mhurhangee/ep-ind-claims huggingface dataset:
A seat recline mechanism, comprising: a first shaft attachable to a first seat assembly component, the first shaft having a slotted ring defining capture slots and an interior annular space; a control ring having a first end disposed in the annular space; a second shaft attachable to a second seat assembly component, the second shaft engaged with a second end of the control ring; a first collar rotatably disposed around the slotted ring, the first collar having a plurality of recline recesses; and a plurality of first bearings respectively retained within the capture slots beneath the first collar, wherein: in a first rotational position of the first collar, the plurality of recline recesses align with the capture slots to rotationally disengage the first and second seat assembly components (32, 34); and in a second rotational position of the first collar, the plurality of recline recesses misalign with the capture slots to rotationally engage the first and second seat assembly components (32, 34); characterized in that the control ring has helical grooves in which the first bearings are movable against the forces of springs, when the first collar is in the first rotational position, by a force to overcome the springs thereby permitting the second seat assembly component to rotate relative to the first seat assembly component. a first shaft attachable to a first seat assembly component, the first shaft having a slotted ring defining capture slots and an interior annular space; a control ring having a first end disposed in the annular space; a second shaft attachable to a second seat assembly component, the second shaft engaged with a second end of the control ring; a first collar rotatably disposed around the slotted ring, the first collar having a plurality of recline recesses; and a plurality of first bearings respectively retained within the capture slots beneath the first collar, wherein: in a first rotational position of the first collar, the plurality of recline recesses align with the capture slots to rotationally disengage the first and second seat assembly components (32, 34); and in a second rotational position of the first collar, the plurality of recline recesses misalign with the capture slots to rotationally engage the first and second seat assembly components (32, 34); in a first rotational position of the first collar, the plurality of recline recesses align with the capture slots to rotationally disengage the first and second seat assembly components (32, 34); and in a second rotational position of the first collar, the plurality of recline recesses misalign with the capture slots to rotationally engage the first and second seat assembly components (32, 34); characterized in that the control ring has helical grooves in which the first bearings are movable against the forces of springs, when the first collar is in the first rotational position, by a force to overcome the springs thereby permitting the second seat assembly component to rotate relative to the first seat assembly component.
A turbine section of a gas turbine engine, the turbine section comprising: a turbine case that extends around a central reference axis; a plurality of gas path components including a turbine vane made from ceramic matrix composite materials and forward and aft seal rings (35, 36); and a vane mount unit that couples the plurality of gas path components to the turbine case, the vane mount unit including (i) a spar made of metallic materials that is configured to received loads from the turbine vane during use of the turbine section in the gas turbine engine and (ii) a carrier made from metallic materials that is coupled to the spar and engages the turbine case at least two axially spaced apart locations to carry loads from the spar to the turbine case and anchor the plurality of gas path components relative to the case; wherein, the carrier includes a forward hanger engaged with the turbine case and extending circumferentially at least half way along an overall circumferential length of the carrier; the forward hanger engages with the turbine case at the location axially forward of the turbine vane; and the carrier further includes an aft hanger engaged with the turbine case at a location axially aft of the turbine vane extending circumferentially at least half way along an overall circumferential length of the carrier. a turbine case that extends around a central reference axis; a plurality of gas path components including a turbine vane made from ceramic matrix composite materials and forward and aft seal rings (35, 36); and a vane mount unit that couples the plurality of gas path components to the turbine case, the vane mount unit including (i) a spar made of metallic materials that is configured to received loads from the turbine vane during use of the turbine section in the gas turbine engine and (ii) a carrier made from metallic materials that is coupled to the spar and engages the turbine case at least two axially spaced apart locations to carry loads from the spar to the turbine case and anchor the plurality of gas path components relative to the case; wherein, the carrier includes a forward hanger engaged with the turbine case and extending circumferentially at least half way along an overall circumferential length of the carrier; the forward hanger engages with the turbine case at the location axially forward of the turbine vane; and the carrier further includes an aft hanger engaged with the turbine case at a location axially aft of the turbine vane extending circumferentially at least half way along an overall circumferential length of the carrier.
