mhurhangee/ep-ind-claims huggingface dataset:
A control arrangement for controlling at least two azimuthing propulsion units of a ship, comprising: one or more levers for controlling the at least two azimuthing propulsion units separately or jointly; a crash stop activation member for activating a crash stop procedure; means for performing the crash stop procedure in which the orientation and propulsion speed of the azimuthing propulsion units are controlled until the propagation speed of the ship has at least been reduced from the moment when the crash stop procedure was activated by the crash stop activation member, characterized in that the control arrangement is configured to adjust the crash stop procedure, by adjusting orientation and/or propulsion power of at least one azimuthing propulsion unit according to an operator control gesture received on the one or more levers during the crash stop procedure. one or more levers for controlling the at least two azimuthing propulsion units separately or jointly; a crash stop activation member for activating a crash stop procedure; means for performing the crash stop procedure in which the orientation and propulsion speed of the azimuthing propulsion units are controlled until the propagation speed of the ship has at least been reduced from the moment when the crash stop procedure was activated by the crash stop activation member, characterized in that the control arrangement is configured to adjust the crash stop procedure, by adjusting orientation and/or propulsion power of at least one azimuthing propulsion unit according to an operator control gesture received on the one or more levers during the crash stop procedure.
Male connector, comprising a first connector body provided to be inserted into a second connector body of a female connector, said first connector body comprising electrical contacts (54, 56) extending towards the free insertion end of said first connector body and being provided with free end portions that are elastically deformable, and a plug portion extending in the insertion direction of said first connector body, said plug portion being provided with first hook-like extensions at its free end extending radially outward, said first hook-like extensions being arranged to cover the free end portions of the electrical contacts (54, 56) of said first connector body which are elastically biased outwardly to engage said first hook-like extensions, characterized in that said plug portion of said first connector body comprises a narrowing portion that narrows its cross section towards the insertion end of said plug portion, said narrowing portion being defined by wedge surfaces for supporting the electrical contacts (54, 56) of said first connector body in the assembled state of said first connector body and said second connector body.
An Organic Light Emitting Diode display, comprising: at least one row address bus, at least one column address bus, a common power supply voltage, a common cathode terminal, a Pulse Width Modulation voltage signal generator, and at least a sub-pixel circuit, the sub-pixel circuit including a first thin film transistor, a second thin film transistor, a third thin film transistor, a fourth thin film transistor, a storage capacitor, and an Organic Light Emitting Diode pixel, wherein said first thin film transistor is coupled by its gate to the row address bus, coupled by one of its source and drain to the column address bus, and by the other of the source and drain to one terminal of said storage capacitor and to one of the source and drain of said third thin film transistor; said storage capacitor is connected by its other terminal to the common power supply voltage and to one of the source and drain of the second thin film transistor; said Organic Light Emitting Diode is coupled by its cathode to the common cathode terminal, and by its anode to the other of the source and drain of the second thin film transistor, and to one of the source and drain of the fourth thin film transistor; said second thin film transistor is coupled by its gate to the other of the source and drain of the third thin film transistor, and to the other of the source and drain of the fourth thin film transistor; and said third thin film transistor and said fourth thin film transistor are both coupled by their gates to the means for generating a Pulse Width Modulation signal and wherein said third thin film transistor and said fourth thin film transistor are arranged to shut off the third thin film transistor and turn on the fourth thin film transistor in response to the pulse width modulation signal being high.
A safety harness (100, 200, 300,400, 500, 600), comprising: a dorsal pad assembly (110, 210, 310, 410, 510, 610) comprising a D-ring (113, 213, 313, 413, 513, 613); at least one of a waist belt and a hip pad (106, 220, 420, 420, 520, 620); shoulder straps (102, 103) interconnecting the dorsal pad assembly and the at least one of the waist belt and the hip pad; and a semi-rigid to rigid weight distribution assembly including a support assembly interconnecting the dorsal pad assembly and the at least one of the waist belt and the hip pad, the weight distribution assembly being configured and arranged such that when in use weight is added to the D-ring of the dorsal pad assembly, the weight distribution assembly is loaded in compression and transfers a majority of the weight from proximate the dorsal pad assembly and thereby proximate the shoulder straps to proximate the at least one of the waist belt and the hip pad. a dorsal pad assembly (110, 210, 310, 410, 510, 610) comprising a D-ring (113, 213, 313, 413, 513, 613); at least one of a waist belt and a hip pad (106, 220, 420, 420, 520, 620); shoulder straps (102, 103) interconnecting the dorsal pad assembly and the at least one of the waist belt and the hip pad; and a semi-rigid to rigid weight distribution assembly including a support assembly interconnecting the dorsal pad assembly and the at least one of the waist belt and the hip pad, the weight distribution assembly being configured and arranged such that when in use weight is added to the D-ring of the dorsal pad assembly, the weight distribution assembly is loaded in compression and transfers a majority of the weight from proximate the dorsal pad assembly and thereby proximate the shoulder straps to proximate the at least one of the waist belt and the hip pad.
