mhurhangee/patent-ind-claim-en huggingface dataset:
A method for improving code authentication between a SoC and a FLASH memory , whereas a FLASH memory size is bigger than an internal memory size of the SoC , the method comprising the following steps: - performing a full authentication initial scan of a FLASH image once after a cold boot of the system, and - selecting a set of C = 2 n (pseudo-)randomly distributed addresses out of the full FLASH memory size of F = 2 m with n and m are natural numbers and n < m , whereas - during the initial scan the read content of the FLASH image according to the selected addresses of the set C is concurrently stored as a reference value in an internal RAM of the SoC , whereas - a means detects if an address out of set C is read during a cache line fetch, and whereas its newly read value is compared against the stored reference value of it, indicating that an attack has occurred if these two values do not match, otherwise no attack has occurred. - performing a full authentication initial scan of a FLASH image once after a cold boot of the system, and - selecting a set of C = 2 n (pseudo-)randomly distributed addresses out of the full FLASH memory size of F = 2 m with n and m are natural numbers and n < m , whereas - during the initial scan the read content of the FLASH image according to the selected addresses of the set C is concurrently stored as a reference value in an internal RAM of the SoC , whereas - a means detects if an address out of set C is read during a cache line fetch, and whereas its newly read value is compared against the stored reference value of it, indicating that an attack has occurred if these two values do not match, otherwise no attack has occurred.
An aerosol-generating article comprising: an aerosol-generating substrate comprising tobacco, wherein the aerosol-generating substrate is non-liquid at room temperature; and a capacitor comprising a first electrode , a second electrode , and a dielectric material positioned between the first electrode and the second electrode , wherein the dielectric material comprises a porous substrate material and a liquid sorbed into the porous substrate material. an aerosol-generating substrate comprising tobacco, wherein the aerosol-generating substrate is non-liquid at room temperature; and a capacitor comprising a first electrode , a second electrode , and a dielectric material positioned between the first electrode and the second electrode , wherein the dielectric material comprises a porous substrate material and a liquid sorbed into the porous substrate material.
An apparatus for the thermal treatment of metallic products, comprising (a) a support and transport plane to place and forward a product to be treated; (b) at least a collector module which comprises (b-1) at least a collector , the collector being provided with (b-1.1) a perforated plate on that side of the collector which is facing the support and transport plane ; (b-2) a conduit connected to said at least one collector for feeding it with a fluid, and (b-3) integrated in said conduit , at least a stop valve , in particular an on-off valve, to permit or preclude the flow of said fluid into said at least one collector ; and which is characterized in that said at least one stop valve is situated at a distance from the collector which does not exceed 60 cm, preferably does not exceed 35 cm, and still more preferably does not exceed 10 cm and that said perforated plate is provided with holes which are arranged in rows parallel to each other but not in parallel rows with respect to the sides of said perforated plate in which said rows are inclined with respect to two opposite sides of the plate of an acute angle β. (a) a support and transport plane to place and forward a product to be treated; (b) at least a collector module which comprises (b-1) at least a collector , the collector being provided with (b-1.1) a perforated plate on that side of the collector which is facing the support and transport plane ; (b-2) a conduit connected to said at least one collector for feeding it with a fluid, and (b-3) integrated in said conduit , at least a stop valve , in particular an on-off valve, to permit or preclude the flow of said fluid into said at least one collector ; and which is characterized in that said at least one stop valve is situated at a distance from the collector which does not exceed 60 cm, preferably does not exceed 35 cm, and still more preferably does not exceed 10 cm and that said perforated plate is provided with holes which are arranged in rows parallel to each other but not in parallel rows with respect to the sides of said perforated plate in which said rows are inclined with respect to two opposite sides of the plate of an acute angle β. (b-1) at least a collector , the collector being provided with (b-1.1) a perforated plate on that side of the collector which is facing the support and transport plane ; (b-2) a conduit connected to said at least one collector for feeding it with a fluid, and (b-3) integrated in said conduit , at least a stop valve , in particular an on-off valve, to permit or preclude the flow of said fluid into said at least one collector ;
