mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a server, the method comprising: communicating content to a content receiver , wherein a first portion of the content has a first drop priority; receiving, from the content receiver , a buffer status for a buffer at the content receiver; determining that the first drop priority should be adjusted to a second drop priority, wherein the determination is at least partially based on the buffer status, wherein the second drop priority is different from the first drop priority; determining, that false information was previously provided by the content receiver for the buffer status; and refusing to adjust the first drop priority to the second drop priority based at least partially on the determination that false information was previously provided by the content receiver for the buffer status, wherein the second drop priority is a low drop priority. communicating content to a content receiver , wherein a first portion of the content has a first drop priority; receiving, from the content receiver , a buffer status for a buffer at the content receiver; determining that the first drop priority should be adjusted to a second drop priority, wherein the determination is at least partially based on the buffer status, wherein the second drop priority is different from the first drop priority; determining, that false information was previously provided by the content receiver for the buffer status; and refusing to adjust the first drop priority to the second drop priority based at least partially on the determination that false information was previously provided by the content receiver for the buffer status, wherein the second drop priority is a low drop priority.
A surface-coated tool , comprising: a substrate ; and a coating film formed on said substrate, said coating film including an alternate layer in which one or more A layers and one or more B layers are alternately stacked, said A layer and said B layer each having a thickness not smaller than 2 nm and not greater than 100 nm, an average composition of said A layer being expressed as Ti a Al b Si c N wherein 0.5<a<0.8, 0.2<b<0.4, 0.01<c<0.1, a+b+c=1, an average composition of said B layer being expressed as Ti d Al e Si f N wherein 0.4<d<0.6, 0.3<e<0.7, 0.01 <f<0.1, d+e+f=1, and a condition of 0.05<a-d≤0.2 and 0.05<e-b≤0.2 being satisfied. a substrate ; and a coating film formed on said substrate, said coating film including an alternate layer in which one or more A layers and one or more B layers are alternately stacked, said A layer and said B layer each having a thickness not smaller than 2 nm and not greater than 100 nm, an average composition of said A layer being expressed as Ti a Al b Si c N wherein 0.5<a<0.8, 0.2<b<0.4, 0.01<c<0.1, a+b+c=1, an average composition of said B layer being expressed as Ti d Al e Si f N wherein 0.4<d<0.6, 0.3<e<0.7, 0.01 <f<0.1, d+e+f=1, and a condition of 0.05<a-d≤0.2 and 0.05<e-b≤0.2 being satisfied.
A method for scanning virus comprising: ascertaining first scanning items in a client based on a determination to perform an intelligent scan; scanning the first scanning items at a first scanning speed; and scanning second scanning items in the client at a second scanning speed based on the client satisfying a first switching condition, the second scanning items being all remaining items except the first scanning items in the client, wherein the first scanning speed is higher than the second scanning speed and characterised in that the first switching condition includes: no virus found in the first scanning items; a frequency for scanning virus not exceeding a first predetermined value; and a historical infection rate of the second scanning items being lower than a second predetermined value. ascertaining first scanning items in a client based on a determination to perform an intelligent scan; scanning the first scanning items at a first scanning speed; and scanning second scanning items in the client at a second scanning speed based on the client satisfying a first switching condition, the second scanning items being all remaining items except the first scanning items in the client, wherein the first scanning speed is higher than the second scanning speed and characterised in that the first switching condition includes: no virus found in the first scanning items; a frequency for scanning virus not exceeding a first predetermined value; and a historical infection rate of the second scanning items being lower than a second predetermined value.
