mhurhangee/patent-ind-claim-en huggingface dataset:
Computer system for managing the execution of threads, comprising: - at least one central processing unit having interleaved execution of a plurality of threads throughout two virtual processors from said same central processing unit, one associated with a first type (C) of threads, the other associated with a second type (S) of threads, - means for classifying the threads to be executed according either to the first type, or the second type, and - a handler for distributing the execution of the threads throughout the virtual processors, designed for directing each thread to be executed to a virtual processor whose type is identical to the type thereof, wherein: - the first type (C) of threads, referred to as "calculation", relates, for a program intended to be executed by the computer system so as to provide a result, to threads participating to the execution of this program for the direct production of the result, and - the second type (S) of threads, referred to as "service", relates to threads participating to the execution of this program to provide annex services to threads of the "calculation" type. - at least one central processing unit having interleaved execution of a plurality of threads throughout two virtual processors from said same central processing unit, one associated with a first type (C) of threads, the other associated with a second type (S) of threads, - means for classifying the threads to be executed according either to the first type, or the second type, and - a handler for distributing the execution of the threads throughout the virtual processors, designed for directing each thread to be executed to a virtual processor whose type is identical to the type thereof, - the first type (C) of threads, referred to as "calculation", relates, for a program intended to be executed by the computer system so as to provide a result, to threads participating to the execution of this program for the direct production of the result, and - the second type (S) of threads, referred to as "service", relates to threads participating to the execution of this program to provide annex services to threads of the "calculation" type.
A wireless blasting system which includes a plurality of wireless detonator assemblies each of which is configured to be placed into an operative mode or into an inoperative mode, a blast zone which includes a plurality of boreholes into each of which at least one said wireless detonator assembly is installed, one or more defined access routes to the blast zone , control apparatus operative to transmit command signals to the plurality of wireless detonator assemblies , and a plurality of monitoring devices , characterised in that , at least one monitoring device is positioned adjacent a respective access route , each monitoring device being configured to initiate corrective action in respect of a said wireless detonator assembly which is in an operative mode, which has been removed from the blast zone and which is in the said access route .
A containment arrangement for a gas turbine engine, the containment arrangement comprising: a radially outer annular casing ; a fan track liner radially within the casing comprising an impact region comprising a cellular material having a first compressive strength; and a gas-washed layer radially within the fan track liner ; characterized in that the fan track liner further comprises: a plurality of elongate ridge portions circumferentially spaced apart; each elongate ridge portion extending through the impact region along a respective elongate direction having an axial component; each ridge portion having a second compressive strength higher than the first compressive strength; and a plurality of panels , each panel forming an impact portion of the impact region , wherein each panel comprises the cellular material having the first compressive strength, and wherein each ridge portion is disposed between two respective adjacent panels . a radially outer annular casing ; a fan track liner radially within the casing comprising an impact region comprising a cellular material having a first compressive strength; and a gas-washed layer radially within the fan track liner ; characterized in that the fan track liner further comprises: a plurality of elongate ridge portions circumferentially spaced apart; each elongate ridge portion extending through the impact region along a respective elongate direction having an axial component; each ridge portion having a second compressive strength higher than the first compressive strength; and a plurality of panels , each panel forming an impact portion of the impact region , wherein each panel comprises the cellular material having the first compressive strength, and wherein each ridge portion is disposed between two respective adjacent panels . a plurality of elongate ridge portions circumferentially spaced apart; each elongate ridge portion extending through the impact region along a respective elongate direction having an axial component; each ridge portion having a second compressive strength higher than the first compressive strength; and a plurality of panels , each panel forming an impact portion of the impact region , wherein each panel comprises the cellular material having the first compressive strength, and wherein each ridge portion is disposed between two respective adjacent panels .
A method for determining total concentration of polyelectrolyte or phosphonate in a sample comprising two or more polyelectrolytes and/or phosphonates, the method comprising - optionally diluting and/or purifying the sample, - acidifying the sample to pH less than 6, - admixing the acidified sample with a reagent comprising lanthanide(III) ion, - allowing the polyelectrolyte or phosphonate in the sample to interact with the reagent comprising the lanthanide(III) ion, - exciting the sample at an excitation wavelength and detecting a sample signal deriving from the lanthanide(III) ion at a signal wavelength by using time-resolved fluorescence, and - determining the total concentration of the polyelectrolyte or phosphonate in the sample by using the detected sample signal. - optionally diluting and/or purifying the sample, - acidifying the sample to pH less than 6, - admixing the acidified sample with a reagent comprising lanthanide(III) ion, - allowing the polyelectrolyte or phosphonate in the sample to interact with the reagent comprising the lanthanide(III) ion, - exciting the sample at an excitation wavelength and detecting a sample signal deriving from the lanthanide(III) ion at a signal wavelength by using time-resolved fluorescence, and - determining the total concentration of the polyelectrolyte or phosphonate in the sample by using the detected sample signal.
