mhurhangee/ep-ind-claims huggingface dataset:
A device for the dosed administration of a fluid product, the device including: a) a housing having a reservoir for the product, b) a conveying device (3, 15) for the product, c) a drive member (5; 25) influenced by setting of a product dose, d) a coupling input member (6; 6') coupled to the drive member (5; 25), e) a coupling output member coupled to the conveying device (3, 15), and f) a holding device (7, 9, 10; 6c, 14, 18'; 17, 19, 23, 24) which holds the coupling members (6, 9; 6', 9) in a mutually uncoupled holding position, g) wherein at least one of the coupling members (6, 9; 6', 9) is moveable with a coupling movement out of the holding position into a coupling engagement in which a drive force of the drive member (5; 25) causes a dispensing movement of the conveying device (3, 15) by way of the coupling members (6, 9; 6', 9), characterised in that h) the coupling output member is fixed in the holding position of the coupling members (6, 9; 6', 9) relative to the housing (1, 4) such that it cannot perform any movement causing the dispensing movement. a) a housing having a reservoir for the product, b) a conveying device (3, 15) for the product, c) a drive member (5; 25) influenced by setting of a product dose, d) a coupling input member (6; 6') coupled to the drive member (5; 25), e) a coupling output member coupled to the conveying device (3, 15), and f) a holding device (7, 9, 10; 6c, 14, 18'; 17, 19, 23, 24) which holds the coupling members (6, 9; 6', 9) in a mutually uncoupled holding position, g) wherein at least one of the coupling members (6, 9; 6', 9) is moveable with a coupling movement out of the holding position into a coupling engagement in which a drive force of the drive member (5; 25) causes a dispensing movement of the conveying device (3, 15) by way of the coupling members (6, 9; 6', 9), characterised in that h) the coupling output member is fixed in the holding position of the coupling members (6, 9; 6', 9) relative to the housing (1, 4) such that it cannot perform any movement causing the dispensing movement.
A triggered double spark gap in a flat design with main electrodes (1, 2), which are connected between electrical conductors L and N or N and PE, the main electrodes (1, 2) being of cuboidal design and being mechanically connected to one another, but electrically insulated from one another, - wherein a hollow cylinder made of arc-resistant material is arranged in the center of the first main electrode, - wherein an insulating disc having a central hole is arranged on the first main electrode on the surface facing the second main electrode, said central hole releasing the maximum of the hollow cylinder, - wherein a disc-shaped metal electrode is arranged on the insulating disc and has a central hole, which has a larger diameter than the central hole of the insulating disc, so that a circular space is formed up to the hollow cylinder and forms an insulating gap, - wherein the metal electrode is electrically conductively connected to the first main electrode via an impedance, - wherein a first disc of low-impedance conductive material is arranged on the metal electrode and has an inner hole circle with a plurality of holes, which cover the central hole of the metal electrode for the most part, - wherein a second disc made of insulating material is arranged on the first disc and has an inner hole circle with a plurality of holes, the position and size of which equals the position and size of the holes of the first disc, - wherein a third disc made of an arc-resistant, electrically conductive material is arranged on the second disc and bears against the surface of the second main electrode facing the first main electrode. - wherein a hollow cylinder made of arc-resistant material is arranged in the center of the first main electrode, - wherein an insulating disc having a central hole is arranged on the first main electrode on the surface facing the second main electrode, said central hole releasing the maximum of the hollow cylinder, - wherein a disc-shaped metal electrode is arranged on the insulating disc and has a central hole, which has a larger diameter than the central hole of the insulating disc, so that a circular space is formed up to the hollow cylinder and forms an insulating gap, - wherein the metal electrode is electrically conductively connected to the first main electrode via an impedance, - wherein a first disc of low-impedance conductive material is arranged on the metal electrode and has an inner hole circle with a plurality of holes, which cover the central hole of the metal electrode for the most part, - wherein a second disc made of insulating material is arranged on the first disc and has an inner hole circle with a plurality of holes, the position and size of which equals the position and size of the holes of the first disc, - wherein a third disc made of an arc-resistant, electrically conductive material is arranged on the second disc and bears against the surface of the second main electrode facing the first main electrode.
A Jak1 and/or Jak2 inhibitor selected from the group consisting of: AG490 with the CAS No. 133550-30-8; CYT387 with the CAS No. 1056634-68-4; SB1518 with the CAS No. 937272-79-2; TG101348 with the CAS No. 936091-26-8; BMS-911543 with the CAS No. 1271022-90-2; WP-1034 with the CAS No. 857064- 42-7; CEP-701 with the CAS No. 111358-88-4; INCB 018424 with the CAS No. 941678-49-5; and LY3009104 with the CAS No. 1187594-09-7 for use in a method of treatment of a hair-loss disorder selected from the group consisting of alopecia areata and androgenetic alopecia in a mammalian subject in need thereof.
