mhurhangee/ep-ind-claims huggingface dataset:
A stack for an electronic device, the stack comprising: a transparent cover substrate; at least one white ink layer including white pigments disposed over at least one portion of the transparent cover substrate; a non-conductive mirror structure disposed over the at least one white ink layer, wherein the non-conductive mirror structure comprises a light reflection stack comprising a plurality of first dielectric layers having a first refractive index interleaved with second dielectric layers having a second refractive index, wherein the first refractive index is different from the second refractive index and wherein, the non-conductive mirror structure is configured to reflect light back to the at least one white ink layer; and a capacitive sensor, wherein the non-conductive mirror structure is positioned between the capacitive sensor and the at least one white ink layer. a transparent cover substrate; at least one white ink layer including white pigments disposed over at least one portion of the transparent cover substrate; a non-conductive mirror structure disposed over the at least one white ink layer, wherein the non-conductive mirror structure comprises a light reflection stack comprising a plurality of first dielectric layers having a first refractive index interleaved with second dielectric layers having a second refractive index, wherein the first refractive index is different from the second refractive index and wherein, the non-conductive mirror structure is configured to reflect light back to the at least one white ink layer; and a capacitive sensor, wherein the non-conductive mirror structure is positioned between the capacitive sensor and the at least one white ink layer.
A self-adhesive, vapor permeable air and moisture barrier membrane, comprising: a substrate having a major surface extending in a longitudinal direction between a first longitudinal edge and a second longitudinal edge, and in a cross direction between the edges; a first coating, which forms a first layer of a first adhesive material, that is continuous in the longitudinal direction and discontinuous in the cross direction, disposed on the major surface in a first pattern that varies relative to the longitudinal edges; and a second coating, which forms a second layer of a second adhesive material, that is continuous in the longitudinal direction and discontinuous in the cross direction, disposed on the substrate in a second pattern (70' or 72), wherein the second pattern contacts the first pattern, wherein either the second pattern is parallel to the longitudinal edges, or the second pattern varies relative to the longitudinal edges, and wherein a plurality of coating-free zones is formed on the substrate, wherein each coating-free zone is completely surrounded by both the first and the second coatings. a substrate having a major surface extending in a longitudinal direction between a first longitudinal edge and a second longitudinal edge, and in a cross direction between the edges; a first coating, which forms a first layer of a first adhesive material, that is continuous in the longitudinal direction and discontinuous in the cross direction, disposed on the major surface in a first pattern that varies relative to the longitudinal edges; and a second coating, which forms a second layer of a second adhesive material, that is continuous in the longitudinal direction and discontinuous in the cross direction, disposed on the substrate in a second pattern (70' or 72), wherein the second pattern contacts the first pattern, wherein either the second pattern is parallel to the longitudinal edges, or the second pattern varies relative to the longitudinal edges, and wherein a plurality of coating-free zones is formed on the substrate, wherein each coating-free zone is completely surrounded by both the first and the second coatings.
A method of determining an amount of light output from a solid state lighting unit (210, 310) comprising an SSL load (220, 320) based on a dimmer setting, the method comprising: determining the dimmer setting of a dimmer during a readout mode by analyzing a power signal received from the dimmer at input terminals (202, 302) of the SSL unit; determining a desired level of light to be output from the SSL unit corresponding to the determined dimmer setting; characterized in that, determining power needed at the input terminals of the SSL unit for the SSL load to output the desired level of output light; and determining a value of an adjusting signal for adjusting the power at the input terminals of the SSL unit during a power reception mode, based at least in part on the determined dimmer setting, causing the SSL unit to output the desired level of light. determining the dimmer setting of a dimmer during a readout mode by analyzing a power signal received from the dimmer at input terminals (202, 302) of the SSL unit; determining a desired level of light to be output from the SSL unit corresponding to the determined dimmer setting; characterized in that, determining power needed at the input terminals of the SSL unit for the SSL load to output the desired level of output light; and determining a value of an adjusting signal for adjusting the power at the input terminals of the SSL unit during a power reception mode, based at least in part on the determined dimmer setting, causing the SSL unit to output the desired level of light.
A device implantable or insertable into human or animal body comprising a body structure having one or more surfaces wherein at least one of the surfaces comprises at least one pH sensitive layer comprising a linear pH sensitive polymer, wherein the water solubility of the pH sensitive layer is higher at a second trigger pH than at a first physiological pH of 6.2, and wherein the linear pH sensitive polymer undergoes dissolution or erosion in an aqueous environment at the second trigger pH, characterised in that the pH sensitive layer incorporates buffer groups to reduce the rate of dissolution or erosion.
