mhurhangee/patent-ind-claim-en huggingface dataset:
An automated staining apparatus for processing at least one biological sample arranged on a slide , the apparatus comprising: at least one capillary staining module (100, 100', 100") comprising: a slide rack holder configured to detachably hold a slide rack configured to hold one or more slides , and a capillary lid rack holder configured to detachably hold a capillary lid rack configured to hold one or more capillary lids , wherein the slide rack can be removed independently of removing the capillary lid rack , and a first fluid container comprising a first fluid , wherein the automated staining apparatus is configured to automatically: control the slide rack holder to rotate the one or more slides from an insert position to one or more inclined position, and control the capillary lid rack holder to move the one or more capillary lids towards the one or more slides to automatically form a capillary gap between each slide and each capillary lid , said capillary gap functioning as a capillary chamber; and to automatically supply an amount of the first fluid from the fluid container to the slide when in said inclined position. at least one capillary staining module (100, 100', 100") comprising: a slide rack holder configured to detachably hold a slide rack configured to hold one or more slides , and a capillary lid rack holder configured to detachably hold a capillary lid rack configured to hold one or more capillary lids , wherein the slide rack can be removed independently of removing the capillary lid rack , and a slide rack holder configured to detachably hold a slide rack configured to hold one or more slides , and a capillary lid rack holder configured to detachably hold a capillary lid rack configured to hold one or more capillary lids , wherein the slide rack can be removed independently of removing the capillary lid rack , and a first fluid container comprising a first fluid , wherein the automated staining apparatus is configured to automatically: control the slide rack holder to rotate the one or more slides from an insert position to one or more inclined position, and control the capillary lid rack holder to move the one or more capillary lids towards the one or more slides to automatically form a capillary gap between each slide and each capillary lid , said capillary gap functioning as a capillary chamber; and to automatically supply an amount of the first fluid from the fluid container to the slide when in said inclined position.
A cargo system for use with a vehicle , the system comprising: a cargo loader, the cargo loader including a plurality of stanchions , each stanchion connected to opposing sides of the vehicle ; a plurality of hoops , each hoop having a pair of legs , each leg attached at one end to one of the plurality of stanchions on an opposite side of the vehicle from the other leg , a plurality of elbows each attached to an opposing end of one of the plurality of legs , and a cross bar connecting a pair of the plurality of elbows ; a plurality of cargo loader beam supports , each cargo loader beam support being attached to one of the plurality of hoops ; and a cargo loader beam connected with the plurality of cargo loader beam supports and operable to support cargo , characterized in that the cargo loader beam is movable with respect to the plurality of hoops . a plurality of stanchions , each stanchion connected to opposing sides of the vehicle ; a plurality of hoops , each hoop having a pair of legs , each leg attached at one end to one of the plurality of stanchions on an opposite side of the vehicle from the other leg , a plurality of elbows each attached to an opposing end of one of the plurality of legs , and a cross bar connecting a pair of the plurality of elbows ; a plurality of cargo loader beam supports , each cargo loader beam support being attached to one of the plurality of hoops ; and a cargo loader beam connected with the plurality of cargo loader beam supports and operable to support cargo , characterized in that the cargo loader beam is movable with respect to the plurality of hoops .
An organic compound, characterized in that the organic compound is expressed by formula : wherein in formula , Z 1 and Z 2 are respectively, independently selected from an alkyl group optionally having a substituent, an aryl group optionally having a substituent, and an aralkyl group optionally having a substituent, R 11 to R 18 are respectively, independently selected from a hydrogen atom, an alkyl group optionally having a substituent, an alkoxy group optionally having a substituent, an aryl group optionally having a substituent, a heterocyclic group optionally having a substituent, and a halogen atom, and R 12 and R 13 optionally bound to each other to form a ring, R 21 and R 22 are respectively, independently selected from a hydrogen atom, a hydroxyl group, an alkyl group optionally having a substituent, an alkoxy group optionally having a substituent, an aryl group optionally having a substituent, and an aralkyl group optionally having a substituent, and X - represents an anion, n is an integer greater than or equal to 1, and when n is 2 or greater, two or more X - s are the same or different from each other. wherein in formula , Z 1 and Z 2 are respectively, independently selected from an alkyl group optionally having a substituent, an aryl group optionally having a substituent, and an aralkyl group optionally having a substituent, R 11 to R 18 are respectively, independently selected from a hydrogen atom, an alkyl group optionally having a substituent, an alkoxy group optionally having a substituent, an aryl group optionally having a substituent, a heterocyclic group optionally having a substituent, and a halogen atom, and R 12 and R 13 optionally bound to each other to form a ring, R 21 and R 22 are respectively, independently selected from a hydrogen atom, a hydroxyl group, an alkyl group optionally having a substituent, an alkoxy group optionally having a substituent, an aryl group optionally having a substituent, and an aralkyl group optionally having a substituent, and X - represents an anion, n is an integer greater than or equal to 1, and when n is 2 or greater, two or more X - s are the same or different from each other.
