mhurhangee/patent-ind-claim-en huggingface dataset:
A device for controlling a locking/unlocking mechanism with an espagnolette, in particular of a sliding leaf (V, V'), said device allowing a manoeuvring member to reversibly switch the mechanism from an active locking position to an unlocking position, said device including at least one actuating shaft capable of being driven in rotation by said manoeuvring member, characterised in that said control device includes an angular travel converter which comprises: - a support including a cylindrical wall around a cavity in which at least one portion of said actuating shaft is inserted, and at least one aperture being formed in said cylindrical wall and opening into said cavity, said aperture having a shape of a circular arc slot which extends by a delimited length in the circular direction of said cylindrical wall, said slot length defining an amplitude of inactive angular travel (α2) of the manoeuvring member, and - a coupling means between said actuating shaft and said support , cooperating with said at least one slot following a path between the two respective ends of said at least one slot , said slot ends forming bearing stops for said coupling means so as to drive in rotation said actuating shaft in an active angular travel (α1), and said coupling means including at least one protruding element inserted into said slot along a path between the two respective ends of said at least one slot, said slot ends forming bearing stops for said protruding element so as to drive in rotation said actuating shaft along an active angular travel, said device being characterised in that at least said portion of the actuating shaft inserted into the cavity includes a transverse conduit , said conduit being receiver of said coupling means , and said coupling means having an elongated shape including at least one end and being of a length which is greater than that of said conduit and adapted so that said at least one end forms said at least one protruding element. - a support including a cylindrical wall around a cavity in which at least one portion of said actuating shaft is inserted, and at least one aperture being formed in said cylindrical wall and opening into said cavity, said aperture having a shape of a circular arc slot which extends by a delimited length in the circular direction of said cylindrical wall, said slot length defining an amplitude of inactive angular travel (α2) of the manoeuvring member, and - a coupling means between said actuating shaft and said support , cooperating with said at least one slot following a path between the two respective ends of said at least one slot , said slot ends forming bearing stops for said coupling means so as to drive in rotation said actuating shaft in an active angular travel (α1), and said coupling means including at least one protruding element inserted into said slot along a path between the two respective ends of said at least one slot, said slot ends forming bearing stops for said protruding element so as to drive in rotation said actuating shaft along an active angular travel,
A solid-state imaging device comprising: a photoelectric conversion section (PD); a first signal path (P1) including a first floating diffusion (FD1) and a first amplification transistor (AMP1); a second signal path (P2) including a second floating diffusion (FD2) and a second amplification transistor (AMP2); a mode-switching switch section (FDG) that, in a first mode, electrically couples the first signal path (P1) to the photoelectric conversion section (PD) and electrically decouples the second signal path (P2) from the photoelectric conversion section (PD), and that, in a second mode, electrically couples both of the first signal path (P1) and the second signal path (P2) to the photoelectric conversion section (PD); a first substrate in which at least the photoelectric conversion section (PD) is formed, of the group of the photoelectric conversion section (PD), the first floating diffusion (FD1), the first amplification transistor (AMP1), the second floating diffusion (FD2), the second amplification transistor (AMP2), and the mode-switching switch section (FDG); and a second substrate which is stacked on the first substrate , and in which at least the second amplification transistor is formed (AMP2), of the group of the photoelectric conversion section (PD), the first floating diffusion (FD1), the first amplification transistor (AMP1), the second floating diffusion (FD2), the second amplification transistor (AMP2), and the mode-switching switch section (FDG). a photoelectric conversion section (PD); a first signal path (P1) including a first floating diffusion (FD1) and a first amplification transistor (AMP1); a second signal path (P2) including a second floating diffusion (FD2) and a second amplification transistor (AMP2); a mode-switching switch section (FDG) that, in a first mode, electrically couples the first signal path (P1) to the photoelectric conversion section (PD) and electrically decouples the second signal path (P2) from the photoelectric conversion section (PD), and that, in a second mode, electrically couples both of the first signal path (P1) and the second signal path (P2) to the photoelectric conversion section (PD); a first substrate in which at least the photoelectric conversion section (PD) is formed, of the group of the photoelectric conversion section (PD), the first floating diffusion (FD1), the first amplification transistor (AMP1), the second floating diffusion (FD2), the second amplification transistor (AMP2), and the mode-switching switch section (FDG); and a second substrate which is stacked on the first substrate , and in which at least the second amplification transistor is formed (AMP2), of the group of the photoelectric conversion section (PD), the first floating diffusion (FD1), the first amplification transistor (AMP1), the second floating diffusion (FD2), the second amplification transistor (AMP2), and the mode-switching switch section (FDG).