A method for restricting access of a terminal device, comprising: receiving , by an access network device, a second identifier that is from a security function network element, wherein the second identifier is used to identify a terminal device having abnormal behavior; wherein the terminal device is in an inactive state in a connection with the access network device and adding , by the access network device, a restriction indication to an access stratum context of the terminal device being in the inactive state based on the second identifier, wherein the access stratum context of the terminal device being in the inactive state is a part of an access stratum context of the terminal device being in a connected state with the access network device; receiving , by an access network device, a request from a first terminal device that is in an inactive state to resume a radio resource control, RRC, connection with the access network device, wherein the request comprises a first identifier which is used to identify the first terminal device; obtaining , by the access network device, an access stratum context of the first terminal device being in the inactive state based on the first identifier; and if the access stratum context of the first terminal device comprises the restriction indication, restricting , by the access network device, access of the first terminal device to the access network device, wherein the restriction information is used to indicate that the first terminal device is a terminal device whose access needs to be restricted. receiving , by an access network device, a second identifier that is from a security function network element, wherein the second identifier is used to identify a terminal device having abnormal behavior; wherein the terminal device is in an inactive state in a connection with the access network device and adding , by the access network device, a restriction indication to an access stratum context of the terminal device being in the inactive state based on the second identifier, wherein the access stratum context of the terminal device being in the inactive state is a part of an access stratum context of the terminal device being in a connected state with the access network device; receiving , by an access network device, a request from a first terminal device that is in an inactive state to resume a radio resource control, RRC, connection with the access network device, wherein the request comprises a first identifier which is used to identify the first terminal device; obtaining , by the access network device, an access stratum context of the first terminal device being in the inactive state based on the first identifier; and if the access stratum context of the first terminal device comprises the restriction indication, restricting , by the access network device, access of the first terminal device to the access network device, wherein the restriction information is used to indicate that the first terminal device is a terminal device whose access needs to be restricted.
A laundry care or dish care composition comprising a poly alpha-1,6-glucan derivative, wherein the poly alpha-1,6-glucan derivative comprises: (i) a poly alpha-1,6-glucan backbone of glucose monomer units, wherein greater than or equal to 40% of the glucose monomer units are linked via alpha-1,6 glycosidic linkages, and optionally at least 5% of the backbone glucose monomer units have branches via alpha-1,2 and/or alpha-1,3 glycosidic linkages; and (ii) at least one hydrophobic organic group linked to the poly alpha-1,6-glucan backbone through an ether (-O-) linkage moiety; wherein, the poly alpha-1,6-glucan backbone has a weight average degree of polymerization of at least 5; wherein, the poly alpha-1,6-glucan derivative has a degree of substitution of ether linkage moiety of from 0.20 to 1.00; and wherein the poly alpha-1,6-glucan derivative is substantially free from hydrophilic substitution. (i) a poly alpha-1,6-glucan backbone of glucose monomer units, wherein greater than or equal to 40% of the glucose monomer units are linked via alpha-1,6 glycosidic linkages, and optionally at least 5% of the backbone glucose monomer units have branches via alpha-1,2 and/or alpha-1,3 glycosidic linkages; and (ii) at least one hydrophobic organic group linked to the poly alpha-1,6-glucan backbone through an ether (-O-) linkage moiety; wherein, the poly alpha-1,6-glucan backbone has a weight average degree of polymerization of at least 5; wherein, the poly alpha-1,6-glucan derivative has a degree of substitution of ether linkage moiety of from 0.20 to 1.00; and wherein the poly alpha-1,6-glucan derivative is substantially free from hydrophilic substitution.
