mhurhangee/patent-ind-claim-en huggingface dataset:
A seal segment for mounting between a first rotor disk and a second rotor disk of a gas turbine engine , comprising: a first radial span ; a second radial span that is generally parallel to said first radial span ; a first axial span that extends between said first radial span and said second radial span ; and a second axial span that extends between said first radial span and said second radial span , characterised in that : said first radial span , said second radial span , said first axial span , and said second axial span form a torque box that stiffens the seal segment against axial deflection to maintain the first and second rotor disks at a uniform axial displacement; and said seal segment further comprises: a first and second flow discourager that extend axially from said first radial span and said second radial span respectively; and a seal span that extends between said first radial span and said second radial span , said seal span including a multiple of knife edge seals . a first radial span ; a second radial span that is generally parallel to said first radial span ; a first axial span that extends between said first radial span and said second radial span ; and a second axial span that extends between said first radial span and said second radial span , said first radial span , said second radial span , said first axial span , and said second axial span form a torque box that stiffens the seal segment against axial deflection to maintain the first and second rotor disks at a uniform axial displacement; and said seal segment further comprises: a first and second flow discourager that extend axially from said first radial span and said second radial span respectively; and a seal span that extends between said first radial span and said second radial span , said seal span including a multiple of knife edge seals . a first and second flow discourager that extend axially from said first radial span and said second radial span respectively; and a seal span that extends between said first radial span and said second radial span , said seal span including a multiple of knife edge seals .
A method, comprising: receiving, by a first network device and from a second network device, a clock quality indication that is associated with a clock of the second network device, wherein the clock of the second network device is a reference clock for a network that includes the first network device and the second network device; determining, by the first network device and based on a clock signal received from the second network device, that a quality metric of the clock does not satisfy a threshold; providing, by the first network device and to the second network device, a clock fault notification to cause the second network device to downgrade the clock quality indication transmitted by the second network device; selecting, by the first network device, a new reference clock for the first network device based on receiving the downgraded clock quality indication from the second network device. receiving, by a first network device and from a second network device, a clock quality indication that is associated with a clock of the second network device, wherein the clock of the second network device is a reference clock for a network that includes the first network device and the second network device; determining, by the first network device and based on a clock signal received from the second network device, that a quality metric of the clock does not satisfy a threshold; providing, by the first network device and to the second network device, a clock fault notification to cause the second network device to downgrade the clock quality indication transmitted by the second network device; selecting, by the first network device, a new reference clock for the first network device based on receiving the downgraded clock quality indication from the second network device.
A cutting tool comprising a main part (16; 116), which can be rotationally driven about a rotational axis, at least one cutting insert holder (12; 112) arranged on the main part (16; 116) such that it can be radially set, and a setting device for setting the position of the cutting insert holder (12; 112) relative to the main part (16; 116), wherein the cutting insert holder (12; 112) is arranged in a guide recess (18; 118) in the main part (16; 116) such that it can be moved transversely to the rotational axis, and the setting device has a setting element , which can be set inside the main part (16; 116) transversely to the rotational axis and transversely to the direction of movement of the cutting insert holder (12; 112), and supports the cutting insert holder (12; 112), characterized by an adjusting device , which is integrated in the cutting insert holder (12; 112), for adjusting the position of the cutting insert holder (12; 112) relative to the setting element . the cutting insert holder (12; 112) is arranged in a guide recess (18; 118) in the main part (16; 116) such that it can be moved transversely to the rotational axis, and the setting device has a setting element , which can be set inside the main part (16; 116) transversely to the rotational axis and transversely to the direction of movement of the cutting insert holder (12; 112), and supports the cutting insert holder (12; 112), characterized by an adjusting device , which is integrated in the cutting insert holder (12; 112), for adjusting the position of the cutting insert holder (12; 112) relative to the setting element .
