mhurhangee/ep-ind-claims huggingface dataset:
A content viewing restriction system comprising: a content playback apparatus; a removable media reading apparatus provided with a nonvolatile memory in which first viewing restriction information, including information identifying an individual or first viewing restriction information together with the information identifying the individual, is stored, the removable media reading apparatus being configured to be detachably attached to the content playback apparatus; and a removable media in which second viewing restriction information is stored, the removable media being configured to be detachably attached to the removable media reading apparatus, wherein the content playback apparatus recognizes the first viewing restriction information on the removable media reading apparatus, and also recognizes the second viewing restriction information on the removable media, and checks the first viewing restriction information against the second viewing restriction information, and upon the first viewing restriction information satisfying a condition of the second viewing restriction information, removes a playback restriction on a content in correspondence with the second viewing restriction information, the content being stored in the removable media or a storage unit (12, 22) built in the content playback apparatus in a state of being restricted for playback. a content playback apparatus; a removable media reading apparatus provided with a nonvolatile memory in which first viewing restriction information, including information identifying an individual or first viewing restriction information together with the information identifying the individual, is stored, the removable media reading apparatus being configured to be detachably attached to the content playback apparatus; and a removable media in which second viewing restriction information is stored, the removable media being configured to be detachably attached to the removable media reading apparatus, wherein the content playback apparatus recognizes the first viewing restriction information on the removable media reading apparatus, and also recognizes the second viewing restriction information on the removable media, and checks the first viewing restriction information against the second viewing restriction information, and upon the first viewing restriction information satisfying a condition of the second viewing restriction information, removes a playback restriction on a content in correspondence with the second viewing restriction information, the content being stored in the removable media or a storage unit (12, 22) built in the content playback apparatus in a state of being restricted for playback.
A method for controlling noise generated from a wind turbine having a blade attached to a hub having a rotor shaft, and a generator in communication with the rotor shaft, and the at least one blade having an adjustable pitch angle, the method comprising: providing a wind turbine acoustical profile; providing a wind turbine power profile; comparing the wind turbine acoustical profile and the wind turbine power profile to determine a noise reduced operational condition; and controlling the wind turbine to provide a rotor speed and the pitch angle of the blade corresponding to the noise reduced operational condition, characterized in that controlling includes selectively adjusting the rotor speed and selectively adjusting the pitch angle of the blade to the desired power coefficient and amount of noise. providing a wind turbine acoustical profile; providing a wind turbine power profile; comparing the wind turbine acoustical profile and the wind turbine power profile to determine a noise reduced operational condition; and controlling the wind turbine to provide a rotor speed and the pitch angle of the blade corresponding to the noise reduced operational condition, characterized in that controlling includes selectively adjusting the rotor speed and selectively adjusting the pitch angle of the blade to the desired power coefficient and amount of noise.
Method for controlling automatic gear shift processors of an electric gear speed shifting device of a bicycle, wherein each gear speed (1, 2,..., i,...n) is assigned a predetermined gear speed range (G1, G2, G3,..., Gi;...; Gn), and each gear speed range is assigned a predetermined lower limiting value (uGl; uG2; uGi) and a predetermined upper limiting value (oG1, oG2, oGi), wherein the upper limiting value (oGi) of a gear speed range (Gi) is larger in each case by a predetermined value than the lower limiting value (uGi+1) of the next highest gear speed range (uGi+1), wherein the upper limiting value (oGi) of a gear speed range (Gi) and the lower limiting value (uGi+1) of the next highest gear speed range (Gi+1) define between them an overlapping region (Üi/i+1), wherein in the overlapping region (Üi/i+1) either the gear speed i or the gear speed i+1 is engaged depending on the profile of the speed v; wherein it is possible to switch from an active gear speed (i) into the next highest gear speed (i+1) if the speed v exceeds a lower limiting value (uGi+1) of the next highest gear speed range (Gi+1) and the speed v at which a gear shift operation has taken place is assigned to this gear shift operation as a shifting speed uv; wherein it is possible to shift from an active gear speed (i) into the next lowest gear speed (i-1) if the speed v undershoots an upper limiting value (oGi-1) of the next lowest gear speed range (Gi-1) and the speed v at which a gear shift operation has taken place is assigned to this gear shift operation as a shifting speed uv; wherein shifting up (+S) takes place when - the last gear shift operation was shifting down (-S) into the active gear speed (i), - the speed v is higher than the previous shifting speed uv at least by a predetermined threshold value, and - the speed v is higher than the lower limiting value (uGi+1) of the next highest gear speed range (Gi+1), or wherein shifting down (-S) takes place if - the last gear shift operation was shifting up (+S) into the active gear speed (i), - the speed v is lower than the previous shifting speed uv at least by a predetermined threshold value, and - the speed v is lower than the upper limiting value (oGi) of the next lowest gear speed range (Gi-1). - the last gear shift operation was shifting down (-S) into the active gear speed (i), - the speed v is higher than the previous shifting speed uv at least by a predetermined threshold value, and - the speed v is higher than the lower limiting value (uGi+1) of the next highest gear speed range (Gi+1), or wherein shifting down (-S) takes place if - the last gear shift operation was shifting up (+S) into the active gear speed (i), - the speed v is lower than the previous shifting speed uv at least by a predetermined threshold value, and - the speed v is lower than the upper limiting value (oGi) of the next lowest gear speed range (Gi-1).