Aerodynamic apparatus for a garment , preferably a sports one, in particular for a motorcyclist, cyclist, skier or similar suit or jacket, comprising: - an aerodynamic hump which is provided in said garment at a rear and upper portion of said garment , and further comprising: - an aerodynamic device which is removably associated to said aerodynamic hump and which comprises at least one body which is configured to be associated removably on said aerodynamic hump provided in said garment , said at least one body being shaped as a protruding appendage with respect to the external surface of said hump and being configured so as to act, at the discontinuity defined between said hump and the rear area of a helmet worn on the head by the subject wearing said garment , as vortex generator during the performance of the sporting gesture by said person wearing said garment provided with said hump , characterized in that each body has a substantially laminar development in the sense that its thickness is smaller, preferably much smaller, than the other two dimensions, said thickness corresponding to the extension substantially along a lateral development direction "La" that is the direction of development of the hump , provided on the garment , which - when said garment is worn - goes from one shoulder to the other shoulder of the said person wearing said garment . - an aerodynamic hump which is provided in said garment at a rear and upper portion of said garment , and - an aerodynamic device which is removably associated to said aerodynamic hump and which comprises at least one body which is configured to be associated removably on said aerodynamic hump provided in said garment , said at least one body being shaped as a protruding appendage with respect to the external surface of said hump and being configured so as to act, at the discontinuity defined between said hump and the rear area of a helmet worn on the head by the subject wearing said garment , as vortex generator during the performance of the sporting gesture by said person wearing said garment provided with said hump
A monoclonal antibody that specifically binds to human IL-17A, comprising a heavy chain variable region comprising HCDR1, HCDR2 and HCDR3, and a light chain variable region comprising LCDR1, LCDR2 and LCDR3, wherein HCDR1 has the sequence GFTIDNY, HCDR2 has the sequence NQDGNE, HCDR3 has the sequence DYYDVISDYYIHYWYFDL, or HCDR1 has the sequence GMSMSDY, HCDR2 has the sequence NQDGDE, HCDR3 has the sequence DYYDLISDYYIHYWYFDL, or HCDR1 has the sequence GITMDDY, HCDR2 has the sequence NQDGNE, HCDR3 has the sequence DYYDLISDYYIHYWYFDL; and LCDR1 has the sequence RASQNVHNRLT, LCDR2 has the sequence GASNLES, and LCDR3 has the sequence QQYNGSPTT; and wherein HCDR1, HCDR2, HCDR3, LCDR1, LCDR2 and LCDR3 are defined according to Chothia.
A cutting device adapted for the sinus or nose, comprising: an elongated sleeve having a distal section , a lumen, an inner wall and a port in the distal section, the port linked to a vacuum source; a rotating shaft in the lumen of the sleeve, the shaft having an axis of symmetry, a distal end and a proximal end; a cutting blade disposed at the distal end of the shaft opposite the port, the blade having two cutting edges ; a gear assembly operative to alternately rotate the shaft in a first direction and a second direction about the axis of symmetry; and a motor for powering the gear assembly, wherein the gear assembly comprises a drive gear rotated by the motor, the drive gear having a toothed portion and two driven gears mounted on a common shaft that is coupled to the sleeve, the driven gears alternately engaging the toothed portion. an elongated sleeve having a distal section , a lumen, an inner wall and a port in the distal section, the port linked to a vacuum source; a rotating shaft in the lumen of the sleeve, the shaft having an axis of symmetry, a distal end and a proximal end; a cutting blade disposed at the distal end of the shaft opposite the port, the blade having two cutting edges ; a gear assembly operative to alternately rotate the shaft in a first direction and a second direction about the axis of symmetry; and a motor for powering the gear assembly, wherein the gear assembly comprises a drive gear rotated by the motor, the drive gear having a toothed portion and two driven gears mounted on a common shaft that is coupled to the sleeve, the driven gears alternately engaging the toothed portion.