A system (100; 400) for monitoring a recoating mechanism (415A; 415B) during the build of an object in an additive manufacturing environment using powder as building material, comprising: a computer control system comprising one or more computers having a memory and a processor , the computer control system configured to: receive data based on thermal images of the recoating mechanism (415A; 415B) from an imaging device configured to capture thermal images; determine a value of a property of the thermal images, wherein the property is a thermal temperature reading or a thermal gradient and is related to an amount of powder in the recoating mechanism (415A; 415B) and wherein the determined value comprises at least one of: a temperature of one or more pixels; a slope of a temperature gradient across multiple pixels; and a rate of change of temperature based on thermal images captured at a time associated with the building of a given layer of the object and on one or more previously captured images for previous layers; and to select an action to take with respect to the recoating mechanism (415A; 415B), based on the determined value, when the determined value indicates an error related to the amount of powder in the recoating mechanism (415A; 415B). receive data based on thermal images of the recoating mechanism (415A; 415B) from an imaging device configured to capture thermal images; determine a value of a property of the thermal images, wherein the property is a thermal temperature reading or a thermal gradient and is related to an amount of powder in the recoating mechanism (415A; 415B) and wherein the determined value comprises at least one of: a temperature of one or more pixels; a slope of a temperature gradient across multiple pixels; and a rate of change of temperature based on thermal images captured at a time associated with the building of a given layer of the object and on one or more previously captured images for previous layers; and to select an action to take with respect to the recoating mechanism (415A; 415B), based on the determined value, when the determined value indicates an error related to the amount of powder in the recoating mechanism (415A; 415B).
An aqueous ink composition for variable data offset printing process that uses an intermediate substrate, comprising: a nano-particle polymer or blend of nano-particle polymers, wherein the polymer or polymers of the blend are water dispersible, and wherein the polymer or a polymer of the blend comprises a siloxane monomer in an amount of 2 to 30% by weight of polymer and sulphonated polyester wherein the polymer or polymers of the polymer blend have a molecular weight between 5000 and 20,000 as measured by gel permeation chromatography using polystyrene as a standard; and a pigment; wherein the total solids content is an amount in a range of 25% to 50%. a nano-particle polymer or blend of nano-particle polymers, wherein the polymer or polymers of the blend are water dispersible, and wherein the polymer or a polymer of the blend comprises a siloxane monomer in an amount of 2 to 30% by weight of polymer and sulphonated polyester wherein the polymer or polymers of the polymer blend have a molecular weight between 5000 and 20,000 as measured by gel permeation chromatography using polystyrene as a standard; and a pigment; wherein the total solids content is an amount in a range of 25% to 50%.
A yarn winder that winds a plurality of yarns (Y) around a plurality of bobbins (B) to form a plurality of packages (P), the yarn winder comprising: a bobbin holder that is arranged to extend in a predetermined direction and holds the plurality of bobbins (B) side by side in the predetermined direction; a plurality of traverse guides for traversing each of the plurality of yarns (Y) along the predetermined direction; a traverse device that includes at least one of the plurality of traverse guides and is configured to drive the at least one traverse guide ; a movement drive unit that moves the traverse device at least in the predetermined direction; wherein the yarn winder is characterised by further comprising a position information acquisition unit that acquires position information related to a position of a predetermined part of the plurality of bobbins (B) in the predetermined direction. a bobbin holder that is arranged to extend in a predetermined direction and holds the plurality of bobbins (B) side by side in the predetermined direction; a plurality of traverse guides for traversing each of the plurality of yarns (Y) along the predetermined direction; a traverse device that includes at least one of the plurality of traverse guides and is configured to drive the at least one traverse guide ; a movement drive unit that moves the traverse device at least in the predetermined direction; wherein the yarn winder is characterised by further comprising a position information acquisition unit that acquires position information related to a position of a predetermined part of the plurality of bobbins (B) in the predetermined direction.
A thermally conductive potting composition comprising: (a) a first part comprising: at least one epoxy resin; at least one thermally conductive filler; and at least one metal complex; (b) a second part comprising at least one curing agent; wherein the metal complex in the first part has one organic ligand represented by the following general formula which is coordinatively bounded to the metal atom in the metal complex, wherein * represents a coordinating position to the metal atom in the metal complex; and R 1 and R 2 are identical or different, and independently represent optionally substituted univalent organic groups. (a) a first part comprising: at least one epoxy resin; at least one thermally conductive filler; and at least one metal complex; at least one epoxy resin; at least one thermally conductive filler; and at least one metal complex; (b) a second part comprising at least one curing agent; wherein the metal complex in the first part has one organic ligand represented by the following general formula which is coordinatively bounded to the metal atom in the metal complex, wherein * represents a coordinating position to the metal atom in the metal complex; and R 1 and R 2 are identical or different, and independently represent optionally substituted univalent organic groups.