An equalizing mechanism for a displacement machine according to the spiral principle, in particular a scroll compressor, wherein the equalizing mechanism has a drive shaft , a first equalizing element and a second equalizing element , wherein - the first equalizing element has a cylindrical hub section and a first force transmission section , and is in rotatable contact with the drive shaft by a first rotary axis , and - the second equalizing element is in rotatable contact with the drive shaft by a second rotary axis , and wherein a center axis S of the drive shaft and a center axis C of the cylindrical hub section are arranged on a first reference line CS, and characterized in that a center of gravity J of the first equalizing element and a center of gravity K of the second equalizing element are arranged on a different side of the first reference line CS than a center axis P of the first rotary axis . - the first equalizing element has a cylindrical hub section and a first force transmission section , and is in rotatable contact with the drive shaft by a first rotary axis , and - the second equalizing element is in rotatable contact with the drive shaft by a second rotary axis ,
A process for treating a hydrocarbon stream, the process comprising: flowing the hydrocarbon stream through a hydrocarbon treating vessel; heating at least a portion of an interior surface of the vessel to a predetermined vessel temperature of 400°C or greater for 300 hours or more; and controlling sensitization and chloride stress corrosion cracking of the portion of the hydrocarbon treating vessel by employing a hydrocarbon treating vessel with at least the portion thereof formed of a novel austenitic stainless steel alloy comprising: C Si P S Mn Ni Mo Cu Cr Nb N 0.005-0.020 wt-% 1.00 Max wt-% 0.045 Max wt-% 0.030 Max wt-% 2.00 Max wt-% 10-13 wt-% 1.0-7 wt-% 0.5-2 wt-% 15-24 wt-% 0.20-0.50 wt-% 0.06-0.10 wt-% and the remainder of the composition being iron and any unavoidable impurities to restrict sensitization and chloride stress corrosion cracking of the portion of the interior surface. flowing the hydrocarbon stream through a hydrocarbon treating vessel; heating at least a portion of an interior surface of the vessel to a predetermined vessel temperature of 400°C or greater for 300 hours or more; and controlling sensitization and chloride stress corrosion cracking of the portion of the hydrocarbon treating vessel by employing a hydrocarbon treating vessel with at least the portion thereof formed of a novel austenitic stainless steel alloy comprising: C Si P S Mn Ni Mo Cu Cr Nb N 0.005-0.020 wt-% 1.00 Max wt-% 0.045 Max wt-% 0.030 Max wt-% 2.00 Max wt-% 10-13 wt-% 1.0-7 wt-% 0.5-2 wt-% 15-24 wt-% 0.20-0.50 wt-% 0.06-0.10 wt-%
A method for performing scanning over multiple bands by a station , STA, in a wireless LAN communication system, the method comprising: transmitting a first frame to a first access point , AP; and receiving a second frame from the first AP in response to the first frame, wherein the second frame includes information about neighbor APs when the first frame includes information about one or more operating classes supported by the STA and a service set identifier, SSID, and wherein a SSID of the neighbor APs is matched with the SSID included in the first frame and an operating class of the neighbor APs is matched with an operating class included in the one or more operating classes supported by the STA. transmitting a first frame to a first access point , AP; and receiving a second frame from the first AP in response to the first frame, wherein the second frame includes information about neighbor APs when the first frame includes information about one or more operating classes supported by the STA and a service set identifier, SSID, and wherein a SSID of the neighbor APs is matched with the SSID included in the first frame and an operating class of the neighbor APs is matched with an operating class included in the one or more operating classes supported by the STA.
