mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus adapted to determine the presence of at least two interferents in a clinical analysis specimen contained within a sample container , comprising: a radiation source adapted to transmit a beam of radiation through the clinical analysis specimen contained within the sample container ; a first radiation capture device adapted to capture said beam of radiation as transmitted through the sample container ; and a light source adapted to transmit a conventional light beam of non-collimated visible light through the clinical analysis specimen contained within the sample container ; a light capture device adapted to capture the light beam of non-collimated visible light transmitted through the sample container , said light capture device comprising a second radiation capture device , which has digitizing means; and a computer adapted to analyze the captured beam of radiation and the captured digitized beam of visible light to determine from the analysis of each of said beams a presence of one or more interferents within the clinical analysis specimen. a radiation source adapted to transmit a beam of radiation through the clinical analysis specimen contained within the sample container ; a first radiation capture device adapted to capture said beam of radiation as transmitted through the sample container ; and a light source adapted to transmit a conventional light beam of non-collimated visible light through the clinical analysis specimen contained within the sample container ; a light capture device adapted to capture the light beam of non-collimated visible light transmitted through the sample container , said light capture device comprising a second radiation capture device , which has digitizing means; and a computer adapted to analyze the captured beam of radiation and the captured digitized beam of visible light to determine from the analysis of each of said beams a presence of one or more interferents within the clinical analysis specimen.
A method of adding hydrogen to a metal alloy, comprising: providing an article formed of the metal alloy; providing a metal hydride; covering at least a portion of the article and the metal hydride with a shell metal to form an assembly; applying load to the assembly; and heating the assembly, wherein the shell metal deforms around the portion of the article and the metal hydride and forms a gas proof seal, wherein the metal hydride thermally decomposes to form hydrogen gas, and wherein at least a portion of the hydrogen gas dissociates and moves as monoatomic hydrogen into the article. providing an article formed of the metal alloy; providing a metal hydride; covering at least a portion of the article and the metal hydride with a shell metal to form an assembly; applying load to the assembly; and heating the assembly, wherein the shell metal deforms around the portion of the article and the metal hydride and forms a gas proof seal, wherein the metal hydride thermally decomposes to form hydrogen gas, and wherein at least a portion of the hydrogen gas dissociates and moves as monoatomic hydrogen into the article.
A method, comprising: operating an industrial gas turbine engine comprising a plurality of combustor cans arranged in an annular array, each can comprising burner stages and a pilot burner arrangement ; operating in asymmetric combustion, wherein at least one can is a warm can where respective burners stages are off and remaining cans operate as hot where respective burner stages are on; characterised in that said pilot burner arrangement comprises a premix pilot burner and a diffusion pilot burner ; and while maintaining a constant rate of fuel flow to the pilot burner arrangement of the warm can, changing fuel fractions within the pilot burner arrangement of the warm can. operating an industrial gas turbine engine comprising a plurality of combustor cans arranged in an annular array, each can comprising burner stages and a pilot burner arrangement ; operating in asymmetric combustion, wherein at least one can is a warm can where respective burners stages are off and remaining cans operate as hot where respective burner stages are on; characterised in that said pilot burner arrangement comprises a premix pilot burner and a diffusion pilot burner ; and while maintaining a constant rate of fuel flow to the pilot burner arrangement of the warm can, changing fuel fractions within the pilot burner arrangement of the warm can.
A measurement unit comprising: an electric ambient energy recovery generator ; an element of capacitive storage of the electric energy generated by the generator; an electric battery ; a first branch (B1) coupling an output node (A) of the generator to a first electrode (B) of the capacitive storage element ; a second branch (B2) coupling a first terminal (C) of the battery to the first electrode of the capacitive storage element ; and an active circuit capable of transmitting a radio event indicator signal each time the voltage across the capacitive storage element exceeds a first threshold, wherein, in operation, the capacitive storage element simultaneously receives, on its first electrode, a first charge current (IB1) originating from the generator via the first branch, and a second charge current (IB2) originating from the battery via the second branch. an electric ambient energy recovery generator ; an element of capacitive storage of the electric energy generated by the generator; an electric battery ; a first branch (B1) coupling an output node (A) of the generator to a first electrode (B) of the capacitive storage element ; a second branch (B2) coupling a first terminal (C) of the battery to the first electrode of the capacitive storage element ; and an active circuit capable of transmitting a radio event indicator signal each time the voltage across the capacitive storage element exceeds a first threshold, wherein, in operation, the capacitive storage element simultaneously receives, on its first electrode, a first charge current (IB1) originating from the generator via the first branch, and a second charge current (IB2) originating from the battery via the second branch.