Nitroglycerin (glyceryl trinitrate) for use in a method for the prevention or treatment of an arterial insufficiency, wherein the nitroglycerin is administered lingually, sublingually, inhalatively, buccally, transmucosally or oromucosally in an intermitting manner in an amount effective for the induction of arteriogenesis, characterized in that the nitroglycerin is administered at least once a day and at least on one day a week for at least two weeks.
Nasal formulation comprising recombinant human erythropoietin, wherein less than 40% of the erythropoietin molecule is protected with sialic acid and the concentration of the active protein is in the range of about 0.5 and 2.0 mg/ml.
Fluid energy machine with a working fluid, an evaporator, in which the working fluid can be converted from its liquid stated to its gaseous state by feeding heat, an essentially adiabatic expansion vessel, at least one piston engine (84, 85) with a piston (14, 15), wherein energy of the working fluid can be transformed in mechanical energy by the piston engine (84, 85), wherein the piston engine (84, 85) comprises at least one cylinder space (37, 39) that is confined by the piston (14, 15), wherein the cylinder space (37, 39) is in operation of the fluid energy machine alternately fluid-conductively connected with the evaporator, whereby the cylinder space (37, 39) is enlarged by displacing the piston (14, 15), and with the expansion vessel, whereby the cylinder space (37, 39) is made smaller by displacing the piston (14, 15), wherein the fluid energy machine has a storage vessel that is fluid-conductively connected with the evaporator and with the expansion vessel, wherein the fluid energy machine has a conveying device that is adapted to convey the working fluid from the expansion vessel to the storage vessel in the gaseous state of the working fluid as well as in the liquid state of the working fluid, wherein the volume available in the expansion vessel for the working fluid is at least 7 times as large as the maximum volume of the first cylinder space (37, 39), so that the working fluid can be condensed by the expansion of the gaseous working fluid in the expansion vessel, and the working fluid exists in the storage vessel in the gaseous as well as in the liquid state of the working fluid, so that the working fluid can be condensed in the storage vessel in the case that the working fluid does not condense in the expansion vessel and so that the working fluid can be conveyed in its liquid state to the evaporator.
A polyester monofilament containing a) 60 to 85 wt.-% of a polyethylene terephathalate modified with dicarboxylic acid, b) 14.4 to 30 wt.-% of a thermoplastic elastomeric block copolymer, c) 0.05 to 10 wt.-% of a polycarbonate, and d) 0.1 to 10 wt.-% of a carbodiimide stabilizer, wherein the quantities are based on the total amount of the monofilament. a) 60 to 85 wt.-% of a polyethylene terephathalate modified with dicarboxylic acid, b) 14.4 to 30 wt.-% of a thermoplastic elastomeric block copolymer, c) 0.05 to 10 wt.-% of a polycarbonate, and d) 0.1 to 10 wt.-% of a carbodiimide stabilizer, wherein the quantities are based on the total amount of the monofilament.
Method which comprises: - controlling an illumination module of an optical device and with a plurality of light sources for illuminating an object from a plurality of measurement illumination directions, - controlling a detector of the optical device for capturing measurement images (501, 502) of the object, wherein the measurement images (501, 502) are assigned to the measurement illumination directions, - for each measurement image (501, 502): controlling the illumination module to illuminate the object from at least one associated reference illumination direction (411-413, 421-423, 431-433), wherein the reference illumination direction is different from the measurement illumination direction, - for each reference illumination direction (411-413, 421-423, 431-433): controlling the detector to capture a reference image of the object, - for each measurement image (501, 502): carrying out artefact reduction, which reduces an artefact in the respective measurement image (501, 502) because of an impurity arranged out of focus, - when carrying out the artefact reduction, for each measurement image (501, 502): combining the respective measurement image (501, 502) with the at least one associated reference image to obtain at least one corrected image (563, 563-1, 563-2, 564, 564-1, 564-2, 565-1, 565-2, 566, 567), which is indicative of the artefact, - after the artefact reductions have been carried out for all the measurement images (501, 502): combining the measurement images (501, 502) to obtain a resultant image. - controlling an illumination module of an optical device and with a plurality of light sources for illuminating an object from a plurality of measurement illumination directions, - controlling a detector of the optical device for capturing measurement images (501, 502) of the object, wherein the measurement images (501, 502) are assigned to the measurement illumination directions, - for each measurement image (501, 502): controlling the illumination module to illuminate the object from at least one associated reference illumination direction (411-413, 421-423, 431-433), wherein the reference illumination direction is different from the measurement illumination direction, - for each reference illumination direction (411-413, 421-423, 431-433): controlling the detector to capture a reference image of the object, - for each measurement image (501, 502): carrying out artefact reduction, which reduces an artefact in the respective measurement image (501, 502) because of an impurity arranged out of focus, - when carrying out the artefact reduction, for each measurement image (501, 502): combining the respective measurement image (501, 502) with the at least one associated reference image to obtain at least one corrected image (563, 563-1, 563-2, 564, 564-1, 564-2, 565-1, 565-2, 566, 567), which is indicative of the artefact, - after the artefact reductions have been carried out for all the measurement images (501, 502): combining the measurement images (501, 502) to obtain a resultant image.
