mhurhangee/ep-ind-claims huggingface dataset:
A vehicle having a braking system comprising a first electrical control circuit and a second electrical control circuit, the first electrical control circuit including a first electrical braking demand signal generator, a first modulator, and a third modulator, the modulators (16a, 16d) each being connected to a source of pressurised fluid, electrically connected to and having an input for receipt of an electrical braking demand signal from the first electrical braking demand signal generator and adapted, on receipt of an electrical braking demand signal, to generate an appropriate pneumatic or hydraulic fluid brake actuation signal for transmission to a fluid operable brake actuator, the first modulator being connected to first brake actuator which is adapted to actuate a brake on a first wheel positioned at a front end and on a first side of the vehicle, and the third modulator being connected to a third fluid operable brake actuator which is adapted to actuate a brake on a third wheel positioned at a rear end and on a second side of the vehicle, the second electrical control circuit including a second electrical braking demand signal generator, a second modulator, and a fourth modulator, the modulators (16b, 16c) being connected to a source of pressurised fluid, electrically connected to and having an input for receipt of an electrical braking demand signal from the second electrical braking demand signal generator and adapted, on receipt of an electrical braking demand signal, to generate an appropriate pneumatic or hydraulic fluid brake actuation signal for transmission to a fluid operable brake actuator, the second modulator being connected to a second brake actuator which is adapted to actuate a brake on a second wheel positioned at a front end and on the second side of the vehicle, and the fourth modulator being connected to a fourth fluid operable brake actuator which is adapted to actuate a brake on a fourth wheel positioned at a rear end and on the first side of the vehicle, the electrical connection between the first electrical braking demand signal generator and the first and third modulators (16a, 16d) being entirely separate from the electrical connection between the second electrical braking demand signal generator and the second and fourth modulators (16b, 16c), wherein the first electrical control circuit does not control modulators associated with the second or fourth wheels (12b, 12c), and the second electrical control circuit does not control modulators associated with the first and third wheels (12a, 12d).
A method of controlling data flow by a centralized unit-control plane, CU-CP, of a gNodeB, the method comprising: selecting a centralized unit-user plane, CU-UP, among multiple CU-UPs connected to the CU-CP through an E1 interface; determining a mapping of a quality of service, QoS, flow to a data radio bearer, DRB; transmitting, to the selected CU-UP connected to the CU-CP through the E1 interface, a bearer context configuration message including information of the determined mapping of the QoS flow to the DRB; wherein the information of the determined mapping of the QoS flow and the DRB includes service data adaptation protocol, SOAP, configuration information of the DRB and a packet data convergence protocol, PDCP, configuration information of the DRB; and, receiving, from the selected CU-UP through the E1 interface, a response to the bearer context configuration message. selecting a centralized unit-user plane, CU-UP, among multiple CU-UPs connected to the CU-CP through an E1 interface; determining a mapping of a quality of service, QoS, flow to a data radio bearer, DRB; transmitting, to the selected CU-UP connected to the CU-CP through the E1 interface, a bearer context configuration message including information of the determined mapping of the QoS flow to the DRB; wherein the information of the determined mapping of the QoS flow and the DRB includes service data adaptation protocol, SOAP, configuration information of the DRB and a packet data convergence protocol, PDCP, configuration information of the DRB; and, receiving, from the selected CU-UP through the E1 interface, a response to the bearer context configuration message.
A method for producing aligned carbon nanotubes and/or nanofibres comprising providing finely divided substrate particles having substantially smooth faces, wherein the surface is smooth over the order of size of catalyst material clusters and wherein the catalyst material clusters are from 0.5 to 100 nm in dimension, the substrate particles having radii of curvature of more than 1 μm and of length and breadth between 1 μm and 5 mm and having catalyst material on their surface and a carbon-containing gas at a temperature between 650 °C and 1250 °C and at a pressure between 0.1 and 50 bar, and forming aligned nanotubes and/or nanofibres by the carbon-forming reaction, wherein the substrate is freshly prepared by colloidal processing, spray-drying, hydrothermal processing, or ball-milling; wherein the catalyst material is a transition metal, an alloy of two or more thereof, a compound of a transition metal or a mixture of two or more compounds of transition metals, in which the transition metal is iron, cobalt, molybdenum or nickel; and wherein the carbon containing gas is carbon monoxide, benzene, toluene, xylene, cumene, ethylbenzene, naphthalene, phenanthrene, anthracene, methane, ethane, propane, hexane, ethylene, propylene, acetylene, formaldehyde, acetaldehyde, acetone, methanol, ethanol or a mixture of two or more thereof.
