mhurhangee/ep-ind-claims huggingface dataset:
A method of sorting tires based on tangential force variations, comprising: building a given tire according to a plurality of different tire building process steps; measuring on a uniformity measurement machine a radial run out of a given tire at a first predetermined low speed; measuring on a uniformity measurement machine a tangential force variation of said given tire at a second predetermined low speed; measuring the radial run out of the given tire at a predetermined high speed; calculating the portion of the tangential force variation measured in the step of measuring tangential force variation at the predetermined high speed that is created by one or more pre-selected types of stiffness variation; and sorting the given tire into one of at least two categories established by predetermined high speed tangential force variation limitations. building a given tire according to a plurality of different tire building process steps; measuring on a uniformity measurement machine a radial run out of a given tire at a first predetermined low speed; measuring on a uniformity measurement machine a tangential force variation of said given tire at a second predetermined low speed; measuring the radial run out of the given tire at a predetermined high speed; calculating the portion of the tangential force variation measured in the step of measuring tangential force variation at the predetermined high speed that is created by one or more pre-selected types of stiffness variation; and sorting the given tire into one of at least two categories established by predetermined high speed tangential force variation limitations.
A computer-implemented method for updating maps for autonomous driving, wherein the method comprises: recording a first driving parameter of an autonomous driving vehicle driving on a segment of a road in response to a first control command, the first driving parameter comprising a first heading direction and the first control command comprising a first steering command; determining a difference between the first driving parameter and a target driving parameter corresponding to the first control command, the target driving parameter comprising a target heading direction; issuing a second control command to compensate the difference and cause the ADV to drive with a second driving parameter closer to the target driving parameter, in response to determining that the difference exceeds a predetermined threshold, the second control command comprising a second steering command; deriving a slope status of the segment of the road based on at least the second control command, the slope status comprising a roll status referring to whether the vehicle is tilted or rolled left or right; and updating map data of a map corresponding to the segment of the road based on the derived slope status. recording a first driving parameter of an autonomous driving vehicle driving on a segment of a road in response to a first control command, the first driving parameter comprising a first heading direction and the first control command comprising a first steering command; determining a difference between the first driving parameter and a target driving parameter corresponding to the first control command, the target driving parameter comprising a target heading direction; issuing a second control command to compensate the difference and cause the ADV to drive with a second driving parameter closer to the target driving parameter, in response to determining that the difference exceeds a predetermined threshold, the second control command comprising a second steering command; deriving a slope status of the segment of the road based on at least the second control command, the slope status comprising a roll status referring to whether the vehicle is tilted or rolled left or right; and updating map data of a map corresponding to the segment of the road based on the derived slope status.
Clutch friction member for a friction clutch, comprising a main friction member of a base material comprising aluminum and one or more friction components evenly distributed throughout the base material of the main friction member; one or more outwardly projecting engagement members arranged along an outer circumference of the main friction member for engagement with a driving or driven member, wherein the main friction member and the one or more engagement members form a single piece component and wherein the one or more engagement members are made of the base material having evenly distributed there through the one or more friction components.
A method in a communication system, comprising: obtaining a maximum packet-hold time value for a first user equipment, UE, wherein the obtained maximum packet-hold time value for the first UE was determined based on environment data associated with the first UE and a model obtained by a supervised learning process, wherein the model is based on training data of environment data and optimal maximum packet -hold time value from other UEs in the system; receiving, at time t1, a packet obtained by an upstream device at time t0; storing the received packet in a de-jitter buffer; and after storing the packet in the de-jitter buffer, transmitting the packet at a predetermined time t that is based on the obtained maximum packet-hold time value for the first UE. obtaining a maximum packet-hold time value for a first user equipment, UE, wherein the obtained maximum packet-hold time value for the first UE was determined based on environment data associated with the first UE and a model obtained by a supervised learning process, wherein the model is based on training data of environment data and optimal maximum packet -hold time value from other UEs in the system; receiving, at time t1, a packet obtained by an upstream device at time t0; storing the received packet in a de-jitter buffer; and after storing the packet in the de-jitter buffer, transmitting the packet at a predetermined time t that is based on the obtained maximum packet-hold time value for the first UE.
