mhurhangee/ep-ind-claims huggingface dataset:
Rubber composition based on at least a reinforcing filler, a crosslinking system, a plasticizing system and an elastomer matrix comprising at least one modified diene elastomer comprising within its structure at least one alkoxysilane group, which is optionally partially or totally hydrolysed to silanol, bonded to the elastomer by the silicon atom, the alkoxysilane group optionally bearing another function bonded to the silicon atom directly or by means of a spacer group, which modified diene elastomer is such that the diene elastomer has a polydispersity index of at least 1.1 and at most 1.6 before modification, and has a Mooney viscosity ranging from 50 to 80 and a glass transition temperature (Tg) of less than or equal to -60°C, and greater than or equal to -110°C.
A multi-branched drug conjugate or the pharmaceutically acceptable salt thereof: wherein R is an organic core, POLY is a polymer, L is a multivalent linker represented by the following formula: wherein the symbol "*" represents an attachment point of the multivalent linker L to the targeting molecule T, "#" represents an attachment point of the multivalent linker L to the active agent D, and "%" represents an attachment point of the multivalent linker L to the POLY, wherein m is any integer between 1-20, and / and n are independently any integer between 1-10, and preferably, / is 5, m is 3 and n is 4, T is a targeting molecule, D is an active agent and q is any integer between 3-8, wherein D is a camptothecin-based drug represented by the following formula: wherein R 1 -R 5 are selected from the following groups independently from each other: hydrogen, halogen, acyl, alkyl, substituted alkyl, alkoxy, substituted alkoxy, alkenyl, alkynyl, cycloalkyl, hydroxy, cyano, nitro, azido, amido, hydrazine, amine, substituted amine, hydroxycarbonyl, alkoxycarbonyl, alkoxycarbonyloxy, carbamoyloxy, arylsulfonyloxy and alkylsulfonyloxy; R 6 is H or OR 8; R 8 is alkyl, alkenyl, cycloalkyl, haloalkyl or hydroxyalkyl; R 7 is hydroxy; and T is a CD44-targeted polypeptide. R is an organic core, POLY is a polymer, L is a multivalent linker represented by the following formula: wherein the symbol "*" represents an attachment point of the multivalent linker L to the targeting molecule T, "#" represents an attachment point of the multivalent linker L to the active agent D, and "%" represents an attachment point of the multivalent linker L to the POLY, wherein m is any integer between 1-20, and / and n are independently any integer between 1-10, and preferably, / is 5, m is 3 and n is 4, T is a targeting molecule, D is an active agent and q is any integer between 3-8, wherein D is a camptothecin-based drug represented by the following formula: wherein R 1 -R 5 are selected from the following groups independently from each other: hydrogen, halogen, acyl, alkyl, substituted alkyl, alkoxy, substituted alkoxy, alkenyl, alkynyl, cycloalkyl, hydroxy, cyano, nitro, azido, amido, hydrazine, amine, substituted amine, hydroxycarbonyl, alkoxycarbonyl, alkoxycarbonyloxy, carbamoyloxy, arylsulfonyloxy and alkylsulfonyloxy; R 6 is H or OR 8; R 8 is alkyl, alkenyl, cycloalkyl, haloalkyl or hydroxyalkyl; R 7 is hydroxy; and T is a CD44-targeted polypeptide.
