mhurhangee/patent-ind-claim-en huggingface dataset:
Rear area arrangement of hayon-type rear-flap motor vehicle body structure, consisting of a plurality of subassemblies consisting of metal sheet parts and assembled together to form the rear-flap vehicle body structure, including in particular a subset of underlay comprising a load floor and two lateral floor extensions extending on both sides of the rear part of the said load floor , two side subassemblies of silhouette , each comprising a gutter lining with a lower foot , and a rear panel subset with a back panel lining with two parts lateral junction with the said lower feet of the two lateral subassemblies of silhouette ; the said subset of base also having two base lateral reinforcements welded each to the load floor and to a corresponding lateral floor extension , and each of the said lateral subsets of silhouette also has a strap foot reinforcement welded to the bottom foot of its gutter lining , with each basic side reinforcement fixed rigidly after the assembly of the said subassemblies to a corresponding flap foot reinforcement , characterized by the fact that each base lateral reinforcement consists of a first wall which is substantially horizontal welded to a respective rear side corner of the said load floor , a second wall which extends substantially in a vertical longitudinal plane and is welded by its lower edge to the inner side edge of a so-called floor lateral extension , and a third wall extending substantially in a vertical and welded transverse plane after the assembly of the said subassemblies on a corresponding lateral part of the rear panel lining of the rear panel subset .
A method in a user equipment, the method comprising: receiving a downlink grant triggering an aperiodic channel state information, ACSI, report and scheduling a physical downlink shared channel, PDSCH, transmission; determining a first physical uplink control channel, PUCCH, resource for ACSI transmission and a second PUCCH resource for hybrid automatic repeat request, HARQ, acknowledgment, ACK, transmission corresponding to the scheduled PDSCH; and determining a first PUCCH transmission power for the ACSI transmission using the first PUCCH resource and a second transmission power for the HARQ ACK transmission using the second PUCCH resource based on downlink control information, DCI, of the downlink grant. receiving a downlink grant triggering an aperiodic channel state information, ACSI, report and scheduling a physical downlink shared channel, PDSCH, transmission; determining a first physical uplink control channel, PUCCH, resource for ACSI transmission and a second PUCCH resource for hybrid automatic repeat request, HARQ, acknowledgment, ACK, transmission corresponding to the scheduled PDSCH; and determining a first PUCCH transmission power for the ACSI transmission using the first PUCCH resource and a second transmission power for the HARQ ACK transmission using the second PUCCH resource based on downlink control information, DCI, of the downlink grant.
A co-rotating scroll compressor (1A; 1), comprising: a driving-side scroll member (7; 70) that is rotationally driven by a driving unit and includes a spiral driving-side wall (7b; 71b, 72b) disposed on a driving-side end plate (7a; 71a, 72a); a driven-side scroll member (9; 90) that includes a driven-side wall (9b; 91b, 92b) corresponding to the driving-side wall (7b; 71b, 72b), the driven-side wall (9b; 91b, 92b) being disposed on a driven-side end plate (9a; 90a) and engaging with the driving-side wall (7b; 71b, 72b)to form a compression chamber; and a synchronous driving mechanism (15'; 15) that transmits driving force from the driving-side scroll member (7; 70) to the driven-side scroll member (9; 90) to cause the driving-side scroll member (7; 70) and the driven-side scroll member (9; 90) to perform rotational movement in a same direction at a same angular velocity, wherein a support member (20, 22; 33, 35) is provided to a front end of at least one of the driving-side wall (7b; 71b, 72b) and the driven-side wall (9b; 91b) in an axis direction (CL1, CL2), the support member (20, 22; 33, 35) being connected to the front end by a positioning pin (41; 40) positioning a phase around a rotation axis, and rotating together with the connected wall, characterised in that the positioning pin (41; 40) is pressed into the support member (20, 22; 33, 35) and is fitted into the wall in a non-pressed-in state. a driving-side scroll member (7; 70) that is rotationally driven by a driving unit and includes a spiral driving-side wall (7b; 71b, 72b) disposed on a driving-side end plate (7a; 71a, 72a); a driven-side scroll member (9; 90) that includes a driven-side wall (9b; 91b, 92b) corresponding to the driving-side wall (7b; 71b, 72b), the driven-side wall (9b; 91b, 92b) being disposed on a driven-side end plate (9a; 90a) and engaging with the driving-side wall (7b; 71b, 72b)to form a compression chamber; and a synchronous driving mechanism (15'; 15) that transmits driving force from the driving-side scroll member (7; 70) to the driven-side scroll member (9; 90) to cause the driving-side scroll member (7; 70) and the driven-side scroll member (9; 90) to perform rotational movement in a same direction at a same angular velocity, wherein a support member (20, 22; 33, 35) is provided to a front end of at least one of the driving-side wall (7b; 71b, 72b) and the driven-side wall (9b; 91b) in an axis direction (CL1, CL2), the support member (20, 22; 33, 35) being connected to the front end by a positioning pin (41; 40) positioning a phase around a rotation axis, and rotating together with the connected wall, characterised in that the positioning pin (41; 40) is pressed into the support member (20, 22; 33, 35) and is fitted into the wall in a non-pressed-in state.
