mhurhangee/patent-ind-claim-en huggingface dataset:
Multiwell imaging plate for incubating monolayers of non-adherent cells , the plate including multiple wells, wherein at least some of the wells comprise: a first chamber , the first chamber being formed by one or more first sidewalls and a bottom wall ; a second chamber , the second chamber being formed by one or more second sidewalls and including an opening for introducing liquids, wherein the second chamber is arranged on top of the first chamber ; an intermediate floor provided between the first chamber and the second chamber which forms a disturbance blocking structure; wherein the intermediate floor is provided with at least one through hole that provides a liquid connection between the first and second chambers ; wherein the through hole is configured for a tip of a pipette being inserted through the second chamber into the first chamber through said through hole . a first chamber , the first chamber being formed by one or more first sidewalls and a bottom wall ; a second chamber , the second chamber being formed by one or more second sidewalls and including an opening for introducing liquids, wherein the second chamber is arranged on top of the first chamber ; an intermediate floor provided between the first chamber and the second chamber which forms a disturbance blocking structure; wherein the intermediate floor is provided with at least one through hole that provides a liquid connection between the first and second chambers ; wherein the through hole is configured for a tip of a pipette being inserted through the second chamber into the first chamber through said through hole .
An air conditioner outdoor unit , comprising a casing , a main electric control box disposed in the casing , a spot inspection box installed at an outer surface of a side wall of the casing and connected to the main electric control box with a signal wire , and a decorating piece installed detachably at the outer surface of the side wall of the casing and covering the spot inspection box , wherein the spot inspection box comprises: a spot inspection box body installed at the outer surface of the side wall of the casing ; a spot inspection main panel disposed in the spot inspection box body and connected to the main electric control box with a signal wire ; and a spot inspection box cover installed slidably between a cover-opening position where the spot inspection main panel is uncovered and a cover-closing position where the spot inspection main panel is covered. a spot inspection box body installed at the outer surface of the side wall of the casing ; a spot inspection main panel disposed in the spot inspection box body and connected to the main electric control box with a signal wire ; and a spot inspection box cover installed slidably between a cover-opening position where the spot inspection main panel is uncovered and a cover-closing position where the spot inspection main panel is covered.
A winding core (100, 100', 100") for producing blade ends (200, 200' 200", 290, 290', 290") for rotor blades (1108, 500, 500', 500") of wind power installations , comprising - a first section (110, 110', 110") with a first end for forming a hub connection geometry (211, 211', 211") for connecting the blade end (200, 200', 200", 290, 290', 290") to a rotor hub, - a second section with a second end for forming an outer blade connection geometry for connecting the blade end (200, 200', 200", 290, 290', 290") to an outer blade (400, 400"), - wherein it is possible by exchanging or completely or partially removing the first section (110. 100', 110") to vary a longitudinal extent (LA1) of the winding core (100, 100', 100") and/or a diameter (D) of the first section (110, 110', 110") and/or a shape of the first section (110, 110', 110") such that blade ends produced therewith (200, 200', 200", 290, 290', 290") are suitable for wind power installations with different rotor diameters, wherein - the first section (110, 110', 110") comprises two, three or more winding core segments , and - with the removal of one or more winding core segments , a first end of a remaining winding core segment is used for forming the hub connection geometry (211, 211', 211"). - a first section (110, 110', 110") with a first end for forming a hub connection geometry (211, 211', 211") for connecting the blade end (200, 200', 200", 290, 290', 290") to a rotor hub, - a second section with a second end for forming an outer blade connection geometry for connecting the blade end (200, 200', 200", 290, 290', 290") to an outer blade (400, 400"), - wherein it is possible by exchanging or completely or partially removing the first section (110. 100', 110") to vary a longitudinal extent (LA1) of the winding core (100, 100', 100") and/or a diameter (D) of the first section (110, 110', 110") and/or a shape of the first section (110, 110', 110") such that blade ends produced therewith (200, 200', 200", 290, 290', 290") are suitable for wind power installations with different rotor diameters, wherein - the first section (110, 110', 110") comprises two, three or more winding core segments , and - with the removal of one or more winding core segments , a first end of a remaining winding core segment is used for forming the hub connection geometry (211, 211', 211").
