mhurhangee/patent-ind-claim-en huggingface dataset:
Receptacle for receiving a sample during an optical analysis of the sample , characterized in that a) the receptacle comprises a bottom which is at least partially transparent so that the sample within the receptacle can be optically analysed by an image sensor from below the bottom , b) the bottom of the receptacle comprises a thickness of less than 500μm, 200μm, 150μm or even less than 120μm, c) the thickness of the bottom of the receptacle is sufficiently small to allow gas diffusion through the bottom , d) an upper filter is arranged above the sample between the sample and a light source illuminating the sample from above, and a lower filter is arranged below the sample between the sample and the image sensor viewing the sample from below, e) wherein e1) the upper filter is an upper polarization filter and the lower filter is a lower polarization filter , and an optical wave guide structure is arranged between the upper polarization filter and the lower polarization filter , and the upper polarization filter and the lower polarization filter are aligned perpendicular to each other thereby restricting the light received by the image sensor from the light source to specific optical modes, or e2) the upper filter is an upper color filter and the lower filter is a lower color filter . a) the receptacle comprises a bottom which is at least partially transparent so that the sample within the receptacle can be optically analysed by an image sensor from below the bottom , b) the bottom of the receptacle comprises a thickness of less than 500μm, 200μm, 150μm or even less than 120μm, c) the thickness of the bottom of the receptacle is sufficiently small to allow gas diffusion through the bottom , d) an upper filter is arranged above the sample between the sample and a light source illuminating the sample from above, and a lower filter is arranged below the sample between the sample and the image sensor viewing the sample from below, e) wherein e1) the upper filter is an upper polarization filter and the lower filter is a lower polarization filter , and an optical wave guide structure is arranged between the upper polarization filter and the lower polarization filter , and the upper polarization filter and the lower polarization filter are aligned perpendicular to each other thereby restricting the light received by the image sensor from the light source to specific optical modes, or e2) the upper filter is an upper color filter and the lower filter is a lower color filter . e1) the upper filter is an upper polarization filter and the lower filter is a lower polarization filter , and an optical wave guide structure is arranged between the upper polarization filter and the lower polarization filter , and the upper polarization filter and the lower polarization filter are aligned perpendicular to each other thereby restricting the light received by the image sensor from the light source to specific optical modes, or e2) the upper filter is an upper color filter and the lower filter is a lower color filter .
Dispenser for disposable paper products provided with at least one delivery outlet and essentially consisting of a body formed by a back and a cover connected so that said cover is openable, said back being provided with shaped seats for mating with wall mounting elements, wherein the at least one delivery outlet is formed in a replaceable bottom plate (10; 10'; 10") to adapt the dispenser to a different type of product, the replaceable bottom plate (10; 10'; 10") is separate from the back and from the cover , said bottom plate (10; 10'; 10") and the back being provided with first reciprocal coupling means , and the dispenser further comprising auxiliary adaptation elements and a second and third type of bottom plate to adapt the dispenser to a different type of product, the back being also provided with one or more second shaped seats (8; 9) adapted to mate with said auxiliary adaptation elements , wherein the auxiliary adaptation elements consist of a vertical partition that is in cooperation with said second type of bottom plate suitable for dispensing another type of product and a horizontal peg in cooperation with said third type of bottom plate (10") suitable for dispensing a further type of product, the peg adapted to be inserted in the second shaped seat with its axis perpendicular to a rear wall of the back to act as a support for a roll of toilet paper.