Method for distributing an overall setpoint torque (Cglobal) between a first set of wheels and a second set of wheels of a vehicle, the method consisting in carrying out by successive iterations: - in a first branch, a step consisting in subtracting from said overall torque (Cglobal) an optimal torque (Car_opti) associated with said second train, so as to obtain a first set torque (Cav) to be applied to said first train; - in a second branch, steps consisting of: - subtracting from said global setpoint torque (Cglobal) an estimated torque (Cav_estim) associated with said first train, so as to obtain a second setpoint torque (Car) to be applied to said second train, then - limit said second setpoint torque (Car) between a minimum torque (Cmin) and a maximum torque (Cmax) predefined; the method being characterized in that said first branch further comprises a step consisting in limiting said optimal torque (Car_opti) between said minimum torque (Cmin) and said maximum torque (Cmax) before calculating said first torque (cav). - in a first branch, a step consisting in subtracting from said overall torque (Cglobal) an optimal torque (Car_opti) associated with said second train, so as to obtain a first set torque (Cav) to be applied to said first train; - in a second branch, steps consisting of: - subtracting from said global setpoint torque (Cglobal) an estimated torque (Cav_estim) associated with said first train, so as to obtain a second setpoint torque (Car) to be applied to said second train, then - limit said second setpoint torque (Car) between a minimum torque (Cmin) and a maximum torque (Cmax) predefined; - subtracting from said global setpoint torque (Cglobal) an estimated torque (Cav_estim) associated with said first train, so as to obtain a second setpoint torque (Car) to be applied to said second train, then - limit said second setpoint torque (Car) between a minimum torque (Cmin) and a maximum torque (Cmax) predefined;
A computer-implemented method for analyzing allocated memory of an industrial controller comprising: providing at least one program for execution on an industrial controller; analyzing a memory allocated to the at least one program on the industrial controller, based at least in part on metadata of the at least one program, wherein said analyzing includes scanning the memory to identify one or more data structures stored in the memory and verifying the one or more data structures based at least in part on the metadata of the at least one program; identifying at least one fault condition indicative of an erroneous use of the allocated memory by the program in the memory for each incorrect configuration of a data structure of the one or more data structures or if no correct configuration of a data structure of the one or more data structures can be determined based on a set of rules; and in response to the identified at least one fault condition, providing a notification including an indication of the at least one fault condition. providing at least one program for execution on an industrial controller; analyzing a memory allocated to the at least one program on the industrial controller, based at least in part on metadata of the at least one program, wherein said analyzing includes scanning the memory to identify one or more data structures stored in the memory and verifying the one or more data structures based at least in part on the metadata of the at least one program; identifying at least one fault condition indicative of an erroneous use of the allocated memory by the program in the memory for each incorrect configuration of a data structure of the one or more data structures or if no correct configuration of a data structure of the one or more data structures can be determined based on a set of rules; and in response to the identified at least one fault condition, providing a notification including an indication of the at least one fault condition.
Chewing gum comprising at least two different biodegradable polymers, wherein said at least two different biodegradable polymers have a different glass transition temperature Tg, wherein at least one of the applied biodegradable polymers, preferably a plasticizer, has a glass transition of at least +1°C, and wherein at least one of the at least two different biodegradable polymers has a glass transition temperature of less than 0 °C.
A composite melanoidin and polyester binder comprising products of reacting molasses with polyacrylic acid and citric acid in the presence of a sodium hypophosphite catalyst, wherein amine functional compounds from the molasses react with reducing sugars from the molasses under influence of the citric acid and hypophosphite catalyst to form melanoidin products, the melanoidin products are linked by an esterification reaction between the polyacrylic acid and the melanoidin products, and a ratio of the polyacrylic acid to the citric acid is from 0.25 to 1.5 by weight.
A method for leak testing a cell of a battery, said cell being sealed and comprising components and substances which are necessary to the operation of the battery, by means of a leak testing system comprising a vacuum chamber and a detecting and measuring instrument, the method including the following steps, not necessarily in that order: - programming the detecting and measuring instrument to detect gases and/or vapors that can leak from said cell to be checked, said gases and/or vapors deriving from the components and/or the substances inside in the cell; - positioning said cell in such a way that at least one portion of the cell is inside the vacuum chamber; - sealing said vacuum chamber; - decreasing the pressure inside the vacuum chamber to a lower level than the level of pressure inside the cell to be checked, said lower level being such that the gases and/or vapors leak from said cell if a leak is present; - detecting said gases and/or vapors by means of the detecting and measuring instrument; and - identifying the presence of leaks by comparing values corresponding to said detected gases and/or vapors to predetermined threshold values; characterized in that after said cell to be checked has been positioned and the pressure inside the vacuum chamber has been lowered, before detecting the gases and/or the vapors a preliminary check is performed to check that the pressure level is maintained inside the vacuum chamber in order to prevent contamination of the leak testing system, said preliminary check including the steps of: - monitoring over a suitable period of time the pressure inside the vacuum chamber while keeping closed the connection between said vacuum chamber and the detecting and measuring instrument; and - interrupting the leak test if the pressure inside the vacuum chamber increases significantly because a large leak is present in the cell. - programming the detecting and measuring instrument to detect gases and/or vapors that can leak from said cell to be checked, said gases and/or vapors deriving from the components and/or the substances inside in the cell; - positioning said cell in such a way that at least one portion of the cell is inside the vacuum chamber; - sealing said vacuum chamber; - decreasing the pressure inside the vacuum chamber to a lower level than the level of pressure inside the cell to be checked, said lower level being such that the gases and/or vapors leak from said cell if a leak is present; - detecting said gases and/or vapors by means of the detecting and measuring instrument; and - identifying the presence of leaks by comparing values corresponding to said detected gases and/or vapors to predetermined threshold values; - monitoring over a suitable period of time the pressure inside the vacuum chamber while keeping closed the connection between said vacuum chamber and the detecting and measuring instrument; and - interrupting the leak test if the pressure inside the vacuum chamber increases significantly because a large leak is present in the cell.