Vesicles comprising: a membrane containing a first polymer, which is a block copolymer having an uncharged hydrophilic segment and a first charged segment, and a second polymer, which has a second charged segment charged oppositely to the first charged segment, said membrane defining a cavity surrounded thereby; and a charged substance encapsulated in the cavity, wherein, for each vesicle, the first polymer is a block copolymer containing an uncharged hydrophilic segment and an anionic segment, and the second polymer is a block copolymer containing an uncharged hydrophilic segment and a cationic segment and/or a polymer containing a cationic segment but no uncharged hydrophilic segment, or wherein, for each vesicle, the first polymer is a block copolymer containing an uncharged hydrophilic segment and a cationic segment, and the second polymer is a block copolymer containing an uncharged hydrophilic segment and an anionic segment and/or a polymer containing an anionic segment but no uncharged hydrophilic segment, wherein the charged substance is a biomolecule selected from proteins, polypeptides, amino acids, nucleic acids, lipids, carbohydrates, and derivatives thereof; wherein the vesicles are produced by providing a vacant vesicle having a membrane containing the first polymer and the second polymer, and mixing the vacant vesicle and the charged substance in an aqueous medium, and wherein the vesicles are uniform. a membrane containing a first polymer, which is a block copolymer having an uncharged hydrophilic segment and a first charged segment, and a second polymer, which has a second charged segment charged oppositely to the first charged segment, said membrane defining a cavity surrounded thereby; and a charged substance encapsulated in the cavity, wherein, for each vesicle, the first polymer is a block copolymer containing an uncharged hydrophilic segment and an anionic segment, and the second polymer is a block copolymer containing an uncharged hydrophilic segment and a cationic segment and/or a polymer containing a cationic segment but no uncharged hydrophilic segment, or wherein, for each vesicle, the first polymer is a block copolymer containing an uncharged hydrophilic segment and a cationic segment, and the second polymer is a block copolymer containing an uncharged hydrophilic segment and an anionic segment and/or a polymer containing an anionic segment but no uncharged hydrophilic segment, wherein the charged substance is a biomolecule selected from proteins, polypeptides, amino acids, nucleic acids, lipids, carbohydrates, and derivatives thereof; wherein the vesicles are produced by providing a vacant vesicle having a membrane containing the first polymer and the second polymer, and mixing the vacant vesicle and the charged substance in an aqueous medium, and wherein the vesicles are uniform.
A device for pressurising a downstream enclosure of a turbomachine with a longitudinal axis X, which is supplied by means of a pressurisation air flow (FP), the device comprising: - a first shaft segment extending along the longitudinal axis X, - a second shaft segment coupled to the first shaft segment via longitudinal internal splines carried by the first shaft segment and longitudinal external splines carried by the second shaft segment , the second shaft segment extending at least partly inside the first shaft segment with a radial distance along a radial axis Z perpendicular to the longitudinal axis X, the internal and external splines comprising faces respectively, - at least one first passage made through the internal and external splines , and - at least one orifice passing through the second shaft segment on either side along the radial axis, characterized in that the pressurisation air flow (FP) is collected upstream of the turbomachine along the longitudinal axis, the orifice being arranged upstream of the first passage and, on the one hand, being in fluidic communication with the first passage and, on the other hand, opening out inside the second shaft segment so as to allow the circulation of the pressurisation air flow (FP) from the first passage between the first shaft segment and the second shaft segment , then through the orifice towards the downstream enclosure of the turbomachine and in that the internal and external splines are configured so as to create pairs of internal and external splines adjacently along a circumferential direction, with faces in contact with each other, and empty inter-spline spaces forming first passages . - a first shaft segment extending along the longitudinal axis X, - a second shaft segment coupled to the first shaft segment via longitudinal internal splines carried by the first shaft segment and longitudinal external splines carried by the second shaft segment , the second shaft segment extending at least partly inside the first shaft segment with a radial distance along a radial axis Z perpendicular to the longitudinal axis X, the internal and external splines comprising faces respectively, - at least one first passage made through the internal and external splines , and - at least one orifice passing through the second shaft segment on either side along the radial axis,
