mhurhangee/patent-ind-claim-en huggingface dataset:
A polyphenylene sulfide resin composition, comprising 100 parts by weight of (A) a polyphenylene sulfide resin, 16 to 50 parts by weights of (B) a polyamide resin, 10 to 25 parts by weight of (C) an epoxy group-containing olefinic copolymer, 10 to 25 parts by weight of (D) an olefinic copolymer having no polar functional group, and furthermore 40 to 140 parts by weight of (E) a fibrous filler, wherein (B) the polyamide resin, (C) the epoxy group-containing olefinic copolymer, and (D) the olefinic copolymer having no polar functional group are dispersed, having a number average dispersed particle size, as measured by the method of the description, of 500 nm or less, wherein (B) the polyamide resin has a repeating unit represented by the following structural formula: wherein a is a natural number of 5 or more, and represents the number of repeating units that are methylene groups, and b is a natural number of 7 or more, and represents the number of repeating units that are methylene groups, or wherein (B) the polyamide resin is one or more selected from nylon 6, nylon 66, nylon 46, nylon 610, nylon 612, nylon 11, nylon 12, and aromatic nylon. wherein (B) the polyamide resin has a repeating unit represented by the following structural formula: wherein a is a natural number of 5 or more, and represents the number of repeating units that are methylene groups, and b is a natural number of 7 or more, and represents the number of repeating units that are methylene groups, or wherein (B) the polyamide resin is one or more selected from nylon 6, nylon 66, nylon 46, nylon 610, nylon 612, nylon 11, nylon 12, and aromatic nylon.
Device (DO) for decoding a data signal representative of at least one image split into partitions which has been previously encoded, comprising means (DE_DO) for obtaining, by the entropy decoding of data items of said signal, digital information items associated with residual data items relating to at least one previously encoded partition, said decoding device being characterized in that it comprises processing means (MTR_DO) which are able to: - determine, from said residual data items, a subset containing residual data items able to have been modified during a previous encoding, the subset being determined by a first non-zero coefficient and a last non-zero coefficient, the zero coefficients situated before the first non-zero coefficient and the zero coefficients situated after the last non-zero coefficient not being able to have been modified, - calculate the value of a representative function of the coefficients of the residual data items of said determined subset, the representative function being the parity of the sum of the coefficients of the residual data items of said determined subset, - obtain, in addition to the digital information items obtained by the entropy decoding, at least one sign of the first non-zero coefficient, the sign of the first non-zero coefficient being obtained from the parity of the sum of the coefficients of the residual data items of said determined subset, the sign of the first non-zero coefficient being obtained using a predetermined convention. - determine, from said residual data items, a subset containing residual data items able to have been modified during a previous encoding, the subset being determined by a first non-zero coefficient and a last non-zero coefficient, the zero coefficients situated before the first non-zero coefficient and the zero coefficients situated after the last non-zero coefficient not being able to have been modified, - calculate the value of a representative function of the coefficients of the residual data items of said determined subset, the representative function being the parity of the sum of the coefficients of the residual data items of said determined subset, - obtain, in addition to the digital information items obtained by the entropy decoding, at least one sign of the first non-zero coefficient, the sign of the first non-zero coefficient being obtained from the parity of the sum of the coefficients of the residual data items of said determined subset, the sign of the first non-zero coefficient being obtained using a predetermined convention.
System adapted to measure multiple biophysical characteristics of cells, the system comprising: a microfluidic chip provided with a microfluidic channel which allows cells to flow through, the microfluidic channel having an inlet , an outlet , and a lateral opening situated between the inlet and the outlet ; and a capacitive sensor integrated in the microfluidic chip, having a pair of sensor elements , the sensor being adapted to obtain biophysical characteristics of a single cell in the microfluidic channel by directly manipulating the single cell by the sensor elements through the lateral opening of the microfluidic channel , wherein the sensor elements include a pair of arms extending toward each other, tips of the pair of arms being arranged in lateral openings formed on opposite side of the microfluidic channel , the sensor comprising a stationary part and an electrostatically driven movable part which is movable relative to the stationary part, the stationary part being fixed to the microfluidic chip , the movable part being arranged in the lateral opening of the microfluidic channel , wherein the movable part comprises at least one arm of the pair of arms configured to move closer to or away from the other arm , characterized in that the lateral openings and the tips of the arms have a size selected so as to create an interface between fluid and air, so as to allow the tips of the arms to be introduced into the microfluidic channel through the respective opening while preventing a fluid within the microfluidic channel from leaking. a microfluidic chip provided with a microfluidic channel which allows cells to flow through, the microfluidic channel having an inlet , an outlet , and a lateral opening situated between the inlet and the outlet ; and a capacitive sensor integrated in the microfluidic chip, having a pair of sensor elements , the sensor being adapted to obtain biophysical characteristics of a single cell in the microfluidic channel by directly manipulating the single cell by the sensor elements through the lateral opening of the microfluidic channel , wherein the sensor elements include a pair of arms extending toward each other, tips of the pair of arms being arranged in lateral openings formed on opposite side of the microfluidic channel , the sensor comprising a stationary part and an electrostatically driven movable part which is movable relative to the stationary part, the stationary part being fixed to the microfluidic chip , the movable part being arranged in the lateral opening of the microfluidic channel , wherein the movable part comprises at least one arm of the pair of arms configured to move closer to or away from the other arm , characterized in that the lateral openings and the tips of the arms have a size selected so as to create an interface between fluid and air, so as to allow the tips of the arms to be introduced into the microfluidic channel through the respective opening while preventing a fluid within the microfluidic channel from leaking.
