mhurhangee/ep-ind-claims huggingface dataset:
A system that interfaces with an industrial controller (18, 74, 96), the system comprising: an automation interface component (14, 54, 94) that effects a direct communication between the industrial controller (18, 74, 96) and a client application operating as a computer process; and a computer process interface library integrated into the automation interface component (14, 54, 94), wherein the computer process interface library exposes the automation interface component (14, 54, 94) to the client application process and said client application process uploads a modified control program to a local storage associated with the industrial controller (18, 74, 96), wherein the client application process replaces an extant program resident on the industrial controller with the modified control program, characterised in that the computer process interface library comprises one or more objects that include a top level object that invokes an instance of the interface, wherein the industrial controller is represented by a project object obtained from the top level object, wherein the control program is represented by a program file object associated with the project object, and wherein the project object comprises a program files collection object containing one or more program file objects, and wherein uploading the modified control program comprises instantiating a project, which is opened from a project residing on a disk, routing communication to a processor of the industrial controller that the project represents when the project is opened and downloading the project to the processor. an automation interface component (14, 54, 94) that effects a direct communication between the industrial controller (18, 74, 96) and a client application operating as a computer process; and a computer process interface library integrated into the automation interface component (14, 54, 94), wherein the computer process interface library exposes the automation interface component (14, 54, 94) to the client application process and said client application process uploads a modified control program to a local storage associated with the industrial controller (18, 74, 96), wherein the client application process replaces an extant program resident on the industrial controller with the modified control program, characterised in that the computer process interface library comprises one or more objects that include a top level object that invokes an instance of the interface, wherein the industrial controller is represented by a project object obtained from the top level object, wherein the control program is represented by a program file object associated with the project object, and wherein the project object comprises a program files collection object containing one or more program file objects, and wherein uploading the modified control program comprises instantiating a project, which is opened from a project residing on a disk, routing communication to a processor of the industrial controller that the project represents when the project is opened and downloading the project to the processor.
A capacity control valve for controlling a capacity of a fluid, comprising: a valve housing provided with a Pc port, a Pd port and a Ps port; a main valve formed by a main valve seat and a main valve element (51, 251) having a main valve portion, the main valve being capable of closing and opening a communication between the Pc port and the Pd port when the main valve portion of the main valve element (51, 251) driven by a drive force of a solenoid comes into contact with and separates from the main valve seat; a pressure-sensitive valve which is opened by an ambient pressure; a hollow tube member (54, 254) which forms a part of the pressure-sensitive valve and allows the Pc port to communicate with the Ps port through a hollow communication path formed therein when the pressure-sensitive valve is opened; and an auxiliary communication path (90, 290) which allows the Pc port to communicate with the Ps port independently of the pressure-sensitive valve, wherein the auxiliary communication path (90, 290) is a communication hole which is formed in the hollow tube member and communicates with the hollow communication path, characterized in that the auxiliary communication path (90, 290) is configured to be able to increase a flow path cross-sectional area thereof after the main valve is closed, whereby the main valve element (51, 251) is externally fitted to the hollow tube member with a spring so as to be axially movable, and the main valve element (51, 251) relatively moves with respect to the hollow tube member so as to be capable of closing at least a part of an opening of the communication hole (90, 290). a valve housing provided with a Pc port, a Pd port and a Ps port; a main valve formed by a main valve seat and a main valve element (51, 251) having a main valve portion, the main valve being capable of closing and opening a communication between the Pc port and the Pd port when the main valve portion of the main valve element (51, 251) driven by a drive force of a solenoid comes into contact with and separates from the main valve seat; a pressure-sensitive valve which is opened by an ambient pressure; a hollow tube member (54, 254) which forms a part of the pressure-sensitive valve and allows the Pc port to communicate with the Ps port through a hollow communication path formed therein when the pressure-sensitive valve is opened; and an auxiliary communication path (90, 290) which allows the Pc port to communicate with the Ps port independently of the pressure-sensitive valve, wherein the auxiliary communication path (90, 290) is a communication hole which is formed in the hollow tube member and communicates with the hollow communication path, characterized in that the auxiliary communication path (90, 290) is configured to be able to increase a flow path cross-sectional area thereof after the main valve is closed, whereby the main valve element (51, 251) is externally fitted to the hollow tube member with a spring so as to be axially movable, and the main valve element (51, 251) relatively moves with respect to the hollow tube member so as to be capable of closing at least a part of an opening of the communication hole (90, 290).
