mhurhangee/patent-ind-claim-en huggingface dataset:
A memory device comprising: a first memory of first type; a second memory of second type different from the first type; and a memory controller configured to receive (S210) access requests and workload information related to work of an external processor, wherein the workload information includes at least one latency requirement associated with the access requests, for each received access request, count an elapsed latency after the access request is received; for each received access request, determine a remaining latency for the access request, the remaining latency corresponding to a difference between the at least one latency requirement and the corresponding elapsed latency; schedule (S220) the access requests using the workload information, wherein the scheduling prioritizes access requests having a lower remaining latency, and access (S230) at least one of the first memory and the second memory in accordance with the scheduled access requests. a first memory of first type; a second memory of second type different from the first type; and a memory controller configured to receive (S210) access requests and workload information related to work of an external processor, wherein the workload information includes at least one latency requirement associated with the access requests, for each received access request, count an elapsed latency after the access request is received; for each received access request, determine a remaining latency for the access request, the remaining latency corresponding to a difference between the at least one latency requirement and the corresponding elapsed latency; schedule (S220) the access requests using the workload information, wherein the scheduling prioritizes access requests having a lower remaining latency, and access (S230) at least one of the first memory and the second memory in accordance with the scheduled access requests. receive (S210) access requests and workload information related to work of an external processor, wherein the workload information includes at least one latency requirement associated with the access requests, for each received access request, count an elapsed latency after the access request is received; for each received access request, determine a remaining latency for the access request, the remaining latency corresponding to a difference between the at least one latency requirement and the corresponding elapsed latency; schedule (S220) the access requests using the workload information, wherein the scheduling prioritizes access requests having a lower remaining latency, and access (S230) at least one of the first memory and the second memory in accordance with the scheduled access requests.
A mobile terminal, wherein the mobile terminal comprises a first part , a second part , a connection structure , and a flexible circuit board ; a signal is transmitted between the first part and the second part through the flexible circuit board ; the flexible circuit board comprises a first end and a second end , the first end is electrically connected to the first part , and the second end is electrically connected to the second part ; the flexible circuit board passes through the connection structure , and a part of the flexible circuit board in the connection structure maintains a regular bending structure and a first length of the flexible circuit board in the bending structure when the mobile terminal is unfolded is less than a second length of the flexible circuit board in the bending structure when the mobile terminal is folded; and the regular bending structure comprises two bending parts, and the two bending parts form an S-shaped structure and the connection structure comprises a bendable structure.
Floor covering system, wherein this floor covering system comprises floor panels ; wherein the floor panels substantially are realized on the basis of synthetic material and preferably as a layer-shaped, either single-layer or multi-layer, substrate; wherein the floor panels are rectangular, either oblong or square, and thus comprises a first pair of opposite edges (P1) and a second pair of opposite edges (P2); wherein the first pair of opposite edges comprises coupling parts (8-9), which allow that a plurality of such floor panels mutually can be coupled to each other; wherein these coupling parts (8-9) form a first mechanical locking system, which, in a coupled condition of two of such floor panels, effects a locking in the plane of the floor panels and perpendicular to the respective edges, as well as form a second mechanical locking system, which, in a coupled condition of two of such floor panels, effects a locking transverse to the plane of the panels; wherein these coupling parts, on the first pair of opposite edges (4-5), preferably are realized substantially in the material of the floor panels itself, and more particularly in said substrate ; wherein the floor panels, on the second pair of edges (6-7), are provided with an edge configuration which allows that two of such floor panels can be positioned with their respective edges alongside each other, wherein the configuration of the edges (6-7) is free from mechanical horizontally active locking systems and also free from mechanical vertically active locking systems, wherein the connection between the edges of the second pair of edges (P2) is provided with adhesive means (A) which provides for a horizontal connection and which is provided in a seat, and wherein the floor panels, on the second pair of edges (6-7), have an edge configuration which provides for that the actual panels in installed condition extend along these edges in a non-overlapping manner alongside each other, and can adjoin each other exclusively by butt joint, characterized in that the adhesive means also provides for a vertical connection and the coupling parts on the first pair of edges are configured such that in the mounted condition of two of such floor panels these are forced towards each other with a tensioning force, such that a so-called pre-tension is achieved.
