mhurhangee/patent-ind-claim-en huggingface dataset:
A device for separating a cellular component from a multicomponent fluid, comprising: a body defining a channel having a first surface and a second surface opposite the first surface, the channel extending along a longitudinal axis from a first end to a second end; a first acoustic wave generator coupled to the first surface, the first acoustic wave generator configured to generate an acoustic wave having a wavelength; and a second acoustic wave propagating component coupled to the second surface, wherein the second surface is spaced a multiple of half-wavelengths from the first surface and each multiple of the half-wavelength equals a number of pressure nodes within the channel, wherein the body comprises a phantom material forming at least a portion of one or both of the first surface and the second surface, wherein the phantom material has acoustic properties similar to those of the multicomponent fluid and a thickness such that at least one of the pressure nodes is located proximate the phantom material, and wherein the acoustic wave generator or the acoustic wave propagating component is a thickness shear mode resonator. a body defining a channel having a first surface and a second surface opposite the first surface, the channel extending along a longitudinal axis from a first end to a second end; a first acoustic wave generator coupled to the first surface, the first acoustic wave generator configured to generate an acoustic wave having a wavelength; and a second acoustic wave propagating component coupled to the second surface, wherein the second surface is spaced a multiple of half-wavelengths from the first surface and each multiple of the half-wavelength equals a number of pressure nodes within the channel, wherein the body comprises a phantom material forming at least a portion of one or both of the first surface and the second surface, wherein the phantom material has acoustic properties similar to those of the multicomponent fluid and a thickness such that at least one of the pressure nodes is located proximate the phantom material, and wherein the acoustic wave generator or the acoustic wave propagating component is a thickness shear mode resonator.
Radiation-emitting device having - a substrate , - at least one organic functional layer on the substrate , and - a second electrode on the at least one organic functional layer , - a glass and/or thin-film encapsulation on the second electrode for encapsulating the at least one organic functional layer, wherein the substrate comprises a plastic film and a diffusion-proof metal film , and the metal film is arranged between the plastic film and the at least one organic functional layer and is set up as a first electrode, wherein the substrate is free of barrier layers, characterized in that a structured insulation layer is arranged between the glass and/or thin-film encapsulation and the substrate , wherein the second electrode is applied at least also to the insulating layer , wherein the second electrode projects beyond the glass and/or thin-film encapsulation in order to be electrically connectable from the outside, wherein the insulation layer projects beyond the glass and/or thin-film encapsulation, wherein the second electrode has a first oblique edge and a second oblique edge, wherein the first and second oblique edge is applied flush and obliquely to the insulating layer, wherein the first oblique edge projects beyond the glass and/or thin-film encapsulation , and wherein the second oblique edge does not project beyond the glass and/or thin-film encapsulation . - a substrate , - at least one organic functional layer on the substrate , and - a second electrode on the at least one organic functional layer , - a glass and/or thin-film encapsulation on the second electrode for encapsulating the at least one organic functional layer,
A computer-implemented method of deploying a membership of nodes in a distributed computing system , the computer-implemented method comprising; selecting (B92) nodes to be part of membership of nodes to be deployed; creating (B94) a membership task identifying a membership creator node as the node that is creating the membership to be deployed and comprising a membership target identifying a plurality of target nodes of the distributed computing system that are to a become members of the membership; and creating (B95) a beacon configured to repeatedly broadcast, over a computer network , a create membership message (B96) to each target node identified in the membership target, the create membership message (B96) comprising at least an identity of the membership task and an identification of the membership to be deployed; upon the membership creator node receiving (B1008) a response from a target node in the membership target: removing (B1010) the target node from which the response was received from the beacon such that the beacon no longer broadcasts the create membership message thereto; and deploying (B1014) the membership when a response has been received from each of the target nodes identified in the membership target; and if the membership creator node fails before it has received responses from each of the target nodes identified in the membership target, the membership creator node restarting the membership task and resending duplicate create membership messages to each of the target nodes. removing (B1010) the target node from which the response was received from the beacon such that the beacon no longer broadcasts the create membership message thereto; and deploying (B1014) the membership when a response has been received from each of the target nodes identified in the membership target; and if the membership creator node fails before it has received responses from each of the target nodes identified in the membership target, the membership creator node restarting the membership task and resending duplicate create membership messages to each of the target nodes.
