mhurhangee/ep-ind-claims huggingface dataset:
A refrigerant charging method of charging a refrigerant to a refrigerant circuit in which a refrigeration cycle is to be performed by a circulating refrigerant, the refrigerant circuit being configured by connecting a heat source unit and a utilization unit to each other, the method comprising: a step (a) of charging a first refrigerant to the heat source unit before connecting the heat source unit to the utilization unit to configure the refrigerant circuit; after the step (a) of charging the first refrigerant to the heat source unit, a step (b) of transporting the heat source unit with the first refrigerant charged therein to a location where the heat source unit is to be connected to configure the refrigerant circuit; and a step (c) of connecting the heat source unit to the utilization unit and additionally charging a second refrigerant that differs from the first refrigerant to the refrigerant circuit to obtain the circulating refrigerant that includes the second refrigerant and the first refrigerant that is charged in the heat source unit, wherein before the step (c) of connecting the heat source unit to the utilization unit is performed, a connection pipe (81, 82) connected to the utilization unit and/or the heat source unit is connected to another heat source unit to be replaced by the heat source unit at the location and configures another refrigerant circuit that differs from the refrigerant circuit, and in the step (c) of connecting the heat source unit to the utilization unit, a recovered refrigerant recovered from the other refrigerant circuit is charged as the second refrigerant to the refrigerant circuit. a step (a) of charging a first refrigerant to the heat source unit before connecting the heat source unit to the utilization unit to configure the refrigerant circuit; after the step (a) of charging the first refrigerant to the heat source unit, a step (b) of transporting the heat source unit with the first refrigerant charged therein to a location where the heat source unit is to be connected to configure the refrigerant circuit; and a step (c) of connecting the heat source unit to the utilization unit and additionally charging a second refrigerant that differs from the first refrigerant to the refrigerant circuit to obtain the circulating refrigerant that includes the second refrigerant and the first refrigerant that is charged in the heat source unit, wherein before the step (c) of connecting the heat source unit to the utilization unit is performed, a connection pipe (81, 82) connected to the utilization unit and/or the heat source unit is connected to another heat source unit to be replaced by the heat source unit at the location and configures another refrigerant circuit that differs from the refrigerant circuit, and in the step (c) of connecting the heat source unit to the utilization unit, a recovered refrigerant recovered from the other refrigerant circuit is charged as the second refrigerant to the refrigerant circuit.
A control device for a stepped transmission mechanism, the control device being mounted in a vehicle having an idle stop function, wherein the control device is configured to perform an interlock by engaging a first clutch of the stepped transmission mechanism and increasing hydraulic pressure of a second clutch of the stepped transmission mechanism up to a first predetermined pressure such that an output shaft of the transmission mechanism is fixed, after an idle-stop condition including at least a requirement that the vehicle is stationary was satisfied and before a stop of an engine, the first clutch is configured to be used for a movement start of the vehicle, and the second clutch is provided separately from the first clutch, the control device being characterized by: a gradient detecting section (47, 12a) configured to detect a gradient of a road surface on which the vehicle is stationary; and a hydraulic control section configured to perform a slipping interlock such that a slipping state is realized by reducing the hydraulic pressure of the second clutch to a second predetermined pressure which is lower than the first predetermined pressure, if the gradient detected by the gradient detecting section (47, 12a) is lower than or equal to a predetermined value (R TH) during the interlock and before the stop of the engine. a gradient detecting section (47, 12a) configured to detect a gradient of a road surface on which the vehicle is stationary; and a hydraulic control section configured to perform a slipping interlock such that a slipping state is realized by reducing the hydraulic pressure of the second clutch to a second predetermined pressure which is lower than the first predetermined pressure, if the gradient detected by the gradient detecting section (47, 12a) is lower than or equal to a predetermined value (R TH) during the interlock and before the stop of the engine.
A transfer paper used for a transfer printing method using sublimation textile ink, comprising a base paper and one or more coating layer(s) provided on at least one side of the base paper, wherein an outermost coating layer positioned on the outermost side with respect to the base paper contains at least a pigment, a binder, a polyacrylic acid salt and an acetylene glycol derivative, provided that the polyacrylic acid salt is excluded from the binder, the binder is carboxymethyl cellulose, in the outermost coating layer, a content of the polyacrylic acid salt is 0.1 parts by mass or more and 3.5 parts by mass or less based on 100 parts by mass of the binder, and the polyacrylic acid salt is ammonium polyacrylate. an outermost coating layer positioned on the outermost side with respect to the base paper contains at least a pigment, a binder, a polyacrylic acid salt and an acetylene glycol derivative, provided that the polyacrylic acid salt is excluded from the binder, the binder is carboxymethyl cellulose, in the outermost coating layer, a content of the polyacrylic acid salt is 0.1 parts by mass or more and 3.5 parts by mass or less based on 100 parts by mass of the binder, and the polyacrylic acid salt is ammonium polyacrylate.