A coating system on a ceramic matrix composite (CMC) substrate , the coating system comprising: a bond coat on a surface of the CMC substrate ; a first rare earth silicate coating on the bond coat , wherein the first rare earth silicate coating comprises at least one rare earth silicate layer; a sacrificial coating of a reinforced rare earth disilicate matrix on the at least one rare earth silicate layer, wherein the sacrificial coating has a thickness of 4 mils (0.1016 mm) to 40 mils (1.016 mm) a second rare earth silicate coating on the sacrificial coating , wherein the second rare earth silicate coating comprises at least one rare earth silicate layer; and an outer layer on the second rare earth silicate coating characterized in that the sacrificial coating comprises a plurality of coarse particles at a level of 30% to 65% by volume of the ceramic material, wherein the coarse particles have an average particle size of 5 microns to 100 microns, and wherein the coarse particles are selected from the list consisting of barium strontium aluminosilicate (BSAS) particles, silicon particles, or a mixture thereof, and wherein the sacrificial coating is deposited by a thick tape deposition method, which uses a reinforced rare earth disilicate matrix material, said matrix material being a mixture of a rare earth disilicate powder, sintering aids which promote densification at temperatures of 1260°C (2300°F) to 1371°C (2500°F), organic binder, plasticizer, and one or more solvents. a bond coat on a surface of the CMC substrate ; a first rare earth silicate coating on the bond coat , wherein the first rare earth silicate coating comprises at least one rare earth silicate layer; a sacrificial coating of a reinforced rare earth disilicate matrix on the at least one rare earth silicate layer, wherein the sacrificial coating has a thickness of 4 mils (0.1016 mm) to 40 mils (1.016 mm) a second rare earth silicate coating on the sacrificial coating , wherein the second rare earth silicate coating comprises at least one rare earth silicate layer; and an outer layer on the second rare earth silicate coating characterized in that the sacrificial coating comprises a plurality of coarse particles at a level of 30% to 65% by volume of the ceramic material, wherein the coarse particles have an average particle size of 5 microns to 100 microns, and wherein the coarse particles are selected from the list consisting of barium strontium aluminosilicate (BSAS) particles, silicon particles, or a mixture thereof, and wherein the sacrificial coating is deposited by a thick tape deposition method, which uses a reinforced rare earth disilicate matrix material, said matrix material being a mixture of a rare earth disilicate powder, sintering aids which promote densification at temperatures of 1260°C (2300°F) to 1371°C (2500°F), organic binder, plasticizer, and one or more solvents.
Microwave device (11; 31) having a rotatably drivable microwave distribution means (17; 32), by means of which microwaves can be coupled into a cooking compartment , wherein the microwave device (11; 31) - has at least one operating mode of the microwave distribution means (17; 32) in which an angle of rotation range (a) of the microwave distribution means (17; 32) is delimited and - is configured to select the angle of rotation range (a) on the basis of a type of food item present in the cooking compartment , characterised in that - the microwave device (11; 31) is configured to select the angle of rotation range (a) on the basis of a thermal conductivity derived from the type of the food item present in the cooking compartment . - has at least one operating mode of the microwave distribution means (17; 32) in which an angle of rotation range (a) of the microwave distribution means (17; 32) is delimited and - is configured to select the angle of rotation range (a) on the basis of a type of food item present in the cooking compartment , characterised in that - the microwave device (11; 31) is configured to select the angle of rotation range (a) on the basis of a thermal conductivity derived from the type of the food item present in the cooking compartment .
An organic light emitting unit, comprising: a base substrate ; a first electrode disposed on the base substrate ; a plurality of strip-like partitions disposed on the first electrode ; an organic light emitting layer disposed between two adjacent strip-like partitions ; and a second electrode covering a surface of the base substrate , wherein the second electrode comprises a first portion located on a surface of each of the strip-like partitions and a second portion located between two adjacent strip-like partitions , wherein each of the strip-like partitions comprises a first material layer located at an lower layer and a second material layer located at an upper layer , the first material layer and the second material layer are made of different materials; a bottom surface of the upper layer completely covers a top surface of the lower layer , and a width of the bottom surface of the upper layer is larger than a width of the top surface of the lower layer in a plane perpendicular to an extending direction of the strip-like partitions , characterized in that one of the second material layer and the first material layer is made of a resin material, and other one is made of an inorganic insulating material; a thickness of the layer made of the resin material is 1.5μm to 2μm and a thickness of the layer made of the inorganic insulating material is 0.2 μm to 1 μm, and the organic light emitting layer is separately physically contacted with the first material layers located at two sides of the organic light emitting layer. a base substrate ; a first electrode disposed on the base substrate ; a plurality of strip-like partitions disposed on the first electrode ; an organic light emitting layer disposed between two adjacent strip-like partitions ; and a second electrode covering a surface of the base substrate , wherein the second electrode comprises a first portion located on a surface of each of the strip-like partitions and a second portion located between two adjacent strip-like partitions , wherein each of the strip-like partitions comprises a first material layer located at an lower layer and a second material layer located at an upper layer , the first material layer and the second material layer are made of different materials; a bottom surface of the upper layer completely covers a top surface of the lower layer , and a width of the bottom surface of the upper layer is larger than a width of the top surface of the lower layer in a plane perpendicular to an extending direction of the strip-like partitions , characterized in that one of the second material layer and the first material layer is made of a resin material, and other one is made of an inorganic insulating material; a thickness of the layer made of the resin material is 1.5μm to 2μm and a thickness of the layer made of the inorganic insulating material is 0.2 μm to 1 μm, and the organic light emitting layer is separately physically contacted with the first material layers located at two sides of the organic light emitting layer.
