mhurhangee/ep-ind-claims huggingface dataset:
Coating system for individual coating of substrates, namely spectacle lenses, comprising a device for mixing and/or metering liquid coating materials, a substrate holder for holding the substrate during the coating and a coating chamber into which a liquid outlet of the device opens by way of a nozzle so as to deliver the liquid coating material, which is mixed and/or metered in the device, in the direction of the substrate holder, characterized in that the device for mixing and/or metering liquid coating materials comprises at least one first and at least one second storage container (14 - 24) for liquid starting materials, a conveying device for sucking up and expelling liquids, a mixing container, the liquid outlet for mixed and/or metered liquid coating materials, and a multi-way valve arranged therebetween, wherein the multi-way valve is switchable into different valve settings and adapted to produce one of the following connections (a, b, c, d) and in that case to separate the respective other connections: (a) connection between the first storage container and the conveying device, (b) connection between the second storage container and the conveying device, (c) connection between the conveying device and the mixing container, and (d) connection between the conveying device and the liquid outlet. a device for mixing and/or metering liquid coating materials, a substrate holder for holding the substrate during the coating and a coating chamber into which a liquid outlet of the device opens by way of a nozzle so as to deliver the liquid coating material, which is mixed and/or metered in the device, in the direction of the substrate holder, characterized in that the device for mixing and/or metering liquid coating materials comprises at least one first and at least one second storage container (14 - 24) for liquid starting materials, a conveying device for sucking up and expelling liquids, a mixing container, the liquid outlet for mixed and/or metered liquid coating materials, and a multi-way valve arranged therebetween, wherein the multi-way valve is switchable into different valve settings and adapted to produce one of the following connections (a, b, c, d) and in that case to separate the respective other connections: (a) connection between the first storage container and the conveying device, (b) connection between the second storage container and the conveying device, (c) connection between the conveying device and the mixing container, and (d) connection between the conveying device and the liquid outlet. (a) connection between the first storage container and the conveying device, (b) connection between the second storage container and the conveying device, (c) connection between the conveying device and the mixing container, and (d) connection between the conveying device and the liquid outlet.
A transponder, comprising: a field strength range determination unit configured to determine a field strength range of a radio frequency, RF, field generated by an external reader device; a controller configured to delay processing of a command by the transponder in dependence on the field strength range determined by the field strength range determination unit; characterized in that the field strength range determination unit is configured to determine the field strength range by monitoring an activity of a clock-stop sensor comprised in said transponder. a field strength range determination unit configured to determine a field strength range of a radio frequency, RF, field generated by an external reader device; a controller configured to delay processing of a command by the transponder in dependence on the field strength range determined by the field strength range determination unit; characterized in that the field strength range determination unit is configured to determine the field strength range by monitoring an activity of a clock-stop sensor comprised in said transponder.
Method for connecting a first and a second line module (100, 200) to one another to form a gas-insulated electrical power transmission line, - wherein the first line module has a first encapsulating tube and a first electrical inner conductor located in the first encapsulating tube, and the second line module has a second encapsulating tube and a second electrical inner conductor located in the second encapsulating tube, and wherein - as part of the method, the first encapsulating tube is connected to the second encapsulating tube and the first inner conductor is connected to the second inner conductor, wherein - a retaining ring insulator unit, which has an outer retaining ring and an insulator element connected to the retaining ring and extending radially inwards from the retaining ring, is inserted into the first encapsulating tube from a tube end of the first encapsulating tube, to be precise in such a way that a weld pool backing portion of the retaining ring partly lies against the inner wall of the first encapsulating tube and partly protrudes out of the first encapsulating tube, - the second encapsulating tube is pushed onto the weld pool backing portion of the retaining ring protruding out of the first encapsulating tube, characterized in that the second encapsulating tube is pushed onto the weld pool backing portion of the retaining ring protruding out of the first encapsulating tube to such an extent that the tube ends of the two encapsulating tubes touch, and the first encapsulating tube, the second encapsulating tube and the retaining ring are welded to one another by friction stir welding. - wherein the first line module has a first encapsulating tube and a first electrical inner conductor located in the first encapsulating tube, and the second line module has a second encapsulating tube and a second electrical inner conductor located in the second encapsulating tube, and wherein - as part of the method, the first encapsulating tube is connected to the second encapsulating tube and the first inner conductor is connected to the second inner conductor, wherein - a retaining ring insulator unit, which has an outer retaining ring and an insulator element connected to the retaining ring and extending radially inwards from the retaining ring, is inserted into the first encapsulating tube from a tube end of the first encapsulating tube, to be precise in such a way that a weld pool backing portion of the retaining ring partly lies against the inner wall of the first encapsulating tube and partly protrudes out of the first encapsulating tube, - the second encapsulating tube is pushed onto the weld pool backing portion of the retaining ring protruding out of the first encapsulating tube, characterized in that
