mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas cleaning catalyst being configured to be disposed in an exhaust pathway (3, 4) of an internal combustion engine and to clean exhaust gas emitted from the internal combustion engine, the exhaust gas cleaning catalyst comprising: a substrate having a wall flow structure in which an entry side cell, in which an end part on an exhaust gas inflow side is open and an end part on an exhaust gas outflow side is closed, and an exit side cell, in which an end part on an exhaust gas outflow side is open and an end part on an exhaust gas inflow side is closed, are divided by a porous dividing wall, a first catalyst layer that includes a metal catalyst and is disposed in an internal portion of the porous dividing wall so as to be in contact with the exit side cell and not in contact with the entry side cell, and a second catalyst layer which includes a metal catalyst and is disposed at the surface of the porous dividing wall so as to be in contact with the exit side cell, wherein no catalyst layer is provided in the region in contact with the entry side cell, and when the overall length of the porous dividing wall in the direction along which the porous dividing wall extends is designated as 100%, the second catalyst layer is disposed with a length that is 45% to 60% of the overall length of the porous dividing wall from the end part on the exhaust gas outflow side in the direction along which the porous dividing wall extends. a substrate having a wall flow structure in which an entry side cell, in which an end part on an exhaust gas inflow side is open and an end part on an exhaust gas outflow side is closed, and an exit side cell, in which an end part on an exhaust gas outflow side is open and an end part on an exhaust gas inflow side is closed, are divided by a porous dividing wall, a first catalyst layer that includes a metal catalyst and is disposed in an internal portion of the porous dividing wall so as to be in contact with the exit side cell and not in contact with the entry side cell, and a second catalyst layer which includes a metal catalyst and is disposed at the surface of the porous dividing wall so as to be in contact with the exit side cell, wherein no catalyst layer is provided in the region in contact with the entry side cell, and when the overall length of the porous dividing wall in the direction along which the porous dividing wall extends is designated as 100%, the second catalyst layer is disposed with a length that is 45% to 60% of the overall length of the porous dividing wall from the end part on the exhaust gas outflow side in the direction along which the porous dividing wall extends.
Actuating force coupling, in particular for an electromechanical points drive in rail traffic, with a drivable coupling hub, which is able to rotate about an axial direction (Ax) of the actuating force coupling and in which a threaded spindle can be mounted, wherein the coupling hub is mechanically coupled to a rotatable coupling housing of the actuating force coupling via an overload coupling and the coupling housing is rotatably mounted on the coupling hub by means of two coaxial deep groove ball thrust bearings (140, 140), characterised in that • the coupling hub is configured radially (Ra) inside an overload coupling, wherein the coupling hub is axially supported in a pressure piece in question of the overload coupling via a respective deep groove ball thrust bearing and wherein the two pressure pieces (123, 123) act on a plate stack (113, 133;...) of the overload coupling in an axially (Ax) pretensioned manner, and • a respective deep groove ball thrust bearing is configured in the actuating force coupling in a manner pretensioned in the axial direction (Ax) by an axial bearing pretensioning facility. • the coupling hub is configured radially (Ra) inside an overload coupling, wherein the coupling hub is axially supported in a pressure piece in question of the overload coupling via a respective deep groove ball thrust bearing and wherein the two pressure pieces (123, 123) act on a plate stack (113, 133;...) of the overload coupling in an axially (Ax) pretensioned manner, and • a respective deep groove ball thrust bearing is configured in the actuating force coupling in a manner pretensioned in the axial direction (Ax) by an axial bearing pretensioning facility.
A method comprising: storing a plurality of data blocks at a home node of a plurality of nodes; receiving a request at the home node from a first node, the request being a request for access to a given data block of the plurality of data blocks; maintaining a count of a number of read requests at the home node for the given data block; in response to receiving the request from the first node and to determining that both the given data block is currently stored at a second node and the count has exceeded a threshold, the home node: requesting a copy of the given data block from the second node; storing the copy of the given data block at the home node responsive to receiving the given data block from the second node; and forwarding the copy of the given data block from the home node to the first node. storing a plurality of data blocks at a home node of a plurality of nodes; receiving a request at the home node from a first node, the request being a request for access to a given data block of the plurality of data blocks; maintaining a count of a number of read requests at the home node for the given data block; in response to receiving the request from the first node and to determining that both the given data block is currently stored at a second node and the count has exceeded a threshold, the home node: requesting a copy of the given data block from the second node; storing the copy of the given data block at the home node responsive to receiving the given data block from the second node; and forwarding the copy of the given data block from the home node to the first node. requesting a copy of the given data block from the second node; storing the copy of the given data block at the home node responsive to receiving the given data block from the second node; and forwarding the copy of the given data block from the home node to the first node.