A method for synchronizing time between a master hardware clock and one or more client hardware clocks, the method comprising: receiving, by one or more processors of a client hardware clock, a time sync message; performing, by the one or more processors, a validity check on the time sync message; updating, by the one or more processors, a time of the client hardware clock in response to the received time sync message passing the validity check; incrementing, by the one or more processors, a valid update count in response to the received time sync message passing the validity check; and locking, by the one or more processors, the time of the client hardware clock to be within a threshold range from the master hardware clock, in response to the valid update count incrementing above a threshold. receiving, by one or more processors of a client hardware clock, a time sync message; performing, by the one or more processors, a validity check on the time sync message; updating, by the one or more processors, a time of the client hardware clock in response to the received time sync message passing the validity check; incrementing, by the one or more processors, a valid update count in response to the received time sync message passing the validity check; and locking, by the one or more processors, the time of the client hardware clock to be within a threshold range from the master hardware clock, in response to the valid update count incrementing above a threshold.
Substrate comprising a surface, at least part of which is coated with an epilamization agent, characterized in that said epilamization agent comprises at least one compound in the form of a block copolymer comprising at least one block of M units linked by covalent bonds by their main chains, and at least one block of N units linked by covalent bonds by their main chains, said blocks being connected to each other by covalent bonds by their main chains in linear sequences, where: M is N is where R 1, R 2, which may be identical or different, are H, a C 1 -C 10 alkyl group, a C 1 -C 10 alkenyl group, and preferably H, a CH 3 group Y, X, which may be identical or different, are spacer arms formed of a heteroatom or of a linear or branched hydrocarbon chain comprising at least one carbon atom, and that may contain at least one heteroatom A forms an anchoring moiety to the substrate, and the block of M units comprises at least two different A moieties thioethers and alkoxysi lanes L, which may be identical or different, is a halogenated, preferably fluorinated, C 1 -C 20 carbon moiety. where R 1, R 2, which may be identical or different, are H, a C 1 -C 10 alkyl group, a C 1 -C 10 alkenyl group, and preferably H, a CH 3 group Y, X, which may be identical or different, are spacer arms formed of a heteroatom or of a linear or branched hydrocarbon chain comprising at least one carbon atom, and that may contain at least one heteroatom A forms an anchoring moiety to the substrate, and the block of M units comprises at least two different A moieties thioethers and alkoxysi lanes L, which may be identical or different, is a halogenated, preferably fluorinated, C 1 -C 20 carbon moiety.
A method of manufacturing a filter for filtering fluids, wherein the filter comprises a filter body formed of a porous filtration material and a plastic support structure, the filter defining horizontal and vertical axes, the porous filtration material having a first portion and a second portion and the method comprising: performing a first additive manufacturing step to form an initial portion of the support structure; positioning the first portion of the porous filtration material above or on the initial portion of the support structure; performing a second additive manufacturing step to form a secondary portion of the support structure as a continuation of the initial portion of the support structure such that the first portion of the porous filtration material is positioned between the initial and secondary portions (18, 22), thereby joining the initial and secondary portions (18, 22) together through the porous filtration material and joining the support structure to the first portion of the porous filtration material; positioning the first portion of the porous filtration material to overlay the second portion of the porous filtration material; and connecting the first portion of the porous filtration material to the second portion of the porous filtration material at a seam to define a pocket within the filter body between the first portion and the second portion of the porous filtration material, the support structure configured to maintain spacing between the first and second portions (24, 26) of the filtration material. performing a first additive manufacturing step to form an initial portion of the support structure; positioning the first portion of the porous filtration material above or on the initial portion of the support structure; performing a second additive manufacturing step to form a secondary portion of the support structure as a continuation of the initial portion of the support structure such that the first portion of the porous filtration material is positioned between the initial and secondary portions (18, 22), thereby joining the initial and secondary portions (18, 22) together through the porous filtration material and joining the support structure to the first portion of the porous filtration material; positioning the first portion of the porous filtration material to overlay the second portion of the porous filtration material; and connecting the first portion of the porous filtration material to the second portion of the porous filtration material at a seam to define a pocket within the filter body between the first portion and the second portion of the porous filtration material, the support structure configured to maintain spacing between the first and second portions (24, 26) of the filtration material.
