mhurhangee/ep-ind-claims huggingface dataset:
A check valve assembly (1a, 1b) for use in a laundry dryer comprising: - a body (3a, 3b) which has a first opening (4a, 4b), a second opening (5a, 5b) and a fluid passage (6a, 6b) which is formed between the first opening (4a, 4b) and the second opening (5a, 5b), - a shaft (7a, 7b) which is loaded by a spring (8a, 8b) and inserted through the second opening (5a, 5b) into the fluid passage (6a, 6b) until a leading end (9a, 9b) of the shaft (7a, 7b) projects out of the first opening (4a, 4b) and the spring (8a, 8b) is compressed between a first seat (10a, 10b) in the body (3a, 3b) and a second seat (11a, 11b) on the shaft (7a, 7b), - an elastic first sealing element (12a, 12b) which is detachably attached to the leading end (9a, 9b) of the shaft (7a, 7b), wherein the first sealing element (12a, 12b) leak-tightly closes the first opening (4a, 4b) as the shaft (7a, 7b) is pushed rearward by the spring (8a, 8b), characterized by: - a locking member (13a, 13b) which is detachably engaged with the leading end (9a, 9b) of the shaft (7a,7b), wherein the locking member (13a, 13b) abuts against the body (3a, 3b) and inhibits rearward movement of the shaft (7a, 7b) in a state where the first sealing element (12a, 12b) firmly closes the first opening (4a, 4b). - a body (3a, 3b) which has a first opening (4a, 4b), a second opening (5a, 5b) and a fluid passage (6a, 6b) which is formed between the first opening (4a, 4b) and the second opening (5a, 5b), - a shaft (7a, 7b) which is loaded by a spring (8a, 8b) and inserted through the second opening (5a, 5b) into the fluid passage (6a, 6b) until a leading end (9a, 9b) of the shaft (7a, 7b) projects out of the first opening (4a, 4b) and the spring (8a, 8b) is compressed between a first seat (10a, 10b) in the body (3a, 3b) and a second seat (11a, 11b) on the shaft (7a, 7b), - an elastic first sealing element (12a, 12b) which is detachably attached to the leading end (9a, 9b) of the shaft (7a, 7b), wherein the first sealing element (12a, 12b) leak-tightly closes the first opening (4a, 4b) as the shaft (7a, 7b) is pushed rearward by the spring (8a, 8b), characterized by: - a locking member (13a, 13b) which is detachably engaged with the leading end (9a, 9b) of the shaft (7a,7b), wherein the locking member (13a, 13b) abuts against the body (3a, 3b) and inhibits rearward movement of the shaft (7a, 7b) in a state where the first sealing element (12a, 12b) firmly closes the first opening (4a, 4b). - a locking member (13a, 13b) which is detachably engaged with the leading end (9a, 9b) of the shaft (7a,7b), wherein the locking member (13a, 13b) abuts against the body (3a, 3b) and inhibits rearward movement of the shaft (7a, 7b) in a state where the first sealing element (12a, 12b) firmly closes the first opening (4a, 4b).
A semiconductor package, comprising: a base having a device-attach surface and a solder ball attach surface opposite to the device attach surface; conductive vias (202, 204, 206, 208) passing through the base, the conductive vias having first terminal surfaces (202a, 204a, 206a, 208a) and second terminal surfaces (202b, 204b, 206b, 208b) wherein the first terminal surfaces are coplanar with the device attach surface of the base; and a semiconductor die mounted on the device-attach surface of the base by means of conductive structures (222, 224, 226, 228) comprising conductive pillars, characterised in that the conductive structures are in direct contact with the first terminal surfaces (202a, 204a, 206a, 208a) of the conductive vias without any conductive pad or redistribution pattern therebetween and, in a plan view, the conductive structures either fully or partially overlap with the conductive vias whereby at least part of the conductive structures partially overlap with the conductive vias. a base having a device-attach surface and a solder ball attach surface opposite to the device attach surface; conductive vias (202, 204, 206, 208) passing through the base, the conductive vias having first terminal surfaces (202a, 204a, 206a, 208a) and second terminal surfaces (202b, 204b, 206b, 208b) wherein the first terminal surfaces are coplanar with the device attach surface of the base; and a semiconductor die mounted on the device-attach surface of the base by means of conductive structures (222, 224, 226, 228) comprising conductive pillars, characterised in that the conductive structures are in direct contact with the first terminal surfaces (202a, 204a, 206a, 208a) of the conductive vias without any conductive pad or redistribution pattern therebetween and, in a plan view, the conductive structures either fully or partially overlap with the conductive vias whereby at least part of the conductive structures partially overlap with the conductive vias.