Method of recognizing deviations in communication behaviour of a network comprising the steps of: - collecting communication metadata in a switch (11, 28) of the network, wherein the communication metadata comprises data about characteristics of each communication over the switch (11, 28); - deriving for each communication over the switch (11, 28) two security values or three security values from the communication metadata of the respective communication and threshold values derived during the generation of a model of the communication behaviour derived from training communication metadata of the network; - spanning a 2D envelope in the 2D domain or a 3D envelope in the 3D domain based on the threshold values, the envelope defining an area in the 2D domain or a space in the 3D domain where all the respective threshold values are met by the respective security points; - checking for each communication whether the respective at most three security values meet respective predetermined threshold values, wherein it is checked for each communication whether the security point, which is defined by the derived security values, lies within or on the envelope; and - generating a security warning in case at least one of the security points of the communication lies outside the envelope. - collecting communication metadata in a switch (11, 28) of the network, wherein the communication metadata comprises data about characteristics of each communication over the switch (11, 28); - deriving for each communication over the switch (11, 28) two security values or three security values from the communication metadata of the respective communication and threshold values derived during the generation of a model of the communication behaviour derived from training communication metadata of the network; - spanning a 2D envelope in the 2D domain or a 3D envelope in the 3D domain based on the threshold values, the envelope defining an area in the 2D domain or a space in the 3D domain where all the respective threshold values are met by the respective security points; - checking for each communication whether the respective at most three security values meet respective predetermined threshold values, wherein it is checked for each communication whether the security point, which is defined by the derived security values, lies within or on the envelope; and - generating a security warning in case at least one of the security points of the communication lies outside the envelope.
A method of generating a chart for navigation through an open environment, the method comprising: retrieving a navigation chart from a navigation database; determining one or more barriers in the navigation chart; generating a plurality of first navigation nodes at a first predetermined distance from the one or more barriers; generating a plurality of second navigation nodes disposed within a first threshold distance range, wherein the first threshold distance range includes a minimum distance from the one or more barriers that is greater than the first predetermined distance; generating a first plurality of potential route segments (PRSs), wherein each of the first plurality of PRSs extend between two first navigation nodes or between a first navigation node and a second navigation node that are within a first proximity distance of each other; and generating a second plurality of PRSs that each extend between two second navigation nodes that are within a second proximity distance of each other. retrieving a navigation chart from a navigation database; determining one or more barriers in the navigation chart; generating a plurality of first navigation nodes at a first predetermined distance from the one or more barriers; generating a plurality of second navigation nodes disposed within a first threshold distance range, wherein the first threshold distance range includes a minimum distance from the one or more barriers that is greater than the first predetermined distance; generating a first plurality of potential route segments (PRSs), wherein each of the first plurality of PRSs extend between two first navigation nodes or between a first navigation node and a second navigation node that are within a first proximity distance of each other; and generating a second plurality of PRSs that each extend between two second navigation nodes that are within a second proximity distance of each other.
Method for utilising nitrogen oxides contained in the ambient air, comprising adsorbing nitrogen oxides (NO x) from the ambient air in a stationary adsorber unit which contains an adsorber material, removing the adsorber material loaded with nitrogen oxides (NO x) from the adsorber unit, collecting and temporarily storing the adsorber material loaded with nitrogen oxides (NO x) in a collection point, transferring the adsorber material loaded with nitrogen oxides (NO x) into a desorption module, desorbing adsorbed nitrogen oxides (NO x) from the adsorber material, and converting the nitrogen oxides (NO x) into liquid or solid nitrogen-containing compounds.
