mhurhangee/patent-ind-claim-en huggingface dataset:
An intraocular ophthalmic lens, comprising: a first surface and a second surface, the first and second surfaces disposed about an optical axis; an aspheric refractive profile imposed on the first or second surface; and a diffractive profile imposed on the first or second surface, wherein the aspheric refractive profile focuses light toward a far focus, characterized in that the diffractive profile comprises a central zone that distributes a first percentage of light toward the far focus and a second percentage of light toward an intermediate focus corresponding to an intraocular add power between 1 Diopter and 2.5 Diopters, and a peripheral zone, surrounding the central zone, that distributes a third percentage of light toward the far focus and a fourth percentage of light toward the intermediate focus, wherein the percentage of light distributed by the central zone toward the far focus is within a range between 41% and 63%, and the percentage of light distributed by the central zone toward the intermediate focus is within a range between 21% and 41%, wherein the percentage of light distributed by the peripheral zone toward the far focus is within a range between 41% and 100% and the percentage of light distributed by the peripheral zone toward the intermediate focus is within a range from 0% to 41%, and wherein the central and peripheral zones provide different light distributions to the far and intermediate focuses. a first surface and a second surface, the first and second surfaces disposed about an optical axis; an aspheric refractive profile imposed on the first or second surface; and a diffractive profile imposed on the first or second surface, wherein the aspheric refractive profile focuses light toward a far focus, characterized in that the diffractive profile comprises a central zone that distributes a first percentage of light toward the far focus and a second percentage of light toward an intermediate focus corresponding to an intraocular add power between 1 Diopter and 2.5 Diopters, and a peripheral zone, surrounding the central zone, that distributes a third percentage of light toward the far focus and a fourth percentage of light toward the intermediate focus, wherein the percentage of light distributed by the central zone toward the far focus is within a range between 41% and 63%, and the percentage of light distributed by the central zone toward the intermediate focus is within a range between 21% and 41%, wherein the percentage of light distributed by the peripheral zone toward the far focus is within a range between 41% and 100% and the percentage of light distributed by the peripheral zone toward the intermediate focus is within a range from 0% to 41%, and wherein the central and peripheral zones provide different light distributions to the far and intermediate focuses.
A method for controlling an edge node, comprising: dividing , by a control node, a plurality of edge nodes comprised in an edge node cluster into N edge node sets, wherein each edge node set comprises at least two edge nodes, and N is a positive integer; selecting , by the control node, M second edge nodes from a first edge node set, wherein the first edge node set is one of the N edge node sets, and M is a positive integer; and sending , by the control node, a control rule to the M second edge nodes, wherein the control rule indicates the second edge node to perform fault detection on a first edge node, and the first edge node belongs to the first edge node set, characterized by comprising that the dividing, by a control node, a plurality of edge nodes comprised in an edge node cluster into N edge node sets comprises: selecting, by the control node based on a to-be-deployed application image and an application image that has been deployed on the plurality of edge nodes comprised in the edge node cluster, K edge nodes from the plurality of edge nodes to form the first edge node set, wherein K is a positive integer greater than M; and enabling, by the control node, the K edge nodes to form a hash ring. dividing , by a control node, a plurality of edge nodes comprised in an edge node cluster into N edge node sets, wherein each edge node set comprises at least two edge nodes, and N is a positive integer; selecting , by the control node, M second edge nodes from a first edge node set, wherein the first edge node set is one of the N edge node sets, and M is a positive integer; and sending , by the control node, a control rule to the M second edge nodes, wherein the control rule indicates the second edge node to perform fault detection on a first edge node, and the first edge node belongs to the first edge node set, characterized by comprising that the dividing, by a control node, a plurality of edge nodes comprised in an edge node cluster into N edge node sets comprises: selecting, by the control node based on a to-be-deployed application image and an application image that has been deployed on the plurality of edge nodes comprised in the edge node cluster, K edge nodes from the plurality of edge nodes to form the first edge node set, wherein K is a positive integer greater than M; and enabling, by the control node, the K edge nodes to form a hash ring. selecting, by the control node based on a to-be-deployed application image and an application image that has been deployed on the plurality of edge nodes comprised in the edge node cluster, K edge nodes from the plurality of edge nodes to form the first edge node set, wherein K is a positive integer greater than M; and enabling, by the control node, the K edge nodes to form a hash ring.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein R 1 is halogen or methyl; R 2 is halogen or C 1-6 haloalkyl; R 3 is halogen or C 1-6 alkyl; R 4 is hydrogen; n is 0; A 1 is -CH- or -N-; A 2 is -CH-; and A 3 is -N-, for use in treating liver fibrosis. R 1 is halogen or methyl; R 2 is halogen or C 1-6 haloalkyl; R 3 is halogen or C 1-6 alkyl; R 4 is hydrogen; n is 0; A 1 is -CH- or -N-; A 2 is -CH-; and A 3 is -N-,
