mhurhangee/ep-ind-claims huggingface dataset:
A negative active material for a rechargeable battery, comprising spheroidized natural graphite comprising secondary particles in which a plurality of primary particles consisting of natural graphite are assembled; amorphous carbon on the surface of the primary particles; and a coating layer comprising amorphous carbon surrounding the secondary particles, wherein the primary particles have an average particle diameter of 5 μm to 15 μm, and the secondary particles have an average particle diameter of 8 μm to 24 μm, wherein the average particle diameter is a value measured by adding a plurality of particles into a particle diameter analyzer and is a particle diameter at a cumulative volume of 50 volume% in a cumulative size-distribution curve, characterized in that the negative active material has a peak intensity ratio, l /l, measured by an X-ray diffraction analysis method that is less than or equal to 120 and wherein the negative active material comprises the natural graphite and the amorphous carbon in a weight ratio of 90:10 to 75:25. spheroidized natural graphite comprising secondary particles in which a plurality of primary particles consisting of natural graphite are assembled; amorphous carbon on the surface of the primary particles; and a coating layer comprising amorphous carbon surrounding the secondary particles, wherein the primary particles have an average particle diameter of 5 μm to 15 μm, and the secondary particles have an average particle diameter of 8 μm to 24 μm, wherein the average particle diameter is a value measured by adding a plurality of particles into a particle diameter analyzer and is a particle diameter at a cumulative volume of 50 volume% in a cumulative size-distribution curve, characterized in that the negative active material has a peak intensity ratio, l /l, measured by an X-ray diffraction analysis method that is less than or equal to 120 and wherein the negative active material comprises the natural graphite and the amorphous carbon in a weight ratio of 90:10 to 75:25.
A radiator for an antenna, the radiator comprising a radiating element being made of a non-self-carrying sheet comprising at least a conductive surface, a non-conducting carrier configured to hold in place the at least one radiating element, wherein the radiating element is connected to the non-conductive carrier such that the radiating element follows at least one surface plane (103, 104) of the carrier; and wherein the radiator further comprises: a feed which is fittingly insertable into a feed slot provided in the carrier such that when the feed is inserted in to the feed slot, a capacitive coupling between the feed and the radiating element is established, wherein the radiator is characterized in that a gap is provided between a second surface plane of the carrier and a second part of the radiating element, wherein the gap is chosen such that at least in a temperature range from - 55°C to 85°C a contact in the area of the gap between the radiating element and the carrier caused by thermal expansion is avoided. a feed which is fittingly insertable into a feed slot provided in the carrier such that when the feed is inserted in to the feed slot, a capacitive coupling between the feed and the radiating element is established, wherein the radiator is characterized in that a gap is provided between a second surface plane of the carrier and a second part of the radiating element, wherein the gap is chosen such that at least in a temperature range from - 55°C to 85°C a contact in the area of the gap between the radiating element and the carrier caused by thermal expansion is avoided.
A miniaturised fluid flow regulating device for regulating a flow of exhaled breath to maintain the flow in the range of 10-300 ml/s, said device comprising a fluid flow channel with an inlet portion, an outlet portion and a flow regulation passage between the inlet portion and the outlet portion, said passage having a cross-sectional area, an elongated beam element arranged in the flow channel, such that a pressure difference over the inlet portion and the outlet portion causes the beam element to deflect and reduce the cross-sectional area of said passage and thereby regulate fluid flow in the flow regulation passage, characterized in that the elongated beam has a first end portion and a second end portion and extends from the inlet portion to the outlet portion of the flow channel, the elongated beam defines a fluid space communicating with the inlet portion, and delimited by the attachment of the first end portion the device comprises supporting means (19a, 19b, 20a, 20b), at least one of the first and second end portions is/are supported in the device by the supporting means, and the supporting means cooperate with the deflection of the beam to reduce the cross-sectional area of the flow regulation passage in order to regulate the flow.
Screen profile assembly for holding a lateral side of a screen for covering windows, comprising a base profile for fitting the screen profile assembly against the windows and one or more additional profiles which, together with the base profile, delimit an installation opening in a front wall of the screen profile assembly through which the screen can extend in the installed position, wherein this base profile comprises a supporting wall which forms a side wall of the screen profile assembly and extends transversely to the front wall, wherein the front wall is a first front wall, the installation opening is a first installation opening which is provided so that a first screen can extend through the latter in the installed position for covering this first glazing unit, and wherein the base profile comprises a second supporting wall which forms a second side wall of the screen profile assembly and which connects to the first supporting wall at an angle (α), characterised in that the assembly is provided in order to bear against the windows in order to attach the base profile to the windows, in that the supporting wall is a first supporting wall which is provided to bear against a first glazing unit of the windows, in that the second supporting wall is provided to bear against a second glazing unit of the windows which connects to the first glazing unit at this angle (α) in a frameless manner, in that the second supporting wall extends transversely to a second front wall of the screen profile assembly, in which a second installation opening is delimited by the base profile and the one or more additional profiles of the screen profile assembly, wherein this second installation opening is provided so that a second screen can extend through the latter in the installed position in order to cover this second glazing unit, and in that the base profile is to this end designed as a single part.