A coffee machine comprising a body; a capsule housing disposed on the upper part of the body and wherein preferably a single-use capsule is placed; a brewing chamber that is disposed within the body under the capsule housing; a housing that is disposed in the body and wherein the brewing chamber is placed, and a heater that provides the heating of the brewing chamber, characterized by a lid that moves when the brewing chamber is taken out of the housing and enables the top of the capsule housing to be partially closed.
A measurement methodperformed by a terminal, the method comprising: obtaining first parameter information corresponding to a first target reference signal, RS, wherein the first target RS comprises at least one of a first RS and a second RS, the first RS is used for channel measurement, the second RS is used for interference measurement, the first RS is associated with the second RS; characterized in that, the first RS and the second RS are corresponding to different first information, wherein the first information comprises at least one of following: cell identity information, physical cell identifier, PCI, information, transmitting receiving point, TRP, identity information, frequency information, subcarrier spacing, SCS, information, numerology information, timing advance, TA, information, and quasi co-location, QCL, information; and measuring the second RS according to the first parameter information corresponding to the first target RS; wherein the measuring of the second RS according to the first parameter information corresponding to the first target RS comprises: obtaining second parameter information, wherein the second parameter information is determined based on the first parameter information corresponding to the first target RS; and measuring the second RS according to the second parameter information. obtaining first parameter information corresponding to a first target reference signal, RS, wherein the first target RS comprises at least one of a first RS and a second RS, the first RS is used for channel measurement, the second RS is used for interference measurement, the first RS is associated with the second RS; characterized in that, the first RS and the second RS are corresponding to different first information, wherein the first information comprises at least one of following: cell identity information, physical cell identifier, PCI, information, transmitting receiving point, TRP, identity information, frequency information, subcarrier spacing, SCS, information, numerology information, timing advance, TA, information, and quasi co-location, QCL, information; and measuring the second RS according to the first parameter information corresponding to the first target RS; wherein the measuring of the second RS according to the first parameter information corresponding to the first target RS comprises: obtaining second parameter information, wherein the second parameter information is determined based on the first parameter information corresponding to the first target RS; and measuring the second RS according to the second parameter information. obtaining second parameter information, wherein the second parameter information is determined based on the first parameter information corresponding to the first target RS; and measuring the second RS according to the second parameter information.
A wireless LAN terminal comprising: a storage unit adapted to store profile information including information on a channel, and a Service Set Identifier, SSID, of a predetermined access point; a unit adapted to set a channel to be scanned on the basis of a scanning period and said profile information; a passive scanning unit adapted to perform a passive scanning operation at the set channel to check whether there is a beacon signal transmitted from said access point and wherein said passive scanning operation does not sense information items included in the beacon signal; and an active scanning unit adapted to perform an active scanning operation at said set channel wherein said active scanning operation transmits a probe request signal including said SSID of said predetermined access point, and receives a probe response signal from the access point which has an SSID identical to the transmitted SSID, wherein said passive scanning unit is adapted to perform said passive scanning operation at said set channel for each said scanning period, and said active scanning unit is adapted to perform said active scanning operation at said set channel only when said passive scanning operation determines that there is a beacon signal. a storage unit adapted to store profile information including information on a channel, and a Service Set Identifier, SSID, of a predetermined access point; a unit adapted to set a channel to be scanned on the basis of a scanning period and said profile information; a passive scanning unit adapted to perform a passive scanning operation at the set channel to check whether there is a beacon signal transmitted from said access point and wherein said passive scanning operation does not sense information items included in the beacon signal; and an active scanning unit adapted to perform an active scanning operation at said set channel wherein said active scanning operation transmits a probe request signal including said SSID of said predetermined access point, and receives a probe response signal from the access point which has an SSID identical to the transmitted SSID, wherein said passive scanning unit is adapted to perform said passive scanning operation at said set channel for each said scanning period, and said active scanning unit is adapted to perform said active scanning operation at said set channel only when said passive scanning operation determines that there is a beacon signal.