A method in a communication system using multicarrier modulation comprising: selecting a first value for at least one variable to program a transmission rate for overhead data between a minimum rate and maximum rate; transmitting or receiving a first message during an initialization phase prior to steady state operation, wherein the message includes the first value for the at least one variable; transmitting or receiving a first sequence of frames during steady-state operation, each frame being comprised of a plurality of bytes, each frame starting with zero or one overhead bytes followed by one or more data bytes, wherein the number of overhead bytes at the start of each frame in the first sequence of frames is determined based on the first value of the variable in the first message; selecting a second value for the at least one variable to program the transmission rate for overhead data between the minimum rate and maximum rate, wherein the second value is different than the first value; transmitting or receiving a second message during steady state operation, wherein the message includes the second value for the at least one variable; and transmitting or receiving a second sequence of frames during steady-state operation, each frame being comprised of a plurality of bytes, each frame starting with zero or one overhead bytes followed by one or more data bytes, wherein said number of overhead bytes at the start of each frame in the sequence of frames is determined based on the second value of the variable in the second message. selecting a first value for at least one variable to program a transmission rate for overhead data between a minimum rate and maximum rate; transmitting or receiving a first message during an initialization phase prior to steady state operation, wherein the message includes the first value for the at least one variable; transmitting or receiving a first sequence of frames during steady-state operation, each frame being comprised of a plurality of bytes, each frame starting with zero or one overhead bytes followed by one or more data bytes, wherein the number of overhead bytes at the start of each frame in the first sequence of frames is determined based on the first value of the variable in the first message; selecting a second value for the at least one variable to program the transmission rate for overhead data between the minimum rate and maximum rate, wherein the second value is different than the first value; transmitting or receiving a second message during steady state operation, wherein the message includes the second value for the at least one variable; and transmitting or receiving a second sequence of frames during steady-state operation, each frame being comprised of a plurality of bytes, each frame starting with zero or one overhead bytes followed by one or more data bytes, wherein said number of overhead bytes at the start of each frame in the sequence of frames is determined based on the second value of the variable in the second message.
Assembly for generating, manipulating and analysing compartments, comprising at least two fluid conductors (1, 2) for guiding fluid paths that are separate from one another, characterized in that two fluid conductors (1, 2) are arranged nested one inside the other, one end of a first fluid conductor being connected to a controllable flow source for imparting a flow of a transport fluid, one end of a second fluid conductor being connected to a further controllable fluid source for imparting a flow of a compartment stream and both fluid conductors (1, 2) being submerged with their other end, respectively, in a fluid reservoir, in which there is a further fluid, which is immiscible with the transport fluid.
A method of capturing an image of a subject, the method comprising: moving at least one of an image capture device and the subject relative to one another; capturing, using the image capture device during said moving, video footage of the subject; displaying the captured video footage to the subject on a display; determining, using a processor, an orientation of the subject relative to the image capture device, as at least one of an image capture device and the subject are moved relative to one another; providing, to the processor, a plurality of defined orientations of the subject relative to the image capture device; upon determining, using the processor, that the subject is oriented in a first defined orientation of the plurality of defined orientations relative to the image capture device, capturing, from the video footage, a still image of the subject in the first defined orientation; and displaying the captured still image to the subject on the display. moving at least one of an image capture device and the subject relative to one another; capturing, using the image capture device during said moving, video footage of the subject; displaying the captured video footage to the subject on a display; determining, using a processor, an orientation of the subject relative to the image capture device, as at least one of an image capture device and the subject are moved relative to one another; providing, to the processor, a plurality of defined orientations of the subject relative to the image capture device; upon determining, using the processor, that the subject is oriented in a first defined orientation of the plurality of defined orientations relative to the image capture device, capturing, from the video footage, a still image of the subject in the first defined orientation; and displaying the captured still image to the subject on the display.
