mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: coupling a compute host to a memory device via an interconnect structure including one or more interconnect segments with a plurality of reconfigurable upstream lanes and downstream lanes, wherein an interconnect segment includes a link between a pair of interfaces; and performing memory reads and writes initiated by the host to read data from the memory device and write data to the memory device via the interconnect structure; characterized in that the method further comprises: for each of at least one of the one or more interconnect segments with a plurality of reconfigurable upstream lanes and downstream lanes, monitoring memory read and memory write traffic transferred via that interconnect segment; predicting, based on the monitored memory read and memory write traffic, expected read and write bandwidths for that interconnect segment; and dynamically reconfiguring the plurality of upstream lanes and downstream lanes for that interconnect segment based on the expected read and write bandwidths for that interconnect segment. coupling a compute host to a memory device via an interconnect structure including one or more interconnect segments with a plurality of reconfigurable upstream lanes and downstream lanes, wherein an interconnect segment includes a link between a pair of interfaces; and performing memory reads and writes initiated by the host to read data from the memory device and write data to the memory device via the interconnect structure; characterized in that the method further comprises: for each of at least one of the one or more interconnect segments with a plurality of reconfigurable upstream lanes and downstream lanes, monitoring memory read and memory write traffic transferred via that interconnect segment; predicting, based on the monitored memory read and memory write traffic, expected read and write bandwidths for that interconnect segment; and dynamically reconfiguring the plurality of upstream lanes and downstream lanes for that interconnect segment based on the expected read and write bandwidths for that interconnect segment. monitoring memory read and memory write traffic transferred via that interconnect segment; predicting, based on the monitored memory read and memory write traffic, expected read and write bandwidths for that interconnect segment; and dynamically reconfiguring the plurality of upstream lanes and downstream lanes for that interconnect segment based on the expected read and write bandwidths for that interconnect segment.
A heater comprising: a base member ; three or more electrodes disposed on the base member to be spaced apart from each other in a longitudinal direction of the base member ; a heat generating resistor which electrically interconnects electrodes which form an electrode pair and face each other in the longitudinal direction among the electrodes; a wiring which connects the electrodes forming the electrode pair to have different polarities from each other; and a switch connected to the wiring and configured to select an electrode to which a voltage is to be applied; wherein the heater further comprises a surface protective layer configured to protect a surface of the heater which slides on an object to be heated ; wherein: the heat generating resistor is disposed continuously on each of the electrodes , the electrodes being sandwiched between the heat generating resistor and the base member ; the electrodes are formed in a linear shape and extend in a short direction perpendicular to the longitudinal direction, and the surface protective layer is laminated on the base member to cover at least a surface of the heat generating resistor. a base member ; three or more electrodes disposed on the base member to be spaced apart from each other in a longitudinal direction of the base member ; a heat generating resistor which electrically interconnects electrodes which form an electrode pair and face each other in the longitudinal direction among the electrodes; a wiring which connects the electrodes forming the electrode pair to have different polarities from each other; and a switch connected to the wiring and configured to select an electrode to which a voltage is to be applied; wherein the heater further comprises a surface protective layer configured to protect a surface of the heater which slides on an object to be heated ; the heat generating resistor is disposed continuously on each of the electrodes , the electrodes being sandwiched between the heat generating resistor and the base member ; the electrodes are formed in a linear shape and extend in a short direction perpendicular to the longitudinal direction, and the surface protective layer is laminated on the base member to cover at least a surface of the heat generating resistor.
Automatic in-vitro diagnostic analysis method comprising adding a first reagent type and a second reagent type to a first test liquid during a first and second cycle times respectively, the addition of the first reagent type to the first test liquid comprising parallel addition of a second reagent type to a second test liquid during the first cycle time, and the addition of the second reagent type to the first test liquid comprising parallel addition of a first reagent type to a third test liquid during the second cycle time, respectively, characterized in that the parallel addition of the first reagent type and the second reagent type is carried out with a single pipette head , the single pipette head comprising at least two pipetting nozzles .
A roof module for forming a vehicle roof on a motor vehicle, the roof module forming a structural unit which comprises integrated features enabling autonomous driving or semi-autonomous driving and which is placeable on top of a vehicle body shell, the roof module comprising: a panel component whose outer surface at least partially forms the roof skin of the vehicle roof; at least two environment sensors configured to send and/or receive electromagnetic signals for detecting the vehicle surroundings and disposed below the roof skin formed by the panel component ; and at least one support module on which the at least two environment sensors are mounted, characterized in that the support module is attached to a frame element and has a base plate on which two fastening mounts are provided on both sides, one of the environment sensors being pre-installed in each fastening mount .