Method of producing a product from flexibly rolled strip material, comprising: providing a flexibly rolled strip material of a metallic material having a thickness profile with a variable thickness over the length of the strip material; determining a measured thickness profile of the strip material over the length of the strip material and calculating a desired cutting position for a raw blank to be produced from the strip material depending on the determined measured thickness profile of the strip material and a respective desired thickness profile of the blank to be cut therefrom, and feeding the strip material to the desired cutting position; cutting a raw blank from the strip material in the desired cutting position, the raw blank being arranged in a cut-off position after cutting; characterised by rotating the raw blank depending on the determined measured thickness profile such that the raw blank is positioned with its thickness profile in a defined processing position that is different from the cut-off position; processing the raw blank in the processing position by a processing unit, wherein the raw blank is processed into a product. providing a flexibly rolled strip material of a metallic material having a thickness profile with a variable thickness over the length of the strip material; determining a measured thickness profile of the strip material over the length of the strip material and calculating a desired cutting position for a raw blank to be produced from the strip material depending on the determined measured thickness profile of the strip material and a respective desired thickness profile of the blank to be cut therefrom, and feeding the strip material to the desired cutting position; cutting a raw blank from the strip material in the desired cutting position, the raw blank being arranged in a cut-off position after cutting; characterised by rotating the raw blank depending on the determined measured thickness profile such that the raw blank is positioned with its thickness profile in a defined processing position that is different from the cut-off position; processing the raw blank in the processing position by a processing unit, wherein the raw blank is processed into a product.
A data communication system comprising: an access point; and a plurality of stations each for exchanging wireless data communication messages with the access point; each of said plurality of stations being identified by an address, said system characterized by each of said plurality of stations being adapted to operate so as to send messages to the access point only in response to a polling message sent by the access point and addressed to a station in question, wherein each polling message transmitted by the access point may include additional data units addressed to other stations to which the polling message itself is not addressed, and wherein each of said plurality of stations is adapted to listen to all polling messages, whether or not addressed to the station in question, and if the polling message includes a data unit addressed to a station which is not the target of the polling message, the station which is not the target being adapted to still receive and read the data unit that is addressed, said access point being adapted to poll in turn each of said plurality of stations with a polling message, wherein at least some of said messages are in a format that includes at least one message header wherein said message header includes an address and control field section that includes, when the message is transmitted by an access point, the address that identifies the station to which the message is directed and a message type section and a plurality of data units, each of said data units including a respective data unit header and a respective data frame, each data unit header identifying a respective one of the stations as a recipient to receive the respective data frame of the data unit, wherein polling messages are in said format and identified by a type indication in the message type section, wherein upon receiving from said access point a polling message each of said plurality of stations is adapted to determine whether the message that was received is a polling message addressed to the station, and if the message that was received is a polling message addressed to the station, the station is adapted to read the data frame included in the data unit addressed to the station and take the action is required by the data frame and in addition transmit a response which is an acknowledgement of the polling message, whereas if the message that was received is a polling message not addressed to the station, the station is adapted to determine next whether the message includes a data unit that is addressed to the station, and, if so, the station is adapted to read the data frame included in the data frame addressed to the station and takethe action required by the data frame, but not to transmit at this time an acknowledgement of the data frame, but to wait to acknowledge the data frame until the station is polled by the access point an access point; and a plurality of stations each for exchanging wireless data communication messages with the access point;
An implantable device for monitoring vascular lumen diameter in a patient, comprising: a sensing element (106, 512, 2215, 2406, 2509, 2600, 2709, 2903) for measuring changes in inferior vena cava, IVC, dimension or volume at a monitoring location inside the vascular lumen of the IVC; an anchor element (109, 506, 1100, 1400, 1700, 1800, 2206, 2302, 2303, 2403, 2503, 2603, 2706, 2909) configured to securely anchor the device to the vascular lumen at an anchoring location inside the vascular lumen with the sensing element positioned at the monitoring location; and wherein the sensing element is isolated from the anchor element by a mechanical coupling which mechanically isolates movement of the sensing element from the anchor, or by an elongated connecting element providing longitudinal separation between the sensing element and the anchor element, such that the IVC can naturally expand and contract at the monitoring location without significant constraint. a sensing element (106, 512, 2215, 2406, 2509, 2600, 2709, 2903) for measuring changes in inferior vena cava, IVC, dimension or volume at a monitoring location inside the vascular lumen of the IVC; an anchor element (109, 506, 1100, 1400, 1700, 1800, 2206, 2302, 2303, 2403, 2503, 2603, 2706, 2909) configured to securely anchor the device to the vascular lumen at an anchoring location inside the vascular lumen with the sensing element positioned at the monitoring location; and wherein the sensing element is isolated from the anchor element by a mechanical coupling which mechanically isolates movement of the sensing element from the anchor, or by an elongated connecting element providing longitudinal separation between the sensing element and the anchor element, such that the IVC can naturally expand and contract at the monitoring location without significant constraint.