A power switching cell comprising: - an input port capable of receiving a switching control signal (V IN), - an input transistor (T com) having a gate linked to said input port, and a source linked to a reference voltage (Vss), - a self-biasing circuit comprising a resistor (R pol) and a self-biasing transistor (T pol), a gate of said self-biasing transistor being linked to a drain of said input transistor (T com), the resistor (R pol) being connected in parallel between a gate and a source of said self-biasing transistor (T pol) and in series between a drain of the input transistor and a source of said self-biasing transistor (T pol), - a power transistor (T p), having a gate linked to a source of the self-biasing transistor (T pol), a drain linked to a power supply voltage (V DD), and a source linked to a drain of the self-biasing transistor (T pol), and - an output port, the switching cell being characterised in that it further comprises an isolating transistor (T iso) having a gate linked to a gate of the power transistor (T p), a source linked to a source of the power transistor (T p) and a drain linked to said output port of the cell. - an input port capable of receiving a switching control signal (V IN), - an input transistor (T com) having a gate linked to said input port, and a source linked to a reference voltage (Vss), - a self-biasing circuit comprising a resistor (R pol) and a self-biasing transistor (T pol), a gate of said self-biasing transistor being linked to a drain of said input transistor (T com), the resistor (R pol) being connected in parallel between a gate and a source of said self-biasing transistor (T pol) and in series between a drain of the input transistor and a source of said self-biasing transistor (T pol), - a power transistor (T p), having a gate linked to a source of the self-biasing transistor (T pol), a drain linked to a power supply voltage (V DD), and a source linked to a drain of the self-biasing transistor (T pol), and - an output port,
A method performed by at least one apparatus, said method comprising: obtaining measurement data on a location-specific quantity of a signal transmitted by a transmitter (4-1, 4-2, 4-3); obtaining location information associated with said measurement data on said location-specific quantity, said location information comprising or being representative of a location, at which the measurement data was measured, or an estimate thereof; characterized in that said method further comprises: determining, based on said obtained measurement data and said obtained location information, one or more model parameters of a model describing said location-specific quantity in dependence of location, wherein said model assumes a location dependence of said location-specific quantity in form of a combination of a first location-specific function and a second location-specific function. obtaining measurement data on a location-specific quantity of a signal transmitted by a transmitter (4-1, 4-2, 4-3); obtaining location information associated with said measurement data on said location-specific quantity, said location information comprising or being representative of a location, at which the measurement data was measured, or an estimate thereof; characterized in that said method further comprises: determining, based on said obtained measurement data and said obtained location information, one or more model parameters of a model describing said location-specific quantity in dependence of location, wherein said model assumes a location dependence of said location-specific quantity in form of a combination of a first location-specific function and a second location-specific function.
An inhibitor of aconitase activity which is selected from the group consisting of 1,10-phenanthroline and N-hydroxy-6-octyloxypyridine-2 one ethanolamine salt for use in a method of treating fungi-mediated conditions by inhibiting aconitase activity of fungal cells in an individual by administering the inhibitor of aconitase activity to the fungal cell in an amount effective to inhibit activity of aconitase by said fungal cells.
A construction, preferably modular, comprising: - a living space (81, 82) and a roof topping said living space (81, 82), and - a piece of fall protection equipment coupled to the roof and able to assume an active configuration and an inactive configuration, - inactivation control means configured to command the passage of the piece of fall protection equipment from its active position to its inactive position, - said control means comprising a connection system that is connected to said piece of fall protection equipment and that has a grasping part extending outside the perimeter of the roof to be able to be grasped by a user from outside the construction, characterized in that - the connection system is a flexible connection system, and - the construction also comprises return means for returning the piece of fall protection equipment from its inactive position to its active position. - a living space (81, 82) and a roof topping said living space (81, 82), and - a piece of fall protection equipment coupled to the roof and able to assume an active configuration and an inactive configuration, - inactivation control means configured to command the passage of the piece of fall protection equipment from its active position to its inactive position, - said control means comprising a connection system that is connected to said piece of fall protection equipment and that has a grasping part extending outside the perimeter of the roof to be able to be grasped by a user from outside the construction, - the connection system is a flexible connection system, and - the construction also comprises return means for returning the piece of fall protection equipment from its inactive position to its active position.