A robot cleaner comprising: a cleaner body including a wheel unit and a controller configured to control driving of the wheel unit ; a suction unit configured to suck air containing dust; and a sensing unit , the suction unit disposed to protrude from the cleaner body , the sensing unit disposed at the front of the cleaner body in which the suction unit is disposed; whereby at least one portion of the sensing unit is disposed to overlap with the suction unit in the top-bottom direction of the cleaner body ; characterized in that at least a portion of the sensing unit is formed to protrude from a top and side surfaces of the cleaner body . a cleaner body including a wheel unit and a controller configured to control driving of the wheel unit ; a suction unit configured to suck air containing dust; and a sensing unit , the suction unit disposed to protrude from the cleaner body , the sensing unit disposed at the front of the cleaner body in which the suction unit is disposed; whereby at least one portion of the sensing unit is disposed to overlap with the suction unit in the top-bottom direction of the cleaner body ; characterized in that at least a portion of the sensing unit is formed to protrude from a top and side surfaces of the cleaner body .
A gas cooking hob comprising at least one control element , in particular a rotary control element , wherein: - the control element comprises a moveable shaft , - the control element comprises a permanent magnet rigidly connected to the shaft , - the control element comprises a stationary board , - the board includes a cut-out penetrated by the moveable shaft , - the control element comprises a magnetic sensor arranged on the board and beside the cut-out , - the magnetic sensor is responsive to the permanent magnet , so that the magnetic sensor generates at least one control signal depending on the position and/or orientation of the shaft , characterised in that - the board is a printed circuit board , - the control element comprises a control lighting including at least one light emitting diode (LED), - the control lighting is controlled via the magnetic sensor , - one direction of rotation of the shaft corresponds with an activation of the corresponding gas burner, while a contrary direction of rotation of the shaft corresponds with a deactivation of the corresponding gas burner, - the control lighting is deactivated by rotating the shaft in the direction corresponding with the deactivation of the corresponding gas burner, and - at least one light emitting diode of the control lighting is deactivated after a predetermined time, when the corresponding gas burner has been deactivated by rotating the shaft . - the control element comprises a moveable shaft , - the control element comprises a permanent magnet rigidly connected to the shaft , - the control element comprises a stationary board , - the board includes a cut-out penetrated by the moveable shaft , - the control element comprises a magnetic sensor arranged on the board and beside the cut-out , - the magnetic sensor is responsive to the permanent magnet , so that the magnetic sensor generates at least one control signal depending on the position and/or orientation of the shaft , characterised in that - the board is a printed circuit board , - the control element comprises a control lighting including at least one light emitting diode (LED), - the control lighting is controlled via the magnetic sensor , - one direction of rotation of the shaft corresponds with an activation of the corresponding gas burner, while a contrary direction of rotation of the shaft corresponds with a deactivation of the corresponding gas burner, - the control lighting is deactivated by rotating the shaft in the direction corresponding with the deactivation of the corresponding gas burner, and - at least one light emitting diode of the control lighting is deactivated after a predetermined time, when the corresponding gas burner has been deactivated by rotating the shaft .
Handheld cutting device for cutting food, in particular roasted meat on a spit, comprising a knife head , the knife head having a rotating cutting element , characterized in that the knife head forms a flat surface for the cutting element , which surface is delimited between a first fastening device for a splash guard , a locking lip , and a recess between the first fastening device and the locking lip and/or a recess between the first fastening device and a further fastening device (34; 35) for the splash guard , and in that the recess between the fastening device and the locking lip and/or the recess between the fastening device and a further fastening device (34; 35), together with the splash guard , forms an ejection window (23; 24; 25) for meat drawn along by the cutting element.
