mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire having a tire tread composed of a rubber composition comprising a diene rubber comprising isoprene rubber; carbon black; silica; a compound comprising a bonding unit I represented by Formula and a bonding unit II represented by Formula; and a compound represented by Formula: wherein R 1 represents hydrogen, a halogen, a branched or unbranched alkyl group of 1-30 carbon atoms, a branched or unbranched alkenyl group of 2-30 carbon atoms, a branched or unbranched alkynyl group of 2-30 carbon atoms, or an alkyl group in which a terminal hydrogen of said alkyl group is replaced with a hydroxyl group or a carboxyl group, R 2 represents a branched or unbranched alkylene group of 1-30 carbon atoms, a branched or unbranched alkenylene group of 2-30 carbon atoms, or a branched or unbranched alkynylene group of 2-30 carbon atoms, and R 1 and R 2 may form a ring structure; and wherein R 3 -R 6 each represent, independently of each other, a straight-chain or branched-chain alkyl group of 1-18 carbon atoms, or a cycloalkyl group of 5-12 carbon atoms.
A method of etching a silicon substrate loaded onto a platform within a processing chamber, the etching method comprising (a) an etching operation which is executed for a predetermined first processing time and in which, in a state in which gas within the processing chamber has been exhausted to pump down the chamber interior, etching gas is supplied into the processing chamber for at least a predetermined first supply time and converted into plasma, and the silicon substrate is etched by applying a bias potential (Wp) to the platform for at least a predetermined application time, and (b) a protective-film deposition operation which is executed for a predetermined second processing time and in which, in a state in which gas within the processing chamber has been exhausted to pump down the chamber interior and no bias potential is applied to the platform, protective-film deposition gas is supplied into the processing chamber for at least a predetermined second supply time and converted into plasma, and a protective film is formed on the silicon substrate; and said operations (a) and (b) being alternately repeated; the etching method characterized in that: the etching gas or the protective-film deposition gas is being supplied into the processing chamber at least when the corresponding operation is started; the supply of etching gas or of protective-film deposition gas is halted when a preestablished time (De, Ee) prior to the close of the processing time (D, E) of the corresponding operation is reached; and from the preestablished time (De, Ee) until the close of the processing time (D, E) of the corresponding operation, the exhaust flow rate (V H1) at which gas is exhausted from inside the processing chamber is made greater than the exhaust flow rate (V H2) prior to when the preestablished time (De, Ee) is reached. the etching gas or the protective-film deposition gas is being supplied into the processing chamber at least when the corresponding operation is started; the supply of etching gas or of protective-film deposition gas is halted when a preestablished time (De, Ee) prior to the close of the processing time (D, E) of the corresponding operation is reached; and from the preestablished time (De, Ee) until the close of the processing time (D, E) of the corresponding operation, the exhaust flow rate (V H1) at which gas is exhausted from inside the processing chamber is made greater than the exhaust flow rate (V H2) prior to when the preestablished time (De, Ee) is reached.
A handwriting input/output system comprising a medium with a writing area, and an imaging unit, wherein: the writing area is located on at least part of or a plurality of areas of the medium, and is formed with a dot pattern that repeatedly defines coordinate information and code information; the imaging unit images the dot pattern of the writing area to provide image data; and further comprising: a dot pattern analysis unit that analyzes a code of the image data of the dot pattern imaged by the imaging unit to obtain the code information and trajectory information created by the coordinate information; and wherein in at least a part of the code information, is a code value which specifies the writing area. the writing area is located on at least part of or a plurality of areas of the medium, and is formed with a dot pattern that repeatedly defines coordinate information and code information; the imaging unit images the dot pattern of the writing area to provide image data; and further comprising: a dot pattern analysis unit that analyzes a code of the image data of the dot pattern imaged by the imaging unit to obtain the code information and trajectory information created by the coordinate information; and wherein in at least a part of the code information, is a code value which specifies the writing area. a dot pattern analysis unit that analyzes a code of the image data of the dot pattern imaged by the imaging unit to obtain the code information and trajectory information created by the coordinate information; and wherein in at least a part of the code information, is a code value which specifies the writing area.
