mhurhangee/patent-ind-claim-en huggingface dataset:
Siphon system for mounting in a receiving gutter , comprising; a pipe coupling piece comprising a transfer pipe segment with an entrance end and a pipe part , wherein the transfer pipe segment at the entrance end is provided with a mounting flange having a coupling face at its side directed away from the pipe part ; a collecting tray intended for placement in a receiving gutter, with a passage opening formed in one of its side walls and provided with a connection flange having a coupling face at its side directed away from the tray ; coupling means designed for coupling the connection flange of the collecting tray to the mounting flange of the transfer pipe segment , which coupling means allow a vertical displacement of the collecting tray with respect to the mounting flange of the transfer pipe segment ; and wherein the collecting tray from a disconnected position can be brought, by means of a sliding movement directed downwards, to a position coupled to the mounting flange in which the passage opening communicates with the transfer pipe segment and in which the coupling faces are connected to each other in a substantially water-tight manner; characterized in that the coupling means comprise two guide members directed substantially vertically and having a substantially L-shaped cross-section.
An in vitro method for determining the risk of occurrence of long-term kidney graft dysfunction in a subject, said subject being a kidney recipient with current stable graft function, comprising: a) measuring the level of CD8 + T cells having a phenotype CD45RA + /CD197 - /CD27 - /CD28 - in a blood sample of the subject, b) comparing the level of CD8 + T cells having a phenotype CD45RA + /CD197 - /CD27 - /CD28 - measured at step a) with one or more reference values of the level of CD8 + T cells having a phenotype CD45RA + /CD197 - /CD27 - /CD28 - , and c) determining the risk of occurrence of long-term kidney graft dysfunction in the said subject from the comparison performed at step b), wherein an increased level of CD8 + T cells having a phenotype CD45RA + /CD197 - /CD27 - /CD28 - is indicative of a risk of occurrence of long-term kidney graft dysfunction. a) measuring the level of CD8 + T cells having a phenotype CD45RA + /CD197 - /CD27 - /CD28 - in a blood sample of the subject, b) comparing the level of CD8 + T cells having a phenotype CD45RA + /CD197 - /CD27 - /CD28 - measured at step a) with one or more reference values of the level of CD8 + T cells having a phenotype CD45RA + /CD197 - /CD27 - /CD28 - , and c) determining the risk of occurrence of long-term kidney graft dysfunction in the said subject from the comparison performed at step b), wherein an increased level of CD8 + T cells having a phenotype CD45RA + /CD197 - /CD27 - /CD28 - is indicative of a risk of occurrence of long-term kidney graft dysfunction.
A method comprising: detecting a finger pattern associated with a physical interaction of a user with a touch screen of an electronic device ; acquiring sensory input associated with the user other than a characteristic of the physical interaction of the user with the touch screen , the acquired sensory input comprising sensory data indicating whether the user of the electronic device is recognized and whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen ; determining whether the physical interaction is associated with an intent to use the touch screen for key-based input entry based at least in part on the sensory input, wherein determining whether the physical interaction is associated with the intent to use the touch screen for key-based input entry comprises processing the sensory input to: identify the user; determine whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen at least by filtering the sensory input based on contact time of the physical interaction; time; and determine whether the user is authenticated based on the identification of the user; and controlling a user interface for the electronic device based at least in part on the detected finger pattern and the determined intent. detecting a finger pattern associated with a physical interaction of a user with a touch screen of an electronic device ; acquiring sensory input associated with the user other than a characteristic of the physical interaction of the user with the touch screen , the acquired sensory input comprising sensory data indicating whether the user of the electronic device is recognized and whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen ; determining whether the physical interaction is associated with an intent to use the touch screen for key-based input entry based at least in part on the sensory input, wherein determining whether the physical interaction is associated with the intent to use the touch screen for key-based input entry comprises processing the sensory input to: identify the user; determine whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen at least by filtering the sensory input based on contact time of the physical interaction; time; and determine whether the user is authenticated based on the identification of the user; and identify the user; determine whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen at least by filtering the sensory input based on contact time of the physical interaction; time; and determine whether the user is authenticated based on the identification of the user; and controlling a user interface for the electronic device based at least in part on the detected finger pattern and the determined intent.