A composite panel (100, 110) assembly, comprising: a core; an inner skin (104, 106) coupled to a first side of the core; and an outer skin coupled to a second side of the core, wherein a peripheral edge (100, 114, 116) including portions of the core, the inner skin (104, 106), and the outer skin, is compressed to close a path into the core, and wherein the peripheral edge is provided with a rounded contour. a core; an inner skin (104, 106) coupled to a first side of the core; and an outer skin coupled to a second side of the core, wherein a peripheral edge (100, 114, 116) including portions of the core, the inner skin (104, 106), and the outer skin, is compressed to close a path into the core, and wherein the peripheral edge is provided with a rounded contour.
Tarpaulin-like protection element for a backrest of a vehicle seat (20, 28) comprising at least one fastening hook which is configured integrally with the protection element for fastening the protection element to a strut structure of a vehicle seat (20, 28), wherein the protection element comprises at least one tab (10, 11; 15, 16) which is cut away and which is bent outwardly or is able to be bent outwardly from a plane of the protection element by a free end (13, 14, 17, 18) for forming the fastening hook, characterized in that the tab (10, 16) comprises a retaining portion (29, 30) for blocking the tab (10, 16) on the strut structure, in that the protection element is made from a resiliently deformable material, and in that the tab at its free end comprises a tab head which is configured to be wider than the remaining tab and forms the retaining portion.
An inductive power transfer, IPT, pick-up circuit for receiving power from a primary conductor at a selected operating frequency, the circuit having: a pick-up coil (L 2) and a compensation capacitor (C 2); a switch means (S 1, S 2, D 1, D 2) controllable between an operable state and an inoperable state; a plurality of additional reactive elements (L 3, C 3) whereby when the switch means is in one but not the other of the operable and inoperable states the additional reactive elements (L 3, C 3) are resonant at the selected operating frequency to reduce or prevent power being supplied to an output of the pick-up circuit.
Method for the production of a rope, in which fibre bundles are coated with a liquefied matrix material before and/or at a stranding point to form fibre strands and are embedded in the liquefied matrix material during stranding, by means of which fibre strands a fibre core of the rope is formed, wherein the matrix material of the fibre strands is solidified after the stranding and before rope-stranding of the fibre strands, and the fibre strands after solidification of the matrix material to form the fibre core are rope-stranded with one another directly without further coating and wires or wire strands are wound around the fibre core.
A system for locating faults on an electricity network which comprises a busbar to which electrical cables (30a - 30c) are connected, the system comprising: a pulse generator; a current sensor; and a shunt capacitor being connected to a candidate electrical cable on a busbar side relative to the current sensor; wherein the pulse generator is operable to introduce an investigatory pulse into the candidate electrical cable and wherein, upon encountering a fault, the investigating pulse causes a reflected pulse, and wherein the current sensor monitors the current of the reflected pulse to determine a characteristic of the encountered fault, and wherein reflected pulses from non-candidate electrical cables (30a, 30c) connected to the busbar are sunk and do not pass through the current sensor. a pulse generator; a current sensor; and a shunt capacitor being connected to a candidate electrical cable on a busbar side relative to the current sensor; wherein the pulse generator is operable to introduce an investigatory pulse into the candidate electrical cable and wherein, upon encountering a fault, the investigating pulse causes a reflected pulse, and wherein the current sensor monitors the current of the reflected pulse to determine a characteristic of the encountered fault, and wherein reflected pulses from non-candidate electrical cables (30a, 30c) connected to the busbar are sunk and do not pass through the current sensor.
Outlet element for a sanitary fitting, having - a basic element which is intended for connecting to the outlet and has at least one through-passage opening (14, 15), - a device (8, 10, 12) which interacts with the basic element, - a sleeve for securing the device (8, 10, 12) to the outlet, and - an actuating element for the device projecting out of the sleeve, wherein the device (10, 12) can be rotated with respect to the basic element, characterized in that - the sleeve is provided for non-rotatable holding of the basic element in the outlet, - the device is a valve device (8, 10, 12) interacting with the basic element for changing over between at least two separate water guides, and - the actuating element is operable to actuate the valve device (8, 10, 12) such that one of the two separate water guides is turned on and remains so, until changed over again to another water guide by an operator. - a basic element which is intended for connecting to the outlet and has at least one through-passage opening (14, 15), - a device (8, 10, 12) which interacts with the basic element, - a sleeve for securing the device (8, 10, 12) to the outlet, and - an actuating element for the device projecting out of the sleeve, wherein the device (10, 12) can be rotated with respect to the basic element, characterized in that - the sleeve is provided for non-rotatable holding of the basic element in the outlet, - the device is a valve device (8, 10, 12) interacting with the basic element for changing over between at least two separate water guides, and - the actuating element is operable to actuate the valve device (8, 10, 12) such that one of the two separate water guides is turned on and remains so, until changed over again to another water guide by an operator.
