mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display panel configured to display an image; a backlight unit configured to emit light toward the display panel, wherein the backlight unit comprises a plurality of light sources; a pattern layer positioned between the backlight unit and the display panel and including a first pattern configured to compensate for blue-wavelength light among light emitted from the backlight unit, wherein each constituent of the first pattern has a blue color and is configured to allow a larger amount of light emitted by the backlight unit in a blue-wavelength range to pass therethrough and a smaller amount of light emitted by the backlight unit in a remaining range except for the blue-wavelength range to pass therethrough, and wherein a position of each constituent of the first pattern is arranged to face a position of one of the plurality of light sources of the backlight unit; and a diffusion plate configured to mix the compensated blue-wavelength light and the light emitted from the backlight unit, and arranged to diffuse the mixed light, wherein the diffusion plate is positioned between the pattern layer and the display panel, and wherein the light emitted by the backlight unit in the blue wavelength range is scattered more by the diffusion plate than the light emitted by the backlight unit in a longer wavelength range. a display panel configured to display an image; a backlight unit configured to emit light toward the display panel, wherein the backlight unit comprises a plurality of light sources; a pattern layer positioned between the backlight unit and the display panel and including a first pattern configured to compensate for blue-wavelength light among light emitted from the backlight unit, wherein each constituent of the first pattern has a blue color and is configured to allow a larger amount of light emitted by the backlight unit in a blue-wavelength range to pass therethrough and a smaller amount of light emitted by the backlight unit in a remaining range except for the blue-wavelength range to pass therethrough, and wherein a position of each constituent of the first pattern is arranged to face a position of one of the plurality of light sources of the backlight unit; and a diffusion plate configured to mix the compensated blue-wavelength light and the light emitted from the backlight unit, and arranged to diffuse the mixed light, wherein the diffusion plate is positioned between the pattern layer and the display panel, and wherein the light emitted by the backlight unit in the blue wavelength range is scattered more by the diffusion plate than the light emitted by the backlight unit in a longer wavelength range.
A system for bone transport comprising: a housing and a rod each configured to be coupled to bone, wherein the housing and the rod are displaceable relative to each other along a longitudinal axis, and a driving element configured to be non-invasively activated to displace the housing and the rod relative to one another along the longitudinal axis; and a support member comprising a longitudinal slot, wherein the longitudinal slot is configured to allow passage of an elongate anchor, wherein the support member is configured to be coupled to a proximal portion of bone and a distal portion of bone, and the housing is configured to be coupled to the proximal portion of bone and the rod is configured to be coupled to a transport portion of bone, wherein the elongate anchor is configured to extend between the transport portion of bone and the longitudinal slot. a housing and a rod each configured to be coupled to bone, wherein the housing and the rod are displaceable relative to each other along a longitudinal axis, and a driving element configured to be non-invasively activated to displace the housing and the rod relative to one another along the longitudinal axis; and a support member comprising a longitudinal slot, wherein the longitudinal slot is configured to allow passage of an elongate anchor, wherein the support member is configured to be coupled to a proximal portion of bone and a distal portion of bone, and the housing is configured to be coupled to the proximal portion of bone and the rod is configured to be coupled to a transport portion of bone, wherein the elongate anchor is configured to extend between the transport portion of bone and the longitudinal slot.
Automatic beverage machine with a liquid tank and an outlet connection, which is connected via a conduit to a flow rate meter, wherein a first filter is arranged upstream of the outlet connection and a second filter is arranged between the outlet connection and the flow rate meter, so that liquid taken from the liquid tank is prefiltered by way of the first filter and after leaving the outlet connection is then cleaned again by way of the second filter, characterised in that a return pipe leads into the outlet connection downstream of the first filter and upstream of the second filter so that liquid that returns from a brewing unit by way of the return pipe is fed into the outlet connection and passes through the second filter again. characterised in that a return pipe leads into the outlet connection downstream of the first filter and upstream of the second filter so that liquid that returns from a brewing unit by way of the return pipe is fed into the outlet connection and passes through the second filter again.