An inlet for a turbofan engine , the inlet comprising: an inner barrel and an outer barrel configured to form an inlet cowl , the inner barrel including an acoustic panel ; and the inlet cowl including: a lipskin disposed at a forward end of the inlet cowl; a bulkhead disposed between the inner barrel and the outer barrel ; and wherein the lipskin comprises a porous panel , a cavity formed between the porous panel and an inner wall of the inlet, and a porous membrane located in the cavity , wherein, in use, ice protection fluid flows from the porous panel onto the acoustic panel; wherein the outer barrel has a length extending aft of an interface between the inner barrel and a fan case connected to the inner barrel such that, in use, an aerodynamic transition is located aft of the interface . an inner barrel and an outer barrel configured to form an inlet cowl , the inner barrel including an acoustic panel ; and the inlet cowl including: a lipskin disposed at a forward end of the inlet cowl; a bulkhead disposed between the inner barrel and the outer barrel ; and wherein the lipskin comprises a porous panel , a cavity formed between the porous panel and an inner wall of the inlet, and a porous membrane located in the cavity , wherein, in use, ice protection fluid flows from the porous panel onto the acoustic panel; wherein the outer barrel has a length extending aft of an interface between the inner barrel and a fan case connected to the inner barrel such that, in use, an aerodynamic transition is located aft of the interface . a lipskin disposed at a forward end of the inlet cowl; a bulkhead disposed between the inner barrel and the outer barrel ; and wherein the lipskin comprises a porous panel , a cavity formed between the porous panel and an inner wall of the inlet, and a porous membrane located in the cavity , wherein, in use, ice protection fluid flows from the porous panel onto the acoustic panel; wherein the outer barrel has a length extending aft of an interface between the inner barrel and a fan case connected to the inner barrel such that, in use, an aerodynamic transition is located aft of the interface .
A battery module (A) comprising: battery cells having electrode leads ; a harness isolation plate assembly , wherein the harness isolation plate assembly comprises: a plurality of isolation units comprising busbars and insulating films connecting the busbars ; connecting assembly , the adjacent isolation units being connected through the connecting assembly ; wherein the connecting assembly comprises a first connecting component and a second connecting component ; one of the first connecting component and the second connecting component is provided with protrusions , the other of the first connecting component and the second connecting component is provided with coordinating holes , and the protrusions are connected to the coordinating holes ; wherein the isolation unit is provided with connecting holes ; at least part of the isolation unit is located between the first connecting component and the second connecting component ; the protrusions are connected to the coordinating holes and the connecting holes ; the busbars of the harness isolation plate assembly are connected to the electrode leads . battery cells having electrode leads ; a harness isolation plate assembly , wherein the harness isolation plate assembly comprises: a plurality of isolation units comprising busbars and insulating films connecting the busbars ; connecting assembly , the adjacent isolation units being connected through the connecting assembly ; wherein the connecting assembly comprises a first connecting component and a second connecting component ; one of the first connecting component and the second connecting component is provided with protrusions , the other of the first connecting component and the second connecting component is provided with coordinating holes , and the protrusions are connected to the coordinating holes ; wherein the isolation unit is provided with connecting holes ; at least part of the isolation unit is located between the first connecting component and the second connecting component ; the protrusions are connected to the coordinating holes and the connecting holes ; the busbars of the harness isolation plate assembly are connected to the electrode leads . a plurality of isolation units comprising busbars and insulating films connecting the busbars ; connecting assembly , the adjacent isolation units being connected through the connecting assembly ; wherein the connecting assembly comprises a first connecting component and a second connecting component ; one of the first connecting component and the second connecting component is provided with protrusions , the other of the first connecting component and the second connecting component is provided with coordinating holes , and the protrusions are connected to the coordinating holes ; wherein the isolation unit is provided with connecting holes ; at least part of the isolation unit is located between the first connecting component and the second connecting component ; the protrusions are connected to the coordinating holes and the connecting holes ; the busbars of the harness isolation plate assembly are connected to the electrode leads .
