mhurhangee/ep-ind-claims huggingface dataset:
Process for producing an shell catalyst, comprising the following steps: (a) subjecting a bed of a catalyst support body to a circulating motion; (b) bringing an atomized aqueous solution comprising an Au-containing precursor compound in contact with the bed of the catalyst support body subjected to the circulating motion by spraying on of the solution; (c) bringing an atomized aqueous solution comprising a Pd-containing precursor compound in contact with the catalyst support body produced according to step (b); and (d) reduction of the metal components of the precursor compounds to the elemental metals by subjecting the catalyst support body obtained in step (c) to a temperature treatment in a nonoxidizing atmosphere, in which the shell catalyst has an Au content in the range from 0.1 to 1.0% by weight, based on the total weight of the shell catalyst, and a Pd content in the range from 0.6 to 2.0% by weight, based on the total weight of the shell catalyst. (a) subjecting a bed of a catalyst support body to a circulating motion; (b) bringing an atomized aqueous solution comprising an Au-containing precursor compound in contact with the bed of the catalyst support body subjected to the circulating motion by spraying on of the solution; (c) bringing an atomized aqueous solution comprising a Pd-containing precursor compound in contact with the catalyst support body produced according to step (b); and (d) reduction of the metal components of the precursor compounds to the elemental metals by subjecting the catalyst support body obtained in step (c) to a temperature treatment in a nonoxidizing atmosphere,
A washing machine, comprising a drainage structure, whereby the drainage structure comprises: an annular groove arranged around a central hole, the central hole being arranged at the center of an inner tub bottom of the washing machine in which an inner tub shaft is arranged, a water flow passage provided on the annular groove, the water flow passage communicating an inner part and an outer part of the inner tub, and a sealing member with which the annular groove is provided, the sealing member being configured to reciprocate to control an on-off state of the water flow passage, whereby the water flow passage is at least one opening which is provided on a bottom wall of the annular groove, at least a part of a driving member extends into said opening to drive the sealing member, and the driving member comprises a lever, a supporting point of the lever and a driving part of the lever; wherein the supporting point of the lever is arranged at an inner bottom of the outer tub, and a middle part of the lever hinges with the supporting point; whereby one end of the lever extends into the opening and is located below the sealing member, and another end of the lever is connected with the driving part of the lever. an annular groove arranged around a central hole, the central hole being arranged at the center of an inner tub bottom of the washing machine in which an inner tub shaft is arranged, a water flow passage provided on the annular groove, the water flow passage communicating an inner part and an outer part of the inner tub, and a sealing member with which the annular groove is provided, the sealing member being configured to reciprocate to control an on-off state of the water flow passage, whereby the water flow passage is at least one opening which is provided on a bottom wall of the annular groove, at least a part of a driving member extends into said opening to drive the sealing member, and the driving member comprises a lever, a supporting point of the lever and a driving part of the lever; wherein the supporting point of the lever is arranged at an inner bottom of the outer tub, and a middle part of the lever hinges with the supporting point; whereby one end of the lever extends into the opening and is located below the sealing member, and another end of the lever is connected with the driving part of the lever.
Method for measuring and controlling an EGR rate in a combustion engine system, the system comprising at least an EGR cooler, an EGR valve and a turbine, the method comprising determining an EGR mass flow (dm EGR) from the difference between a total exhaust gas mass flow (dm Tot) across the engine cylinders, and a turbine mass flow (dmTurb) across the turbine calculated through a turbine model, the method comprising a further adaptation step to adjust the turbine mass flow to be equal to the total exhaust gas mass flow when the EGR valve is closed.
Infusion system for administering a liquid medicinal agent, in particular insulin, comprising an infusion cannula for puncturing into the body of the patient; a pump unit comprising a pump, a rechargeable battery for supplying energy to the pump, and a storage volume for the medicinal agent to be administered; a charging station for the pump unit for charging the rechargeable battery of the pump unit, a cannula carrier unit, which, according to its purpose, is to be secured to the body of a patient, comprises the infusion cannula for puncturing into the body of the patient, and the cannula carrier unit and the pump unit are adapted to each other so that the pump unit rests against the cannula carrier unit after the pump unit has been connected to the cannula carrier unit, characterized in that the charging station is set up for filling the storage volume with the medicinal agent to be administered.