A computer implemented method for controlling a control instrument of a simulation system reproducing a real system, in response to a force applied onto said control instrument, comprising : - detecting a force applied onto the control instrument by a pilot of the simulation system, and generating a force sensor signal "F sensor " representing the detected force; - detecting a motion of the control instrument and generating motion parameters; - generating by a desired response model a desired response force signal from the motion parameters, the desired response force signal representing the forces that would be exerted by the real system to reproduce; - generating by a system response model a saturated system response force signal "F sat " from the force sensor signal and the motion parameters, the system response force signal representing the forces exerted by the behaviour of mechanical parts of the simulation system, and wherein the system response model comprising a system compensation model module providing a system compensation force signal "F sys " to a saturation module , the saturation module saturating the system compensation force signal to a range [-F sensor , +F sensor ] and outputting the saturated system response force signal; - generating a force sum signal from the desired response force signal, the saturated system response force signal and the force sensor signal; and - generating control signals from the force sum signal. - detecting a force applied onto the control instrument by a pilot of the simulation system, and generating a force sensor signal "F sensor " representing the detected force; - detecting a motion of the control instrument and generating motion parameters; - generating by a desired response model a desired response force signal from the motion parameters, the desired response force signal representing the forces that would be exerted by the real system to reproduce; - generating by a system response model a saturated system response force signal "F sat " from the force sensor signal and the motion parameters, the system response force signal representing the forces exerted by the behaviour of mechanical parts of the simulation system, and wherein the system response model comprising a system compensation model module providing a system compensation force signal "F sys " to a saturation module , the saturation module saturating the system compensation force signal to a range [-F sensor , +F sensor ] and outputting the saturated system response force signal; - generating a force sum signal from the desired response force signal, the saturated system response force signal and the force sensor signal; and - generating control signals from the force sum signal.
Covering comprising a structure formed by a plurality of panels provided on their lower face with at least one guide formed by a groove giving access to a cavity with larger dimensions, in cross section, than the opening corresponding to the groove ; longitudinal profiles perpendicular to said grooves on the panels, said profiles having, in turn, a guide formed by a groove giving access to a cavity with larger dimensions, in cross section, than the groove , and a plurality of clips , each housed simultaneously in respective cavities in both guides of the panel and the profile in the area of intersection between the guides of the panels and the guides of the profiles, to thereby secure the panels to the profiles,> the clips having a thickened head intended to be introduced into one of the cavities, and a resilient body intended to be introduced into the other of the cavities, the resilience of the body being such as to cause it to adopt a first compressed position in which it can pass transversely through the groove corresponding to the guide in which the head is not housed, and an expanded position, in which the body is housed in the cavity corresponding to the guide in which the head is not housed, said body comprising at least two legs extending from said thickened head, at least one of the clips making contact with a wall opposite to the walls adjacent to the groove, characterised in that each leg has a laterally extending shoulder acting as a stop to prevent the clip from being removed from the cavity in which the resilient body is housed, the shoulder making contact with the walls of the cavity immediately adjacent to the respective groove, wherein the clip is compressed resiliently inside the cavity in which the resilient body is housed, in a second compressed position distinct from said first compressed position, the clip being secured by dimensional interference between the shoulders and said walls immediately adjacent to the groove in a plane perpendicular to the direction of introduction of the clip.
A method for treating a field operated component , the method comprising: providing the field operated component including a ceramic matrix composite ; removing a first portion of the field operated component , forming a first exposed ceramic matrix composite surface on the field operated component ; providing a second portion including the ceramic matrix composite , the second portion having a second exposed ceramic matrix composite surface including a conformation adapted to mate with the first exposed ceramic matrix composite surface ; positioning the second portion in association with the field operated component so as to replace the first portion ; and joining the second portion and the field operated component to form a treated component ; characterized in that joining the second portion and the field operated component includes adding at least one matrix ply over a joint defined by the first exposed ceramic matrix composite surface and the second exposed ceramic matrix composite surface . providing the field operated component including a ceramic matrix composite ; removing a first portion of the field operated component , forming a first exposed ceramic matrix composite surface on the field operated component ; providing a second portion including the ceramic matrix composite , the second portion having a second exposed ceramic matrix composite surface including a conformation adapted to mate with the first exposed ceramic matrix composite surface ; positioning the second portion in association with the field operated component so as to replace the first portion ; and joining the second portion and the field operated component to form a treated component ; characterized in that joining the second portion and the field operated component includes adding at least one matrix ply over a joint defined by the first exposed ceramic matrix composite surface and the second exposed ceramic matrix composite surface .