Panel for forming a covering, more particularly a floor panel for forming a floor covering; wherein this panel comprises a substrate of a material on the basis of soft PVC; wherein this panel is rectangular, either oblong or square, and thus comprises a first pair of opposite edges and a second pair of opposite edges; wherein both pairs of opposite edges (2-3, 4-5) comprise coupling parts (6-7, 8-9) allowing to couple a plurality of such panels to each other; wherein these coupling parts (6-7, 8-9), at both pairs of edges (2-3, 4-5), form a first locking system effecting a locking in the plane of the panels and perpendicular to the respective edges, as well as form a second locking system effecting a locking transverse to the plane of the panels; wherein these coupling parts (6-7, 8-9) substantially are realized from said substrate; wherein the coupling parts of the first pair of opposite edges, as well as of the second pair of opposite edges are configured such that two of such panels can be coupled to each other at these edges by means of a turning movement; wherein to this aim, these coupling parts (6-7, 8-9), at each of the aforementioned two pairs of edges, consist of a tongue and a groove, as well as locking parts, which, in the coupled condition, prevent the drifting apart of the tongue and groove; wherein at both pairs the groove each time is bordered by a lower lip and an upper lip, whereby the lower lip extends laterally up to beyond the distal end of the upper lip; and wherein said locking parts at both pairs are provided with locking surfaces at the respective tongues and grooves, the locking surface at the groove being situated in the portion of the lower lip situated beyond the distal end of the upper lip; characterized in that at least at one pair of edges, the tongue and groove have a shape providing for that in the coupled condition of two of such panels, a space is present underneath the tongue, said space extending continuously underneath the tongue as from the tip of the tongue, up to a location situated beyond the distal end of the upper lip; wherein said space extends underneath the tongue over a length, measured parallel to the plane of the panel, which is at least 1.5 times the distance from the tip of the tongue up to the distal end of the upper lip; and wherein the tongue of said at least one pair of edges in downward direction is supported on the groove by means of said locking surfaces (16 and 17) and/or by means of a support point situated proximally from the locking surfaces.
Compound for use for treating cancer, by inducing apoptosis in a cancerous cell, wherein said compound is selected from the group consisting of the human ApoO of SEQ ID N° 1, a fragment thereof inducing apoptosis in a cancerous cell, and their mixtures.
A network slave device (14a - 14N) comprising: a transceiver for communicating over a communication bus in accordance with a point-to-point unidirectional network protocol, wherein the point-to-point unidirectional network protocol is a single edge nibble transmission, i.e. SENT, protocol; an address of the network slave device to identify the network slave device; and a communication circuit configured to process a command received by the transceiver and generate a reply for transmission over the communication bus if an address included in the command matches the address of the network slave device, wherein the network slave device comprises a magnetic field sensor. a transceiver for communicating over a communication bus in accordance with a point-to-point unidirectional network protocol, wherein the point-to-point unidirectional network protocol is a single edge nibble transmission, i.e. SENT, protocol; an address of the network slave device to identify the network slave device; and a communication circuit configured to process a command received by the transceiver and generate a reply for transmission over the communication bus if an address included in the command matches the address of the network slave device, wherein the network slave device comprises a magnetic field sensor.
A solid-state image sensor comprising: a logic circuit configured to process an analog signal; a pixel circuit configured to generate the analog signal by photoelectric conversion and output the analog signal to the logic circuit via a predetermined signal line (229-1,...,229-n); a negative capacitance circuit connected to the predetermined signal line (229-1,...,229-n); a current source connected to the predetermined signal line (229-1,...,229-n), characterized in that the negative capacitance circuit includes an inserted transistor (313, 321-1) that is inserted between the current source and the predetermined signal line (229-1,...,229-n), an amplifier including a pair of transistors (315, 316) connected in a cascode configuration between a power source and a reference terminal, and a capacitor having one terminal connected to a junction of the pair of transistors (315, 316) and another terminal connected to a junction of the current source and the inserted transistor (313, 321-1), and a gate of the transistor connected to the power source from among the pair of transistors (315, 316) is connected to the predetermined signal line (229-1,...,229-n). a logic circuit configured to process an analog signal; a pixel circuit configured to generate the analog signal by photoelectric conversion and output the analog signal to the logic circuit via a predetermined signal line (229-1,...,229-n); a negative capacitance circuit connected to the predetermined signal line (229-1,...,229-n); a current source connected to the predetermined signal line (229-1,...,229-n), characterized in that the negative capacitance circuit includes an inserted transistor (313, 321-1) that is inserted between the current source and the predetermined signal line (229-1,...,229-n), an amplifier including a pair of transistors (315, 316) connected in a cascode configuration between a power source and a reference terminal, and a capacitor having one terminal connected to a junction of the pair of transistors (315, 316) and another terminal connected to a junction of the current source and the inserted transistor (313, 321-1), and a gate of the transistor connected to the power source from among the pair of transistors (315, 316) is connected to the predetermined signal line (229-1,...,229-n).