A mold-tool system, comprising: an assembly and a runner assembly supporting the assembly, the runner assembly being configured to provide an access portal configured to permit access to the assembly by a removal assembly, so that the assembly may be removed from the runner assembly and replaced, the assembly including a position-adjustment assembly being configured to displace a stem-actuation plate connected with a stem assembly of a nozzle assembly, thereby adjusting an amount of stem protrusion of the stem assembly relative to a mold assembly; and the runner assembly supporting actuatable movement of the stem-actuation plate, and the access portal being configured to permit access to the position-adjustment assembly, the access portal further being configured to permit access to the assembly in situ, for a case where the runner assembly is operatively mounted to a molding system, characterized in that in situ includes a backing plate defining the access portal, and the access portal is configured to permit access to the position-adjustment assembly by using the removal assembly without having to disassemble the stem-actuation plate and the stem assembly, and the position-adjustment assembly is accessible and replaceable from a back side of the backing plate of the runner assembly. an assembly and a runner assembly supporting the assembly, the runner assembly being configured to provide an access portal configured to permit access to the assembly by a removal assembly, so that the assembly may be removed from the runner assembly and replaced, the assembly including a position-adjustment assembly being configured to displace a stem-actuation plate connected with a stem assembly of a nozzle assembly, thereby adjusting an amount of stem protrusion of the stem assembly relative to a mold assembly; and the runner assembly supporting actuatable movement of the stem-actuation plate, and the access portal being configured to permit access to the position-adjustment assembly, the access portal further being configured to permit access to the assembly in situ, for a case where the runner assembly is operatively mounted to a molding system, characterized in that in situ includes a backing plate defining the access portal, and the access portal is configured to permit access to the position-adjustment assembly by using the removal assembly without having to disassemble the stem-actuation plate and the stem assembly, and the position-adjustment assembly is accessible and replaceable from a back side of the backing plate of the runner assembly.
Method for producing a plurality of radiation-emitting and/or radiation-receiving semiconductor devices each comprising - a radiation-emitting and/or radiation-receiving semiconductor chip, - a plastics molded part, which is transmissive to electromagnetic radiation to be emitted and/or received by the semiconductor device, consists of a reaction-curing silicone molding composition and with which the semiconductor chip is at least partly encapsulated, and - external electrical terminals (11, 111, 12, 112), which are electrically connected to electrical contact faces of the semiconductor chip, characterized in that - each semiconductor chip is fastened to a metallic leadframe, a carrier substrate or a carrier foil, which comprises the external electrical terminals (11, 111, 12, 112), - each semiconductor chip, including sub-regions of the leadframe, of the carrier substrate or of the carrier foil, is introduced into a cavity of an injection mold, - the silicone molding composition is injected into the cavity using an injection molding method or a transfer molding method, and - the silicone molding composition is at least partly cured in the cavity, such that the dimensionally stable plastics molded part is formed. - a radiation-emitting and/or radiation-receiving semiconductor chip, - a plastics molded part, which is transmissive to electromagnetic radiation to be emitted and/or received by the semiconductor device, consists of a reaction-curing silicone molding composition and with which the semiconductor chip is at least partly encapsulated, and - external electrical terminals (11, 111, 12, 112), which are electrically connected to electrical contact faces of the semiconductor chip, - each semiconductor chip is fastened to a metallic leadframe, a carrier substrate or a carrier foil, which comprises the external electrical terminals (11, 111, 12, 112), - each semiconductor chip, including sub-regions of the leadframe, of the carrier substrate or of the carrier foil, is introduced into a cavity of an injection mold, - the silicone molding composition is injected into the cavity using an injection molding method or a transfer molding method, and - the silicone molding composition is at least partly cured in the cavity, such that the dimensionally stable plastics molded part is formed.
Spatula, in particular for kitchen appliances, comprising a handle part and a working part having two working part sides that are opposed with respect to a longitudinal axis of the spatula, characterised in that a working indentation is arranged on each of the two working part sides and in that at least one working indentation comprises a groove-like tapered portion on the side closest to the handle part, the width of which, transverse to the longitudinal axis of the spatula, in an inlet region in the remaining region of the working indentation corresponds to half or less of the greatest width of the working indentation.
