mhurhangee/patent-ind-claim-en huggingface dataset:
A method of enabling static analysis of indirectly modeled code by an analyzer lacking capability for direct analysis of any indirectly modeled code, the method comprising: transforming by a processor a syntax tree of a source code segment in an indirectly modeled language by including in each node of the syntax tree a respective location identifier that identifies a location in the source code segment of an operator or an operand corresponding to the node of the syntax tree; identifying by the processor a set of nodes of selected types in the transformed syntax tree, each selected type being associated with taint propagation; and for each node in the identified set, generating by the processor a statement in a directly modeled language, based on, at least in part, at least one of: (i) a type of the node, (ii) a type of an input to the node, and (iii) an object corresponding to the node. transforming by a processor a syntax tree of a source code segment in an indirectly modeled language by including in each node of the syntax tree a respective location identifier that identifies a location in the source code segment of an operator or an operand corresponding to the node of the syntax tree; identifying by the processor a set of nodes of selected types in the transformed syntax tree, each selected type being associated with taint propagation; and for each node in the identified set, generating by the processor a statement in a directly modeled language, based on, at least in part, at least one of: (i) a type of the node, (ii) a type of an input to the node, and (iii) an object corresponding to the node.
A method for predicting and evaluating the cancer therapeutic effects of a vaccinia virus, which comprises measuring the expression of a UCA1 gene in the cancer cells of a cancer patient, and then predicting that a vaccinia virus exhibits cancer therapeutic effects on the patient, when the UCA1 gene has been expressed therein.
An internally rotating gear pump (P) in which a pinion having external teeth and a gear arranged eccentrically to the pinion and having internal teeth meshed with the external teeth of the pinion are housed in a casing having a suction port and a discharge port, the internally rotating gear pump (P) being configured to suck a fluid and discharge the fluid by rotating the pinion and the gear while the internal teeth and the external teeth are meshed with each other, the gear having a disc-shaped base having a front surface facing the pinion , the front surface including a plurality of internal teeth protruding from an outer peripheral portion of the front surface at predetermined angular intervals to form a ring shape, the internally rotating gear pump (P) comprising: a rotating shaft rotatably supported in the casing and rotationally driven by an external actuator; and a gear pin fixedly mounted to the casing , wherein the pinion is a driving gear coupled to the rotating shaft such that the pinion and the rotating shaft are rotationally driven in an integrated manner when the rotating shaft is driven, and the gear is a driven gear caused to rotate around the gear pin by a torque that the internal teeth receive from the external teeth of the pinion and is rotatably supported on the gear pin via a gear bush functioning as a slide bearing. a rotating shaft rotatably supported in the casing and rotationally driven by an external actuator; and a gear pin fixedly mounted to the casing , wherein the pinion is a driving gear coupled to the rotating shaft such that the pinion and the rotating shaft are rotationally driven in an integrated manner when the rotating shaft is driven, and the gear is a driven gear caused to rotate around the gear pin by a torque that the internal teeth receive from the external teeth of the pinion and is rotatably supported on the gear pin via a gear bush functioning as a slide bearing.
A method of controlling an internal combustion engine in a vehicle comprising a cylinder , a fuel system for supplying fuel to the cylinder, an air guide arranged to guide an air flow to the cylinder , an exhaust guide arranged to guide a gas flow from the cylinder , an exhaust valve arranged to control a communication between the cylinder and the exhaust guide , the method comprising - controlling the engine to provide a braking torque, the control comprising, - terminating (S1) the supply of fuel to the cylinder , - restricting (S4) the flow through the exhaust guide , - restricting (S6) the flow through the air guide , - performing (S2) in each of a plurality of cycles of the cylinder an exhaust valve actuation sequence (MOS1, DOS1, COS1), - determining (S3, S5) a value of at least one engine parameter affecting the pressure in the cylinder and/or the air mass flow through the cylinder, and - in dependence on at least one of the at least one determined engine parameter value adjusting (S6) the restriction of the flow through the air guide , - characterized in that the control of the engine to provide a braking torque also comprises in dependence on at least one of the at least one determined engine parameter value adjusting (S4) the timing of a commencement of the exhaust valve actuation sequence to occur selectively at any crankshaft angle within a non-zero crankshaft angle interval. - controlling the engine to provide a braking torque, the control comprising, - terminating (S1) the supply of fuel to the cylinder , - restricting (S4) the flow through the exhaust guide , - restricting (S6) the flow through the air guide , - performing (S2) in each of a plurality of cycles of the cylinder an exhaust valve actuation sequence (MOS1, DOS1, COS1), - determining (S3, S5) a value of at least one engine parameter affecting the pressure in the cylinder and/or the air mass flow through the cylinder, and - in dependence on at least one of the at least one determined engine parameter value adjusting (S6) the restriction of the flow through the air guide , - characterized in that the control of the engine to provide a braking torque also comprises