A method for drying a vegetable, characterised in that it comprises the following steps: a) applying microwave energy in conditions of absolute pressure between 31200 Pa (312 mbar) and atmospheric pressure to a starting vegetable until said vegetable reaches a temperature in a range of 50 °C to 70 °C, wherein the starting vegetable has a moisture content that is less than 15%; b) applying microwave energy at a microwave power density that is greater or equal to 1 W/g to the vegetable obtained in step a), at an absolute pressure less than or equal to 31200 Pa (312 mbar), until the vegetable reaches a temperature in a range of 65 °C to 85 °C; c) applying microwave energy in conditions of absolute pressure less than or equal to 31200 Pa (312 mbar) to the vegetable obtained in step b) until the vegetable reaches a temperature in a range of 70 °C to 100 °C; and d) cooling the vegetable obtained in step c) under vacuum, without applying microwaves, at an absolute pressure less than or equal to 12300 Pa (123 mbar) until reaching a temperature that is less than or equal to 50 °C, wherein the temperature reached by the vegetable is greater in step b) than in step a), and is greater in step c) than in step b). a) applying microwave energy in conditions of absolute pressure between 31200 Pa (312 mbar) and atmospheric pressure to a starting vegetable until said vegetable reaches a temperature in a range of 50 °C to 70 °C, wherein the starting vegetable has a moisture content that is less than 15%; b) applying microwave energy at a microwave power density that is greater or equal to 1 W/g to the vegetable obtained in step a), at an absolute pressure less than or equal to 31200 Pa (312 mbar), until the vegetable reaches a temperature in a range of 65 °C to 85 °C; c) applying microwave energy in conditions of absolute pressure less than or equal to 31200 Pa (312 mbar) to the vegetable obtained in step b) until the vegetable reaches a temperature in a range of 70 °C to 100 °C; and d) cooling the vegetable obtained in step c) under vacuum, without applying microwaves, at an absolute pressure less than or equal to 12300 Pa (123 mbar) until reaching a temperature that is less than or equal to 50 °C,
An isolated binding agent of the Formula A - a':a - S- b:b' - B:X(n) the binding agent being capable of binding two different epitopes on one antigen or two different antigens, the bi-valent binding agent comprising exactly two monovalent binders A and B of different specificity that are linked to each other via a linker a - S - b, wherein the epitopes specifically bound by the monovalent binders A and B do not overlap, wherein A as well as B is a monovalent fragment derived from a monoclonal antibody, wherein a':a and b:b' are binding pairs consisting of hybridizing nucleic acid sequences each forming a stable duplex via multiple base pairing, wherein the sequences of the binding pair a':a do not bind to the sequences of the binding pair b:b', respectively, and vice versa, wherein the binding affinity within a binding pair of hybridizing nucleic acid sequences is at least 10 8 l/mol, wherein S is a spacer of at least 1nm in length, wherein (: X) denotes a functional moiety selected from the group consisting of a binding group, a labeling group, an effector group and a reactive group, the moiety being bound either covalently or via a binding pair to at least one of a', a, b, b' or S, wherein (n) is an integer and at least 1, wherein - represents a covalent bond, and wherein the linker a - S - b has a length of 6 to 100 nm. the binding agent being capable of binding two different epitopes on one antigen or two different antigens, the bi-valent binding agent comprising exactly two monovalent binders A and B of different specificity that are linked to each other via a linker a - S - b, wherein the epitopes specifically bound by the monovalent binders A and B do not overlap, wherein A as well as B is a monovalent fragment derived from a monoclonal antibody, wherein a':a and b:b' are binding pairs consisting of hybridizing nucleic acid sequences each forming a stable duplex via multiple base pairing, wherein the sequences of the binding pair a':a do not bind to the sequences of the binding pair b:b', respectively, and vice versa, wherein the binding affinity within a binding pair of hybridizing nucleic acid sequences is at least 10 8 l/mol, wherein S is a spacer of at least 1nm in length, wherein (: X) denotes a functional moiety selected from the group consisting of a binding group, a labeling group, an effector group and a reactive group, the moiety being bound either covalently or via a binding pair to at least one of a', a, b, b' or S, wherein (n) is an integer and at least 1, wherein - represents a covalent bond, and wherein the linker a - S - b has a length of 6 to 100 nm.
An antireflective coating composition comprising a crosslinker and a crosslinkable polymer, where the crosslinkable polymer comprises a unit represented by structure ⁅A-B-C⁆ where A is a fused aromatic ring, which is unsubstituted or substituted with one or more organo constituents B has a structure, and C is a hydroxybiphenyl of structure where R 1 is C 1 -C 4 alkyl and R 2 is C 1 -C 4 alkyl, preferably where R 1 is methyl and R 2 is methyl.