A cleaning tool capable of contracting to be cleaned and expanding to be used, comprising a mop and a cleaning barrel, wherein the mop comprises a mop head and a mop rod connected with the mop head, the mop rod is a rotary mop rod which is able to linearly move upwards or downwards and be driven to rotate, and a support site used for supporting the mop head during rotation is arranged in the cleaning barrel; wherein the mop further comprises a transformation driving mechanism; the mop head comprises movable plates and a base plate, the movable plates are located on a same plane as the base plate and are able to slide relative to the base plate, and a track mechanism used for defining a movement track of the movable plates is arranged between the movable plates and the base plate; and the mop rod is able to rotate relative to the base plate to drive the transformation driving mechanism to drive the movable plates to move so as to change a length and width of the mop head.
A method of reliably transmitting data in a network, comprising: performing by a module, monitoring data from an output drive module for errors before the data is to be transmitted on a communication bus; and when an error is detected, generating a first signal based on the monitoring, and adjusting an input voltage to at least one of a pull-up resistor and a pull-down resistor for a predetermined time based on the first signal, to emphasize the error. performing by a module, monitoring data from an output drive module for errors before the data is to be transmitted on a communication bus; and when an error is detected, generating a first signal based on the monitoring, and adjusting an input voltage to at least one of a pull-up resistor and a pull-down resistor for a predetermined time based on the first signal, to emphasize the error. monitoring data from an output drive module for errors before the data is to be transmitted on a communication bus; and when an error is detected, generating a first signal based on the monitoring, and adjusting an input voltage to at least one of a pull-up resistor and a pull-down resistor for a predetermined time based on the first signal, to emphasize the error.
A base station for use in a mobile telecommunications system, the base station configured to communicate via a wireless interface with one or more terminals of the system, the system comprising one or more infrastructure nodes configured to communicate with the one or more terminals via the wireless interface, wherein resources of the wireless interface are allocated for successive periods of time and wherein the base station is further configured to: obtain measurements wherein a measurement relates to a link between a first terminal of the one or more terminals and one of the one or more infrastructure nodes; identify the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications; identify in the absence of a resource allocation request from the first terminal, based on the obtained measurements and on an identification of the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications, resources to allocate for the first terminal to communicate with one or more of the infrastructure nodes wherein the identified resources are selected from two or more of the periods of time; and allocate the identified resources for the first terminal to communicate with the one or more of the infrastructure nodes during the two or more periods of time. obtain measurements wherein a measurement relates to a link between a first terminal of the one or more terminals and one of the one or more infrastructure nodes; identify the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications; identify in the absence of a resource allocation request from the first terminal, based on the obtained measurements and on an identification of the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications, resources to allocate for the first terminal to communicate with one or more of the infrastructure nodes wherein the identified resources are selected from two or more of the periods of time; and allocate the identified resources for the first terminal to communicate with the one or more of the infrastructure nodes during the two or more periods of time.
A first voltage source converter having a direct current, DC, side configured to be connected to a first pole of a DC system and having an alternating current, AC, side configured to be connected to an AC system and configured to be interconnected with an AC side of a second voltage source converter, said second voltage source converter having a DC side connected to a second pole of the DC system, wherein further the first converter is also configured to be interconnected with the second converter on the DC side, where this interconnection is grounded; and the first voltage source converter comprising: a number of converter valve pairs (CVA1, CVA2, CVB1, CVB2, CVC1, CVC2), each pair being configured to be connected to a corresponding AC phase of the AC system, and a control unit operative to control the converter valves (CVA1, CVA2, CVB1, CVB2, CVC1, CVC2) to generate at least one voltage waveform and the control unit when reducing oscillations of power between the first pole and the second pole is configured to create a virtual resistance around a resonance frequency of the DC system formed between the two converters, and wherein the control unit when forming the virtual resistance is configured to multiply a phase current (ia_d, ia_q; ia; pc_d, pc_q) output from the first voltage source converter with a proportional gain (Kp) for obtaining an oscillations damping control signal (dc_d, dc_q), and to reduce oscillations between the converters by combining the oscillations damping control signal (dc_d, dc_q) with converter reference voltage (Uro_d, Uro_q; Uro) in order to obtain a valve control signal (Ur_d, Ur_q; Ur). a number of converter valve pairs (CVA1, CVA2, CVB1, CVB2, CVC1, CVC2), each pair being configured to be connected to a corresponding AC phase of the AC system, and a control unit operative to control the converter valves (CVA1, CVA2, CVB1, CVB2, CVC1, CVC2) to generate at least one voltage waveform and the control unit when reducing oscillations of power between the first pole and the second pole is configured to create a virtual resistance around a resonance frequency of the DC system formed between the two converters, and wherein the control unit when forming the virtual resistance is configured to multiply a phase current (ia_d, ia_q; ia; pc_d, pc_q) output from the first voltage source converter with a proportional gain (Kp) for obtaining an oscillations damping control signal (dc_d, dc_q), and to reduce oscillations between the converters by combining the oscillations damping control signal (dc_d, dc_q) with converter reference voltage (Uro_d, Uro_q; Uro) in order to obtain a valve control signal (Ur_d, Ur_q; Ur).