A glove box having a glove box body and includes at least one decontaminating column for on-line replacing adsorption material , wherein the decontaminating column is characterized by : a tank having an inner volume being used for filling the adsorption material and one end of said tank being set to be opened; at least one discharging part being attached to said tank , and an open-close unit through which the adsorption material can be discharged and which is installed between said discharging part and said tank ; a chamber in said discharging part , which is connected to a gas replacement unit , wherein the gas replacement unit is configured for conducting gas replacement in the chamber . a tank having an inner volume being used for filling the adsorption material and one end of said tank being set to be opened; at least one discharging part being attached to said tank , and an open-close unit through which the adsorption material can be discharged and which is installed between said discharging part and said tank ; a chamber in said discharging part , which is connected to a gas replacement unit , wherein the gas replacement unit is configured for conducting gas replacement in the chamber .
A method comprising: receiving, at an access controller from a microcontroller that supports a virtual function, a request to access a trusted memory region (TMR) that stores microcode used to execute the microcontroller in a first region and data associated with the microcontroller in a second region ; receiving, at the access controller from a secure processor that has a trusted relationship with the TMR, an indication that the microcontroller has read-only access to the first region and read-write access to the second region; and determining whether to provide the microcontroller with access to the TMR in response to identifying whether the request is to be serviced by the first region or the second region and comparing a type of the request to access permissions of the microcontroller. receiving, at an access controller from a microcontroller that supports a virtual function, a request to access a trusted memory region (TMR) that stores microcode used to execute the microcontroller in a first region and data associated with the microcontroller in a second region ; receiving, at the access controller from a secure processor that has a trusted relationship with the TMR, an indication that the microcontroller has read-only access to the first region and read-write access to the second region; and determining whether to provide the microcontroller with access to the TMR in response to identifying whether the request is to be serviced by the first region or the second region and comparing a type of the request to access permissions of the microcontroller.
A hybrid media sheet, comprising: a media substrate; a front barrier layer comprising a first polyolefin applied to a front side of the media substrate; a back barrier layer comprising a second polyolefin applied to a back side of the media substrate; an adhesion promoting subbing layer applied to the front barrier layer; and an ink-receiving layer comprising a water-soluble polymer, a mordant, and particles of a metal- or semimetal-oxide applied to the adhesion promoting subbing layer, characterised in that the particles of the metal- or semimetal-oxide are present at a particles to water-soluble polymer ratio of 1:2 to 1:10 by weight. a media substrate; a front barrier layer comprising a first polyolefin applied to a front side of the media substrate; a back barrier layer comprising a second polyolefin applied to a back side of the media substrate; an adhesion promoting subbing layer applied to the front barrier layer; and an ink-receiving layer comprising a water-soluble polymer, a mordant, and particles of a metal- or semimetal-oxide applied to the adhesion promoting subbing layer, characterised in that the particles of the metal- or semimetal-oxide are present at a particles to water-soluble polymer ratio of 1:2 to 1:10 by weight.
A station for assembling a cartridge (C) of an electronic cigarette, the cartridge (C) comprises: a base (B), provided with a longitudinal axis (X); and a lateral wall (P), a first side (L1), a second side (L2), opposed to the first side (L1); the first side (L1) comprises a peripheral channel (H) and a protrusion (S) that is substantially central with respect to the channel (H); and a through housing (A) in communication with the channel (H); the cartridge (C) also comprises a connection element (E) which comprises a body (K) designed to be inserted in the housing (A) and an end portion (F) which is arranged at the channel (H) when the body (K) is in the housing (A); the station comprises a support device that supports the base (B) at the relative side wall (P); and assembling means arranged to face the base (B) and movable closer towards the base (B) to allow the assembling of a component (E, T, I) to the base (B); characterized in that the assembling means comprise: an abutment element , arranged to face the first side (L1) of the base (B) and defining: a peripheral edge shaped to be inserted in the channel (H) of the base (B); a central cavity that is delimited by a bottom and by the peripheral edge and shaped to receive the protrusion (S) of the base (B); the abutment element is movable between an inoperative position (W) in which it is spaced from the base (B), and an operative position (Z) in which: the cavity receives in abutment the protrusion (S) of the base (B); the edge is inserted in the channel (H) of the base (B) and contacts the end portion (F) of the connection element (E) so that the end portion (F) is maintained at a predetermined distance from the axis (X) of the base (B) during the assembling operations. an abutment element , arranged to face the first side (L1) of the base (B) and defining: a peripheral edge shaped to be inserted in the channel (H) of the base (B); a central cavity that is delimited by a bottom and by the peripheral edge and shaped to receive the protrusion (S) of the base (B); the abutment element is movable between an inoperative position (W) in which it is spaced from the base (B), and an operative position (Z) in which: the cavity receives in abutment the protrusion (S) of the base (B); the edge is inserted in the channel (H) of the base (B) and contacts the end portion (F) of the connection element (E) so that the end portion (F) is maintained at a predetermined distance from the axis (X) of the base (B) during the assembling operations.