A hydraulic transmission adapted to transmit power utilizing a flow of fluid, comprising a driven member and a vibration damping device, that is adapted to damp vibrations resulting from a pulsation of torque applied to a rotary member, rotated integrally with the driven member , by an oscillating motion of a rolling member connected with the rotary member while being allowed to rotate relatively therewith, the vibration damping device comprising: a casing member enclosing the rolling member ; a sealing member that connects the casing member with the rotary member in a manner such that the rotary member is allowed to rotate relatively with the casing member , while preventing oil from entering into an inner space of the casing member where the rolling member is held to oscillate; and an elastic member configured to reduce a phase shift between the rotary member and the casing member rotating relatively with each other. a casing member enclosing the rolling member ; a sealing member that connects the casing member with the rotary member in a manner such that the rotary member is allowed to rotate relatively with the casing member , while preventing oil from entering into an inner space of the casing member where the rolling member is held to oscillate; and an elastic member configured to reduce a phase shift between the rotary member and the casing member rotating relatively with each other.
A clothing dryer comprising: a body ; a drum rotatably installed in the body for accommodating clothing to be dried; a first condensate container that is mounted below the drum to collect condensated water generated when a drying operation is performed; and a second condensate container for draining the condensate collected in the first condensate container ; and a first drainage pipe through which the condensate is moved from the first condensate container to the second condensate container ; and characterized by : a third drainage pipe through which the condensate is moved from the first condensate container to outside the body , wherein the first condensate container comprises a first drainage hole to which the first drainage pipe or the third drainage pipe is connectable, and to which the condensate moves, and wherein the first condensate container is accessible from outside the body to allow a user to change which one of the first and third drainage pipes is connected to the first drainage hole . a body ; a drum rotatably installed in the body for accommodating clothing to be dried; a first condensate container that is mounted below the drum to collect condensated water generated when a drying operation is performed; and a second condensate container for draining the condensate collected in the first condensate container ; and a first drainage pipe through which the condensate is moved from the first condensate container to the second condensate container ; and characterized by : a third drainage pipe through which the condensate is moved from the first condensate container to outside the body , wherein the first condensate container comprises a first drainage hole to which the first drainage pipe or the third drainage pipe is connectable, and to which the condensate moves, and wherein the first condensate container is accessible from outside the body to allow a user to change which one of the first and third drainage pipes is connected to the first drainage hole . a third drainage pipe through which the condensate is moved from the first condensate container to outside the body , wherein the first condensate container comprises a first drainage hole to which the first drainage pipe or the third drainage pipe is connectable, and to which the condensate moves, and wherein the first condensate container is accessible from outside the body to allow a user to change which one of the first and third drainage pipes is connected to the first drainage hole .
A process for the diastereoisomeric enrichment of a compound of Formula II; wherein R 1 represents an electron withdrawing group and a is an integer from 1 to 5, the process comprising: a) suspending or dissolving the R-diastereoisomer of the compound of Formula II; or a mixture of the (R)- and (S)-diastereoisomers of the compound of Formula II in a solvent (S2); b) treating the solution or suspension with an organic amine base or inorganic base (B2) to obtain (S)-diastereoisomer in substantially diastereomerically pure form; and c) isolating the (S)-diastereoisomer of Formula II. a) suspending or dissolving the R-diastereoisomer of the compound of Formula II; or a mixture of the (R)- and (S)-diastereoisomers of the compound of Formula II in a solvent (S2); b) treating the solution or suspension with an organic amine base or inorganic base (B2) to obtain (S)-diastereoisomer in substantially diastereomerically pure form; and c) isolating the (S)-diastereoisomer of Formula II.