A phase locked loop, PLL, system that performs two point modulation based on a frequency modulation signal, the system comprising: a PLL comprising an oscillator configured to generate a phase modulated signal based on a control signal, a high pass path , and a low pass path comprising loop filter circuitry , said loop filter circuitry comprising a series of circuitry, wherein each circuitry in the loop filter circuitry is configured to output a respective loop filter signal (A, B, C), wherein the PLL is in a phase path of a polar modulator, wherein an output signal of the loop filter is combined at a modulation point with a signal from the high pass path to generate the control signal of the oscillator; a performance indicator circuitry comprising: first input circuitry configured to input each of the respective loop filter signals (A, B, C) from the loop filter circuitry and output a selected one of the loop filter signals; second input circuitry comprising : a reference filter that inputs the frequency modulation signal and outputs a filtered frequency modulation signal; and a multiplexer that selects one of the filtered frequency modulation signal or the frequency modulation signal and outputs a selected signal; and parameter calculation circuitry configured to: compute a performance indicator value based on a correlation between the selected one of the loop filter signals and the selected signal; and characterize a performance of the PLL based on the value. first input circuitry configured to input each of the respective loop filter signals (A, B, C) from the loop filter circuitry and output a selected one of the loop filter signals; second input circuitry comprising : a reference filter that inputs the frequency modulation signal and outputs a filtered frequency modulation signal; and a multiplexer that selects one of the filtered frequency modulation signal or the frequency modulation signal and outputs a selected signal; and a reference filter that inputs the frequency modulation signal and outputs a filtered frequency modulation signal; and a multiplexer that selects one of the filtered frequency modulation signal or the frequency modulation signal and outputs a selected signal; and parameter calculation circuitry configured to: compute a performance indicator value based on a correlation between the selected one of the loop filter signals and the selected signal; and characterize a performance of the PLL based on the value. compute a performance indicator value based on a correlation between the selected one of the loop filter signals and the selected signal; and characterize a performance of the PLL based on the value.
A pharmaceutical composition comprising a therapeutic agent selected from the group consisting of RRx-001 and a pharmaceutically acceptable salt thereof, for use in a method for treating a subject in need of protection against radiation to thereby protect the subject against radiation, wherein at least one dose of the therapeutic agent is administered to the subject at least 6 hours prior to exposure to the radiation or after the exposure to the radiation has ceased.
A medical device, comprising: a conductive body including a surface; a sensor conformally formed on the surface and including a piezoelectric polymer formed about a portion of the surface and following a contour of the surface, the piezoelectric polymer configured to generate or receive ultrasonic energy; and electrical connections conforming to the surface and being connected to at least one electrode in contact with the piezoelectric polymer, the electrical connections providing connections to the piezoelectric polymer and being electrically isolated from the conductive body over at least a portion of the surface, characterized in that the sensor is integrally formed with the medical device. a conductive body including a surface; a sensor conformally formed on the surface and including a piezoelectric polymer formed about a portion of the surface and following a contour of the surface, the piezoelectric polymer configured to generate or receive ultrasonic energy; and electrical connections conforming to the surface and being connected to at least one electrode in contact with the piezoelectric polymer, the electrical connections providing connections to the piezoelectric polymer and being electrically isolated from the conductive body over at least a portion of the surface, characterized in that the sensor is integrally formed with the medical device.
A method for manufacturing a composite preform , comprising: preparing a preform formed from a plastic material and having a mouth portion , a body portion connected to the mouth portion , and a bottom portion connected to the body portion ; preparing a tubular heat shrinkable plastic member longer than the body portion and the bottom portion of the preform and having a margin for thermocompression bonding at one end; inserting the preform into the plastic member ; having the plastic member undergo thermal shrinkage by heating the preform and the plastic member ; the method being characterized in bonding the margin of the plastic member by thermocompression, after having the plastic member undergo thermal shrinkage. preparing a preform formed from a plastic material and having a mouth portion , a body portion connected to the mouth portion , and a bottom portion connected to the body portion ; preparing a tubular heat shrinkable plastic member longer than the body portion and the bottom portion of the preform and having a margin for thermocompression bonding at one end; inserting the preform into the plastic member ; having the plastic member undergo thermal shrinkage by heating the preform and the plastic member ; the method being characterized in bonding the margin of the plastic member by thermocompression, after having the plastic member undergo thermal shrinkage.
