mhurhangee/patent-ind-claim-en huggingface dataset:
A component of a turbine comprising a cooling channel , the cooling channel further comprising: a first inner surface parallel to a first exterior surface of the component and a tapered transverse sectional profile that is wider at the first inner surface and narrower away from the first inner surface ; a plurality of parallel fins with a transverse height profile that is convex across a width of the inner surface , wherein the fins are oriented with a direction of a coolant flow in the channel , wherein the cooling channel is effective to urge a coolant flow therein toward corners (C) of the cooling channel , a second inner surface parallel to a second exterior surface of the component; first and second interior side surfaces spanning between the first and second inner surfaces ; and characterized by the cooling channel further comprising a turbulator on a corresponding one of the side surfaces to urge the coolant flow toward the inner surfaces . a first inner surface parallel to a first exterior surface of the component and a tapered transverse sectional profile that is wider at the first inner surface and narrower away from the first inner surface ; a plurality of parallel fins with a transverse height profile that is convex across a width of the inner surface , wherein the fins are oriented with a direction of a coolant flow in the channel , wherein the cooling channel is effective to urge a coolant flow therein toward corners (C) of the cooling channel , a second inner surface parallel to a second exterior surface of the component; first and second interior side surfaces spanning between the first and second inner surfaces ; and characterized by the cooling channel further comprising a turbulator on a corresponding one of the side surfaces to urge the coolant flow toward the inner surfaces . a second inner surface parallel to a second exterior surface of the component; first and second interior side surfaces spanning between the first and second inner surfaces ; and characterized by the cooling channel further comprising a turbulator on a corresponding one of the side surfaces to urge the coolant flow toward the inner surfaces .
An electronic chalkboard system comprising: a plurality of display panels ; a pointing device for touching the plurality of display panels; an image processor arranged to process an image drawn on one of the plurality of display panels using the pointing device; and a controller arranged to: control the image processor to display a menu on a first panel of the plurality of display panels, wherein the menu is related to the image, in response to a second panel of the plurality of display panels being touched by the pointing device while the menu is displayed on the first panel, identify a third panel of the plurality of display panels adjacent to the second panel, and control the image processor to move the displayed menu from the first panel to the third panel. a plurality of display panels ; a pointing device for touching the plurality of display panels; an image processor arranged to process an image drawn on one of the plurality of display panels using the pointing device; and a controller arranged to: control the image processor to display a menu on a first panel of the plurality of display panels, wherein the menu is related to the image, in response to a second panel of the plurality of display panels being touched by the pointing device while the menu is displayed on the first panel, identify a third panel of the plurality of display panels adjacent to the second panel, and control the image processor to move the displayed menu from the first panel to the third panel. control the image processor to display a menu on a first panel of the plurality of display panels, wherein the menu is related to the image, in response to a second panel of the plurality of display panels being touched by the pointing device while the menu is displayed on the first panel, identify a third panel of the plurality of display panels adjacent to the second panel, and control the image processor to move the displayed menu from the first panel to the third panel.
A semiconductor device assembly, comprising: a first semiconductor die having a base region and a peripheral region adjacent to the base region; at least one second semiconductor die on the base region, wherein the second die has an outer perimeter; a thermal transfer device attached to the first and second dies, the thermal transfer device including an encapsulant at least partially surrounding the second die, a via formed in the encapsulant that at least partially defines a cavity adjacent to the peripheral region of the first die; and a working fluid at least partially filling the cavity, wherein the working fluid is a thermal conductor, and wherein the encapsulant includes a sidewall portion between the outer perimeter and the cavity; wherein the peripheral region of the first die includes an active surface, and wherein the active surface is in direct contact with the working fluid. a first semiconductor die having a base region and a peripheral region adjacent to the base region; at least one second semiconductor die on the base region, wherein the second die has an outer perimeter; a thermal transfer device attached to the first and second dies, the thermal transfer device including an encapsulant at least partially surrounding the second die, a via formed in the encapsulant that at least partially defines a cavity adjacent to the peripheral region of the first die; and a working fluid at least partially filling the cavity, wherein the working fluid is a thermal conductor, and wherein the encapsulant includes a sidewall portion between the outer perimeter and the cavity; wherein the peripheral region of the first die includes an active surface, and wherein the active surface is in direct contact with the working fluid.