A floating solar-powered multi-unit fish cage , comprising (i) a floating planar grid , the grid defining at least two grid interspaces , (ii) at least one or more solar units , and (iii) at least one or more fish cages , wherein (a) at least one fish cage is allocated to at least one grid interspace , (b) at least one solar unit is allocated to at least one grid interspace , at least partially or completely covering said grid interspace , thus forming a solar unit-covered grid interspace , (c) at least one solar unit-covered grid interspace partially spans at least one fish cage forming a partially covered fish cage , (d) the partially covered fish cage allows for caged fish to voluntarily position under the at least one, at least partially solar unit-covered grid interspace , and (e) the at least one solar unit-covered grid interspace provides any of a. electric energy, b. protection of fish from direct solar radiation, c. predator protection for fish, for example, from fish-predatory birds, and d. optionally heat to the water in fish cage , or any combination thereof (i) a floating planar grid , the grid defining at least two grid interspaces , (ii) at least one or more solar units , and (iii) at least one or more fish cages , (a) at least one fish cage is allocated to at least one grid interspace , (b) at least one solar unit is allocated to at least one grid interspace , at least partially or completely covering said grid interspace , thus forming a solar unit-covered grid interspace , (c) at least one solar unit-covered grid interspace partially spans at least one fish cage forming a partially covered fish cage , (d) the partially covered fish cage allows for caged fish to voluntarily position under the at least one, at least partially solar unit-covered grid interspace , and (e) the at least one solar unit-covered grid interspace provides any of a. electric energy, b. protection of fish from direct solar radiation, c. predator protection for fish, for example, from fish-predatory birds, and d. optionally heat to the water in fish cage , or any combination thereof a. electric energy, b. protection of fish from direct solar radiation, c. predator protection for fish, for example, from fish-predatory birds, and d. optionally heat to the water in fish cage ,
Method for operating a brake system of a vehicle, in particular motor vehicle , wherein the brake system has at least one electrical actuator , in particular brake booster , which can be actuated to generate a braking force, wherein the actuator can be actuated by an autonomous driving system and depending on an operation of a brake pedal of the vehicle, and wherein an emergency braking process is initiated if the actuator is actuated both by the autonomous driving system and by a brake pedal operation, characterized in that a varying validation signal (VS) is superimposed on the actuation by the autonomous driving system , in that a difference in travel between an actuator element of the actuator and the brake pedal is monitored, and in that the actuation of the actuator by a brake pedal operation during the actuation by the autonomous driving system is identified if the difference in travel varies.
Rail vehicle for passenger transport, having at least two carriages and a gangway connection which is arranged between mutually opposite carriage ends of the two carriages and which comprises a corrugated bellows connected to one of the carriage ends by way of an attachment frame , wherein the attachment frame and the corrugated bellows each have a shell surface with a bottom side, which is offset in relation to a bottom side of a shell surface of the carriage end , top sides of the shell surfaces of the attachment frame and of the corrugated bellows are aligned with a top side of the carriage end and a vertical offset between a bottom side of the shell surface of the attachment frame and a bottom side of the shell surface of the carriage end is compensated by a generally ramp-like component , characterized in that the attachment frame is positioned centrally on the carriage end in a transverse direction of the rail vehicle and an offset between shell surfaces of the carriage end and shell surfaces of the attachment frame is compensated by further ramp-like components .
A method of processing data, the method comprising: receiving, by a texture unit of a graphics processing unit, GPU, and from a shader processor of the GPU, an instruction instructing the texture unit to repeatedly execute operations based on a condition defined in the instruction being satisfied; repeatedly executing, with the texture unit, the operations based on the condition defined in the instruction being satisfied or not being satisfied; reading, with the texture unit, a first texel value during a first iteration of the repeated execution of the operations; determining, with the texture unit, that the condition is satisfied by comparing the first texel value with a variable defined in the instruction; determining, with the texture unit, that a second iteration of execution of the operations is needed based on the determination, wherein repeatedly executing the operations comprises outputting, with the texture unit, an output of the texture unit as a feedback signal to an input of the texture unit based on the determination that the second iteration of execution of the operations is needed, and wherein outputting data comprises outputting the data resulting from the repeated execution of the operations. receiving, by a texture unit of a graphics processing unit, GPU, and from a shader processor of the GPU, an instruction instructing the texture unit to repeatedly execute operations based on a condition defined in the instruction being satisfied; repeatedly executing, with the texture unit, the operations based on the condition defined in the instruction being satisfied or not being satisfied; reading, with the texture unit, a first texel value during a first iteration of the repeated execution of the operations; determining, with the texture unit, that the condition is satisfied by comparing the first texel value with a variable defined in the instruction; determining, with the texture unit, that a second iteration of execution of the operations is needed based on the determination, wherein repeatedly executing the operations comprises outputting, with the texture unit, an output of the texture unit as a feedback signal to an input of the texture unit based on the determination that the second iteration of execution of the operations is needed, and wherein outputting data comprises outputting the data resulting from the repeated execution of the operations.
