mhurhangee/patent-ind-claim-en huggingface dataset:
Shipping crate (150; 250; 350; 450; 550; 650), comprising a plurality of crate wall components, wherein the plurality of crate wall components is assembled in such a way that the crate wall components delimit a substantially square-shaped shipping space (T) which is configured and intended to receive at least one product to be shipped, at least one crate wall component (152; 252; 352; 452; 552; 652) of the plurality of crate wall components being non-destructively detachably connected by means of at least one connecting element (100; 200; 300; 400; 500; 600) to at least one further crate wall component (156; 256; 356; 456; 556; 656) of the plurality of crate wall components, which is adjacent to the at least one crate wall component (152; 252; 352; 452; 552; 652), the connecting element comprising: • a handling portion (102; 202; 302; 402; 502) adapted to be handled by a user, and • a connecting portion (104; 204; 304; 404; 504) adapted to connect, in a state mounted on the shipping crate, the at least one crate wall component (152; 252; 352; 452; 552; 652) of the shipping crate to the at least one further crate wall component (156; 256; 356; 456; 556; 656) of the shipping crate, the connecting portion being arranged such that it has a latching surface (106; 206; 306; 406; 506) which is configured and intended to engage with a corresponding latching counter-surface (164; 264; 364a, 364b; 464a, 464b; 564) of the at least one or of the at least one further crate wall component, the connecting element being configured such that it can be mounted on the shipping crate and removed therefrom without tools by actuating the handling portion (102; 202; 302; 402; 502) and having a self-locking effect in the state mounted on the shipping crate, characterised in that the at least one or the at least one further crate wall component of the plurality of crate wall components has at least one passage (166; 266; 366; 466; 566) which is configured and intended to allow insertion of the at least one connecting element (100; 200; 300; 400; 500; 600) through the same. • a handling portion (102; 202; 302; 402; 502) adapted to be handled by a user, and • a connecting portion (104; 204; 304; 404; 504) adapted to connect, in a state mounted on the shipping crate, the at least one crate wall component (152; 252; 352; 452; 552; 652) of the shipping crate to the at least one further crate wall component (156; 256; 356; 456; 556; 656) of the shipping crate, the connecting portion being arranged such that it has a latching surface (106; 206; 306; 406; 506) which is configured and intended to engage with a corresponding latching counter-surface (164; 264; 364a, 364b; 464a, 464b; 564) of the at least one or of the at least one further crate wall component,
A specimen for analyzing shape of an antistatic antifouling layer comprising: a polymer substrate; an antistatic antifouling layer, which is formed on the polymer substrate and contains a conductive polymer; and a Pt coating layer directly formed on the antistatic antifouling layer, and a carbon protective film on the Pt coating layer. a polymer substrate; an antistatic antifouling layer, which is formed on the polymer substrate and contains a conductive polymer; and a Pt coating layer directly formed on the antistatic antifouling layer, and a carbon protective film on the Pt coating layer.
A method of determining a condition of a fuel pump of a fuel system of a vehicle , the fuel system comprising the fuel pump and a feed pump configured to feed fuel to the fuel pump via a feed conduit , wherein the method comprises the steps of: - operating the feed pump during stand still of the fuel pump , - obtaining data representative of at least one of a flow and a pressure in the feed conduit , and - determining a condition of the fuel pump based on the data, characterized in that the fuel pump comprises one or more fuel lubricated bearings , and in that the step of determining a condition of the fuel pump comprises the step of: - determining a condition of the one or more fuel lubricated bearings . - operating the feed pump during stand still of the fuel pump , - obtaining data representative of at least one of a flow and a pressure in the feed conduit , and - determining a condition of the fuel pump based on the data, characterized in that the fuel pump comprises one or more fuel lubricated bearings , and in that the step of determining a condition of the fuel pump comprises the step of: - determining a condition of the one or more fuel lubricated bearings .