A head-mounted display comprising: a first fastening band for being fastened to a head of a user, the first fastening band including at least a portion made of an elastically expandable material and extending rearwardly from a front side of the head-mounted display; a second fastening band for being fastened to the head of the user, the second fastening band being made of a material which is less expandable than the material of the first fastening band, including a mechanism for adjusting the length of the second fastening band, and extending rearwardly from the front side of the head-mounted display; and a display unit including a display device and supported by at least one of the first fastening band and the second fastening band; characterized in that the first fastening band is positioned within the second fastening band, when the first fastening band is in its free state. a first fastening band for being fastened to a head of a user, the first fastening band including at least a portion made of an elastically expandable material and extending rearwardly from a front side of the head-mounted display; a second fastening band for being fastened to the head of the user, the second fastening band being made of a material which is less expandable than the material of the first fastening band, including a mechanism for adjusting the length of the second fastening band, and extending rearwardly from the front side of the head-mounted display; and a display unit including a display device and supported by at least one of the first fastening band and the second fastening band; characterized in that the first fastening band is positioned within the second fastening band, when the first fastening band is in its free state.
A unimodal polyethylene homopolymer having a density of from 0.946 g/ml to 0.97 g/ml as determined in accordance with ASTM D1505, a zero shear viscosity of from 1 x 10 4 Pa-s to 6 x 10 4 Pa-s, a weight average molecular weight (M w) of from 140,000 g/mol to 160,000 g/mol, and having a number average molecular weight (M n) of from 8,000 g/mol to 18,000 g/mol and the molecular weights are obtained using a PL-220 SEC high temperature chromatography unit with trichlorobenzene as the solvent, with a flow rate of 1 ml/minute at a temperature of 145°C.
A flux-cored wire for arc welding filled up with flux in an outer sheath made of stainless steel containing, as percentage to the total mass of the wire: Cr: 11 - 30 mass%; metal Si, Si oxide and Si compound: 0.5 - 4.0 mass% in total in terms of Si [Si]; fluorine compound: 0.01 - 1.0 mass% in terms of F; TiO 2: 1.5 mass% to 8.0 mass%; ZrO 2 + Al 2 O 3: 0.1 mass% to 3.2 mass%; Na compound, K compound and Li compound: 0.50 mass% or below in total of each of an amount in terms of Na [Na], an amount in terms of K and an amount in terms of Li [Li]; wherein: 50 ≤ Ni + Mo + Mn + Fe ≤ 80, where [Ni] represents Ni content (mass%), [Mo] Mo content (mass%), [Mn] Mn content (mass%) and [Fe] Fe content (mass%); and Na + K + Li × Cr 2 / Si + 4.7 × F ≤ 10, where [Cr] represents Cr content (mass%). Cr: 11 - 30 mass%; metal Si, Si oxide and Si compound: 0.5 - 4.0 mass% in total in terms of Si [Si]; fluorine compound: 0.01 - 1.0 mass% in terms of F; TiO 2: 1.5 mass% to 8.0 mass%; ZrO 2 + Al 2 O 3: 0.1 mass% to 3.2 mass%; Na compound, K compound and Li compound: 0.50 mass% or below in total of each of an amount in terms of Na [Na], an amount in terms of K and an amount in terms of Li [Li]; wherein: 50 ≤ Ni + Mo + Mn + Fe ≤ 80, where [Ni] represents Ni content (mass%), [Mo] Mo content (mass%), [Mn] Mn content (mass%) and [Fe] Fe content (mass%); and Na + K + Li × Cr 2 / Si + 4.7 × F ≤ 10, where [Cr] represents Cr content (mass%).
A method of sealing a coffee filter to a brew cup, including the steps of: inserting a first expandable sealer apparatus into said filter disposed in said cup; expanding first sealer apparatus into engagement with said filter and pressing said filter against said brew cup; heating said filter with said first sealer apparatus for heat sealing a first portion of said filter to said cup; collapsing said first sealer apparatus; withdrawing said first sealer apparatus from said filter; thereafter inserting a second expandable sealer apparatus into engagement with said filter and pressing said filter against said brew cup; heating said filter with said second sealer apparatus for heat sealing a second portion thereof to said cup; collapsing said second sealer apparatus; and withdrawing said second sealer apparatus from said filter. inserting a first expandable sealer apparatus into said filter disposed in said cup; expanding first sealer apparatus into engagement with said filter and pressing said filter against said brew cup; heating said filter with said first sealer apparatus for heat sealing a first portion of said filter to said cup; collapsing said first sealer apparatus; withdrawing said first sealer apparatus from said filter; thereafter inserting a second expandable sealer apparatus into engagement with said filter and pressing said filter against said brew cup; heating said filter with said second sealer apparatus for heat sealing a second portion thereof to said cup; collapsing said second sealer apparatus; and withdrawing said second sealer apparatus from said filter.
