mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a cabinet that defines a storage space; a door that is mounted to the cabinet and that is configured to open and close the storage space; a mounting part that is located on an inner surface of the door ; and baskets that are each detachably mounted to the mounting part and that each comprise: a basket body that defines an accommodation space that is configured to receive food and that includes a recessed part on a bottom surface of the basket body ; and a frame that is located in the recessed part, that is configured to support the basket body , and that is detachably mounted to the mounting part , characterized in that the frame includes a frame body that is accommodated in one side of the basket body , wherein the mounting part comprises: side surfaces that are each located on a corresponding inner surface of a door dike that protrudes from edges of the door; and a rear surface formed to cross an inner surface of the door and that is configured to connect the side surfaces , wherein the side surfaces extend in parallel to a bottom surface of the basket when the basket is mounted to the mounting part , and wherein the basket further comprises a support rib that protrudes from a rear surface of the basket and that is configured to engage the rear surface of the mounting part . a cabinet that defines a storage space; a door that is mounted to the cabinet and that is configured to open and close the storage space; a mounting part that is located on an inner surface of the door ; and baskets that are each detachably mounted to the mounting part and that each comprise: a basket body that defines an accommodation space that is configured to receive food and that includes a recessed part on a bottom surface of the basket body ; and a frame that is located in the recessed part, that is configured to support the basket body , and that is detachably mounted to the mounting part , a basket body that defines an accommodation space that is configured to receive food and that includes a recessed part on a bottom surface of the basket body ; and a frame that is located in the recessed part, that is configured to support the basket body , and that is detachably mounted to the mounting part , characterized in that the frame includes a frame body that is accommodated in one side of the basket body , wherein the mounting part comprises: side surfaces that are each located on a corresponding inner surface of a door dike that protrudes from edges of the door; and a rear surface formed to cross an inner surface of the door and that is configured to connect the side surfaces , side surfaces that are each located on a corresponding inner surface of a door dike that protrudes from edges of the door; and a rear surface formed to cross an inner surface of the door and that is configured to connect the side surfaces , wherein the side surfaces extend in parallel to a bottom surface of the basket when the basket is mounted to the mounting part , and wherein the basket further comprises a support rib that protrudes from a rear surface of the basket and that is configured to engage the rear surface of the mounting part .
Compounds of formula (I) wherein R 1 ' is methyl; R 1 is selected from the group consisting of i) methyl, ii) ethyl, iii) trifluoromethyl iv) hydroxymethyl, v) cyclopropyl, and vi) cyano; or R 1 ' and R 1 together with the carbon atom to which they are attached form 1,1-dioxo-tetrahydro-thiophen-3-yl; R 2 is selected from the group consisting of i) hydrogen, ii) methyl, iii) ethyl, iv) isopropyl, v) tert-butyl, vi) cyclopropyl, vii) cyclopropylmethyl, and viii) hydroxymethyl; R 3 is selected from the group consisting of i) hydrogen, ii) chloro, iii) fluoro, iv) methyl v) isopropyl, vi) methoxy, vii) cyano, viii) cyclopropyl, and ix) trifluoromethyl; R 4 is selected from the group consisting of i) hydrogen, ii) chloro, iii) fluoro, and iv) methyl; or pharmaceutically acceptable salts. R 1 ' is methyl; R 1 is selected from the group consisting of i) methyl, ii) ethyl, iii) trifluoromethyl iv) hydroxymethyl, v) cyclopropyl, and vi) cyano; i) methyl, ii) ethyl, iii) trifluoromethyl iv) hydroxymethyl, v) cyclopropyl, and vi) cyano; or R 1 ' and R 1 together with the carbon atom to which they are attached form 1,1-dioxo-tetrahydro-thiophen-3-yl; R 2 is selected from the group consisting of i) hydrogen, ii) methyl, iii) ethyl, iv) isopropyl, v) tert-butyl, vi) cyclopropyl, vii) cyclopropylmethyl, and viii) hydroxymethyl; i) hydrogen, ii) methyl, iii) ethyl, iv) isopropyl, v) tert-butyl, vi) cyclopropyl, vii) cyclopropylmethyl, and viii) hydroxymethyl; R 3 is selected from the group consisting of i) hydrogen, ii) chloro, iii) fluoro, iv) methyl v) isopropyl, vi) methoxy, vii) cyano, viii) cyclopropyl, and ix) trifluoromethyl; i) hydrogen, ii) chloro, iii) fluoro, iv) methyl v) isopropyl, vi) methoxy, vii) cyano, viii) cyclopropyl, and ix) trifluoromethyl; R 4 is selected from the group consisting of i) hydrogen, ii) chloro, iii) fluoro, and iv) methyl; or pharmaceutically acceptable salts. i) hydrogen, ii) chloro, iii) fluoro, and iv) methyl;
A wide-angle traffic surveillance illuminator system in which a mono-directional micro-diffractive material is mounted in front of a light-emitting manifold , in which the mono-directional micro-diffractive material causes rays of light to diverge horizontally and enables the rays of light to pass through without vertical divergence.