A charging station for inductively charging an electric vehicle , - wherein the charging station comprises a movable primary coil capable of generating a magnetic field for charging the electric vehicle , and - wherein the primary coil is movably mounted such that it can be moved by the electric vehicle when entering the area of the charging station and positioned relative to a secondary coil of the electric vehicle , characterized in that the movable primary coil is mounted on a rail , which is pivotable about a swivel axis , allows displacement of the primary coil in the longitudinal direction of the rail and is able to be swiveled about the swivel axis by the electric vehicle when the electric vehicle drives into the area of the primary coil . - wherein the charging station comprises a movable primary coil capable of generating a magnetic field for charging the electric vehicle , and - wherein the primary coil is movably mounted such that it can be moved by the electric vehicle when entering the area of the charging station and positioned relative to a secondary coil of the electric vehicle ,
Utility vehicle , having a frontloader with - an installation base for fastening the frontloader to the utility vehicle , - a swing arm arranged on the installation base in an articulated manner, - a hydraulic swing arm cylinder which is supported on the installation base and on the swing arm and which is constructed as a double-acting lifting cylinder with two hydraulic connections , via which the swing arm cylinder is connected to working connections of a hydraulic controller , which is connected to a hydraulic pump and to a hydraulic container containing a hydraulic medium, wherein a hydraulic switching arrangement having different switching positions is connected between the two hydraulic connections of the swing arm cylinder and the hydraulic controller in such a way that - in a short-circuited switching position of the switching arrangement , the pump on the hydraulic connection delivers hydraulic medium in the direction of the swing arm cylinder , the two hydraulic connections of the swing arm cylinder being connected hydraulically to each other, and - in a separated switching position of the switching arrangement , the two hydraulic connections of the swing arm cylinder are separated hydraulically from each other. - an installation base for fastening the frontloader to the utility vehicle , - a swing arm arranged on the installation base in an articulated manner, - a hydraulic swing arm cylinder which is supported on the installation base and on the swing arm and which is constructed as a double-acting lifting cylinder with two hydraulic connections , via which the swing arm cylinder is connected to working connections of a hydraulic controller , which is connected to a hydraulic pump and to a hydraulic container containing a hydraulic medium, wherein a hydraulic switching arrangement having different switching positions is connected between the two hydraulic connections of the swing arm cylinder and the hydraulic controller in such a way that - in a short-circuited switching position of the switching arrangement , the pump on the hydraulic connection delivers hydraulic medium in the direction of the swing arm cylinder , the two hydraulic connections of the swing arm cylinder being connected hydraulically to each other, and - in a separated switching position of the switching arrangement , the two hydraulic connections of the swing arm cylinder are separated hydraulically from each other.
Nozzle for cooling a jet engine for maintenance, wherein the jet engine comprises an exhaust channel for the exit of exhaust gases of the jet engine , wherein the nozzle comprises - a suction adapter having a round shape adapted to be connected to the exhaust channel for sucking air from the exhaust channel , and - a suction channel in fluid connection with the suction adapter for sucking air from the suction adapter , wherein the suction channel is arranged to be connected to an air suction device , wherein the suction adapter is adapted to be connected to the exhaust channel , characterized in that the suction adapter is adapted to be connected in a sealed manner to the exhaust channel . - a suction adapter having a round shape adapted to be connected to the exhaust channel for sucking air from the exhaust channel , and - a suction channel in fluid connection with the suction adapter for sucking air from the suction adapter , wherein the suction channel is arranged to be connected to an air suction device , wherein the suction adapter is adapted to be connected to the exhaust channel , characterized in that the suction adapter is adapted to be connected in a sealed manner to the exhaust channel .
An azeotropic composition consisting essentially of 34.5 mass% of (Z)-1-chloro-2,3,3-trifluoropropene and 65.5 mass% of trans-1,2-dichloroethylene.