A supporting device designed to be secured in the axle housing (20, 10, 7) of an axle unit, the supporting device comprising a main portion being substantially in the shape of a ring or at least of half a ring and having a longitudinal axis, so as to form at least part of a circular opening intended to receive an outer ring of a bearing which, in use, is mounted on a differential housing of a differential that is arranged in said axle housing (20, 10), characterized in that the supporting device further comprises a collector capable of collecting lubricant projected, in use, inside the axle housing by at least one rotating part the collector comprising an outlet port for allowing lubricant to flow towards the longitudinal axis.
An artificial turf system comprising: a primary backing layer having a plurality of artificial turf yarns projecting upwardly from the primary backing layer having a bottom surface; a shock absorption component composed of a sheet of three-dimensional random loop material (3DRLM) and in contact with the primary backing layer, the shock absorption component comprising (i) a cushioning layer having an exposed surface; and (ii) a shockpad; and wherein the 3DRLM in the cushioning layer has an apparent density that is greater than the apparent density of the 3DRLM in the shockpad and wherein the exposed surface of the cushioning layer contacts the bottom surface of the primary backing layer. a primary backing layer having a plurality of artificial turf yarns projecting upwardly from the primary backing layer having a bottom surface; a shock absorption component composed of a sheet of three-dimensional random loop material (3DRLM) and in contact with the primary backing layer, the shock absorption component comprising (i) a cushioning layer having an exposed surface; and (ii) a shockpad; and wherein the 3DRLM in the cushioning layer has an apparent density that is greater than the apparent density of the 3DRLM in the shockpad and wherein the exposed surface of the cushioning layer contacts the bottom surface of the primary backing layer. (i) a cushioning layer having an exposed surface; and (ii) a shockpad; and
A DNA sequence comprising a DNA sequence encoding a partial sequence of a protein A-like protein and a promoter wherein the protein A-like protein is a protein that has an amino acid sequence having at least 95% amino acid residue identity in comparison with the amino acid sequence listed in SEQ ID NO: 2 or SEQ ID NO: 4 comprising the immunoglobulin-binding domains E, D, A, B and C and has immunoglobulin-binding activity, wherein the partial sequence is a protein that has immunoglobulin-binding activity and differs from protein A by the absence of the cell wall-binding domain X and the signal sequence S from protein A, said promoter is a promoter from one of the genes selected from the group consisting of a gene encoding a middle wall protein or an outer wall protein of a Brevibacillus genus bacterium, and a cell wall protein of Brevibacillus choshinensis HPD31.
Device for holding objects, at least comprising a holding unit, a cover coupled with the holding unit and a receiving element rotatably mounted in the holding unit, wherein - the holding unit is displaceably arranged in a receiving space, - the receiving element has at least two sections into which functional elements (80; 90; 100) are inserted, - the functional elements (80; 90; 100) are constructed for receiving and/or holding objects, and - the cover is pivotably arranged at the holding unit and is pivotable by a displacement of the holding unit out of the receiving space. - the holding unit is displaceably arranged in a receiving space, - the receiving element has at least two sections into which functional elements (80; 90; 100) are inserted, - the functional elements (80; 90; 100) are constructed for receiving and/or holding objects, and - the cover is pivotably arranged at the holding unit and is pivotable by a displacement of the holding unit out of the receiving space.
