mhurhangee/ep-ind-claims huggingface dataset:
An OLED lighting module (100, 110, 120, 150, 170) comprising: a support (2, 20); one or more OLED lighting panel(s) (3, 30, 300) on the support (2, 20), wherein each OLED panel (3, 30, 300) has an emissive side with emissive and non-emissive areas and an opposite side, and comprises an OLED substrate, an encapsulated OLED light-generating unit on the OLED substrate and a circuit board containing flat electrical connectors (141, 142) for external electrical connections, the circuit board being located between the OLED light-generating unit and the support (2, 20); an opaque liner on the emissive side of the OLED panel (3, 30, 300), the opaque liner having two sections: a first section that covers at least part of the non-emissive areas over the OLED substrate and a second section that extends past the edges of the OLED substrate and where the two first and second sections of the opaque liner cover areas with different heights; and an opaque bezel in contact with the support (2, 20), the opaque bezel covering at least part of the second section of the opaque liner but not the first section of the opaque liner, characterised in that the OLED panel (3, 30, 300) is retained to the support (2, 20) by the bezel. a support (2, 20); one or more OLED lighting panel(s) (3, 30, 300) on the support (2, 20), wherein each OLED panel (3, 30, 300) has an emissive side with emissive and non-emissive areas and an opposite side, and comprises an OLED substrate, an encapsulated OLED light-generating unit on the OLED substrate and a circuit board containing flat electrical connectors (141, 142) for external electrical connections, the circuit board being located between the OLED light-generating unit and the support (2, 20); an opaque liner on the emissive side of the OLED panel (3, 30, 300), the opaque liner having two sections: a first section that covers at least part of the non-emissive areas over the OLED substrate and a second section that extends past the edges of the OLED substrate and where the two first and second sections of the opaque liner cover areas with different heights; and an opaque bezel in contact with the support (2, 20), the opaque bezel covering at least part of the second section of the opaque liner but not the first section of the opaque liner, characterised in that the OLED panel (3, 30, 300) is retained to the support (2, 20) by the bezel.
Use of a floor screed composition for the manufacture of a floor screed, said composition containing a hydraulic binder which is calcium sulfate and a thermally-conductive additive selected from the group consisting of SiC, B 4 C, Al 2 O 3 and combinations thereof and wherein the amount of the thermally-conductive additive is at least 0.4% by weight and less than 12% by weight, the weight percentage being based on the weight of said hydraulic binder.
An oral airway device, wherein the oral airway device comprises a curved tubal body created by a wall which encircles an endotracheal tube lumen configured for positioning an endotracheal tube, wherein the ETT lumen is a central ventilation lumen and has a distal opening and a proximal opening, wherein the wall has a distal end and a proximal end and wherein the wall has a dorsal surface and a ventral surface, and wherein the wall further comprises two or more hollow channels (718 and 720) in the wall which are peripheral passages in the wall and run for at least a portion of the wall along the wall distal/proximal axis (702A/702B), and each of the channels (718 and 720) has a distal opening (718A or 720A) which is an outlet from the wall and a proximal opening (718B or 720B) which is an inlet in the wall; and wherein one of the hollow channels (718 and 720) is a gastric channel, the gastric channel having a proximal opening located at the proximal end of the wall and a distal opening which opens on the dorsal surface of the wall. wherein the wall has a distal end and a proximal end and wherein the wall has a dorsal surface and a ventral surface, and wherein the wall further comprises two or more hollow channels (718 and 720) in the wall which are peripheral passages in the wall and run for at least a portion of the wall along the wall distal/proximal axis (702A/702B), and each of the channels (718 and 720) has a distal opening (718A or 720A) which is an outlet from the wall and a proximal opening (718B or 720B) which is an inlet in the wall; and wherein one of the hollow channels (718 and 720) is a gastric channel, the gastric channel having a proximal opening located at the proximal end of the wall and a distal opening which opens on the dorsal surface of the wall.