Socket, in particular a travel adaptor, with - a plug plate with a first socket arrangement with - first plug-in openings for the corresponding pins of a plug of a first standard, a second socket arrangement with - second plug-in openings for the corresponding pins of a plug of a second standard, - contact receptacles of a first type provided at a distance from the plug plate for the reception of pins of the first standard, and - contact receptacles of a second type for the reception of pins of the second standard, together with - a first protective element , which can be moved from a closed position, in which at least the first plug-in openings are blocked, into an open position , in which the first plug-in openings are open, and - a second protective element , which can be moved from a closed position, in which at least the second plug-in openings are blocked, into an open position , in which the second plug-in openings are open, and - spring elements for purposes of preloading the first and the second protective elements into their respective closed positions, wherein the first and the second protective elements are preloaded by the spring elements in different directions of movement into their respective end positions, characterised in that , the second protective element is arranged on the first protective element in the form of a slider ; which is arranged such that it can be moved at right angles to the direction of movement of the first protective element . - a plug plate with a first socket arrangement with - first plug-in openings for the corresponding pins of a plug of a first standard, a second socket arrangement with - second plug-in openings for the corresponding pins of a plug of a second standard, a first socket arrangement with - first plug-in openings for the corresponding pins of a plug of a first standard, - first plug-in openings for the corresponding pins of a plug of a first standard, a second socket arrangement with - second plug-in openings for the corresponding pins of a plug of a second standard, - second plug-in openings for the corresponding pins of a plug of a second standard, - contact receptacles of a first type provided at a distance from the plug plate for the reception of pins of the first standard, and - contact receptacles of a second type for the reception of pins of the second standard, together with - a first protective element , which can be moved from a closed position, in which at least the first plug-in openings are blocked, into an open position , in which the first plug-in openings are open, and - a second protective element , which can be moved from a closed position, in which at least the second plug-in openings are blocked, into an open position , in which the second plug-in openings are open, and - spring elements for purposes of preloading the first and the second protective elements into their respective closed positions, wherein the first and the second protective elements are preloaded by the spring elements in different directions of movement into their respective end positions,
Automatic coffee machine comprising a pump comprising an inlet orifice , an outlet orifice , a liquid drive system to pressurize and make a liquid circulate from the inlet orifice to the outlet orifice and a downstream conduit connecting in fluid communication, the drive system to the outlet orifice of the pump , said downstream conduit comprising a damping device to dampen the vibrations generated by the drive system on the pressurized liquid which circulates to the outlet orifice , characterized in that the downstream conduit comprises a flexible portion arranged between the drive system and the damping device , and in that the damping device is arranged in a flexible support .
A perfusion device for a cell culture container , in particular a petri dish, comprising at least one inlet opening for the supply of nutrient medium and at least one outlet opening for the discharge of unused nutrient medium , wherein there is provided at least one, preferably plate-shaped, perfusion region for the delivery of nutrient medium to cell cultures, which is connected to the inlet opening by way of a supply line and to the outlet opening by way of a discharge line , wherein the perfusion region can be inserted into the cell culture container , characterised in that the perfusion region comprises a geometrical structure which connects the supply line and the discharge line in the form of an at least partially, preferably entirely, spiral-shaped passage through which the nutrient medium can flow, wherein the geometrical structure is spaced from the bottom of the cell culture container in the inserted state.
A method of subjecting a lithium metal secondary battery to a controlled charge/discharge condition, the lithium metal secondary battery comprising: an electrode assembly comprising a negative electrode, a positive electrode and a separator interposed between the negative electrode and the positive electrode; a non-aqueous electrolyte with which the electrode assembly is impregnated; and a battery casing in which the electrode assembly and the non-aqueous electrolyte are received, wherein the negative electrode comprises a negative electrode current collector and a lithium metal layer formed on at least one surface of the negative electrode current collector, the charge/discharge condition of the lithium metal secondary battery comprises charging the lithium metal secondary battery under a pressurized state and discharging the lithium metal secondary battery under a non-pressurized or pressurized state, and when the lithium secondary battery is discharged under a pressurized state, the pressure applied during discharge is controlled to be smaller than the pressure applied during charge, wherein the pressure applied during charge is 276-689 kPa (40-100 psi). an electrode assembly comprising a negative electrode, a positive electrode and a separator interposed between the negative electrode and the positive electrode; a non-aqueous electrolyte with which the electrode assembly is impregnated; and a battery casing in which the electrode assembly and the non-aqueous electrolyte are received, wherein the negative electrode comprises a negative electrode current collector and a lithium metal layer formed on at least one surface of the negative electrode current collector, the charge/discharge condition of the lithium metal secondary battery comprises charging the lithium metal secondary battery under a pressurized state and discharging the lithium metal secondary battery under a non-pressurized or pressurized state, and when the lithium secondary battery is discharged under a pressurized state, the pressure applied during discharge is controlled to be smaller than the pressure applied during charge, wherein the pressure applied during charge is 276-689 kPa (40-100 psi).