A positive electrode for a rechargeable lithium battery , comprising a current collector; a positive active material layer disposed on at least one surface of the current collector, wherein the positive active material layer comprises a positive active material comprising a first positive active material and a second positive active material, wherein the first positive active material comprises at least one nickel-based lithium composite oxide, and the second positive active material is represented by Chemical Formula 2 and has an average particle diameter of 300 nm to 600 nm measured according to the method defined in the description: [Chemical Formula 2] Li a1 Fe 1-x1 M1 x1 PO 4 , wherein 0.90 ≤ a1 ≤ 1.8, 0 ≤ x1 ≤ 0.7, and M1 is Mg, Co, Ni, or a combination thereof; and a functional layer disposed on the positive active material layer, wherein the functional layer further comprises the compound represented by Chemical Formula 3, a binder and does not include a conductive material [Chemical Formula 3] Li a3 Fe 1-x3 M3 x3 PO 4 wherein 0.90 ≤ a3 ≤ 1.8, 0 ≤ x3 ≤ 0.7, and M3 is Mg, Co, Ni, or a combination thereof. a current collector; a positive active material layer disposed on at least one surface of the current collector, wherein the positive active material layer comprises a positive active material comprising a first positive active material and a second positive active material, wherein the first positive active material comprises at least one nickel-based lithium composite oxide, and the second positive active material is represented by Chemical Formula 2 and has an average particle diameter of 300 nm to 600 nm measured according to the method defined in the description: [Chemical Formula 2] Li a1 Fe 1-x1 M1 x1 PO 4 , wherein 0.90 ≤ a1 ≤ 1.8, 0 ≤ x1 ≤ 0.7, and M1 is Mg, Co, Ni, or a combination thereof; and a functional layer disposed on the positive active material layer, wherein 0.90 ≤ a1 ≤ 1.8, 0 ≤ x1 ≤ 0.7, and M1 is Mg, Co, Ni, or a combination thereof; and a functional layer disposed on the positive active material layer, wherein the functional layer further comprises the compound represented by Chemical Formula 3, a binder and does not include a conductive material [Chemical Formula 3] Li a3 Fe 1-x3 M3 x3 PO 4 wherein 0.90 ≤ a3 ≤ 1.8, 0 ≤ x3 ≤ 0.7, and M3 is Mg, Co, Ni, or a combination thereof. 0.90 ≤ a3 ≤ 1.8, 0 ≤ x3 ≤ 0.7, and M3 is Mg, Co, Ni, or a combination thereof.
A method for operating a user equipment, UE , adapted to perform uplink synchronization and beam alignment by beamformed beaconing, the method comprising: beamforming, by the UE , a beacon signal in accordance with at least one transmit beam of a set of transmit beams, thereby producing at least one beamformed beacon signal; transmitting, by the UE , at least one beamformed beacon signal on a first uplink channel to at least one of a plurality of small cell layer transmit-receive points, SC-TRPs ; repeating, by the UE , the beamforming and the transmitting for the remaining transmit beams of the set of transmit beams; and receiving, by the UE , downlink reference signals from the SC-TRPs ; wherein the set of transmit beams is selected from a plurality of transmit beams in accordance with assistance received by the UE from a macro layer eNB, LeNB, wherein the assistance from the LeNB comprises at least one of an approximate location of the SC-TRPs , network resource information of a beaconing channel, beaconing information about a beaconing sequence, a beaconing frequency, or a beaconing duration, an availability of uplink and downlink data, or uplink or downlink beam information of the SC-TRPs ; characterized in that the assistance from the LeNB further comprises position information to identify the SC-TRPs adjacent to the UE so that only the adjacent SC-TRPs participate in the uplink synchronization and beam alignment process and the UE using the position information to select only those transmission beams that are oriented in the approximate directions of the adjacent SC-TRPs . beamforming, by the UE , a beacon signal in accordance with at least one transmit beam of a set of transmit beams, thereby producing at least one beamformed beacon signal; transmitting, by the UE , at least one beamformed beacon signal on a first uplink channel to at least one of a plurality of small cell layer transmit-receive points, SC-TRPs ; repeating, by the UE , the beamforming and the transmitting for the remaining transmit beams of the set of transmit beams; and receiving, by the UE , downlink reference signals from the SC-TRPs ; characterized in that the assistance from the LeNB further comprises position information to identify the SC-TRPs adjacent to the UE so that only the adjacent SC-TRPs participate in the uplink synchronization and beam alignment process and the UE using the position information to select only those transmission beams that are oriented in the approximate directions of the adjacent SC-TRPs .