An aircraft landing gear assembly comprising: a shock absorbing strut comprising: an outer cylinder ; and a sliding tube slidably coupled within the outer cylinder and arranged to move relative to the outer cylinder along a shock absorber travel axis (A) between a first position in which the shock absorbing strut is in an extended condition and a second position in which the shock absorbing strut is in a compressed condition; a bogie beam pivotally coupled to a first one of the outer cylinder and the sliding tube via a bogie pivot pin ; and a set of torque links arranged to inhibit rotation of the sliding tube relative to the outer cylinder about the shock absorber travel axis, the torque links comprising: a first torque link ; and a second torque link movably coupled to the first torque link, wherein the first torque link is movably coupled to a second one of the outer cylinder and the sliding tube, which is distinct from the first one of the outer cylinder and the sliding tube; characterised in that the second torque link is pivotally coupled to the bogie pivot pin to pivot about the bogie pivot pin. a shock absorbing strut comprising: an outer cylinder ; and a sliding tube slidably coupled within the outer cylinder and arranged to move relative to the outer cylinder along a shock absorber travel axis (A) between a first position in which the shock absorbing strut is in an extended condition and a second position in which the shock absorbing strut is in a compressed condition; an outer cylinder ; and a sliding tube slidably coupled within the outer cylinder and arranged to move relative to the outer cylinder along a shock absorber travel axis (A) between a first position in which the shock absorbing strut is in an extended condition and a second position in which the shock absorbing strut is in a compressed condition; a bogie beam pivotally coupled to a first one of the outer cylinder and the sliding tube via a bogie pivot pin ; and a set of torque links arranged to inhibit rotation of the sliding tube relative to the outer cylinder about the shock absorber travel axis, the torque links comprising: a first torque link ; and a second torque link movably coupled to the first torque link, a first torque link ; and a second torque link movably coupled to the first torque link, wherein the first torque link is movably coupled to a second one of the outer cylinder and the sliding tube, which is distinct from the first one of the outer cylinder and the sliding tube; characterised in that the second torque link is pivotally coupled to the bogie pivot pin to pivot about the bogie pivot pin.