A turbine for a turbocharger comprising: a turbine wheel having an axis; a turbine housing defining two volutes (119a, 119b; 219a, 219b; 319a, 319b), the volutes having respective radially inner openings separated by a radially extending divider wall (120; 220; 320; 420), the turbine wheel being positioned within the turbine housing for rotation about the axis (101; 201; 301), and the turbine housing including a diffuser space (140; 240; 340; 440) defined between two shroud surfaces (123 124; 223, 224; 323, 324; 423, 424) and providing a gas flow path between the volutes and the turbine wheel; wherein the diffuser space includes a first portion at a first radial position, the first portion of the diffuser space having a axial extent, averaged over all circumferential positions around the rotational axis, which is lower than the axial extent of a second portion of the diffuser space, averaged over all circumferential positions around the rotational axis, at a second radial position, the second portion of the diffuser space being closer to the rotational axis than the first portion of the diffuser space; and characterized in that : denoting the distance, averaged over all circumferential positions around the rotational axis, from the rotational axis to a radially-inner tip of the divider wall as Divider; and denoting the radius of the turbine wheel by D wheel ; the value D divider D wheel is in the range 1.05 to 1.2. a turbine wheel having an axis; a turbine housing defining two volutes (119a, 119b; 219a, 219b; 319a, 319b), the volutes having respective radially inner openings separated by a radially extending divider wall (120; 220; 320; 420), the turbine wheel being positioned within the turbine housing for rotation about the axis (101; 201; 301), and the turbine housing including a diffuser space (140; 240; 340; 440) defined between two shroud surfaces (123 124; 223, 224; 323, 324; 423, 424) and providing a gas flow path between the volutes and the turbine wheel; wherein the diffuser space includes a first portion at a first radial position, the first portion of the diffuser space having a axial extent, averaged over all circumferential positions around the rotational axis, which is lower than the axial extent of a second portion of the diffuser space, averaged over all circumferential positions around the rotational axis, at a second radial position, the second portion of the diffuser space being closer to the rotational axis than the first portion of the diffuser space; and characterized in that : denoting the distance, averaged over all circumferential positions around the rotational axis, from the rotational axis to a radially-inner tip of the divider wall as Divider; and denoting the radius of the turbine wheel by D wheel ; the value D divider D wheel is in the range 1.05 to 1.2. denoting the distance, averaged over all circumferential positions around the rotational axis, from the rotational axis to a radially-inner tip of the divider wall as Divider; and denoting the radius of the turbine wheel by D wheel ; the value D divider D wheel is in the range 1.05 to 1.2.
A sanitary article , such as a sanitary napkin or a pantiliner, the sanitary article comprising a topsheet , a backsheet , an acquisition layer and an absorbent core , the absorbent core being arranged between the topsheet and the backsheet and the acquisition layer being arranged between the topsheet and the absorbent core , the sanitary article having an extension in a longitudinal direction (L) about a longitudinal centerline (L c ) and in a transverse direction (T), the sanitary article having a first and a second longitudinal side edge extending in the longitudinal direction (L) and a front and a rear transverse side edge extending in the transverse direction (T), the sanitary article being divided in a frontmost half and in a rearmost half , as seen in the longitudinal direction (L), wherein the absorbent core in the rearmost half of the sanitary article is provided with a low-density rear shaping element having a lower density than an adjacent region of the absorbent core , the low-density rear shaping element comprising a shaping element first leg section and a shaping element second leg section , the rearmost half of the sanitary article furthermore comprising a V-shaped, or modified V-shaped, rear embossed element comprising a first embossed leg section and a second embossed leg section , characterized in that the shaping element first leg section and the shaping element second leg section tend towards each other and towards the rear transverse side edge of the sanitary article to form a non-intersecting V-shape, the shaping element first leg section and the shaping element second leg section being arranged on a respective side of the longitudinal centerline (L c ) of the sanitary article , in that the V-shaped rear embossed element is provided only in the topsheet and in the acquisition layer and points towards the rear transverse side edge of the sanitary article and in that the low-density rear shaping element and the V-shaped rear embossed element partly or completely overlap each other.