A method for split proxying Secure Socket Layer, SSL, communications across intermediaries deployed between a client and a server, the method comprising: a-1) identifying, by a first intermediary in communication with a server , a first proxy type from a plurality of proxy types, based on a client hello message of a client , wherein the identified first proxy type comprises split proxy; a) establishing , by the first intermediary , a first SSL session with the server ; b) establishing , by a second intermediary in communication with one or more clients , a second SSL session with the client using SSL configuration information received from the first intermediary for configuring the second intermediary as a split proxy, the second intermediary and the first intermediary communicating via a third SSL session; c) decrypting , by the first intermediary , encrypted data received from the server using a first session key of the first SSL session; d) transmitting , by the first intermediary to the second intermediary via the third SSL session, the data encrypted using a third session key of the third SSL session; e) decrypting , by the second intermediary , the data encrypted via the third SSL session using the third session key; and f) transmitting , by the second intermediary to the client , the data encrypted using a second session key of the second SSL session. a) establishing , by the first intermediary , a first SSL session with the server ; b) establishing , by a second intermediary in communication with one or more clients , a second SSL session with the client using SSL configuration information received from the first intermediary for configuring the second intermediary as a split proxy, the second intermediary and the first intermediary communicating via a third SSL session; c) decrypting , by the first intermediary , encrypted data received from the server using a first session key of the first SSL session; d) transmitting , by the first intermediary to the second intermediary via the third SSL session, the data encrypted using a third session key of the third SSL session; e) decrypting , by the second intermediary , the data encrypted via the third SSL session using the third session key; and f) transmitting , by the second intermediary to the client , the data encrypted using a second session key of the second SSL session.
A dispenser for producing a micro-foam without requiring the use of liquefied gas, from an outlet, said dispenser comprising: a receptacle for holding a surfactant solution; means for supplying a gas; means for conveying said surfactant solution in said receptacle and said gas along a flow path towards said outlet; wherein said conveying means comprises a conduit having a foaming section for generating said foam from said surfactant solution and said gas; wherein said gas supplying means and said conveying means are configured to provide said gas and said surfactant solution to the foaming section with fluid flow characteristics comprising a superficial gas velocity 'V G ' and a superficial liquid velocity 'V L '; and wherein said fluid flow characteristics are characterised by a relationship between superficial gas velocity 'V G ', the superficial liquid velocity 'V L ', and constants C 1 and C 2 , in which V G is not more than C 1 times V L plus C 2 and constants C 1 and C 2 have values 18.4 and 507.4 respectively within a 10% tolerance. a receptacle for holding a surfactant solution; means for supplying a gas; means for conveying said surfactant solution in said receptacle and said gas along a flow path towards said outlet; wherein said conveying means comprises a conduit having a foaming section for generating said foam from said surfactant solution and said gas; wherein said gas supplying means and said conveying means are configured to provide said gas and said surfactant solution to the foaming section with fluid flow characteristics comprising a superficial gas velocity 'V G ' and a superficial liquid velocity 'V L '; and wherein said fluid flow characteristics are characterised by a relationship between superficial gas velocity 'V G ', the superficial liquid velocity 'V L ', and constants C 1 and C 2 , in which V G is not more than C 1 times V L plus C 2 and constants C 1 and C 2 have values 18.4 and 507.4 respectively within a 10% tolerance.
A nonaqueous electrolyte battery comprising: - a positive electrode comprising, as a positive electrode active material, a spinel type lithium-manganese composite oxide and a lithium cobalt oxide, which satisfy the relationship 0.01 ≤ B / A + B < 0.05 wherein A is the weight ratio in wt.-% of the spinel type lithium-manganese composite oxide, and B is that of the lithium cobalt oxide, each in the positive electrode active material, - a negative electrode comprising a titanium-containing oxide; and - a nonaqueous electrolyte, the nonaqueous electrolyte battery satisfies the relationship 0.3 ≤ C / D ≤ 0.8 wherein C is the pore specific surface area in m 2 /g of the positive electrode, and D is that of the negative electrode, each according to mercury porosimetry measured according to the description. - a positive electrode comprising, as a positive electrode active material, a spinel type lithium-manganese composite oxide and a lithium cobalt oxide, which satisfy the relationship 0.01 ≤ B / A + B < 0.05 wherein A is the weight ratio in wt.-% of the spinel type lithium-manganese composite oxide, and B is that of the lithium cobalt oxide, each in the positive electrode active material, - a negative electrode comprising a titanium-containing oxide; and - a nonaqueous electrolyte, the nonaqueous electrolyte battery satisfies the relationship 0.3 ≤ C / D ≤ 0.8 wherein C is the pore specific surface area in m 2 /g of the positive electrode, and D is that of the negative electrode, each according to mercury porosimetry measured according to the description.