A method to produce a polymer converter for connecting optical fibres made of different materials, comprising: - positioning both optical fibres coaxially in front of each other in a positioning system; - introduction of a photopolymerising substance consisting of disodium salt of Eosin Y, methyldiethanolamine, MDEA, as co-initiator and multifunction monomers: pentaerythritol triacrylate, PETA, and heptafluorobutyl acrylate, HFBA, between their end faces; - introduction of a light beam of predetermined power from a light source into the optical fibres; - illuminating with light beams leaving the optical fibres the photopolymerising substance resulting in growing polymer microtips from the cores of both optical fibers, joining each other and creating a polymer micro-bridge; - controlling the micro-bridge growth and controlling the amount of absorbed energy and the distance between the pair of fibres, wherein - disodium salt of Eosin Y is used in an amount of 0.1 - 1.0% by weight, - methyldiethanolamine, MDEA, as co-initiator is used in an amount of 7.0 - 9.0% by weight - pentaerythritol triacrylate, PETA, is used in an amount of 45.0 - 85.0% by weight, and - heptafluorobutyl acrylate, HFBA, is used in an amount of 5.0 - 45.0% by weight. - positioning both optical fibres coaxially in front of each other in a positioning system; - introduction of a photopolymerising substance consisting of disodium salt of Eosin Y, methyldiethanolamine, MDEA, as co-initiator and multifunction monomers: pentaerythritol triacrylate, PETA, and heptafluorobutyl acrylate, HFBA, between their end faces; - introduction of a light beam of predetermined power from a light source into the optical fibres; - illuminating with light beams leaving the optical fibres the photopolymerising substance resulting in growing polymer microtips from the cores of both optical fibers, joining each other and creating a polymer micro-bridge; - controlling the micro-bridge growth and controlling the amount of absorbed energy and the distance between the pair of fibres, wherein - disodium salt of Eosin Y is used in an amount of 0.1 - 1.0% by weight, - methyldiethanolamine, MDEA, as co-initiator is used in an amount of 7.0 - 9.0% by weight - pentaerythritol triacrylate, PETA, is used in an amount of 45.0 - 85.0% by weight, and - heptafluorobutyl acrylate, HFBA, is used in an amount of 5.0 - 45.0% by weight.
A composition for detecting mutations of 2019 novel coronavirus, comprising: a first nucleic acid composition: 8782 C-type forward primer: 5'-GCTGATTTTGACACATGGTTCATC-3' (SEQ ID NO: 1); and 28144 T-type forward primer: 5'-ATCGGTAATTATACAGTTTCCAGATT-3' (SEQ ID NO: 2); and a second nucleic acid composition: 8782 T-type forward primer: 5'-GCTGATTTTGACACATGGTATCGT-3' (SEQ ID NO: 3); and 28144 C-type forward primer: 5'-ATCGGTAATTATACAGTTTCCTTTGC-3' (SEQ ID NO: 4); wherein each nucleic acid composition further comprises: 8782 reverse primer: 5'-CCATTAGTTGTGCGTAATATCGT-3' (SEQ ID NO: 5); 8782 probe: 5'-CTTGCCCATTGATTGCTGCAGTCATAA-3' (SEQ ID NO: 6); 28144 reverse primer: 5'-CAACACGAACGTCATGATACTCTA-3' (SEQ ID NO: 7); and 28144 probe: 5'-ATTGCCAGGAACCTAAATTGGGTAGT-3' (SEQ ID NO: 8). a first nucleic acid composition: 8782 C-type forward primer: 5'-GCTGATTTTGACACATGGTTCATC-3' (SEQ ID NO: 1); and 28144 T-type forward primer: 5'-ATCGGTAATTATACAGTTTCCAGATT-3' (SEQ ID NO: 2); and 8782 C-type forward primer: 5'-GCTGATTTTGACACATGGTTCATC-3' (SEQ ID NO: 1); and 28144 T-type forward primer: 5'-ATCGGTAATTATACAGTTTCCAGATT-3' (SEQ ID NO: 2); and a second nucleic acid composition: 8782 T-type forward primer: 5'-GCTGATTTTGACACATGGTATCGT-3' (SEQ ID NO: 3); and 28144 C-type forward primer: 5'-ATCGGTAATTATACAGTTTCCTTTGC-3' (SEQ ID NO: 4); 8782 T-type forward primer: 5'-GCTGATTTTGACACATGGTATCGT-3' (SEQ ID NO: 3); and 28144 C-type forward primer: 5'-ATCGGTAATTATACAGTTTCCTTTGC-3' (SEQ ID NO: 4); wherein each nucleic acid composition further comprises: 8782 reverse primer: 5'-CCATTAGTTGTGCGTAATATCGT-3' (SEQ ID NO: 5); 8782 probe: 5'-CTTGCCCATTGATTGCTGCAGTCATAA-3' (SEQ ID NO: 6); 28144 reverse primer: 5'-CAACACGAACGTCATGATACTCTA-3' (SEQ ID NO: 7); and 28144 probe: 5'-ATTGCCAGGAACCTAAATTGGGTAGT-3' (SEQ ID NO: 8). 8782 reverse primer: 5'-CCATTAGTTGTGCGTAATATCGT-3' (SEQ ID NO: 5); 8782 probe: 5'-CTTGCCCATTGATTGCTGCAGTCATAA-3' (SEQ ID NO: 6); 28144 reverse primer: 5'-CAACACGAACGTCATGATACTCTA-3' (SEQ ID NO: 7); and 28144 probe: 5'-ATTGCCAGGAACCTAAATTGGGTAGT-3' (SEQ ID NO: 8).