An upper-assembly electronic cigarette atomizer, wherein said atomizer comprises respectively, from bottom up: - a liquid storage cup having an upper opening; and - a head cover component connected with the upper opening of the liquid storage cup; wherein the liquid storage cup is connected to the head cover component in a closed and threaded manner to form a closed space in the liquid storage cup for containing an e-liquid; wherein the head cover component comprises a cigarette holder, a liquid storage cup cover, connecting electrodes, an aspiration pipe, an air intake pipe, and an atomization device, and is an integrated part configured to be removed together from the liquid storage cup, wherein the aspiration pipe, the air intake pipe, and the atomization device extended downward into the liquid storage cup; wherein said liquid storage cup cover has a multilayer structure, from bottom up, the layers are respectively the liquid storage cup cover body serving also as a first electrode, an insulating ring, an air intake ring chamber having an upper cover and serving as a second electrode, and an air intake regulating ring, the liquid storage cup cover body is annularly and electrically connected with the air intake pipe; the air intake ring chamber cover and the aspiration pipe are annularly and electrically connected; the air intake regulating ring is arranged in the periphery of the air intake ring chamber for rotary joint. - a liquid storage cup having an upper opening; and - a head cover component connected with the upper opening of the liquid storage cup;
A lithium-air battery comprising: - a negative electrode comprising a negative-electrode active material; - a positive electrode capable of using oxygen as a positive-electrode active material; and - at least one catholyte layer comprising a catholyte medium comprising a non-aqueous liquid phase solvent in contact with said positive electrode, wherein the catholyte medium comprises a lithium salt and an additive in the form of a salt of a transition metal M, wherein: M is selected from the group consisting of: Mn, Mo, Co, Ni, Cr, Fe, Cu, Zn, Zr, Nb, Ru, Ag, and wherein the molar ratio M/Li in the catholyte medium is less than 0.1. - a negative electrode comprising a negative-electrode active material; - a positive electrode capable of using oxygen as a positive-electrode active material; and - at least one catholyte layer comprising a catholyte medium comprising a non-aqueous liquid phase solvent in contact with said positive electrode, M is selected from the group consisting of: Mn, Mo, Co, Ni, Cr, Fe, Cu, Zn, Zr, Nb, Ru, Ag, and wherein the molar ratio M/Li in the catholyte medium is less than 0.1.
An arrangement for imaging, examining and/or processing a sample using electrically charged particles, comprising - a device for providing and directing electrically charged particles to a sample arranged inside a chamber; - wherein the chamber comprises a sample holder on which a sample is positionable such that it can be imaged, examined and/or processed using the particles providable by said device; and - a system for magnetic field compensation in at least one spatial direction (X, Y, Z), including at least one compensation coil which is provided by at least one turn of a conductor, so that, in a compensation volume inside said chamber generated by at the least one compensation coil, a magnetic field is provided such that a magnetic interference field can be compensated for along a portion of a trajectory of the electrically charged particles, wherein at least one wall of said chamber has at least one accommodation area (21a, 21b, 22), at least in sections thereof, for at least one portion of said compensation coil. - a device for providing and directing electrically charged particles to a sample arranged inside a chamber; - wherein the chamber comprises a sample holder on which a sample is positionable such that it can be imaged, examined and/or processed using the particles providable by said device; and - a system for magnetic field compensation in at least one spatial direction (X, Y, Z), including at least one compensation coil which is provided by at least one turn of a conductor, so that, in a compensation volume inside said chamber generated by at the least one compensation coil, a magnetic field is provided such that a magnetic interference field can be compensated for along a portion of a trajectory of the electrically charged particles,
Method for establishing a materially bonded current path connection in medium- or high-voltage switching devices, wherein a current path has at least one first portion and one second portion, wherein - the first portion and/or the second portion of the current path each contain a nanomaterial at least in one region, - the first portion and the second portion of the current path are connected to one another in a non-positively locking and/or positively locking manner at least in the respective regions, - the first portion and the second portion of the current path are connected in a non-positively locking manner by one or more connecting means in the respective regions, and - a conductive and materially bonded connection between the first portion and the second portion of the current path is formed, with involvement of the nanomaterial, by supplying reaction energy, wherein the current path connection with long-term stability is ensured using the nanomaterial and changing the purely non-positively locking connection into a materially bonded and non-positively locking connection by supplying the reaction energy. - the first portion and/or the second portion of the current path each contain a nanomaterial at least in one region, - the first portion and the second portion of the current path are connected to one another in a non-positively locking and/or positively locking manner at least in the respective regions, - the first portion and the second portion of the current path are connected in a non-positively locking manner by one or more connecting means in the respective regions, and - a conductive and materially bonded connection between the first portion and the second portion of the current path is formed, with involvement of the nanomaterial, by supplying reaction energy,