mhurhangee/patent-ind-claim-en huggingface dataset:
An asphalt finisher comprising: a first hydraulic pump configured to supply hydraulic oil to a traveling motor ; a second hydraulic pump configured to supply hydraulic oil to a first hydraulic actuator via a first self-seal coupling mechanism ; an auxiliary hydraulic source comprising an auxiliary hydraulic source control valve and comprising a third manual or electric hydraulic pump or an accumulator configured to supply hydraulic oil to a second hydraulic actuator via a second self-seal coupling mechanism , wherein the auxiliary hydraulic source is a portable type; and a drive source configured to drive the first hydraulic pump and the second hydraulic pump, wherein the first and the second self-seal coupling mechanisms can be used to connect the first hydraulic actuator with the auxiliary hydraulic source , and the auxiliary hydraulic source control valve is configured to be arranged between the first as well as second hydraulic actuators and the third manual or electric hydraulic pump or the accumulator via the first and the second self-seal coupling mechanisms in order to switch the flow destination of the hydraulic oil, which is supplied from the third manual or electric hydraulic pump or the accumulator, from the second hydraulic actuator to the first hydraulic actuator . a first hydraulic pump configured to supply hydraulic oil to a traveling motor ; a second hydraulic pump configured to supply hydraulic oil to a first hydraulic actuator via a first self-seal coupling mechanism ; an auxiliary hydraulic source comprising an auxiliary hydraulic source control valve and comprising a third manual or electric hydraulic pump or an accumulator configured to supply hydraulic oil to a second hydraulic actuator via a second self-seal coupling mechanism , wherein the auxiliary hydraulic source is a portable type; and a drive source configured to drive the first hydraulic pump and the second hydraulic pump, wherein the first and the second self-seal coupling mechanisms can be used to connect the first hydraulic actuator with the auxiliary hydraulic source , and the auxiliary hydraulic source control valve is configured to be arranged between the first as well as second hydraulic actuators and the third manual or electric hydraulic pump or the accumulator via the first and the second self-seal coupling mechanisms in order to switch the flow destination of the hydraulic oil, which is supplied from the third manual or electric hydraulic pump or the accumulator, from the second hydraulic actuator to the first hydraulic actuator .
A female connecting member , wherein the female connecting member comprises a first end face , the first end face has a first groove , the first groove is defined by a first side face and a first bottom face encompassed by the first side face , the first side face is provided with N conductive rings along a depth direction (D) of the first groove , and N is an integer greater than or equal to 2; characterized in that a second groove is annularly disposed around the periphery of the first groove , and the second groove is defined by a second side face , a second bottom face , and a third side face , wherein the second side face and the third side face are facing towards each other and connected by the second bottom face , and the second side face and the first side face are facing away from each other and connected by the first end face ; and wherein the second side face is provided with P conductive rings along a depth direction (D) of the second groove , and P is an integer greater than or equal to 2; or the third side face is provided with E conductive rings along the depth direction (D) of the second groove , and E is an integer greater than or equal to 2.
Process for manufacturing an alkaline-based hybrid supercapacitor comprising a step a) of forming a negative electrode A from a negative electrode material B originating from a used alkali-ion battery, implying that a passivation layer is already present at the surface of the negative electrode and having lost at least some of its initial capacity, the process not including any step of forming a passivation layer on the surface of the negative electrode A.
An anti-slippage fastener comprising: a shank ; a fastener head ; an external threading ; the fastener head comprising a rotation axis and a plurality of engagement walls ; the plurality of engagement walls being radially distributed about the rotation axis ; a cross section for each of the plurality of engagement walls comprising a first transversal line , a second transversal line , and a partially-circular portion ; the first transversal line being terminally connected to the partially-circular portion ; the second transversal line being terminally connected to the partially-circular portion , opposite the first transversal line ; a center of the partially-circular portion being oriented away from the rotation axis ; a length of the first transversal line is greater than or less than a length of the second transversal line ; the shank being concentrically and terminally mounted to the fastener head ; the external threading extending along the shank ; and the external threading being laterally connected to the shank . a shank ; a fastener head ; an external threading ; the fastener head comprising a rotation axis and a plurality of engagement walls ; the plurality of engagement walls being radially distributed about the rotation axis ; a cross section for each of the plurality of engagement walls comprising a first transversal line , a second transversal line , and a partially-circular portion ; the first transversal line being terminally connected to the partially-circular portion ; the second transversal line being terminally connected to the partially-circular portion , opposite the first transversal line ; a center of the partially-circular portion being oriented away from the rotation axis ; a length of the first transversal line is greater than or less than a length of the second transversal line ; the shank being concentrically and terminally mounted to the fastener head ; the external threading extending along the shank ; and the external threading being laterally connected to the shank .