A traveling wave antenna for short-range applications, in particular RFID applications, comprising an elongate bipolar conductor structure with an inner conductor and a sheath conductor coaxially surrounding the same, wherein a first end of the conductor structure is provided as a terminal end for connecting a transmitter and/or receiver for an antenna signal to be transmitted using the traveling wave antenna or an antenna signal to be received using the traveling wave antenna, wherein an inner conductor extension connected to the inner conductor is provided at a second end of the conductor structure , and a free end of the inner conductor extension is capacitively coupled to the sheath conductor , and wherein the inner conductor extension , starting from the second end of the conductor structure up to the free end of the inner conductor extension , has a running portion bent with a very small radius by 180°, so that the free end and an end portion of the inner conductor extension lying directly before the free end and running rectilinearly at a very short distance and parallel to a longitudinal direction of the conductor structure lie close to the second end of the conductor structure thereby establishing the capacitive coupling in the region of the second end of the conductor structure , such that, in a transmission mode of the traveling wave antenna , an antenna signal to be transmitted and fed to the first end runs along the conductor structure to the second end and is reflected there to travel as a bound traveling wave from the second end along the sheath conductor back towards the first end , wherein a surface wave damping device is arranged at a distance from the second end of the conductor structure as viewed in the longitudinal direction of the conductor structure , wherein therewith a total length of the conductor structure is divided into a signal conducting section between the first end of the conductor structure and the surface wave damping device and a signal transmitting/receiving section between the surface wave damping device and the second end of the conductor structure , and wherein the length of the signal transmitting/receiving section is at least twice an operational wavelength of the traveling waves.
A method for executing an application in a mobile device , comprising: receiving (S710) a request for execution of the application; determining (S720) whether the mobile device is located in a restricted area where execution of the application is controlled; and determining (S770), if the mobile device is located in a restricted area, whether to execute the application requested for execution, according to an application execution policy that allows for execution of the application in the restricted area, wherein determining whether the mobile device is located in the restricted area further comprises periodically transmitting a signal to a base station, and receiving a data packet including the application execution policy, wherein the application execution policy includes applications executable in the restricted area, which are grouped based on a type of each of the applications, and the mobile device executes the application (S780) only if the application is contained in the application execution policy, wherein the data packet including the application execution policy includes an application execution policy identifier field, a network administrator ID field, an area information field, and an application execution policy field. receiving (S710) a request for execution of the application; determining (S720) whether the mobile device is located in a restricted area where execution of the application is controlled; and determining (S770), if the mobile device is located in a restricted area, whether to execute the application requested for execution, according to an application execution policy that allows for execution of the application in the restricted area, wherein determining whether the mobile device is located in the restricted area further comprises periodically transmitting a signal to a base station, and receiving a data packet including the application execution policy, wherein the application execution policy includes applications executable in the restricted area, which are grouped based on a type of each of the applications, and the mobile device executes the application (S780) only if the application is contained in the application execution policy, wherein the data packet including the application execution policy includes an application execution policy identifier field, a network administrator ID field, an area information field, and an application execution policy field.
A toner comprising a toner particle containing a binder resin and a release agent, wherein the binder resin contains a polymer A that is a polymer of a composition containing a first polymerizable monomer and a second polymerizable monomer different from the first polymerizable monomer, the first polymerizable monomer is at least one selected from the group consisting of (meth)acrylic acid esters having a C 18-36 alkyl group, the content of the first polymerizable monomer in the composition is 5.0 mol% to 60.0 mol% of the total moles of all polymerizable monomers in the composition, the content of the second polymerizable monomer in the composition is 20.0 mol% to 95.0 mol% of the total moles of all polymerizable monomers in the composition, wherein the SP value of the first polymerizable monomer is SP 12 (J/cm 3 ) 0.5 , and the SP value of the second polymerizable monomer is SP 22 (J/cm 3 ) 0.5 , the following formula : 0.60 ≤ SP 22 − SP 12 ≤ 15.00 is satisfied, the