mhurhangee/patent-ind-claim-en huggingface dataset:
A positive electrode active substance for a secondary cell, wherein (i) one selected from the group consisting of Ketjen black or graphite as a water-insoluble electrically conductive carbon material, and one selected from the group consisting of carbon obtained by carbonizing a water-soluble carbon precursor material, and (ii) 0.1 to 5 mass% of a metal fluoride are supported on a compound containing at least iron or manganese, the compound represented by formula (A), (B), or (C): LiFe a Mn b M 1 c PO 4 ... (A) wherein M 1 represents Mg, Ca, Sr, Y, Zr, Mo, Ba, Pb, Bi, La, Ce, Nd, or Gd, and a, b, and c each represent a number satisfying 0≤a≤1, 0≤b≤1, 0≤c≤0.2, 2a + 2b + (valence of M 1 ) × c = 2, and a + b ≠ 0; Li 2 Fe d Mn e M 2 f SiO 4 ... (B) wherein M 2 represents Ni, Co, Al, Zn, V, or Zr, and d, e, and f each represent a number satisfying 0≤d≤1, 0≤e≤1, 0≤f<1, 2d + 2e + (valence of M 2 ) × f = 2, and d + e ≠ 0; and NaFe g Mn h Q i PO 4 ... (C) wherein Q represents Mg, Ca, Co, Sr, Y, Zr, Mo, Ba, Pb, Bi, La, Ce, Nd, or Gd, and g, h, and i each represent a number satisfying 0≤g≤1, 0≤h≤1, 0≤i<1, 2g + 2h + (valence of Q) × i = 2, and g + h ≠ 0. (i) one selected from the group consisting of Ketjen black or graphite as a water-insoluble electrically conductive carbon material, and one selected from the group consisting of carbon obtained by carbonizing a water-soluble carbon precursor material, and (ii) 0.1 to 5 mass% of a metal fluoride
A balcony for attachment to a construction, there being a plurality of wall brackets fitted to the construction, the balcony comprising: a plurality of balcony brackets on one side of the balcony which are arranged to engage with the plurality of wall brackets, including a first balcony bracket arranged to engage with a first wall bracket and a second balcony bracket arranged to engage with a second wall bracket , so as to cause the weight of the balcony to be supported by the construction when the balcony is arranged in a mounted position, wherein the first balcony bracket is spaced apart from the second balcony bracket in a substantially vertical direction; and a latch assembly which is configured, when the balcony is arranged in the mounted position, to latch the first balcony bracket to the first wall bracket to securely attach the balcony to the construction, said balcony being characterized in that If the latch assembly comprises a latch which is configured to be movable from an unlatched configuration to a latched configuration by the balcony being moved into the mounted position. a plurality of balcony brackets on one side of the balcony which are arranged to engage with the plurality of wall brackets, including a first balcony bracket arranged to engage with a first wall bracket and a second balcony bracket arranged to engage with a second wall bracket , so as to cause the weight of the balcony to be supported by the construction when the balcony is arranged in a mounted position, wherein the first balcony bracket is spaced apart from the second balcony bracket in a substantially vertical direction; and a latch assembly which is configured, when the balcony is arranged in the mounted position, to latch the first balcony bracket to the first wall bracket to securely attach the balcony to the construction, said balcony being characterized in that If the latch assembly comprises a latch which is configured to be movable from an unlatched configuration to a latched configuration by the balcony being moved into the mounted position.
A pharmaceutical composition comprising an aromatic-cationic peptide or a pharmaceutically acceptable salt thereof and a pharmaceutically acceptable carrier for use in treating a subject suffering from an autoimmune disease characterized by an increased level of cardiolipin antibody, wherein the autoimmune disease is antiphospholipid syndrome, and wherein the peptide comprises D-Arg-2',6'-Dmt-Lys-Phe-NH 2 .
An oven muffle defining a cooking chamber with a front opening, wherein the muffle comprises: - a back wall , a roof wall , a floor wall and two side walls ; - at least one lighting device configured to illuminate the cooking chamber ; wherein the lighting device comprises: - a vertical light guide having a first portion inside the cooking chamber extending at a side wall from the floor wall to the roof wall and a second portion outside the cooking chamber beyond the roof wall ; characterised in that the lighting device further comprises - a LED source coupled to the end of the light guide outside the cooking chamber; and - a vertical support in the form of a shell made of silicone material which partially embraces the light guide along the whole of its extension within the cooking chamber . - a back wall , a roof wall , a floor wall and two side walls ; - at least one lighting device configured to illuminate the cooking chamber ; wherein the lighting device comprises: - a vertical light guide having a first portion inside the cooking chamber extending at a side wall from the floor wall to the roof wall and a second portion outside the cooking chamber beyond the roof wall ; - a vertical light guide having a first portion inside the cooking chamber extending at a side wall from the floor wall to the roof wall and a second portion outside the cooking chamber beyond the roof wall ; characterised in that the lighting device further comprises - a LED source coupled to the end of the light guide outside the cooking chamber; and - a vertical support in the form of a shell made of silicone material which partially embraces the light guide along the whole of its extension within the cooking chamber . - a LED source coupled to the end of the light guide outside the cooking chamber; and - a vertical support in the form of a shell made of silicone material which partially embraces the light guide along the whole of its extension within the cooking chamber .