A method of preparing MoS 2 nanoparticles comprising: agitating a mixture of molybdenum hexacarbonyl (Mo(CO) 6 ) and degassed oleylamine in a sealed container to produce a suspension of oleylamine/Mo(CO) 6 ; transferring at least a portion of the suspension of oleylamine/Mo(CO) 6 into a vessel containing degassed oleylamine to form a reaction mixture; heating the reaction mixture to 250° C; adding a first portion of 1-dodecane thiol (DDT) to the reaction mixture; heating the reaction mixture at 250° C for 30 minutes; adding a second portion of 1-dodecane thiol (DDT) to the reaction mixture; heating the reaction mixture at 250° C for 30 minutes; then heating the reaction mixture to 300° C; then adding a third portion of 1-dodecane thiol (DDT) to the reaction mixture; and heating the reaction mixture at 300° C for 30 minutes. agitating a mixture of molybdenum hexacarbonyl (Mo(CO) 6 ) and degassed oleylamine in a sealed container to produce a suspension of oleylamine/Mo(CO) 6 ; transferring at least a portion of the suspension of oleylamine/Mo(CO) 6 into a vessel containing degassed oleylamine to form a reaction mixture; heating the reaction mixture to 250° C; adding a first portion of 1-dodecane thiol (DDT) to the reaction mixture; heating the reaction mixture at 250° C for 30 minutes; adding a second portion of 1-dodecane thiol (DDT) to the reaction mixture; heating the reaction mixture at 250° C for 30 minutes; then heating the reaction mixture to 300° C; then adding a third portion of 1-dodecane thiol (DDT) to the reaction mixture; and heating the reaction mixture at 300° C for 30 minutes.
Vibration damper comprising - a damper tube which is at least partially filled with damping fluid and in which a piston rod is movable back and forth, wherein a working piston is movable jointly with the piston rod , by means of which working piston the interior space of the damper tube is divided into a piston-rod-side working space and a piston-rod-remote working space , - a damping module for the frequency-dependent control of a comfort bypass which is formed between the piston-rod-side working space and the piston-rod-remote working space and which comprises a comfort path via which damping fluid can be caused to flow hydraulically in parallel with respect to the flow through the working piston , - a control piston which is received, such that it can perform stroke movements, in the damping module and which, remote from the piston rod, delimits a pressure chamber arranged in the damping module , wherein the pressure chamber comprises at least one inlet , characterized in that the damping module comprises a damping module housing, with a housing cover arranged at the piston rod side and with a housing pot arranged remote from the piston rod, comprises the control piston and comprises at least one first disk valve assembly , wherein the at least one first disk valve assembly , in the comfort path with the housing cover , forms a comfort valve, and the at least one first disk valve assembly comprises at least one bypass control valve with at least one bypass inlet opening , wherein, via the at least one bypass control valve, bypassing the comfort valve, damping fluid can be caused to flow via a bypass control path hydraulically in parallel with respect to the flow through the working piston , wherein the bypass control valve is controlled by means of the stroke of the control piston and wherein the first disk valve assembly comprises at least one bypass disk with at least one bypass disk opening , comprises at least one spacer disk and comprises a comfort disk . - a damper tube which is at least partially filled with damping fluid and in which a piston rod is movable back and forth, wherein a working piston is movable jointly with the piston rod , by means of which working piston the interior space of the damper tube is divided into a piston-rod-side working space and a piston-rod-remote working space , - a damping module for the frequency-dependent control of a comfort bypass which is formed between the piston-rod-side working space and the piston-rod-remote working space and which comprises a comfort path via which damping fluid can be caused to flow hydraulically in parallel with respect to the flow through the working piston , - a control piston which is received, such that it can perform stroke movements, in the damping module and which, remote from the piston rod, delimits a pressure chamber arranged in the damping module , wherein the pressure chamber comprises at least one inlet ,