Plant comprising at least one apparatus (2 - 4) for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, which plant comprises at least one module selected from a dose module, a build module, and an overflow module, wherein the at least one module is separably connected or connectable with the apparatus (2 - 4), wherein the plant comprises at least one tunnel structure through which the at least one module is moveable in a tunnel transport direction, wherein at least one module is moveable from the tunnel structure into two different module positions (11 - 16) inside the at least one apparatus (2 - 4) along a first direction, wherein the at least one module is moveable from the module positions (11 - 16) into the tunnel structure along a second direction, wherein the first direction and the second direction differ from the tunnel transport direction, characterised in that at least one apparatus (2 - 4) comprises at least one buffer position, in which at least one module can be positioned in advance to an additive manufacturing process, wherein at least one module is moveable along a buffer direction from the tunnel structure into the buffer position and is moveable from the buffer position into a corresponding work position along an unbuffer direction, in particular along a loading direction, wherein a module being moved from the buffer position into the work position is movable across the tunnel structure.
A wind turbine blade comprising: a first wind turbine blade component (10,11): a second wind turbine blade component (10,11): and a hinge apparatus for connecting the first (10,11) and second (10,11) wind blade turbine components together; characterized by the hinge apparatus comprising: a) a first hinge housing (14, 15, 17, 29) on the first wind turbine blade component (10,11), and b) a second hinge housing (14, 15, 17, 29) on the second wind turbine component, the second hinge housing opposing the first; c) a rotary actuator (16, 25) mounted in the interior space of the first hinge housing and spanning between the first and second hinge housings for rotating the first wind turbine blade component (10,11) with respect to the second wind turbine blade component (10,11), the rotary actuator comprising: i) a first connector portion (16, 18, 25) for engaging with the hinge housing of the first wind turbine blade component; ii) a second connector portion (23, 26) for engaging with the second hinge housing on the second wind turbine blade component; and iii) a rotating element for rotating the first connector portion with respect to the second, and for thereby rotating the first wind turbine blade component with respect to the second of the wind turbine blade component. a first wind turbine blade component (10,11): a second wind turbine blade component (10,11): and a hinge apparatus for connecting the first (10,11) and second (10,11) wind blade turbine components together; characterized by a second wind turbine blade component (10,11): and a hinge apparatus for connecting the first (10,11) and second (10,11) wind blade turbine components together; characterized by a) a first hinge housing (14, 15, 17, 29) on the first wind turbine blade component (10,11), and b) a second hinge housing (14, 15, 17, 29) on the second wind turbine component, the second hinge housing opposing the first; c) a rotary actuator (16, 25) mounted in the interior space of the first hinge housing and spanning between the first and second hinge housings for rotating the first wind turbine blade component (10,11) with respect to the second wind turbine blade component (10,11), the rotary actuator comprising: i) a first connector portion (16, 18, 25) for engaging with the hinge housing of the first wind turbine blade component; ii) a second connector portion (23, 26) for engaging with the second hinge housing on the second wind turbine blade component; and iii) a rotating element for rotating the first connector portion with respect to the second, and for thereby rotating the first wind turbine blade component with respect to the second of the wind turbine blade component. i) a first connector portion (16, 18, 25) for engaging with the hinge housing of the first wind turbine blade component; ii) a second connector portion (23, 26) for engaging with the second hinge housing on the second wind turbine blade component; and iii) a rotating element for rotating the first connector portion with respect to the second, and for thereby rotating the first wind turbine blade component with respect to the second of the wind turbine blade component.
A tape cartridge for being installed in a tape printing apparatus and to cause, while feeding out a printing tape, printing to be performed on the printing tape, the tape cartridge comprising: the printing tape; a cartridge casing in which the printing tape is accommodated; and a reaction force application portion that is provided on a front surface of the cartridge casing, configured to be displaced by a pressing force of a pressing portion of the tape printing apparatus, and configured to apply a reaction force against the pressing force to the pressing portion according to the displacement, characterized in that the reaction force application portion is an elastic portion which is formed by linearly cutting off a casing wall of the cartridge casing. the printing tape; a cartridge casing in which the printing tape is accommodated; and a reaction force application portion that is provided on a front surface of the cartridge casing, configured to be displaced by a pressing force of a pressing portion of the tape printing apparatus, and configured to apply a reaction force against the pressing force to the pressing portion according to the displacement, characterized in that the reaction force application portion is an elastic portion which is formed by linearly cutting off a casing wall of the cartridge casing.