OxRAM oxide based resistive random access memory cell comprising an insulator layer (I) arranged between a first metal layer (Me1) and a second metal layer (Me2): - the first metal layer (Me1) being a first electrode (BE); - the insulator layer (I) being a layer M1Oss of a sub-stoichiometric oxide of a first metal M1, characterised in that : - the second metal layer (Me2) comprises, in this order from the insulator layer: ∘ a first sub-layer M2N of a nitride of a second metal M2; ∘ a second sub-layer M3M40 of a ternary alloy of a third metal M3, a fourth metal M4 and oxygen O, or M3M4NO of a quaternary alloy of the third metal M3, the fourth metal M4, nitrogen N and oxygen O; o a second electrode (TE); and in that the first, second, third and fourth metals M1, M2, M3 and M4 are such that the standard free enthalpy of formation of the ternary alloy M3M40, noted Δ G f ,T 0 M3M4O , or of the quaternary alloy M3M4NO, noted Δ G f ,T 0 M3M4NO , is strictly less than the standard free enthalpy of formation of the sub-stoichiometric oxide M10ss of the first metal M1, noted Δ G f ,T 0 M1Oss , itself less than or equal to the standard free enthalpy of formation of any ternary oxynitride M2NO of the second metal M2, noted Δ G f ,T 0 M2NO : Δ G f ,T 0 M3M4O < Δ G f ,T 0 M1Oss ≤ Δ G f ,T 0 M2NO or Δ G f ,T 0 M3M4NO < Δ G f ,T 0 M1Oss ≤ Δ G f ,T 0 M2NO . - the first metal layer (Me1) being a first electrode (BE); - the insulator layer (I) being a layer M1Oss of a sub-stoichiometric oxide of a first metal M1, characterised in that : - the second metal layer (Me2) comprises, in this order from the insulator layer: ∘ a first sub-layer M2N of a nitride of a second metal M2; ∘ a second sub-layer M3M40 of a ternary alloy of a third metal M3, a fourth metal M4 and oxygen O, or M3M4NO of a quaternary alloy of the third metal M3, the fourth metal M4, nitrogen N and oxygen O; o a second electrode (TE); and in that the first, second, third and fourth metals M1, M2, M3 and M4 are such that the standard free enthalpy of formation of the ternary alloy M3M40, noted Δ G f ,T 0 M3M4O , or of the quaternary alloy M3M4NO, noted Δ G f ,T 0 M3M4NO , is strictly less than the standard free enthalpy of formation of the sub-stoichiometric oxide M10ss of the first metal M1, noted Δ G f ,T 0 M1Oss , itself less than or equal to the standard free enthalpy of formation of any ternary oxynitride M2NO of the second metal M2, noted Δ G f ,T 0 M2NO : Δ G f ,T 0 M3M4O < Δ G f ,T 0 M1Oss ≤ Δ G f ,T 0 M2NO or Δ G f ,T 0 M3M4NO < Δ G f ,T 0 M1Oss ≤ Δ G f ,T 0 M2NO . ∘ a first sub-layer M2N of a nitride of a second metal M2; ∘ a second sub-layer M3M40 of a ternary alloy of a third metal M3, a fourth metal M4 and oxygen O, or M3M4NO of a quaternary alloy of the third metal M3, the fourth metal M4, nitrogen N and oxygen O; o a second electrode (TE);
An impeller for a fluid pump , said impeller comprising: a hub configured to be rotationally coupled to a shaft of said fluid pump such that said shaft provides rotational motion in a rotational direction about an axis , said hub having an outer surface ; an outer ring which is concentric with said hub , said outer ring having an inner surface ; and a plurality of blades extending from a root at said outer surface of said hub to a tip at said inner surface of said outer ring , each one of said plurality of blades having a first leg and a second leg which meet at a vertex , thereby forming a V-shape such that a concave side of said V-shape faces toward said rotational direction and such that a convex side of said V-shape faces away from said rotational direction ; wherein said first leg , at said concave side of each one of said