mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle door structure comprising: an inner door panel ; an outer door panel ; and a reinforcing member extending along a side sill on an inner door panel side of a lower portion of an outer door panel ; wherein the reinforcing member has a first side surface (A1) that faces the side sill in a vehicle width direction, and a second side surface (A2) that extends from the first side surface (A1) to the outer door panel ; and the first side surface (A1) and the second side surface (A2) are joined to the inner door panel ; characterized in that the outer door panel is made of resin or fiber-reinforced resin; the reinforcing member is integrally formed with the outer door panel , and is configured from: a frame member in which a cylindrical body made of the fiber-reinforced resin and having an annular rectangular cross section is filled with a foam core material made of foamed polyethylene, and a fixing member for fixing the frame member to the outer door panel , the fixing member being a member made of the fiber-reinforced resin and having an essentially hat-shaped cross section, and is integrally formed with the outer door panel in a state in which the frame member is sandwiched between the fixing member and the outer door panel . an inner door panel ; an outer door panel ; and a reinforcing member extending along a side sill on an inner door panel side of a lower portion of an outer door panel ; wherein the reinforcing member has a first side surface (A1) that faces the side sill in a vehicle width direction, and a second side surface (A2) that extends from the first side surface (A1) to the outer door panel ; and the first side surface (A1) and the second side surface (A2) are joined to the inner door panel ; characterized in that the outer door panel is made of resin or fiber-reinforced resin; the reinforcing member is integrally formed with the outer door panel , and is configured from: a frame member in which a cylindrical body made of the fiber-reinforced resin and having an annular rectangular cross section is filled with a foam core material made of foamed polyethylene, and a fixing member for fixing the frame member to the outer door panel , the fixing member being a member made of the fiber-reinforced resin and having an essentially hat-shaped cross section, and is integrally formed with the outer door panel in a state in which the frame member is sandwiched between the fixing member and the outer door panel . a frame member in which a cylindrical body made of the fiber-reinforced resin and having an annular rectangular cross section is filled with a foam core material made of foamed polyethylene, and a fixing member for fixing the frame member to the outer door panel , the fixing member being a member made of the fiber-reinforced resin and having an essentially hat-shaped cross section, and is integrally formed with the outer door panel in a state in which the frame member is sandwiched between the fixing member and the outer door panel .
A vehicle defining an inner space comprising a dashboard provided with an outer wall and defining a housing , said vehicle comprising a table which can be housed in said housing and comprising a first half plane and a second-half plane connected to each other in a foldable manner and each comprising a support wall , a pair of side walls and a lower wall opposite to said support wall , when said table is folded inside said housing , said lower wall of either said first or second half plane being placed in continuation with said outer wall of said dashboard , characterized in that said housing is defined inside said dashboard and comprises at least a pair of side walls and a bottom wall connected to each other, said side walls of either said first or second half planes being connected to said side walls defining said housing through respective cam connections configured to allow the passage of said table between a folded position to an unfolded position.
A filter cartridge comprising: (a) media having first and second ends , the media comprising a plurality of flutes extending between first and second, opposite, flow faces; and, (b) a first, open, end piece being positioned at the first end of the media; (c) a housing seal arrangement positioned on the first end piece , and positioned adjacent one of the first and second, opposite flow faces, comprising: (i) a first radially directed seal surface having at least three radially outwardly projecting sections alternating with at least three, radially inwardly projecting sections , creating a non-circular seal perimeter; (a) media having first and second ends , the media comprising a plurality of flutes extending between first and second, opposite, flow faces; and, (b) a first, open, end piece being positioned at the first end of the media; (c) a housing seal arrangement positioned on the first end piece , and positioned adjacent one of the first and second, opposite flow faces, comprising: (i) a first radially directed seal surface having at least three radially outwardly projecting sections alternating with at least three, radially inwardly projecting sections , creating a non-circular seal perimeter; (i) a first radially directed seal surface having at least three radially outwardly projecting sections alternating with at least three, radially inwardly projecting sections , creating a non-circular seal perimeter;