Amine-functional adduct from the reaction of (i) at least one diamine of formula (I) where A is an alkylene radical, cycloalkylene radical or arylalkylene radical having 2 to 12 carbon atoms, and R is an alkyl radical, cycloalkyl radical or arylalkyl radical having 1 to 12 carbon atoms, wherein the two nitrogen atoms are separated from one another by at least two carbon atoms and the diamine of formula (I) has a total of 8 to 15 carbon atoms, with (ii) at least one aromatic diepoxide in a stoichiometric ratio within a range from 1.3 to 1.7 moles of diamine to 1 molar equivalent of epoxy groups. (i) at least one diamine of formula (I) where A is an alkylene radical, cycloalkylene radical or arylalkylene radical having 2 to 12 carbon atoms, and R is an alkyl radical, cycloalkyl radical or arylalkyl radical having 1 to 12 carbon atoms, wherein the two nitrogen atoms are separated from one another by at least two carbon atoms and the diamine of formula (I) has a total of 8 to 15 carbon atoms, with A is an alkylene radical, cycloalkylene radical or arylalkylene radical having 2 to 12 carbon atoms, and R is an alkyl radical, cycloalkyl radical or arylalkyl radical having 1 to 12 carbon atoms, wherein the two nitrogen atoms are separated from one another by at least two carbon atoms and the diamine of formula (I) has a total of 8 to 15 carbon atoms, with (ii) at least one aromatic diepoxide
A device for powering at least one electronic device comprising: a thermoelectric generator unit comprising thermoelectric couples, the couples for connection across a temperature gradient, which temperature gradient reverses over a diurnal cycle; the device configured with feed forward maximum power point tracking control of said thermoelectric generator unit to account for changing temperature conditions, and feed back maximum power point tracking control of said thermoelectric generator unit to correct errors in said feed forward maximum power point tracking control and to find an exact power point by maximization of an output power, the device connected between two bodies of different material, or the device being fitted between two locations having different thermal properties, said feedforward and feedback combining to provide power generation over both halves of a diurnal cycle, thereby to extract electrical energy from said gradient, a diurnal source causing said temperature gradient to reverse direction over said diurnal cycle, the device thereby being controllable via said feed forward and feed back maximum power point tracking, to extract said electrical energy over both parts of said cycle. a thermoelectric generator unit comprising thermoelectric couples, the couples for connection across a temperature gradient, which temperature gradient reverses over a diurnal cycle; the device configured with feed forward maximum power point tracking control of said thermoelectric generator unit to account for changing temperature conditions, and feed back maximum power point tracking control of said thermoelectric generator unit to correct errors in said feed forward maximum power point tracking control and to find an exact power point by maximization of an output power, the device connected between two bodies of different material, or the device being fitted between two locations having different thermal properties, said feedforward and feedback combining to provide power generation over both halves of a diurnal cycle, thereby to extract electrical energy from said gradient, a diurnal source causing said temperature gradient to reverse direction over said diurnal cycle, the device thereby being controllable via said feed forward and feed back maximum power point tracking, to extract said electrical energy over both parts of said cycle.
Delivery unit for metering media which are highly viscous, which outgas under ambient conditions or which are critical, comprising a metering pump that has a metering head for quantity-defined delivery of medium , which is introduced into the metering head , into a discharge line of the metering pump , the metering head being connected, on the supply side, to the discharge line of a peristaltic pump for filling the metering head , while a supply line of the peristaltic pump is connected to a media container , characterized in that the peristaltic pump is designed such that a first delivery volumetric flow rate generated thereby is at least as large as a second delivery volumetric flow rate generated by the metering pump .
A method of preparing a thermoplastic resin, comprising: A) performing acid coagulation of emulsion polymerization latex; B) treating coagulated slurry with a base and performing dehydration; and C) adding a metal salt and water to dehydrated wet powder to adjust pH to 9 or more. A) performing acid coagulation of emulsion polymerization latex; B) treating coagulated slurry with a base and performing dehydration; and C) adding a metal salt and water to dehydrated wet powder to adjust pH to 9 or more.
A magnetic field sensor , comprising: first and second magnetic field sensing elements having respective first and second maximum response axes, the first and second maximum response axes pointing along respective first and second different coordinate axes, wherein, in response to a magnetic field, the first and second magnetic field sensing elements are operable to generate first and second magnetic field signals; and an electronic circuit coupled to receive the first and the second magnetic field signals, wherein the electronic circuit is configured to: determine a vector having first and second vector components in accordance with the first and the second magnetic field signals; and use the first and second vector components to look up respective first and second vector component values in a table to determine if the vector is outside a predetermined shape, characterized in that : the vector being outside the predetermined shape is indicated by a magnitude of the vector exceeding a threshold which varies as a function of a phase of the vector. first and second magnetic field sensing elements having respective first and second maximum response axes, the first and second maximum response axes pointing along respective first and second different coordinate axes, wherein, in response to a magnetic field, the first and second magnetic field sensing elements are operable to generate first and second magnetic field signals; and an electronic circuit coupled to receive the first and the second magnetic field signals, wherein the electronic circuit is configured to: determine a vector having first and second vector components in accordance with the first and the second magnetic field signals; and use the first and second vector components to look up respective first and second vector component values in a table to determine if the vector is outside a predetermined shape, characterized in that : the vector being outside the predetermined shape is indicated by a magnitude of the vector exceeding a threshold which varies as a function of a phase of the vector. determine a vector having first and second vector components in accordance with the first and the second magnetic field signals; and use the first and second vector components to look up respective first and second vector component values in a table to determine if the vector is outside a predetermined shape, characterized in that : the vector being outside the predetermined shape is indicated by a magnitude of the vector exceeding a threshold which varies as a function of a phase of the vector.