A memory array comprising: a first set of conductive lines (DL1, DL2, DL3, DL4) extending along a vertical direction; a second set of conductive lines (WL1, WL2, WL3) extending along a horizontal direction; a plurality of memory cells, with each of the memory cells being uniquely addressed by combination of one of the conductive lines from the first set and one of the conductive lines from the second set; each of the memory cells comprising: a transistor (T) comprising a gate having a vertically-extending sidewall, comprising a channel region extending along the vertically-extending sidewall and comprising a first source/drain region vertically spaced from a second source/drain region by the channel region ; and a capacitor (C) configured as a ring surrounding one of the conductive lines of the first set; and the first and second conductive lines individually directly electrically coupling with individual of the memory cells; and a third set of conductive lines (CL1, CL2, CL3) that extend horizontally above or below the memory cells, the conductive lines of the third set individually directly electrically coupling with individual of the vertically-extending conductive lines of the first set. a first set of conductive lines (DL1, DL2, DL3, DL4) extending along a vertical direction; a second set of conductive lines (WL1, WL2, WL3) extending along a horizontal direction; a plurality of memory cells, with each of the memory cells being uniquely addressed by combination of one of the conductive lines from the first set and one of the conductive lines from the second set; each of the memory cells comprising: a transistor (T) comprising a gate having a vertically-extending sidewall, comprising a channel region extending along the vertically-extending sidewall and comprising a first source/drain region vertically spaced from a second source/drain region by the channel region ; and a capacitor (C) configured as a ring surrounding one of the conductive lines of the first set; and the first and second conductive lines individually directly electrically coupling with individual of the memory cells; and a third set of conductive lines (CL1, CL2, CL3) that extend horizontally above or below the memory cells, the conductive lines of the third set individually directly electrically coupling with individual of the vertically-extending conductive lines of the first set.
Vehicle, in particular a motor vehicle, wherein said vehicle includes a control system, an internal combustion engine , an automatic transmission with a lever which can be engaged in various parking and/or driving positions, a first acceleration pedal of the vehicle, a second brake pedal of the vehicle placed laterally to said first pedal , a third pedal placed laterally with respect to said second brake pedal , a first control unit of said automatic transmission of the vehicle to which said lever of the automatic transmission and said first and second pedals are connected, said first control unit being also connected to a second control unit of said internal combustion engine , characterized in that said first control unit is also connected to an electronic control unit placed between said internal combustion engine and an activation box of the automatic transmission, which is positioned on one or more axles for transmitting motion to the wheels of the vehicle, said electronic control unit being configured so as to raise, in a first phase, the rpm of said internal combustion engine by keeping the vehicle stationary and, in a second phase, to discharge power to said one or more drive axles , said first and second phases being carried out, respectively, by the driver of the vehicle pressing and releasing said third pedal of said vehicle, said third pedal being connected to said first control unit .