A hood structure for a vehicle, the hood structure comprising: an outer panel configured to define external appearance; an inner panel that is provided on a prime mover chamber side of the outer panel ; and a stiffener that is provided in a front portion of the inner panel , wherein the inner panel has: an upper surface section that is located on a center side of the outer panel ; a coupling surface section that extends downward from a ridgeline (X1) located at a peripheral edge of the upper surface section ; and a lower surface section that extends from a peripheral edge end of the coupling surface section to an edge side of the outer panel , the stiffener has: a reinforcing surface section that is joined to the outer panel ; and a rear-side fixed section that extends rearward from the reinforcing surface section , and the rear-side fixed section is fixed to the vicinity of the ridgeline (X1), characterized by a joint seat surface to which the rear-side fixed section is joined and which is formed to continue with the ridgeline (X1) of the inner panel , wherein the ridgeline (X1) has an interrupted section that is interrupted at a position of the joint seat surface , and the joint seat surface is provided on a virtual extension line of the ridgeline (X1) in the interrupted section of the ridgeline (X1). an outer panel configured to define external appearance; an inner panel that is provided on a prime mover chamber side of the outer panel ; and a stiffener that is provided in a front portion of the inner panel , wherein the inner panel has: an upper surface section that is located on a center side of the outer panel ; a coupling surface section that extends downward from a ridgeline (X1) located at a peripheral edge of the upper surface section ; and a lower surface section that extends from a peripheral edge end of the coupling surface section to an edge side of the outer panel , an upper surface section that is located on a center side of the outer panel ; a coupling surface section that extends downward from a ridgeline (X1) located at a peripheral edge of the upper surface section ; and a lower surface section that extends from a peripheral edge end of the coupling surface section to an edge side of the outer panel , the stiffener has: a reinforcing surface section that is joined to the outer panel ; and a rear-side fixed section that extends rearward from the reinforcing surface section , and a reinforcing surface section that is joined to the outer panel ; and a rear-side fixed section that extends rearward from the reinforcing surface section , and the rear-side fixed section is fixed to the vicinity of the ridgeline (X1), characterized by a joint seat surface to which the rear-side fixed section is joined and which is formed to continue with the ridgeline (X1) of the inner panel , wherein the ridgeline (X1) has an interrupted section that is interrupted at a position of the joint seat surface , and the joint seat surface is provided on a virtual extension line of the ridgeline (X1) in the interrupted section of the ridgeline (X1).
Container stacking picking cart having a chassis and a container receptacle which is vertically adjustable relative to the chassis and has a receiving region with a container contact surface , a lifting device acting in a lifting direction being arranged between the chassis and the container receptacle , a bearing device being arranged between the container receptacle and the chassis , which supports the container receptacle in a floating manner and permits movement of the container receptacle relative to the chassis transversely with respect to the lifting direction, a fixing device being provided which fixes the container receptacle relative to the chassis transversely with respect to the lifting direction during transport of a container from a container stacking store , the fixing device being releasable in order to permit the floating support.