A method for fabricating a resistive random access memory, comprising: providing a substrate; forming a bottom electrode on the substrate; forming a resistance switching layer made of amorphous silicon on the bottom electrode; forming a barrier layer made of silicon oxide or silicon nitride on the resistance switching layer; and forming a top electrode on the barrier layer, wherein the barrier layer is configured to prevent atoms in the top electrode from diffusing into the resistance switching layer, characterized in that the method further comprises: after forming the resistance switching layer and before forming the barrier layer, performing a plasma treatment process on a surface of the resistance switching layer, wherein a gas of the plasma treatment process includes N 2. providing a substrate; forming a bottom electrode on the substrate; forming a resistance switching layer made of amorphous silicon on the bottom electrode; forming a barrier layer made of silicon oxide or silicon nitride on the resistance switching layer; and forming a top electrode on the barrier layer, wherein the barrier layer is configured to prevent atoms in the top electrode from diffusing into the resistance switching layer, characterized in that the method further comprises: after forming the resistance switching layer and before forming the barrier layer, performing a plasma treatment process on a surface of the resistance switching layer, wherein a gas of the plasma treatment process includes N 2.
Method for postural independent location of targets in diagnostic images acquired by multimodal acquisitions comprising the steps of: generating a transition of a digital image of the inside of a target region, from a first to a second position of the said target region, by correlating the position of markers, placed on the external surface of the target region, in the digital image of the inside of the target region and in a digital representation of the surface of the target region acquired with the target region in the said first position by optical scanning the said surface, on which the markers are present; And in a later time registering the said diagnostic image of the inside of the target region which has been transitioned into the second position with a diagnostic image of the same target region acquired with the target region in the said second position by matching a second representation of the external surface of the target body in the said second position without markers with the said diagnostic image of the inside of the target region which has been transitioned into the second position. generating a transition of a digital image of the inside of a target region, from a first to a second position of the said target region, by correlating the position of markers, placed on the external surface of the target region, in the digital image of the inside of the target region and in a digital representation of the surface of the target region acquired with the target region in the said first position by optical scanning the said surface, on which the markers are present; And in a later time registering the said diagnostic image of the inside of the target region which has been transitioned into the second position with a diagnostic image of the same target region acquired with the target region in the said second position by matching a second representation of the external surface of the target body in the said second position without markers with the said diagnostic image of the inside of the target region which has been transitioned into the second position.
A metal plate for heat exchange, wherein a recess part having a depth of 5 μm or more and 10% or less of a plate thickness of the metal plate is formed, and a crevasse part is formed at least at a bottom corner of the recess part, characterized in that the crevasse part is formed through oxidation of a grain boundary or by cutting away a crystal grain.
A method for transforming server internet protocol addresses specified via a domain name, the method comprising: (a) receiving, by an intermediary device between a plurality of clients and a plurality of servers, a request to access a server identified by a domain name, the server having a primary internet protocol, IP, address for the domain name of the server and a secondary IP address, the device configured to communicate with the server using the secondary IP address; (b) receiving, by the intermediary device, the primary IP address resolved by a domain name service; (c) identifying, by the intermediary device, a transformation policy for the server, the transformation policy comprising an IP address replacement and a translation mask; (d) transforming, by the intermediary device, the primary IP address of the server to a transformed IP address corresponding to the secondary IP address for the server by applying the IP address replacement and the translation mask to the primary IP address; and (e) forwarding, by the intermediary device, the request to the transformed IP address. (a) receiving, by an intermediary device between a plurality of clients and a plurality of servers, a request to access a server identified by a domain name, the server having a primary internet protocol, IP, address for the domain name of the server and a secondary IP address, the device configured to communicate with the server using the secondary IP address; (b) receiving, by the intermediary device, the primary IP address resolved by a domain name service; (c) identifying, by the intermediary device, a transformation policy for the server, the transformation policy comprising an IP address replacement and a translation mask; (d) transforming, by the intermediary device, the primary IP address of the server to a transformed IP address corresponding to the secondary IP address for the server by applying the IP address replacement and the translation mask to the primary IP address; and (e) forwarding, by the intermediary device, the request to the transformed IP address.