A bearing apparatus comprising: a rotating member having a magnetic member (11a, 11b); a foil bearing (30a, 30b) for supporting said rotating member in a radial direction; a magnetic bearing (40a, 40b) for supporting said rotating member in an axial direction by an electromagnet (42a, 42b); and a controller for controlling electric current supplied to said electromagnet (42a, 42b), characterized in that the electric current is supplied to said electromagnet (42a, 42b) to produce a magnetic attraction force which attracts said magnetic member (11a, 11b) so as to cause said rotating member to float off said foil bearing (30a, 30b), said controller controls such that a first electric current is supplied to said electromagnet (42a, 42b) so as to cause said electromagnets (42a, 42b) to attract said magnetic member (11a, 11b) so as to support said rotating member in the axial direction, and said controller also controls such that a second electric current larger than said first electric current is supplied to said electromagnet (42a, 42b) when a number of revolutions of said rotating member is smaller than a number of revolutions at which said rotating member floats off said foil bearing (30a, 30b) when said first electric current is supplied to said electromagnet (42a, 42b). a rotating member having a magnetic member (11a, 11b); a foil bearing (30a, 30b) for supporting said rotating member in a radial direction; a magnetic bearing (40a, 40b) for supporting said rotating member in an axial direction by an electromagnet (42a, 42b); and a controller for controlling electric current supplied to said electromagnet (42a, 42b), characterized in that the electric current is supplied to said electromagnet (42a, 42b) to produce a magnetic attraction force which attracts said magnetic member (11a, 11b) so as to cause said rotating member to float off said foil bearing (30a, 30b), said controller controls such that a first electric current is supplied to said electromagnet (42a, 42b) so as to cause said electromagnets (42a, 42b) to attract said magnetic member (11a, 11b) so as to support said rotating member in the axial direction, and said controller also controls such that a second electric current larger than said first electric current is supplied to said electromagnet (42a, 42b) when a number of revolutions of said rotating member is smaller than a number of revolutions at which said rotating member floats off said foil bearing (30a, 30b) when said first electric current is supplied to said electromagnet (42a, 42b).
A module assembly comprising: an interface module including a housing having a plurality of jack cavities and associated jack latch openings, the housing having a mating end and a loading end and wherein the cavities have a longitudinal axis extending between the mating and loading ends, the housing being configured to be mated with a patch panel; and a plurality of modular jacks being directly inserted into corresponding jack cavities, each modular jack including a latch arm that extends from a top surface thereof and that engages the jack latch opening to retain the modular jack in the jack cavity, characterized in that each modular jack includes a single latch arm only and a bottom surface of each modular jack is generally flat or planar whereby the modular jacks are insertable into the jack cavities in a direction parallel to the longitudinal axis. an interface module including a housing having a plurality of jack cavities and associated jack latch openings, the housing having a mating end and a loading end and wherein the cavities have a longitudinal axis extending between the mating and loading ends, the housing being configured to be mated with a patch panel; and a plurality of modular jacks being directly inserted into corresponding jack cavities, each modular jack including a latch arm that extends from a top surface thereof and that engages the jack latch opening to retain the modular jack in the jack cavity, characterized in that each modular jack includes a single latch arm only and a bottom surface of each modular jack is generally flat or planar whereby the modular jacks are insertable into the jack cavities in a direction parallel to the longitudinal axis.
A ceramic discharge metal halide lamp, comprising: a first shroud comprising a first wall forming a cylinder defining a first cavity; a second shroud situated within the first cavity and comprising a second wall forming a cylinder defining a second cavity situated within the first cavity of the first shroud; a first coil situated about at least one of the first and second shrouds; and a ceramic arc tube situated in the second cavity and having first and second openings, first and second leads (104, 106), and defining a lamp cavity for containing a fill. a first shroud comprising a first wall forming a cylinder defining a first cavity; a second shroud situated within the first cavity and comprising a second wall forming a cylinder defining a second cavity situated within the first cavity of the first shroud; a first coil situated about at least one of the first and second shrouds; and a ceramic arc tube situated in the second cavity and having first and second openings, first and second leads (104, 106), and defining a lamp cavity for containing a fill.