A clothing having a body including a front body and a back body, wherein a material constituting the front body and a material constituting the back body are the same, and a chest width of the back body is shorter than a chest width of the front body, the clothing is characterized in that: the back body is composed of a plurality of back body parts joined, wherein the plurality of back body parts has such a shape that a cutting out portion is formed when these back body parts are arranged in a plane without being joined, and when the plurality of back body parts is joined, a joint region closing the cutting out portion passes from the superior angle of scapula to the angulus inferior scapulae of a human body between the left scapula and the right scapula, and wherein the total measurement of the chest width of the front body and the chest width of the back body is lower than the lower limit of a chest or bust measurement range of a specific clothing size specified in a specific clothing standard; wherein a specific clothing size specified in a specific clothing standard is a clothing standard and a clothing size used as a standard in designing the clothing. the back body is composed of a plurality of back body parts joined, wherein the plurality of back body parts has such a shape that a cutting out portion is formed when these back body parts are arranged in a plane without being joined, and when the plurality of back body parts is joined, a joint region closing the cutting out portion passes from the superior angle of scapula to the angulus inferior scapulae of a human body between the left scapula and the right scapula, and wherein the total measurement of the chest width of the front body and the chest width of the back body is lower than the lower limit of a chest or bust measurement range of a specific clothing size specified in a specific clothing standard; wherein a specific clothing size specified in a specific clothing standard is a clothing standard and a clothing size used as a standard in designing the clothing.
Vehicle to project concrete, comprising a movement mean, for example a truck, provided with a main motor to move the truck using a movement unit, a unit to project the concrete equipped with a pumping device configured to feed the concrete along a pipe, comprising a unit to generate and feed electric energy configured to selectively feed one or more of the movement unit of the truck and the concrete projection unit, wherein said electric energy generation and feed unit comprises at least one electric accumulator, at least one electric converter (30, 31) configured to take energy from said electric accumulator, and at least one electric motor (32, 33) fed by said electric converter (30, 31), wherein said at least one electric motor (32, 33) can be selectively and alternatively coupled, in an exclusive way, by means of a respective coupling (34, 35; 44, 45), with the movement unit of the truck or to the concrete projection unit, characterized in that the vehicle comprises a programmable electronic unit programmed to command said couplings (34, 35) with the movement unit and said couplings (44, 45) with the concrete projection unit to activate or de-activate them respectively, depending on whether it is necessary to move the vehicle or proceed with the pumping or washing operations. wherein said electric energy generation and feed unit comprises at least one electric accumulator, at least one electric converter (30, 31) configured to take energy from said electric accumulator, and at least one electric motor (32, 33) fed by said electric converter (30, 31), wherein said at least one electric motor (32, 33) can be selectively and alternatively coupled, in an exclusive way, by means of a respective coupling (34, 35; 44, 45), with the movement unit of the truck or to the concrete projection unit, characterized in that the vehicle comprises a programmable electronic unit programmed to command said couplings (34, 35) with the movement unit and said couplings (44, 45) with the concrete projection unit to activate or de-activate them respectively, depending on whether it is necessary to move the vehicle or proceed with the pumping or washing operations.
