mhurhangee/ep-ind-claims huggingface dataset:
An unmanned aerial vehicle, UAV, comprising: a housing; a line-deployment mechanism couplable to the housing and a line, wherein the line-deployment mechanism is controllable to vary a retraction rate of the line; a payload-release mechanism operable to releasably couple the line to a payload; and a control system configured to: lower the line without a payload attached thereto; and operate the line-deployment mechanism according to a pre-determined variable retraction-rate profile to retract the line towards the UAV, wherein the variable retraction-rate profile specifies for the line to retract and lift a payload coupled to the payload-release mechanism at a pre-determined first retraction-rate and subsequently at a pre-determined second retraction-rate. a housing; a line-deployment mechanism couplable to the housing and a line, wherein the line-deployment mechanism is controllable to vary a retraction rate of the line; a payload-release mechanism operable to releasably couple the line to a payload; and a control system configured to: lower the line without a payload attached thereto; and operate the line-deployment mechanism according to a pre-determined variable retraction-rate profile to retract the line towards the UAV, wherein the variable retraction-rate profile specifies for the line to retract and lift a payload coupled to the payload-release mechanism at a pre-determined first retraction-rate and subsequently at a pre-determined second retraction-rate. lower the line without a payload attached thereto; and operate the line-deployment mechanism according to a pre-determined variable retraction-rate profile to retract the line towards the UAV, wherein the variable retraction-rate profile specifies for the line to retract and lift a payload coupled to the payload-release mechanism at a pre-determined first retraction-rate and subsequently at a pre-determined second retraction-rate.
An optical scanning device, comprising a substrate, which is etched to define: an array of two or more parallel micromirrors; a support surrounding the micromirrors; respective spindles connecting the micromirrors to the support, thereby defining respective parallel axes of rotation of the micromirrors relative to the support; and one or more flexible coupling members, which are connected to the micromirrors so as to synchronize an oscillation of the micromirrors about the respective axes, characterized in that: the one or more flexible coupling members comprise a belt, which is etched from the substrate and has first and second ends attached respectively to first and second ones of the micromirrors and is anchored to the support at a point between the first and second ends. an array of two or more parallel micromirrors; a support surrounding the micromirrors; respective spindles connecting the micromirrors to the support, thereby defining respective parallel axes of rotation of the micromirrors relative to the support; and one or more flexible coupling members, which are connected to the micromirrors so as to synchronize an oscillation of the micromirrors about the respective axes, characterized in that: the one or more flexible coupling members comprise a belt, which is etched from the substrate and has first and second ends attached respectively to first and second ones of the micromirrors and is anchored to the support at a point between the first and second ends. the one or more flexible coupling members comprise a belt, which is etched from the substrate and has first and second ends attached respectively to first and second ones of the micromirrors and is anchored to the support at a point between the first and second ends.
A smart contact lens, comprising: one or more, preferably concentric, rings (410-1, 410-2,..., 410-N) of a liquid crystal display, LCD, type, each ring being operable between a state having a lower attenuation of light and a state having a higher attenuation of light; a circuit (420, 100, 101) for detecting a ratiometric change in an incident light intensity, the circuit including a light sensor; and a controller configured to operate the one or more rings based on an intensity of an incident light; characterized in that the controller is further configured to detect whether a detected ratiometric change in the intensity of the incident light from a higher intensity state to a lower intensity state corresponds to at least a beginning of a blinking of an eye of a user, and in response to detecting that such at least a beginning of a blinking of an eye has occurred, initiates a re-polarization of the one or more rings. one or more, preferably concentric, rings (410-1, 410-2,..., 410-N) of a liquid crystal display, LCD, type, each ring being operable between a state having a lower attenuation of light and a state having a higher attenuation of light; a circuit (420, 100, 101) for detecting a ratiometric change in an incident light intensity, the circuit including a light sensor; and a controller configured to operate the one or more rings based on an intensity of an incident light; characterized in that the controller is further configured to detect whether a detected ratiometric change in the intensity of the incident light from a higher intensity state to a lower intensity state corresponds to at least a beginning of a blinking of an eye of a user, and in response to detecting that such at least a beginning of a blinking of an eye has occurred, initiates a re-polarization of the one or more rings.
