mhurhangee/ep-ind-claims huggingface dataset:
Composition comprising or consisting of Cetyl nonanoate and/or stearyl nonanoate, and one or several fragrance(s), preferably a fragrance mixture comprising 2, 3, 4, 5, 6, 7, 8, 9, 10 or more fragrances, wherein component is contained in an amount that fixes the fragrance or several or all of the fragrances of component, wherein preferably the mass ratio of component to the total mass of component is in the range of 1: 20 to 200: 1, preferably in the range of 1: 12 to 100: 1, further preferably in the range of 1: 6 to 50: 1, particularly preferably in the range of 1: 5 to 33: 1, and particularly preferably in the range of 1: 2 to 25: 1, subject to the proviso that the composition is not a gland secretion of Trichio-campus grandis consisting of 7% hexadecyl pentanoate, 2% octyl octanoate, 1% hexadecyl nonanoate, 1% octyl decanoate, 3% hexyl hexadecanoate, 24% 2-hexenyl hexadecanoate, 14% 2-octenyl hexadecanoate, 4% methyl icosenoate, 3% methyl docosanoate, 13% methyl docosenoate, 2% methyl tetracosanoate, 2% methyl tetracosenoate, 1% hexadecanal, 2% tetracosanal, 11% of an acetogenin, 5% impurity, as well as traces of pentacosane, heptacosane, nonacosane, methyl hexadecanoate, isopropyl hexadecanoate, hexenyl hexadecanoate, heptenyl hexadecanoate, methyl octadecanoate, methyl octadecenoate, isopropyl octadecanoate, -3-octenal and octadecanal. Cetyl nonanoate and/or stearyl nonanoate, and one or several fragrance(s), preferably a fragrance mixture comprising 2, 3, 4, 5, 6, 7, 8, 9, 10 or more fragrances, wherein component is contained in an amount that fixes the fragrance or several or all of the fragrances of component, wherein preferably the mass ratio of component to the total mass of component is in the range of 1: 20 to 200: 1, preferably in the range of 1: 12 to 100: 1, further preferably in the range of 1: 6 to 50: 1, particularly preferably in the range of 1: 5 to 33: 1, and particularly preferably in the range of 1: 2 to 25: 1, subject to the proviso that the composition is not a gland secretion of Trichio-campus grandis consisting of 7% hexadecyl pentanoate, 2% octyl octanoate, 1% hexadecyl nonanoate, 1% octyl decanoate, 3% hexyl hexadecanoate, 24% 2-hexenyl hexadecanoate, 14% 2-octenyl hexadecanoate, 4% methyl icosenoate, 3% methyl docosanoate, 13% methyl docosenoate, 2% methyl tetracosanoate, 2% methyl tetracosenoate, 1% hexadecanal, 2% tetracosanal, 11% of an acetogenin, 5% impurity, as well as traces of pentacosane, heptacosane, nonacosane, methyl hexadecanoate, isopropyl hexadecanoate, hexenyl hexadecanoate, heptenyl hexadecanoate, methyl octadecanoate, methyl octadecenoate, isopropyl octadecanoate, -3-octenal and octadecanal.
A rolling bearing retainer configured to retain a rolling element of a rolling bearing, characterized in that the retainer is a metal corrugate retainer comprising pockets, each of which retains a ball served as the rolling element, formed at positions in a circumferential direction, and in the retainer, ring members forming a pair are joined at a connection portion located between the pockets, the retainer having a single-layer resin coating film formed on at least an inner surface of each of the pockets served as a rolling element guide surface, wherein the resin coating film is a coating film formed by applying a coating material of a resin composition including an aromatic polyether ketone based resin as a matrix resin and including a solid lubricant, wherein the resin coating film is formed only on a curve portion of the ring members and not formed on the connection portion, wherein a film thickness of the resin coating film is set in a range between 20 μm and 50 μm. the retainer is a metal corrugate retainer comprising pockets, each of which retains a ball served as the rolling element, formed at positions in a circumferential direction, and in the retainer, ring members forming a pair are joined at a connection portion located between the pockets, the retainer having a single-layer resin coating film formed on at least an inner surface of each of the pockets served as a rolling element guide surface, wherein the resin coating film is a coating film formed by applying a coating material of a resin composition including an aromatic polyether ketone based resin as a matrix resin and including a solid lubricant, wherein the resin coating film is formed only on a curve portion of the ring members and not formed on the connection portion, wherein a film thickness of the resin coating film is set in a range between 20 μm and 50 μm.