A negative electrode for a non-aqueous electrolyte secondary battery, comprising: a negative electrode current collector ; a first negative electrode mixture layer disposed on a surface of the negative electrode current collector ; and a second negative electrode mixture layer disposed on a surface of the first negative electrode mixture layer ; wherein the first negative electrode mixture layer includes a first carbon material having a true density of 2.1 g/cm 3 to 2.3 g/cm 3 , the second negative electrode mixture layer includes a second carbon material having a true density of 1.5 g/cm 3 to 2.0 g/cm 3 , a ratio of voids between particles of the second carbon material in the second negative electrode mixture layer is higher than a ratio of voids between particles of the first carbon material in the first negative electrode mixture layer , and a mass ratio between the first negative electrode mixture layer and the second negative electrode mixture layer is 95:5 to 80:20. a negative electrode current collector ; a first negative electrode mixture layer disposed on a surface of the negative electrode current collector ; and a second negative electrode mixture layer disposed on a surface of the first negative electrode mixture layer ; wherein the first negative electrode mixture layer includes a first carbon material having a true density of 2.1 g/cm 3 to 2.3 g/cm 3 , the second negative electrode mixture layer includes a second carbon material having a true density of 1.5 g/cm 3 to 2.0 g/cm 3 , a ratio of voids between particles of the second carbon material in the second negative electrode mixture layer is higher than a ratio of voids between particles of the first carbon material in the first negative electrode mixture layer , and a mass ratio between the first negative electrode mixture layer and the second negative electrode mixture layer is 95:5 to 80:20.
A manufacturing method of a battery pack which includes a cell stack that is a stack of a plurality of single cells and a cooler that includes a refrigerant flow passage , and in which a cooled portion that is at least a part of a surface of the cell stack extending along a stacking direction of the single cells is attached to the cooler , with a viscous body layer interposed between the cooled portion and the cooler , the manufacturing method comprising: forming the viscous body layer on the cooler such that an opposed surface of the viscous body layer facing the cooled portion has a vertex at which a perpendicular distance from a surface of the viscous body layer opposed to the opposed surface is longest, and that the perpendicular distance decreases continuously and monotonically in directions away from the vertex, as seen in a sectional view of the viscous body layer from a long-side direction of the viscous body layer ; and before hardening of the viscous body layer on the cooler is completed, attaching the cell stack to the cooler while pressing the opposed surface with the cooled portion . forming the viscous body layer on the cooler such that an opposed surface of the viscous body layer facing the cooled portion has a vertex at which a perpendicular distance from a surface of the viscous body layer opposed to the opposed surface is longest, and that the perpendicular distance decreases continuously and monotonically in directions away from the vertex, as seen in a sectional view of the viscous body layer from a long-side direction of the viscous body layer ; and before hardening of the viscous body layer on the cooler is completed, attaching the cell stack to the cooler while pressing the opposed surface with the cooled portion .
A method for preparing an immunoglobulin preparation enriched in brain disease-related immunoglobulins, the method comprising the steps: (A) providing a plasma-derived immunoglobulin composition comprising IgG immunoglobulins, the IgG immunoglobulins including an anti-amyloid beta immunoglobulin, an anti-RAGE immunoglobulin, an anti-α-synuclein immunoglobulin, or another immunoglobulin specific to a brain disease-related protein; (B) binding the IgG immunoglobulins to a cation exchange material; (C) eluting a majority of the bound IgG immunoglobulins from the cation exchange material, in a first cation exchange elution step, using a first cation exchange elution buffer having a pH of 4.0 to 10.0 and a conductivity of 3.0 mS/cm to 16.0 mS/cm: (D) eluting IgG immunoglobulins remaining bound to the cation exchange material, in a second cation exchange elution step, using a second cation exchange elution buffer having a pH of 4.0 to 10.0 and a conductivity of 10.0 mS/cm to 300.0 mS/cm; and (E) recovering an eluate enriched in anti-amyloid beta immunoglobulins, anti-RAGE immunoglobulins, and anti-α-synuclein immunoglobulins, other immunoglobulins specific to a brain disease-related protein, or a combination thereof. (A) providing a plasma-derived immunoglobulin composition comprising IgG immunoglobulins, the IgG immunoglobulins including an anti-amyloid beta immunoglobulin, an anti-RAGE immunoglobulin, an anti-α-synuclein immunoglobulin, or another immunoglobulin specific to a brain disease-related protein; (B) binding the IgG immunoglobulins to a cation exchange material; (C) eluting a majority of the bound IgG immunoglobulins from the cation exchange material, in a first cation exchange elution step, using a first cation exchange elution buffer having a pH of 4.0 to 10.0 and a conductivity of 3.0 mS/cm to 16.0 mS/cm: (D) eluting IgG immunoglobulins remaining bound to the cation exchange material, in a second cation exchange elution step, using a second cation exchange elution buffer having a pH of 4.0 to 10.0 and a conductivity of 10.0 mS/cm to 300.0 mS/cm; and (E) recovering an eluate enriched in anti-amyloid beta immunoglobulins, anti-RAGE immunoglobulins, and anti-α-synuclein immunoglobulins, other immunoglobulins specific to a brain disease-related protein, or a combination thereof.