Method for calculating an optimised trajectory (T_opt) of at least one component part and/or one holder for the component part for transporting the component part into a production machine and/or out of the production machine , wherein at least one optimisation routine (Opt) is assigned to a simulation program (S), wherein the simulation program simulates the insertion into and/or the removal from the production machine of the component part, wherein a first trajectory (T1) is calculated using the simulation program (S) on the basis of marginal conditions (RB), in the optimisation routine (Opt) a parameter (v), in particular a velocity (v), is calculated from the first trajectory (T1), wherein a modified parameter (v') is ascertained by means of the optimisation routine (Opt) and at least one further trajectory (Tw) is created on the basis of the modified parameter (v'), wherein the further trajectory (Tw) is modified in a loop, wherein the loop comprises at least the following steps: - wherein in one step the further trajectory (Tw) is adjusted to the marginal conditions (RB) by means of the simulation program (S) and is assigned to the optimisation routine (Opt), - wherein in one step the parameter (v) is ascertained on the basis of the further trajectory (Tw), - wherein in one step the modified parameter (v') is ascertained on the basis of the parameter (v), - wherein in one step the further trajectory (Tw) is calculated on the basis of the modified parameter (v') and the further trajectory (Tw) is assigned to the simulation program (S), wherein the loop is executed until such time as the modified parameter (v') reaches a predefined value (v_ex) or an extremal value (v_ex), wherein the optimised trajectory (T_opt) is calculated from the extremal value (v_ex) or the predefined value (v_ex) and is adjusted to the marginal conditions (RB) by means of the simulation program (S). - wherein in one step the further trajectory (Tw) is adjusted to the marginal conditions (RB) by means of the simulation program (S) and is assigned to the optimisation routine (Opt), - wherein in one step the parameter (v) is ascertained on the basis of the further trajectory (Tw), - wherein in one step the modified parameter (v') is ascertained on the basis of the parameter (v), - wherein in one step the further trajectory (Tw) is calculated on the basis of the modified parameter (v') and the further trajectory (Tw) is assigned to the simulation program (S),
A method, performed by an encoder , for adaptive loop filtering, the method comprising: determining filter parameters for a plurality of filters to be used in encoding a frame or slice; determining respective activity values for each of a plurality of blocks in the frame or slice, wherein each block comprises a plurality of pixels; determining respective quantization parameters for each of the plurality of blocks; weighting the activity value for each block by dividing the activity value by a factor A2 Δ QP∗B , wherein ΔQP comprises a difference between the quantization parameter of the respective block and the quantization parameter for the frame or slice, and wherein A and B are parameters; categorizing each block into one of a plurality of activity categories based on the respective weighted activity value; selecting, for each of the plurality of blocks, a filter from the plurality of determined filters based on the respective activity category; and applying the filter parameters for the respective selected filters to the plurality of blocks. determining filter parameters for a plurality of filters to be used in encoding a frame or slice; determining respective activity values for each of a plurality of blocks in the frame or slice, wherein each block comprises a plurality of pixels; determining respective quantization parameters for each of the plurality of blocks; weighting the activity value for each block by dividing the activity value by a factor A2 Δ QP∗B , wherein ΔQP comprises a difference between the quantization parameter of the respective block and the quantization parameter for the frame or slice, and wherein A and B are parameters; categorizing each block into one of a plurality of activity categories based on the respective weighted activity value; selecting, for each of the plurality of blocks, a filter from the plurality of determined filters based on the respective activity category; and applying the filter parameters for the respective selected filters to the plurality of blocks.
A system for generating a blood circulation in at least part of an organ of a vertebrate, comprising a first artificial cavity and a second artificial cavity , said cavities each comprising a flexible membrane , capable of beating under the action of a gas, each of said membranes sealingly separating a blood circulation chamber , and a chamber containing said gas , , characterised in that it comprises - a first gas buffer reservoir intended to be brought substantially to a first pressure, referred to as low pressure, and a second gas buffer reservoir intended to be brought substantially to a second pressure higher than said first pressure, referred to as high pressure; - gas distribution means connected to the chambers containing said gas of said first and second artificial cavities and to said first and second buffer reservoirs, arranged to alternately inject gas into said chambers containing said gas and expel gas from said chambers containing said gas to provide predetermined values of blood flow rates in the blood circulation chambers of said first cavity and said second cavity; - a pneumatic pump supplied with electrical energy and mounted between said first buffer reservoir and said second buffer reservoir and intended to suck gas from said first reservoir in order to inject it into said second reservoir. - a first gas buffer reservoir intended to be brought substantially to a first pressure, referred to as low pressure, and a second gas buffer reservoir intended to be brought substantially to a second pressure higher than said first pressure, referred to as high pressure; - gas distribution means connected to the chambers containing said gas of said first and second artificial cavities and to said first and second buffer reservoirs, arranged to alternately inject gas into said chambers containing said gas and expel gas from said chambers containing said gas to provide predetermined values of blood flow rates in the blood circulation chambers of said first cavity and said second cavity; - a pneumatic pump supplied with electrical energy and mounted between said first buffer reservoir and said second buffer reservoir and intended to suck gas from said first reservoir in order to inject it into said second reservoir.