An unfolding bridge having reactive power capability with - a half-bridge with a first input terminal, a second input terminal, and an output terminal, comprising a first bridge switch connected between the first input terminal and the output terminal and a second bridge switch connected between the second input terminal and the output terminal, and with - a further half-bridge comprising a first further bridge switch connected between the first input terminal and a further output terminal and a second further bridge switch connected between the second input terminal and the further output terminal, - a switch controller for operation of the bridge switches (S1, S2, S5, S6) configured to reverse a connection of the output terminals (4, 10) with the input terminals (2, 3) via the bridge switches (S1, S2, S5, S6) at a zero crossing of an alternating current (I AC) flowing at the output terminals (4, 10), characterized in that in a current path between the input terminals (2, 3) via the first bridge switch, the output terminals (4, 10), and the second further bridge switch, and in a current path between the input terminals (2, 3), via the first further bridge switch, the output terminals (4, 10), and the second bridge switch, at least one reverse voltage compensator is arranged configured to selectively shift in periods of time where the arithmetic sign of the alternating current and an alternating voltage between the output terminals differ the electrical potential of the respective input terminal (2, 3) with respect to the respective output terminal (4, 10) between which the reverse voltage compensator is arranged by a compensation voltage (U k) that is dropped across the reverse voltage compensator, and thereby compensates for a reverse voltage being opposite to the flow of current in the current path in which the reverse voltage compensator is arranged. - a half-bridge with a first input terminal, a second input terminal, and an output terminal, comprising a first bridge switch connected between the first input terminal and the output terminal and a second bridge switch connected between the second input terminal and the output terminal, and with - a further half-bridge comprising a first further bridge switch connected between the first input terminal and a further output terminal and a second further bridge switch connected between the second input terminal and the further output terminal, - a switch controller for operation of the bridge switches (S1, S2, S5, S6) configured to reverse a connection of the output terminals (4, 10) with the input terminals (2, 3) via the bridge switches (S1, S2, S5, S6) at a zero crossing of an alternating current (I AC) flowing at the output terminals (4, 10),
A bicycle container (10; 10a-10h) comprising a main body for containing objects and an engagement member provided on the main body, the engagement member being configured to engage with a pedal of a bicycle to enable the bicycle container (10, 10a-10h) to be detachably coupled to the pedal to hold the bicycle in an upright position, characterised in that the engagement member comprises a hook structure and a depression formed adjacent to the hook structure, the hook structure is provided on a side wall of the main body, the depression is concave towards the inside of the main body, and one end of the pedal engages with the hook structure and stays in the depression to allow the bicycle container (10, 10a-10h) to be detachably coupled to the pedal.
Method of descaling a metallic surface (2, 3) of a metallic semi-finished product (4, 9), in which the metallic semi-finished product (4, 9) is led in transport direction past nozzle head parts arranged adjacent to one another transversely to this transport direction and rotating about axes of rotation and in which fluid jets directed onto the metallic surface (2, 3) and standing under high pressure are generated by means of nozzle elements (22, 23, 24, 25) arranged at these rotating nozzle head parts, which fluid jets are also directed onto the metallic surface (2, 3) at a narrow point between two directly adjacent nozzle head parts, characterised in that the nozzle head parts rotate synchronously relative to one another at such a preset angular position (31, 32) with respect to an angle of rotation of the respective axis of rotation of the nozzle head parts that the fluid jets generated by means of the nozzle elements (22, 23, 24, 25) are always directed onto the metallic surface (2, 3) contactlessly past one another.
A compound capable of reducing or inhibiting (a) the biological activity of glycerol-3-phosphate dehydrogenase or (b) the expression of the gene encoding GPD2 for use in a method of treating a neoplasm, an autoimmune disease or a Graft-versus-Host-Disease (GvHD) by inhibiting NF-κB induction, wherein said compound is - an antisense oligonucleotide or siRNA reducing or inhibiting the expression of the gene encoding GPD2, - an antibody directed against GPD2 or a fragment thereof having the same specificity, - an inactive version of GPD2, or - a polynucleic acid encoding an inactive version of GPD2. - an antisense oligonucleotide or siRNA reducing or inhibiting the expression of the gene encoding GPD2, - an antibody directed against GPD2 or a fragment thereof having the same specificity, - an inactive version of GPD2, or - a polynucleic acid encoding an inactive version of GPD2.