A beverage product comprising a solution of: (a) a first azo-component and a second azo-component; (b) an electrolyte; and (c) a solvent, wherein the azo-components are present in an amount of 0.05 wt% to 0.6 wt%; wherein the weight ratio of the first azo-component to the second azo-component is 1:3 to 3:1; and wherein the first azo-component is Yellow 5 and the second azo-component is selected from the group consisting of Red 40 and Yellow 6; and wherein the first azo-component and the second azo-component remain in solution for at least seven days. (a) a first azo-component and a second azo-component; (b) an electrolyte; and (c) a solvent,
A control system for controlling an active suspension system of a vehicle , the control system comprising one or more controller, wherein the control system is configured to: estimate relative traction levels by obtaining information indicative of relative traction levels between different wheels of the vehicle, wherein obtaining information indicative of the relative traction levels comprises: controlling the active suspension system to change normal force through a first subset of one or more wheels; determining a traction-dependent variable at each of the first subset of wheels to which known torque is applied; controlling the active suspension system to change normal force through second subset of one or more wheels; and determining a traction-dependent variable at each of the second subset of wheels to which known torque is applied, wherein the traction-dependent variables indicate relative traction levels; and during an implementation phase after estimating relative traction levels, in dependence on the information, control the active suspension system to increase normal force through a wheel of the vehicle having relatively high traction compared to one or more other wheels of the vehicle , and decrease normal force through a wheel of the vehicle having relatively low traction compared to one or more other wheels of the vehicle . controlling the active suspension system to change normal force through a first subset of one or more wheels; determining a traction-dependent variable at each of the first subset of wheels to which known torque is applied; controlling the active suspension system to change normal force through second subset of one or more wheels; and determining a traction-dependent variable at each of the second subset of wheels to which known torque is applied, wherein the traction-dependent variables indicate relative traction levels; and during an implementation phase after estimating relative traction levels, in dependence on the information, control the active suspension system to increase normal force through a wheel of the vehicle having relatively high traction compared to one or more other wheels of the vehicle , and decrease normal force through a wheel of the vehicle having relatively low traction compared to one or more other wheels of the vehicle .
A surgical tool for laparoscopic insertion into a subject, the tool being expandable from a smaller collapsed configuration to a larger deployed configuration, the tool comprising an extendable barrier , an expandable support that is coupled to and surrounds the barrier , and a lumen having a distal end that is coupled to said support and in fluid communication with an internal void of said support ; wherein said support can be expanded by injecting fluid into said void via said lumen and expansion of said support extends said barrier ; characterised in that the barrier comprises two adjacent layers of flexible material, and further in that the barrier is provided with a plurality of weld lines that define a plurality of intersecting channels , each of said channels extending from one part of said support to a diametrically opposed part of said support and being in fluid communication with the internal void of said support .
A method for determining the authenticity of an object , comprising the following method steps - marking the object with a first phosphor (L1) having a first temporal decay behaviour, - marking the object with a second phosphor (L2) having a second decay behaviour which differs from the first decay behaviour, - exciting of the phosphors (L1, L2) with a light pulse, - measuring the afterglow intensities (I(λ1,t), I(λ2,t)) of both phosphors (L1, L2) after excitation with the light pulse, characterised by - forming a difference (Δ(I(λ1,t), I(λ2,t))) or identity signal from the afterglow intensities (I(λ1,t), I(λ2,t)) measured over the elapsed time (t), - determining the time (t Δ0 (I(λ1,t), I(λ2, t))) of a zero crossing of the difference signal (Δ(I(λ1,t), I(λ2,t))) or the time (t Δ0 (I(λ1,t), I(λ2, t))) of the identity signal of a comparator, wherein in the latter case an identical signal level is determined by an identity signal of a comparator, - comparing the time (t Δ0 (I(λ1,t), I(λ2, t))) determined by the zero crossing or by the identity signal with a target value. - marking the object with a first phosphor (L1) having a first temporal decay behaviour, - marking the object with a second phosphor (L2) having a second decay behaviour which differs from the first decay behaviour, - exciting of the phosphors (L1, L2) with a light pulse, - measuring the afterglow intensities (I(λ1,t), I(λ2,t)) of both phosphors (L1, L2) after excitation with the light pulse, characterised by - forming a difference (Δ(I(λ1,t), I(λ2,t))) or identity signal from the afterglow intensities (I(λ1,t), I(λ2,t)) measured over the elapsed time (t), - determining the time (t Δ0 (I(λ1,t), I(λ2, t))) of a zero crossing of the difference signal (Δ(I(λ1,t), I(λ2,t))) or the time (t Δ0 (I(λ1,t), I(λ2, t))) of the identity signal of a comparator, wherein in the latter case an identical signal level is determined by an identity signal of a comparator, - comparing the time (t Δ0 (I(λ1,t), I(λ2, t))) determined by the zero crossing or by the identity signal with a target value.