A heat exchange device comprising: an evaporator , defining a medium inlet and a medium outlet ; a first liquid storage tank , in communication with the medium inlet ; a second liquid storage tank , in communication with the medium outlet , wherein the second liquid storage tank is in communication with the first liquid storage tank , and the second liquid storage tank defines a liquid inlet and an exhaust hole ; and a power unit , arranged between the evaporator and the first liquid storage tank , or between the evaporator and the second liquid storage tank , and configured to drive a liquid medium to circulate among the first liquid storage tank , the evaporator , and the second liquid storage tank ; characterised in that the second liquid storage tank and the evaporator are arranged on a mounting surface of the first liquid storage tank , and a distance from the highest point of the second liquid storage tank to the mounting surface is greater than a distance from the highest point of the evaporator to the mounting surface , wherein the first liquid storage tank is located below the mounting surface . an evaporator , defining a medium inlet and a medium outlet ; a first liquid storage tank , in communication with the medium inlet ; a second liquid storage tank , in communication with the medium outlet , wherein the second liquid storage tank is in communication with the first liquid storage tank , and the second liquid storage tank defines a liquid inlet and an exhaust hole ; and a power unit , arranged between the evaporator and the first liquid storage tank , or between the evaporator and the second liquid storage tank , and configured to drive a liquid medium to circulate among the first liquid storage tank , the evaporator , and the second liquid storage tank ;
A microreactor comprising: a network of hollow microchannel conduits formed of a corrosion-resistant material; and surrounding and in contact with the microchannel conduits, a matrix comprising a matrix material having a thermal conductivity larger than a thermal conductivity of the corrosion-resistant material, wherein the corrosion-resistant material comprises at least one of niobium, molybdenum, tantalum, tungsten, rhenium, titanium, or zirconium, and the matrix material comprises at least one of aluminum, gold, brass, silver, or copper characterized in that a portion of the matrix proximate the microchannel conduits comprises a mixed and/or graded composition comprising the corrosion-resistant material and the matrix material. a network of hollow microchannel conduits formed of a corrosion-resistant material; and surrounding and in contact with the microchannel conduits, a matrix comprising a matrix material having a thermal conductivity larger than a thermal conductivity of the corrosion-resistant material, wherein the corrosion-resistant material comprises at least one of niobium, molybdenum, tantalum, tungsten, rhenium, titanium, or zirconium, and the matrix material comprises at least one of aluminum, gold, brass, silver, or copper characterized in that a portion of the matrix proximate the microchannel conduits comprises a mixed and/or graded composition comprising the corrosion-resistant material and the matrix material.
An ink set comprising an inkjet ink, and a treatment liquid used in combination with the inkjet ink, wherein the inkjet ink comprises a pigment, a water-soluble organic solvent, a surfactant and water, the treatment liquid comprises a coagulant, an organic solvent and water, the coagulant comprises calcium nitrate in an amount of 21.5 to 41.7% by mass relative to the total mass of the treatment liquid, an amount of organic solvent having a boiling point at one atmosphere of 240°C or higher in the treatment liquid is not more than 8% by mass, a pH of the treatment liquid is within a range from 3.5 to 10.5, and a viscosity of the treatment liquid at 25°C is within a range from 5.5 to 18.5 mPa·s, wherein the inkjet ink also comprises a resin and a wax, wherein a blend amount of the wax relative to a blend amount of the resin is within a range from 5 to 80% by mass. the inkjet ink comprises a pigment, a water-soluble organic solvent, a surfactant and water, the treatment liquid comprises a coagulant, an organic solvent and water, the coagulant comprises calcium nitrate in an amount of 21.5 to 41.7% by mass relative to the total mass of the treatment liquid, an amount of organic solvent having a boiling point at one atmosphere of 240°C or higher in the treatment liquid is not more than 8% by mass, a pH of the treatment liquid is within a range from 3.5 to 10.5, and a viscosity of the treatment liquid at 25°C is within a range from 5.5 to 18.5 mPa·s, wherein the inkjet ink also comprises a resin and a wax, wherein a blend amount of the wax relative to a blend amount of the resin is within a range from 5 to 80% by mass.