An assembly of a sheet stack handling apparatus and a sheet stack transporting robot, wherein the sheet stack transporting robot comprises: - a sheet stack support for supporting a sheet stack of print medium sheets; - a driving mechanism for moving the sheet stack transporting robot; - a wireless signal emitter configured to emit an identification signal for the sheet stack transporting robot, wherein the sheet stack handling apparatus comprises: - a sheet stack support for supporting a sheet stack of print medium sheets; - an access door through which access door when in an open position the sheet stack support of the sheet stack handling apparatus is accessible; - an access door actuator for opening and closing the access door; - a wireless signal receiver configured to receive the identification signal from the sheet stack transporting robot; - a controller configured for: - determining a print medium identifier for a print medium designated to the sheet stack support of the sheet stack handling apparatus; - comparing the identification signal received by the wireless signal receiver to the print medium identifier; and - controlling the access door actuator to open the access door if the identification signal corresponds to the print medium identifier. - a sheet stack support for supporting a sheet stack of print medium sheets; - a driving mechanism for moving the sheet stack transporting robot; - a wireless signal emitter configured to emit an identification signal for the sheet stack transporting robot, - a sheet stack support for supporting a sheet stack of print medium sheets; - an access door through which access door when in an open position the sheet stack support of the sheet stack handling apparatus is accessible; - an access door actuator for opening and closing the access door; - a wireless signal receiver configured to receive the identification signal from the sheet stack transporting robot; - a controller configured for: - determining a print medium identifier for a print medium designated to the sheet stack support of the sheet stack handling apparatus; - comparing the identification signal received by the wireless signal receiver to the print medium identifier; and - controlling the access door actuator to open the access door if the identification signal corresponds to the print medium identifier. - determining a print medium identifier for a print medium designated to the sheet stack support of the sheet stack handling apparatus; - comparing the identification signal received by the wireless signal receiver to the print medium identifier; and - controlling the access door actuator to open the access door if the identification signal corresponds to the print medium identifier.
An austenitic stainless steel with improved strength comprising, in percent (%) by weight of the entire composition, C: 0.02 to 0.14%, Si: 0.2 to 0.6%, S: less than 0.01%, Mn: 2.0 to 4.5%, Ni: 2.5 to 5.0%, Cr: 19.0 to 22.0%, Cu: 1.0 to 3.0%, Mo: less than 1.0%, N: 0.25 to 0.40%, optionally B: 0.001 to 0.005% and Ca: 0.001 to 0.003%, the remainder of iron (Fe) and inevitable impurities, and wherein the Solubility of Nitrogen in Liquid value represented by the following equation is equal to or greater than the content of N. SNL = − 0.188 − 0.0423 × C − 0.0517 × Si + 0.012 × Mn + 0.0048 × Ni + 0.0252 × Cr − 0.00906 × Cu + 0.00021 × Mo (Here, C, Si, Mn, Ni, Cr, Cu, and Mo mean the content (% by weight) of each element.)
A conductive pattern formed on a printed-circuit board comprising: a first land electrode; and a second land electrode, wherein: at least a circular main portion of the first land electrode is arranged inside of a first circle defined by a center point and a first radius, wherein the circular main portion is a continuous contact area including the center point, the second land electrode is arranged on, but not completely within, a second circle defined by the center point and a second radius that is larger than the first radius, so as to surround the first land electrode, the entire second land electrode is arranged outside of the first circle, the entire first land electrode is arranged within the second circle, and portions (212, 213, 222, 223) of the first land electrode and the second land electrode are arranged on a third circle defined by the center point and a third radius that is larger than the first radius and is smaller than the second radius. a first land electrode; and a second land electrode, wherein: at least a circular main portion of the first land electrode is arranged inside of a first circle defined by a center point and a first radius, wherein the circular main portion is a continuous contact area including the center point, the second land electrode is arranged on, but not completely within, a second circle defined by the center point and a second radius that is larger than the first radius, so as to surround the first land electrode, the entire second land electrode is arranged outside of the first circle, the entire first land electrode is arranged within the second circle, and portions (212, 213, 222, 223) of the first land electrode and the second land electrode are arranged on a third circle defined by the center point and a third radius that is larger than the first radius and is smaller than the second radius. at least a circular main portion of the first land electrode is arranged inside of a first circle defined by a center point and a first radius, wherein the circular main portion is a continuous contact area including the center point, the second land electrode is arranged on, but not completely within, a second circle defined by the center point and a second radius that is larger than the first radius, so as to surround the first land electrode, the entire second land electrode is arranged outside of the first circle, the entire first land electrode is arranged within the second circle, and portions (212, 213, 222, 223) of the first land electrode and the second land electrode are arranged on a third circle defined by the center point and a third radius that is larger than the first radius and is smaller than the second radius.