A vehicle, comprising: a cab having a door opening on a side thereof; a chassis that supports the cab; two or more steps (144, 152) leading to the door opening, each of which is supported by the cab or the chassis, wherein the two or more steps (144,152) are placed within one or more recesses (142, 150) in the cab or chassis; a door connected to the cab, wherein the door fits within the door opening, and the door comprises a main door portion and a lower door extension having a lower edge that terminates near to an upper surface of a lowermost step, the lower door extension covers a majority of the one or more recesses (142, 150), and the lower door extension extends outboard to match the outboard extension of a fender or exterior cab side panel to provide a coplanar transition from the fender to the door, or from the door to the exterior cab side panel, or both, wherein the lower door extension is integral with the main door portion; and characterized in that the vehicle further comprises a gap between a lowermost edge of an exterior cab side panel on the cab and a chassis fairing supported on the chassis, wherein the gap extends along the side of the cab and the chassis fairing at least from the rear of the lower door extension to an end of the cab, and wherein the gap is angled greater than 0 degrees with respect to a horizontal direction. a cab having a door opening on a side thereof; a chassis that supports the cab; two or more steps (144, 152) leading to the door opening, each of which is supported by the cab or the chassis, wherein the two or more steps (144,152) are placed within one or more recesses (142, 150) in the cab or chassis; a door connected to the cab, wherein the door fits within the door opening, and the door comprises a main door portion and a lower door extension having a lower edge that terminates near to an upper surface of a lowermost step, the lower door extension covers a majority of the one or more recesses (142, 150), and the lower door extension extends outboard to match the outboard extension of a fender or exterior cab side panel to provide a coplanar transition from the fender to the door, or from the door to the exterior cab side panel, or both, wherein the lower door extension is integral with the main door portion; and characterized in that the vehicle further comprises a gap between a lowermost edge of an exterior cab side panel on the cab and a chassis fairing supported on the chassis, wherein the gap extends along the side of the cab and the chassis fairing at least from the rear of the lower door extension to an end of the cab, and wherein the gap is angled greater than 0 degrees with respect to a horizontal direction.
An unmodified graft for use in a method of treating one or more disease(s) treatable by transplantation in a subject, wherein said method comprises a first step of introducing into said subject a modified graft, and a second step of introducing into said subject said unmodified graft, wherein said modified graft is a cell suspension graft containing immune cells, that comprises an anti-CD4 antibody, bound to CD4 epitopes of said cell suspension graft, and wherein said modified graft is obtainable by an in vitro method comprising the following steps: a) incubating a cell suspension graft containing immune cells with the anti-CD4 antibody, wherein said incubating is carried out for from 1 minute to 7 days, and b) removing unbound anti-CD4 antibody from said graft, thereby reducing the amount of unbound antibody in said graft, and wherein said unmodified graft and said modified graft are allogeneic grafts and comprise immune cells bearing the CD4 antigen. wherein said method comprises a first step of introducing into said subject a modified graft, and a second step of introducing into said subject said unmodified graft, wherein said modified graft is a cell suspension graft containing immune cells, that comprises an anti-CD4 antibody, bound to CD4 epitopes of said cell suspension graft, and wherein said modified graft is obtainable by an in vitro method comprising the following steps: a) incubating a cell suspension graft containing immune cells with the anti-CD4 antibody, wherein said incubating is carried out for from 1 minute to 7 days, and b) removing unbound anti-CD4 antibody from said graft, thereby reducing the amount of unbound antibody in said graft, a) incubating a cell suspension graft containing immune cells with the anti-CD4 antibody, wherein said incubating is carried out for from 1 minute to 7 days, and b) removing unbound anti-CD4 antibody from said graft, thereby reducing the amount of unbound antibody in said graft, and wherein said unmodified graft and said modified graft are allogeneic grafts and comprise immune cells bearing the CD4 antigen.
A tire comprising: a tire frame member that is made of a resin and that has bead portions and side portions continuously extending on a tire radial-direction outer side of the respective bead portions; and a reinforcing layer that contains a cord member containing a nylon fiber material and an adhesive layer that is arranged on the cord member and formed from a resorcinol-formaldehyde resin-containing composition and a resin material coating the cord member and the adhesive layer, wherein the resin material does not encompass a vulcanized rubber. a tire frame member that is made of a resin and that has bead portions and side portions continuously extending on a tire radial-direction outer side of the respective bead portions; and a reinforcing layer that contains a cord member containing a nylon fiber material and an adhesive layer that is arranged on the cord member and formed from a resorcinol-formaldehyde resin-containing composition and a resin material coating the cord member and the adhesive layer, wherein the resin material does not encompass a vulcanized rubber.