mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an electrochromic device, comprising the steps of: providing an electrochromic layered structure, having a first substrate sheet, a second substrate sheet, a first electron conducting layer at least partially covering said first substrate sheet, a second electron conducting layer at least partially covering said second substrate sheet, an electrochromic layer at least partially covering said first electron conducting layer, a counter electrode layer at least partially covering said second electron conducting layer, and an electrolyte layer laminated between and at least partially covering said first electrochromic layer and said counter electrode layer; said electrochromic layered structure having at least one of: - a first area in which said electrochromic layer is not covered by said electrolyte layer; and - a second area in which said counter electrode layer is not covered by said electrolyte layer, characterized by at least one of: - soldering, by ultra sound soldering, an electrode to said first electron conducting layer in said first area through said electrochromic layer; and - soldering, by ultra sound soldering, an electrode to said second electron conducting layer in said second area through said counter electrode layer. providing an electrochromic layered structure, having a first substrate sheet, a second substrate sheet, a first electron conducting layer at least partially covering said first substrate sheet, a second electron conducting layer at least partially covering said second substrate sheet, an electrochromic layer at least partially covering said first electron conducting layer, a counter electrode layer at least partially covering said second electron conducting layer, and an electrolyte layer laminated between and at least partially covering said first electrochromic layer and said counter electrode layer; said electrochromic layered structure having at least one of: - a first area in which said electrochromic layer is not covered by said electrolyte layer; and - a second area in which said counter electrode layer is not covered by said electrolyte layer, characterized by - a first area in which said electrochromic layer is not covered by said electrolyte layer; and - a second area in which said counter electrode layer is not covered by said electrolyte layer, at least one of: - soldering, by ultra sound soldering, an electrode to said first electron conducting layer in said first area through said electrochromic layer; and - soldering, by ultra sound soldering, an electrode to said second electron conducting layer in said second area through said counter electrode layer. - soldering, by ultra sound soldering, an electrode to said first electron conducting layer in said first area through said electrochromic layer; and - soldering, by ultra sound soldering, an electrode to said second electron conducting layer in said second area through said counter electrode layer.
Liquid delivery device comprising: i. a channel suitable to contain the liquid to be delivered, said channel having a inner section lower than 9 mm 2 and a inner volume V channel lower than 5.10 -5 m 3, preferably lower than 10 -5 m 3, said channel having an inlet, an outlet and a valve; ii. a gas mass flowmeter connected to the inlet of said channel; and iii. a pressure control unit configured: • to control pressure inside said channel by flowing gas through said gas mass flowmeter; • to determine continuously volume of liquid delivered by estimating the volume of liquid delivered to be equal to the volume of gas flowing through the gas mass flowmeter, wherein the volume of gas flowing through the gas mass flowmeter is calculated from a measured mass flow of gas flowing through the gas mass flowmeter by using an equation of state of gas; and • to deliver liquid with a closed-loop control according to a predetermined flowrate delivery profile over time. i. a channel suitable to contain the liquid to be delivered, said channel having a inner section lower than 9 mm 2 and a inner volume V channel lower than 5.10 -5 m 3, preferably lower than 10 -5 m 3, said channel having an inlet, an outlet and a valve; ii. a gas mass flowmeter connected to the inlet of said channel; and iii. a pressure control unit configured: • to control pressure inside said channel by flowing gas through said gas mass flowmeter; • to determine continuously volume of liquid delivered by estimating the volume of liquid delivered to be equal to the volume of gas flowing through the gas mass flowmeter, wherein the volume of gas flowing through the gas mass flowmeter is calculated from a measured mass flow of gas flowing through the gas mass flowmeter by using an equation of state of gas; and • to deliver liquid with a closed-loop control according to a predetermined flowrate delivery profile over time. • to control pressure inside said channel by flowing gas through said gas mass flowmeter; • to determine continuously volume of liquid delivered by estimating the volume of liquid delivered to be equal to the volume of gas flowing through the gas mass flowmeter, wherein the volume of gas flowing through the gas mass flowmeter is calculated from a measured mass flow of gas flowing through the gas mass flowmeter by using an equation of state of gas; and • to deliver liquid with a closed-loop control according to a predetermined flowrate delivery profile over time.