A composition comprising a base fluid, a silicate and an aromatic polyacid according to formula (I) or a salt thereof wherein R 1 , R 2 and R 3 are each independently selected from hydrogen, COOY, SO 2 (OY) or PO(OY) 2 ; wherein Y represents hydrogen or a cation; wherein at least 2 of R 1 , R 2 and R 3 are not hydrogen; wherein X 1 , X 2 and X 3 are each independently selected from hydrogen, hydroxy, an alkyl, an aryl, an alcohol, an aldehyde, a ketone, an ester, an amide or an amine; and wherein the base fluid consists of water, an alcohol or mixtures thereof. wherein R 1 , R 2 and R 3 are each independently selected from hydrogen, COOY, SO 2 (OY) or PO(OY) 2 ; wherein Y represents hydrogen or a cation; wherein at least 2 of R 1 , R 2 and R 3 are not hydrogen; wherein X 1 , X 2 and X 3 are each independently selected from hydrogen, hydroxy, an alkyl, an aryl, an alcohol, an aldehyde, a ketone, an ester, an amide or an amine; and wherein the base fluid consists of water, an alcohol or mixtures thereof.
Radiolabeled mIBG (metaiodobenzylguanidine) for use in an in vivo method of diagnosis of cardiac arrhythmia, wherein said method of diagnosis comprises the use of radiolabeled mIBG in an imaging method of identifying autonomic nervous system ganglia of between 1 and 20 mm in maximal diameter, wherein said imaging method comprises combining SPECT data with anatomical data.
A combination of: • a H3 antagonist or inverse agonist of formula: Where in formula (I): R 1 is H or Methyl, R 2 is Cl or where * represents the position of attachment to the phenyl ring, n is 0 or 1, and • an antidepressant chosen from the noradrenaline reuptake inhibitors chosen from duloxetine, reboxetine, atomoxetine. • a H3 antagonist or inverse agonist of formula: Where in formula (I): R 1 is H or Methyl, R 2 is Cl or where * represents the position of attachment to the phenyl ring, n is 0 or 1, and R 1 is H or Methyl, R 2 is Cl or where * represents the position of attachment to the phenyl ring, n is 0 or 1, and • an antidepressant chosen from the noradrenaline reuptake inhibitors chosen from duloxetine, reboxetine, atomoxetine.
A tracking device comprising: a first emitter-detector arrangement having a first line of sight associated therewith, the first emitter-detector arrangement comprising: a first emitter to emit first electromagnetic radiation along the first line of sight towards a reference plane of rotation of an object ; and a first detector proximate the first emitter to detect at least a first portion of the first electromagnetic radiation reflected from the object ; and a second emitter-detector arrangement having a second line of sight associated therewith, wherein the first line of sight and the second line of sight intersect between the tracking device and the reference plane, the second emitter-detector arrangement comprising: a second emitter to emit second electromagnetic radiation along the second line of sight towards the reference plane; and a second detector proximate the second emitter to detect at least a second portion of the second electromagnetic radiation reflected from the object . a first emitter-detector arrangement having a first line of sight associated therewith, the first emitter-detector arrangement comprising: a first emitter to emit first electromagnetic radiation along the first line of sight towards a reference plane of rotation of an object ; and a first detector proximate the first emitter to detect at least a first portion of the first electromagnetic radiation reflected from the object ; and a first emitter to emit first electromagnetic radiation along the first line of sight towards a reference plane of rotation of an object ; and a first detector proximate the first emitter to detect at least a first portion of the first electromagnetic radiation reflected from the object ; and a second emitter-detector arrangement having a second line of sight associated therewith, wherein the first line of sight and the second line of sight intersect between the tracking device and the reference plane, the second emitter-detector arrangement comprising: a second emitter to emit second electromagnetic radiation along the second line of sight towards the reference plane; and a second detector proximate the second emitter to detect at least a second portion of the second electromagnetic radiation reflected from the object . a second emitter to emit second electromagnetic radiation along the second line of sight towards the reference plane; and a second detector proximate the second emitter to detect at least a second portion of the second electromagnetic radiation reflected from the object .
Bone plate for epiphysiodesis comprising: a first portion and a second portion structured to be fastened to the epiphysis and metaphysis, respectively, of a long bone in a paediatric patient; said first and second portions (4; 6) being joined by a connecting portion structured to straddle the growth plate of said long bone; said first and said second portions being intersected by at least a first and at least a second opening , respectively, structured to receive the same number of fixing screws for fastening to said long bone; said bone plate having a bilobal figure, such as an eight shape; at least one of said first and second openings comprising: a cup-shaped seat for housing the head of said fixing screw in a tiltable manner, said cup-shaped seat having an entry section structured to allow the insertion of said fixing screw head and an exit section of an at least locally smaller size compared to a respective size of said entry section so as to retain said fixing screw head ; characterised in that said at least one of said first and second openings further comprises at least one recess (14', 14", 14"', 14"") which merges into the cup-shaped seat expanding the exit section away from the connecting portion .