A method for manufacturing a conductive structure body comprising: preparing a conductive structure body precursor including a substrate, an amorphous transparent conductive layer provided on the substrate, and a metal layer provided on the amorphous transparent conductive layer; heat treating the conductive structure body precursor to crystallize the amorphous transparent conductive layer; and forming a metal oxide layer, a metal nitride layer or a metal oxy-nitride layer on the metal layer prior to the- step of heat treatment, wherein the step of forming a metal oxide layer, a metal nitride layer or a metal oxy-nitride layer on the metal layer uses sputtering method, wherein the step of heat treatment is irradiating infrared light on the metal oxide layer, the metal nitride layer or the metal oxy-nitride layer using an infrared (IR) lamp. preparing a conductive structure body precursor including a substrate, an amorphous transparent conductive layer provided on the substrate, and a metal layer provided on the amorphous transparent conductive layer; heat treating the conductive structure body precursor to crystallize the amorphous transparent conductive layer; and forming a metal oxide layer, a metal nitride layer or a metal oxy-nitride layer on the metal layer prior to the- step of heat treatment, wherein the step of forming a metal oxide layer, a metal nitride layer or a metal oxy-nitride layer on the metal layer uses sputtering method, wherein the step of heat treatment is irradiating infrared light on the metal oxide layer, the metal nitride layer or the metal oxy-nitride layer using an infrared (IR) lamp.
An antibody that specifically binds CD38 for use in treating a patient having a solid tumor, comprising the VH of SEQ ID NO: 4 and the VL of SEQ ID NO: 5, wherein the antibody is of IgG1 isotype.
Track ballast levelling apparatus comprising a machine frame which is movable on rail-bound travelling mechanisms and to which a levelling device, which is adjustable relative to the machine frame , and a sweeping device, which is adjustable relative to the machine frame , are allocated, wherein the levelling device has a central plough and two flank ploughs and the sweeping device has a rotationally driven ballast-sweeping brush for sweeping away track ballast, wherein the ballast-sweeping brush is mounted in a rotationally driven manner in a sweeping brush housing which is mounted so as to be pivotally adjustable about a machine vertical axis with respect to the machine frame between a sweeping position and a maintenance position by means of a rotary apparatus , characterised in that the machine frame is allocated a steep conveyor belt , which is allocated to the ballast-sweeping brush , and a ballast silo with ballasting chutes for ballasting the track, and in that the sweeping brush housing in the sweeping position adjoins a material guide which is arranged downstream of the ballast-sweeping brush in the sweeping direction and is associated with a feed region of a steep conveyor belt , wherein the steep conveyor belt and the material guide are arranged on the machine frame so as to be displaceable by means of an adjusting drive between the sweeping position and a maintenance position clearing a pivoting range for the sweeping brush housing .
Coated gas turbine engine part comprising a substrate and at least one calcium-magnesium-alumino-silicate (CMAS) protection layer present on said substrate, the layer comprising a first phase of a calcium-magnesium-alumino-silicate (CMAS) protection material and a second phase comprising particles of an anti-wetting material dispersed in the first phase, the anti-wetting material corresponding to a material or mixture of materials selected from the following materials: - CaF 2 , - LnPO 4 where Ln = La (lanthanum), Gd (gadolinium), Sm (samarium), Nd (neodymium), - MAX phases M n+1 AX n with n=1,2,3 where M = Sc (scandium), Y (yttrium), La (lanthanum), Mn (manganese), Re (rhenium), W (tungsten), Hf (hafnium), Zr (zirconium), Ti (titanium), where A = groups IIIA, IVA, VA, VIA and where X = C,N, - AIN, and - BN. - CaF 2 , - LnPO 4 where Ln = La (lanthanum), Gd (gadolinium), Sm (samarium), Nd (neodymium), - MAX phases M n+1 AX n with n=1,2,3 where M = Sc (scandium), Y (yttrium), La (lanthanum), Mn (manganese), Re (rhenium), W (tungsten), Hf (hafnium), Zr (zirconium), Ti (titanium), where A = groups IIIA, IVA, VA, VIA and where X = C,N, - AIN, and - BN.