A demodulation system, comprising: a demodulator configured to receive a baseband signal and configured to produce modem bit likelihood values based on the received baseband signal; a candidate value generator configured to receive improved modem bit likelihood values and configured to produce, based on the improved modem bit likelihood values, candidate symbol values for a group of one or more symbols; and a first detector configured to receive the baseband signal and the candidate symbol values and configured to produce one of (a) final modem bit estimates and (b) candidate symbol values for a group of symbols, characterized in that said demodulation system further comprises a decoder configured to receive the modem bit likelihood values produced by the demodulator and configured to process the modem bit likelihood values to produce the improved modem bit likelihood values. a demodulator configured to receive a baseband signal and configured to produce modem bit likelihood values based on the received baseband signal; a candidate value generator configured to receive improved modem bit likelihood values and configured to produce, based on the improved modem bit likelihood values, candidate symbol values for a group of one or more symbols; and a first detector configured to receive the baseband signal and the candidate symbol values and configured to produce one of (a) final modem bit estimates and (b) candidate symbol values for a group of symbols,
Travel plug adapter, which has a housing and a plug receptacle according to the Schuko standard, which has a first earth contact receptacle and has at least one first plug (28, 38) of a first standard, the first plug (28, 38) being assigned an actuating element, which is designed for displacing the first plug (28, 38) between a ready position, in which the first plug (28, 38) is located substantially inside the housing, and a usable position, in which the first plug (28, 38) is located usably outside the housing, and the first plug (28, 38) is located substantially inside the housing, in which the first plug (28, 38) is located substantially inside the housing, and a use position in which the first plug (28, 38) is located usably outside the housing, and the first plug (28, 38) is assigned a first earth contact (32, 44, 64, 66, 68) which can be electrically connected to the earth contact receptacle, wherein the earth contact receptacle is connected to the first earth contact (32, 44, 64, 66, 68) both in the usable position and in transitional positions between the ready position and the usable position, wherein the electrical contact between the earth contact receptacle and the earth contact (32, 44, 64, 66, 68) is mediated by at least one contact rail (72, 74), characterised in that the at least one contact rail (72, 74) is connected to the first earth contact (32, 44, 64, 66, 68) by means of at least one contact rail (72, 74), in that the at least one contact rail (72, 74) is mechanically connected to the earth contact receptacle and there is direct contact between the earth contact receptacle and the at least one contact rail (72, 74) and in which the connection of the earth contact receptacle to the first earth contact (32, 44, 64, 66, 68) is effected by a movable contact clip (76, 78, 80).
A method comprising: mapping resource blocks in a sub-frame according to a hopping pattern, the sub-frame including a first set of resource blocks in a first slot and second set of resource blocks in a second slot, wherein each of the first set of resource blocks has a hopping index associated with a corresponding hopping index in the second set of resource blocks; allocating each of a first pair of physical resource blocks and a second pair of physical resource blocks according to a physical resource allocation, the first pair of physical resource blocks associated with a first hopping index pair, the second pair of physical resource blocks associated with a second hopping index pair, wherein the first hopping index pair is inversely symmetrical with the second hopping index pair; allocating a pair of distributed resource blocks according to a virtual resource allocation associated with the hopping pattern, wherein the pair of distributed resource blocks is different than each of the first pair of physical resource blocks and the second pair of physical resource blocks; and scheduling (1035, 1040) an assignment, wherein the scheduling includes assigning each of the first pair of physical resource blocks and the second pair of physical resource blocks according to the physical resource allocation, and wherein the scheduling includes assigning the pair of distributed resource blocks according to the virtual resource allocation. mapping resource blocks in a sub-frame according to a hopping pattern, the sub-frame including a first set of resource blocks in a first slot and second set of resource blocks in a second slot, wherein each of the first set of resource blocks has a hopping index associated with a corresponding hopping index in the second set of resource blocks; allocating each of a first pair of physical resource blocks and a second pair of physical resource blocks according to a physical resource allocation, the first pair of physical resource blocks associated with a first hopping index pair, the second pair of physical resource blocks associated with a second hopping index pair, wherein the first hopping index pair is inversely symmetrical with the second hopping index pair; allocating a pair of distributed resource blocks according to a virtual resource allocation associated with the hopping pattern, wherein the pair of distributed resource blocks is different than each of the first pair of physical resource blocks and the second pair of physical resource blocks; and scheduling (1035, 1040) an assignment, wherein the scheduling includes assigning each of the first pair of physical resource blocks and the second pair of physical resource blocks according to the physical resource allocation, and wherein the scheduling includes assigning the pair of distributed resource blocks according to the virtual resource allocation.
A composition comprising a cationic amphiphilic peptide hydrogel and a crystallized immunosuppressive small molecule drug dispersed within the peptide hydrogel, wherein the amino acid sequence of the peptide comprises or consists of the amino acid sequence set forth as: n X-[ D PP, D PG, or NG]-X n and wherein each X is individually selected from V, I, L, M, T, F, W, and Y; each Z is individually selected from any amino acid; n is from 3 to 5; and the peptide has a net positive charge at neutral pH. each X is individually selected from V, I, L, M, T, F, W, and Y; each Z is individually selected from any amino acid; n is from 3 to 5; and the peptide has a net positive charge at neutral pH.