A tensioner unit for an engine accessory belt, the tensioner unit comprising: a pivot arm supported so as to be pivotable about a fulcrum shaft ; a tension pulley supported by the pivot arm such that, when the pivot arm pivots, the tension pulley moves about the fulcrum shaft together with the pivot arm ; at least one spring abutment pin and a damper abutment pin each fixed in position so as to be immovable even when the pivot arm pivots; and a hydraulic damper mounted to the pivot arm so as to be in contact with the damper abutment pin , and configured to dampen a pivoting motion of the pivot arm in the other of the two opposite pivot directions, characterized by at least one compression coil spring mounted to the pivot arm , and pressing the spring abutment pin so as to bias the pivot arm in one of two opposite pivot directions by receiving a reaction force from the spring abutment pin ; wherein the at least one compression coil spring comprises a plurality of compression coil springs disposed around the fulcrum shaft so as to be circumferentially spaced apart from each other, and wherein the at least one spring abutment pin comprises a plurality of spring abutment pins corresponding, respectively, to the plurality of compression coil springs . a pivot arm supported so as to be pivotable about a fulcrum shaft ; a tension pulley supported by the pivot arm such that, when the pivot arm pivots, the tension pulley moves about the fulcrum shaft together with the pivot arm ; at least one spring abutment pin and a damper abutment pin each fixed in position so as to be immovable even when the pivot arm pivots; and a hydraulic damper mounted to the pivot arm so as to be in contact with the damper abutment pin , and configured to dampen a pivoting motion of the pivot arm in the other of the two opposite pivot directions, characterized by at least one compression coil spring mounted to the pivot arm , and pressing the spring abutment pin so as to bias the pivot arm in one of two opposite pivot directions by receiving a reaction force from the spring abutment pin ; wherein the at least one compression coil spring comprises a plurality of compression coil springs disposed around the fulcrum shaft so as to be circumferentially spaced apart from each other, and wherein the at least one spring abutment pin comprises a plurality of spring abutment pins corresponding, respectively, to the plurality of compression coil springs .
A computer-implemented method, including the steps of: receiving source code, the source code having an associated grammar; parsing the source code to generate a first intermediate representation of the source code in the form of an abstract syntax tree; generating a binary intermediate representation of the source code based on abstract syntax tree, wherein: generating the binary intermediate representation of the source code comprises flattening, using a flattening application programming interface, API, the abstract syntax tree by serializing the abstract syntax tree, to generate a flattened abstract syntax tree, fAST, comprising a one dimensional binary array; the data in the one dimensional binary array is organized according to a predetermined schema; and the flattening API is generated, based on the predetermined schema, using a schema compiler; and performing subsequent processing on the binary intermediate representation. receiving source code, the source code having an associated grammar; parsing the source code to generate a first intermediate representation of the source code in the form of an abstract syntax tree; generating a binary intermediate representation of the source code based on abstract syntax tree, wherein: generating the binary intermediate representation of the source code comprises flattening, using a flattening application programming interface, API, the abstract syntax tree by serializing the abstract syntax tree, to generate a flattened abstract syntax tree, fAST, comprising a one dimensional binary array; the data in the one dimensional binary array is organized according to a predetermined schema; and the flattening API is generated, based on the predetermined schema, using a schema compiler; and generating the binary intermediate representation of the source code comprises flattening, using a flattening application programming interface, API, the abstract syntax tree by serializing the abstract syntax tree, to generate a flattened abstract syntax tree, fAST, comprising a one dimensional binary array; the data in the one dimensional binary array is organized according to a predetermined schema; and the flattening API is generated, based on the predetermined schema, using a schema compiler; and performing subsequent processing on the binary intermediate representation.