A method for optimizing the operating voltage Vop of an avalanche photo-diode (APD), the method comprising: setting Vop to a first value which is less than an initially estimated breakdown voltage for the APD; determining a first response of the APD to an on-board light source at the first Vop value; setting Vop to an updated value which is less than the initially estimated breakdown voltage and different from the previous value of Vop; determining an updated response of the APD to the on-board light source; determining an updated estimated breakdown voltage according to the updated value of Vop, the updated response, the immediately previous value of Vop, and the immediately previous response, wherein determining the updated estimated breakdown voltage Vb includes applying the formula Vb = R 2 ∗ Vop 2 − R 1 ∗ Vop 1 / R 2 − R 1 where Vop1 is the immediately previous value of Vop, R1 is the response of the APD for Vop = Vop1, Vop2 is the updated value of Vop, and R2 is the response of the APD for Vop = Vop2; setting Vop to an offset value which is offset below the updated estimated breakdown voltage by a fixed offset amount; and repeating the steps of determining an updated response , determining an updated estimated breakdown voltage , and setting the Vop to an offset value , until at least one of a convergence criterion is met and a maximum number of repetitions is reached, each estimated breakdown voltage being determined according to a most recently set value of Vop, a most recent response, an immediately previous value of Vop, and an immediately previous response. setting Vop to a first value which is less than an initially estimated breakdown voltage for the APD; determining a first response of the APD to an on-board light source at the first Vop value; setting Vop to an updated value which is less than the initially estimated breakdown voltage and different from the previous value of Vop; determining an updated response of the APD to the on-board light source; determining an updated estimated breakdown voltage according to the updated value of Vop, the updated response, the immediately previous value of Vop, and the immediately previous response, wherein determining the updated estimated breakdown voltage Vb includes applying the formula Vb = R 2 ∗ Vop 2 − R 1 ∗ Vop 1 / R 2 − R 1 where Vop1 is the immediately previous value of Vop, R1 is the response of the APD for Vop = Vop1, Vop2 is the updated value of Vop, and R2 is the response of the APD for Vop = Vop2; setting Vop to an offset value which is offset below the updated estimated breakdown voltage by a fixed offset amount; and repeating the steps of determining an updated response , determining an updated estimated breakdown voltage , and setting the Vop to an offset value , until at least one of a convergence criterion is met and a maximum number of repetitions is reached, each estimated breakdown voltage being determined according to a most recently set value of Vop, a most recent response, an immediately previous value of Vop, and an immediately previous response.
A combination comprising: (i) a proteasome inhibitor or a pharmaceutically acceptable salt thereof; and (ii) a cyclic peptide or a pharmaceutically acceptable salt thereof, wherein the cyclic peptide or pharmaceutically acceptable salt thereof comprises an exposed Arg-Gly-Asp (RGD) moiety, wherein the ratio of proteasome inhibitor or pharmaceutically acceptable salt thereof to cyclic peptide or pharmaceutically acceptable salt thereof component ranges from 1:5000 to 10:1 w/w.
A method of controlling the motion of an aircraft having a longitudinal axis (L) during taxiing on the ground, wherein the aircraft comprises: a steerable landing gear comprising one or more wheels positioned at the fore end of the aircraft, the steerable landing gear operating in a free-to-caster mode during performance of the method, one or more left main landing gears, each comprising one or more wheels and being positioned rearwardly and to the left of the steerable landing gear, and one or more right main landing gears each comprising one or more wheels and being positioned rearwardly and to the right of the steerable landing gear, and the method comprises the following steps, performed whilst the aircraft is turning in a direction away from the longitudinal axis (L) of the aircraft, the rotational position of the steerable landing gear being non-parallel to the longitudinal axis: ascertaining the rotational position (θ) of the steerable landing gear relative to the longitudinal axis (L) of the aircraft , receiving a control instruction that would, if effected, continue turning of the aircraft in the direction away from the longitudinal axis, and if the rotational position (θ) is greater than a threshold angle (θ t ), modifying the control instruction so that the angle between the rotational position of the steerable landing gear and the longitudinal axis will be lower than the angle that would otherwise be observed had the control instruction been effected and not so modified; whereby the risk of damage to the steerable landing gear through over-steering is reduced. a steerable landing gear comprising one or more wheels positioned at the fore end of the aircraft, the steerable landing gear operating in a free-to-caster mode during performance of the method, one or more left main landing gears, each comprising one or more wheels and being positioned rearwardly and to the left of the steerable landing gear, and one or more right main landing gears each comprising one or more wheels and being positioned rearwardly and to the right of the steerable landing gear, and ascertaining the rotational position (θ) of the steerable landing gear relative to the longitudinal axis (L) of the aircraft , receiving a control instruction that would, if effected, continue turning of the aircraft in the direction away from the longitudinal axis, and if the rotational position (θ) is greater than a threshold angle (θ t ), modifying the control instruction so that the angle between the rotational position of the steerable landing gear and the longitudinal axis will be lower than the angle that would otherwise be observed had the control instruction been effected and not so modified;
Fuel injection system , in particular for mixture-compressing spark-ignition internal combustion engines, having at least one fuel injection valve and having at least one cup of a fuel-conducting component and having at least one connector for connecting the fuel injection valve to the cup of the component , wherein provision is made of a connecting clip which, in a fitted state, serves for at least partially clasping the cup and the fuel injection valve so as to connect the fuel injection valve to the cup , wherein the connecting clip has a first side part and a second side part , and wherein a middle side part is present, which middle side part connects the first side part to the second side part such that a U-shaped profile , surrounding the cup , of the connecting clip is present, and wherein the first side part has a cutout and the second side part has a cutout , and the cutout of the first side part and the cutout of the second side part are formed such that a collar of the cup , in the fitted state, extends at least partially into the cutout of the first side part and at least partially into the cutout of the second side part , characterized in that provision is made of at least one fixing element which is independent of the cup , and in that the connecting clip and the fixing element are formed such that the fixing element , in the fitted state, connects the first side part of the connecting clip and the second side part of the connecting clip to one another on an open side of the connecting clip , wherein the fixing element extends from the first side part of the connecting clip to the second side part and the fixing element is attached so as to be opposite the middle side part , wherein, in addition to the collar of the cup , a collar of the fuel injection valve , in the fitted state, also extends at least partially into the cutout of the first side part and at least partially into the cutout of the second side part , and wherein the direction of fitting of the fixing element onto the connecting clip is opposite the direction of fitting of the connecting clip onto the cup and the fuel injection valve .