A method performed by a terminal in a wireless communication system, the method comprising: obtaining a synchronization signal block, SSB, transmitted by a base station ; obtaining a master information block, MIB, from the SSB; identifying a control resource set, CORESET, and a search space based on the MIB; obtaining downlink control information, DCI, by monitoring a physical downlink control channel, PDCCH, based on the CORESET and the search space; obtaining information on resources of a physical downlink shared channel, PDSCH, carrying a system information block, SIB, related to machine type communication, based on the DCI; and obtaining the SIB related to MTC on the PDSCH, based on the information, wherein in case that the CORESET and the search space are commonly configured for both a PDCCH scheduling a SIB related to a legacy fifth generation, 5G, service and the PDCCH scheduling the SIB related to MTC, cyclic redundancy check, CRC, of the DCI is scrambled by machine type communication-radio network temporary identifier, MTC-RNTI to identify that the DCI is DCI for obtaining the MTC related SIB. obtaining a synchronization signal block, SSB, transmitted by a base station ; obtaining a master information block, MIB, from the SSB; identifying a control resource set, CORESET, and a search space based on the MIB; obtaining downlink control information, DCI, by monitoring a physical downlink control channel, PDCCH, based on the CORESET and the search space; obtaining information on resources of a physical downlink shared channel, PDSCH, carrying a system information block, SIB, related to machine type communication, based on the DCI; and obtaining the SIB related to MTC on the PDSCH, based on the information, wherein in case that the CORESET and the search space are commonly configured for both a PDCCH scheduling a SIB related to a legacy fifth generation, 5G, service and the PDCCH scheduling the SIB related to MTC, cyclic redundancy check, CRC, of the DCI is scrambled by machine type communication-radio network temporary identifier, MTC-RNTI to identify that the DCI is DCI for obtaining the MTC related SIB.
A spray device, for spraying a fluidic microjet spray, comprising a spray nozzle unit , said spray nozzle unit comprising at least one spray nozzle having a chamber for receiving a pressurized fluid therein and having a perforated nozzle wall for releasing a microjet spray of said fluid, characterized in that said spray nozzle is formed by a nozzle body, comprising a support body with at least one cavity that opens at a main surface of said support body, said support body being covered by a membrane layer at said main surface and said membrane layer being provided with at least one nozzle orifice throughout a thickness of said membrane layer at an area of said cavity to form a nozzle membrane at each of said at least one cavity that is in fluid communication with the respective cavity, in that said at least one nozzle orifice comprises at least one deflecting nozzle orifice that is configured to release said microjet under a deflected angle along a jet line that is directed away from an imaginary centre line of said orifice , in that said nozzle membrane comprises a central region at the area of said cavity and a peripheral region between said central region and an edge of said cavity, in that at least one deflecting nozzle orifice is located within said peripheral region, and in that said at least one deflecting nozzle orifice is in open communication with a fluidic flow channel that has a lateral asymmetrical flow profile in terms of a fluid flow resistance from said cavity towards said nozzle orifice .
A manufacturing process for preparing a powder solid composition comprising the following steps: a) a hydroalcoholic extract of Bergamot fruit is dispersed in at least one polar organic solvent and kept under mixing until a solution or a dispersion is obtained; heating is optionally applied; wherein the extract contains the flavonoids neoeriocitrin, naringin and neohesperidin; b) at least one phospholipid is then added to the solution/dispersion of the Bergamot fruit extract and the mixture is kept under mixing; wherein the weight ratio between the at least one phospholipid and the flavonoids of the extract ranges from 6 to 30; heating is optionally applied; c) the organic solvent is then removed to obtain the powder solid composition. a) a hydroalcoholic extract of Bergamot fruit is dispersed in at least one polar organic solvent and kept under mixing until a solution or a dispersion is obtained; heating is optionally applied; wherein the extract contains the flavonoids neoeriocitrin, naringin and neohesperidin; b) at least one phospholipid is then added to the solution/dispersion of the Bergamot fruit extract and the mixture is kept under mixing; wherein the weight ratio between the at least one phospholipid and the flavonoids of the extract ranges from 6 to 30; heating is optionally applied; c) the organic solvent is then removed to obtain the powder solid composition.