A camera module comprising: a 3D modelling device for obtaining respective distances to a plurality of adjacent parts of a surface of a body; a camera arrangement for acquiring images of the parts of the surface, wherein the camera arrangement comprises at least one camera (306; 310) comprising: a camera sensor (604; 610) for producing said images, a focusing lens (602; 608) for focusing light reflected on the surface of the body onto the camera sensor, and a movable mirror (600; 606) for sequentially directing light from each of said parts of the surface into the focusing lens; and a housing enclosing both the 3D modelling device and the camera arrangement; wherein the focusing lens is adapted to automatically set the focus of the camera during the moving of the mirror based on the obtained distances, and wherein the camera module is mounted on a frame for being in a fixed spatial relationship to the body. a 3D modelling device for obtaining respective distances to a plurality of adjacent parts of a surface of a body; a camera arrangement for acquiring images of the parts of the surface, wherein the camera arrangement comprises at least one camera (306; 310) comprising: a camera sensor (604; 610) for producing said images, a focusing lens (602; 608) for focusing light reflected on the surface of the body onto the camera sensor, and a movable mirror (600; 606) for sequentially directing light from each of said parts of the surface into the focusing lens; and a camera sensor (604; 610) for producing said images, a focusing lens (602; 608) for focusing light reflected on the surface of the body onto the camera sensor, and a movable mirror (600; 606) for sequentially directing light from each of said parts of the surface into the focusing lens; and a housing enclosing both the 3D modelling device and the camera arrangement; wherein the focusing lens is adapted to automatically set the focus of the camera during the moving of the mirror based on the obtained distances, and wherein the camera module is mounted on a frame for being in a fixed spatial relationship to the body.
A hybrid vehicle comprising: a first power source (BA, BB1, BB2, MG2), a second power source, each configured to allow driving of said hybrid vehicle, and a control device; characterized by a control line, a first node having a first voltage, a second node having a second voltage, a switch for setting a voltage level of said control line at a first level corresponding to said first voltage by electrically coupling said control line with said first node when manual operation is not executed, and setting said voltage level of said control line at a second level corresponding to said second voltage by electrically coupling said control line with said second node during a period of time over which said manual operation is executed, wherein said control device configured to switch a running mode of said hybrid vehicle between a first mode (CD MODE) in which said first power source (BA,BB1,BB2) is used having higher priority for a running of said hybrid vehicle than said second power source, and a second mode (CS MODE) in which said second power source is used having higher priority for the running of said hybrid vehicle than said first power source (BA,BB1,BB2), based on a change from said first level to said second level that is a first change in said voltage level of said control line, and a change from said second level to said first level that is a second change in said voltage level of said control line, said control device being configured to switch said running mode between said first mode and said second mode when both said first change and said second change are detected. a first power source (BA, BB1, BB2, MG2), a second power source, each configured to allow driving of said hybrid vehicle, and a control device; characterized by a control line, a first node having a first voltage, a second node having a second voltage, a switch for setting a voltage level of said control line at a first level corresponding to said first voltage by electrically coupling said control line with said first node when manual operation is not executed, and setting said voltage level of said control line at a second level corresponding to said second voltage by electrically coupling said control line with said second node during a period of time over which said manual operation is executed, wherein said control device configured to switch a running mode of said hybrid vehicle between a first mode (CD MODE) in which said first power source (BA,BB1,BB2) is used having higher priority for a running of said hybrid vehicle than said second power source, and a second mode (CS MODE) in which said second power source is used having higher priority for the running of said hybrid vehicle than said first power source (BA,BB1,BB2), based on a change from said first level to said second level that is a first change in said voltage level of said control line, and a change from said second level to said first level that is a second change in said voltage level of said control line, said control device being configured to switch said running mode between said first mode and said second mode when both said first change and said second change are detected.
A method for supplying power from a contactless inductive power supply to at least one remote remote device, said method comprising: providing power with a power source, the power supply having a rail voltage; providing a resonant circuit having a variable resonant frequency, the resonant circuit including a primary winding configured to transfer power to the at least once remote device; supplying power from the power source to the resonant circuit using an inverter, the inverter having an operating frequency and a duty cycle; receiving, in a transceiver located in the inductive power supply, a remote device ID from said at least one remote device and power requirement information from said at least one remote device; maintaining using a controller an active remote device list including ID and power requirement information, wherein maintaining said active remote device list includes updating said active remote device list in response to at least one of a change in status of said remote device and a change in presence of said remote device; determining inductive power supply settings of rail voltage, resonant frequency or duty cycle in response to determining that said inductive power supply can be configured to power all remote devices on said active remote device list using said power requirement information; and configuring said inductive power supply and said resonant circuit to supply power to all remote devices on said active remote device list based on said inductive power supply settings. providing power with a power source, the power supply having a rail voltage; providing a resonant circuit having a variable resonant frequency, the resonant circuit including a primary winding configured to transfer power to the at least once remote device; supplying power from the power source to the resonant circuit using an inverter, the inverter having an operating frequency and a duty cycle; receiving, in a transceiver located in the inductive power supply, a remote device ID from said at least one remote device and power requirement information from said at least one remote device; maintaining using a controller an active remote device list including ID and power requirement information, wherein maintaining said active remote device list includes updating said active remote device list in response to at least one of a change in status of said remote device and a change in presence of said remote device; determining inductive power supply settings of rail voltage, resonant frequency or duty cycle in response to determining that said inductive power supply can be configured to power all remote devices on said active remote device list using said power requirement information; and configuring said inductive power supply and said resonant circuit to supply power to all remote devices on said active remote device list based on said inductive power supply settings.