A hydrogel film for use in a method comprising applying a hydrogel film to a subject, wherein the hydrogel film includes uncrosslinked hyaluronic acid and crosslinked alginate wherein a) the alginate is crosslinked with an ion, and b) the hydrogel film is flat and includes a width, a length, and a thickness of between 5 and 30 micrometers that is less than the width and the length, and c) the method further comprises applying a sequestering agent to the hydrogel to increase bioresorbability of the hydrogel film in response to applying the sequestering agent to the hydrogel film, and wherein the hydrogel film comprises at least 1% and no more than 33% hyaluronic acid. a) the alginate is crosslinked with an ion, and b) the hydrogel film is flat and includes a width, a length, and a thickness of between 5 and 30 micrometers that is less than the width and the length, and c) the method further comprises applying a sequestering agent to the hydrogel to increase bioresorbability of the hydrogel film in response to applying the sequestering agent to the hydrogel film, and
An insert of hard metal for an agricultural implement, for example a chopping coulter or a mowing blade, comprising active cutting regions , which are active in a cutting implement (S) wherein between the active cutting regions teeth are at least partially provided, which in the plan view protrude over the active cutting regions , wherein the active cutting regions in front-end view are situated at the same height.
A mito-ATO compound of formula (I) wherein X is selected from an unsubstituted C 1 -C 20 alkyl, substituted C 1 -C 20 alkyl, C 2 -C 20 alkenyl, phenyl, phenyl substituted C 1 -C 20 alkyl, cycloalkyl substituted C 1 -C 20 alkyl, an aminoacid, and polyethylene glycol (PEG); each Y is independently selected from -H, -CF 3 , methyl (Me), Cl, OMe, C(O)CH 3 , NO 2 , and N(Me) 2 ; R is selected from H, F, Cl, Br, and I; and Z - is selected from halogen, 2,2,2-trifluoroacetic acid (TFA), HO - , RCOO - , and acetic acid. X is selected from an unsubstituted C 1 -C 20 alkyl, substituted C 1 -C 20 alkyl, C 2 -C 20 alkenyl, phenyl, phenyl substituted C 1 -C 20 alkyl, cycloalkyl substituted C 1 -C 20 alkyl, an aminoacid, and polyethylene glycol (PEG); each Y is independently selected from -H, -CF 3 , methyl (Me), Cl, OMe, C(O)CH 3 , NO 2 , and N(Me) 2 ; R is selected from H, F, Cl, Br, and I; and Z - is selected from halogen, 2,2,2-trifluoroacetic acid (TFA), HO - , RCOO - , and acetic acid.
A terminal apparatus for communicating with a base station apparatus , the terminal apparatus comprising: a reception unit configured to receive information included in a radio resource control, RRC, reconfiguration message from the base station apparatus , the information including an identity of a target cell, a first subcarrier spacing designated to a transmission of a synchronization signal in the target cell, and a second subcarrier spacing designated to a transmission of a Physical Downlink Shared Channel including a message of a random access response in the target cell, wherein the reception unit is further configured to perform, based on the first subcarrier spacing, a downlink synchronization in the target cell indicated by the identity and to receive based on the second subcarrier spacing, the random access response in the target cell indicated by the identity. a reception unit configured to receive information included in a radio resource control, RRC, reconfiguration message from the base station apparatus , the information including an identity of a target cell, a first subcarrier spacing designated to a transmission of a synchronization signal in the target cell, and a second subcarrier spacing designated to a transmission of a Physical Downlink Shared Channel including a message of a random access response in the target cell, wherein the reception unit is further configured to perform, based on the first subcarrier spacing, a downlink synchronization in the target cell indicated by the identity and to receive based on the second subcarrier spacing, the random access response in the target cell indicated by the identity.