Device for weighing dough, comprising: - a single endless conveyor belt, - for conveying a plurality of endless or continuous dough pieces (8, 9, 10, 11) extending essentially in parallel lanes on said conveyor in a direction of conveyance; - a weighing-unit, arranged under the endless conveyor belt, wherein - the weighing unit comprises multiple weighing rows, spread over the width of the conveyor, and - each row comprising at least one rectangular weighing section (3, 4, 5), for independently of the other weighing sections weighing a different dough piece of said plurality of endless or continuous dough pieces characterised in that - at least one row comprises a plurality of weighing sections, arranged behind each other in the direction of conveyance; wherein at least one of the weighing sections has a different length than the other ones. - a single endless conveyor belt, - for conveying a plurality of endless or continuous dough pieces (8, 9, 10, 11) extending essentially in parallel lanes on said conveyor in a direction of conveyance; - for conveying a plurality of endless or continuous dough pieces (8, 9, 10, 11) extending essentially in parallel lanes on said conveyor in a direction of conveyance; - a weighing-unit, arranged under the endless conveyor belt, wherein - the weighing unit comprises multiple weighing rows, spread over the width of the conveyor, and - the weighing unit comprises multiple weighing rows, spread over the width of the conveyor, and - each row comprising at least one rectangular weighing section (3, 4, 5), for independently of the other weighing sections weighing a different dough piece of said plurality of endless or continuous dough pieces characterised in that - at least one row comprises a plurality of weighing sections, arranged behind each other in the direction of conveyance; wherein at least one of the weighing sections has a different length than the other ones.
A method for determining the position of a camera disposed on an overhead transfer device (5, 6) of a self-propelled harvesting machine (1, 2), by means of which a target region is captured to which harvested material picked up by the harvesting machine (1, 2) is intended to be fed by means of the overhead transfer device (5, 6), wherein a deflecting element is disposed at the free end of the overhead transfer device (5, 6) and the camera is disposed at a distance to the deflecting element, characterized in that at least one image of the free end of the overhead transfer device (5, 6) is produced by means of the camera, and in that the at least one image produced by the camera is evaluated by means of a processing unit of a control device of the harvesting machine (1, 2) and with the aid of the evaluation, the position of the camera in respect of a distance and/or an inclination to the deflecting element is determined.
A method of producing a peptide by a liquid phase synthesis method, comprising steps of: Step A: a step of reacting an active ester of an acid component with an amine component to obtain a condensed compound; Step B: a step of hydrolyzing the unreacted active ester of the acid component by contacting the reaction mixture obtained in Step A twice or more with a base and maintaining a basic condition until an amount of the remaining unreacted active ester of the acid component is decreased to 1% or less, and then purifying the condensed compound by removing water-soluble impurities including the decomposed product of the active ester of the acid component by carrying out extraction and washing with an aqueous solution; Step C: a step of removing a protecting group for an N-terminal amino group of the condensed compound obtained in Step B; and Step D: a step of purifying the condensed compound deprotected at the N-terminal amino group by removing an impurity in a reaction mixture obtained in Step C, if necessary; and wherein, in Step A, the acid component is an amino acid or a peptide, protected at an N-terminal amino group by a protecting group removable under an acidic condition; and the amine component is an amino acid or a peptide, protected at a C-terminal carboxyl group by a protecting group stable under an acidic condition. Step A: a step of reacting an active ester of an acid component with an amine component to obtain a condensed compound; Step B: a step of hydrolyzing the unreacted active ester of the acid component by contacting the reaction mixture obtained in Step A twice or more with a base and maintaining a basic condition until an amount of the remaining unreacted active ester of the acid component is decreased to 1% or less, and then purifying the condensed compound by removing water-soluble impurities including the decomposed product of the active ester of the acid component by carrying out extraction and washing with an aqueous solution; Step C: a step of removing a protecting group for an N-terminal amino group of the condensed compound obtained in Step B; and Step D: a step of purifying the condensed compound deprotected at the N-terminal amino group by removing an impurity in a reaction mixture obtained in Step C, if necessary; and wherein, in Step A, the acid component is an amino acid or a peptide, protected at an N-terminal amino group by a protecting group removable under an acidic condition; and the amine component is an amino acid or a peptide, protected at a C-terminal carboxyl group by a protecting group stable under an acidic condition.