A thin-film transistor array substrate, comprising: a substrate ; a gate electrode on the substrate ; an active layer comprising a first active layer and a second active layer , wherein the first active layer opposes the gate electrode and comprises a semiconductor material and a carbon allotrope, and wherein the second active layer is in contact with the first active layer and comprises a semiconductor material and a carbon allotrope, and wherein the content ratio of the carbon allotrope in the first active layer is higher than the content ratio of the carbon allotrope in the second active layer; and wherein the first active layer is between the gate electrode and the second active layer ; a gate insulating film between the gate electrode and the active layer ; and a source electrode and a drain electrode in contact with the active layer . a substrate ; a gate electrode on the substrate ; an active layer comprising a first active layer and a second active layer , wherein the first active layer opposes the gate electrode and comprises a semiconductor material and a carbon allotrope, and wherein the second active layer is in contact with the first active layer and comprises a semiconductor material and a carbon allotrope, and wherein the content ratio of the carbon allotrope in the first active layer is higher than the content ratio of the carbon allotrope in the second active layer; and wherein the first active layer is between the gate electrode and the second active layer ; a gate insulating film between the gate electrode and the active layer ; and a source electrode and a drain electrode in contact with the active layer .
A mixed powder for iron-based powder metallurgy, comprising an iron-based powder, at least one ternary oxide selected from the group consisting of Ca-Al-Si oxides and Ca-Mg-Si oxides, and at least one binary oxide selected from the group consisting of Ca-Al oxides and Ca-Si oxides, wherein the ternary oxide and the binary oxide are contained in a sum weight of 0.025 wt% or more to 0.3 wt% or less, and the iron-based powder is contained at a weight ratio of 60 wt% or more relative to the total amount of the mixed powder, wherein wt% refers to the weight ratio relative to the total weight of the constituent components of the mixed powder for iron-based powder metallurgy other than the lubricants.
A medical thread insertion instrument comprising: a medical thread having an outer surface thereof on which barbs are formed; a needle part having a cavity therein so that the medical thread is able to be inserted, the needle part including a needle having a predetermined length (L1); and a tube part having a cavity therein so that the needle is able to be inserted, the tube part may be inserted into an inner side of the skin and including a tube having a length (L2) shorter than the length (L1) of the needle, wherein, when the tube part , into which the needle part , in which the medical thread is embedded, is inserted, is inserted into a skin tissue (S), as the needle is inserted into the skin tissue (S), an end part of the needle is able to be protruded toward an outer side of the tube due to a difference in length between the tube and the needle , characterized in that , the medical thread insertion instrument further comprises a connection part for maintaining an interval between the needle and the tube , wherein the connection part may be removed after the tube part is inserted into the skin tissue (S) . a medical thread having an outer surface thereof on which barbs are formed; a needle part having a cavity therein so that the medical thread is able to be inserted, the needle part including a needle having a predetermined length (L1); and a tube part having a cavity therein so that the needle is able to be inserted, the tube part may be inserted into an inner side of the skin and including a tube having a length (L2) shorter than the length (L1) of the needle, wherein, when the tube part , into which the needle part , in which the medical thread is embedded, is inserted, is inserted into a skin tissue (S), as the needle is inserted into the skin tissue (S), an end part of the needle is able to be protruded toward an outer side of the tube due to a difference in length between the tube and the needle , characterized in that , the medical thread insertion instrument further comprises a connection part for maintaining an interval between the needle and the tube , wherein the connection part may be removed after the tube part is inserted into the skin tissue (S) .
A method for producing a food product, which contains 0.05 to 2 mass% of DHA and EPA in total, has a pH of 3 to 5.5 and contains 1 mass% or more of nonfat milk solids, by blending a plant fat comprising lauric acid in a manner that an amount of the lauric acid derived from the plant fat is 0.005 to 8 times by mass of the total amount of DHA and EPA.
Drive for opening and/or closing a rotary-door leaf , which is mounted such that it can be rotated about an axis of rotation and which forms part of a rotary-door system , having an output shaft , which can be operatively connected to the rotary-door leaf via a force-transmission device, wherein the drive can be arranged in a concealed state in an interior of a frame profile of a fixed-location door frame , characterized in that the force-transmission device has a first lever , which is arranged in a rotationally fixed manner on the output shaft of the drive and interacts with a second lever via at least one pulling and/or pushing element, it being possible for said second lever to be connected in a rotationally fixed manner to the rotary-door leaf , wherein the longitudinal axes of the levers are oriented parallel to one another in all positions, and therefore a rotary movement of the output shaft converts a movement of the rotary-door leaf , at the same angular speed and with the same angle of rotation, into an open position.