A dishwasher for operation in various voltage systems, comprising: multiple electrical load elements (B1.1-4; T1.1), a power controller, and a system input terminal having multiple conductors (L1, L2, L3, N) for connecting the power controller to the conductors of the on-site low-voltage system with one or more phases, in particular three phases; characterised in that the power controller comprises: - means for detecting the type of low-voltage system using the single- or multi-phase system voltage of the low-voltage system which is supplied to the power controller; and - a switching unit for electrically connecting the conductors of the system input terminal to groups of the load elements depending on the detected type of low-voltage system, wherein each group comprises at least one load element or multiple parallel-connected load elements and at least one switch (T1-T6) for controlling the power supply to the load elements of the respective group. multiple electrical load elements (B1.1-4; T1.1), a power controller, and a system input terminal having multiple conductors (L1, L2, L3, N) for connecting the power controller to the conductors of the on-site low-voltage system with one or more phases, in particular three phases; characterised in that the power controller comprises: - means for detecting the type of low-voltage system using the single- or multi-phase system voltage of the low-voltage system which is supplied to the power controller; and - a switching unit for electrically connecting the conductors of the system input terminal to groups of the load elements depending on the detected type of low-voltage system, wherein each group comprises at least one load element or multiple parallel-connected load elements and at least one switch (T1-T6) for controlling the power supply to the load elements of the respective group. - means for detecting the type of low-voltage system using the single- or multi-phase system voltage of the low-voltage system which is supplied to the power controller; and - a switching unit for electrically connecting the conductors of the system input terminal to groups of the load elements depending on the detected type of low-voltage system, wherein each group comprises at least one load element or multiple parallel-connected load elements and at least one switch (T1-T6) for controlling the power supply to the load elements of the respective group.
Process for the gas phase polymerisation of one or more olefin monomers in a fluidised bed reactor in a dry mode or in a (super) condensed mode with a gas stream comprising an inert gas characterised in that the inert gas comprises a mixture of inert components: 5-60 % by mol of nitrogen 10- 90 % by mol of a gas heat capacity increasing agent which regulates the dew point and at the same time improves the vapor stream heat capacity 1-50 % by mol of a sorption promoting agent which acts as promoting agent of the ethylene and alpha olefins local concentrations at the growing polymer micro-particle level where sorption of such components into the polyethylene increases the local concentration of ethylene and/or alpha-olefins in terms of micro-conditions surrounding the catalyst active sites and 0.1-10 % by mol of a polymer swelling agent which acts as a polymer physical and viscoelastic properties modifying agent, developed instantaneously during polymer growth, by swelling and plasticizing the polymer formed during growth and which agent influences the characteristics of the crystalline phase, wherein the gas heat capacity increasing agent is a saturated (C 2 -C 3) hydrocarbon or a mixture of these hydrocarbons, the sorption promoting agent is (C 4) hydrocarbon n-butane and the polymer swelling agent is a saturated (C 5 -C 20) hydrocarbon or a mixture of at least two different saturated (C 5 -C 20) hydrocarbons, the polymer swelling agent being n-pentane or iso-pentane, and wherein the total amount of the inert components,, and is 100%.. 5-60 % by mol of nitrogen 10- 90 % by mol of a gas heat capacity increasing agent which regulates the dew point and at the same time improves the vapor stream heat capacity 1-50 % by mol of a sorption promoting agent which acts as promoting agent of the ethylene and alpha olefins local concentrations at the growing polymer micro-particle level where sorption of such components into the polyethylene increases the local concentration of ethylene and/or alpha-olefins in terms of micro-conditions surrounding the catalyst active sites and 0.1-10 % by mol of a polymer swelling agent which acts as a polymer physical and viscoelastic properties modifying agent, developed instantaneously during polymer growth, by swelling and plasticizing the polymer formed during growth and which agent influences the characteristics of the crystalline phase, wherein the gas heat capacity increasing agent is a saturated (C 2 -C 3) hydrocarbon or a mixture of these hydrocarbons, the sorption promoting agent is (C 4) hydrocarbon n-butane and the polymer swelling agent is a saturated (C 5 -C 20) hydrocarbon or a mixture of at least two different saturated (C 5 -C 20) hydrocarbons, the polymer swelling agent being n-pentane or iso-pentane, and wherein the total amount of the inert components,, and is 100%..
A method for preparing metal compound nanoparticles, comprising: dispersing at least one metal precursor in an organic solvent, adding an acid or an alkali to the dispersion, and mixing the dispersion with a carbon dioxide fluid at 30 to 100 °C under 0.5 to 7,5 MPa for 1 min to 10 hours, to obtain the homogeneous fluid mixture; maintaining the fluid mixture for 1 min to 100 hours at a subcritical CO 2 condition of 120 to 210°C and 9 to 29 MPa, to allow a solvothermal reaction to proceed; and cooling the reaction mixture, followed by performing supercritical drying, to isolate the metal compound nanoparticles. dispersing at least one metal precursor in an organic solvent, adding an acid or an alkali to the dispersion, and mixing the dispersion with a carbon dioxide fluid at 30 to 100 °C under 0.5 to 7,5 MPa for 1 min to 10 hours, to obtain the homogeneous fluid mixture; maintaining the fluid mixture for 1 min to 100 hours at a subcritical CO 2 condition of 120 to 210°C and 9 to 29 MPa, to allow a solvothermal reaction to proceed; and cooling the reaction mixture, followed by performing supercritical drying, to isolate the metal compound nanoparticles.