A medical occlusive device, comprising: a device frame comprising a plurality of elongate frame members, each of the elongate frame members including a first end and a second end; a first hub member that aggregates the first ends of the plurality of elongate frame members, and a second hub member that aggregates the second ends of the plurality of elongate frame members, wherein one of either of the first or second hub members is disposed concentrically within the other of the first or second hub member; wherein the device frame includes a face section, a laterally facing skirt section, and an inverted section, and wherein first portions of the elongate frame members define the face section and extend radially from the first hub member, second portions of the elongate frame members define the laterally facing skirt section and extend in a distal, axial, and helical direction along a first rotational direction from the face section, and third portions of the elongate frame members define the inverted section and extend in a proximal direction from a distal portion of the laterally facing skirt section to the second hub member along a rotational direction opposite the first rotational direction; and a covering component attached to the face section and to the laterally facing skirt section. a device frame comprising a plurality of elongate frame members, each of the elongate frame members including a first end and a second end; a first hub member that aggregates the first ends of the plurality of elongate frame members, and a second hub member that aggregates the second ends of the plurality of elongate frame members, wherein one of either of the first or second hub members is disposed concentrically within the other of the first or second hub member; wherein the device frame includes a face section, a laterally facing skirt section, and an inverted section, and wherein first portions of the elongate frame members define the face section and extend radially from the first hub member, second portions of the elongate frame members define the laterally facing skirt section and extend in a distal, axial, and helical direction along a first rotational direction from the face section, and third portions of the elongate frame members define the inverted section and extend in a proximal direction from a distal portion of the laterally facing skirt section to the second hub member along a rotational direction opposite the first rotational direction; and a covering component attached to the face section and to the laterally facing skirt section.
A socket comprising: a base member configured to hold a plurality of contacts; a cover member configured to move in a direction to be close to or separated from the base member; a latch member having a pressing portion located at a first end of the latch member, the pressing portion configured to press on an electronic device mounted on the socket; a first link member, a first end of the first link member connected with the cover member, a second end of the first link member connected with the first end of the latch member; and a first lever member rotatably fixed to the base member, a first end of the first lever member connected with the cover member, a second end of the first lever member connected with a second end of the latch member opposed to the first end of the latch member; wherein the first link member and the first lever member are configured to move the pressing portion of the latch member to an evacuated position when the cover member moves in a direction to be close to the base member, and the first link member and the first lever member are configured to move the pressing portion of the latch member to a position where the electronic device is pressed when the cover member moves in a direction to be separated from the base member. a base member configured to hold a plurality of contacts; a cover member configured to move in a direction to be close to or separated from the base member; a latch member having a pressing portion located at a first end of the latch member, the pressing portion configured to press on an electronic device mounted on the socket; a first link member, a first end of the first link member connected with the cover member, a second end of the first link member connected with the first end of the latch member; and a first lever member rotatably fixed to the base member, a first end of the first lever member connected with the cover member, a second end of the first lever member connected with a second end of the latch member opposed to the first end of the latch member; wherein the first link member and the first lever member are configured to move the pressing portion of the latch member to an evacuated position when the cover member moves in a direction to be close to the base member, and the first link member and the first lever member are configured to move the pressing portion of the latch member to a position where the electronic device is pressed when the cover member moves in a direction to be separated from the base member.
Process for the electroporation of cells, wherein the cells comprise sugar beet cells, wherein the electroporation is done in a reactor system, comprising: • a reactor chamber having a length and a width, whereby the reactor chamber contains a central section along its length, and whereby the length of the reactor chamber is at least 1.5 times the width of the reactor chamber; • a first pulse generator to which two electrodes A1 and A2 are connected, whereby the electrodes A1 and A2 are located in the reactor chamber in the central section and such that they are, when measured in the length direction, at least a distance equalling half the width of the reactor chamber apart; • a second pulse generator to which two electrodes B1 and B2 are connected, whereby the electrodes B1 and B2 are located in the reactor chamber in the central section and such that they are, when measured in the length direction, at least a distance equalling half the width of the reactor chamber apart, • whereby the electrodes are shaped and placed such that the electrical field in at least the central section is substantially homogeneous, whereby the field lines run in essentially the length direction and whereby the field strength in the central section lies between 0.1 and 20 kV/cm. • a reactor chamber having a length and a width, whereby the reactor chamber contains a central section along its length, and whereby the length of the reactor chamber is at least 1.5 times the width of the reactor chamber; • a first pulse generator to which two electrodes A1 and A2 are connected, whereby the electrodes A1 and A2 are located in the reactor chamber in the central section and such that they are, when measured in the length direction, at least a distance equalling half the width of the reactor chamber apart; • a second pulse generator to which two electrodes B1 and B2 are connected, whereby the electrodes B1 and B2 are located in the reactor chamber in the central section and such that they are, when measured in the length direction, at least a distance equalling half the width of the reactor chamber apart, • whereby the electrodes are shaped and placed such that the electrical field in at least the central section is substantially homogeneous, whereby the field lines run in essentially the length direction and whereby the field strength in the central section lies between 0.1 and 20 kV/cm.