A method, in a wireless device, for managing an operating system and/or application behavior based on an indication of a network initiated policy and/or charge change, the wireless device being configured for use in a wireless communications network, the method comprising: receiving, in a mobile terminating connectivity layer, a message originated from a Policy Control and Charging, PCC, based node; determining the message comprises the indication of the network initiated policy and/or charge change; characterized in that the method comprises: forwarding the message to the operating system and/or application layer; and modifying the application behavior in the operating system and/or application layer based on the indication, wherein the application is a content provider application, the network initiated policy and/or charge change is a start or stop of a non-metered connection, wherein the non-metered connection comprises a zero charged Third Generation Partnership Project, 3GPP, access. receiving, in a mobile terminating connectivity layer, a message originated from a Policy Control and Charging, PCC, based node; determining the message comprises the indication of the network initiated policy and/or charge change; characterized in that the method comprises: forwarding the message to the operating system and/or application layer; and modifying the application behavior in the operating system and/or application layer based on the indication, wherein the application is a content provider application, the network initiated policy and/or charge change is a start or stop of a non-metered connection, wherein the non-metered connection comprises a zero charged Third Generation Partnership Project, 3GPP, access. forwarding the message to the operating system and/or application layer; and modifying the application behavior in the operating system and/or application layer based on the indication, wherein the application is a content provider application, the network initiated policy and/or charge change is a start or stop of a non-metered connection, wherein the non-metered connection comprises a zero charged Third Generation Partnership Project, 3GPP, access.
An intravaginal urinary incontinence device comprising: a) a working portion having opposed working surfaces (9a, 9b) to provide support to an associated urinary system; and b) an anchoring portion for anchoring the working portion at a desired location within a user's vagina operatively connected to the working portion, wherein the anchoring portion comprises at least one member extending beyond at least one end of the working portion that is capable of engaging the user's vaginal walls, and characterised in that the anchoring portion has a length of 25 mm to 40 mm, the working portion has a length of 15 mm to 60 mm and is an elastic working portion having an insertion equivalent diameter ranging from about 10 to about 20 mm, wherein the working portion is capable of enlarging to provide a use equivalent diameter, the working portion provides a use equivalent diameter of about 20mm to about 35mm under an expansion pressure of about 20 cm H 2 O to about 150 cm H 2 O and wherein the working portion and anchoring portion are a wire form and are made of a shape memory polymer. a) a working portion having opposed working surfaces (9a, 9b) to provide support to an associated urinary system; and b) an anchoring portion for anchoring the working portion at a desired location within a user's vagina operatively connected to the working portion, wherein the anchoring portion comprises at least one member extending beyond at least one end of the working portion that is capable of engaging the user's vaginal walls, and characterised in that the anchoring portion has a length of 25 mm to 40 mm, the working portion has a length of 15 mm to 60 mm and is an elastic working portion having an insertion equivalent diameter ranging from about 10 to about 20 mm, wherein the working portion is capable of enlarging to provide a use equivalent diameter, the working portion provides a use equivalent diameter of about 20mm to about 35mm under an expansion pressure of about 20 cm H 2 O to about 150 cm H 2 O and wherein the working portion and anchoring portion are a wire form and are made of a shape memory polymer.
An electric power steering apparatus having independent turning mechanisms (3a,3b,4a,4b) for respective four wheels (9a,9b,14a,14b) of a vehicle, wherein a turning motor (13a,13b,18a,18b) of each of the turning mechanisms (3a,3b,4a,4b) has a redundant configuration, wherein the turning motor (13a,13b,18a,18b) is configured as three-phase duplexing motors of a first and second system each having a three-phase winding (19a, 19b) and an inverter (22a,22b) driving the three-phase winding (19a,19b) for separately driving the three-phase windings (19a, 19b), and wherein, when the three-phase duplexing motor of the first system fails, the three-phase duplexing motor of the first system is stopped from being driven and a turning angle of a wheel that is turned by the three-phase duplexing motor of the first system, is returned to and fixed at a neutral position by the three-phase duplexing motor of the second system. a turning motor (13a,13b,18a,18b) of each of the turning mechanisms (3a,3b,4a,4b) has a redundant configuration, wherein the turning motor (13a,13b,18a,18b) is configured as three-phase duplexing motors of a first and second system each having a three-phase winding (19a, 19b) and an inverter (22a,22b) driving the three-phase winding (19a,19b) for separately driving the three-phase windings (19a, 19b), and wherein, when the three-phase duplexing motor of the first system fails, the three-phase duplexing motor of the first system is stopped from being driven and a turning angle of a wheel that is turned by the three-phase duplexing motor of the first system, is returned to and fixed at a neutral position by the three-phase duplexing motor of the second system.