Method for adjusting an acceleration sensor, wherein, in a first method step, measurement values are produced depending on acceleration forces that act on the acceleration sensor, wherein, in a second method step, the measurement values are analysed to the effect of whether disturbance acceleration is present and wherein, in a third method step, the acceleration sensor is calibrated depending on a mathematical filter if no disturbance acceleration is detected in the second method step, characterized in that a mathematical hypothesis test for detecting the disturbance acceleration is applied to the measurement values in the second method step.
A method for a remote-media storing device in a local network of recording broadcasted/multicasted media content in a media aggregating node located outside the local network, the recording being triggered by a media playing device of the local network, the remote-media storing device being connected to the media aggregating node, the method comprising: - requesting the media aggregating node to retrieve a media playlist of available media; - receiving the playlist, and forwarding the playlist as a recording playlist to a browsing media playing device, the playlist comprising associations to the media; - receiving a request with an association to user-selected media from the media playing device, wherein the media is selected by a play-input to the media playing device, and - forwarding said request to the media aggregating node as a request with an association indicating a recording of said media, to retrieve and record the user-selected media at the time of broadcasting/multicasting of said media. - requesting the media aggregating node to retrieve a media playlist of available media; - receiving the playlist, and forwarding the playlist as a recording playlist to a browsing media playing device, the playlist comprising associations to the media; - receiving a request with an association to user-selected media from the media playing device, wherein the media is selected by a play-input to the media playing device, and - forwarding said request to the media aggregating node as a request with an association indicating a recording of said media, to retrieve and record the user-selected media at the time of broadcasting/multicasting of said media.
A method of scoring the immune response in cancer using tissue infiltrating lymphocytes comprising: contacting a sample with all of CD3, CD8, CD20, and FoxP3 specific binding moieties, removing excess specific binding moieties from the sample, detecting all of the specific binding moieties, assessing a presence and a distribution for all of the specific binding moieties within the sample, scoring cancer using tissue infiltrating lymphocytes by analyzing the presence and the distribution of the specific binding moieties. contacting a sample with all of CD3, CD8, CD20, and FoxP3 specific binding moieties, removing excess specific binding moieties from the sample, detecting all of the specific binding moieties, assessing a presence and a distribution for all of the specific binding moieties within the sample, scoring cancer using tissue infiltrating lymphocytes by analyzing the presence and the distribution of the specific binding moieties.
A communications device, comprising: an oscillator, having a temperature-dependent frequency characteristic, for generating signals at a nominal frequency; receiver circuitry, for receiving transmitted wireless signals using the signals generated by the oscillator; at least one temperature sensor, having a known positional relationship to the oscillator; an estimation device, for estimating a frequency of the signals generated by the oscillator, based on a measurement from the temperature sensor, and based on the temperature-dependent frequency characteristic of the oscillator; at least one heat source; wherein the temperature sensor and the oscillator are mounted on a printed circuit board and co-located away from the heat source in a thermally isolated area surrounded by a thermal break, wherein the thermal break comprises gaps in copper layers in the PCB; and; a prediction device, for predicting a change in temperature of the oscillator, based on a state of the heat source, and further based on a model of the thermal properties of the communications device, and hence for predicting a rate of change in the frequency of the signals generated by the oscillator, based on the temperature-dependent frequency characteristic of the oscillator, wherein the receiver circuitry uses the estimated frequency of the signals generated by the oscillator, and the predicted rate of change in the frequency of the signals generated by the oscillator, in receiving the transmitted wireless signals. an oscillator, having a temperature-dependent frequency characteristic, for generating signals at a nominal frequency; receiver circuitry, for receiving transmitted wireless signals using the signals generated by the oscillator; at least one temperature sensor, having a known positional relationship to the oscillator; an estimation device, for estimating a frequency of the signals generated by the oscillator, based on a measurement from the temperature sensor, and based on the temperature-dependent frequency characteristic of the oscillator; at least one heat source; wherein the temperature sensor and the oscillator are mounted on a printed circuit board and co-located away from the heat source in a thermally isolated area surrounded by a thermal break, wherein the thermal break comprises gaps in copper layers in the PCB; and; a prediction device, for predicting a change in temperature of the oscillator, based on a state of the heat source, and further based on a model of the thermal properties of the communications device, and hence for predicting a rate of change in the frequency of the signals generated by the oscillator, based on the temperature-dependent frequency characteristic of the oscillator, wherein the receiver circuitry uses the estimated frequency of the signals generated by the oscillator, and the predicted rate of change in the frequency of the signals generated by the oscillator, in receiving the transmitted wireless signals.