Joint in the form of a counter track joint, comprising a joint outer part with first outer ball tracks and second outer ball tracks; a joint inner part with first inner ball tracks and second inner ball tracks; wherein first outer ball tracks form first track pairs with first inner ball tracks, and wherein second outer ball tracks form second track pairs with second inner ball tracks; torque-transmitting balls which are guided in the first track pairs and second track pairs; and a ball cage with cage windows distributed around the circumference; wherein first aperture angles are respectively formed between tangents to contact points of a ball with the first outer ball track and with the first inner ball track, and second aperture angles are respectively formed between tangents to contact points between a ball with the second outer ball track and with the second inner ball track, wherein the first aperture angles of the first track pairs open towards a first side of the joint, and the second aperture angles of the second track pairs open towards a second side of the joint, wherein, on the one hand, outer axial play is provided between the joint outer part and the ball cage, and, on the other hand, inner axial play is provided between the ball cage and the joint inner part, said axial play permitting relative axial displacement of the joint inner part with respect to the joint outer part, characterised in that a range of the axial displacement is divided into a first end range, a central working range and a second end range, wherein, when the joint is straight (not articulated), the first track pairs and second track pairs have, in the range of the axial displacement, first aperture angles and second aperture angles which are opposed but always equal in absolute value, wherein the first aperture angles and second aperture angles vary jointly over the entire range of the axial displacement, and in addition the first aperture angles and second aperture angles are largest in the central working range.
A method for producing a porous nanocrystalline semiconductor layer, comprising a) providing a substrate having a substrate surface; b) coating a semiconductor layer on the substrate surface; c) coating a metal containing layer on the semiconductor layer; d) heat treating the semiconductor layer and the metal containing layer at a temperature and for a time period (t) such that the semiconductor layer and the metal containing layer partially interdiffuse and the semiconductor is at least partially crystallized; and e) at least partially removing the metal. a) providing a substrate having a substrate surface; b) coating a semiconductor layer on the substrate surface; c) coating a metal containing layer on the semiconductor layer; d) heat treating the semiconductor layer and the metal containing layer at a temperature and for a time period (t) such that the semiconductor layer and the metal containing layer partially interdiffuse and the semiconductor is at least partially crystallized; and e) at least partially removing the metal.
An adherent interface dressing comprising: - a non-adherent cohesive gel formed from a hydrophobic elastomeric matrix comprising for 100 parts by weight of an elastomer selected from a styrene-(ethylene/butylene)-styrene or styrene-(ethylene/propylene)-styrene triblock elastomer optionally combined with a styrene-(ethylene/butylene) or styrene-(ethylene/propylene) diblock copolymer, 1000 to 2000 parts by weight of liquid paraffin, and containing as a dispersion from 2 to 20 % by weight of hydrophilic particles of a hydrocolloid; and - a flexible open-mesh fabric, said fabric comprising yarns which are coated with the non-adherent cohesive gel in such a way as to leave the meshes essentially unsealed, characterized in that the fabric is a heat-set knit with weft yarns, said yarns being continuous multifilament yarns with non-elastic filaments, which exhibits an extensibility in the transverse direction, measured according to standard EN 13726-4, of between 0.01 and 0.5 N/cm. - a non-adherent cohesive gel formed from a hydrophobic elastomeric matrix comprising for 100 parts by weight of an elastomer selected from a styrene-(ethylene/butylene)-styrene or styrene-(ethylene/propylene)-styrene triblock elastomer optionally combined with a styrene-(ethylene/butylene) or styrene-(ethylene/propylene) diblock copolymer, 1000 to 2000 parts by weight of liquid paraffin, and containing as a dispersion from 2 to 20 % by weight of hydrophilic particles of a hydrocolloid; and - a flexible open-mesh fabric, said fabric comprising yarns which are coated with the non-adherent cohesive gel in such a way as to leave the meshes essentially unsealed,
Walking beam furnace comprising a plurality of stationary refractory beams extending longitudinally and a plurality of movable refractory beams extending longitudinally, the movable refractory beams being arranged transversely between the stationary refractory beams and separated on either side of the stationary refractory beams by a space, and comprising drive means arranged to move a lifting frame and a translation frame, which support the movable refractory beams, according to a rectangular displacement cycle having two vertical positions, namely an upper and lower position, respectively, and an intermediate vertical position in which the walking beams are at the same height as the stationary beams, the walking beams projecting above the stationary beams in the upper position, the walking beams being at a lower level than the stationary beams in the lower position, the furnace further comprising a plurality of longitudinal water tanks which are arranged in line with the separation spaces and attached to one of the refractory beams (LRF, LRM) defining a separation space, and a plurality of skirts which are attached to the other refractory beam (LRF, LRM) defining said separation space and dip into the water tanks, characterized in that the stationary refractory beams and the movable stationary refractory beams have an inclined and rounded profile on the upper part, the inclined profile having a slant which forms, with the horizontal, an angle greater than the slope angle of the scale.