A method for exchanging messages, comprising at a first endpoint: receiving, from a second endpoint, a first message of an initial transaction of a second session to initiate the second session while a first session has not completed, wherein a session is an information exchange between the first and second endpoints, the session comprising one or more transactions, and wherein the first session commenced prior to the receipt of the first message; and exchanging, with the second endpoint, a plurality of additional messages of the second session without transmitting to the second endpoint an abort message requesting to abort one or more transactions of the first session, wherein the abort message is not transmitted during a time period between the receipt of the first message of the initial transaction of the second session and a commencement of the exchanging of the plurality of additional messages of the second session, and wherein each of the first and second endpoints is capable of operating in compliance with one or more 3rd Generation Partnership Project, 3GPP, Long Term Evolution, LTE, standards and wherein each session is an LTE Positioning Protocol, LPP, session. receiving, from a second endpoint, a first message of an initial transaction of a second session to initiate the second session while a first session has not completed, wherein a session is an information exchange between the first and second endpoints, the session comprising one or more transactions, and wherein the first session commenced prior to the receipt of the first message; and exchanging, with the second endpoint, a plurality of additional messages of the second session without transmitting to the second endpoint an abort message requesting to abort one or more transactions of the first session, wherein the abort message is not transmitted during a time period between the receipt of the first message of the initial transaction of the second session and a commencement of the exchanging of the plurality of additional messages of the second session, and wherein each of the first and second endpoints is capable of operating in compliance with one or more 3rd Generation Partnership Project, 3GPP, Long Term Evolution, LTE, standards and wherein each session is an LTE Positioning Protocol, LPP, session.
A source for generating ionizing radiation, comprising: • a vacuum chamber; • a cathode that is able to transmit an electron beam into the chamber; • an anode that receives the electron beam and that comprises a target that is able to generate ionizing radiation from the energy received from the electron beam; • an electrode that is placed in the vicinity of the cathode and that allows the electron beam to be focused; • a stopper (32; 170) ensuring the seal tightness of the vacuum chamber, characterized in that the source further comprises a mechanical part that is made of dielectric material and that forms a portion of the vacuum chamber, and in that the stopper (32; 170) is fastened to the mechanical part by means of a conductive brazing film that is used to electrically connect the electrode. • a vacuum chamber; • a cathode that is able to transmit an electron beam into the chamber; • an anode that receives the electron beam and that comprises a target that is able to generate ionizing radiation from the energy received from the electron beam; • an electrode that is placed in the vicinity of the cathode and that allows the electron beam to be focused; • a stopper (32; 170) ensuring the seal tightness of the vacuum chamber,
An industrial truck comprising a battery, which is arranged in a battery compartment of a drive part and which can be connected in an electrically conductive manner to an electrical connector via an electrical conductor in order to supply power to the battery during a charging procedure, wherein the electrical connector has a plug-in direction for an external connector, which plug-in direction is at an angle of 20° to 70° with respect to the horizontal, characterized in that the plug-in direction of the electrical connector extends in a plane parallel to a vehicle longitudinal direction and the electrical connector is installed on a lateral surface of the battery and is accessible through an opening in the cladding or a gap between the cladding and the battery.
A pharmaceutical composition for delivery of one or more encapsulated polynucleotides to one or more target cells, said composition comprising an mRNA as a first encapsulated polynucleotide and a blend of at least a first lipid nanoparticle and a second lipid nanoparticle, wherein the first lipid nanoparticle encapsulates the mRNA; and wherein the first lipid nanoparticle comprises at least one lipid distinct from the second lipid nanoparticle.
Method for compensating for at least one low-frequency mechanical disturbing vibration which is caused in a rotor having at least one active magnetic bearing by virtue of a disturbing force acting on the rotor, wherein the active magnetic bearing has a magnetic bearing control loop comprising a displacement sensor, which captures a position change of the rotor, and a control unit and a signal amplifier, wherein the mechanical disturbing vibration in the rotor occurs at a disturbing vibration frequency below a rotational frequency of the rotor, having the following method steps of: a) analysing the low-frequency mechanical disturbing vibration from a frequency analysis of a time signal of the rotor deflection which leads to a disturbing force analysis result, b) determining a compensation force on the basis of the disturbing force analysis result in order to generate a mechanical compensation force which counteracts the mechanical disturbing vibration in the rotor, and c) introducing the compensation force into the rotor, wherein method steps a), b) and c) are carried out with the aid of at least one compensation control loop of the active magnetic bearing, which compensation control loop is decoupled from a magnetic bearing control loop for controlling the active magnetic bearing. a) analysing the low-frequency mechanical disturbing vibration from a frequency analysis of a time signal of the rotor deflection which leads to a disturbing force analysis result, b) determining a compensation force on the basis of the disturbing force analysis result in order to generate a mechanical compensation force which counteracts the mechanical disturbing vibration in the rotor, and c) introducing the compensation force into the rotor,
A device comprising a base part and a removable member axially mounted in a removable manner on the base part, the removable member sealingly sliding in the base part on a determined axial stroke, - the base part being mounted on a fluid product container and comprises a dip tube, a cup at the bottom of which an outlet of a dip tube opens out, the cup being provided with a piston lip, and - the removable member comprises a gripping appendage, a tubing able to sealingly slide against the piston lip on said determined axial stroke and an applicator able to retain a fluid product dose derived from the dip tube by a suction generated by the sealed sliding of the tubing against the piston lip on said determined axial stroke. characterized in that it further comprises control means (40, 5, 6, 7) of the "retractable-tip pen" type for axially moving the removable member relative to the base part by axially pressing on the removable member towards the base part, each axial displacement by pressure on the removable member being followed by a backward displacement among two kinds of backward displacements, namely a small backward displacement in the closed position and a large backward displacement in the gripping position. - the base part being mounted on a fluid product container and comprises a dip tube, a cup at the bottom of which an outlet of a dip tube opens out, the cup being provided with a piston lip, and - the removable member comprises a gripping appendage, a tubing able to sealingly slide against the piston lip on said determined axial stroke and an applicator able to retain a fluid product dose derived from the dip tube by a suction generated by the sealed sliding of the tubing against the piston lip on said determined axial stroke.