plurality of blades , forms a draft angle (64 n ) with said first leg at said convex side of another one of said plurality of blades which is immediately adjacent thereto in said rotational direction ; and the impeller is characterised in that said draft angle (64 n ) at said inner surface of said outer ring is less than or equal to 10% of said draft angle (64 n ) at said outer surface of said hub . a hub configured to be rotationally coupled to a shaft of said fluid pump such that said shaft provides rotational motion in a rotational direction about an axis , said hub having an outer surface ; an outer ring which is concentric with said hub , said outer ring having an inner surface ; and a plurality of blades extending from a root at said outer surface of said hub to a tip at said inner surface of said outer ring , each one of said plurality of blades having a first leg and a second leg which meet at a vertex , thereby forming a V-shape such that a concave side of said V-shape faces toward said rotational direction and such that a convex side of said V-shape faces away from said rotational direction ; wherein said first leg , at said concave side of each one of said plurality of blades , forms a draft angle (64 n ) with said first leg at said convex side of another one of said plurality of blades which is immediately adjacent thereto in said rotational direction ; and the impeller is characterised in that said draft angle (64 n ) at said inner surface of said outer ring is less than or equal to 10% of said draft angle (64 n ) at said outer surface of said hub .
A cargo handling system , comprising: a power drive unit having a drive roller configured to impart movement to a unit load device ; a first restraint ; a first sensor configured to detect movement of the unit load device with respect to a parked location following deployment of the first restraint and activation of the drive roller ; and a second sensor configured to detect deployment of the first restraint ; wherein the second sensor is at least one of an encoder and a limit switch . a power drive unit having a drive roller configured to impart movement to a unit load device ; a first restraint ; a first sensor configured to detect movement of the unit load device with respect to a parked location following deployment of the first restraint and activation of the drive roller ; and a second sensor configured to detect deployment of the first restraint ; wherein the second sensor is at least one of an encoder and a limit switch .
A closure module for closing and/or separating filled sausage casings connected via a sausage neck , comprising a first electrode and a second electrode located opposite the first one, the electrodes being arranged such that a sausage neck can be placed therebetween and being adapted to be moved relative to each other and towards the sausage neck , so that a current can flow from the first electrode into the sausage neck and via the sausage neck into the second electrode wherein during a first period of time t 1 , an amount of energy per unit time is supplied through the electrodes such that the sausage neck is heated and closed. a first electrode and a second electrode located opposite the first one, the electrodes being arranged such that a sausage neck can be placed therebetween and being adapted to be moved relative to each other and towards the sausage neck , so that a current can flow from the first electrode into the sausage neck and via the sausage neck into the second electrode wherein during a first period of time t 1 , an amount of energy per unit time is supplied through the electrodes such that the sausage neck is heated and closed.