A method of generating a uniform autodeposition coating on a multi-metal substrate comprising steps of: a. Cleaning a multi-metal substrate comprising surfaces of two or more of ferrous metal, zinc-coated or galvanized ferrous metal, aluminum, magnesium, zinc, aluminum alloys and zinc alloys. b. Contacting the multi-metal substrate with the autodeposition bath comprising: water, an autodepositable polymeric dispersion comprising autodepositable polymers selected from acrylic, styrene-acrylic, epoxy, epoxy-acrylic, polyurethane, and vinyl based polymers, a nitrogen compound having one to two nitrogen-oxygen bonds selected from aliphatic nitroalcohols and/or aliphatic nitroalkanes, and an activating system comprising an acid/oxidizing system, wherein the at least one nitrogen-containing compound having one to two nitrogen-oxygen bonds is maintained at an average concentration of from 0.1 grams per liter to 20 grams per liter within the bath, said contacting taking place for a sufficient amount of time to produce a coated multi-metal substrate having a final film coating thickness of from 1 to 50 microns; c. rinsing the resulting coated multi-metal substrate. a. Cleaning a multi-metal substrate comprising surfaces of two or more of ferrous metal, zinc-coated or galvanized ferrous metal, aluminum, magnesium, zinc, aluminum alloys and zinc alloys. b. Contacting the multi-metal substrate with the autodeposition bath comprising: water, an autodepositable polymeric dispersion comprising autodepositable polymers selected from acrylic, styrene-acrylic, epoxy, epoxy-acrylic, polyurethane, and vinyl based polymers, a nitrogen compound having one to two nitrogen-oxygen bonds selected from aliphatic nitroalcohols and/or aliphatic nitroalkanes, and an activating system comprising an acid/oxidizing system, wherein the at least one nitrogen-containing compound having one to two nitrogen-oxygen bonds is maintained at an average concentration of from 0.1 grams per liter to 20 grams per liter within the bath, said contacting taking place for a sufficient amount of time to produce a coated multi-metal substrate having a final film coating thickness of from 1 to 50 microns; c. rinsing the resulting coated multi-metal substrate.
An inkjet recording apparatus comprising: an inkjet head comprising a head module (H) with two nozzle rows (L1, L2) which have a plurality of nozzles (N1, N2 ...N15) aligned in a zigzag pattern and which are orthogonal to a carrying direction of a recording medium, configured to separately discharge a large droplet, a medium droplet, and a small droplet from each of the plurality of nozzles (N1, N2 ...N15) ; and a control unit configured to form an image in a single-pass system by discharging the medium droplets from the plurality of nozzles (N1, N2 ...N15) respectively, and to form an interpolation dot to interpolate a discharge defective first nozzle (N3) in the first nozzle row (L1) by discharging a droplet from a second nozzle (N14) in the second nozzle row (L2), which is arranged so that it can form a dot adjacent to a position where the dot of the discharge defective first nozzle (N3) is supposed to be formed on the recording medium (P) , when the discharge defective first nozzle (N3) is present, wherein the control unit is further configured to form the interpolation dot to interpolate the discharge defective first nozzle (N3) by driving the second nozzle (N14) so as to form the large droplet, and by driving the second nozzle so as to form prior to the interpolation dot (DS) at least one adjacent dot which is in contact with the interpolation dot in a partially overlapping manner with the use of the small droplet. an inkjet head comprising a head module (H) with two nozzle rows (L1, L2) which have a plurality of nozzles (N1, N2 ...N15) aligned in a zigzag pattern and which are orthogonal to a carrying direction of a recording medium, configured to separately discharge a large droplet, a medium droplet, and a small droplet from each of the plurality of nozzles (N1, N2 ...N15) ; and a control unit configured to form an image in a single-pass system by discharging the medium droplets from the plurality of nozzles (N1, N2 ...N15) respectively, and to form an interpolation dot to interpolate a discharge defective first nozzle (N3) in the first nozzle row (L1) by discharging a droplet from a second nozzle (N14) in the second nozzle row (L2), which is arranged so that it can form a dot adjacent to a position where the dot of the discharge defective first nozzle (N3) is supposed to be formed on the recording medium (P) , when the discharge defective first nozzle (N3) is present, wherein the control unit is further configured to form the interpolation dot to interpolate the discharge defective first nozzle (N3) by driving the second nozzle (N14) so as to form the large droplet, and by driving the second nozzle so as to form prior to the interpolation dot (DS) at least one adjacent dot which is in contact with the interpolation dot in a partially overlapping manner with the use of the small droplet.