Oven for heating and frying food, particularly a rapid cook oven, which includes • heating means, • an oven space, which is delimited by walls and an openable oven door leading to the oven space, and • a structure delimiting a cooker space, wherein the heating means include a cooker situated in the said cooker space, and the said structure includes thermal insulation between the oven space and the cooker space, • the heating means further including the following heating means for heating food in the oven space: - microwave radiation devices, - a frying plate, and - heating circulating-air devices comprising a flow channel and a fan installed in the flow channel for creating a circulating-air flow in the said flow channel; characterized in that the flow channel is for removing circulating air from the oven space and leading it back into the oven space after cleaning; in that said cooker comprises a cooking tank; and in that the microwave radiation devices include at least two magnetrons arranged to create at least two different temperature zones in the oven space. • heating means, • an oven space, which is delimited by walls and an openable oven door leading to the oven space, and • a structure delimiting a cooker space, wherein the heating means include a cooker situated in the said cooker space, and the said structure includes thermal insulation between the oven space and the cooker space, • the heating means further including the following heating means for heating food in the oven space: - microwave radiation devices, - a frying plate, and - heating circulating-air devices comprising a flow channel and a fan installed in the flow channel for creating a circulating-air flow in the said flow channel; - microwave radiation devices, - a frying plate, and - heating circulating-air devices comprising a flow channel and a fan installed in the flow channel for creating a circulating-air flow in the said flow channel;
An apparatus comprising: at least one device processor; and a keyboard engine that controls a keyboard that accepts shape-writing input and radial entry input, via the at least one of the at least one device processor, the keyboard engine including: a keyboard input module that obtains input data from at least one input sensor of the keyboard, and an intention disambiguation engine that controls simultaneous use of the shape-writing input and the radial entry input acceptance for a user of the keyboard; characterized in that the intention disambiguation engine distinguishes between the shape writing input and the radial entry input based on the pressure applied during the input. at least one device processor; and a keyboard engine that controls a keyboard that accepts shape-writing input and radial entry input, via the at least one of the at least one device processor, the keyboard engine including: a keyboard input module that obtains input data from at least one input sensor of the keyboard, and an intention disambiguation engine that controls simultaneous use of the shape-writing input and the radial entry input acceptance for a user of the keyboard; a keyboard input module that obtains input data from at least one input sensor of the keyboard, and an intention disambiguation engine that controls simultaneous use of the shape-writing input and the radial entry input acceptance for a user of the keyboard; characterized in that the intention disambiguation engine distinguishes between the shape writing input and the radial entry input based on the pressure applied during the input.
A chain drive system for driving a chain formed of chain links, comprising two base units, a drive element for driving the chain, which is rotatably mounted between the two base units, and at least one first deflection unit, which is arranged between the two base units and serves to guide and deflect the chain, wherein the base units and the first deflection unit are each formed of at least one plate element, characterized in that the first deflection unit comprises at least one first deflection plate for guiding and deflecting the chain and two first intermediate plates, wherein the first deflection plate is arranged between the two first intermediate plates.
A barcode reader for reading a target object comprising: an anamorphic lens assembly comprising first and second lenses adapted for positioning between a target object and a sensor array of an imaging system such that an image received from said target object is anamorphically magnified before impinging onto the sensor array along first and second directions by the anamorphic lens assembly, the anamorphic magnification in the first direction differs from the magnification in said second direction such that the image of the target object projected onto the sensor array appears elongated along the first direction relative to said second direction, characterized in that first and second lenses are toroidal lenses, and the second toroidal lens has an aspherical first surface facing the sensor array and a toroidal second surface configured for making a positive optical power along the first direction and a negative optical power along the second direction and configured for facilitating field angle compensation or curvature compensation. an anamorphic lens assembly comprising first and second lenses adapted for positioning between a target object and a sensor array of an imaging system such that an image received from said target object is anamorphically magnified before impinging onto the sensor array along first and second directions by the anamorphic lens assembly, the anamorphic magnification in the first direction differs from the magnification in said second direction such that the image of the target object projected onto the sensor array appears elongated along the first direction relative to said second direction, characterized in that first and second lenses are toroidal lenses, and the second toroidal lens has an aspherical first surface facing the sensor array and a toroidal second surface configured for making a positive optical power along the first direction and a negative optical power along the second direction and configured for facilitating field angle compensation or curvature compensation.