Measuring roll for identifying flatness errors of a strip and/or for determining the strip tension of a strip, particularly a metal strip, having a roll body and one or more measuring points integrated in the roll body, wherein the measuring points respectively have at least one measuring body aligned with the surface of the roll body , characterised in that the at least one measuring body is respectively arranged on one or more force-measuring sensors in a recess in the roll body , forming a circumferential gap , wherein the circumferential gap is closed or covered with a welding filler, and wherein a welding seam made of the welding filler is inserted in the circumferential gap , and/or the surface of the roll body is provided, at least in the area of the measuring points , with a weld overlay made of the welding filler and produced by build-up welding, which covers the circumferential gap .
A method for wireless communication in a high speed packet access system, comprising: receiving a channel quality indicator from a dual stream capable wireless communication device requesting a single-stream transmission at a first data rate ; adjusting the first data rate by an adaptive outer loop margin to obtain a second data rate ; transmitting a data stream to the wireless communication device using the second data rate ; receiving a positive-acknowledgement/negative-acknowledgement, ACK/NACK, from the wireless communication device ; and adjusting the adaptive outer loop margin according to the received ACK/NACK, characterised in that the adaptive outer loop margin comprises a first adaptive outer loop margin for single-user multiple-input and multiple-output transmissions and a second adaptive outer loop margin for multiple-user multiple-input and multiple-output transmissions, wherein the multiple-user multiple-input and multiple-output transmissions comprise a transmission of the data stream to the wireless communication device using a first beam and a simultaneous transmission of a second data stream to another wireless communication device using a second beam , orthogonal to the first beam . receiving a channel quality indicator from a dual stream capable wireless communication device requesting a single-stream transmission at a first data rate ; adjusting the first data rate by an adaptive outer loop margin to obtain a second data rate ; transmitting a data stream to the wireless communication device using the second data rate ; receiving a positive-acknowledgement/negative-acknowledgement, ACK/NACK, from the wireless communication device ; and adjusting the adaptive outer loop margin according to the received ACK/NACK, characterised in that the adaptive outer loop margin comprises a first adaptive outer loop margin for single-user multiple-input and multiple-output transmissions and a second adaptive outer loop margin for multiple-user multiple-input and multiple-output transmissions, wherein the multiple-user multiple-input and multiple-output transmissions comprise a transmission of the data stream to the wireless communication device using a first beam and a simultaneous transmission of a second data stream to another wireless communication device using a second beam , orthogonal to the first beam .
A method, carried out by at least one apparatus, the method comprising: - illuminating at least some of the items of laundry which are located in a laundry container of a washing machine and are to be subjected to a washing process; - determining color information that is indicative of one or more colors of at least some of the illuminated items of laundry that are located in the laundry container of the washing machine ; and - checking , based at least in part on the determined color information, whether a potentially undesirable item of laundry is located in the laundry container of the washing machine . - the potentially undesirable item of laundry being an item of laundry which is not desired in a washing process and/or which is not to be washed together with other items of laundry, - the illumination being provided by at least one lighting unit and/or the color information being determined by at least one detector unit , - the method being characterized in that the method further comprises: - thoroughly mixing the items of laundry that are located in the laundry container of the washing machine before the washing process begins, in particular at least temporarily during illuminating and/or determining the color information - establishing that a potentially undesirable item of laundry is located in the laundry container of the washing machine when, based on the determined color information, a color difference reaches or exceeds a predefined color difference. - illuminating at least some of the items of laundry which are located in a laundry container of a washing machine and are to be subjected to a washing process; - determining color information that is indicative of one or more colors of at least some of the illuminated items of laundry that are located in the laundry container of the washing machine ; and - checking , based at least in part on the determined color information, whether a potentially undesirable item of laundry is located in the laundry container of the washing machine . - the potentially undesirable item of laundry being an item of laundry which is not desired in a washing process and/or which is not to be washed together with other items of laundry, - the illumination being provided by at least one lighting unit and/or the color information being determined by at least one detector unit , - the method being characterized in that the method further comprises: - thoroughly mixing the items of laundry that are located in the laundry container of the washing machine before the washing process begins, in particular at least temporarily during illuminating and/or determining the color information - establishing that a potentially undesirable item of laundry is located in the laundry container of the washing machine when, based on the determined color information, a color difference reaches or exceeds a predefined color difference.