A method for filling pharmaceutical product containers in a container filling machine, the method comprising the stages of: - filling a container with a corresponding pharmaceutical substance using filling means at a filling station in the filling machine - weighing a filled container in a filled container weighing station to confirm that the quantity of pharmaceutical substance with which the container has been filled lies within the desired range characterised in that when as a consequence of weighing the filled container the quantity of pharmaceutical substance with which the container has been filled lies below the desired range, then - the filling means are moved to the filled container weighing station - the container is topped up with a quantity such that the total substance placed in the container in the two stages lies within the desired range. - filling a container with a corresponding pharmaceutical substance using filling means at a filling station in the filling machine - weighing a filled container in a filled container weighing station to confirm that the quantity of pharmaceutical substance with which the container has been filled lies within the desired range - the filling means are moved to the filled container weighing station - the container is topped up with a quantity such that the total substance placed in the container in the two stages lies within the desired range.
Printing process in which a substrate to be printed is disposed opposite an ink carrier having an ink layer, the ink layer being irradiated regionally by a laser beam characterized in that the ink layer comprises reflective particles and a soluble polymer having a weight average (Mw) molecular weight of greater than 250 000 g/mol, where the weight average (Mw) of the molecular weight of the soluble polymer is determined according to DIN 55672-2: 2016-3.
A method for operating an apparatus, the method comprising: detecting, by a security device of the apparatus, a request signal transmitted from a control device of the apparatus to a storage device of the apparatus, the request signal being a signal for reading data stored in the storage device; identifying, by the security device, that the request signal comprises a designated address; transmitting (2040, 2050), by the security device, a monitoring signal for detecting uncommon data to the control device in response to identifying that the request signal comprises the designated address; and detecting (1720, 1820, 1920, 2050), by the security device, that at least one of the request signal or a control signal generated based on the request signal comprises the uncommon data including at least one of private information or financial information based on the monitoring signal. detecting, by a security device of the apparatus, a request signal transmitted from a control device of the apparatus to a storage device of the apparatus, the request signal being a signal for reading data stored in the storage device; identifying, by the security device, that the request signal comprises a designated address; transmitting (2040, 2050), by the security device, a monitoring signal for detecting uncommon data to the control device in response to identifying that the request signal comprises the designated address; and detecting (1720, 1820, 1920, 2050), by the security device, that at least one of the request signal or a control signal generated based on the request signal comprises the uncommon data including at least one of private information or financial information based on the monitoring signal.
A cobalt-free high-nickel positive electrode material, comprising: a cobalt-free high-nickel matrix material and a coating layer which is coated on the cobalt-free high-nickel matrix material, wherein a chemical formula of the cobalt-free high-nickel matrix material is Li m Ni x Mn y O 2, wherein 0.2≤m≤0.8, 0.4≤x≤0.95, and 0.05≤y≤0.6, and the coating layer is TiB z O 1-z, wherein 0.2≤z≤0.8.
Method for changing the shape of a sheet-like workpiece, which has a mould recess formed by reducing the thickness of the material, comprising arranging the workpiece on at least two spaced-apart supporting elements of a machine bed, forming the workpiece into a final shape by step-by-step free bending, in that the steps of - bending a part of the workpiece by lowering an upper die between the supporting elements from a waiting position into a forming position, - raising the upper die into the waiting position and - moving the position of the workpiece relative to the machine bed in at least one infeed direction are performed repetitively, characterised in that before the workpiece is formed into the final shape, a filling element, which is adapted to the mould recess and designed to make up the material thickness, is produced and is arranged in the region of the mould recess. arranging the workpiece on at least two spaced-apart supporting elements of a machine bed, forming the workpiece into a final shape by step-by-step free bending, in that the steps of - bending a part of the workpiece by lowering an upper die between the supporting elements from a waiting position into a forming position, - raising the upper die into the waiting position and - moving the position of the workpiece relative to the machine bed in at least one infeed direction - bending a part of the workpiece by lowering an upper die between the supporting elements from a waiting position into a forming position, - raising the upper die into the waiting position and - moving the position of the workpiece relative to the machine bed in at least one infeed direction are performed repetitively, characterised in that before the workpiece is formed into the final shape, a filling element, which is adapted to the mould recess and designed to make up the material thickness, is produced and is arranged in the region of the mould recess.