Device for placing and extracting socks from sock forms comprising a structure ; a guide , attached to the structure , whereby a set of sock forms moves; characterized in that it comprises a system comprising a set of cylindrical cones ; a set of conveyor belts and a set of suction elements and in that the sock forms can be positioned vertically along the guide and can be conveyed by the guide until they are positionable horizontally by means of a first cam ; and in that a pair of the set of said cylindrical cones is positioned in an area corresponding to the centre of the sock heel and are closable against the sock form in order to obtain pressure on the fabric of the sock in that position by a vertical movement; in that each sock form is positionable between a pair of conveyor belts of the set of said conveyor belts and the pair of cones and that action is controlled by a pneumatic cylinder for opening and closing said pair of cones and a pneumatic cylinder for opening and closing the pair of belts respectively. a structure ; a guide , attached to the structure , whereby a set of sock forms moves; a set of cylindrical cones ; a set of conveyor belts and a set of suction elements and in that the sock forms can be positioned vertically along the guide and can be conveyed by the guide until they are positionable horizontally by means of a first cam ; and in that a pair of the set of said cylindrical cones is positioned in an area corresponding to the centre of the sock heel and are closable against the sock form in order to obtain pressure on the fabric of the sock in that position by a vertical movement; in that each sock form is positionable between a pair of conveyor belts of the set of said conveyor belts and the pair of cones and that action is controlled by a pneumatic cylinder for opening and closing said pair of cones and a pneumatic cylinder for opening and closing the pair of belts respectively.
A method for determining a gain of a Raman optical amplifier, wherein the method comprises in the following order: establishing for each of at least two monitoring channels, a correspondence between a gain of the monitoring channel of the Raman optical amplifier and gain parameter information of the Raman optical amplifier (S140); wherein the monitoring channel includes a transmission channel, wherein the transmission channel has a gain corresponding to an output-power peak value and a gain corresponding to an output-power trough value of the Raman optical amplifier; acquiring present said gain parameter information of the Raman optical amplifier (S110), wherein the present said gain parameter information is determined by out-of-band amplified spontaneous emission ASE noise power information of the Raman optical amplifier, pump light power information of each pump source of the Raman optical amplifier, and power information of an output signal of the Raman optical amplifier; and determining a present said gain of each monitoring channel of the Raman optical amplifier according to the present said gain parameter information and the correspondence between the gain of each monitoring channel of the Raman optical amplifier and said gain parameter information (S120). establishing for each of at least two monitoring channels, a correspondence between a gain of the monitoring channel of the Raman optical amplifier and gain parameter information of the Raman optical amplifier (S140); wherein the monitoring channel includes a transmission channel, wherein the transmission channel has a gain corresponding to an output-power peak value and a gain corresponding to an output-power trough value of the Raman optical amplifier; acquiring present said gain parameter information of the Raman optical amplifier (S110), wherein the present said gain parameter information is determined by out-of-band amplified spontaneous emission ASE noise power information of the Raman optical amplifier, pump light power information of each pump source of the Raman optical amplifier, and power information of an output signal of the Raman optical amplifier; and determining a present said gain of each monitoring channel of the Raman optical amplifier according to the present said gain parameter information and the correspondence between the gain of each monitoring channel of the Raman optical amplifier and said gain parameter information (S120).