Sole for a safety shoe , comprising a closed outsole which comprises polyurethane, thermoplastic polyurethane, and/or rubber or a combination of at least two of the aforementioned materials, wherein the outsole has an outer surface and an inner surface, further comprising an insole and a midsole made of polyurethane which is arranged between the outsole and the insole , wherein - the inner surface of the outsole is connected to the midsole at least in sections, - the midsole at least partly surrounds a damping material which comprises expanded thermoplastic polyurethane and/or expanded thermoplastic polyethylene, wherein a continuous layer of the midsole is arranged between the outsole and the damping material , and - the insole is at least indirectly connected to the midsole and at least partly covers the damping material , wherein the midsole covers at least a part of the damping material , preferably at least 40% of a side area of the damping material in at least a side area of the sole , wherein the midsole does not cover the damping material in at least a part of a side area of the sole by means of an intersole breakthrough in the rear heel side region and by means of an intersole breakthrough in the front heel side region , and wherein the damping material - is a continuous moulded part which extends over 60 to 90% of the total length of the sole, or - represents an arrangement of a plurality of small moulded parts with an extension of at least 1 cm. - the inner surface of the outsole is connected to the midsole at least in sections, - the midsole at least partly surrounds a damping material which comprises expanded thermoplastic polyurethane and/or expanded thermoplastic polyethylene, wherein a continuous layer of the midsole is arranged between the outsole and the damping material , and - the insole is at least indirectly connected to the midsole and at least partly covers the damping material , wherein the midsole covers at least a part of the damping material , preferably at least 40% of a side area of the damping material in at least a side area of the sole , wherein the midsole does not cover the damping material in at least a part of a side area of the sole by means of an intersole breakthrough in the rear heel side region and by means of an intersole breakthrough in the front heel side region , and wherein the damping material - is a continuous moulded part which extends over 60 to 90% of the total length of the sole, or - represents an arrangement of a plurality of small moulded parts with an extension of at least 1 cm.
An air-to-water heat pump system comprising: a heat pump comprising a compressor , a condenser , an expansion device , and an evaporator ; a wind turbine being able to rotate on a rotational axis (X) by the action of the wind; an impeller being operable to rotate on the same axis as the rotational axis of the wind turbine to create an air flow passing through the evaporator; characterized in that the system further comprises a motor/generator having a shaft where the impeller is rotatably mounted; and the impeller is associated with the wind turbine in such a way that, the impeller can selectively rotate independently or together with the wind turbine; when the impeller rotates independently with the wind turbine, the motor/generator performs as a motor to drive the impeller, and when the impeller rotates together with the wind turbine, the motor/generator performs as a generator to generate electricity. a heat pump comprising a compressor , a condenser , an expansion device , and an evaporator ; a wind turbine being able to rotate on a rotational axis (X) by the action of the wind; an impeller being operable to rotate on the same axis as the rotational axis of the wind turbine to create an air flow passing through the evaporator; characterized in that the system further comprises a motor/generator having a shaft where the impeller is rotatably mounted; and the impeller is associated with the wind turbine in such a way that, the impeller can selectively rotate independently or together with the wind turbine; when the impeller rotates independently with the wind turbine, the motor/generator performs as a motor to drive the impeller, and when the impeller rotates together with the wind turbine, the motor/generator performs as a generator to generate electricity.