A flexible plastic film comprising: a support substrate; and an ultraviolet curable coating layer formed on at least one surface of the support substrate, wherein the film exhibits a pencil hardness of 6 H or more under a load of 750 g after moving the pencil back and forth three times at an angle of 45 degrees under a load of 750 g using a pencil hardness tester in accordance with standard JIS K5400-5-4, and wherein a crack does not occur when placing the film at an interval of 4 mm in the middle of the film and repeating 100,000 times the processes of folding and spreading both sides of the film at 90 degrees toward the bottom surface at room temperature, wherein the support substrate has an elastic modulus of 4 to 9 GPa as measured according to ASTM D882, wherein the support substrate has a thickness of 20 to 200 μm, and wherein the ultraviolet curable coating layer includes a crosslinked copolymer of a 3- to 6-functional acrylate-based binder and a 7- to 20-functional urethane acrylate-based binder; and inorganic fine particles having a bimodal particle size distribution including a first inorganic fine particle group having d 50 of 20 to 35nm and a second inorganic fine particle group having d 50 of 40 to 130 nm, wherein the particle size distribution by number is determined in the state of a dispersed solution by using dynamic laser light diffraction scattering method using Malvern Zetasizer Nano-ZS90. a support substrate; and an ultraviolet curable coating layer formed on at least one surface of the support substrate, wherein the film exhibits a pencil hardness of 6 H or more under a load of 750 g after moving the pencil back and forth three times at an angle of 45 degrees under a load of 750 g using a pencil hardness tester in accordance with standard JIS K5400-5-4, and wherein a crack does not occur when placing the film at an interval of 4 mm in the middle of the film and repeating 100,000 times the processes of folding and spreading both sides of the film at 90 degrees toward the bottom surface at room temperature,
An intraoral scanning system comprising: • a housing comprising • optical components , • a head , comprising a primary aperture , configured to be inserted into an oral cavity of a patient, and • a primary optical component arranged at the primary aperture , • a defogging unit comprising a heating unit ; • a sleeve configured to cover at least a part of the head when the sleeve is coupled with the housing , the sleeve comprising a secondary optical component arranged at a secondary aperture that is configured to be positioned in alignment with the primary aperture , and wherein the heating unit is configured to generate heat in response to application of electrical power to the heating unit , and the secondary optical component is configured to be arranged such that the generated heat is transferred from the heating unit to the secondary optical component through thermal conduction between the heating unit and secondary optical component and wherein the secondary optical component is made up of a material having a thermal conductivity higher than the thermal conductivity of the primary optical component . • a housing comprising • optical components , • a head , comprising a primary aperture , configured to be inserted into an oral cavity of a patient, and • a primary optical component arranged at the primary aperture , • a defogging unit comprising a heating unit ; • a sleeve configured to cover at least a part of the head when the sleeve is coupled with the housing , the sleeve comprising a secondary optical component arranged at a secondary aperture that is configured to be positioned in alignment with the primary aperture , and wherein the heating unit is configured to generate heat in response to application of electrical power to the heating unit , and the secondary optical component is configured to be arranged such that the generated heat is transferred from the heating unit to the secondary optical component through thermal conduction between the heating unit and secondary optical component and wherein the secondary optical component is made up of a material having a thermal conductivity higher than the thermal conductivity of the primary optical component .
A bag loading nozzle to confine a flow of material from upstream feed for downstream discharge into a bag having a spouted entrance , the nozzle comprising an interior wall presenting an inlet and an outlet , located intermediate of the inlet and outlet and about the interior wall is a shape retaining tube and through which the material is to pass from the feed into the bag , at least one actuable fluid inflatable collar at least substantially about the shape retaining tube , which when actuated to its inflated form(s) will effect at least a substantial sealing with a fitted suitable bag from within its spouted entrance , and which when deactuated or otherwise deflated, allows the release of the bag from the collar characterized in that a sleeve region extends downstream of the outlet of the shape retaining tube , the extended part of the sleeve region including a shape retaining ring located about the outlet of the sleeve region .
A method for producing an electroporation solution comprising 10-100 nM Melatonin, 1-10 mg/mL F68 and 5-50 mg/mL NaB, which comprises following steps; - the electroporation solution is comprising 10-100 nM Melatonin, 1-10 mg/mL F68 and 5-50 mg/mL NaB by diluting stock solutions - preparing sodium pentaborate pentahydrate stock solution with a concentration of 0.05-0.5 g/ml produced by dissolving sodium pentaborate pentahydrate (NaB) solution in a culture medium, - preparing Pluronic F68 stock solution with a concentration of 0.05-0.5 g/ml produced by dissolving Pluronic F68 solution in cold PBS, - preparing melatonin stock solution with a concentration of 5-15 mM produced by dissolving melatonin solution in ethanol, - diluting said prepared stock solutions and - mixing in the culture medium. - the electroporation solution is comprising 10-100 nM Melatonin, 1-10 mg/mL F68 and 5-50 mg/mL NaB by diluting stock solutions - preparing sodium pentaborate pentahydrate stock solution with a concentration of 0.05-0.5 g/ml produced by dissolving sodium pentaborate pentahydrate (NaB) solution in a culture medium, - preparing Pluronic F68 stock solution with a concentration of 0.05-0.5 g/ml produced by dissolving Pluronic F68 solution in cold PBS, - preparing melatonin stock solution with a concentration of 5-15 mM produced by dissolving melatonin solution in ethanol, - diluting said prepared stock solutions and - mixing in the culture medium.