A receiver dryer, comprising a first body , a second body , a desiccant bag and a filter cartridge , wherein one end of the second body facing the first body forms an open structure, another end of the second body away from the first body defines a first connecting port and a second connecting port , the desiccant bag is provided in a cavity formed by the first body and the second body and a molecular sieve is received in the desiccant bag , and an upper end of the filter cartridge has a positioning flange which is in an interference fit with an inner wall of the second body , wherein the filter cartridge comprises a first mating portion close to the first body , a second mating portion away from the first body and a filter part at a middle portion thereof, wherein the first mating portion and the second mating portion are connected to two ends of the filter part respectively, and the two mating portions are in communication with each other, and the filter part has a relatively large filtering area and a relatively low resistance ; the first mating portion fitting with an inner wall of the second body, a first space allowing refrigerant to flow being formed between the filter part and the inner wall of the second body, a second space allowing refrigerant to flow being formed between the second mating portion and a portion of the second body where the first connecting port is arranged, the second mating portion being connected to the second connecting port , the first space being in communication with the first connecting port , an inside of the filter part being in communication with the second connecting port via the second mating portion , so that the refrigerant is filtered at least once during a process of flowing between the first connecting port and the second connecting port , the receiver dryer being characterized in that at least a part of the second mating portion is of a tubular shape and extends into the second connecting port , and an outer surface of the second mating portion is provided with an annular sealing protrusion at the part fitting with an inner wall of the second connecting port , and the annular sealing protrusion closely fits with the inner wall of the second connecting port to prevent the refrigerant from passing through a space between an outer portion of the second mating portion and the second connecting port .
A compound represented by the following general formula : [wherein, in the formula , R 1 represents -H, or halogen; Ar 1 represents any substituent selected from the group G 1 , which may be substituted with 1 to 3 of the same or different substituents selected from the group consisting of -F and methyl (provided that are excluded), wherein the group G 1 is a group consisting of (a and b represent binding direction); Ar 2 represents any substituent selected from the group G 2 , which may be substituted with 1 to 3 of the same or different substituents selected from the group consisting of cyano, -Cl, methyl, methoxy, and phenyl (provided that are excluded), wherein the group G 2 is a group consisting of phenyl, thienyl, furyl, and thiazolyl; and * represents an asymmetric carbon], or a salt thereof. R 1 represents -H, or halogen; Ar 1 represents any substituent selected from the group G 1 , which may be substituted with 1 to 3 of the same or different substituents selected from the group consisting of -F and methyl (provided that are excluded), wherein the group G 1 is a group consisting of (a and b represent binding direction); Ar 2 represents any substituent selected from the group G 2 , which may be substituted with 1 to 3 of the same or different substituents selected from the group consisting of cyano, -Cl, methyl, methoxy, and phenyl (provided that are excluded), wherein the group G 2 is a group consisting of phenyl, thienyl, furyl, and thiazolyl; and * represents an asymmetric carbon], or a salt thereof.
A dispensing box holder comprising: a base ; a plurality of walls extending from the base ; a dispensing opening ; and a retainer member configured to be removably received on the base to Jdefine two sides of a box receiving area 2. defined by the base , the plurality of walls , and the retainer member ; characterized in that : the box receiving area includes a dispensing corner and a retaining corner opposite the dispensing corner ; the dispensing opening is defined in two adjacent walls of the plurality of walls to form a corner dispensing opening which is at the dispensing corner , and Z the retainer member defines the two sides of the box receiving area with the retainer member mounted on the base, and is positioned adjacent the retaining corner . a base ; a plurality of walls extending from the base ; a dispensing opening ; and a retainer member configured to be removably received on the base to Jdefine two sides of a box receiving area 2. defined by the base , the plurality of walls , and the retainer member ; characterized in that : the box receiving area includes a dispensing corner and a retaining corner opposite the dispensing corner ; the dispensing opening is defined in two adjacent walls of the plurality of walls to form a corner dispensing opening which is at the dispensing corner , and Z the retainer member defines the two sides of the box receiving area with the retainer member mounted on the base, and is positioned adjacent the retaining corner . the box receiving area includes a dispensing corner and a retaining corner opposite the dispensing corner ; the dispensing opening is defined in two adjacent walls of the plurality of walls to form a corner dispensing opening which is at the dispensing corner , and Z the retainer member defines the two sides of the box receiving area with the retainer member mounted on the base, and is positioned adjacent the retaining corner .