An electronic component comprising: - a substrate and at least one hole at least partly passing through the thickness of the substrate; - an electrically conductive element situated in the hole and configured so as to form an electrical connection through the hole, the electrically conductive element comprising an electrically conductive self-supporting pillar, the height of which is oriented across the thickness of the substrate, - a space, void or at least partially filled with a dielectric gas, between at least part of the wall of the hole and a part of the peripheral wall of the pillar; in which the pillar comprises a member for holding the pillar in position in contact with the wall of the hole along the height of the hole, the holding member being a portion forming a part of the height of the pillar; in which the holding member is superimposed with a part of the trunk of the pillar; and in which the material of the holding member is different from the material of the trunk part and has a limit of elasticity less than that of the material of the trunk part. - a substrate and at least one hole at least partly passing through the thickness of the substrate; - an electrically conductive element situated in the hole and configured so as to form an electrical connection through the hole, the electrically conductive element comprising an electrically conductive self-supporting pillar, the height of which is oriented across the thickness of the substrate, - a space, void or at least partially filled with a dielectric gas, between at least part of the wall of the hole and a part of the peripheral wall of the pillar;
Method for securing a USB protocol by authentication of a peripheral by an appliance and by encryption of exchanges between the peripheral and the appliance, the peripheral functioning according to the USB protocol, the appliance comprising at least one input port, the process having at least one step of: - connecting the peripheral to an input port, - detection by the device of the peripheral only if the peripheral has activated a protocol for transforming the USB into a packet-switched local area network, - connection of the apparatus to the local area network, one of the apparatus and the peripheral being a server for the local area network, the server being adapted to communicate at the transport layer according to a single predefined protocol, - establishment of a communication channel between the other element of the device and the peripheral and the server, - request by the peripheral for access rights to the device via the communication channel. - connecting the peripheral to an input port, - detection by the device of the peripheral only if the peripheral has activated a protocol for transforming the USB into a packet-switched local area network, - connection of the apparatus to the local area network, one of the apparatus and the peripheral being a server for the local area network, the server being adapted to communicate at the transport layer according to a single predefined protocol, - establishment of a communication channel between the other element of the device and the peripheral and the server, - request by the peripheral for access rights to the device via the communication channel.
Method for controlling an automated vehicle in the region of a road intersection using data acquired by means of an environment acquisition sensor system, wherein - before the road intersection is reached, a plurality of future vehicle positions are determined as stopping point candidates along a route ahead of the vehicle until the road intersection is reached, - for each of the stop point candidates, a field of view of the environment acquisition sensor system is predicted, - a stop point candidate is selected as the stop position of the vehicle, - at the stop position, a vehicle environment is acquired by means of the environment acquisition sensor system and - depending on a traffic situation determined from the data of the environment acquisition sensor system, the vehicle is guided into the road intersection in an automated manner, characterized in that - for each of the stopping point candidates, the field of view is predicted taking into account a height profile of a road surface in the region of the road intersection and - the stop point candidate at which the environment acquisition sensor system has the largest field of view is selected as the stop position. - before the road intersection is reached, a plurality of future vehicle positions are determined as stopping point candidates along a route ahead of the vehicle until the road intersection is reached, - for each of the stop point candidates, a field of view of the environment acquisition sensor system is predicted, - a stop point candidate is selected as the stop position of the vehicle, - at the stop position, a vehicle environment is acquired by means of the environment acquisition sensor system and - depending on a traffic situation determined from the data of the environment acquisition sensor system, the vehicle is guided into the road intersection in an automated manner, characterized in that - for each of the stopping point candidates, the field of view is predicted taking into account a height profile of a road surface in the region of the road intersection and - the stop point candidate at which the environment acquisition sensor system has the largest field of view is selected as the stop position.