A heating assembly for generating heat, the heating assembly being applicable externally to a socket for carrying out temperature-dependent tests on an electronic component arranged, in use, inside the said socket , the heating assembly comprising: - A heating device electrically conductive in such a manner as to allow the passage of electrical current to produce heat; - The assembly further comprising: - A covering of a thermally insulating material for limiting the heat dispersion and suitable for containing said heating device inside it, the covering being box-shaped and providing lateral walls and a lower wall in such a manner as to form a thermally insulated housing for the heating device and having, at the opposite side to said lower wall , at least one opening for allowing the heat diffusion outwards the covering; - Fastening means for fastening, in use and in removable manner, said covering to a support surface , said fastening means being arranged in such a manner that the opening faces said support surface as the covering is fastened to said support surface; - Characterized in that said lateral walls and said lower wall are continuous and lacking in openings and wherein the container is equipped with lateral flanges which extend radially from the lateral walls and which are intended for the fastening to the support surface , the flanges leaning in use against the support surface and being provided with holes for inserting fixing screws. - A heating device electrically conductive in such a manner as to allow the passage of electrical current to produce heat; - The assembly further comprising: - A covering of a thermally insulating material for limiting the heat dispersion and suitable for containing said heating device inside it, the covering being box-shaped and providing lateral walls and a lower wall in such a manner as to form a thermally insulated housing for the heating device and having, at the opposite side to said lower wall , at least one opening for allowing the heat diffusion outwards the covering; - Fastening means for fastening, in use and in removable manner, said covering to a support surface , said fastening means being arranged in such a manner that the opening faces said support surface as the covering is fastened to said support surface; - Characterized in that said lateral walls and said lower wall are continuous and lacking in openings and wherein the container is equipped with lateral flanges which extend radially from the lateral walls and which are intended for the fastening to the support surface , the flanges leaning in use against the support surface and being provided with holes for inserting fixing screws.
Multi-stage converter with at least one branch , which is connected between a positive busbar and a negative busbar , wherein the branch has at least two arms connected in series, wherein the arms each comprise a series circuit made up of a plurality of two-pole submodules (110...117, 210...217), which have an energy store and a communication connection to a control device of the multi-stage converter , by means of which at least one item of information (421...425) about a state of charge of the energy store as well as a switching instruction (411...414) for a switch of the submodule (110...117, 210...217) is able to be transmitted, characterised in that , for at least a part of the submodules (110...117, 210...217), the communication connection is set up as a common communication connection and has a plurality of insulation paths (150...156, 210...212 330...336), wherein the insulation paths (150...156, 210...212 330...336) have an insulation capability in each case of at most 5 kV and comprise transformers (150...156, 210...212 330...336), capacitors or capacitive or inductive couplers.
A thickener for a molding compound comprising: an aluminum chelate complex; 10% to 50% by weight of the thickener of a petroleum distillate; and 10% to 50% by weight of the thickener of a polyester or polyester acrylate carrier resin. an aluminum chelate complex; 10% to 50% by weight of the thickener of a petroleum distillate; and 10% to 50% by weight of the thickener of a polyester or polyester acrylate carrier resin.
An electromagnet coil assembly (10-10') comprising * a core ; * a winding constituting the coil being wound in a plurality of turns around said core; and multiple power taps (13a-13b) for electrically connecting the winding to an external power circuit, wherein said winding is being formed as a tape element comprising a high-temperature superconducting, HTS, material; and the multiple power taps are connected to the HTS tape winding exiting the plane of the coil at an angle, characterized in that the power taps (13a-13b) - seen from their position exiting the plane of the coil till their connection to a power terminal of the external power circuit - exhibit a curvature which curvature coincides with a field line of the magnetic field generated by the electromagnet coil assembly during operation. * a core ; * a winding constituting the coil being wound in a plurality of turns around said core; and multiple power taps (13a-13b) for electrically connecting the winding to an external power circuit, wherein said winding is being formed as a tape element comprising a high-temperature superconducting, HTS, material; and the multiple power taps are connected to the HTS tape winding exiting the plane of the coil at an angle, characterized in that the power taps (13a-13b) - seen from their position exiting the plane of the coil till their connection to a power terminal of the external power circuit - exhibit a curvature which curvature coincides with a field line of the magnetic field generated by the electromagnet coil assembly during operation.