Heat exchanger for fluids, comprising at least two sets of pipes, each set of pipes including an internal pipe, an intermediate pipe and an external pipe concentric to each other and forming between them spaces for the longitudinal circulation of fluids, the sets of pipes being situated substantially parallel to each other, wherein the intermediate pipes are connected in series by means of curved pipes, such that they form a circuit for the circulation of the fluid to be treated, wherein one of the intermediate pipes comprises an open end to the outside of the heat exchanger through which the fluid to be treated can be introduced and another of the intermediate pipes comprises an open end through which the fluid to be treated can be extracted, characterised in that each set of pipes comprises: - an inner connecting conduit that fluidically connects one end of the internal pipe to an element external to the corresponding set of pipes, - an intermediate connecting conduit that fluidically connects the other end of its internal pipe to the adjacent end of its external pipe; and - an outer connecting conduit that fluidically connects the other end of its external pipe to another element external to the corresponding set of pipes. - an inner connecting conduit that fluidically connects one end of the internal pipe to an element external to the corresponding set of pipes, - an intermediate connecting conduit that fluidically connects the other end of its internal pipe to the adjacent end of its external pipe; and - an outer connecting conduit that fluidically connects the other end of its external pipe to another element external to the corresponding set of pipes.
A dielectric resonator (20,30), comprising: a solid dielectric resonator body (201,301); a blind hole (202,302) located on one side of the solid dielectric resonator body (201,301); a metalized layer (203,303) covering both a surface of the solid dielectric resonator body (201,301) and a surface of the blind hole (202, 302); at least one demetallized notch (204,304) located at the metalized layer (203,303) on the surface of the blind hole (202, 302); characterized in that the dielectric resonator further comprises a metalized sealing part that is configured to seal the demetallized notch and that keeps away from the demetallized notch (204,304) at a specific spacing wherein the specific spacing is suitable for reducing impact of the metalized sealing part on a frequency of the dielectric resonator (20,30) and a width of the specific spacing depends on a dielectric constant of a dielectric of the dielectric resonator (20,30) and the resonance frequency of the dielectric resonator (20,30) and the metalized sealing part is located outside the blind hole (202,302) and connected to a metalized layer surrounding an opening side of the blind hole (202,302), and a surface, connecting to the metalized layer surrounding the opening side of the blind hole, of the metalized sealing part is a metalized surface. a solid dielectric resonator body (201,301); a blind hole (202,302) located on one side of the solid dielectric resonator body (201,301); a metalized layer (203,303) covering both a surface of the solid dielectric resonator body (201,301) and a surface of the blind hole (202, 302); at least one demetallized notch (204,304) located at the metalized layer (203,303) on the surface of the blind hole (202, 302); characterized in that the dielectric resonator further comprises a metalized sealing part that is configured to seal the demetallized notch and that keeps away from the demetallized notch (204,304) at a specific spacing wherein the specific spacing is suitable for reducing impact of the metalized sealing part on a frequency of the dielectric resonator (20,30) and a width of the specific spacing depends on a dielectric constant of a dielectric of the dielectric resonator (20,30) and the resonance frequency of the dielectric resonator (20,30) and the metalized sealing part is located outside the blind hole (202,302) and connected to a metalized layer surrounding an opening side of the blind hole (202,302), and a surface, connecting to the metalized layer surrounding the opening side of the blind hole, of the metalized sealing part is a metalized surface.