A dispersion device, comprising: a dispersion plate having an inclined surface extending downwards obliquely from a center of the dispersion plate and having raw material inflow nozzles extending through the inclined surface , the raw material inflow nozzles being configured to introduce a raw material (F) onto the inclined surface , wherein the raw material inflow nozzles include 2 to 6 raw material inflow nozzles arranged at intervals of 60 to 180 degrees about a circumferential direction of the inclined surface ; and a band spaced apart from the inclined surface of the dispersion plate so as to form a gap (G) between the band and the inclined surface , the band being configured so that the raw material (F) flows through the gap (G) when introduced onto the inclined surface . wherein the inclined surface has a semi-conical shape, and the band has a dam shape extending upwards relative to the inclined surface and extends in a ring shape in a circumferential direction of the inclined surface , wherein, for spacing apart the band from the inclined surface , the band is fixed to the inclined surface using a connecting member or a supporting member, and wherein the gap (G) between the inclined surface and the band has a height of 1 to 5 mm. a dispersion plate having an inclined surface extending downwards obliquely from a center of the dispersion plate and having raw material inflow nozzles extending through the inclined surface , the raw material inflow nozzles being configured to introduce a raw material (F) onto the inclined surface , wherein the raw material inflow nozzles include 2 to 6 raw material inflow nozzles arranged at intervals of 60 to 180 degrees about a circumferential direction of the inclined surface ; and a band spaced apart from the inclined surface of the dispersion plate so as to form a gap (G) between the band and the inclined surface , the band being configured so that the raw material (F) flows through the gap (G) when introduced onto the inclined surface . wherein the inclined surface has a semi-conical shape, and the band has a dam shape extending upwards relative to the inclined surface and extends in a ring shape in a circumferential direction of the inclined surface , wherein, for spacing apart the band from the inclined surface , the band is fixed to the inclined surface using a connecting member or a supporting member, and wherein the gap (G) between the inclined surface and the band has a height of 1 to 5 mm.
A process for manufacturing fiberboards with reduced VOC emissions, wherein the process includes at least the following process steps: a) providing wood-containing wood chips; b) thermally treating the wood chips in a thermal treatment device or in a plurality of thermal treatment devices; c) shredding the wood chips in a refiner; d) gluing the wood chips shredded in step c); and e) pressing the glued wood chips to form the fiberboard, wherein f) vapor used or arising in the process is separated continuously from the process at at least one vapor emission location in a controlled manner, wherein the vapor is separated in a predetermined quantity range such that a lower limit and an upper limit of the quantity range of the total separated vapor depend on at least one specification of the wood chips used in process step a), wherein a lower limit and an upper limit of the quantity range of the separated vapor depend on the quantity of wood chips provided in process step a), or that a lower limit and an upper limit of the quantity range of the separated vapor depend on the quantity of VOCs, especially terpenes, contained in the wood chips provided in process step a). a) providing wood-containing wood chips; b) thermally treating the wood chips in a thermal treatment device or in a plurality of thermal treatment devices; c) shredding the wood chips in a refiner; d) gluing the wood chips shredded in step c); and e) pressing the glued wood chips to form the fiberboard, wherein f) vapor used or arising in the process is separated continuously from the process at at least one vapor emission location in a controlled manner, wherein the vapor is separated in a predetermined quantity range such that a lower limit and an upper limit of the quantity range of the total separated vapor depend on at least one specification of the wood chips used in process step a), wherein a lower limit and an upper limit of the quantity range of the separated vapor depend on the quantity of wood chips provided in process step a), or that a lower limit and an upper limit of the quantity range of the separated vapor depend on the quantity of VOCs, especially terpenes, contained in the wood chips provided in process step a).
A crystalline form of compound (I), wherein the crystalline form displays a reflection, stated as a 20 value, at 17.8 ± 0.2°, in an X-ray powder diffraction pattern, wherein the reflection at 17.8 ± 0.2° is one of the four strongest reflections in the X-ray powder diffraction pattern.
A preform for making a composite structure comprising: an annular fibrous layer having a first surface , an inner diameter , an outer diameter , a radius and an axis , characterized in that the annular fibrous layer comprises a predetermined areal weight profile, a predetermined fiber volume profile, and a predetermined fiber density profile, at least one of which is non-uniform, the fibrous layer comprising a fiber , wherein at least one of a thickness, a density, a composition, or a cross sectional shape of the fiber varies along a length of the fiber, and wherein the annular fibrous layer is formed by Fused Deposition Modeling.