A two-part fastener , comprising: a generally-cylindrical insert made of a first material and having a barrel with knurls on an outer surface thereof; a flange on said insert at a bottom end thereof; and, a generally-cylindrical, deformable sleeve made of a second material softer than said first material, having: a bottom end abutting the top of said flange ; a bottom portion rigidly affixed around a lower portion of said barrel by friction fit; and, a top portion with an enlarged internal diameter radially spaced away from an upper portion of said barrel, wherein the two-part fastener is adapted to be preassembled prior to placement into a panel hole. a generally-cylindrical insert made of a first material and having a barrel with knurls on an outer surface thereof; a flange on said insert at a bottom end thereof; and, a generally-cylindrical, deformable sleeve made of a second material softer than said first material, having: a bottom end abutting the top of said flange ; a bottom portion rigidly affixed around a lower portion of said barrel by friction fit; and, a top portion with an enlarged internal diameter radially spaced away from an upper portion of said barrel, a bottom end abutting the top of said flange ; a bottom portion rigidly affixed around a lower portion of said barrel by friction fit; and, a top portion with an enlarged internal diameter radially spaced away from an upper portion of said barrel, wherein the two-part fastener is adapted to be preassembled prior to placement into a panel hole.
A method for command line voting, the method comprising: obtaining, by an output logic device, a plurality of memory blocks from a plurality of buffers, each of the plurality of memory blocks comprising two or more output commands generated from a processing circuit based on a sensor data input; generating, by a hash function, a hash value that represents all the output commands of the two or more output commands for each memory block in the plurality of memory blocks; comparing the hash value for each memory block of the plurality of memory blocks to determine an output memory block from the plurality of memory blocks, wherein comparing to determine the output memory block comprises: comparing the hash value for each memory block in the plurality of memory blocks; and designating any of the plurality of memory blocks having matching values as the hash value as the output memory block based on the hash value for each of the plurality of memory blocks having a majority matching value; and outputting, to an output hardware, the two or more output commands from the output memory block. obtaining, by an output logic device, a plurality of memory blocks from a plurality of buffers, each of the plurality of memory blocks comprising two or more output commands generated from a processing circuit based on a sensor data input; generating, by a hash function, a hash value that represents all the output commands of the two or more output commands for each memory block in the plurality of memory blocks; comparing the hash value for each memory block of the plurality of memory blocks to determine an output memory block from the plurality of memory blocks, wherein comparing to determine the output memory block comprises: comparing the hash value for each memory block in the plurality of memory blocks; and designating any of the plurality of memory blocks having matching values as the hash value as the output memory block based on the hash value for each of the plurality of memory blocks having a majority matching value; and comparing the hash value for each memory block in the plurality of memory blocks; and designating any of the plurality of memory blocks having matching values as the hash value as the output memory block based on the hash value for each of the plurality of memory blocks having a majority matching value; and outputting, to an output hardware, the two or more output commands from the output memory block.
A printing apparatus comprising: an apparatus body ; a carriage ; an encoder configured to detect an amount of movement of the carriage in a main scanning direction; a detection target member disposed on the carriage and having a cutout portion halfway in the main scanning direction; a detector disposed on the apparatus body and configured to detect the detection target member ; and a controller configured to control a position setting operation for setting a home position of the carriage based on a detection result of detection or non-detection of the detection target member with the detector , characterised in that the controller is configured to: measure an output pulse of the encoder from when the detection result of the detector changes from detection to non-detection of the detection target member until when the detection result changes from non-detection to detection; and determine whether a measured value of the output pulse is equal to or greater than a predetermined value that is set in advance based on a width of the cutout portion in the main scanning direction. an apparatus body ; a carriage ; an encoder configured to detect an amount of movement of the carriage in a main scanning direction; a detection target member disposed on the carriage and having a cutout portion halfway in the main scanning direction; a detector disposed on the apparatus body and configured to detect the detection target member ; and a controller configured to control a position setting operation for setting a home position of the carriage based on a detection result of detection or non-detection of the detection target member with the detector , characterised in that the controller is configured to: measure an output pulse of the encoder from when the detection result of the detector changes from detection to non-detection of the detection target member until when the detection result changes from non-detection to detection; and determine whether a measured value of the output pulse is equal to or greater than a predetermined value that is set in advance based on a width of the cutout portion in the main scanning direction. measure an output pulse of the encoder from when the detection result of the detector changes from detection to non-detection of the detection target member until when the detection result changes from non-detection to detection; and determine whether a measured value of the output pulse is equal to or greater than a predetermined value that is set in advance based on a width of the cutout portion in the main scanning direction.