Heat exchanger comprising a jacket element and an insert element , the jacket element forming a fluid channel for a fluid, flowable medium or fluid mixture to be tempered, wherein the insert element is arranged in the fluid channel, wherein the insert element contains a plurality of web elements that are connected to the jacket element at different locations, wherein the web elements are arranged in at least two web element sets , the web elements of each web element set being arranged essentially parallel to one another, wherein the angles which the web elements of different web element sets enclose with the longitudinal axis of the heat exchanger differ at least partially, wherein at least a portion of the web elements contains web element passages which are in fluid-conducting connection with the jacket element, so that in the operating state a heat transfer fluid, which is fed to the jacket element, can flow through the web elements, wherein the jacket element contains a plurality of chambers for a heat transfer fluid, characterized in that at least one of the chambers is disposed with a plurality of inlet openings and at least two outlet openings or a plurality of outlet openings and at least two inlet openings for the heat transfer fluid, wherein the inlet openings and the outlet openings of at least one of the chambers are arranged such that the heat transfer fluid can flow therethrough transversely with respect to the direction of flow of the fluid.
A tailgate for a vehicle with a handle having a handle portion (10.1) for a user and a connection portion (10.3) connected to an inside surface (1.3) of the tailgate , wherein the connection portion (10.3) is movable along the inside surface (1.3) between a first position (P1) and a second (P2) position, the second position (P2) being lower than the first position (P1) in an open position of the tailgate and the first position (P1) being lower than the second position (P2) in a closed position of the tailgate , wherein the connection portion (10.3) is configured to automatically move to the second position (P2) when the tailgate moves to the open position.
A first device comprising: at least one processor; and at least one memory including computer program codes; the at least one memory and the computer program codes are configured to, with the at least one processor, cause the first device to: transmit, to a second device, information of data rate for integrity protection which is supported by the first device; receive from the second device configuration information of the integrity protection, the configuration information indicating that the integrity protection is performed on a portion of a plurality of data packets which are communicated between the first device and the second device; and apply the integrity protection on the portion of the plurality of data packets based on the configuration information, wherein the first device is caused to apply the integrity protection by: obtaining a sequence number of a protocol data unit; determining to perform the integrity protection of the protocol data unit based on the configuration information and the sequence number; and performing the integrity protection on the portion of the plurality of data packets to be transmitted in the protocol data unit. at least one processor; and at least one memory including computer program codes; the at least one memory and the computer program codes are configured to, with the at least one processor, cause the first device to: transmit, to a second device, information of data rate for integrity protection which is supported by the first device; receive from the second device configuration information of the integrity protection, the configuration information indicating that the integrity protection is performed on a portion of a plurality of data packets which are communicated between the first device and the second device; and apply the integrity protection on the portion of the plurality of data packets based on the configuration information, transmit, to a second device, information of data rate for integrity protection which is supported by the first device; receive from the second device configuration information of the integrity protection, the configuration information indicating that the integrity protection is performed on a portion of a plurality of data packets which are communicated between the first device and the second device; and apply the integrity protection on the portion of the plurality of data packets based on the configuration information, wherein the first device is caused to apply the integrity protection by: obtaining a sequence number of a protocol data unit; determining to perform the integrity protection of the protocol data unit based on the configuration information and the sequence number; and performing the integrity protection on the portion of the plurality of data packets to be transmitted in the protocol data unit. obtaining a sequence number of a protocol data unit; determining to perform the integrity protection of the protocol data unit based on the configuration information and the sequence number; and performing the integrity protection on the portion of the plurality of data packets to be transmitted in the protocol data unit.
Method for determining at least one state of an electrical circuit , the electrical circuit comprising at least: - one electrical stator winding of a polyphase rotating electrical machine, said winding comprising a plurality of electrical phases , said electrical phases not being electrically coupled together, and - one switching system through which the electrical stator winding is powered by a source of electrical energy, method in which: - the switching system is controlled in such a way that the electrical stator winding is passed through by the zero-sequence current, and - depending on whether the electrical stator winding is actually passed through or not by the zero-sequence current, said state of the electrical circuit is determined. - one electrical stator winding of a polyphase rotating electrical machine, said winding comprising a plurality of electrical phases , said electrical phases not being electrically coupled together, and - one switching system through which the electrical stator winding is powered by a source of electrical energy, - the switching system is controlled in such a way that the electrical stator winding is passed through by the zero-sequence current, and - depending on whether the electrical stator winding is actually passed through or not by the zero-sequence current, said state of the electrical circuit is determined.