An angle-sensitive pixel ASP device, comprising: a substrate (310, 410, 510); a phase grating having a period, p 1, disposed in the substrate (310, 410, 510), wherein the phase grating has a periodic variation of refractive index in a direction transverse to an incident light field and forms, by passing the incident light field therethrough, a periodic intensity pattern in a Talbot plane below the phase grating, as well as periodic intensity patterns with higher periodicity than the phase grating at depths above and below a 1⁄2 Talbot depth; an amplitude transmission analyzer grating having a period, p 2, placed at the depth of said Talbot pattern with higher periodicity than the phase grating ' this depth being a 1⁄4 Talbot depth; and a sensor disposed at a selected distance below the analyzer grating, characterized in that the pitch of the phase grating is twice the pitch of the analyzer grating. a substrate (310, 410, 510); a phase grating having a period, p 1, disposed in the substrate (310, 410, 510), wherein the phase grating has a periodic variation of refractive index in a direction transverse to an incident light field and forms, by passing the incident light field therethrough, a periodic intensity pattern in a Talbot plane below the phase grating, as well as periodic intensity patterns with higher periodicity than the phase grating at depths above and below a 1⁄2 Talbot depth; an amplitude transmission analyzer grating having a period, p 2, placed at the depth of said Talbot pattern with higher periodicity than the phase grating ' this depth being a 1⁄4 Talbot depth; and a sensor disposed at a selected distance below the analyzer grating, characterized in that the pitch of the phase grating is twice the pitch of the analyzer grating.
A multiple rotary knife for longitudinal splitting of webs, comprising a generally cylindrical annular body (1; 12) bearing a plurality of circumferential blades (5a, 5b, 5c; 5d) spaced apart, characterized in that said circumferential blades are formed by continuous hard-metal rings (5a, 5b, 5c; 5d) mechanically fixed axially to said annular body (1; 12).
A mobile generator device (1, 100) having at least one alignable solar panel (2a, 2b, 102), wherein the solar panel (2a, 2b, 102) can be moved into a transport position and into at least one operating position, wherein the generator device (1, 100) has a housing shell (3a, 103) with a peripheral area (4, 104), wherein the solar panel (2a, 102) is articulated to the housing shell (3a, 103) so that the solar panel (2a, 102) in the transport position is within the housing shell (3a, 103) and does not project over the peripheral area (4, 104) wherein the generator device has a further housing shell with a peripheral area, wherein the further housing shell is connected to the other housing shell by an articulated housing connection so that the peripheral area of the further housing shell can be contacted with the peripheral area of the other housing shell characterized in that the further housing shell has at least one alignable solar panel, wherein the solar panel is articulated to the further housing shell so that the solar panel in the transport position is within the further housing shell and does not project over the peripheral area.