A drill bit for percussive drilling, comprising - a head portion having a circumference and a face surface , the face surface being arranged for receiving a plurality of inserts; - a shank portion extending longitudinally from a side of the head portion opposite to the face surface, the shank portion being arranged for coupling the drill bit to a drill string in a rotation and percussion transmitting manner; - a central flushing channel extending longitudinally through the shank portion and a distance within the head portion , and - a lateral flushing channel extending from the central flushing channel to the circumference of the head portion , wherein the lateral flushing channel comprises: a first portion connecting said lateral flushing channel to the central flushing channel , and a second portion connecting said lateral flushing channel to the circumference of the head portion , wherein said first portion is inclined, in a flushing fluid flowing direction, towards the face surface with respect to said second portion , and correspondingly, said second portion is inclined, in a flushing fluid flowing direction, towards the shank portion with respect to said first portion wherein said drill bit comprises a plurality of lateral flushing channels angularly separated from each other, characterized in that for each lateral flushing channel , said drill bit further comprises at least two face surface flushing channels extending between the central flushing channel and the face surface , wherein said at least two face surface flushing channels corresponding to a respective lateral flushing channel are positioned on the face surface within a sector corresponding to said respective lateral flushing channel, said sector being delimited by one or more adjacent sectors corresponding other lateral flushing channels . - a head portion having a circumference and a face surface , the face surface being arranged for receiving a plurality of inserts; - a shank portion extending longitudinally from a side of the head portion opposite to the face surface, the shank portion being arranged for coupling the drill bit to a drill string in a rotation and percussion transmitting manner; - a central flushing channel extending longitudinally through the shank portion and a distance within the head portion , and - a lateral flushing channel extending from the central flushing channel to the circumference of the head portion , wherein the lateral flushing channel comprises: a first portion connecting said lateral flushing channel to the central flushing channel , and a second portion connecting said lateral flushing channel to the circumference of the head portion , a first portion connecting said lateral flushing channel to the central flushing channel , and a second portion connecting said lateral flushing channel to the circumference of the head portion ,
Device for inspecting the internal surface located between a first and a second bead (B1, B2) of a tyre (P), comprising: - means for acquiring the image of the internal surface of the tyre, said means being formed by lighting means and one or more cameras and being able to pass into the space inside the tyre and to produce the image of an angular region of given angle (a)□ of the internal surface of the tyre, - centring means that are able to lock the first bead (B1) around its entire circumference on a reference plate, and are able to set the tyre into relative rotation about its axis XX' with respect to said image acquisition means, the said device comprising means for opening and for holding the second bead (B2), said means comprising two internal holding rollers which are disposed circumferentially in a contiguous manner with respect to one another and have a generally radial axis, and at least one external holding roller which has a generally radial axis, is disposed substantially in the middle of the angular sector formed by the two internal holding rollers and is able to come into abutment against the external part of said second bead (B2), the internal and external holding rollers being mounted so as to rotate as one about the axis XX' of said image acquisition means . - means for acquiring the image of the internal surface of the tyre, said means being formed by lighting means and one or more cameras and being able to pass into the space inside the tyre and to produce the image of an angular region of given angle (a)□ of the internal surface of the tyre, - centring means that are able to lock the first bead (B1) around its entire circumference on a reference plate, and are able to set the tyre into relative rotation about its axis XX' with respect to said image acquisition means,
A light emitting element comprising a semiconductor layer which is in a planar shape of a hexagon, a second electrode provided on the semiconductor layer , and a first electrode provided on the semiconductor layer and having a first electrode-pad portion , a first electrode-extension portion that extends from the first electrode-pad portion on an imaginary circle (A) or is tangent to the imaginary circle (A) to which the first electrode-pad portion is tangent on the inside and whose center is at the same location as center of gravity of the hexagonal shape, and a second electrode-extension portion that extends on the imaginary circle (A) or is tangent to the inside of the imaginary circle from the first electrode-pad portion on the opposite side from the first electrode-extension portion the imaginary circle (A) is a circle that surrounds about 55% to 80% of total surface area of the semiconductor layer, and the second electrode is disposed more to the inside than the imaginary circle (A). a first electrode-pad portion , a first electrode-extension portion that extends from the first electrode-pad portion on an imaginary circle (A) or is tangent to the imaginary circle (A) to which the first electrode-pad portion is tangent on the inside and whose center is at the same location as center of gravity of the hexagonal shape, and a second electrode-extension portion that extends on the imaginary circle (A) or is tangent to the inside of the imaginary circle from the first electrode-pad portion on the opposite side from the first electrode-extension portion the imaginary circle (A) is a circle that surrounds about 55% to 80% of total surface area of the semiconductor layer, and the second electrode is disposed more to the inside than the imaginary circle (A).