A gas pressure regulator , wherein the gas pressure regulator has a gas inlet , a gas outlet and a rotatably supported lever arm for pressure regulation, wherein the lever arm is mechanically coupled to a movement pin and a sealing punch at its end, wherein the movement pin extends into the gas inlet so that gas intruding via the gas inlet acts accordingly on the lower front end of the movement pin , wherein the gas inlet is directed to a duct so that the gas acts on the sealing punch via the duct , wherein the movement pin and the sealing punch are arranged within a housing in such a manner and connected to the gas inlet in such a manner that the gas intruding via the gas inlet pushes against the movement pin and the sealing punch with balanced forces, wherein the lever arm is mechanically coupled to a holding punch , wherein the holding punch is mechanically coupled to a membrane , so that the holding punch has effects on the pressure regulation by the membrane , wherein the membrane covers an intermediate chamber , wherein the gas inlet is connected to the intermediate chamber via the duct , wherein the sealing punch is arranged between the duct and the intermediate chamber in such a manner that a gas pressure of a gas applied to the gas inlet has an effect on the sealing punch , and wherein the sealing punch , in one position, seals the duct , characterized in that the movement pin is directly coupled to the holding punch . wherein the gas pressure regulator has a gas inlet , a gas outlet and a rotatably supported lever arm for pressure regulation, wherein the lever arm is mechanically coupled to a movement pin and a sealing punch at its end, wherein the movement pin extends into the gas inlet so that gas intruding via the gas inlet acts accordingly on the lower front end of the movement pin , wherein the gas inlet is directed to a duct so that the gas acts on the sealing punch via the duct , wherein the movement pin and the sealing punch are arranged within a housing in such a manner and connected to the gas inlet in such a manner that the gas intruding via the gas inlet pushes against the movement pin and the sealing punch with balanced forces, wherein the lever arm is mechanically coupled to a holding punch , wherein the holding punch is mechanically coupled to a membrane , so that the holding punch has effects on the pressure regulation by the membrane , wherein the membrane covers an intermediate chamber , wherein the gas inlet is connected to the intermediate chamber via the duct , wherein the sealing punch is arranged between the duct and the intermediate chamber in such a manner that a gas pressure of a gas applied to the gas inlet has an effect on the sealing punch , and wherein the sealing punch , in one position, seals the duct , characterized in that the movement pin is directly coupled to the holding punch .
A third harmonic generator comprising: a first beam combiner configured to combine a first fundamental optical beam with a second harmonic optical beam ; a third harmonic crystal coupled to the first beam combiner , configured to generate a third harmonic optical beam from the first fundamental optical beam and the second harmonic optical beam , wherein upon generation of the third harmonic optical beam , a residual fundamental optical beam exits the third harmonic crystal ; a first beam splitter coupled to the third harmonic crystal , configured to separate the residual fundamental optical beam and the third harmonic optical beam ; and a second harmonic crystal coupled to the first beam splitter , configured to generate the second harmonic optical beam from the residual fundamental optical beam , and for coupling the second harmonic optical beam to the first beam combiner , characterised in that the third harmonic crystal and the second harmonic crystal are arranged such that the first fundamental optical beam enters the third harmonic generator through the first beam combiner and propagates in sequence first through the third harmonic crystal and then through the second harmonic crystal , via the first beam splitter , to generate the third harmonic optical beam from the first fundamental optical beam and the second harmonic optical beam , as combined by the first beam combiner . a first beam combiner configured to combine a first fundamental optical beam with a second harmonic optical beam ; a third harmonic crystal coupled to the first beam combiner , configured to generate a third harmonic optical beam from the first fundamental optical beam and the second harmonic optical beam , wherein upon generation of the third harmonic optical beam , a residual fundamental optical beam exits the third harmonic crystal ; a first beam splitter coupled to the third harmonic crystal , configured to separate the residual fundamental optical beam and the third harmonic optical beam ; and a second harmonic crystal coupled to the first beam splitter , configured to generate the second harmonic optical beam from the residual fundamental optical beam , and for coupling the second harmonic optical beam to the first beam combiner , characterised in that the third harmonic crystal and the second harmonic crystal are arranged such that the first fundamental optical beam enters the third harmonic generator through the first beam combiner and propagates in sequence first through the third harmonic crystal and then through the second harmonic crystal , via the first beam splitter , to generate the third harmonic optical beam from the first fundamental optical beam and the second harmonic optical beam , as combined by the first beam combiner .