A method of forwarding a packet by a wireless relay node in a mesh network, said method comprising: receiving (401, 501) said packet at said relay node, wherein said packet identifies an edge node being a source that generated said packet, and a destination node and comprises an indication; responsive to a determination (402, 502) that said indication indicates a propagation mode of said packet in said mesh network by flooding or propagation mode unspecified, and responsive to a determination (404, 507) that a valid route from said edge node to said destination node exists: modifying (407, 508) said indication in said packet to indicate a propagation mode of said packet to said destination node by routing; and forwarding (406, 505) said packet from said relay node to a next node by routing-relaying and in accordance with said valid route; and responsive to a determination (402, 502) that said indication indicates a propagation mode of said packet to said destination node by routing through a valid route from said edge node to said destination node, and responsive to a determination (403, 503) that said relay node is not encompassed in said valid route, discarding (405, 504) said packet at said relay node. receiving (401, 501) said packet at said relay node, wherein said packet identifies an edge node being a source that generated said packet, and a destination node and comprises an indication; responsive to a determination (402, 502) that said indication indicates a propagation mode of said packet in said mesh network by flooding or propagation mode unspecified, and responsive to a determination (404, 507) that a valid route from said edge node to said destination node exists: modifying (407, 508) said indication in said packet to indicate a propagation mode of said packet to said destination node by routing; and forwarding (406, 505) said packet from said relay node to a next node by routing-relaying and in accordance with said valid route; and modifying (407, 508) said indication in said packet to indicate a propagation mode of said packet to said destination node by routing; and forwarding (406, 505) said packet from said relay node to a next node by routing-relaying and in accordance with said valid route; and responsive to a determination (402, 502) that said indication indicates a propagation mode of said packet to said destination node by routing through a valid route from said edge node to said destination node, and responsive to a determination (403, 503) that said relay node is not encompassed in said valid route, discarding (405, 504) said packet at said relay node.
A device for generating pulsatile flow or intermittent flow to be attached to a liquid or gas providing apparatus, comprising; an injection mechanism for injecting liquid flow or gas flow; an air cavity provided below the injection mechanism, which includes an airtight space, an air intake ventilation hole provided at the side wall of the air cavity connecting to the outer air and a draining portion through which a draining flow of the liquid flow or gas flow flows from the air cavity; wherein the following conditions are satisfied: (i) the injection direction of the injection mechanism is adjusted such that the injected flow in the air cavity covers the air intake ventilation hole with the hit portion of the injected flow or the reflection of the injected flow after hitting the side wall of the air cavity, the opening of the air intake ventilation hole being blocked by the injected flow; (ii) a part of the inner air of the air cavity is involved by the flow in the air cavity and flows out with the flow from the air cavity; and (iii) the ventilation to the airtight space of the air cavity is only via the air ventilation hole. (i) the injection direction of the injection mechanism is adjusted such that the injected flow in the air cavity covers the air intake ventilation hole with the hit portion of the injected flow or the reflection of the injected flow after hitting the side wall of the air cavity, the opening of the air intake ventilation hole being blocked by the injected flow; (ii) a part of the inner air of the air cavity is involved by the flow in the air cavity and flows out with the flow from the air cavity; and (iii) the ventilation to the airtight space of the air cavity is only via the air ventilation hole.
Method for teaching parameters - for a door sensor - for monitoring a monitoring field (70, 71, 72) in front of the door leaf of a door - for installation on the door leaf of a swing or revolving door, the method comprising the following method steps: - using an at least 2-axis rotation angle encoder having at least 1-axis inclination in relation to the door leaf, - opening the door leaf of the closed door, - detecting the rotation of the two axes of the rotation angle encoder during opening, - ascertaining the direction of rotation of the two axes on the basis of the rotation thereof, - ascertaining the side of the door (inside of the door or outside of the door) on which the door sensor is installed on the door leaf on the basis of the direction of rotation of the two axes, - storing the side of the door (inside or outside) in a memory, in particular a memory of the door sensor, with the result that the door sensor need be neither preconfigured, nor configured during installation, for its installation situation in regard to distinguishing the side of the door that is used. - for a door sensor - for monitoring a monitoring field (70, 71, 72) in front of the door leaf of a door - for installation on the door leaf of a swing or revolving door, - for monitoring a monitoring field (70, 71, 72) in front of the door leaf of a door - for installation on the door leaf of a swing or revolving door, - using an at least 2-axis rotation angle encoder having at least 1-axis inclination in relation to the door leaf, - opening the door leaf of the closed door, - detecting the rotation of the two axes of the rotation angle encoder during opening, - ascertaining the direction of rotation of the two axes on the basis of the rotation thereof, - ascertaining the side of the door (inside of the door or outside of the door) on which the door sensor is installed on the door leaf on the basis of the direction of rotation of the two axes, - storing the side of the door (inside or outside) in a memory, in particular a memory of the door sensor, with the result that the door sensor need be neither preconfigured, nor configured during installation, for its installation situation in regard to distinguishing the side of the door that is used.
A method of identifying a component (18, 20) of a system, the method including providing the component (18, 20) with an RFID tag, and providing the system with a reader to read a signal transmitted by the RFID tag, rotating the component to vary an angular position of the component (18, 20) relative to the reader, taking readings of the strength of the signal at a plurality of angular positions of the component (18, 20), storing signal strength values at the plurality of angular positions of the component (18, 20), and comparing a pattern of the stored signal strength values versus angular position of the component (18, 20) relative to the reader with an expected pattern of signal strength values versus angular position of the component (18, 20) relative to the reader to identify whether the component (18, 20) is an expected component.