A method for exercising a genset , comprising: detecting whether the genset is in a full exercise mode or a crank only mode; and activating a plurality of exercise cycles of the genset, wherein activating the plurality of exercise cycles comprises: in response to detecting the genset is in the full exercise mode, igniting fuel to activate the genset during each of the plurality of exercise cycles of the genset; and in response to detecting the genset is in the crank only mode, cranking the genset without igniting fuel during at least a first subset of the plurality of exercise cycles. detecting whether the genset is in a full exercise mode or a crank only mode; and activating a plurality of exercise cycles of the genset, wherein activating the plurality of exercise cycles comprises: in response to detecting the genset is in the full exercise mode, igniting fuel to activate the genset during each of the plurality of exercise cycles of the genset; and in response to detecting the genset is in the crank only mode, cranking the genset without igniting fuel during at least a first subset of the plurality of exercise cycles. in response to detecting the genset is in the full exercise mode, igniting fuel to activate the genset during each of the plurality of exercise cycles of the genset; and in response to detecting the genset is in the crank only mode, cranking the genset without igniting fuel during at least a first subset of the plurality of exercise cycles.
A stent comprising a tubular frame comprising a first end and a second end and a longitudinal axis therebetween, wherein the frame comprises a plurality of struts defining a generally cylindrical portion comprising a longitudinally extending helical fin protruding radially inwardly and having a helix angle characterised in that the angle , relative to the longitudinal axis , of at least some of the struts in the helical fin is substantially aligned with the helix angle of the helical fin .
A method for the preparation of a radiation source comprising the following steps: (i) curing a formulation in a mold into cured rods wherein said formulation comprises a radioactive substance and a curable support matrix; and (ii) cutting said cured rods to form at least one radiation source suitable for diagnostic imaging applications characterised in that said curing step comprises mixing said formulation in said mold, such that the dispersion of the radioactive substance stabilizes uniformly in the formulation. (i) curing a formulation in a mold into cured rods wherein said formulation comprises a radioactive substance and a curable support matrix; and (ii) cutting said cured rods to form at least one radiation source suitable for diagnostic imaging applications characterised in that said curing step comprises mixing said formulation in said mold, such that the dispersion of the radioactive substance stabilizes uniformly in the formulation.
A method for producing a fibre preform for a fibre composite component, wherein at least a first fibre structure is braided in a braiding process over the entire length of the fibre preform which is to be produced, and at least a second fibre structure is wound in a winding process over part of the length of the fibre preform which is to be produced, characterised in that the winding process is integrated into the ongoing braiding process and discontinued from the ongoing braiding process, the fibres of the second, wound, fibre structure to deposit the second, wound, fibre structure are severed with a cutting knife, and the second, wound, fibre structure at least at times is pressed against the fibre preform by way of pressure rolls , wherein fibre ends of the fibres of the second, wound, fibre structure are provided with adhesive, and the pressure rolls are heatable and the fibre ends which are provided with adhesive are thermally activated and fixed by the pressure rolls .
An outlet box system for a central vacuum system , the outlet box system comprising: a casing assembly for operatively mounting onto a given support structure , the casing assembly having a substantially closed body provided with first and second ports , the first port being sealingly connectable via piping to the central vacuum system , and the second port being configured for allowing a vacuum hose of the central vacuum system to extend therethrough and out from the casing assembly ; a door assembly operatively mountable onto the casing assembly in a substantially sealed manner, the door assembly being configured for allowing a user to selectively have access to an inside portion of the casing assembly ; and a gap-adjustment assembly for adjusting a distance between the door and casing assemblies , in accordance with a wall thickness of a finished surface of the support structure . a casing assembly for operatively mounting onto a given support structure , the casing assembly having a substantially closed body provided with first and second ports , the first port being sealingly connectable via piping to the central vacuum system , and the second port being configured for allowing a vacuum hose of the central vacuum system to extend therethrough and out from the casing assembly ; a door assembly operatively mountable onto the casing assembly in a substantially sealed manner, the door assembly being configured for allowing a user to selectively have access to an inside portion of the casing assembly ; and a gap-adjustment assembly for adjusting a distance between the door and casing assemblies , in accordance with a wall thickness of a finished surface of the support structure .