Laser pulse generator with stable pulse shape of laser pulses, containing a mono pulse high voltage generator having a voltage source, an inductive component and a switch, a pulse current generator having a first diode (D 1), a pumping capacitor, a second diode (D 2), an avalanche transistor (T aval) and a laser diode, wherein, when the switch is open, the first diode (D 1), the pumping capacitor and the second diode (D 2) form a second charging circuit and, when the avalanche transistor (T aval) is switched, the pumping capacitor forms a discharge circuit with the avalanche transistor (T aval) and the laser diode, a pulse width generator which provides control pulses (P s) to the switch with a pulse frequency (f s) and a control pulse width (b s) determining a closing time of the switch and thus a charging time (t L) of the inductive component, and a delay generator switching the avalanche transistor (T aval) after a delay time (t v), characterized in that a temperature sensor is present which detects the temperature of the avalanche transistor (T aval) and the temperature sensor is connected to the pulse width generator which is configured in such a way that it generates the control pulse width (b s) depending on a temperature signal (P temp) respectively provided by the temperature sensor, which control pulse width (b s) is required for the charging time (t L) of the inductive component to a charging voltage (U L) in each instance in order to compensate changes in the pulse shape of the laser pulses.
Sanitary bag for receiving at least one part of the body, in particular the penis, which sanitary bag is composed at least of a blank with two portions (A, B) which each have the shape of a quadrilateral, wherein the blank is made of a material impermeable to liquids, an absorbent insert is arranged on the inside of the blank and a further blank made of a material permeable to liquids is arranged on the inside over the absorbent insert, wherein the blanks (2, 10) are folded along a fold line, and the connecting edges (5, 6 and 7a, 7b) superposed after folding the blanks (2, 10) along the fold line are connected to each other in a watertight manner, wherein the two portions A and B have the same length from the fold line to their edge (5, 6) facing away from the fold line, wherein the averted connecting edge (5, 6) is spaced apart from the opening edge of an opening and the opening is formed by the opening edge and by a portion adjoining the latter, characterized in that the averted connecting edge (5, 6) runs parallel to the fold line.
A composite part for a vehicle, the composite part comprising: - a composite skin comprising one or more material layers, - a composite load-bearing structure which is coupled to the composite skin and which comprises a three-dimensional textile preform, and - a cured polymer matrix at least partially surrounding the one or more material layers of the composite skin and the three-dimensional textile preform, wherein the three-dimensional textile preform comprises: a flange portion adjacent to the one or more material layers; and a stiffener portion extending upwardly from the flange portion, the stiffener portion comprising: a first wall portion that extends from the flange portion, a second wall portion that extends from the flange portion at a location spaced from the first wall portion, and a connecting portion that connects the first wall portion and the second wall portion at a location spaced from the flange portion, wherein the stiffener portion further comprises a web portion extending from the connecting portion. - a composite skin comprising one or more material layers, - a composite load-bearing structure which is coupled to the composite skin and which comprises a three-dimensional textile preform, and - a cured polymer matrix at least partially surrounding the one or more material layers of the composite skin and the three-dimensional textile preform, a flange portion adjacent to the one or more material layers; and a stiffener portion extending upwardly from the flange portion, the stiffener portion comprising: a first wall portion that extends from the flange portion, a second wall portion that extends from the flange portion at a location spaced from the first wall portion, and a connecting portion that connects the first wall portion and the second wall portion at a location spaced from the flange portion, a first wall portion that extends from the flange portion, a second wall portion that extends from the flange portion at a location spaced from the first wall portion, and a connecting portion that connects the first wall portion and the second wall portion at a location spaced from the flange portion, wherein the stiffener portion further comprises a web portion extending from the connecting portion.