An electro-optic modulator, EOM, suitable for altering an optical path length of an optical field , the electro-optic modulator, EOM, comprising: a first Brewster-angle cut nonlinear crystal having a first light input axis and a first light output axis; a second Brewster-angle cut nonlinear crystal having a second light input axis and a second light output axis wherein the first light output axis is coincident with the second light input axis between the first and second Brewster-angle cut nonlinear crystals; a mounting apparatus that provides a means for locating the first and second Brewster-angle cut nonlinear crystals, the mounting apparatus comprising a first clamp section having one or more adjustable crystal holders and a first electrically insulating base plate attached to the first clamp section ; wherein the first and second Brewster-angle cut nonlinear crystals are arranged to be opposite handed relative to the optical field such that the optical field enters the first nonlinear crystal via a first polished face and exits the first nonlinear crystal via a second polished face and the optical field enters the second nonlinear crystal via a second polished face and exits the second nonlinear crystal via a first polished face ; a layer of a non-hardening or flexible adhesive is employed to attach the first and or second nonlinear crystals to the first electrically insulating base plate . a first Brewster-angle cut nonlinear crystal having a first light input axis and a first light output axis; a second Brewster-angle cut nonlinear crystal having a second light input axis and a second light output axis wherein the first light output axis is coincident with the second light input axis between the first and second Brewster-angle cut nonlinear crystals; a mounting apparatus that provides a means for locating the first and second Brewster-angle cut nonlinear crystals, the mounting apparatus comprising a first clamp section having one or more adjustable crystal holders and a first electrically insulating base plate attached to the first clamp section ; wherein the first and second Brewster-angle cut nonlinear crystals are arranged to be opposite handed relative to the optical field such that the optical field enters the first nonlinear crystal via a first polished face and exits the first nonlinear crystal via a second polished face and the optical field enters the second nonlinear crystal via a second polished face and exits the second nonlinear crystal via a first polished face ; a layer of a non-hardening or flexible adhesive is employed to attach the first and or second nonlinear crystals to the first electrically insulating base plate .
A touch input detector , comprising: an acoustic transmitter (104; 106; 108; 110) for transmitting an acoustic wave across a touch input medium; an acoustic receiver (112; 114; 116; 118) for receiving the transmitted acoustic wave, wherein the timing of the incidence of the acoustic wave on the acoustic receiver (112; 114; 116; 118) indicates at least a portion of a touch input location on a surface of the touch input medium ; and an acoustic dampening material (140; 142) coupled to the touch input medium to dampen reflections of the transmitted acoustic wave; characterised in that an attenuation property of the acoustic dampening material varies in discrete steps within the acoustic dampening material (140; 142) from the edge of the acoustic dampening material (140; 142) closest to the edge of the touch input medium to the inner edge of the acoustic dampening materials (140;142) closest to the centre of the touch input medium . an acoustic transmitter (104; 106; 108; 110) for transmitting an acoustic wave across a touch input medium; an acoustic receiver (112; 114; 116; 118) for receiving the transmitted acoustic wave, wherein the timing of the incidence of the acoustic wave on the acoustic receiver (112; 114; 116; 118) indicates at least a portion of a touch input location on a surface of the touch input medium ; and an acoustic dampening material (140; 142) coupled to the touch input medium to dampen reflections of the transmitted acoustic wave; characterised in that an attenuation property of the acoustic dampening material varies in discrete steps within the acoustic dampening material (140; 142) from the edge of the acoustic dampening material (140; 142) closest to the edge of the touch input medium to the inner edge of the acoustic dampening materials (140;142) closest to the centre of the touch input medium .
A hybrid solar panel for producing electrical energy and thermal energy, comprising: - a photovoltaic power generation system , with at least one photovoltaic cell, - a heat absorber for evacuating heat from the photovoltaic generation system by means of a heat transfer fluid, - a transparent insulating cover sealed along the perimeter to the photovoltaic generation system, - an intermediate layer of vacuum, inert gas or air between the photovoltaic generation system and the transparent insulating cover , - a lower insulating layer located below the heat absorber , - a perimeter frame with a rear sheet or a casing comprising the four sides of the perimeter and the rear part, wherein it additionally comprises a junction for joining the photovoltaic power generation system with the heat absorber, the junction comprising two layers of material with a silicone base, where a first layer comprises encapsulating silicone inside the photovoltaic generation system and projecting above said photovoltaic generation layer , the encapsulating silicone presenting a refractive index of less than 1.45 and an optical transmission index greater than 98%, and the junction further comprising a second layer of a thermal silicone with a thermal conductivity greater than 0.2 W/ m·K, characterized in that said thermal silicone is located above and adjacent to the heat absorber so that the junction joins the photovoltaic power generation system with the heat absorber devoid of a backsheet therebetween and thus eliminating a heat conduction barrier for the photovoltaic cells, - a photovoltaic power generation system , with at least one photovoltaic cell, - a heat absorber for evacuating heat from the photovoltaic generation system by means of a heat transfer fluid, - a transparent insulating cover sealed along the perimeter to the photovoltaic generation system, - an intermediate layer of vacuum, inert gas or air between the photovoltaic generation system and the transparent insulating cover , - a lower insulating layer located below the heat absorber , - a perimeter frame with a rear sheet or a casing comprising the four sides of the perimeter and the rear part,