A ferritic stainless steel foil comprising a composition consisting of, by mass, C: 0.050% or less, Si: 2.00% or less, Mn: 0.50% or less, S: 0.010% or less, P: 0.050% or less, Cr: 15.0% or more and 30.0% or less, Al: 2.5% or more and 6.5% or less, N: 0.050% or less, one or more elements selected from Ti: 0.01% or more and 0.50% or less, Nb: 0.01% or more and 0.20% or less, V: 0.01% or more and 0.20% or less, Zr: 0.005% or more and 0.200% or less, and Hf: 0.005% or more and 0.200% or less, optionally one or more elements selected from Ni: 0.01% or more and 0.50% or less, Cu: 0.01% or more and 1.00% or less, Mo: 0.01% or more and 4.00% or less, and W: 0.01% or more and 4.00% or less, the total content of the one or more elements being 6.0% or less, and further optionally one or more elements selected from Ca: 0.0005% or more and 0.0200% or less, Mg: 0.0002% or more and 0.0200% or less, and REM: 0.010% or more and 0.200% or less, and the balance being Fe and inevitable impurities, a proportion of a crystal grain on the surface of the foil being 60% by area or more, and thickness of an oxide layer formed on the surface of the foil being 0.1 μm or less, the crystal grain being a crystal grain such that the difference between the plane of the crystal grain and a direction perpendicular to the surface of the foil is within ±15°.
A digital circuit comprising: combinational logic receiving first digital bits representing an input mantissa of an input value and second digital bits representing an input exponent of the input value, the combinational logic generating a plurality of output mantissas and plurality of output exponents corresponding to an approximate value of a power of two raised to a power of the input value when the input value is positive and negative and when the input exponent is above and below a first value; and two or more selection circuits configured to receive the plurality of output mantissas and the plurality of output exponents , the selection circuits comprising selection control inputs coupled to the input exponent and an input sign bit of the input value to select one of the plurality of output mantissas and one of the plurality of output exponents. combinational logic receiving first digital bits representing an input mantissa of an input value and second digital bits representing an input exponent of the input value, the combinational logic generating a plurality of output mantissas and plurality of output exponents corresponding to an approximate value of a power of two raised to a power of the input value when the input value is positive and negative and when the input exponent is above and below a first value; and two or more selection circuits configured to receive the plurality of output mantissas and the plurality of output exponents , the selection circuits comprising selection control inputs coupled to the input exponent and an input sign bit of the input value to select one of the plurality of output mantissas and one of the plurality of output exponents.
An antibody that binds selectively to MUC1-C extracellular domain (MUC1-C/ECD) defined by SEQ ID NO:1, wherein said antibody comprises a variable heavy chain comprising CDR1, CDR2 and CDR3 regions having the sequences of SEQ ID NOS: 76, 77 and 78, respectively, and a variable light chain comprising CDR1, CDR2 and CDR3 regions having the sequences of SEQ ID NOS: 79, 80 and 81, respectively, and wherein said antibody: (a) is an IgG antibody; (b) inhibits cancer cell growth; and/or (c) induces cancer cell death, or induces cancer cell death comprising antibody-dependent cell cytotoxicity or complement-mediated cytoxocity. (a) is an IgG antibody; (b) inhibits cancer cell growth; and/or (c) induces cancer cell death, or induces cancer cell death comprising antibody-dependent cell cytotoxicity or complement-mediated cytoxocity.