A control method for cooling a turbine stage of a gas turbine, the method comprising the steps of: - bleeding cooling air from combustion air flowing in a compressor of said gas turbine, and feeding the bled cooling air to a cooling circuit starting from a stator of said turbine stage; and - adjusting cooling airflow to said cooling circuit as a function of the ratio between: a) the pressure (P Oair) at the inlet of said cooling circuit, and b) a combustion air pressure (P comp) of said compressor; the cooling airflow being adjusted by feedback-controlling the opening of a valve to achieve a predetermined setpoint of said ratio; the method being characterized by predetermining said setpoint as a function of a parameter, defined by the power output of the turbine or by the temperature (T gas) of the burnt gases at the exhaust of the turbine; said setpoint being reduced when said parameter is above a threshold value, so as to save cooling air and so increase combustion airflow, and being increased when said parameter is below said threshold value, so as to increase cooling airflow and reduce combustion airflow. - bleeding cooling air from combustion air flowing in a compressor of said gas turbine, and feeding the bled cooling air to a cooling circuit starting from a stator of said turbine stage; and - adjusting cooling airflow to said cooling circuit as a function of the ratio between: a) the pressure (P Oair) at the inlet of said cooling circuit, and b) a combustion air pressure (P comp) of said compressor; the cooling airflow being adjusted by feedback-controlling the opening of a valve to achieve a predetermined setpoint of said ratio; the method being characterized by predetermining said setpoint as a function of a parameter, defined by the power output of the turbine or by the temperature (T gas) of the burnt gases at the exhaust of the turbine; said setpoint being reduced when said parameter is above a threshold value, so as to save cooling air and so increase combustion airflow, and being increased when said parameter is below said threshold value, so as to increase cooling airflow and reduce combustion airflow. a) the pressure (P Oair) at the inlet of said cooling circuit, and b) a combustion air pressure (P comp) of said compressor; the cooling airflow being adjusted by feedback-controlling the opening of a valve to achieve a predetermined setpoint of said ratio; the method being characterized by predetermining said setpoint as a function of a parameter, defined by the power output of the turbine or by the temperature (T gas) of the burnt gases at the exhaust of the turbine; said setpoint being reduced when said parameter is above a threshold value, so as to save cooling air and so increase combustion airflow, and being increased when said parameter is below said threshold value, so as to increase cooling airflow and reduce combustion airflow.
A method for preparing an immunotherapeutic agent, comprising the steps of: (a) providing IFN-α producing bone marrow-derived myelos interferon dendritic cells (miDCs) that are CD11b -/lo and CD172 + (Sirpα); and (b) modifying ex vivo the miDCs of step (a) such that they are loaded with one or more antigens; wherein the one or more antigens is a viral antigen, a bacterial antigen, a fungal antigen, a parasite antigen, or a tumor antigen. (a) providing IFN-α producing bone marrow-derived myelos interferon dendritic cells (miDCs) that are CD11b -/lo and CD172 + (Sirpα); and (b) modifying ex vivo the miDCs of step (a) such that they are loaded with one or more antigens;
Plate-type heat exchanger for an air-conditioning circuit for a vehicle, in particular for a vehicle having an electric motor, with a primary circuit for a coolant and a secondary circuit for a cooling fluid, wherein the primary circuit and the secondary circuit are coupled by said plate-type heat exchanger having a plurality of heat exchanger plates which are stacked one on top of each other, and have in the plane of their plates, both a main extent direction and a secondary extent direction running perpendicular thereto, and are arranged one next to the other in a stacking direction which runs perpendicular to the main extent direction and to the secondary extent direction, and in that the inflow and outflow for the coolant are provided in the main extent direction, at the same end of the heat exchanger plates, wherein coolant chambers and cooling fluid chambers, which each have an inflow (48, 52) and an outflow (50, 54) for the coolant and/or the cooling fluid, are formed between adjacent heat exchanger plates, and the coolant and/or cooling fluid chambers (44, 46) are embodied altogether as U-shaped flow ducts (64, 68), wherein the assigned inflow (48, 52) is arranged at the end of the first limb, and the assigned outflow is arranged at the end of the second limb, of the U-shaped flow duct wherein there is a common inflow connection and outflow connection for all the coolant chambers, the heat exchanger being characterized in that the inflow connection and the outflow connection of the cooling fluid chambers have the common connection component which permits direct attachment of an expansion valve for the coolant to the plate-type heat exchanger.