A combustor wall assembly comprising: a liner including a hot face defining a combustion chamber, an opposite cold face, and a plurality of effusion holes; a shell spaced outward from the cold face, the shell including a plurality of impingement holes, each impingement hole having a centerline orientated substantially normal to the cold face; and a plurality of cooling pin arrays, each cooling pin array including a first plurality of pins projecting outward from the cold face, wherein each pin array is spaced between adjacent effusion holes of the plurality of effusion holes and arranged about the centerline of the respective impingement hole, wherein each one of the plurality of impingement holes includes a footprint cast upon the cold face about the respective centerline and spaced from adjacent effusion holes of the plurality of effusion holes, characterised in that: each pin of the first plurality of pins is located at least in-part within the footprint; each one of the plurality of cooling pin arrays includes a second plurality of pins disposed outside of the footprint; and the first plurality of pins are shorter than the second plurality of pins. a liner including a hot face defining a combustion chamber, an opposite cold face, and a plurality of effusion holes; a shell spaced outward from the cold face, the shell including a plurality of impingement holes, each impingement hole having a centerline orientated substantially normal to the cold face; and a plurality of cooling pin arrays, each cooling pin array including a first plurality of pins projecting outward from the cold face, wherein each pin array is spaced between adjacent effusion holes of the plurality of effusion holes and arranged about the centerline of the respective impingement hole,
A turbine shroud assembly comprising a carrier arranged around at least a portion of a central axis and forming a load stage, the carrier comprising metallic materials and including a forward hanger and an aft hanger, and a blade track including a runner that extends at least partway about the central axis having a flow surface arranged to define a gas flow path and an attachment flange extending from the runner radially outward for engagement with the load stage of the carrier, wherein the hangers extending radially inward therefrom and forming the load stage for supporting the blade track, wherein each of the number of hangers includes a body and a number of adjustable extension arms extending radially from the body for connection with the carrier, characterised in that the blade track comprises ceramic-containing materials, wherein the attachment flange includes a stalk attached to the runner and a pair of branches each connected with the stalk and extending in opposite directions to each form a free end, wherein the blade track is formed of a number of laminate layers including a first set of layers forming a portion of the stalk and a portion of one of the pair of branches, and a second set of layers forming another portion of the stalk and a portion of the other of the pair of branches, and wherein the number of laminate layers includes a third set of layers forming portions of each of the pair of branches.
A wellbore system comprising: a tubing string comprising a sub, a nipple and a primary safety valve, the primary safety valve being disposed in the tubing string above or below the nipple; a control line and a balance line, each comprising an upper portion (20a, 22a) that extends to the sub, and a lower portion (20b, 22b) that extends from the sub to the primary safety valve and that is in hydraulic communication with the primary safety valve, the control line and balance line each in latent hydraulic communication with an internal flow pathway within the nipple via a latent control line and a latent balance line that extend from the sub to the nipple, wherein the wellbore system comprises a switching mechanism housed within the sub that is axially displaceable to establish hydraulic communication between an insert safety valve positioned in a bore of the nipple and the latent control line and the latent balance line. a tubing string comprising a sub, a nipple and a primary safety valve, the primary safety valve being disposed in the tubing string above or below the nipple; a control line and a balance line, each comprising an upper portion (20a, 22a) that extends to the sub, and a lower portion (20b, 22b) that extends from the sub to the primary safety valve and that is in hydraulic communication with the primary safety valve, the control line and balance line each in latent hydraulic communication with an internal flow pathway within the nipple via a latent control line and a latent balance line that extend from the sub to the nipple, wherein the wellbore system comprises a switching mechanism housed within the sub that is axially displaceable to establish hydraulic communication between an insert safety valve positioned in a bore of the nipple and the latent control line and the latent balance line.
An image processing device comprising: a decoding section (62, 63, 64) configured to decode an encoded stream to generate an image; a horizontal filtering section configured to perform horizontal filtering by applying a horizontal filter to neighboring pixels across a plurality of vertical block boundaries within the image generated by the decoding section to generate a filtered image; a vertical filtering section configured to perform vertical filtering by applying a vertical filter to neighboring pixels across a plurality of horizontal block boundaries within the filtered image generated by the horizontal filtering section; and a control section configured to cause the horizontal filtering section to filter in parallel neighboring pixels across a plurality of vertical block boundaries of a plurality of blocks of 8x8 pixels and then to cause the vertical filtering section to filter in parallel neighboring pixels across a plurality of horizontal block boundaries of the plurality of blocks, wherein the control section causes the horizontal filtering section to filter across each vertical block boundary without depending on filtering results for other vertical block boundaries, and wherein the control section causes the vertical filtering section to filter across each horizontal block boundary without depending on filtering results for other horizontal block boundaries. a decoding section (62, 63, 64) configured to decode an encoded stream to generate an image; a horizontal filtering section configured to perform horizontal filtering by applying a horizontal filter to neighboring pixels across a plurality of vertical block boundaries within the image generated by the decoding section to generate a filtered image; a vertical filtering section configured to perform vertical filtering by applying a vertical filter to neighboring pixels across a plurality of horizontal block boundaries within the filtered image generated by the horizontal filtering section; and a control section configured to cause the horizontal filtering section to filter in parallel neighboring pixels across a plurality of vertical block boundaries of a plurality of blocks of 8x8 pixels and then to cause the vertical filtering section to filter in parallel neighboring pixels across a plurality of horizontal block boundaries of the plurality of blocks, wherein the control section causes the horizontal filtering section to filter across each vertical block boundary without depending on filtering results for other vertical block boundaries, and wherein the control section causes the vertical filtering section to filter across each horizontal block boundary without depending on filtering results for other horizontal block boundaries.