A wrapping apparatus, of the type comprising a line for supplying queued products and grip means for picking up one product at a time from said line and for transferring it to a respective station for superimposing it on a covering flap and for closing said flap over the product, characterized in that it comprises a pair of mutually opposite carousels, which are coaxial and rotate synchronously, each carousel supporting at least two grip means, which are distributed angularly along said carousel and are aligned with corresponding grip means of the other carousel, said grip means being articulated to a toothed planetary gear that is accommodated in said carousel and can rotate about a fixed toothed sun gear of said carousel, said grip means being pivoted eccentrically on each planetary gear, defining a path that has a portion that is inclined and divergent with respect to said supply line, said portion being arranged downstream of the area for the clamping of said product by said grip means.
Use of a filter element, comprising a zigzag-folded filter medium in concentric shape, a first open or closed end disk disposed on a front face and a second end disk disposed on the opposing front face, the end disk featuring a concentric opening and extending substantially in a circular ring-shaped manner across the folds of the filter medium, the end disk featuring a first ring bead extending axially outwards as well as a sealing groove, the ring bead featuring outer end faces (18, 19), in a housing substantially arranged in a concentric manner and which comprises a cover also arranged in a concentric manner and closing the housing as well as an inlet disposed at the housing and/or at the cover for supplying the medium to be filtered, in particular air, an outlet for discharging the filtered medium being concentrically provided at the housing, a sealing contour, which corresponds with the ring bead (14, 15) and the sealing groove, being provided at the housing in the area of the outlet, the sealing contour consisting of two concentrically extending ring grooves (31, 32) and a sealing web disposed between the two ring grooves, the ring grooves featuring ribs (20, 21) and/or grooves at the groove base and the sealing web featuring on the web upper side and/or on the web side ribs and/or grooves and a height, which is lower than that of the sealing groove of the filter element, the outer end faces (18, 19) of the ring bead being supported by the radially extending ribs (20, 21) of a housing accommodating the filter element or by a flat surface with ducts.
A method for installing a drop cable for an optical access network in a building, said drop cable having a first end, a second end and a first minimum bending radius, said drop cable comprising at least one optical fiber and one or more layers (22, 23, 24) surrounding said optical fiber, said method comprising: a) laying said drop cable so that said first end is housed in a termination box placed at a first position at user's premises within said building and said second end is brought to a second position close to a riser cable within said building; b) collecting an extra-length of said drop cable at a third position intermediate between said first position and said second position; c) removing at least one (23, 24) of said layers (22, 23, 24) from a portion of said extra-length of said drop cable; and d) coiling said portion with a bending radius smaller than said first minimum bending radius, said method further comprising placing a storage box at said third position and accommodating said coiled portion in said storage box. a) laying said drop cable so that said first end is housed in a termination box placed at a first position at user's premises within said building and said second end is brought to a second position close to a riser cable within said building; b) collecting an extra-length of said drop cable at a third position intermediate between said first position and said second position; c) removing at least one (23, 24) of said layers (22, 23, 24) from a portion of said extra-length of said drop cable; and d) coiling said portion with a bending radius smaller than said first minimum bending radius,
A hemostatic material composition comprising: a polysaccharide having a reactive group that reacts with a protein to form a crosslinking structure; and a hydrophobic solvent. a polysaccharide having a reactive group that reacts with a protein to form a crosslinking structure; and a hydrophobic solvent.
A user equipment, UE, characterized by: a transceiver configured to receive at least one physical downlink control channel, PDCCH from which allocation of a paging time instance to be monitored for paging downlink control information, DCI, is determinable; and circuitry configured to determine the allocation of the paging time instance to be monitored based on the received at least one PDCCH, wherein the transceiver is configured to perform monitoring for the paging DCI based on the determination of the allocation of the paging time instance. a transceiver configured to receive at least one physical downlink control channel, PDCCH from which allocation of a paging time instance to be monitored for paging downlink control information, DCI, is determinable; and circuitry configured to determine the allocation of the paging time instance to be monitored based on the received at least one PDCCH, wherein the transceiver is configured to perform monitoring for the paging DCI based on the determination of the allocation of the paging time instance.