Electrical operating unit comprising a first and a second part, where the two parts can be mutually adjusted, said operating unit comprises a first part and a second part , where the two parts are interconnected about a shaft , so they can rotate mutually, and at least one electrical switch, where the first part is constructed as a housing and the second part is constructed as a mounting unit interconnected with the first part, such that the housing can assume a first position, an initial position, from which the housing by rotation about the shaft can be brought to a second position, an activation position, where the switch is activated, at least one spring element, which impacts the housing with a spring force, when this is brought into the activation position, and rotates the housing back into the initial position, when this is no longer being impacted into the activation position, where the at least one electrical switch is a dome switch , where the dome in the switch is used as the spring element, and that there are two dome switches arranged such that they are located on opposite sides of the shaft, more precisely on opposite sides of a plane through the shaft, where the plane is perpendicular to the housing , characteri zed in that the two dome switches are located in the two other diametrically located corners of the printed circuit board opposite to the holes for the mounting of the operating unit and are located such that they are positioned across from the pins in the mounting unit .
A method of using a blockchain to control a process executing on a computing resource operating in parallel to the blockchain and arranged to monitor a state of the blockchain, the method comprising the steps: executing a loop on the computing resource; and using the state of the blockchain to influence the execution of the loop by, for each iteration of the loop: restarting the loop at an iteration specified by information provided within or in association with a transaction on the blockchain if the computing resource finds a predetermined hash of a portion of code relating to the loop in the transaction. executing a loop on the computing resource; and using the state of the blockchain to influence the execution of the loop by, for each iteration of the loop: restarting the loop at an iteration specified by information provided within or in association with a transaction on the blockchain if the computing resource finds a predetermined hash of a portion of code relating to the loop in the transaction.
A method for preparing one or more lithographic printing plates from one or more negative-working lithographic printing plate precursors, comprising: providing an imaging apparatus comprising: imaging means; and an enclosure that completely surrounds the imaging means, which enclosure comprises an air intake unit for providing controlled air flow into the enclosure; using a means for removing ozone either from the controlled air flow into the enclosure or from ambient air within the enclosure; supplying one or more negative-working lithographic printing plate precursors to the imaging means, each negative-working lithographic printing plate precursor comprising a substrate having thereon a negative-working imageable layer; imagewise exposing the one or more negative-working lithographic printing plate precursors to provide one or more imaged precursors comprising exposed regions and non-exposed regions in the negative-working imageable layer; and processing the one or more imaged precursors to remove the non-exposed regions in the negative-working imageable layer, to form one or more lithographic printing plates. providing an imaging apparatus comprising: imaging means; and an enclosure that completely surrounds the imaging means, which enclosure comprises an air intake unit for providing controlled air flow into the enclosure; using a means for removing ozone either from the controlled air flow into the enclosure or from ambient air within the enclosure; supplying one or more negative-working lithographic printing plate precursors to the imaging means, each negative-working lithographic printing plate precursor comprising a substrate having thereon a negative-working imageable layer; imagewise exposing the one or more negative-working lithographic printing plate precursors to provide one or more imaged precursors comprising exposed regions and non-exposed regions in the negative-working imageable layer; and processing the one or more imaged precursors to remove the non-exposed regions in the negative-working imageable layer, to form one or more lithographic printing plates.
A method performed by a wireless communication device that is simultaneously registered with a first network and a second network, in connected mode with respect to the first network, and in idle or inactive mode with respect to the second network, the method comprising: determining that the wireless communication device is to connect to the second network; sending , to a network node associated with the first network, a request or suggestion to release a connection of the wireless communication device with the first network wherein the request or suggestion to release the connection comprises release assistance information and wherein the release assistance information comprises an indication that the wireless communication device intends to change its capabilities upon reconnecting to the first network; receiving , from the network node associated with the first network, a request to release the connection of the wireless communication device with the first network; reconnecting with the first network; providing , to the network node associated with the first network, capability information that takes into consideration resources to be used for a connection with the second network. determining that the wireless communication device is to connect to the second network; sending , to a network node associated with the first network, a request or suggestion to release a connection of the wireless communication device with the first network wherein the request or suggestion to release the connection comprises release assistance information and wherein the release assistance information comprises an indication that the wireless communication device intends to change its capabilities upon reconnecting to the first network; receiving , from the network node associated with the first network, a request to release the connection of the wireless communication device with the first network; reconnecting with the first network; providing , to the network node associated with the first network, capability information that takes into consideration resources to be used for a connection with the second network.