A computer-implemented method of analysing multiphase fluid flow in at least one well, the method comprises characterising slug flow in the multiphase fluid flow by - receiving in a storage a plurality of well pressure data from at least one pressure gauge installed on the at least one well, - processing using a processor the plurality of well pressure data to obtain a time-varying slug amplitude and/or a time-varying slug period for slugs in the slug flow, - analysing, using the processor, the slug amplitudes and/or the slug periods over a period of time to thereby determine a measure of well performance, wherein the measure comprises a slug amplitude distribution and/or a slug period distribution over the period of time and/or wherein the measure comprises average slug amplitudes and/or average slug periods, - determining average slug amplitudes and/or average slug periods over a predetermined period of time, and - correlating the determined average slug amplitudes and/or average slug periods to well operating parameters, wherein the well operating parameters comprise lift gas rate, choke settings, fluid injection rates, gas-liquid ratio, wellhead pressure, downhole pressure, water-cut, water-oil ratio, temperature at wellhead and downhole, - controlling an oil field unit to schedule the at least one well for testing via a test manifold based on the determined measure of well performance, wherein scheduling based on the determined measure reduces an amount of time required to identify poorly performing wells, - routing, via the test manifold and according to schedule, the at least one well to a test separator for testing. - receiving in a storage a plurality of well pressure data from at least one pressure gauge installed on the at least one well, - processing using a processor the plurality of well pressure data to obtain a time-varying slug amplitude and/or a time-varying slug period for slugs in the slug flow, - analysing, using the processor, the slug amplitudes and/or the slug periods over a period of time to thereby determine a measure of well performance, wherein the measure comprises a slug amplitude distribution and/or a slug period distribution over the period of time and/or wherein the measure comprises average slug amplitudes and/or average slug periods, - determining average slug amplitudes and/or average slug periods over a predetermined period of time, and - correlating the determined average slug amplitudes and/or average slug periods to well operating parameters, wherein the well operating parameters comprise lift gas rate, choke settings, fluid injection rates, gas-liquid ratio, wellhead pressure, downhole pressure, water-cut, water-oil ratio, temperature at wellhead and downhole, - controlling an oil field unit to schedule the at least one well for testing via a test manifold based on the determined measure of well performance, wherein scheduling based on the determined measure reduces an amount of time required to identify poorly performing wells, - routing, via the test manifold and according to schedule, the at least one well to a test separator for testing.
Use of a thin film of mesoporous silica that has been obtained by a sol-gel method as a sensitive material in a gravimetric sensor for detecting or assaying vapours of one or more nitro compounds, wherein the silica is functionalised by methyl groups.
A method for the control of a lighting system having a bus line to which at least one operating device for lamps and at least one control device is connected, wherein the operating devices are controlled in brightness via control commands and wherein the lighting system is transferred from the operating state into an idle state comprising the following steps: - send a switch-off command on the bus line, - receive the switch-off command through a control device, - disconnect all operating devices from the power supply through the control device, - monitor the bus line for commands through the control device, - store all control commands in the control device characterized in that the control device can also receive digital control commands in the idle state and store the last control commands, wherein the control device after receiving one of the restart commands connects the operating devices with the power supply and thereupon sends the stored control commands to the operating devices. - send a switch-off command on the bus line, - receive the switch-off command through a control device, - disconnect all operating devices from the power supply through the control device, - monitor the bus line for commands through the control device, - store all control commands in the control device
An absorbent article comprising: a chassis including a topsheet and a backsheet joined to the topsheet and an absorbent core located between the topsheet and the backsheet, the chassis having a front waist region, a back waist region, a crotch region located between the front waist region and the back waist region, a longitudinal axis extending through the front and back waist regions and a lateral axis substantially perpendicular to the longitudinal axis; wherein said absorbent article comprises a barrier cuff strip extending in a longitudinal direction from the front waist region to the back waist region along the topsheet, the barrier cuff strip including a front end at the front waist region, a back end at the back waist region and proximal and distal edges connecting the front end and the back end, the barrier cuff strip distal edge being attached to the topsheet at a cuff end bond region having an outer bond edge at the front end of the barrier cuff strip and an inner bond edge spaced longitudinally from the outer bond edge; and characterized in that said absorbent article comprises a side panel extending laterally beyond a side of the chassis and joined to the chassis at the back waist region at a panel joint region extending between an outer panel joint edge and an inner panel joint edge, the side panel comprising an elastically stretchable material; wherein a longitudinal distance from the lateral axis to the inner panel joint edge is at least 1/4 of a longitudinal distance from the lateral axis to the inner bond edge of the cuff end bond region. a chassis including a topsheet and a backsheet joined to the topsheet and an absorbent core located between the topsheet and the backsheet, the chassis having a front waist region, a back waist region, a crotch region located between the front waist region and the back waist region, a longitudinal axis extending through the front and back waist regions and a lateral axis substantially perpendicular to the longitudinal axis; wherein said absorbent article comprises a barrier cuff strip extending in a longitudinal direction from the front waist region to the back waist region along the topsheet, the barrier cuff strip including a front end at the front waist region, a back end at the back waist region and proximal and distal edges connecting the front end and the back end, the barrier cuff strip distal edge being attached to the topsheet at a cuff end bond region having an outer bond edge at the front end of the barrier cuff strip and an inner bond edge spaced longitudinally from the outer bond edge; and characterized in that said absorbent article comprises a side panel extending laterally beyond a side of the chassis and joined to the chassis at the back waist region at a panel joint region extending between an outer panel joint edge and an inner panel joint edge, the side panel comprising an elastically stretchable material; wherein a longitudinal distance from the lateral axis to the inner panel joint edge is at least 1/4 of a longitudinal distance from the lateral axis to the inner bond edge of the cuff end bond region.