A method of delivering biomolecular cargo into cells or enveloped viruses, comprising: providing a microfluidic device comprising: a microfluidic substrate having one or more microfluidics channels disposed therein; a piezoelectric substrate disposed on the microfluidic substrate and having one or more pairs of interdigitated transducers (IDTs) disposed on opposing sides of the one or more microfluidic channels ; and a signal generator coupled to the one or more pairs of IDTs and configured to apply an AC voltage, wherein the microfluidic device has one or more harmonic resonant frequencies; flowing a solution containing the cells or enveloped viruses through the one or more microfluidic channels, wherein the biomolecular cargo is co-flowed with the solution of cells or enveloped viruses or contained in plasmids that are disposed along inner surfaces of the one or more microfluidic channels; and powering the piezoelectric substrate with the signal generator at one of the harmonic resonant frequencies while the solution containing the cells or enveloped viruses passes through the one or more microfluidic channels adjacent to the piezoelectric substrate , wherein bulk acoustic waves are generated in the one or more microfluidic channels temporarily induce pores in the cells or enveloped viruses that allow passage of the biomolecular cargo into the cells or enveloped viruses. providing a microfluidic device comprising: a microfluidic substrate having one or more microfluidics channels disposed therein; a piezoelectric substrate disposed on the microfluidic substrate and having one or more pairs of interdigitated transducers (IDTs) disposed on opposing sides of the one or more microfluidic channels ; and a signal generator coupled to the one or more pairs of IDTs and configured to apply an AC voltage, wherein the microfluidic device has one or more harmonic resonant frequencies; a microfluidic substrate having one or more microfluidics channels disposed therein; a piezoelectric substrate disposed on the microfluidic substrate and having one or more pairs of interdigitated transducers (IDTs) disposed on opposing sides of the one or more microfluidic channels ; and a signal generator coupled to the one or more pairs of IDTs and configured to apply an AC voltage, wherein the microfluidic device has one or more harmonic resonant frequencies; flowing a solution containing the cells or enveloped viruses through the one or more microfluidic channels, wherein the biomolecular cargo is co-flowed with the solution of cells or enveloped viruses or contained in plasmids that are disposed along inner surfaces of the one or more microfluidic channels; and powering the piezoelectric substrate with the signal generator at one of the harmonic resonant frequencies while the solution containing the cells or enveloped viruses passes through the one or more microfluidic channels adjacent to the piezoelectric substrate , wherein bulk acoustic waves are generated in the one or more microfluidic channels temporarily induce pores in the cells or enveloped viruses that allow passage of the biomolecular cargo into the cells or enveloped viruses.
Apparatus for Swept Source Optical Coherence Domain Reflectometry (SS OCDR) on movable samples which are human eyes, for obtaining A-scans with a measurement range corresponding to the sample size, comprising a tunable laser light source, and at least one receiver for the light backscattered from the sample, wherein an interferometer having a reference arm and a sample arm closed off by the sample are provided and a reference plane is settable via a path length difference between reference light path and sample light path, wherein the sample is illuminated with a measurement beam having the diameter D on the sample surface and a wavelength, wherein the light source has a laser linewidth δk < 168 m -1 , wherein the light source is tuned in a time of τ < 44 sec/(D*k 0 ) around a centroid wavenumber ko, and one of the three following options a) - c) is implemented: a) the reference plane is set behind the retina and a maximum laser linewidth is 93 m -1 , b) the reference plane is set between the cornea and retina and the maximum laser linewidth is 162 m -1 ,and c) the reference plane is set in front of the cornea and the maximum laser linewidth is 81 m -1 . for obtaining A-scans with a measurement range corresponding to the sample size, comprising a tunable laser light source, and at least one receiver for the light backscattered from the sample, wherein an interferometer having a reference arm and a sample arm closed off by the sample are provided and a reference plane is settable via a path length difference between reference light path and sample light path, wherein the sample is illuminated with a measurement beam having the diameter D on the sample surface and a wavelength, wherein the light source has a laser linewidth δk < 168 m -1 , wherein the light source is tuned in a time of τ < 44 sec/(D*k 0 ) around a centroid wavenumber ko, and one of the three following options a) - c) is implemented: a) the reference plane is set behind the retina and a maximum laser linewidth is 93 m -1 , b) the reference plane is set between the cornea and retina and the maximum laser linewidth is 162 m -1 ,and c) the reference plane is set in front of the cornea and the maximum laser linewidth is 81 m -1 . a) the reference plane is set behind the retina and a maximum laser linewidth is 93 m -1 , b) the reference plane is set between the cornea and retina and the maximum laser linewidth is 162 m -1 ,and c) the reference plane is set in front of the cornea and the maximum laser linewidth is 81 m -1 .