Beamforming antenna (100, 200) for multi-carrier transmission with multiple sub-carriers, the beamforming antenna (100, 200) comprising: a number of signal paths (101, 102, 103, 571, 572) configured to transmit and receive communication signals, a calibration signal generator (107, 207) that is configured to generate for the signal paths (101, 102, 103, 571, 572) a number of calibration signals (108, 109, 110, 111, 208, 211, 308) with the sub-carriers of the multi-carrier transmission in the frequency domain, the calibration signals (108, 109, 110, 111, 208, 211, 308) comprising a calibration sub-signal in at least one of the sub-carriers of the respective calibration signal (108, 109, 110, 111, 208, 211, 308), and a supply element (112, 113, 114, 115, 212, 213, 214) configured to supply the calibration signals (108, 109, 110, 111, 208, 211, 308) to the respective signal paths (101, 102, 103, 571, 572); characterized in that when generating a calibration signal (108, 109, 110, 111, 208, 211, 308), the calibration signal generator (107, 207) is configured to generate for each one of the calibration sub-signals a signal stream, wherein the signal streams are mutually independent orthogonal signal streams or quasi-orthogonal signal streams, and to map the generated signal streams in each case to constellation symbols, and to perform a multi-carrier modulation based on the constellation symbols, and to convert the output of the multi-carrier modulation into a serial stream, wherein the serial stream represents the calibration signal (108, 109, 110, 111, 208, 211, 308) in the time domain. a number of signal paths (101, 102, 103, 571, 572) configured to transmit and receive communication signals, a calibration signal generator (107, 207) that is configured to generate for the signal paths (101, 102, 103, 571, 572) a number of calibration signals (108, 109, 110, 111, 208, 211, 308) with the sub-carriers of the multi-carrier transmission in the frequency domain, the calibration signals (108, 109, 110, 111, 208, 211, 308) comprising a calibration sub-signal in at least one of the sub-carriers of the respective calibration signal (108, 109, 110, 111, 208, 211, 308), and a supply element (112, 113, 114, 115, 212, 213, 214) configured to supply the calibration signals (108, 109, 110, 111, 208, 211, 308) to the respective signal paths (101, 102, 103, 571, 572); characterized in that when generating a calibration signal (108, 109, 110, 111, 208, 211, 308), the calibration signal generator (107, 207) is configured to generate for each one of the calibration sub-signals a signal stream, wherein the signal streams are mutually independent orthogonal signal streams or quasi-orthogonal signal streams, and to map the generated signal streams in each case to constellation symbols, and to perform a multi-carrier modulation based on the constellation symbols, and to convert the output of the multi-carrier modulation into a serial stream, wherein the serial stream represents the calibration signal (108, 109, 110, 111, 208, 211, 308) in the time domain.