A pipe alignment mechanism of a butterfly valve detachably attached to a columnar valve stem bearing portion provided to protrude from an outer peripheral portion of a cylindrical valve box and extending in a radial direction, characterized by the pipe alignment mechanism comprising the valve box and a positioning tool , a groove provided at a top flange lower portion of a valve box such that a positioning tool is fittable in the groove, wherein a groove end surface position is on a plane on which a pipe flange and the valve box are joined to each other, wherein (i) the groove has at least one insertion groove in which a fitting protrusion provided at the positioning tool is fittable, and the at least one insertion groove is provided at different positions such that various flange connection standards are acceptable, or (ii). the groove has at least one hole in which a rod-shaped protrusion provided at the positioning tool is insertable, and the at least one hole is provided at different positions such that various flange connection standards are acceptable. a groove provided at a top flange lower portion of a valve box such that a positioning tool is fittable in the groove, wherein a groove end surface position is on a plane on which a pipe flange and the valve box are joined to each other, wherein (i) the groove has at least one insertion groove in which a fitting protrusion provided at the positioning tool is fittable, and the at least one insertion groove is provided at different positions such that various flange connection standards are acceptable, or (ii). the groove has at least one hole in which a rod-shaped protrusion provided at the positioning tool is insertable, and the at least one hole is provided at different positions such that various flange connection standards are acceptable. (i) the groove has at least one insertion groove in which a fitting protrusion provided at the positioning tool is fittable, and the at least one insertion groove is provided at different positions such that various flange connection standards are acceptable, or (ii). the groove has at least one hole in which a rod-shaped protrusion provided at the positioning tool is insertable, and the at least one hole is provided at different positions such that various flange connection standards are acceptable.
An aromatic hydrocarbon formaldehyde resin, being obtained by reacting an aromatic hydrocarbon compound (A) represented by the following formula with formaldehyde (B) in the presence of an acidic catalyst: wherein R represents an organic group having 1 to 10 carbon atoms; I represents an integer of 0 to 2, and m and n represent integers satisfying 1 ≤ m + n ≤ 10, m ≥ 0 and n > 1, wherein the aromatic hydrocarbon formaldehyde resin comprises no diarylmethane.
Automation system comprising: - at least a first and a second control unit for controlling a device or an installation and also a first and a second input and/or output unit for receiving an electronic signal from the device or the installation and/or for outputting an electronic signal to the device or the installation , and - a control program, comprising multiple control program components, for controlling the device or the installation , - wherein the automation system is designed and set up such that each of the at least two control units can interchange electronic data for controlling the device or the installation both with the first and with the second input and/or output unit , - wherein the automation system additionally comprises a superordinate control unit that assigns the control program components to the at least two control units such that when the control program components are executed within the respective control units the device or the installation is controlled in accordance with the control program, and - wherein the superordinate control unit is designed and set up to dynamically redistribute the control program components after a program change in the control program or failure of one of the control units of the automation system . - at least a first and a second control unit for controlling a device or an installation and also a first and a second input and/or output unit for receiving an electronic signal from the device or the installation and/or for outputting an electronic signal to the device or the installation , and - a control program, comprising multiple control program components, for controlling the device or the installation , - wherein the automation system is designed and set up such that each of the at least two control units can interchange electronic data for controlling the device or the installation both with the first and with the second input and/or output unit , - wherein the automation system additionally comprises a superordinate control unit that assigns the control program components to the at least two control units such that when the control program components are executed within the respective control units the device or the installation is controlled in accordance with the control program, and - wherein the superordinate control unit is designed and set up to dynamically redistribute the control program components after a program change in the control program or failure of one of the control units of the automation system .
A network element , comprising: multiple ports , configured to communicate over a network ; a buffer memory ; a snapshot memory; circuitry, configured to: forward packets between the ports ; temporarily store information associated with the packets in the buffer memory ; concurrently with storage of the information in the buffer memory , continuously write at least part of the information to the snapshot memory; and in response to at least one predefined diagnostic event, stop writing of the information to the snapshot memory, so as to create in the snapshot memory a coherent snapshot corresponding to a time of the diagnostic event. multiple ports , configured to communicate over a network ; a buffer memory ; a snapshot memory; circuitry, configured to: forward packets between the ports ; temporarily store information associated with the packets in the buffer memory ; concurrently with storage of the information in the buffer memory , continuously write at least part of the information to the snapshot memory; and in response to at least one predefined diagnostic event, stop writing of the information to the snapshot memory, so as to create in the snapshot memory a coherent snapshot corresponding to a time of the diagnostic event. forward packets between the ports ; temporarily store information associated with the packets in the buffer memory ; concurrently with storage of the information in the buffer memory , continuously write at least part of the information to the snapshot memory; and in response to at least one predefined diagnostic event, stop writing of the information to the snapshot memory, so as to create in the snapshot memory a coherent snapshot corresponding to a time of the diagnostic event.