A method for performing a random access procedure, the method being performed by a user equipment, UE, and comprising: selecting a first random access preamble among the first random access preamble and a second random access preamble, based on (i) that a first subframe related to the first random access preamble and a second subframe related to the second random access preamble overlap in time and (ii) a predefined priority rule where the first random access preamble related to transmission toward a master cell group, MCG, has a higher priority than the second random access preamble related to transmission toward a secondary cell group, SCG; transmitting the first random access preamble, wherein the UE supports dual connectivity, and wherein the first random access preamble is to be transmitted toward the MCG; dropping the second random access preamble, based on that the first subframe related to the first random access preamble and the second subframe related to the second random access preamble overlap in time, wherein the second random access preamble is to be transmitted toward the SCG; and transmitting information used for suspending a power ramping to a higher layer based on that the second random access preamble is dropped, wherein the information used for suspending the power ramping enables the higher layer to suspend the power ramping. selecting a first random access preamble among the first random access preamble and a second random access preamble, based on (i) that a first subframe related to the first random access preamble and a second subframe related to the second random access preamble overlap in time and (ii) a predefined priority rule where the first random access preamble related to transmission toward a master cell group, MCG, has a higher priority than the second random access preamble related to transmission toward a secondary cell group, SCG; transmitting the first random access preamble, wherein the UE supports dual connectivity, and wherein the first random access preamble is to be transmitted toward the MCG; dropping the second random access preamble, based on that the first subframe related to the first random access preamble and the second subframe related to the second random access preamble overlap in time, wherein the second random access preamble is to be transmitted toward the SCG; and transmitting information used for suspending a power ramping to a higher layer based on that the second random access preamble is dropped, wherein the information used for suspending the power ramping enables the higher layer to suspend the power ramping.
Process for the preparation of a compound (I), or pharmaceutically acceptable salt thereof; comprising the following steps: step 1) the formation of compound (III), via iodization reaction of compound (II), step 2) the formation of compound (V), via Ullmann reaction between compound (III) and compound (IV), step 3) the formation of compound (VI), via de-protection of compound (V); step 4) the formation of compound (VII), via the reaction between 3,4,5-trifluoroaniline and phenyl carbonochloridate; step 5) the formation of compound (I), via the substitution reaction between compound (VI) and compound (VII). or pharmaceutically acceptable salt thereof; comprising the following steps: step 1) the formation of compound (III), via iodization reaction of compound (II), step 2) the formation of compound (V), via Ullmann reaction between compound (III) and compound (IV), step 3) the formation of compound (VI), via de-protection of compound (V); step 4) the formation of compound (VII), via the reaction between 3,4,5-trifluoroaniline and phenyl carbonochloridate; step 5) the formation of compound (I), via the substitution reaction between compound (VI) and compound (VII). step 1) the formation of compound (III), via iodization reaction of compound (II), step 2) the formation of compound (V), via Ullmann reaction between compound (III) and compound (IV), step 3) the formation of compound (VI), via de-protection of compound (V); step 4) the formation of compound (VII), via the reaction between 3,4,5-trifluoroaniline and phenyl carbonochloridate; step 5) the formation of compound (I), via the substitution reaction between compound (VI) and compound (VII).
Method of producing a chocolate product, comprising at least the following method steps: a) providing a mass to be conched, b) conching the mass provided, c) adding a coolant to the mass during conching, characterized in that the coolant comprises at least one solid substance with a temperature below -50°C. a) providing a mass to be conched, b) conching the mass provided, c) adding a coolant to the mass during conching,
Deflector for a thrust reverser of an aircraft engine nacelle, said deflector comprising a deflector plate intended to act on an aerodynamic flow, said deflector plate having a concave face referred to as the upstream face (F1A, F1B) and a convex face referred to as the downstream face (F2A, F2B), as well as an intake end (E1A, E1B) and an exhaust end (E2A, E2B), characterized in that it is fitted with a spoiler rigidly connected to the exhaust end (E2A, E2B) of the deflector plate and arranged transversely in relation to the deflector plate .
Apparatus for injection molding of plastic materials including an injection machine platen , a mold comprising a backing plate for securing the mold to the injection machine platen , a distributor of the plastic material to be injected bearing a plurality of injectors each including a nozzle within which a pin valve is axially movable, and a respective electric actuator and associated transmission to operate the displacement of the pin valve between a closed condition and an open condition to enable fluid plastic material under pressure to flow from the distributor to the cavity of the mold , wherein the transmission of each injector includes a respective variable-length connecting rod , characterized in that each electric actuator is carried by a support of the injection machine platen arranged laterally to the backing plate of the mold and said variable-length connecting rods extend through the backing plate .
Device for removing rust on a brake disk of a wheel brake , comprising a control unit which automatically actuates a brake actuator , in order to apply a brake shoe to the brake disk of at least one wheel brake if at least one vehicle parameter (P 1 -P n ; M mot ) satisfies a respectively predefined activation condition, characterized in that the at least one vehicle parameter (P 1 -P n ; M mot ) comprises an ignition cycle counter reading, and the associated activation condition is satisfied if the ascertained ignition cycle counter reading is greater than a predefined value.