Housing structure for being fastened to a car body of a rail vehicle with - a first housing module to accommodate rail vehicle equipment and - a second housing module adjacent to the first housing module to accommodate rail vehicle equipment, wherein the first housing module and the second housing module are arranged spaced apart from each other with a gap, and wherein at least one sealing profile (300, 400) running at least in sections along the gap is provided for sealing the gap between the first housing module and the second housing module at least in sections, characterised in that the at least one sealing profile (300, 400) is designed in such a way that the sealing profile (300, 400) permits a relative movement of the first housing module and of the second housing module, wherein the at least one sealing profile (300, 400) comprises a bent sheet (301, 401) for covering the gap at least in sections, wherein the sheet (301, 401) of the sealing profile (300, 400) is bent as seen in cross-section in such a way that stretching and/or compression of the sealing profile (300, 400) across the gap is enabled. - a first housing module to accommodate rail vehicle equipment and - a second housing module adjacent to the first housing module to accommodate rail vehicle equipment,
A method of controlling at a network server a characteristic of data to be sent to a cellular telecommunications base station for transmission to a mobile user terminal by: generating in the mobile user terminal a feedback signal representing sparse feedback, sending the feedback signal representing sparse feedback to the base station, forwarding the signal to the network server, and in the network server determining the sparse feedback from the feedback signal, and adjusting a characteristic of data to be sent dependent on the sparse feedback characterised in that the sparse feedback is a repetitive heartbeat signal, the repetitive heartbeat signal being a periodic signal indicating correct functioning; and the network server (4, 26) adjusts the characteristic dependent on determining the heartbeat signal in the feedback signal by continuing to undertake at least one of sending data to a buffer in the base station and sending permission to the buffer to send the data over the wireless link. generating in the mobile user terminal a feedback signal representing sparse feedback, sending the feedback signal representing sparse feedback to the base station, forwarding the signal to the network server, and in the network server determining the sparse feedback from the feedback signal, and adjusting a characteristic of data to be sent dependent on the sparse feedback characterised in that the sparse feedback is a repetitive heartbeat signal, the repetitive heartbeat signal being a periodic signal indicating correct functioning; and the network server (4, 26) adjusts the characteristic dependent on determining the heartbeat signal in the feedback signal by continuing to undertake at least one of sending data to a buffer in the base station and sending permission to the buffer to send the data over the wireless link.
A laundry washing and drying machine, comprising a drying compartment and a condensing passage in fluid communication with the drying compartment, wherein along an air flowing direction, the condensing passage has an inlet connected to the drying compartment and an outlet at a position higher than that of the inlet, and comprising a control device and a water supply device (12, 14) supplying water to the drying compartment, wherein the control device is set to be capable of controlling the water supply device to supply water to the drying compartment, and execute a washing program; wherein a fluff capturing device is disposed on an inner wall surface of the condensing passage, characterized in that the fluff capturing device comprises multiple adjacently disposed grooves and protrusions, wherein the condensing passage is provided with a water supply channel, and a position of the water supply channel is higher than that of the fluff capturing device, wherein an extension direction of each of the grooves is substantially perpendicular to a direction of an airflow that flows through a position at which the groove is located, and the multiple grooves and the multiple protrusions are alternately disposed.
A pharmaceutical composition comprising a) a polypeptide comprising a hybrid C-terminal OspA (outer surface protein A of Borrelia) fragment, wherein the hybrid C-terminal OspA fragment consists of a first and a second OspA portion from two different Borrelia strains, wherein the hybrid C-terminal OspA fragment differs from the corresponding wild-type fragment at least by the introduction of at least one disulfide bond, and wherein the hybrid C-terminal OspA fragment is further defined by SEQ ID NO: 1, optionally comprising at most 10 further mutations, b) optionally, a pharmaceutically acceptable excipient. a) a polypeptide comprising a hybrid C-terminal OspA (outer surface protein A of Borrelia) fragment, wherein the hybrid C-terminal OspA fragment consists of a first and a second OspA portion from two different Borrelia strains, wherein the hybrid C-terminal OspA fragment differs from the corresponding wild-type fragment at least by the introduction of at least one disulfide bond, and wherein the hybrid C-terminal OspA fragment is further defined by SEQ ID NO: 1, optionally comprising at most 10 further mutations, b) optionally, a pharmaceutically acceptable excipient.