A blood coagulation meter system comprising: an optical data acquisition system having an input to receive light that has interacted with a blood sample , which includes at least one of blood, blood constituents, or serum and to acquire data representing scattering of said light by multiple particles in the blood sample; and a processor operably cooperated with said optical data acquisition system and programmed to calculate a viscoelastic modulus of the blood sample and derive parameters of a blood coagulation cascade using the viscoelastic modulus, said parameters including clotting time (CT) and at least one of clot formation time (CFT), maximum clot firmness (MCF), maximum lysis (ML), percentage of lost clot stability at a selected point in time, rate of clotting, fibrinolyis time, and clot compliance. an optical data acquisition system having an input to receive light that has interacted with a blood sample , which includes at least one of blood, blood constituents, or serum and to acquire data representing scattering of said light by multiple particles in the blood sample; and a processor operably cooperated with said optical data acquisition system and programmed to calculate a viscoelastic modulus of the blood sample and derive parameters of a blood coagulation cascade using the viscoelastic modulus, said parameters including clotting time (CT) and at least one of clot formation time (CFT), maximum clot firmness (MCF), maximum lysis (ML), percentage of lost clot stability at a selected point in time, rate of clotting, fibrinolyis time, and clot compliance.
A rotor arresting device for a wind turbine having a rotor , a rotational assembly connected in a torsionally rigid manner to the rotor, and a static assembly fixed in position relative to the rotational assembly, comprising - a toothed disk (11, 52, 62, 72, 200, 200', 200", 300, 300', 300", 400, 400', 400"), which can be arranged on the rotational assembly, having a plurality of arresting recesses arranged along a circumference, wherein two adjacent arresting recesses form a tooth , - a first arresting module having at least one first arresting element , - a second arresting module having at least one second arresting element , - wherein the first arresting module and the second arresting module can be arranged on the static assembly, - wherein the first arresting element and the second arresting element are arranged and designed to engage in arresting recesses of the toothed disk, characterized in that the spacing (A1) of the at least one first arresting element from the at least one second arresting element in the circumferential direction of the toothed disk is a non-integral multiple of a tooth tip spacing (Z) of the toothed disk. - a toothed disk (11, 52, 62, 72, 200, 200', 200", 300, 300', 300", 400, 400', 400"), which can be arranged on the rotational assembly, having a plurality of arresting recesses arranged along a circumference, wherein two adjacent arresting recesses form a tooth , - a first arresting module having at least one first arresting element , - a second arresting module having at least one second arresting element , - wherein the first arresting module and the second arresting module can be arranged on the static assembly, - wherein the first arresting element and the second arresting element are arranged and designed to engage in arresting recesses of the toothed disk, characterized in that the spacing (A1) of the at least one first arresting element from the at least one second arresting element in the circumferential direction of the toothed disk is a non-integral multiple of a tooth tip spacing (Z) of the toothed disk.
A method for forming a composite coating on a substrate comprising: (A) applying a first coating composition to at least a portion of a surface of the substrate; and (B) applying a second coating composition to at least a portion of the first coating formed in step (A) prior to substantially heating or curing the first coating, to form a secondary coating thereon and yielding a composite coating; wherein the first and/or second coating composition is a waterborne curable film-forming composition comprising an aqueous dispersion of: (a) internally crosslinked polymeric microparticles having a core-shell morphology and having reactive functional groups; and (b) a crosslinking agent having functional groups reactive with functional groups on the polymeric microparticles; wherein the core of the polymeric microparticles is prepared from a monomer mixture comprising at least 20 percent by weight of a monomer having the structure: wherein X is N; R is a linear or branched alkyl group having 1 to 18 carbon atoms, or R is bonded to X to form a 5- to 7-member ring; based on the total weight of monomers in the monomer mixture. (A) applying a first coating composition to at least a portion of a surface of the substrate; and (B) applying a second coating composition to at least a portion of the first coating formed in step (A) prior to substantially heating or curing the first coating, to form a secondary coating thereon and yielding a composite coating; wherein the first and/or second coating composition is a waterborne curable film-forming composition comprising an aqueous dispersion of: (a) internally crosslinked polymeric microparticles having a core-shell morphology and having reactive functional groups; and (b) a crosslinking agent having functional groups reactive with functional groups on the polymeric microparticles; wherein the core of the polymeric microparticles is prepared from a monomer mixture comprising at least 20 percent by weight of a monomer having the structure: wherein X is N; R is a linear or branched alkyl group having 1 to 18 carbon atoms, or R is bonded to X to form a 5- to 7-member ring; based on the total weight of monomers in the monomer mixture. (a) internally crosslinked polymeric microparticles having a core-shell morphology and having reactive functional groups; and (b) a crosslinking agent having functional groups reactive with functional groups on the polymeric microparticles;
A conductive material dispersed liquid, comprising a conductive material, a dispersant, and a dispersion medium, wherein the conductive material includes bundle-type carbon nanotubes having a bulk density in a range of 10 to 50 kg/m 3 and a conductivity satisfying the condition of the following Equation 1, − X ≤ 10 ⁢ log ρ ≤ − 0.6 ⁢ X (in Equation 1 above, X is a bulk density of the carbon nanotubes, and ρ is a powder resistivity (Ohm.cm) of the carbon nanotubes under a pressure of 10 to 65 MPa) wherein the dispersant is a nitrile-based rubber.