A data processing device comprising: a restoration unit to perform a conversion operation on an input signal to convert the input signal into a signal having no distortion caused by an external factor; and a selection unit to select and output either an unrestored signal or a restored signal based on a feature quantity of the unrestored signal and on a feature quantity of the restored signal, the unrestored signal being the input signal, the restored signal being a signal obtained by the restoration unit by performing the conversion operation, characterized in that the restoration unit learns in advance detail of the conversion operation using the input signal having distortion caused by an external factor and the input signal having no distortion caused by an external factor to generate a learning model, performs the conversion operation on the input signal using the learning model, and updates the learning model when the number of times the selection unit selects and outputs the restored signal reaches a predetermined value. a restoration unit to perform a conversion operation on an input signal to convert the input signal into a signal having no distortion caused by an external factor; and a selection unit to select and output either an unrestored signal or a restored signal based on a feature quantity of the unrestored signal and on a feature quantity of the restored signal, the unrestored signal being the input signal, the restored signal being a signal obtained by the restoration unit by performing the conversion operation, characterized in that the restoration unit learns in advance detail of the conversion operation using the input signal having distortion caused by an external factor and the input signal having no distortion caused by an external factor to generate a learning model, performs the conversion operation on the input signal using the learning model, and updates the learning model when the number of times the selection unit selects and outputs the restored signal reaches a predetermined value.
An integrated circuit, comprising logic configured to: generate an OFDM packet comprising a short training field as part of a synchronization header and a long training field as part of the synchronization header; and use the packet for communication in a wireless network; wherein the short training field comprises values [0, 0, 0, 0, -1, 0, 0, 0, 1, 0, 0, 0, -1, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0] for OFDM tones [0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10,11, 12, 13, 14, 15, -16, -15, -14, -13, -12, -11, -10, -9, -8, -7, -6, -5, -4, -3, -2, -1], respectively, wherein the values of 1 or -1 are adjustable based on a scaling factor. generate an OFDM packet comprising a short training field as part of a synchronization header and a long training field as part of the synchronization header; and use the packet for communication in a wireless network; wherein the short training field comprises values [0, 0, 0, 0, -1, 0, 0, 0, 1, 0, 0, 0, -1, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0] for OFDM tones [0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10,11, 12, 13, 14, 15, -16, -15, -14, -13, -12, -11, -10, -9, -8, -7, -6, -5, -4, -3, -2, -1], respectively, wherein the values of 1 or -1 are adjustable based on a scaling factor.
A semiconductor component for detecting electromagnetic radiation having - a semiconductor body which is formed with silicon and has a radiation entrance surface as well as an absorption zone, in which electromagnetic radiation passing through the radiation entrance surface into the semiconductor body is absorbed, wherein the absorption zone has a thickness (d) of at most 10 μm, - a filter layer which is formed with a dielectric material, wherein the filter layer covers the radiation entrance surface of the semiconductor body and is provided for filtering infrared radiation so that infrared radiation is prevented from penetrating into the semiconductor body or is at least attenuated in its intensity, and the filter layer is in direct contact with the radiation entrance surface of the semiconductor body, wherein the filter layer is an interference edge filter, and - amould body covering the semiconductor body at least on its radiation entrance surface, wherein the mould body contains a radiation-absorbing material which is provided for absorbing infrared radiation, wherein electromagnetic radiation which impinges on the semiconductor component, initially passes through the mould body with the radiation-absorbing material before the radiation impinges on the filter layer. - a semiconductor body which is formed with silicon and has a radiation entrance surface as well as an absorption zone, in which electromagnetic radiation passing through the radiation entrance surface into the semiconductor body is absorbed, wherein the absorption zone has a thickness (d) of at most 10 μm, - a filter layer which is formed with a dielectric material, wherein the filter layer covers the radiation entrance surface of the semiconductor body and is provided for filtering infrared radiation so that infrared radiation is prevented from penetrating into the semiconductor body or is at least attenuated in its intensity, and the filter layer is in direct contact with the radiation entrance surface of the semiconductor body, wherein the filter layer is an interference edge filter, and - amould body covering the semiconductor body at least on its radiation entrance surface, wherein the mould body contains a radiation-absorbing material which is provided for absorbing infrared radiation, wherein electromagnetic radiation which impinges on the semiconductor component, initially passes through the mould body with the radiation-absorbing material before the radiation impinges on the filter layer.