A method for correlating evidence grids, the method comprising: acquiring measurements from a sensor, wherein the sensor generates measurements describing a current section of an environment relative to a navigation system the navigation system comprising the sensor; creating an evidence grid from the measurements, wherein the evidence grid describes the probability that a location within the section of the environment is occupied by an object; creating a reduced evidence grid from the evidence grid by removing data from the evidence grid; further characterized by correlating the reduced evidence grid with a reduced historical evidence grid by performing a sequential search for a highest correlative value, wherein the sequential search comprises adjusting positions and orientations of the reduced evidence grid and the reduced historical evidence grid in relation to one another by sequentially shifting the reduced evidence grid along each one of multiple degrees of freedom to find the adjusted position and orientation having the highest correlative value with the reduced historical evidence grid along each separate degree of freedom in the multiple degrees of freedom, wherein the adjusted positions and orientations comprise translations and rotations; and determining navigational parameters for the navigation system based on the adjusted positions and orientations having the highest correlative value. acquiring measurements from a sensor, wherein the sensor generates measurements describing a current section of an environment relative to a navigation system the navigation system comprising the sensor; creating an evidence grid from the measurements, wherein the evidence grid describes the probability that a location within the section of the environment is occupied by an object; creating a reduced evidence grid from the evidence grid by removing data from the evidence grid; further characterized by correlating the reduced evidence grid with a reduced historical evidence grid by performing a sequential search for a highest correlative value, wherein the sequential search comprises adjusting positions and orientations of the reduced evidence grid and the reduced historical evidence grid in relation to one another by sequentially shifting the reduced evidence grid along each one of multiple degrees of freedom to find the adjusted position and orientation having the highest correlative value with the reduced historical evidence grid along each separate degree of freedom in the multiple degrees of freedom, wherein the adjusted positions and orientations comprise translations and rotations; and determining navigational parameters for the navigation system based on the adjusted positions and orientations having the highest correlative value.
A lighting arrangement comprising a carpet structure and a control unit, wherein the carpet structure comprises: - a carpet back lighting system comprising a carpet back lighting unit having a lighting unit front face comprising a light source arranged to generate light, the carpet back lighting system further comprising a plurality of said light sources; - a light transmissive carpet unit comprising a carpet unit front face and a carpet unit back side, characterized in that the light transmissive carpet unit comprises a primary backing layer having yarns forming tufts, the primary backing layer providing the carpet unit front face, and the primary backing layer having apertures which are covered by the tufts, the carpet back lighting system is located behind the light transmissive carpet unit, the lighting unit front face and the carpet unit back side being adjacent, and the light transmissive carpet unit is arranged to transmit at least part of the light travelling in a direction from the carpet unit back side to the carpet unit front face, and wherein the control unit is configured to receive an input signal and to generate, in response to the input signal, an output signal to control the light generated by the light sources. - a carpet back lighting system comprising a carpet back lighting unit having a lighting unit front face comprising a light source arranged to generate light, the carpet back lighting system further comprising a plurality of said light sources; - a light transmissive carpet unit comprising a carpet unit front face and a carpet unit back side, characterized in that the light transmissive carpet unit comprises a primary backing layer having yarns forming tufts, the primary backing layer providing the carpet unit front face, and the primary backing layer having apertures which are covered by the tufts, the carpet back lighting system is located behind the light transmissive carpet unit, the lighting unit front face and the carpet unit back side being adjacent, and the light transmissive carpet unit is arranged to transmit at least part of the light travelling in a direction from the carpet unit back side to the carpet unit front face, and wherein the control unit is configured to receive an input signal and to generate, in response to the input signal, an output signal to control the light generated by the light sources.