A negative electrode for a lithium ion secondary battery, comprising a current collector and a negative electrode active material layer on the current collector, wherein the negative electrode active material layer comprises: a first composite particle comprising a first graphite core particle and a first non-graphite-based carbon material coating a surface thereof; and a second composite particle comprising a second graphite core particle and a second non-graphite-based carbon material coating a surface thereof, and wherein an average particle diameter d A (D 50 ) of the first composite particles is 5 to 30 μm; an average particle diameter d B (D 50 ) of the second composite particles is 2 to 25 μm, and is smaller than the average particle diameter d A of the first composite particles; wherein the average particle diameter means a median particle diameter at a cumulative value of 50% in the particle size distribution in terms of volume by a laser diffraction scattering method; a mixing ratio of the first composite particle A and the second composite particle B is 50 : 50 to 95 : 5 in mass ratio (A : B); and a density of the negative electrode active material layer is 1.4 to 1.7 g/cm 3 characterized in that a mass proportion R B of the second non-graphite-based carbon material in the second composite particle is 5 to 30% by mass, and is higher than a mass proportion R A of the first non-graphite-based carbon material in the first composite particle; and the first non-graphite-based carbon material and the second non-graphite-based carbon material each comprise an amorphous carbon. a first composite particle comprising a first graphite core particle and a first non-graphite-based carbon material coating a surface thereof; and a second composite particle comprising a second graphite core particle and a second non-graphite-based carbon material coating a surface thereof, and wherein an average particle diameter d A (D 50 ) of the first composite particles is 5 to 30 μm; an average particle diameter d B (D 50 ) of the second composite particles is 2 to 25 μm, and is smaller than the average particle diameter d A of the first composite particles; wherein the average particle diameter means a median particle diameter at a cumulative value of 50% in the particle size distribution in terms of volume by a laser diffraction scattering method; a mixing ratio of the first composite particle A and the second composite particle B is 50 : 50 to 95 : 5 in mass ratio (A : B); and a density of the negative electrode active material layer is 1.4 to 1.7 g/cm 3 characterized in that a mass proportion R B of the second non-graphite-based carbon material in the second composite particle is 5 to 30% by mass, and is higher than a mass proportion R A of the first non-graphite-based carbon material in the first composite particle; and the first non-graphite-based carbon material and the second non-graphite-based carbon material each comprise an amorphous carbon.
A radiation curable composition for use in barrier stacks for protection of sensitive devices against moisture, comprising; hydrophilic nanoparticles being selected from metal, metal oxide, metalloid, metalloid oxide, metal carbide, metalloid carbide, metal halide, metal salts, metal perchlorate, metal nitride, metalloid nitride, metal oxygen nitride, metalloid oxygen nitride, metal oxygen boride or metalloid oxygen boride particles; a curable material comprising at least one mono-functional and/or multifunctional monomer, the mono-functional and/or multifunctional groups being selected from acrylate or methacrylate groups and at least one radiation-active initiator; wherein the proportion of hydrophilic nanoparticles is in the range of 0.01 wt% to 0.2 wt% of the weight of the curable material. hydrophilic nanoparticles being selected from metal, metal oxide, metalloid, metalloid oxide, metal carbide, metalloid carbide, metal halide, metal salts, metal perchlorate, metal nitride, metalloid nitride, metal oxygen nitride, metalloid oxygen nitride, metal oxygen boride or metalloid oxygen boride particles; a curable material comprising at least one mono-functional and/or multifunctional monomer, the mono-functional and/or multifunctional groups being selected from acrylate or methacrylate groups and at least one radiation-active initiator;