Method of surface-treating at least one part made of titanium or titanium-based alloy, according to which: - the part or parts is/are placed in a container, which is placed in a treatment enclosure containing a gaseous medium, - the part or parts is/are heated to a treatment temperature, - at least one chemical species activated by activation of the gaseous medium to the outside of the container is produced, the wall of the container being closed except for at least one gap, the dimension of the opening of which prevents ignition of the plasma inside the container but which allows at least one activated species to pass through, - the activated species is/are allowed to remain in contact with the surface of the part or the surfaces of the parts for a treatment time, and - the part or parts is/are allowed to cool, characterised in that the gaseous medium is composed of a mixture of a gas comprising nitrogen and from 1 % to 99 % of at least one neutral diluent gas such that the chemical composition of the gaseous medium is composed exclusively of nitrogen and one or more elements selected from hydrogen and noble gases such as argon. - the part or parts is/are placed in a container, which is placed in a treatment enclosure containing a gaseous medium, - the part or parts is/are heated to a treatment temperature, - at least one chemical species activated by activation of the gaseous medium to the outside of the container is produced, the wall of the container being closed except for at least one gap, the dimension of the opening of which prevents ignition of the plasma inside the container but which allows at least one activated species to pass through, - the activated species is/are allowed to remain in contact with the surface of the part or the surfaces of the parts for a treatment time, and - the part or parts is/are allowed to cool,
A kit comprising: a light housing comprising source of light; and a container containing a photocatalyzable treatment composition comprising a photoactivator; wherein said light housing and said container are co-packaged with one another, wherein said treatment composition is a fully formulated laundry detergent or a fully formulated dish detergent. a light housing comprising source of light; and a container containing a photocatalyzable treatment composition comprising a photoactivator; wherein said light housing and said container are co-packaged with one another, wherein said treatment composition is a fully formulated laundry detergent or a fully formulated dish detergent.
A polyamide resin composition comprising: a polyamide composed of a diamine unit containing a 1,3-bis(aminomethyl)cyclohexane unit and a dicarboxylic acid unit containing an adipic acid unit and/or a sebacic acid unit; an aromatic secondary amine based compound; an organic sulfur based compound; and a phenol based antioxidant, wherein a content ratio of the aromatic secondary amine based compound and the organic sulfur based compound ( / mass ratio) in the polyamide resin composition is from 0.5 to 10.0, a content ratio of the phenol based antioxidant and the organic sulfur based compound ( / mass ratio) in the polyamide resin composition is from 0.5 to 10.0, the organic sulfur based compound is one or more members selected from 2-mercaptobenzoimidazole, 2-mercaptomethylbenzimidazole, dimyristyl-3,3'-thiodipropionate, distearyl-3,3'-thiodipropionate, and pentaerythritol tetrakis(3-laurylthiopropionate), and the polyamide resin composition has an oxygen permeability coefficient of not more than 1.5 cc·mm/m 2 ·day·atm at 23°C and 75 % RH. a polyamide composed of a diamine unit containing a 1,3-bis(aminomethyl)cyclohexane unit and a dicarboxylic acid unit containing an adipic acid unit and/or a sebacic acid unit; an aromatic secondary amine based compound; an organic sulfur based compound; and a phenol based antioxidant,
Motion detecting device comprising - a stationary plastic sensor carrier comprising - at least two sensor carrier sections comprising a first plastic material and at least one insulation section comprising a second plastic material, the at least one insulation section extending between two adjacent sensor carrier sections, the at least two sensor carrier sections and the at least one insulation section being integrally formed by a plastic molding process, - plated metal surface electrodes being provided on the surfaces of the sensor carrier sections, - surface electrode contacts (56 - 59; 60 - 63) for connecting the plated metal surface electrodes with a PCB, and - a plastic knob element (14, 20) being movably arranged on the plastic sensor carrier, such that the insulating plastic separator sections and the plated metal surface electrodes are at least partly covered by the knob element (14, 20), characterized in that the motion detecting device comprises a short circuit spring, the short circuit spring being attached to the plastic knob element, wherein two portions of the short circuit spring form a short circuit between two electrode surfaces in a first predefined position and wherein the two portions of the short circuit spring do not form a short circuit between any electrode surfaces in a second predefined position. - a stationary plastic sensor carrier comprising - at least two sensor carrier sections comprising a first plastic material and at least one insulation section comprising a second plastic material, the at least one insulation section extending between two adjacent sensor carrier sections, the at least two sensor carrier sections and the at least one insulation section being integrally formed by a plastic molding process, - plated metal surface electrodes being provided on the surfaces of the sensor carrier sections, - surface