An image generation device comprising: a lens distortion correcting section configured to generate a first image by distorting a second image based on a characteristic of a lens of a head-mounted display to correct the second image for lens distortion caused by the lens of the head-mounted display; a different image embedding section configured to generate an embedded image by embedding a different image into an area of a rectangular image format for transmitting the first image, wherein the area is unused by the first image and corresponds to an area that is outside a field of view of a user wearing the head-mounted display; and a transmitting section configured to transfer the embedded image to the head-mounted display, wherein the different image is output to a display panel of the head-mounted display either in place of, or along with, the first image. a lens distortion correcting section configured to generate a first image by distorting a second image based on a characteristic of a lens of a head-mounted display to correct the second image for lens distortion caused by the lens of the head-mounted display; a different image embedding section configured to generate an embedded image by embedding a different image into an area of a rectangular image format for transmitting the first image, wherein the area is unused by the first image and corresponds to an area that is outside a field of view of a user wearing the head-mounted display; and a transmitting section configured to transfer the embedded image to the head-mounted display, wherein the different image is output to a display panel of the head-mounted display either in place of, or along with, the first image.
A bass reflex port comprising a tube body, wherein the inner wall surface of the tube body has a plurality of regions in which viscous resistances between the air moving inside the tube and the inner wall surface of the tube in the tube axis direction are different among said regions, characterized in that the plurality of regions are provided alternatingly along the circumferential direction of the inner wall surface, and the regions extend from one end to another end of the tube body in the tube axis direction, wherein the plurality of regions are formed of materials having different viscous resistances. a tube body, wherein the inner wall surface of the tube body has a plurality of regions in which viscous resistances between the air moving inside the tube and the inner wall surface of the tube in the tube axis direction are different among said regions, characterized in that the plurality of regions are provided alternatingly along the circumferential direction of the inner wall surface, and the regions extend from one end to another end of the tube body in the tube axis direction, wherein the plurality of regions are formed of materials having different viscous resistances.
A device for enlarged-field astronomical imaging of a scene, comprising: an optical system comprising an optical axis rotatable along at least two axes of rotation; a two-dimensional optical detector comprising a detection surface substantially perpendicular to said optical axis, said detection surface defining, with the optical system, a given intrinsic field, said two-dimensional detector being configured for the acquisition, by means of said optical system , of raw images of portions of said scene of dimensions equal to the dimensions of the intrinsic field; a control unit configured to control the rotation of said optical axis, so as to enable the acquisition, over time, by the optical detector , of at least a first plurality of raw images of a plurality of different portions of said scene, said first plurality of raw images comprising a number strictly greater than 2 of raw images of different portions of the scene, the superposition of said portions forming said enlarged field, two successive portions of said plurality of portions having at least one common part, said at least one first plurality of raw images corresponding respectively to a plurality of positions of said optical axis; and a processing unit configured for calculating, for each acquisition of a raw image at a given time, an extended image of larger size than an extended image calculated previously, said extended image being calculated from said extended image calculated previously and from said raw image . an optical system comprising an optical axis rotatable along at least two axes of rotation; a two-dimensional optical detector comprising a detection surface substantially perpendicular to said optical axis, said detection surface defining, with the optical system, a given intrinsic field, said two-dimensional detector being configured for the acquisition, by means of said optical system , of raw images of portions of said scene of dimensions equal to the dimensions of the intrinsic field; a control unit configured to control the rotation of said optical axis, so as to enable the acquisition, over time, by the optical detector , of at least a first plurality of raw images of a plurality of different portions of said scene, said first plurality of raw images comprising a number strictly greater than 2 of raw images of different portions of the scene, the superposition of said portions forming said enlarged field, two successive portions of said plurality of portions having at least one common part, said at least one first plurality of raw images corresponding respectively to a plurality of positions of said optical axis; and a processing unit configured for calculating, for each acquisition of a raw image at a given time, an extended image of larger size than an extended image calculated previously, said extended image being calculated from said extended image calculated previously and from said raw image .
Air conditioning system for a battery , this system comprising the battery and a closed casing containing the battery while forming an air gap around it, this closed casing comprising, through the same first of its ends , an outside air inlet opening into the air gap and an air outlet from the air gap opening towards the exterior of the casing , characterized in that an internal partition to the casing extends from the first end to an opposite second end of the casing through the air gap by separating it into two air volumes , the air inlet opening into one of the air volumes , and the outlet d air opening onto the other air volume , the partition being provided with an air passage between the two air volumes , opposite the first end.