Glass container manufacturing line comprising a forming station for the containers and a system for providing marked containers, wherein the containers are transferred to the system when exiting the forming station, wherein the system for providing marked containers comprises: - a computerised control system storing at least one unique identifier for each container, to be applied to a respective container, - a printing unit comprising an ink delivery station, operatively connected with said computerised control system, able to print said identifier on each container, comprising a printing head configured for spraying said ink on an external surface of each container, - displacement means able to perform a relative rotation, translation or rotary translation between each container and the printing head during the printing of the identifier on the container, said displacement means being operatively connected with said computerised control system, wherein the forming station is positioned near to the printing unit, so that the containers exiting the forming station are pre-heated when exiting forming station and before entering the printing unit. - a computerised control system storing at least one unique identifier for each container, to be applied to a respective container, - a printing unit comprising an ink delivery station, operatively connected with said computerised control system, able to print said identifier on each container, comprising a printing head configured for spraying said ink on an external surface of each container, - displacement means able to perform a relative rotation, translation or rotary translation between each container and the printing head during the printing of the identifier on the container, said displacement means being operatively connected with said computerised control system,
A method of installing a seal in a bore of a component, comprising: securing a base plate to a component; arranging seal onto a pusher; inserting the pusher into a hole in the base plate; installing a hub onto the base plate and over the pusher; and rotating a rod relative to the hub to advance the pusher and seat the seal in the bore; characterised in that: the securing step includes providing a window in the base plate that leaves the seal visible through the window subsequent to the inserting step. securing a base plate to a component; arranging seal onto a pusher; inserting the pusher into a hole in the base plate; installing a hub onto the base plate and over the pusher; and rotating a rod relative to the hub to advance the pusher and seat the seal in the bore; characterised in that: the securing step includes providing a window in the base plate that leaves the seal visible through the window subsequent to the inserting step.
A pipette with - a rod-like housing (2, 3), - a seat for releasably holding a pipette tip on the bottom end of the housing (2, 3), - a displacement device comprising a displacement chamber with a displaceable boundary, - a connection channel connecting the displacement chamber with an opening in the seat, - a drive device coupled with the displaceable boundary having an axially displaceable lift rod for displacing the displaceable boundary of the displacement chamber, - an upper stop body, a lower stop body and a stop element on the periphery of the lift rod for delimiting the lift of the lift rod, - an overlift spring, via which the lower stop body is reinforced against a displacement downwards at an overlift spring seat, - a screw element permanently connected with the housing (2, 3) and a screw element engaging with it and displaceable in the housing, which is coupled with the lower stop body in order to displace it during a displacement of the displaceable screw element in the axial direction of the lift rod - characterized by - a toothing progressing along a screw line with the same slope as the thread of the displaceable screw element with teeth directed in the direction of the screw axis of the displaceable screw element on the upper edge of the displaceable screw element, - a driving tooth wheel rotatably mounted on a bearing permanently connected with the housing (2, 3), which cogs with the toothing of the displaceable screw element and - means for turning the driving tooth wheel. - a rod-like housing (2, 3), - a seat for releasably holding a pipette tip on the bottom end of the housing (2, 3), - a displacement device comprising a displacement chamber with a displaceable boundary, - a connection channel connecting the displacement chamber with an opening in the seat, - a drive device coupled with the displaceable boundary having an axially displaceable lift rod for displacing the displaceable boundary of the displacement chamber, - an upper stop body, a lower stop body and a stop element on the periphery of the lift rod for delimiting the lift of the lift rod, - an overlift spring, via which the lower stop body is reinforced against a displacement downwards at an overlift spring seat, - a screw element permanently connected with the housing (2, 3) and a screw element engaging with it and displaceable in the housing, which is coupled with the lower stop body in order to displace it during a displacement of the displaceable screw element in the axial direction of the lift rod - characterized by - a toothing progressing along a screw line with the same slope as the thread of the displaceable screw element with teeth directed in the direction of the screw axis of the displaceable screw element on the upper edge of the displaceable screw element, - a driving tooth wheel rotatably mounted on a bearing permanently connected with the housing (2, 3), which cogs with the toothing of the displaceable screw element and - means for turning the driving tooth wheel.
Electric control circuit for controlling a pneumatic/hydraulic system in a turbine engine, the control circuit including: - at least an electromagnet for controlling the hydraulic system, - a plurality of transducers (S1-S3), connected to a plurality of respective switches, the plurality of switches being disposed in series in the electric control circuit, the plurality of switches being normally closed and traversed by the current flowing in the electromagnet, the failure of a transducers (S1-S3) causing the opening of the respective switch, - a plurality of resistances (R1-R3), each resistance being disposed in paralleled with one of the switches of said plurality of switches, characterized in that the failure of a transducers (S1-S3) causes the opening of the respective switch and current flowing through the respective resistance (R1-R3), the electromagnet being dimensioned in such a way to command a change of pressure in the pneumatic/hydraulic system when a portion (n) of the plurality of transducers (S1-S3) fails. - at least an electromagnet for controlling the hydraulic system, - a plurality of transducers (S1-S3), connected to a plurality of respective switches, the plurality of switches being disposed in series in the electric control circuit, the plurality of switches being normally closed and traversed by the current flowing in the electromagnet, the failure of a transducers (S1-S3) causing the opening of the respective switch, - a plurality of resistances (R1-R3), each resistance being disposed in paralleled with one of the switches of said plurality of switches,