A composition comprising: a polymer obtained by polymerizing a compound and optionally at least one additional polymerization monomer, wherein the compound is represented by; wherein R 1 is H or alkyl, or comprises an amino acid moiety; wherein R 2 and R 3 are individually H or alkyl; wherein R 4 comprises a polymerizable vinyl group; and wherein X is an optional electron-donating group linked to the benzene ring at the 4, 5, or 6 position. wherein R 1 is H or alkyl, or comprises an amino acid moiety; wherein R 2 and R 3 are individually H or alkyl; wherein R 4 comprises a polymerizable vinyl group; and wherein X is an optional electron-donating group linked to the benzene ring at the 4, 5, or 6 position.
A method of delivering radio frequency electromagnetic energy to cook foodstuff in an enclosed cavity of a cooking device, the method comprising: generating, with a small signal generating component, a radio frequency signal at a first power level that is pulse width modulated at a predetermined switching frequency; amplifying the radio frequency signal to a second power level greater than the first power level with a radio frequency amplification component; and feeding the amplified radio frequency signal to the enclosed cavity; wherein the predetermined switching frequency is at least 10 times faster than the inverse thermal time constant of the foodstuff being cooked. generating, with a small signal generating component, a radio frequency signal at a first power level that is pulse width modulated at a predetermined switching frequency; amplifying the radio frequency signal to a second power level greater than the first power level with a radio frequency amplification component; and feeding the amplified radio frequency signal to the enclosed cavity; wherein the predetermined switching frequency is at least 10 times faster than the inverse thermal time constant of the foodstuff being cooked.
A method for querying for a virtual memory area, comprising: determining whether a virtual memory area, vma, corresponding to a query address n is in an adjacent range of a cached vma, wherein the adjacent range of the cached vma comprises an address range of at least one adjacent vma before the cached vma and an address range of at least one adjacent vma after the cached vma (Step 101); and if the virtual memory area vma corresponding to the query address n is in the adjacent range of the cached vma, querying for the vma by using a thread on a node of a threaded red-black tree, wherein the node is a node corresponding to the cached vma, and the thread is a pointer pointing to a predecessor node and a successor node of each node on the threaded red-black tree (Step 102), wherein a start address in the adjacent range of the cached vma is an end address of an adjacent vma that precedes an adjacent vma before the cached vma, and an end address in the adjacent range of the cached vma is an end address of an adjacent vma after the cached vma. determining whether a virtual memory area, vma, corresponding to a query address n is in an adjacent range of a cached vma, wherein the adjacent range of the cached vma comprises an address range of at least one adjacent vma before the cached vma and an address range of at least one adjacent vma after the cached vma (Step 101); and if the virtual memory area vma corresponding to the query address n is in the adjacent range of the cached vma, querying for the vma by using a thread on a node of a threaded red-black tree, wherein the node is a node corresponding to the cached vma, and the thread is a pointer pointing to a predecessor node and a successor node of each node on the threaded red-black tree (Step 102), wherein a start address in the adjacent range of the cached vma is an end address of an adjacent vma that precedes an adjacent vma before the cached vma, and an end address in the adjacent range of the cached vma is an end address of an adjacent vma after the cached vma.
A composition comprising at least one thermoplastic polyurethane, at least melamine cyanurate, at least one first phosphorus-containing flame retardant selected from the group consisting of alkyl esters of phosphoric acid and alkyl esters of phosphonic acid, where the alkyl radicals are selected from C1 to C12 alkyl radicals, and at least one further phosphorus-containing flame retardant selected from the group consisting of derivatives of phosphinic acid.
An arrangement intended to be mounted at a vehicle intended for forestry, comprising a load-bearing part and driving bogie wheels where the arrangement comprises at least two extra wheels that can be individually controlled in the vertical direction where each extra wheel is arranged at a shaft that is fixed and that is not rotatable, pivotable, and is arranged at the bogie box of the vehicle in order to distribute the weight of the machine, the gross weight of the machine including its payload weight, over more areas of a support and in this way improve the distribution of weight and reduce the pressure exerted against the support, characterised in that the individually controlled extra wheels are subject to a driving force and mounted at at least two arms arranged at the bogie boxes of the vehicle, that a track is placed around each set of bogie wheels and the extra wheel in order to protect against skidding and to distribute the weight, reducing the ground pressure and that a tension arrangement in the form of a cylinder under pressure or a coiled spring unit is arranged at each arm in order to absorb motions in the length of the arm such that the length of the track does not change when the arm moves up and down.