A sweetener composition consisting of a) one or more mono- or disaccharides and b) a carboxymethyl cellulose having a viscosity of up to 200 mPa·s, measured as a 2 weight percent aqueous solution at 20 °C using a Haake RS1 viscometer with a cylinder system Z34 DIN at 10.0 s -1 such that the weight ratio of a): b) is from 0.5: 1 to 25: 1, and c) 0 to 40 weight percent, based on the total weight of the sweetener composition, of one or more additional ingredients. a) one or more mono- or disaccharides and b) a carboxymethyl cellulose having a viscosity of up to 200 mPa·s, measured as a 2 weight percent aqueous solution at 20 °C using a Haake RS1 viscometer with a cylinder system Z34 DIN at 10.0 s -1 such that the weight ratio of a): b) is from 0.5: 1 to 25: 1, and c) 0 to 40 weight percent, based on the total weight of the sweetener composition, of one or more additional ingredients.
Method for controlling a lighting device for indoor spaces or outdoor areas, in which the color temperature of a lighting means is changed according to the time of day and/or the season, wherein for determining the time of day and/or the season an RDS signal containing a time signal is received via an RDS receiver, characterised by the following steps: • determining station identifiers from the RDS signal; • determining the received frequencies; • inferring from the received frequencies and station identifiers the radio station from which the signal is received; • inferring the installation location of the lighting device from the radio station; • controlling the lighting device based on the time signal and the installation location. • determining station identifiers from the RDS signal; • determining the received frequencies; • inferring from the received frequencies and station identifiers the radio station from which the signal is received; • inferring the installation location of the lighting device from the radio station; • controlling the lighting device based on the time signal and the installation location.
Method for producing a strip from a CoFe alloy, comprising: the hot-rolling of a slab consisting of 35 % w/w ≤ Co ≤ 55 % w/w, 0 % w/w ≤ V ≤ 3 % w/w, ≤ 3 % w/w, 0 % w/w ≤ Ni ≤ 2 % w/w, 0 % w/w ≤ Nb ≤ 0.50 % w/w, 0 % w/w ≤ Zr + Ta ≤ 1.5 % w/w, 0 % w/w ≤ Cr ≤ 3 % w/w, 0 % w/w ≤ Si ≤ 3 % w/w, 0 % w/w ≤ Al ≤ 1 % w/w, 0 % w/w ≤ Mn ≤ 1 % w/w, 0 % w/w ≤ B ≤ 0.25 % w/w, 0 % w/w ≤ C ≤ 0.1 % w/w, rest Fe and up to 1% w/w impurities, wherein the impurities can comprise one or more of the group of O, N, S, P, Ce, Ti, Mg, Be, Cu, Mo and W, to form a hot-rolled strip, followed by the quenching of the strip from a temperature above 700°C to a temperature of less than 200°C, the cold-rolling of the hot-rolled strip to form a cold-rolled strip, the stationary annealing of the cold-rolled strip to produce an intermediate strip, the annealing of the intermediate strip in a continuous process, wherein the stationary annealing is carried out at a maximum temperature T 1, at which the order of the CoFe alloy in the cold-rolled strip is at least partially broken up during the stationary annealing process and the cold-rolled strip is at least partially recrystallised, wherein the annealing in a continuous process is carried out at a maximum temperature T 2, which is chosen such that the order of the intermediate strip is at least partially broken up and the phase transition α ―> α+γ of the CoFe alloy is not exceeded. the hot-rolling of a slab consisting of 35 % w/w ≤ Co ≤ 55 % w/w, 0 % w/w ≤ V ≤ 3 % w/w, ≤ 3 % w/w, 0 % w/w ≤ Ni ≤ 2 % w/w, 0 % w/w ≤ Nb ≤ 0.50 % w/w, 0 % w/w ≤ Zr + Ta ≤ 1.5 % w/w, 0 % w/w ≤ Cr ≤ 3 % w/w, 0 % w/w ≤ Si ≤ 3 % w/w, 0 % w/w ≤ Al ≤ 1 % w/w, 0 % w/w ≤ Mn ≤ 1 % w/w, 0 % w/w ≤ B ≤ 0.25 % w/w, 0 % w/w ≤ C ≤ 0.1 % w/w, rest Fe and up to 1% w/w impurities, wherein the impurities can comprise one or more of the group of O, N, S, P, Ce, Ti, Mg, Be, Cu, Mo and W, to form a hot-rolled strip, followed by the quenching of the strip from a temperature above 700°C to a temperature of less than 200°C, the cold-rolling of the hot-rolled strip to form a cold-rolled strip, the stationary annealing of the cold-rolled strip to produce an intermediate strip, the annealing of the intermediate strip in a continuous process, wherein the stationary annealing is carried out at a maximum temperature T 1, at which the order of the CoFe alloy in the cold-rolled strip is at least partially broken up during the stationary annealing process and the cold-rolled strip is at least partially recrystallised, wherein the annealing in a continuous process is carried out at a maximum temperature T 2, which is chosen such that the order of the intermediate strip is at least partially broken up and the phase transition α ―> α+γ of the CoFe alloy is not exceeded.