A mouse having a genome comprising a modification of an immunoglobulin heavy chain locus, wherein the modification eliminates endogenous ADAM6 function, which is associated with a reduction in fertility in male mice, the mouse further comprising a nucleic acid sequence encoding a mouse ADAM6a protein, or an ortholog or homolog or functional fragment thereof that is functional in a male mouse, and/or a mouse ADAM6b protein, or an ortholog or homolog or fragment thereof that is functional in a male mouse.
An extruder comprising a housing having a flow channel for a melt and a perforated plate delimiting the flow channel on the outlet side, wherein the perforated plate has at least two through-flow areas spaced apart from one another and each through-flow area comprises at least one through-flow opening, and the perforated plate is furthermore mounted in a changing device, wherein the changing device has guide elements, in which the perforated plate can be moved substantially perpendicularly to the flow channel, wherein the extruder, directly ahead of the perforated plate when viewed in the direction of flow of the melt, has an inlet flow cone, which is structurally separate from the perforated plate, thus allowing the through-flow areas of the perforated plate to be moved relative to the inlet flow cone.
An integrated circuit including a capacitor, the integrated circuit comprising: a semiconductor layer; a first through-body via, TBV, disposed within a first through-hole formed in a semiconductor layer, the first through-hole extending through the semiconductor layer from a first surface thereof to a second surface thereof; an isolation layer disposed in the first through-hole between a first dielectric layer and the semiconductor layer and conformal to a sidewall of the first trough-hole; the first dielectric layer disposed between the first TBV and the isolation layer; wherein a second electrode of the capacitor is provided by a conductive layer disposed between the isolation layer and the first dielectric layer; a second TBV disposed within a second through-hole formed in the semiconductor layer adjacent to the first TBV, wherein the second TBV is electrically connected with the first TBV and electrically isolated from the semiconductor layer by an isolation layer disposed in the second through-hole on the semiconductor layer and conformal to a sidewall of the second trough-hole, a first electrode of the capacitor is provided by the first TBV, and an electrical connection to the first electrode of the capacitor and an electrical connection to the second electrode of the capacitor are provided on the front side or the back side of the integrated circuit by a contact with the second TBV and the conductive layer respectively, wherein the first trough-hole and the second trough-hole have the shape of a conical frustum. a semiconductor layer; a first through-body via, TBV, disposed within a first through-hole formed in a semiconductor layer, the first through-hole extending through the semiconductor layer from a first surface thereof to a second surface thereof; an isolation layer disposed in the first through-hole between a first dielectric layer and the semiconductor layer and conformal to a sidewall of the first trough-hole; the first dielectric layer disposed between the first TBV and the isolation layer; wherein a second electrode of the capacitor is provided by a conductive layer disposed between the isolation layer and the first dielectric layer; a second TBV disposed within a second through-hole formed in the semiconductor layer adjacent to the first TBV, wherein the second TBV is electrically connected with the first TBV and electrically isolated from the semiconductor layer by an isolation layer disposed in the second through-hole on the semiconductor layer and conformal to a sidewall of the second trough-hole, a first electrode of the capacitor is provided by the first TBV, and an electrical connection to the first electrode of the capacitor and an electrical connection to the second electrode of the capacitor are provided on the front side or the back side of the integrated circuit by a contact with the second TBV and the conductive layer respectively, wherein the first trough-hole and the second trough-hole have the shape of a conical frustum.
Reinforced shelf (11, 21) for metal shelving comprising at least a downside beam (13, 23) said beam having a shape of an upside-down omega comprising two vertical walls (16, 26) perpendicular to the shelf itself, and a horizontal wall (14, 24) parallel to the shelf itself, provided with a trimming to facilitate the assembly of the shelf and allow the passage and the support of an electric wiring, said trimming (17, 27) is obtained in each vertical wall (16, 26) and in the horizontal wall (14, 24) of said beams (13, 23) at a suitable distance from the downside (12, 22) of the shelf itself and characterized in that said wiring is supported in said at least a downside beam (13, 23) by a clip having an L-shaped transversal section.