SP value being determined according to the description, the molecular weight (Mp) of the release agent is at least 1,000, the molecular weight (Mp) being determined according to the description, and wherein the SP value of the polymer A is SP 3 (J/cm 3 ) 0.5 and the SP value of the release agent is SP w (J/cm 3 ) 0.5 , SP 3 and SP w satisfy the following formula : SP 3 − SP w ≥ 1.00 the binder resin contains a polymer A that is a polymer of a composition containing a first polymerizable monomer and a second polymerizable monomer different from the first polymerizable monomer, the first polymerizable monomer is at least one selected from the group consisting of (meth)acrylic acid esters having a C 18-36 alkyl group, the content of the first polymerizable monomer in the composition is 5.0 mol% to 60.0 mol% of the total moles of all polymerizable monomers in the composition, the content of the second polymerizable monomer in the composition is 20.0 mol% to 95.0 mol% of the total moles of all polymerizable monomers in the composition, wherein the SP value of the first polymerizable monomer is SP 12 (J/cm 3 ) 0.5 , and the SP value of the second polymerizable monomer is SP 22 (J/cm 3 ) 0.5 , the following formula : 0.60 ≤ SP 22 − SP 12 ≤ 15.00 is satisfied, the SP value being determined according to the description, the molecular weight (Mp) of the release agent is at least 1,000, the molecular weight (Mp) being determined according to the description, and wherein the SP value of the polymer A is SP 3 (J/cm 3 ) 0.5 and the SP value of the release agent is SP w (J/cm 3 ) 0.5 , SP 3 and SP w satisfy the following formula : SP 3 − SP w ≥ 1.00
A cement system for forming an implant, comprising a reactive glass ionomer cement (GIC) powder, and a filler which is substantially inert when mixed with water and is selected from (CaO)(Al 2 O 3 ) 6 , (CaO)(Al 2 O 3 ) 2 , calcium silicate (CaOSiO 2 ), and mixtures thereof, characterized in that the substantially inert filler is included in an amount of from 1 to 35 wt %, preferably in an amount of from 3 to 35 wt %, 5 to 30 wt %, or 10 to 25 wt %, based on the weight of the GIC powder and the substantially inert filler, the cement system further includes a polycarboxylic acid, and the polycarboxylic acid is included in an amount sufficient to initially provide a paste having a pH of less than 7 when the cement system is mixed with water and to maintain the pH of the cement paste below 7 for at least one hour.
A vertical take-off and landing aerial vehicle (VTOL) comprising a plurality of rotors for producing lift, for each respective rotor the VTOL comprising an auxiliary power source (APS) and a transformation gear set (TGS) both being associated with the respective rotor, and the VTOL further comprising at least one main power source (MPS) arranged for supplying power to a plurality of rotors of the VTOL, each TGS being configured to form an outgoing power towards its respective rotor from input powers received into the TGS from the MPS and from the APS associated with the respective rotor, characterized in that each TGS is of a planetary type gearbox or a differential type gearbox, and wherein each TGS is a transformation gearbox, that is configured to receive power input from the MPS and from the APS associated with the respective rotor simultaneously, and output them into a single combined power output. for each respective rotor the VTOL comprising an auxiliary power source (APS) and a transformation gear set (TGS) both being associated with the respective rotor, and the VTOL further comprising at least one main power source (MPS) arranged for supplying power to a plurality of rotors of the VTOL, each TGS being configured to form an outgoing power towards its respective rotor from input powers received into the TGS from the MPS and from the APS associated with the respective rotor, characterized in that each TGS is of a planetary type gearbox or a differential type gearbox, and wherein each TGS is a transformation gearbox, that is configured to receive power input from the MPS and from the APS associated with the respective rotor simultaneously, and output them into a single combined power output.
An integrated system (100;200;800;1700;2000) for fusing and sealing a plurality of tubes (210,212;808,810;1707,1708,1720), the integrated system comprises: at least one fusing unit (102-1,102-2;204;1702;2002), wherein a fusing unit is configured to: cut at least two tubes of the plurality of tubes simultaneously; fusing the at least two tubes together along their respective cut ends; at least one sealing unit (104,104-1,104-2;262;859;1704;2004), wherein a sealing unit is configured to seal an end of a tube of the plurality of tubes; and a control unit (106;2006) for controlling functions of the at least one fusing unit and the at least one sealing unit, characterized in that the integrated system is configured as a handheld system. at least one fusing unit (102-1,102-2;204;1702;2002), wherein a fusing unit is configured to: cut at least two tubes of the plurality of tubes simultaneously; fusing the at least two tubes together along their respective cut ends; cut at least two tubes of the plurality of tubes simultaneously; fusing the at least two tubes together along their respective cut ends; at least one sealing unit (104,104-1,104-2;262;859;1704;2004), wherein a sealing unit is configured to seal an end of a tube of the plurality of tubes; and a control unit (106;2006) for controlling functions of the at least one fusing unit and the at least one sealing unit, characterized in that the integrated system is configured as a handheld system.