A gas supply system for supplying gas to filling equipment for filling gas into a tank-mounted apparatus , comprising: a compressor unit including a driver and a compressor configured to compress the gas by being driven by the driver ; an accumulator unit including a plurality of accumulators and configured to store the gas discharged from the compressor unit ; a pre-cooling system including a refrigerator and a pre-cooling heat exchanger configured to cool the gas flowing into the filling equipment from the accumulator unit ; and a rectangular parallelepiped housing configured to house a part of the pre-cooling system , the part of the pre-cooling system including at least a part of the refrigerator and excluding the pre-cooling heat exchanger , characterized in that the housing is configured to house, in addition to the part of the pre-cooling system , the compressor unit and the accumulator unit , and the compressor unit is arranged with the compressor located above the driver , and the part of the pre-cooling system is arranged above the accumulator unit on a side of the compressor unit in the housing . a compressor unit including a driver and a compressor configured to compress the gas by being driven by the driver ; an accumulator unit including a plurality of accumulators and configured to store the gas discharged from the compressor unit ; a pre-cooling system including a refrigerator and a pre-cooling heat exchanger configured to cool the gas flowing into the filling equipment from the accumulator unit ; and a rectangular parallelepiped housing configured to house a part of the pre-cooling system , the part of the pre-cooling system including at least a part of the refrigerator and excluding the pre-cooling heat exchanger , characterized in that the housing is configured to house, in addition to the part of the pre-cooling system , the compressor unit and the accumulator unit , and the compressor unit is arranged with the compressor located above the driver , and the part of the pre-cooling system is arranged above the accumulator unit on a side of the compressor unit in the housing .
A method of repairing a leaking valve stem comprising (A) drilling and tapping into the leaking valve stem; (B) injecting into the valve stem a valve packing composition and (C) closing the valve stem, wherein the valve packing composition is either: (a) a composition of (i) a calcium sulfonate complex grease comprising at least one polyalphaolefin and at least one ester; (ii) at least one anti-wear/anti-galling agent; (iii) at least one binding/thickening agent; and (iv) a plasticizing agent miscible with the ester of the calcium sulfonate complex grease; or . (b) a composition of (i) a calcium sulfonate complex grease comprising at least one polyalphaolefin; (ii) at least one anti-wear/anti-galling agent; (iii) at least one binding/thickening agent; (iv) an ester; and (v) a plasticizing agent; and wherein the plasticizing agent is an isocyanate reaction product of castor oil or a diglycol ester of a dibasic acid. (a) a composition of (i) a calcium sulfonate complex grease comprising at least one polyalphaolefin and at least one ester; (ii) at least one anti-wear/anti-galling agent; (iii) at least one binding/thickening agent; and (iv) a plasticizing agent miscible with the ester of the calcium sulfonate complex grease; or . (b) a composition of (i) a calcium sulfonate complex grease comprising at least one polyalphaolefin; (ii) at least one anti-wear/anti-galling agent; (iii) at least one binding/thickening agent; (iv) an ester; and (v) a plasticizing agent; and
A method for producing a printed circuit board, comprising: an alkali treatment step of bringing a surface of an insulating layer for a printed circuit board into contact with an aqueous alkali solution, and a conductor layer forming step of forming a conductor layer on at least a part of the surface of the insulating layer that has undergone the alkali treatment step, wherein the insulating layer comprises a resin composition comprising a thermosetting resin, a silane compound having a (meth)acrylic skeleton and a hydrolyzable group or a hydroxy group, and an inorganic filler. an alkali treatment step of bringing a surface of an insulating layer for a printed circuit board into contact with an aqueous alkali solution, and a conductor layer forming step of forming a conductor layer on at least a part of the surface of the insulating layer that has undergone the alkali treatment step, wherein the insulating layer comprises a resin composition comprising a thermosetting resin, a silane compound having a (meth)acrylic skeleton and a hydrolyzable group or a hydroxy group, and an inorganic filler.