A brush seal (90A,B;100) for a turbine engine comprising: a backing plate ; and a first bristled region extending in a first direction from the backing plate ; characterised in that : the first bristled region comprises: a nickel-based superalloy having at least 40% of a Ni 3 (Al,X) precipitate phase, X being a metallic or refractory element other than Al; and a plurality of combs secured to the backing plate , each comb including at least one complete row of bristles (130A,130B;230;330) forming a portion of the first bristled region . a backing plate ; and a first bristled region extending in a first direction from the backing plate ; characterised in that : the first bristled region comprises: a nickel-based superalloy having at least 40% of a Ni 3 (Al,X) precipitate phase, X being a metallic or refractory element other than Al; and a plurality of combs secured to the backing plate , each comb including at least one complete row of bristles (130A,130B;230;330) forming a portion of the first bristled region . a nickel-based superalloy having at least 40% of a Ni 3 (Al,X) precipitate phase, X being a metallic or refractory element other than Al; and a plurality of combs secured to the backing plate , each comb including at least one complete row of bristles (130A,130B;230;330) forming a portion of the first bristled region .
A bellcrank for a variable adjustment device for an aircraft turbomachine, this bellcrank comprising a one-part body comprising a first articulation part configured to be connected to a control box of the device a second articulation part configured to be connected to a synchronization bar of the device, a third articulation part configured to be connected to a piston rod of an actuator (A) of the device, and a fourth articulation part configured to be connected to a turnbuckle of the device, the third articulation part comprising a first tab which comprises a first orifice configured to receive an axle for articulating the piston rod and which extends in a plane P perpendicular to the axis of this orifice, characterized in that the first articulation part comprises a second tab extending in said plane P and a tubular portion at a distance from said plane P, the second tab and the tubular portion comprising orifices with aligned axes which are configured to receive a common axle for articulating the control box and which are parallel to the axis of the first orifice, the second tab being separated from the tubular portion by a free space.
A turning tool comprising a tool body having an insert seat for accommodating a cutting insert , which has a cutting edge and a therewith associated clearance surface, a guiding block movably mounted at the tool body between a first position and a second position, and a fluid passage with an inlet end and at least one outlet which is arranged to guide a cooling fluid from the inlet end to the at least one outlet of the fluid passage , wherein the at least one outlet is arranged to eject a jet of the cooling fluid towards an area where the clearance surface is located when the cutting insert is accommodated on the insert seat , wherein a first section of the fluid passage extends through the tool body , wherein a second section of the fluid passage extends through the guiding block , and wherein the at least one outlet forms an end of the second section of the fluid passage in the guiding block , characterized in that at least the tool body or the guiding block is arranged such that when the guiding block is in the first position the jet of cooling fluid is ejected along a first line and such that when the guiding block is in the second position the jet of cooling fluid is ejected along a second line, wherein the first line and the second line have different orientations and intersect each other at a position in a downstream direction from the at least one outlet . a tool body having an insert seat for accommodating a cutting insert , which has a cutting edge and a therewith associated clearance surface, a guiding block movably mounted at the tool body between a first position and a second position, and a fluid passage with an inlet end and at least one outlet which is arranged to guide a cooling fluid from the inlet end to the at least one outlet of the fluid passage , wherein the at least one outlet is arranged to eject a jet of the cooling fluid towards an area where the clearance surface is located when the cutting insert is accommodated on the insert seat , wherein a first section of the fluid passage extends through the tool body , wherein a second section of the fluid passage extends through the guiding block , and wherein the at least one outlet forms an end of the second section of the fluid passage in the guiding block ,
A first management device managing a plurality of first network nodes , wherein the first management device is not configured to communicate directly with a plurality of second network nodes which are managed by a second management device, wherein at least one first network node and at least one second network node are configured to communicate with each other via an X2 interface, characterized by comprising: selection means for selecting one of the at least one first network node as a designated network node from among the plurality of first network nodes, wherein the designated network acquires operation information on a second network node managed by the at least one second management device via the X2 interface; and communication means for receiving the operation information on the second network node from the designated network node. selection means for selecting one of the at least one first network node as a designated network node from among the plurality of first network nodes, wherein the designated network acquires operation information on a second network node managed by the at least one second management device via the X2 interface; and communication means for receiving the operation information on the second network node from the designated network node.