A seat back assembly comprising: a pair of stretcher members; at least one cross member attaching and spacing apart the stretcher members to form a frame; and a diaphragm attached to and tensioned between the stretcher members to form a seat back; characterized in that first and second bolsters attached at seams extending along the respective first and second opposite edges of the diaphragm such that the diaphragm wraps around the first and the second bolsters so that the diaphragm is in contact with opposite sides of the first and the second bolsters, each said seam generally extending along the length of its respective stretcher member, wherein the diaphragm is secured at or near forward edges of the stretcher members and the first and the second bolsters are disposed behind the diaphragm on the face thereof directed towards rearward edges of the stretcher members. a pair of stretcher members; at least one cross member attaching and spacing apart the stretcher members to form a frame; and a diaphragm attached to and tensioned between the stretcher members to form a seat back; characterized in that first and second bolsters attached at seams extending along the respective first and second opposite edges of the diaphragm such that the diaphragm wraps around the first and the second bolsters so that the diaphragm is in contact with opposite sides of the first and the second bolsters, each said seam generally extending along the length of its respective stretcher member, wherein the diaphragm is secured at or near forward edges of the stretcher members and the first and the second bolsters are disposed behind the diaphragm on the face thereof directed towards rearward edges of the stretcher members.
A rock drilling rig, comprising: a movable carrier; at least one drilling boom connected movably to the carrier and equipped with a rock drilling unit, wherein the rock drilling unit comprises a feed beam and a rock drilling machine supported movably on the feed beam; characterised in that the drilling unit is provided with optical positioning apparatuses; and wherein each positioning apparatus comprises at least one pattern illuminating device for producing two-dimensional light patterns on a rock surface for assisting positioning of the rock drilling machine; wherein a positioning apparatus is mounted on a front end of the feed beam of the rock drilling unit and is directed forwards for producing a two-dimensional light pattern against the surface being drilled; and a positioning apparatus is mounted on a rear end of the feed beam of the rock drilling unit and is directed perpendicularly relative to longitudinal axis of the rock drilling unit. a movable carrier; at least one drilling boom connected movably to the carrier and equipped with a rock drilling unit, wherein the rock drilling unit comprises a feed beam and a rock drilling machine supported movably on the feed beam; characterised in that the drilling unit is provided with optical positioning apparatuses; and wherein each positioning apparatus comprises at least one pattern illuminating device for producing two-dimensional light patterns on a rock surface for assisting positioning of the rock drilling machine; wherein a positioning apparatus is mounted on a front end of the feed beam of the rock drilling unit and is directed forwards for producing a two-dimensional light pattern against the surface being drilled; and a positioning apparatus is mounted on a rear end of the feed beam of the rock drilling unit and is directed perpendicularly relative to longitudinal axis of the rock drilling unit.
A method of operating a modulated continuous-wave radar system, comprising at least the following steps: - modulate a plurality of continuous radar waves at a modulation frequency for providing a plurality of n modulated continuous radar waves that represent mutually orthogonal codes, - transmit said plurality of n modulated continuous radar waves towards a scene with a potential object to be detected, wherein the transmitted modulated continuous radar waves of the plurality of modulated continuous radar waves are consecutively transmitted with a constant time lag ( τ), - receive a plurality of radar waves that have been transmitted by the radar system and have been reflected by an object, - generate a plurality of received radar signals from the received plurality of radar waves, - decode individual range information for each received radar signal from the generated plurality of received radar signals, and - determine a range between the radar system and the object on the basis of the decoded individual range information; characterized in - that said constant time lag ( τ) is given by one nth of a period of the modulation frequency, and - that the generated plurality of received radar signals is digitally converted with a sampling rate that is equal to the modulation frequency. - modulate a plurality of continuous radar waves at a modulation frequency for providing a plurality of n modulated continuous radar waves that represent mutually orthogonal codes, - transmit said plurality of n modulated continuous radar waves towards a scene with a potential object to be detected, wherein the transmitted modulated continuous radar waves of the plurality of modulated continuous radar waves are consecutively transmitted with a constant time lag ( τ), - receive a plurality of radar waves that have been transmitted by the radar system and have been reflected by an object, - generate a plurality of received radar signals from the received plurality of radar waves, - decode individual range information for each received radar signal from the generated plurality of received radar signals, and - determine a range between the radar system and the object on the basis of the decoded individual range information; characterized in - that said constant time lag ( τ) is given by one nth of a period of the modulation frequency, and - that the generated plurality of received radar signals is digitally converted with a sampling rate that is equal to the modulation frequency.