electrode contacts (56 - 59; 60 - 63) for connecting the plated metal surface electrodes with a PCB, and - at least two sensor carrier sections comprising a first plastic material and at least one insulation section comprising a second plastic material, the at least one insulation section extending between two adjacent sensor carrier sections, the at least two sensor carrier sections and the at least one insulation section being integrally formed by a plastic molding process, - plated metal surface electrodes being provided on the surfaces of the sensor carrier sections, - surface electrode contacts (56 - 59; 60 - 63) for connecting the plated metal surface electrodes with a PCB, and - a plastic knob element (14, 20) being movably arranged on the plastic sensor carrier, such that the insulating plastic separator sections and the plated metal surface electrodes are at least partly covered by the knob element (14, 20),
Wiper arm having a connection adapter on which a wiper blade, in particular a flat-bar wiper blade or joint-free wiper blade can be held and which has an opening for laterally receiving a pin of the wiper arm, wherein, when the pin is inserted, the connection adapter can rotate about the pin, and locking means for securing the pin in the opening, in particular a bridge which is arranged on the wiper arm parallel to the pin and by way of an angled end engages over the connection adapter, wherein the connection adapter has fluid connections for the supply of a cleaning fluid, characterized in that at least one fluid connection can be connected to the connection adapter by means of a fluid plug-type connector on the top side of the connection adapter.
A lighting device comprising a light transmissive light outlet unit, and light emitting diodes generating light which is emitted through the light outlet unit, the lighting device further comprises a conductive layer structure, which is arranged as a coating on a portion of an inner surface of the light outlet unit, characterized in that the light emitting diodes are arranged in a single row, the single row divided into at least a first chain and a second chain, the light emitting diodes mounted on and electrically connected with the conductive layer structure, the conductive layer structure including several electrode traces on the inner surface of the light outlet unit, and wherein the first chain of LEDs are electrically connected to a first power connection trace and a second power connection trace, and the second chain of LEDs are electrically connected to a third power connection trace and a fourth power connection trace.
A device for controlling the use of sensors of a multi-sensor system, the multi-sensor system being equipped with a plurality of sensors comprising at least two sensors, the system being able to execute one or more system functions, characterised in that it comprises: - a unit for extracting alternatives for use of sensors configured to extract a set of sensors use alternatives from an alternative database storing a set of sensors uses alternative, in response to receiving a request indicating a type of function of the system and at least one quality metric, each alternative being stored in the database in correspondence with a system function, each alternative being associated with at least one sensor and comprising, for each associated sensor, a rate of use of the sensor and a duration of use of the sensor at said rate of use, the extraction unit being configured to extract the sensors use alternatives associated with said system function; - a prediction unit comprising a set of sensor performance models, the prediction unit being configured to apply, to each alternative and for each sensor associated with the alternative, the sensor performance model corresponding to the sensor, the sensor performance model providing a predicted value for each quality metric for said sensor, the predicted value corresponding to the estimated value of the quality metric for use of the sensor at the rate of use and for the duration associated with the sensor in the alternative; - a unit for selecting candidate alternatives configured to select at least some of said alternatives as a function of the predicted values of the quality metrics for the sensors of each extracted alternative. - a unit for extracting alternatives for use of sensors configured to extract a set of sensors use alternatives from an alternative database storing a set of sensors uses alternative, in response to receiving a request indicating a type of function of the system and at least one quality metric, each alternative being stored in the database in correspondence with a system function, each alternative being associated with at least one sensor and comprising, for each associated sensor, a rate of use of the sensor and a duration of use of the sensor at said rate of use, the extraction unit being configured to extract the sensors use alternatives associated with said system function; - a prediction unit comprising a set of sensor performance models, the prediction unit being configured to apply, to each alternative and for each sensor associated with the alternative, the sensor performance model corresponding to the sensor, the sensor performance model providing a predicted value for each quality metric for said sensor, the predicted value corresponding to the estimated value of the quality metric for use of the sensor at the rate of use and for the duration associated with the sensor in the alternative; - a unit for selecting candidate alternatives configured to select at least some of said alternatives as a function of the predicted values of the quality metrics for the sensors of each extracted alternative.
