supporting the optical part , and a second oscillating part for supporting the first oscillating part in an oscillatable manner by a first shaft part , the second oscillating part being supported on a support part in an oscillatable manner by a second shaft part ; a first actuator configured to oscillate the oscillating part about a first oscillation axis (AX) including the first shaft part with the first shaft part as a support; and a second actuator configured to oscillate the oscillating part about a second oscillation axis (BX) including the second shaft part with the second shaft part as a support, wherein the first oscillation axis (AX) crosses the second oscillation axis (BX), torsional rigidity of the second shaft part is higher than torsional rigidity of the first shaft part , a natural frequency of the first oscillating part and a natural frequency of the second oscillating part are set to a value within a range larger than an odd (n) multiple of the corresponding frame rate of the image and smaller than an odd (n + 2) multiple of the corresponding frame rate, and the natural frequencies of the first oscillating part and the second oscillating part are the same around the respective oscillation axes (AX, BX).