A method of preparing a surface for diffusion bonding, the method comprising the steps of: contacting a binder material with a discontinuous surface comprising surface regions separated by gaps , the binder material being selectively deposited onto the surface regions and having a viscosity in a range from 0.05 Pa.s (50 cP) to 30 Pa.s (30,000 cP) to form a self-supporting layer without flowing into the gaps, wherein the self-supporting layer of binder material is deposited on the surface regions with a mass density in a range from 1.55 g/m 2 (0.001 g/in 2 ) to 77.50 g/m 2 (0.050 g/in 2 ); distributing a braze powder over the binder material , a predetermined amount of the braze powder being attached to the binder material; and heating the discontinuous surface to remove the binder material and adhere the braze powder to the discontinuous surface , thereby forming a prewet surface with a braze deposit thereon. contacting a binder material with a discontinuous surface comprising surface regions separated by gaps , the binder material being selectively deposited onto the surface regions and having a viscosity in a range from 0.05 Pa.s (50 cP) to 30 Pa.s (30,000 cP) to form a self-supporting layer without flowing into the gaps, wherein the self-supporting layer of binder material is deposited on the surface regions with a mass density in a range from 1.55 g/m 2 (0.001 g/in 2 ) to 77.50 g/m 2 (0.050 g/in 2 ); distributing a braze powder over the binder material , a predetermined amount of the braze powder being attached to the binder material; and heating the discontinuous surface to remove the binder material and adhere the braze powder to the discontinuous surface , thereby forming a prewet surface with a braze deposit thereon.
A method for the manufacture of a pressurised metered dose inhaler (pMDI) comprising: i) compressing into tablet a selected amount of: at least one particulate active pharmaceutical ingredient (API); at least one excipient provided as a particulate carrier material having a particle size range between 15 μm ― 200 μm, and a disintegrant that is soluble in a liquid phase propellant; ii) placing said tablet into a canister; iii) fixedly attaching a dispensing valve to said canister; and iv) dispensing liquid phase propellant into said canister. i) compressing into tablet a selected amount of: at least one particulate active pharmaceutical ingredient (API); at least one excipient provided as a particulate carrier material having a particle size range between 15 μm ― 200 μm, and a disintegrant that is soluble in a liquid phase propellant; at least one particulate active pharmaceutical ingredient (API); at least one excipient provided as a particulate carrier material having a particle size range between 15 μm ― 200 μm, and a disintegrant that is soluble in a liquid phase propellant; ii) placing said tablet into a canister; iii) fixedly attaching a dispensing valve to said canister; and iv) dispensing liquid phase propellant into said canister.
A macrophage comprising a synthetic mitochondrion, the synthetic mitochondrion is obtained by introducing a synthetic mitochondrial DNA into a mitochondrion or an empty mitochondrial shell, the synthetic mitochondrial DNA is circular mitochondrial DNA containing a GFP-COX-I fusion gene, and is stably expressed and stably passaged in the macrophage after entering the macrophage.
A yarn winding device configured to wind yarn onto a cone-shaped bobbin to form a cone-shaped package , the yarn winding device comprising: a cradle configured to rotatably support the bobbin with a bobbin holding portion (B1, B2) configured to hold the bobbin ; a driving section attached to the cradle , having a rotation shaft that is coupled to the bobbin holding portion (B1, B2) in an integrally rotatable manner, and configured to rotate the bobbin holding portion (B1, B2) thereby rotating the bobbin ; a traverse device configured to move a yarn guiding section on which the yarn is hooked, thereby traversing the yarn to be wound around the bobbin or the package ; a package-peripheral-speed acquisition section configured to acquire, as a first peripheral speed, a peripheral speed of an outer peripheral surface of the bobbin or the package at a predetermined position in a rotational-axis direction of the bobbin ; a touch roller configured to come into contact with the outer peripheral surface of the bobbin or the package and to be rotated by rotation of the bobbin or the package ; characterized by a roller-peripheral-speed calculation section configured to calculate, as a second peripheral speed, a peripheral speed of an outer peripheral surface of the touch roller ; and a contact-state determination section configured to compare the first peripheral speed acquired by the package-peripheral-speed acquisition section and the second peripheral speed calculated by the roller-peripheral-speed calculation section , thereby determining a contact state of the bobbin or the package that is in contact with the touch roller . a cradle configured to rotatably support the bobbin with a bobbin holding portion (B1, B2) configured to hold the bobbin ; a driving section attached to the cradle , having a rotation shaft that is coupled to the bobbin holding portion (B1, B2) in an integrally rotatable manner, and configured to rotate the bobbin holding portion (B1, B2) thereby rotating the bobbin ; a traverse device configured to move a yarn guiding section on which the yarn is hooked, thereby traversing the yarn to be wound around the bobbin or the package ; a package-peripheral-speed acquisition section configured to acquire, as a first peripheral speed, a peripheral speed of an outer peripheral surface of the bobbin or the package at a predetermined position in a rotational-axis direction of the bobbin ; a touch roller configured to come into contact with the outer peripheral surface of the bobbin or the package and to be rotated by rotation of the bobbin or the package ; characterized by a roller-peripheral-speed calculation section configured to calculate, as a second peripheral speed, a peripheral speed of an outer peripheral surface of the touch roller ; and a contact-state determination section configured to compare the first peripheral speed acquired by the package-peripheral-speed acquisition section and the second peripheral speed calculated by the roller-peripheral-speed calculation section , thereby determining a contact state of the bobbin or the package that is in contact with the touch roller .