An apparatus for drying granular resin material prior to molding or extrusion processing thereof, the apparatus comprising: a) a heating hopper , b) an adjustable blower and a heater (23 and 24) for blowing warm air into the heating hopper in an upward direction to heat granular resin material in the heating hopper , c) a vacuum chamber for receiving heated granular resin material from the heating hopper , d) a conduit for introducing dry purge air into the vacuum chamber ; e) a retention hopper for receiving dried granular resin material from the vacuum chamber ; f) a conduit for introducing blanketing dry air into the retention hopper , g) a sensor for detecting temperature of heating air released to ambient at the top of the heating hopper ; and h) a controller for adjusting speed of the blower in response to the detected air temperature to avoid the sensed temperature exceeding a preselected level, wherein the heating hopper is arranged above the vacuum chamber and the vacuum chamber is arranged above the retention hopper , so as to permit gravity-induced flow of granular resin material from the heating hopper downwardly into the vacuum chamber and from the vacuum chamber downwardly into the retention hopper , the apparatus further comprising: i) a plurality of first gates (60 and 62) between the heating hopper and the vacuum chamber , movable between an open and closed positions, for controlling downward resin flow from the heating hopper into the vacuum chamber ; and j) a plurality of second gates (64 and 66) between the vacuum chamber and the retention hopper , movable between open and closed positions, for controlling downward resin flow from the vacuum chamber into the retention hopper , a) a heating hopper , b) an adjustable blower and a heater (23 and 24) for blowing warm air into the heating hopper in an upward direction to heat granular resin material in the heating hopper , c) a vacuum chamber for receiving heated granular resin material from the heating hopper , d) a conduit for introducing dry purge air into the vacuum chamber ; e) a retention hopper for receiving dried granular resin material from the vacuum chamber ; f) a conduit for introducing blanketing dry air into the retention hopper , g) a sensor for detecting temperature of heating air released to ambient at the top of the heating hopper ; and h) a controller for adjusting speed of the blower in response to the detected air temperature to avoid the sensed temperature exceeding a preselected level, i) a plurality of first gates (60 and 62) between the heating hopper and the vacuum chamber , movable between an open and closed positions, for controlling downward resin flow from the heating hopper into the vacuum chamber ; and j) a plurality of second gates (64 and 66) between the vacuum chamber and the retention hopper , movable between open and closed positions, for controlling downward resin flow from the vacuum chamber into the retention hopper ,
Observation circuit for observing an input impedance (Rin) at a high frequency connector of a mobile device terminal , the observation circuit comprising a measurement circuitry, wherein the measurement circuitry comprises the high frequency connector , a reference impedance (R2), a voltage source , and a voltage meter , w her e i n - a first output electrode of the voltage source is connected to both a first electrode of the high frequency connector and a first input electrode of the voltage meter over the reference impedance (R2), and a second output electrode of the voltage source is connected to both a second electrode of the high frequency connector and a second input electrode of the voltage meter , characterized in that the voltage source comprises a receiver coil for receiving a time-variant magnetic field and the voltage source is designed to rectify a voltage generated by the receiver coil and to inject the rectified voltage (U) through the reference impedance (R2) into the high frequency connector . - a first output electrode of the voltage source is connected to both a first electrode of the high frequency connector and a first input electrode of the voltage meter over the reference impedance (R2), and a second output electrode of the voltage source is connected to both a second electrode of the high frequency connector and a second input electrode of the voltage meter , characterized in that the voltage source comprises a receiver coil for receiving a time-variant magnetic field and the voltage source is designed to rectify a voltage generated by the receiver coil and to inject the rectified voltage (U) through the reference impedance (R2) into the high frequency connector .
A genome-editing complex for modifying a target polynucleotide comprising a cell-penetrating peptide and one or more molecules of a genome-editing system, wherein the cell-penetrating peptide is an ADGN-100 peptide, comprising i) an amino acid sequence selected from the group consisting of SEQ ID NOs: 53-70; or ii) the amino acid sequence of SEQ ID NO: 79 or 80; and wherein the one or more genome-editing system molecules are selected from the group consisting of: a) one or both of 1) an RNA-guided endonuclease (RGEN) or a nucleic acid encoding the RGEN and 2) a guide RNA (gRNA), wherein the gRNA comprises a guide sequence complementary to a target sequence in the target polynucleotide; and b) one or both of a 1) DNA-guided endonuclease (DGEN) or a nucleic acid encoding the DGEN and 2) a guide DNA (gDNA), wherein the gDNA comprises a guide sequence complementary to a target sequence in the target polynucleotide. i) an amino acid sequence selected from the group consisting of SEQ ID NOs: 53-70; or ii) the amino acid sequence of SEQ ID NO: 79 or 80; and wherein the one or more genome-editing system molecules are selected from the group consisting of: a) one or both of 1) an RNA-guided endonuclease (RGEN) or a nucleic acid encoding the RGEN and 2) a guide RNA (gRNA), wherein the gRNA comprises a guide sequence complementary to a target sequence in the target polynucleotide; and b) one or both of a 1) DNA-guided endonuclease (DGEN) or a nucleic acid encoding the DGEN and 2) a guide DNA (gDNA), wherein the gDNA comprises a guide sequence complementary to a target sequence in the target polynucleotide. a) one or both of 1) an RNA-guided endonuclease (RGEN) or a nucleic acid encoding the RGEN and 2) a guide RNA (gRNA), wherein the gRNA comprises a guide sequence complementary to a target sequence in the target polynucleotide; and b) one or both of a 1) DNA-guided endonuclease (DGEN) or a nucleic acid encoding the DGEN and 2) a guide DNA (gDNA), wherein the gDNA comprises a guide sequence complementary to a target sequence in the target polynucleotide.