An optical arrangement in a projection exposure apparatus for EUV lithography, comprising: • a multiplicity of optical elements (101, 102); and • a carrier structure (100, 300) which carries the optical elements (101, 102) and which is composed of at least two releasably interconnected modules (110-140, 310-340, 510, 610); • wherein each module (110-140, 310-340, 510, 610) is composed of at least one carrier structure subelement (121-124, 421, 511-514, 612-614); • wherein a subhousing is produced by a multiplicity of carrier structure subelements (121-124, 421, 511-514, 612-614) and/or modules (110-140, 310, 340, 510, 610); • wherein said subhousing has a geometry that varies, at least in regions, in correspondence to a usable beam path in said projection exposure apparatus, said usable beam path being defined as an envelope of all light bundles which can propagate from all field points in a field plane to an image plane of the projection exposure apparatus; • wherein at least one of the modules (110-140, 310-340, 510, 610) is composed of at least two carrier structure subelements (121-124, 421, 511-514, 612-614); and • wherein at least two carrier structure subelements (612, 613, 614) are fluid-tightly sealed off relative to each other by way of at least one sealing element. • a multiplicity of optical elements (101, 102); and • a carrier structure (100, 300) which carries the optical elements (101, 102) and which is composed of at least two releasably interconnected modules (110-140, 310-340, 510, 610); • wherein each module (110-140, 310-340, 510, 610) is composed of at least one carrier structure subelement (121-124, 421, 511-514, 612-614); • wherein a subhousing is produced by a multiplicity of carrier structure subelements (121-124, 421, 511-514, 612-614) and/or modules (110-140, 310, 340, 510, 610); • wherein said subhousing has a geometry that varies, at least in regions, in correspondence to a usable beam path in said projection exposure apparatus, said usable beam path being defined as an envelope of all light bundles which can propagate from all field points in a field plane to an image plane of the projection exposure apparatus; • wherein at least one of the modules (110-140, 310-340, 510, 610) is composed of at least two carrier structure subelements (121-124, 421, 511-514, 612-614); and • wherein at least two carrier structure subelements (612, 613, 614) are fluid-tightly sealed off relative to each other by way of at least one sealing element.
A compliance monitor for monitoring patient usage of a medicament delivery device, said medicament delivery device including a store of medicament and a medicament dispensing means, and said compliance monitor including: a) a housing adapted to enclose said medicament delivery device, b) a dose counter, associated with said housing, for recording the delivery of a dose of medicament to the patient from the medicament delivery device, characterised by the arrangement and construction being such that said housing is configured for being loosely coupled to said medicament delivery device, whereby said housing is able to move relative to said store of medicament and said medicament dispensing means of said medicament delivery device during the delivery of the dose of medicament, and it is this movement which actuates the dose counter, either directly or indirectly, in order to record the delivery of said dose of medicament. a) a housing adapted to enclose said medicament delivery device, b) a dose counter, associated with said housing, for recording the delivery of a dose of medicament to the patient from the medicament delivery device, characterised by the arrangement and construction being such that said housing is configured for being loosely coupled to said medicament delivery device, whereby said housing is able to move relative to said store of medicament and said medicament dispensing means of said medicament delivery device during the delivery of the dose of medicament, and it is this movement which actuates the dose counter, either directly or indirectly, in order to record the delivery of said dose of medicament.
A structured liquid composition comprising: (a) anionic surfactant at a level of from 10 % up to 25 % by weight of said composition, said anionic surfactant comprising linear alkylbenzene sulphonate and fatty alcohol ether sulfate; (b) nonionic surfactant at a level of from 5 % up to 15 % by weight of said composition, (c) a structurant at a level of from 0.1 % to 2 % by weight of said composition, said structurant comprising a cross-linked acrylic copolymer; (d) a plurality of encapsulated actives at a level of from 0.05 % up to 0.22 % by weight of said composition, wherein the encapsulated actives have an d 90 value of below 20 μm. (a) anionic surfactant at a level of from 10 % up to 25 % by weight of said composition, said anionic surfactant comprising linear alkylbenzene sulphonate and fatty alcohol ether sulfate; (b) nonionic surfactant at a level of from 5 % up to 15 % by weight of said composition, (c) a structurant at a level of from 0.1 % to 2 % by weight of said composition, said structurant comprising a cross-linked acrylic copolymer; (d) a plurality of encapsulated actives at a level of from 0.05 % up to 0.22 % by weight of said composition, wherein the encapsulated actives have an d 90 value of below 20 μm.