A frameless door for refrigerators, comprising: - a pair of plates , made of thermally insulating material, facing and joined by a spacer which divides an interspace between the plates of the pair of plates in a closed chamber - a heating element fixed to one of the plates inside the closed chamber ; - an electrical connection element provided with at least one elongated section contained in a housing seat (S) and a first end connected to the heating element ; - said housing seat (S) ends with an outlet opening at a second side adjacent to the first side of the pair of plates ; the electrical connection element being provided with an opposing second end which protrudes out of the outlet opening of the housing seat (S) characterized by comprising: - at least one longitudinal channel parallel to a first side of the pair of plates, the housing seat (S) being contained in the longitudinal channel which extends longitudinally along an axial section of the longitudinal channel , the spacer comprising at least one or two vertical longitudinal members parallel to the second side of the pair of plates and opposed, wherein each vertical longitudinal member is optically transparent. - a pair of plates , made of thermally insulating material, facing and joined by a spacer which divides an interspace between the plates of the pair of plates in a closed chamber - a heating element fixed to one of the plates inside the closed chamber ; - an electrical connection element provided with at least one elongated section contained in a housing seat (S) and a first end connected to the heating element ; - said housing seat (S) ends with an outlet opening at a second side adjacent to the first side of the pair of plates ; the electrical connection element being provided with an opposing second end which protrudes out of the outlet opening of the housing seat (S) - at least one longitudinal channel parallel to a first side of the pair of plates, the housing seat (S) being contained in the longitudinal channel which extends longitudinally along an axial section of the longitudinal channel , the spacer comprising at least one or two vertical longitudinal members parallel to the second side of the pair of plates and opposed, wherein each vertical longitudinal member is optically transparent.
A composition comprising: (A) from 10 wt% to 80 wt% of a polymeric ethylene ionomer; (B) from 10 wt% to 40 wt% of a propylene component including at least one propylene based polymer having a propylene content of at least 50.0 wt%, based on the total weight of the propylene based polymer, and a melt flow rate from 0.5 g/10 min to 50 g/10 min (according to ASTM D-1238 at 230°C/2.16 kg); (C) from 5 wt% to 20 wt% of a crystalline block composite comprising (i) a crystalline ethylene based polymer, (ii) a crystalline alpha-olefin based polymer derived from at least one C 3-10 alpha-olefin, and (iii) a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block, the crystalline ethylene block of the block copolymer having the same composition as the crystalline ethylene based polymer of the crystalline block composite, and the crystalline alpha-olefin block of the block copolymer having the same composition as the crystalline alpha-olefin based polymer of the crystalline block composite. (A) from 10 wt% to 80 wt% of a polymeric ethylene ionomer; (B) from 10 wt% to 40 wt% of a propylene component including at least one propylene based polymer having a propylene content of at least 50.0 wt%, based on the total weight of the propylene based polymer, and a melt flow rate from 0.5 g/10 min to 50 g/10 min (according to ASTM D-1238 at 230°C/2.16 kg); (C) from 5 wt% to 20 wt% of a crystalline block composite comprising (i) a crystalline ethylene based polymer, (ii) a crystalline alpha-olefin based polymer derived from at least one C 3-10 alpha-olefin, and (iii) a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block, the crystalline ethylene block of the block copolymer having the same composition as the crystalline ethylene based polymer of the crystalline block composite, and the crystalline alpha-olefin block of the block copolymer having the same composition as the crystalline alpha-olefin based polymer of the crystalline block composite.
A unimolecular FRET probe, comprising: an acceptor consisting of a fluorescent protein to be enzymatically degraded inside a lysosome or a vacuole; and a donor having an amino acid sequence having a sequence identity of 95% or more with respect to an amino acid sequence represented by SEQ ID NO: 1, wherein the amino acid sequence of the donor has five or more of Q62, Y63, G64, S58, S60, A82, D142, V173, E182, S184, E199, C210, and A217, when the amino acids of the donor are counted from the second position of SEQ ID NO: 1. an acceptor consisting of a fluorescent protein to be enzymatically degraded inside a lysosome or a vacuole; and a donor having an amino acid sequence having a sequence identity of 95% or more with respect to an amino acid sequence represented by SEQ ID NO: 1, wherein the amino acid sequence of the donor has five or more of Q62, Y63, G64, S58, S60, A82, D142, V173, E182, S184, E199, C210, and A217, when the amino acids of the donor are counted from the second position of SEQ ID NO: 1.