A quantum cascade laser structure comprising a plurality of quantum wells and a plurality of barriers , at least a portion of which define an active region , wherein: a photon is emitted in the active region when an electron transitions from an upper laser state in the active region to a lower laser state in the active region ; said quantum cascade laser structure further comprising: a final quantum well in the plurality of quantum wells that define the active region, wherein the final quantum well is the last amoung the plurality of quantum wells with respect to the flow of the electrons in the structure, wherein the final quantum well comprises a thickness that is less than a thickness of the adjacent quantum well in the active region ; characterized by : the conduction band of the final quantum well extending below the conduction band of an adjacent quantum well in the active region when no bias is applied. a photon is emitted in the active region when an electron transitions from an upper laser state in the active region to a lower laser state in the active region ; said quantum cascade laser structure further comprising: a final quantum well in the plurality of quantum wells that define the active region, wherein the final quantum well is the last amoung the plurality of quantum wells with respect to the flow of the electrons in the structure, wherein the final quantum well comprises a thickness that is less than a thickness of the adjacent quantum well in the active region ; characterized by : the conduction band of the final quantum well extending below the conduction band of an adjacent quantum well in the active region when no bias is applied. a final quantum well in the plurality of quantum wells that define the active region, wherein the final quantum well is the last amoung the plurality of quantum wells with respect to the flow of the electrons in the structure, wherein the final quantum well comprises a thickness that is less than a thickness of the adjacent quantum well in the active region ; characterized by : the conduction band of the final quantum well extending below the conduction band of an adjacent quantum well in the active region when no bias is applied.
An actuator assembly comprising: a static part ; a movable part ; a helical bearing arrangement supporting the movable part on the static part and arranged to guide helical movement of the movable part with respect to the static part around a helical axis (H); and one or more actuators, that are not shape memory alloy actuators, arranged to drive movement of the movable part with respect to the static part around the helical axis, characterized in that the helical bearing arrangement comprises plural helical bearings that are each a rolling bearing comprising bearing surfaces on the static part and the movable part and at least one rolling bearing element disposed between the bearing surfaces, wherein the plural helical bearings are arranged to guide the helical movement of the movable part with respect to the static part around the helical axis. a static part ; a movable part ; a helical bearing arrangement supporting the movable part on the static part and arranged to guide helical movement of the movable part with respect to the static part around a helical axis (H); and one or more actuators, that are not shape memory alloy actuators, arranged to drive movement of the movable part with respect to the static part around the helical axis, characterized in that the helical bearing arrangement comprises plural helical bearings that are each a rolling bearing comprising bearing surfaces on the static part and the movable part and at least one rolling bearing element disposed between the bearing surfaces, wherein the plural helical bearings are arranged to guide the helical movement of the movable part with respect to the static part around the helical axis.
A method for managing optical network units, ONUs, characterized by comprising: issuing (S11), according to a group manage message format, a group manage negotiation message to each of the ONUs to be managed in batches; receiving (S12) group manage negotiation response messages returned by each of the ONUs according to a group manage response message format when receiving the group manage negotiation message; and including (S13), in response to a group manage negotiation being successful, a respective one of the ONUs into a group, wherein a message indicating that the group manage negotiation is successful is returned by the respective ONU if the ONU supports group management and has created a passive optical network encapsulation method port, GEM PORT, for receiving group manage messages, and wherein each of the ONUs in the group has created a respective GEM PORT with a same PORT ID; and issuing (S14), according to a message header format, group manage messages to each of the ONUs in the group, so that each of the ONUs in the group receives the group manage messages through the respective GEM PORT created with the same PORT ID, thereby realizing batch management for all of the ONUs in the group. issuing (S11), according to a group manage message format, a group manage negotiation message to each of the ONUs to be managed in batches; receiving (S12) group manage negotiation response messages returned by each of the ONUs according to a group manage response message format when receiving the group manage negotiation message; and including (S13), in response to a group manage negotiation being successful, a respective one of the ONUs into a group, wherein a message indicating that the group manage negotiation is successful is returned by the respective ONU if the ONU supports group management and has created a passive optical network encapsulation method port, GEM PORT, for receiving group manage messages, and wherein each of the ONUs in the group has created a respective GEM PORT with a same PORT ID; and issuing (S14), according to a message header format, group manage messages to each of the ONUs in the group, so that each of the ONUs in the group receives the group manage messages through the respective GEM PORT created with the same PORT ID, thereby realizing batch management for all of the ONUs in the group.