A method performed by a base station , the method comprising: - determining a reporting configuration for a UE to report power headroom to the base station , and characterized in that the determining being based on a power class of the UE , wherein the reporting configuration comprises a plurality of reportable values, wherein each reportable value corresponds to a respective range of values of a power headroom, and wherein the respective range each reportable value corresponds to is a function of a power class of the UE , the method further comprising: - receiving , from the UE , a reportable value from the plurality of reportable values, and wherein the respective range of values of the power headroom indicated by the received reportable value is based on the determined reporting configuration. - determining a reporting configuration for a UE to report power headroom to the base station , and the determining being based on a power class of the UE , wherein the reporting configuration comprises a plurality of reportable values, wherein each reportable value corresponds to a respective range of values of a power headroom, and wherein the respective range each reportable value corresponds to is a function of a power class of the UE , the method further comprising: - receiving , from the UE , a reportable value from the plurality of reportable values, and wherein the respective range of values of the power headroom indicated by the received reportable value is based on the determined reporting configuration. - receiving , from the UE , a reportable value from the plurality of reportable values, and wherein the respective range of values of the power headroom indicated by the received reportable value is based on the determined reporting configuration.
A control unit for an active filter for reducing resonance in an electric system , the electric system comprising a power source distributing a first alternating current (AC1) to a first AC conductor connected to a power consuming unit for distributing the AC to the power consuming unit, the active filter comprising a DC power source and a conductor (15"; 3) connecting the DC power source to the first AC conductor , the control unit comprising: a voltage measurement unit adapted to create a voltage signal on the basis of a measured voltage of the electric system; a computing unit (17") adapted to compute, using a biquadratic filter, a first compensating current on the basis of the voltage signal for reducing resonance in the electric system ; and a switching system connectable between the DC power source and the conductor (15"; 3) for creating the calculated first compensating current. a voltage measurement unit adapted to create a voltage signal on the basis of a measured voltage of the electric system; a computing unit (17") adapted to compute, using a biquadratic filter, a first compensating current on the basis of the voltage signal for reducing resonance in the electric system ; and a switching system connectable between the DC power source and the conductor (15"; 3) for creating the calculated first compensating current.
A method for operating a motor vehicle , in which ultrasonic waves are emitted into an environmental area of the motor vehicle by at least one ultrasonic sensor , operated in the active operation, of an ultrasonic sensor device of the motor vehicle , wherein the motor vehicle is equipped with an internal combustion engine and an electrical drive machine as a hybrid vehicle and is at least temporarily operated with the electrical drive machine in the active operation of the ultrasonic sensor of the motor vehicle arranged at a rear of the motor vehicle , characterized in that in case that the motor vehicle is operated with the internal combustion engine upon activation of the ultrasonic sensor , the internal combustion engine is turned off and the electrical drive machine is activated, or based on sensor data of at least one sensor of the motor vehicle different from the ultrasonic sensor , an exhaust cloud , from which the ultrasonic waves are reflected, output from an exhaust system of the motor vehicle into the environmental area and generated by the internal combustion engine in the active operation, is detected and the internal combustion engine is turned off and the electrical drive machine is activated depending on the detection of the exhaust cloud . the motor vehicle is equipped with an internal combustion engine and an electrical drive machine as a hybrid vehicle and is at least temporarily operated with the electrical drive machine in the active operation of the ultrasonic sensor of the motor vehicle arranged at a rear of the motor vehicle , characterized in that in case that the motor vehicle is operated with the internal combustion engine upon activation of the ultrasonic sensor , the internal combustion engine is turned off and the electrical drive machine is activated, or based on sensor data of at least one sensor of the motor vehicle different from the ultrasonic sensor , an exhaust cloud , from which the ultrasonic waves are reflected, output from an exhaust system of the motor vehicle into the environmental area and generated by the internal combustion engine in the active operation, is detected and the internal combustion engine is turned off and the electrical drive machine is activated depending on the detection of the exhaust cloud .
A flat pack for operating a downhole tool or sensor, comprising: a tube ; a pair of bumpers ; characterised in that , a pair of spacers disposed between the tube and the bumpers ; and a jacket encapsulating the tube , the bumpers , and the spacers , wherein the tube , the spacers , and the bumpers are positioned in the jacket in a side-by-side arrangement, and in that the tube and the spacers are not twisted along the flat pack . a tube ; a pair of bumpers ; characterised in that , a pair of spacers disposed between the tube and the bumpers ; and a jacket encapsulating the tube , the bumpers , and the spacers , wherein the tube , the spacers , and the bumpers are positioned in the jacket in a side-by-side arrangement, and in that the tube and the spacers are not twisted along the flat pack .