An optical tracking system comprising: at least one marker unit adapted to be attached on a target, and configured to emit a parallel light to form an enlarged image of a pattern portion which is included inside the marker unit; at least one image forming unit configured to receive the parallel light of the pattern portion emitted from the marker unit and form the enlarged image of the pattern portion; and a processor configured to calculate a spatial position and a direction of the marker unit by using the enlarged image of the pattern portion formed on the image forming unit. at least one marker unit adapted to be attached on a target, and configured to emit a parallel light to form an enlarged image of a pattern portion which is included inside the marker unit; at least one image forming unit configured to receive the parallel light of the pattern portion emitted from the marker unit and form the enlarged image of the pattern portion; and a processor configured to calculate a spatial position and a direction of the marker unit by using the enlarged image of the pattern portion formed on the image forming unit.
An isolated or synthetic peptide consisting of 5-30 amino acids for use in treatment of human inflammatory disease having been provided with at least one peptide motif capable of modulating binding of human C-peptide to a human elastin receptor, wherein the peptide has at least one human elastin receptor binding motif GxxPG and has at least one amino acid Q, wherein G represents the one-letter code for the amino acid glycine, P for the amino acid proline, Q for the amino acid glutamine and x for any amino acid.
A method comprising: sensing a differential signal along a distillation flow path; filtering the differential pressure signal as a function of frequency to produce a filtered differential pressure signal emphasising high-frequency components in the differential pressure signal and suppressing low-frequency components in the differential frequency signal, wherein the filtered differential pressure signal is responsive to a phase inversion along the flow path; generating a flooding indicator as a function of the filtered differential pressure signal, wherein the flooding indicator is based on a standard deviation of the filtered differential pressure signal and is indicative of a flooding condition, said flooding condition based on the phase; and indicating the onset of the flooding condition, based on a change in the flooding indicator; wherein generating the flooding indicator comprises generating the flooding indicator such that the flooding indicator is responsive to the flooding condition based on bubble formation and collapse along the flow path; and wherein sensing the differential pressure signal comprises sensing the differential pressure signal such that a Nyquist frequency is above a frequency of the bubble formation and collapse along the distillation flow path. sensing a differential signal along a distillation flow path; filtering the differential pressure signal as a function of frequency to produce a filtered differential pressure signal emphasising high-frequency components in the differential pressure signal and suppressing low-frequency components in the differential frequency signal, wherein the filtered differential pressure signal is responsive to a phase inversion along the flow path; generating a flooding indicator as a function of the filtered differential pressure signal, wherein the flooding indicator is based on a standard deviation of the filtered differential pressure signal and is indicative of a flooding condition, said flooding condition based on the phase; and indicating the onset of the flooding condition, based on a change in the flooding indicator; wherein generating the flooding indicator comprises generating the flooding indicator such that the flooding indicator is responsive to the flooding condition based on bubble formation and collapse along the flow path; and wherein sensing the differential pressure signal comprises sensing the differential pressure signal such that a Nyquist frequency is above a frequency of the bubble formation and collapse along the distillation flow path.
A system for control of a wind turbine comprising a Laser Doppler Anemometer arranged at a rotor blade to measure air flow in the region of the leading edge of the blade, and a processor for determining therefrom a control signal for controlling the wind turbine, characterised in that a window is provided on the blade surface and the Laser Doppler Anemometer is provided inside the blade, the Laser Doppler Anemometer being arranged to emit a laser beam through the window.
A composition for a non-aqueous patch preparation comprising a drug solution in which a drug is dissolved in an organic solvent; a lipophilic mass base; and a powder, wherein the amount of the powder is in the range of 0.1 to 0.4 times the amount of the drug solution and wherein the powder is insoluble both in the drug solution in the organic solvent and in the lipophilic mass base.
A chamber doctor blade, particularly for printing machines, comprising an internal portion covered by an external shell made of a composite material, wherein the internal portion is made of carbon foam.
Fermenter for generating biogas by anaerobic fermentation, having at least one fermentation chamber and having at least one feed device, wherein the feed device is designed for introducing material to be fermented into the fermentation chamber, characterized in that a) at least one steam injector is provided for introducing steam; b) the steam injector is arranged below the feed device, and the steam injector is directed at the solid material to be fermented which is exiting the feed device and being introduced into the fermentation chamber, with the result that the material to be fermented and the steam mix in the spatial proximity of the feed device. a) at least one steam injector is provided for introducing steam; b) the steam injector is arranged below the feed device, and the steam injector is directed at the solid material to be fermented which is exiting the feed device and being introduced into the fermentation chamber, with the result that the material to be fermented and the steam mix in the spatial proximity of the feed device.