Communication unit for sending and receiving communication signals, having: a sending/receiving unit, which is designed to emit and/or to receive communication signals; an elevation drive, which is coupled to the sending/receiving unit by way of an elevation bearing and is designed to swivel the sending/receiving unit about an elevation axis of the elevation bearing; an azimuth drive, which is coupled to the sending/receiving unit and the elevation drive and is designed to turn the sending/receiving unit together with the elevation drive about an azimuth axis; the elevation axis being arranged eccentrically with respect to the azimuth axis, so that the elevation axis is offset in relation to the azimuth axis by a lateral offset; the azimuth drive having a supporting area, to which the elevation drive and the sending/receiving unit are coupled; the azimuth drive being designed to turn the supporting area about the azimuth axis during the turning movement; characterized in that the elevation axis is laterally offset from the azimuth axis to such an extent that the elevation axis is arranged laterally outside the supporting area; and the elevation bearing is connected to a housing of the sending/receiving unit in a position such that the sending/receiving unit can be swivelled to completely alongside the azimuth drive and the supporting area. a sending/receiving unit, which is designed to emit and/or to receive communication signals; an elevation drive, which is coupled to the sending/receiving unit by way of an elevation bearing and is designed to swivel the sending/receiving unit about an elevation axis of the elevation bearing; an azimuth drive, which is coupled to the sending/receiving unit and the elevation drive and is designed to turn the sending/receiving unit together with the elevation drive about an azimuth axis; the elevation axis being arranged eccentrically with respect to the azimuth axis, so that the elevation axis is offset in relation to the azimuth axis by a lateral offset; the azimuth drive having a supporting area, to which the elevation drive and the sending/receiving unit are coupled; the azimuth drive being designed to turn the supporting area about the azimuth axis during the turning movement; characterized in that the elevation axis is laterally offset from the azimuth axis to such an extent that the elevation axis is arranged laterally outside the supporting area; and the elevation bearing is connected to a housing of the sending/receiving unit in a position such that the sending/receiving unit can be swivelled to completely alongside the azimuth drive and the supporting area.
A dispenser for dispensing a sheet of paper from a supply, the dispenser comprising an underside discharging gap, a sensor, which, upon sensing a person, causes an electric drive to feed a length of paper out of the discharging gap, so that a paper sheet can be torn off by hand, and a switch which can be actuated by virtue of the fed paper sheet being torn off, and which is assigned to a discharging roller in the vicinity of the discharging gap, characterized in that the switch projects in a lowerable manner out of the circumferential surface of the discharging roller, and in that actuation of which sets the dispenser into operational-standby mode in order to feed a further length of paper.
Pressure vessel system, comprising a pressure vessel having a reaction chamber as a pressure space for initiating and/or promoting chemical and/or physical pressure reactions of samples received in the reaction chamber, and a rigid rail which is rigidly connected to a part of the pressure vessel with a first connection for fluid intake, a second connection for fluid outlet and a fluid conduit which fluidically connects the first connection to the second connection, wherein the fluid conduit is fluidically connected to the reaction chamber via the second connection, and wherein the rail has at least one third connection which is fluidically connected to the fluid conduit and can be connected to a device, so that the device is fluidically connected to the fluid conduit and thus to the reaction chamber. a pressure vessel having a reaction chamber as a pressure space for initiating and/or promoting chemical and/or physical pressure reactions of samples received in the reaction chamber, and a rigid rail which is rigidly connected to a part of the pressure vessel with a first connection for fluid intake, a second connection for fluid outlet and a fluid conduit which fluidically connects the first connection to the second connection, wherein the fluid conduit is fluidically connected to the reaction chamber via the second connection, and wherein the rail has at least one third connection which is fluidically connected to the fluid conduit and can be connected to a device, so that the device is fluidically connected to the fluid conduit and thus to the reaction chamber.