A method of sintering a green film to fabricate a Li-stuffed garnet solid electrolyte for a rechargeable battery, the method comprising: placing a green film of unsintered Li-stuffed garnet precursor materials on top of a setter plate, wherein the setter plate comprises at least two members selected from the group consisting of lithium-stuffed garnet oxide characterized by the formula Li x La y Zr z O t ·qAl 2 O 3, wherein 4<x<10, 1<y<4, 1<z<3, 6<t<14, and 0≤q≤1, Li 2 ZrO 3, Li 2 SiO 3, LiLaO 2, LiAlO 2, Li 2 O and Li 3 PO 4, and combinations thereof, and sintering the green film on top of the setter plate to form a sintered garnet film. placing a green film of unsintered Li-stuffed garnet precursor materials on top of a setter plate, wherein the setter plate comprises at least two members selected from the group consisting of lithium-stuffed garnet oxide characterized by the formula Li x La y Zr z O t ·qAl 2 O 3, wherein 4<x<10, 1<y<4, 1<z<3, 6<t<14, and 0≤q≤1, Li 2 ZrO 3, Li 2 SiO 3, LiLaO 2, LiAlO 2, Li 2 O and Li 3 PO 4, and combinations thereof, and sintering the green film on top of the setter plate to form a sintered garnet film.
A convection oven comprising: a cabinet having a top, bottom, front, rear, left side, and right side, an oven chamber in the cabinet sized for receiving food, recirculation ducting for recirculating gas from the oven chamber back to the oven chamber, the recirculation ducting including a fan scroll housing, a centrifugal fan in the fan scroll housing for moving gas from the recirculation ducting to the oven chamber, the centrifugal fan having a fan axis about which the fan is rotatable in a rotation direction to move gas radially from the fan in the fan scroll housing, and a heating mechanism in the cabinet for heating the gas, wherein the fan scroll housing includes multiple fan discharge ducts defining respective gas flow paths from the fan, the fan scroll housing defining multiple cutoffs adjacent the fan for dividing gas flow from the fan to said fan discharge ducts, each fan discharge duct including opposite first and second discharge duct walls (112, 114) downstream from respective cutoffs, each first discharge duct wall including a volute wall section having a concave surface facing the gas flow path of the respective fan discharge duct, and each volute wall section extending at least partially around the centrifugal fan in the rotation direction and increasing in distance from the fan axis as the volute wall section extends in the rotation direction around the centrifugal fan; the oven being characterized in that each second discharge duct wall includes an eddy wall section extending downstream from the cutoff and being configured to create an eddy in the gas flow path. a cabinet having a top, bottom, front, rear, left side, and right side, an oven chamber in the cabinet sized for receiving food, recirculation ducting for recirculating gas from the oven chamber back to the oven chamber, the recirculation ducting including a fan scroll housing, a centrifugal fan in the fan scroll housing for moving gas from the recirculation ducting to the oven chamber, the centrifugal fan having a fan axis about which the fan is rotatable in a rotation direction to move gas radially from the fan in the fan scroll housing, and a heating mechanism in the cabinet for heating the gas, wherein the fan scroll housing includes multiple fan discharge ducts defining respective gas flow paths from the fan, the fan scroll housing defining multiple cutoffs adjacent the fan for dividing gas flow from the fan to said fan discharge ducts, each fan discharge duct including opposite first and second discharge duct walls (112, 114) downstream from respective cutoffs, each first discharge duct wall including a volute wall section having a concave surface facing the gas flow path of the respective fan discharge duct, and each volute wall section extending at least partially around the centrifugal fan in the rotation direction and increasing in distance from the fan axis as the volute wall section extends in the rotation direction around the centrifugal fan; the oven being characterized in that each second discharge duct wall includes an eddy wall section extending downstream from the cutoff and being configured to create an eddy in the gas flow path.
A cannula assembly, comprising a flexible cannula body having distal and proximal ends with a lumen extending therebetween, the distal end of the cannula body including a receiving portion, a transseptal tip having distal and proximal ends (190, 194), the proximal end including an engaging portion operable to connect to the receiving portion of the flexible cannula body in vivo, and first and second anchors (202, 206) coupled to the transseptal tip and configured to be deployed from a contracted state to an expanded state, the first and second anchors (202, 206) configured to engage opposite sides of a heart tissue in the expanded state, wherein each of the first and second anchors (202, 206) further comprises a plurality of struts extending generally transverse to a lengthwise central axis of the flexible cannula body, characterized in that the plurality of struts of the first anchor and/or the second anchor (202, 206) further includes a porous polymeric structure.