A method of preparing an orthodontic bracket having a bracket bonding pad and a bracket body with a bracket slot, comprising the steps of: - providing a precursor of an orthodontic bracket into a machine for modifying the shape of the orthodontic bracket precursor, wherein the orthodontic bracket precursor has an alignment structure of a pre-determined geometry, wherein the alignment structure and the bracket slot are spatially arranged relative to each other at a pre-determined distance and orientation; - aligning the orthodontic bracket precursor based on the alignment structure; - embedding the orthodontic bracket precursor at least partially in a liquid; - causing the liquid to solidify and thereby retaining the orthodontic bracket precursor in position; and - changing the shape of the orthodontic bracket precursor retained in the solidified liquid. - providing a precursor of an orthodontic bracket into a machine for modifying the shape of the orthodontic bracket precursor, wherein the orthodontic bracket precursor has an alignment structure of a pre-determined geometry, wherein the alignment structure and the bracket slot are spatially arranged relative to each other at a pre-determined distance and orientation; - aligning the orthodontic bracket precursor based on the alignment structure; - embedding the orthodontic bracket precursor at least partially in a liquid; - causing the liquid to solidify and thereby retaining the orthodontic bracket precursor in position; and - changing the shape of the orthodontic bracket precursor retained in the solidified liquid.
Display element, in particular for vehicles, comprising: - a decorative element; and - a multi-component plastic element, wherein the multi-component plastic element is connected to the decorative element, wherein the multi-component plastic element has a first plastic component and a second plastic component, wherein the second plastic component is present in the form of injection-moulded symbols and is enclosed by the first, injection-moulded plastic component, characterized in that the first plastic component and the second plastic component are exposed on an upper side of the display element, wherein the first plastic component and the second plastic component are of different colours, and wherein the second plastic component is black and the first plastic component is white or the first plastic component is black and the second plastic component is white. - a decorative element; and - a multi-component plastic element, wherein the multi-component plastic element is connected to the decorative element, wherein
A method of providing connectivity among a plurality of nodes comprising: causing a tunable wavelength optical transmitter at a first node to transmit over a first fiber an optical signal at a first wavelength channel, wherein the first fiber is coupled to an input port of a plurality of input ports of a first arrayed waveguide grating, wherein the signal is routed to a first output port of a plurality of output ports of the first AWG based on the first wavelength channel and is transmitted over a second fiber to a second node; and causing a tunable wavelength optical transmitter at the second node to transmit over a third fiber the optical signal at a second wavelength channel, wherein the third fiber is coupled an input port of a plurality of input ports of a second AWG, wherein the signal is routed to a first output port of a plurality of output ports of the second AWG based on the second wavelength channel and is transmitted over a fourth fiber to a third node; and determining an entity associated with the first, second, and third nodes; permitting the signal to be transmitted at the first wavelength channel from the first node to be routed to the second node by the first AWG only if the entity associated with the first node and the entity associated with second node is the same; and permitting the signal to be transmitted at the second wavelength channel from the second node to be routed to the third node by the second AWG only if the entity associated with the second node and the entity associated with the third node is the same. causing a tunable wavelength optical transmitter at a first node to transmit over a first fiber an optical signal at a first wavelength channel, wherein the first fiber is coupled to an input port of a plurality of input ports of a first arrayed waveguide grating, wherein the signal is routed to a first output port of a plurality of output ports of the first AWG based on the first wavelength channel and is transmitted over a second fiber to a second node; and causing a tunable wavelength optical transmitter at the second node to transmit over a third fiber the optical signal at a second wavelength channel, wherein the third fiber is coupled an input port of a plurality of input ports of a second AWG, wherein the signal is routed to a first output port of a plurality of output ports of the second AWG based on the second wavelength channel and is transmitted over a fourth fiber to a third node; and determining an entity associated with the first, second, and third nodes; permitting the signal to be transmitted at the first wavelength channel from the first node to be routed to the second node by the first AWG only if the entity associated with the first node and the entity associated with second node is the same; and permitting the signal to be transmitted at the second wavelength channel from the second node to be routed to the third node by the second AWG only if the entity associated with the second node and the entity associated with the third node is the same.
A strength member comprising, by mass %, 0.5 to 0.7 % of C, 1.0 to 2.0 % of Si, 0.1 to 1.0 % of Mn, 0.1 to 1.0 % of Cr, 0.035 % or less of P, 0.035 % or less of S, and the balance of Fe and inevitable impurities, wherein an area ratio of bainite is 65 % or more, and an average dislocation density of a freely selected cross section is 2.0 × 10 16 m -2 or less, a residual shearing strain is 6.7 × 10 -4 or less, and an area ratio of retained austenite is 6.5 % or less, wherein Vickers hardness at the center of a freely selected cross section of a product is 450 to 650 HV.
A method for producing nanometer sized materials comprising exposing a target to a laser source to remove material from the target and deposit the removed material onto a surface of a substrate to grow a thin film in a vacuum chamber at a pressure of between 10 mTorr and 500 mTorr, wherein the thin film includes nanowalls.