A vehicle comprising: a body ; and a suspension member that is attached to a lower portion of the body , at a vehicle-front side, the suspension member including a pair of side rails extending in a front-rear direction of the vehicle, a front cross member disposed between the side rails , and extending in a vehicle-width direction, and a pair of connecting members that connects the front cross member and the side rails , characterized in that each of the connecting members includes an upper plate that is joined to an upper face of the side rail and that projects from the side rail inward in the vehicle-width direction, a lower plate that is joined to a lower face of the side rail and that projects from the side rail inward in the vehicle-width direction, and a side plate that connects the upper plate and the lower plate that project from the side rail , wherein the lower plate and an upper face of the front cross member are joined together. a body ; and a suspension member that is attached to a lower portion of the body , at a vehicle-front side, the suspension member including a pair of side rails extending in a front-rear direction of the vehicle, a front cross member disposed between the side rails , and extending in a vehicle-width direction, and a pair of connecting members that connects the front cross member and the side rails , characterized in that each of the connecting members includes an upper plate that is joined to an upper face of the side rail and that projects from the side rail inward in the vehicle-width direction, a lower plate that is joined to a lower face of the side rail and that projects from the side rail inward in the vehicle-width direction, and a side plate that connects the upper plate and the lower plate that project from the side rail , wherein a pair of side rails extending in a front-rear direction of the vehicle, a front cross member disposed between the side rails , and extending in a vehicle-width direction, and a pair of connecting members that connects the front cross member and the side rails , characterized in that each of the connecting members includes an upper plate that is joined to an upper face of the side rail and that projects from the side rail inward in the vehicle-width direction, a lower plate that is joined to a lower face of the side rail and that projects from the side rail inward in the vehicle-width direction, and a side plate that connects the upper plate and the lower plate that project from the side rail , wherein an upper plate that is joined to an upper face of the side rail and that projects from the side rail inward in the vehicle-width direction, a lower plate that is joined to a lower face of the side rail and that projects from the side rail inward in the vehicle-width direction, and a side plate that connects the upper plate and the lower plate that project from the side rail , wherein the lower plate and an upper face of the front cross member are joined together.
Plant complex for steel production comprising a blast furnace for producing pig iron, a converter steel works for producing crude steel, a gas-conducting system for gases that occur in the production of pig iron and/or the production of crude steel, characterized in that the plant complex additionally comprises a chemical plant or biotechnological plant connected to the gas-conducting system and a plant for producing hydrogen, wherein the plant for producing hydrogen is connected to the gas-conducting system by a hydrogen-carrying line , wherein the plant complex additionally comprises a power-generating plant which is designed as a gas-turbine power-generating plant or gas-turbine and steam-turbine power-generating plant and is operated with a gas that comprises at least a partial amount of the blast-furnace top gas that occurs in the production of pig iron in the blast furnace and/or a partial amount of the converter gas that occurs in the converter steel works, and in that the gas-conducting system has a switchable gas diverter for dividing the streams of gas that are fed to the power-generating plant and the chemical plant or biotechnological plant. a blast furnace for producing pig iron, a converter steel works for producing crude steel, a gas-conducting system for gases that occur in the production of pig iron and/or the production of crude steel,
A molding method comprising: a discharging step (S11) of discharging a resin material on a cured resin layer ; a flattening step (S13) of transferring a part of the resin material discharged by the discharging step (S11) from the cured resin layer to a roller to flatten the resin material ; and a curing step (S15) of irradiating the resin material flattened by the flattening step (S13) with light having a predetermined light amount to cure the resin material , and forming a new cured resin layer on the cured resin layer , wherein the discharging step (S11), the flattening step (S13), and the curing step (S15) are repeatedly executed, and the cured resin layer is laminated, and characterized in that the light amount is used in which a first contact angle (θ1) of the resin material with respect to the cured resin layer is larger than a second contact angle (θ2) of the resin material with respect to the roller . a discharging step (S11) of discharging a resin material on a cured resin layer ; a flattening step (S13) of transferring a part of the resin material discharged by the discharging step (S11) from the cured resin layer to a roller to flatten the resin material ; and a curing step (S15) of irradiating the resin material flattened by the flattening step (S13) with light having a predetermined light amount to cure the resin material , and forming a new cured resin layer on the cured resin layer , wherein the discharging step (S11), the flattening step (S13), and the curing step (S15) are repeatedly executed, and the cured resin layer is laminated, and characterized in that the light amount is used in which a first contact angle (θ1) of the resin material with respect to the cured resin layer is larger than a second contact angle (θ2) of the resin material with respect to the roller .