A mixing valve having a cartridge unit having respective inlets for hot and cold water and an outlet for temperature controlled water, valve means for varying the relative proportions of hot and cold water supplied to a mixing chamber , the valve means having hot and cold seating faces at opposite ends for co-operating with hot and cold seats to control the ratio of hot and cold water admitted into the mixing chamber , thermostatic means responsive to temperature of the water in the mixing chamber for adjusting the valve means to control movement of the valve means in accordance with user selection of the outlet water temperature, wherein the cold water flows into the mixing chamber in an axial direction through an array of holes that form a series of axial jets, and the hot water flows into the mixing chamber as a thin film wherein the holes are spaced apart in a circumferential direction around the thermostatic means and the thin film jets radially inwards towards the thermostatic means between the hot seat and the hot seating face , wherein the array of holes are adjacent to the hot seating face , whereby the water flowing through the holes intersects the thin film flowing radially inwards towards the thermostatic means , whereby means is provided for diverting a portion of the water in the mixing chamber away from the thermostatic means and the hot seat is part of a hot seat housing that screws into the cartridge unit and is axially adjustable to vary the spacing between the seats for setting the travel of the valve means for different operating/performance requirements, characterised in that the hot water flow into the mixing chamber is in a direction substantially perpendicular to the jets of cold water.
A method for directed vapor deposition using a deposition chamber, the method comprising: - evaporating a first material for deposition on a substrate, the evaporating generating a plurality of vapor molecules; - using plasma activation, ionizing the plurality of vapor molecules to create charged vapor molecules; - biasing the substrate using an electrical charge; - via a converging-diverging nozzle comprising adjustable side nozzle plates having slots allowing the nozzle to be adjusted in a first direction (Y Direction), inserting an inert gas as a carrier gas into the deposition chamber concurrent with the ionizing the plurality of vapor molecules, the converging-diverging nozzle formed around an array of evaporation sources, which results in a rectangular or ellipsoidal shaped vapor flux with a controllable width in the first direction (Y direction) and a uniform density in a second direction (X direction), which is perpendicular to the first direction (Y direction); and - aligning the charged vapor molecules using a plurality of inert gas characteristics such that the charged vapor molecules are directed for deposition on at least one non-line of sight portions of the substrate, wherein the biasing comprises - biasing the substrate with a negative bias for a first period of time; and - biasing the substrate with a positive bias for a second period of time. - evaporating a first material for deposition on a substrate, the evaporating generating a plurality of vapor molecules; - using plasma activation, ionizing the plurality of vapor molecules to create charged vapor molecules; - biasing the substrate using an electrical charge; - via a converging-diverging nozzle comprising adjustable side nozzle plates having slots allowing the nozzle to be adjusted in a first direction (Y Direction), inserting an inert gas as a carrier gas into the deposition chamber concurrent with the ionizing the plurality of vapor molecules, the converging-diverging nozzle formed around an array of evaporation sources, which results in a rectangular or ellipsoidal shaped vapor flux with a controllable width in the first direction (Y direction) and a uniform density in a second direction (X direction), which is perpendicular to the first direction (Y direction); and - aligning the charged vapor molecules using a plurality of inert gas characteristics such that the charged vapor molecules are directed for deposition on at least one non-line of sight portions of the substrate, - biasing the substrate with a negative bias for a first period of time; and - biasing the substrate with a positive bias for a second period of time.
Sampling device for plants, wherein the sampling device comprises a lower part having a plurality of sample containers (2.1), an upper part having a plurality of cultivation containers (4.1), wherein in each cultivation container (4.1) a base opening (4.1.1) is formed which corresponds to a sample container opening in a sample container (2.1), and wherein when the sampling device is in the usage position precisely one sample container (2.1) is allocated to each cultivation container (4.1) and precisely one sample container opening is allocated to each base opening (4.1.1), characterised in that the sampling device comprises a blade and a cutting plate formed as a cover for the lower part , the blade and cutting plate being formed as perforated plates having cutting holes (6.1, 8.1), wherein a surface (4.2) of the upper part facing the blade is formed as a blade guide (4.2) for guiding the blade , wherein the blade comprises two longitudinal sides having longitudinal recesses (6.2), and in that when the sampling device is in the usage position the blade and the cutting plate are arranged between the upper part and the lower part such that roots protruding out through the base opening (4.1.1) of the cultivation container (4.1) and protruding into the sample container (2.1) through the sample container opening can be severed by means of the blade and the cutting plate such that the blade lies flat against the cutting plate and is held so as to be longitudinally displaceable relative thereto via a blade stroke in an actuation direction from a first stroke end position to a second stroke end position, wherein the blade stroke is determined by a length of the longitudinal recesses (6.2) and is selected to be smaller than a distance between the cutting holes (6.1, 8.1) determined in the actuation direction of the blade , and wherein the cutting holes (6.1, 8.1) formed in the blade and the cutting plate are, in the first stroke end position of the blade , congruent with the base openings (4.1.1) and sample container openings corresponding thereto and the roots of the plants are severed in the second stroke end position of the blade .