A display panel comprising: a substrate comprising a transmission area, a display area (DA) at least partially surrounding the transmission area, and an intermediate or a middle area (MA) positioned between the transmission area and the display area (DA); a light-emitting diode (LED) positioned on the display area (DA) and comprising a first electrode , a second electrode , and a functional layer positioned between the first electrode and the second electrode ; a first dam (DP1) positioned on the intermediate or middle area (MA); a crack sensing member positioned farther from the transmission area than the first dam (DP1), a second dam (DP2) positioned between the first dam (DP1) and the transmission area, and at least one metal layer overlapping at least one of the dams (DP1, DP2) characterized in that the at least one metal layer at least partially overlaps each of a first face of the first dam (DP1) and a second face of the first dam (DP1), wherein the second face of the first dam (DP1) is positioned between the first face of the first dam (DP1) and the second dam (DP2), wherein the at least one metal layer at least partially overlaps each of a first face of the second dam (DP2), a second face of the second dam (DP2), and a third face of the second dam (DP2), wherein the second face of the second dam (DP2) is positioned between the first face of the second dam (DP2) and the first dam (DP1), and wherein the third face of the second dam (DP2) is positioned between the first face of the second dam (DP2) and the transmission area. a substrate comprising a transmission area, a display area (DA) at least partially surrounding the transmission area, and an intermediate or a middle area (MA) positioned between the transmission area and the display area (DA); a light-emitting diode (LED) positioned on the display area (DA) and comprising a first electrode , a second electrode , and a functional layer positioned between the first electrode and the second electrode ; a first dam (DP1) positioned on the intermediate or middle area (MA); a crack sensing member positioned farther from the transmission area than the first dam (DP1), a second dam (DP2) positioned between the first dam (DP1) and the transmission area, and at least one metal layer overlapping at least one of the dams (DP1, DP2) characterized in that the at least one metal layer at least partially overlaps each of a first face of the first dam (DP1) and a second face of the first dam (DP1), wherein the second face of the first dam (DP1) is positioned between the first face of the first dam (DP1) and the second dam (DP2), wherein the at least one metal layer at least partially overlaps each of a first face of the second dam (DP2), a second face of the second dam (DP2), and a third face of the second dam (DP2), wherein the second face of the second dam (DP2) is positioned between the first face of the second dam (DP2) and the first dam (DP1), and wherein the third face of the second dam (DP2) is positioned between the first face of the second dam (DP2) and the transmission area.
A resin container manufacturing method comprising: an injection molding process of injection molding a plurality of preforms along a predetermined arrangement direction (C); a temperature adjustment process of adjusting a temperature of the preform; and a blow molding process of molding a resin container from the preform, characterised in that after the injection molding process, the preform and the container are conveyed along a conveying direction (A) perpendicular to the arrangement direction over the temperature adjustment process and the blow molding process, and the temperature adjustment process includes a first temperature adjustment process of adjusting the temperature of the preform, a second temperature adjustment process of adjusting the temperature of the preform under a condition different from that of the first temperature adjustment process, and a fine adjustment process of finely adjusting the temperature of the preform. an injection molding process of injection molding a plurality of preforms along a predetermined arrangement direction (C); a temperature adjustment process of adjusting a temperature of the preform; and a blow molding process of molding a resin container from the preform, characterised in that after the injection molding process, the preform and the container are conveyed along a conveying direction (A) perpendicular to the arrangement direction over the temperature adjustment process and the blow molding process, and the temperature adjustment process includes a first temperature adjustment process of adjusting the temperature of the preform, a second temperature adjustment process of adjusting the temperature of the preform under a condition different from that of the first temperature adjustment process, and a fine adjustment process of finely adjusting the temperature of the preform.
A snow vehicle comprising: a pair of runners configured to support the snow vehicle travelling over snow and/or ice ; an electric motor ; and a traction wheel , powered by the electric motor , and configured to cause a propulsion for the snow vehicle while rolling in contact with the snow and/or the ice , wherein the traction wheel is positioned in front of the pair of runners and characterised in that the snow vehicle is of a kicksled type. a pair of runners configured to support the snow vehicle travelling over snow and/or ice ; an electric motor ; and a traction wheel , powered by the electric motor , and configured to cause a propulsion for the snow vehicle while rolling in contact with the snow and/or the ice , wherein the traction wheel is positioned in front of the pair of runners and characterised in that the snow vehicle is of a kicksled type.