A fuel rod comprising an elongated tubular cladding and a plurality of high density fuel units for a nuclear reactor, wherein each of said fuel units is arranged in said elongated tubular cladding of said fuel rod, wherein the high density fuel unit comprises an outer surface which together with an outer surface of at least one further high density fuel unit in a transverse plane of the cladding form a continuous outer circular surface in contact with a surrounding inner surface of the cladding and an inner surface designed to be located at least partly at a distance from an inner surface of the at least one further high density fuel unit in said transverse plane such that an empty space is formed between the high density fuel units which is configured to receive swelling portions of the high density fuel units under irradiation, wherein said high density fuel units contain a fuel having a higher uranium density than pure uranium dioxide, and wherein the fuel rod comprises a positioning element arranged in said empty space in contact with an inner surface of each high density fuel unit in said transverse plane.
A flow sensor assembly comprising: a housing defining: an inlet port; an outlet port; a main channel having a main channel input and a main channel output; a bypass channel having a bypass channel input and a bypass channel output; an inlet flow channel fluidly connecting the inlet port of the flow sensor assembly to the main channel input; an outlet flow channel fluidly connecting the main channel output to the outlet port of the flow sensor assembly; a bypass feeder input channel fluidly connecting the main channel input to the bypass channel input; a bypass feeder output channel fluidly connecting the bypass channel output to the main channel output; a sensor exposed to a fluid in the bypass channel and configured to sense a measure related to a flow rate of the fluid flowing through the bypass channel; characterized in that the inlet flow channel, the outlet flow channel, and the main channel are configured with a shape, a cross-sectional area and a length so that a combined pneumatic resistance of the inlet flow channel and the outlet flow channel is at least two times greater than a pneumatic resistance of the main channel. a housing defining: an inlet port; an outlet port; a main channel having a main channel input and a main channel output; a bypass channel having a bypass channel input and a bypass channel output; an inlet flow channel fluidly connecting the inlet port of the flow sensor assembly to the main channel input; an outlet flow channel fluidly connecting the main channel output to the outlet port of the flow sensor assembly; a bypass feeder input channel fluidly connecting the main channel input to the bypass channel input; a bypass feeder output channel fluidly connecting the bypass channel output to the main channel output; an inlet port; an outlet port; a main channel having a main channel input and a main channel output; a bypass channel having a bypass channel input and a bypass channel output; an inlet flow channel fluidly connecting the inlet port of the flow sensor assembly to the main channel input; an outlet flow channel fluidly connecting the main channel output to the outlet port of the flow sensor assembly; a bypass feeder input channel fluidly connecting the main channel input to the bypass channel input; a bypass feeder output channel fluidly connecting the bypass channel output to the main channel output; a sensor exposed to a fluid in the bypass channel and configured to sense a measure related to a flow rate of the fluid flowing through the bypass channel; characterized in that the inlet flow channel, the outlet flow channel, and the main channel are configured with a shape, a cross-sectional area and a length so that a combined pneumatic resistance of the inlet flow channel and the outlet flow channel is at least two times greater than a pneumatic resistance of the main channel.
A tire having a tread comprising at least two radially superposed portions which comprise a radially external portion intended to come into contact with ground during rolling, the radially external portion being made of a first rubber composition, and a radially internal portion made of a second rubber composition which is different from the first rubber composition; wherein the first rubber composition is based on at least: - an elastomer matrix; - a reinforcing filler comprising between 80 and 200 phr of a reinforcing inorganic filler; and - a plasticizing agent comprising 0 to less than 10 phr of a liquid phosphate plasticizer having a glass transition temperature of less than -80°C; wherein the second rubber composition is based on at least: - an elastomer matrix; - a reinforcing filler comprising 20 to 200 phr of a reinforcing inorganic filler; and - a plasticizing agent comprising between 5 and 100 phr of a liquid phosphate plasticizer having a glass transition temperature of less than -80°C; wherein the amount in phr of the liquid phosphate plasticizer in the first rubber composition is lower than that in the second rubber composition. - an elastomer matrix; - a reinforcing filler comprising between 80 and 200 phr of a reinforcing inorganic filler; and - a plasticizing agent comprising 0 to less than 10 phr of a liquid phosphate plasticizer having a glass transition temperature of less than -80°C; - an elastomer matrix; - a reinforcing filler comprising 20 to 200 phr of a reinforcing inorganic filler; and - a plasticizing agent comprising between 5 and 100 phr of a liquid phosphate plasticizer having a glass transition temperature of less than -80°C;