A system for steering an IEEE 802.11 station STA, the system comprising: the STA; a first access point, AP, which is an IEEE 802.11 access point, the first AP configured to operate at least a first virtual network identified by a first SSID, and to run a first Client Steering Daemon CSD configured to monitor STA unassociated with the first AP and log information about monitoring data; a second AP which is an IEEE 802.11 access point configured to operate at least a second virtual network identified by a second SSID different from the first SSID, and to run a second CSD configured to receive a command from a cloud server, and to steer the STA from the second virtual network identified by the second SSID to the first virtual network identified by the first SSID based on the received command; and the cloud server configured to receive the logged information from the first AP, and to send a command to the second AP to enable the second AP to steer the STA from the second virtual network identified by the second SSID to the first virtual network identified by the first SSID based on the received logged information. a first access point, AP, which is an IEEE 802.11 access point, the first AP configured to operate at least a first virtual network identified by a first SSID, and to run a first Client Steering Daemon CSD configured to monitor STA unassociated with the first AP and log information about monitoring data; a second AP which is an IEEE 802.11 access point configured to operate at least a second virtual network identified by a second SSID different from the first SSID, and to run a second CSD configured to receive a command from a cloud server, and to steer the STA from the second virtual network identified by the second SSID to the first virtual network identified by the first SSID based on the received command; and the cloud server configured to receive the logged information from the first AP, and to send a command to the second AP to enable the second AP to steer the STA from the second virtual network identified by the second SSID to the first virtual network identified by the first SSID based on the received logged information.
A boiler system comprising: a boiler that is adapted for burning fuel containing sulfur content at a weight percent concentration of lower than 8.0%, chlorine content at a weight percent concentration of lower than 0.1%, and water content at a weight percent concentration of lower than 20.0% to generate a combustion gas; a removal section that is adapted for removing sulfur oxide contained in the combustion gas and is adapted for removing smoke dust contained in the combustion gas, the sulfur oxide containing sulfur dioxide; a denitration section that is adapted for removing nitrogen oxide contained in the combustion gas from which the sulfur oxide has been removed by the removal section; a desulfurizing absorbent supply section that is adapted for mixing a desulfurizing absorbent for removing sulfur oxide contained in the combustion gas into the combustion gas on an upstream side of the removal section; and a denitrating reagent supply section that is adapted for mixing a denitrating reagent for removing nitrogen oxide contained in the combustion gas into the combustion gas on an upstream side of the denitration section, characterized in that the removal section is adapted for performing dry desulfurization, and a temperature of the combustion gas flowing into the removal section is higher than 200°C and 350°C or lower, and the combustion gas from which the sulfur oxide containing the sulfur dioxide has been removed by the removal section flows into the denitration section without being heated on the upstream side of the denitration section. a boiler that is adapted for burning fuel containing sulfur content at a weight percent concentration of lower than 8.0%, chlorine content at a weight percent concentration of lower than 0.1%, and water content at a weight percent concentration of lower than 20.0% to generate a combustion gas; a removal section that is adapted for removing sulfur oxide contained in the combustion gas and is adapted for removing smoke dust contained in the combustion gas, the sulfur oxide containing sulfur dioxide; a denitration section that is adapted for removing nitrogen oxide contained in the combustion gas from which the sulfur oxide has been removed by the removal section; a desulfurizing absorbent supply section that is adapted for mixing a desulfurizing absorbent for removing sulfur oxide contained in the combustion gas into the combustion gas on an upstream side of the removal section; and a denitrating reagent supply section that is adapted for mixing a denitrating reagent for removing nitrogen oxide contained in the combustion gas into the combustion gas on an upstream side of the denitration section, characterized in that the removal section is adapted for performing dry desulfurization, and a temperature of the combustion gas flowing into the removal section is higher than 200°C and 350°C or lower, and the combustion gas from which the sulfur oxide containing the sulfur dioxide has been removed by the removal section flows into the denitration section without being heated on the upstream side of the denitration section.