A carriage fitting for a sliding sash having tilt capability, which sliding sash has horizontal and vertical spars and is installable via at least one thereof on at least one carriage (10, 20), which is movable in parallel to a fixed frame, of the carriage fitting, which carriage is fixedly connectable to the sliding sash in a corner region of the sliding sash; wherein - the carriage has a horizontal receptacle or support surface, which extends essentially perpendicularly to the plane of the sliding sash in the installed state; - a bolt engages in an opening of the receptacle or support surface to form a fixed but detachable connection and is connectable via an elongated plate (23; 23a, 23b) of the carriage fitting to the sliding sash, so that the connection is achieved in the region above the horizontal spar of the sliding sash; - at least two installation points (24a, 24b; 25a, 25b), which are spaced apart (c) in the horizontal direction, are provided on the elongated plate; wherein the installation points are provided to enable screw connections to the sliding sash and pairs of installation points (24a, 24b; 25a, 25b) are provided to install the elongated plate at points, which are horizontally and vertically spaced apart (c, d), on the sliding sash; characterized in that the installation points are arranged on both sides of the bolt and the bolt is fixedly arranged on the elongated plate, for example, by welding points or another type of installation. - the carriage has a horizontal receptacle or support surface, which extends essentially perpendicularly to the plane of the sliding sash in the installed state; - a bolt engages in an opening of the receptacle or support surface to form a fixed but detachable connection and is connectable via an elongated plate (23; 23a, 23b) of the carriage fitting to the sliding sash, so that the connection is achieved in the region above the horizontal spar of the sliding sash; - at least two installation points (24a, 24b; 25a, 25b), which are spaced apart (c) in the horizontal direction, are provided on the elongated plate; wherein the installation points are provided to enable screw connections to the sliding sash and pairs of installation points (24a, 24b; 25a, 25b) are provided to install the elongated plate at points, which are horizontally and vertically spaced apart (c, d), on the sliding sash;
A composition comprising a fusion protein comprising at least two cytokines, wherein the cytokines are XCL1 and IFNα2, and wherein IFNα2 comprises a mutation that strongly reduces binding activity to its receptor, and at least one cytokine is a wild type cytokine which provides cell-specific targeting that restores activity of IFNα2 on the targeted cells. wherein the cytokines are XCL1 and IFNα2, and wherein IFNα2 comprises a mutation that strongly reduces binding activity to its receptor, and at least one cytokine is a wild type cytokine which provides cell-specific targeting that restores activity of IFNα2 on the targeted cells.
An optical apparatus, comprising: a display; one or more optical devices configured to collimate at least a portion of divergent light from each pixel on the display into a collimated light beam and configured to output a plurality of diverging light beams; a light expander comprising an entrance face, an end face, an upper face, a lower face and first and second side faces (35, 36), wherein the upper face, lower face and first and second side faces (35, 36) extend between the entrance face and the end face and wherein the lower face and the upper face diverge from one another, in a first dimension, as they extend from the entrance face towards the end face; the light expander configured to expand light, input into the light expander through the entrance face from the one or more optical devices, in the first dimension, and configured to provide diverging light that diverges in the first dimension; a grooved reflector comprising a plurality of reflective surfaces configured to redirect the diverging light, received from the light expander, to produce converging light that converges in the first dimension; and a further light expander, configured to expand the light, converging in the first dimension and received from the grooved reflector, in a second dimension substantially orthogonal to the first dimension, wherein the further light expander is configured to provide an exit pupil for the apparatus and comprises an in-coupling portion configured to receive the converging light from the grooved reflector, and an out-coupling portion configured to output light to a user. a display; one or more optical devices configured to collimate at least a portion of divergent light from each pixel on the display into a collimated light beam and configured to output a plurality of diverging light beams; a light expander comprising an entrance face, an end face, an upper face, a lower face and first and second side faces (35, 36), wherein the upper face, lower face and first and second side faces (35, 36) extend between the entrance face and the end face and wherein the lower face and the upper face diverge from one another, in a first dimension, as they extend from the entrance face towards the end face; the light expander configured to expand light, input into the light expander through the entrance face from the one or more optical devices, in the first dimension, and configured to provide diverging light that diverges in the first dimension; a grooved reflector comprising a plurality of reflective surfaces configured to redirect the diverging light, received from the light expander, to produce converging light that converges in the first dimension; and a further light expander, configured to expand the light, converging in the first dimension and received from the grooved reflector, in a second dimension substantially orthogonal to the first dimension, wherein the further light expander is configured to provide an exit pupil for the apparatus and comprises an in-coupling portion configured to receive the converging light from the grooved reflector, and an out-coupling portion configured to output light to a user.