A plug comprising a head portion and a tail portion for sealing a puncture in a tyre, the head portion comprising: a porous material that absorbs >0.02 grams of water per gram of porous material as measured according to the method of Example 2 of the description; and an accelerant selected from the group consisting of a salt, solvent and acid, or a combination thereof impregnated in the porous material, wherein the accelerant reduces curing time of a sealant selected from the group consisting of anionic stabilized sealants, steric stabilized sealants and anionic colloidal dispersions, and wherein the porous material does not comprise the sealant. a porous material that absorbs >0.02 grams of water per gram of porous material as measured according to the method of Example 2 of the description; and an accelerant selected from the group consisting of a salt, solvent and acid, or a combination thereof impregnated in the porous material, wherein the accelerant reduces curing time of a sealant selected from the group consisting of anionic stabilized sealants, steric stabilized sealants and anionic colloidal dispersions, and wherein the porous material does not comprise the sealant.
A display apparatus comprising: a display panel ; a substrate provided with a plurality of light sources to apply light to the display pane and including at least one fixing hole which is formed between the plurality of light sources ; and a bottom chassis to which the substrate is coupled, wherein the bottom chassis includes at least one fixing protrusion to be coupled to the at least one fixing hole and wherein the at least one fixing protrusion is formed integrally with the bottom chassis , characterised in that the at least one fixing protrusion has a cylindrical shape protruding from the bottom chassis toward the display panel and has a groove so that the at least one fixing protrusion is prevented from being detached from the at least one fixing hole . a display panel ; a substrate provided with a plurality of light sources to apply light to the display pane and including at least one fixing hole which is formed between the plurality of light sources ; and a bottom chassis to which the substrate is coupled, wherein the bottom chassis includes at least one fixing protrusion to be coupled to the at least one fixing hole and wherein the at least one fixing protrusion is formed integrally with the bottom chassis , characterised in that the at least one fixing protrusion has a cylindrical shape protruding from the bottom chassis toward the display panel and has a groove so that the at least one fixing protrusion is prevented from being detached from the at least one fixing hole .
A building process in which one or more planar member, having a planar surface and edges (1.1, 1.2, 1.3) which define the shape of the planar member, the planar member being used to form system parts which form at least part of one or more system components, the process comprising the steps of: determining the system components to be created and which system parts are required to make the system component, for each system part, sub-dividing the planar member by cutting the planar member into strips (2.1, 3.1,3.3) of a predetermined width to create sections and assembling the sub-divided sections into the system part, creating the system component using system parts wherein the system part is a tube (4-1, 4.2) having a square or rectangular cross section which is formed by fixing together the sections of a predetermined width, the tube is cut into lengths (5.1) to form one or more shorter tube that acts as a spacer and wherein, the spacer is secured between planar surfaces of adjacent planar members to separate the planar members (5.2). determining the system components to be created and which system parts are required to make the system component, for each system part, sub-dividing the planar member by cutting the planar member into strips (2.1, 3.1,3.3) of a predetermined width to create sections and assembling the sub-divided sections into the system part, creating the system component using system parts wherein the system part is a tube (4-1, 4.2) having a square or rectangular cross section which is formed by fixing together the sections of a predetermined width, the tube is cut into lengths (5.1) to form one or more shorter tube that acts as a spacer and wherein, the spacer is secured between planar surfaces of adjacent planar members to separate the planar members (5.2).
An oriented film layer including a blend of a crystalline polypropylene wax and a high crystallinity polypropylene homopolymer, the crystalline polypropylene wax being included in less than 10% by weight of the blend, the crystalline polypropylene wax being defined as such waxes including the following properties: a DSC peak melting point of greater than 80 °C; a viscosity, measured in the melt at 170° C, in the range from 20 to 30,000 mPa.s; a crystallinity as measured by DSC of greater than 5%; and a weight average molecular weight, as measured by GPC, in the range from 3,000 to 30,000 Daltons; the high crystallinity polypropylene homopolymer has xylene soluble levels of lower than 3% and is a polypropylene homopolymer selected from a crystalline propylene homopolymer or a copolymer of propylene with another α-monoolefin having from 2 to 8 carbon atoms in an amount insufficient to have a significant effect on the crystallinity of the polypropylene and having a delta heat of fusion (Hf), as measured by DSC, of greater than 82 J/g, and an intermolecular stereoregularity greater than 93%.