Method for manufacturing a compressor blade of a gas turbine, in which an airfoil is made of fiber-reinforced plastic, and in which a leading-edge element is connected to the airfoil, where - a first and a second partial element of the leading-edge element are made of a metallic material, and - the partial elements (31, 32) are individually applied to the airfoil by means of a bonding method before being connected, and - the two partial elements are connected to one leading-edge element by a friction-type or positive locking, characterized in that the partial elements (31, 32), as regards their free ends, apply a clamping force onto the airfoil to fix the leading-edge element with the airfoil. - a first and a second partial element of the leading-edge element are made of a metallic material, and - the partial elements (31, 32) are individually applied to the airfoil by means of a bonding method before being connected, and - the two partial elements are connected to one leading-edge element by a friction-type or positive locking,
A physically unclonable function unit (100, 200), characterized by comprising: a single anti-fuse transistor (110, 210) having a first terminal, a second terminal, and a gate terminal; a control circuit (120, 220) coupled to the anti-fuse transistor (110, 210) and configured to apply an enroll voltage to the gate terminal of the anti-fuse transistor (110, 210) and apply a reference voltage to the first terminal and the second terminal of the anti-fuse transistor (110, 210) during an enroll operation; and a differential sensing circuit (130, 230) configured to output an entropy bit according to currents generating from the first terminal and the second terminal of said single anti-fuse transistor (110, 210) during a read operation; wherein the enroll voltage is higher than the reference voltage, and is high enough to create a rupture path on the gate terminal to the first terminal or to the second terminal in the anti-fuse transistor (110, 210). a single anti-fuse transistor (110, 210) having a first terminal, a second terminal, and a gate terminal; a control circuit (120, 220) coupled to the anti-fuse transistor (110, 210) and configured to apply an enroll voltage to the gate terminal of the anti-fuse transistor (110, 210) and apply a reference voltage to the first terminal and the second terminal of the anti-fuse transistor (110, 210) during an enroll operation; and a differential sensing circuit (130, 230) configured to output an entropy bit according to currents generating from the first terminal and the second terminal of said single anti-fuse transistor (110, 210) during a read operation; wherein the enroll voltage is higher than the reference voltage, and is high enough to create a rupture path on the gate terminal to the first terminal or to the second terminal in the anti-fuse transistor (110, 210).
A fiber comprising a mixture of proteins comprising m types of proteins of differing molecular weight, wherein each protein in said mixture comprises, independently, n repeats of a repetitive region of a major ampullate spidroin (MaSP) protein, wherein m and n are, independently, an integer between 4 to 32, wherein said n is identical for each type of protein in said mixture, wherein said repetitive region has the amino acid sequence selected from: SEQ ID NO: 1 (X 1) Z X 2 GPGGYGPX 3 X 4 X 5 GPX 6 GX 7 GGX 8 GPGGPGX 9 X 10 wherein X 1 is, independently, at each instance A or G wherein at least 50% of (X 1) Z is A, Z is an integer between 5 to 30; X 2 is S or G; X 3 is G or E; X 4 is G, S or N; X 5 is Q or Y; X 6 is G or S; X 7 is P or R; X 8 is Y or Q; X 9 is G or S; and X 10 is S or G; and, SEQ ID NO: 33 (X 1) Z X 2 SGPX 3 GGYGX 4 PX 5 QGPX 6 GGYGP wherein X 1 is, independently, at each instance A or G wherein at least 50% of (X 1) Z is A, Z is an integer between 5 to 30; X 2 is S or G or absent; X 3 is G or Q or absent; X 4 is G or absent; X 5 is S or G; X 6 is S or P, G or R or absent.