A system for configuring a direct write machine comprising: an automatic direct write machine configuration (ADWMC) unit configured to: receive a computer aided design file containing electrical circuit design data for direct writing on a surface, said CAD file including CAD data for a multiplicity of objects to be produced on said surface, automatically configure a direct write machine to direct write direct writing data based on said CAD data on said surface in plural scans, each having a scan width less than a width of said surface including arranging said direct writing data for said multiplicity of objects to be written in a side by side manner in each of said plural scans so as to be within said scan width, wherein an extent of each scan of said plural scans is defined by a scan seam, said direct writing data being configured such that each said scan seam is located between said objects and not overlying said objects whereby stitching of direct writing data between adjacent scans is obviated. receive a computer aided design file containing electrical circuit design data for direct writing on a surface, said CAD file including CAD data for a multiplicity of objects to be produced on said surface, automatically configure a direct write machine to direct write direct writing data based on said CAD data on said surface in plural scans, each having a scan width less than a width of said surface including arranging said direct writing data for said multiplicity of objects to be written in a side by side manner in each of said plural scans so as to be within said scan width, wherein an extent of each scan of said plural scans is defined by a scan seam, said direct writing data being configured such that each said scan seam is located between said objects and not overlying said objects whereby stitching of direct writing data between adjacent scans is obviated.
Method for delivery quantity control of a reciprocating compressor, in which the movement of a closing body of a self-acting intake valve is influenced during at least part of a cycle of crank rotation by an unloader driven by a control device, wherein the method comprises a continuously variable backflow regulation, in which the unloader lies against the closing body during a first section of the cycle of crank rotation and prevents its closure, and in which the unloader is driven back during a second section of the cycle of crank rotation and the closing body is closed, characterized in that the method further comprises a skip regulation, in which the unloader prevents closure of the closing body during a whole cycle of crank rotation, that the delivery quantity is regulated by at least a combination of continuously variable backflow regulation and skip regulation, and that during use of the continuously variable backflow regulation the closing body is influenced by the control device and the unloader in such a way that a closing body of a self-acting pressure valve of the reciprocating compressor is opened during at least a predetermined minimal total opening angle (Kv) of a crank rotation.
A method comprising the steps performed by a home device in a home network system of: receiving (1010,1106) an access token from an account server managing an account for a control device used to control the home device; receiving (1016, 1108), from the control device, server information including information relating to access to a service server; accessing the service server based on the server information and transmitting device information on the home device to the service server; receiving (1018, 1110), from the service server, a peer identifier, ID, for identifying the home device and a peer group ID for identifying a group of home devices, based on the server information, wherein the peer group ID indicates a group of home devices that have been registered in the service server using a particular user account, and wherein the peer ID is an identifier assigned by the service server for allowing a connectivity server to identify the home device; and logging (1020, 1112) into the connectivity server managing connection between the home device and the control device based on the access token, the peer ID, and the peer group ID. receiving (1010,1106) an access token from an account server managing an account for a control device used to control the home device; receiving (1016, 1108), from the control device, server information including information relating to access to a service server; accessing the service server based on the server information and transmitting device information on the home device to the service server; receiving (1018, 1110), from the service server, a peer identifier, ID, for identifying the home device and a peer group ID for identifying a group of home devices, based on the server information, wherein the peer group ID indicates a group of home devices that have been registered in the service server using a particular user account, and wherein the peer ID is an identifier assigned by the service server for allowing a connectivity server to identify the home device; and logging (1020, 1112) into the connectivity server managing connection between the home device and the control device based on the access token, the peer ID, and the peer group ID.