mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a portable data carrier for contactless communication having the method steps of: - making available a carrier layer having a coil for near-field communication; - mounting a cover layer on the carrier layer, and - laminating the resultant layer sequence (81, 83), characterized in that: - before mounting the cover layer, a coil stabilizer is applied to the coil, and - above the coil stabilizer a card element is incorporated into the data carrier - wherein for the coil stabilizer, a liquid material is incorporated, - wherein as a card element, a security thread or a magnetic strip is incorporated, - wherein the coil stabilizer has a greater surface than the intersecting region between card element to be incorporated and coil. - making available a carrier layer having a coil for near-field communication; - mounting a cover layer on the carrier layer, and - laminating the resultant layer sequence (81, 83), - before mounting the cover layer, a coil stabilizer is applied to the coil, and - above the coil stabilizer a card element is incorporated into the data carrier - wherein for the coil stabilizer, a liquid material is incorporated, - wherein as a card element, a security thread or a magnetic strip is incorporated, - wherein the coil stabilizer has a greater surface than the intersecting region between card element to be incorporated and coil.
A computer-implemented method for identifying and locating wireless light emitting elements within a lighting system, the method comprising: transmitting, to a plurality of light emitting elements, a first message instructing that each light emitting element included in the plurality of light emitting elements return an identifier associated with the light emitting element; and receiving, from a first light emitting element included in the plurality of light emitting elements, a second message that includes a first identifier associated with the first light emitting element, transmitting a third message to instruct the first light emitting element (106, 517, 527, 537) included in the plurality of light emitting elements within the lighting system to emit light having a first characteristic; detecting, via a photosensitive device, a first location of the first light emitting element (106, 517, 527, 537) within the lighting system based on the first characteristic; storing a first data entry in a memory, wherein the first location is associated with the first light emitting element (106, 517, 527, 537); characterized in that the method further comprises: transmitting a fourth message to instruct the first light emitting element (106, 517, 527, 537) to emit light having a second characteristic; and verifying, via the photosensitive device, the first location of the first light emitting element (106, 517, 527, 537) based on the second characteristic. transmitting, to a plurality of light emitting elements, a first message instructing that each light emitting element included in the plurality of light emitting elements return an identifier associated with the light emitting element; and receiving, from a first light emitting element included in the plurality of light emitting elements, a second message that includes a first identifier associated with the first light emitting element, transmitting a third message to instruct the first light emitting element (106, 517, 527, 537) included in the plurality of light emitting elements within the lighting system to emit light having a first characteristic; detecting, via a photosensitive device, a first location of the first light emitting element (106, 517, 527, 537) within the lighting system based on the first characteristic; storing a first data entry in a memory, wherein the first location is associated with the first light emitting element (106, 517, 527, 537); characterized in that the method further comprises: transmitting a fourth message to instruct the first light emitting element (106, 517, 527, 537) to emit light having a second characteristic; and verifying, via the photosensitive device, the first location of the first light emitting element (106, 517, 527, 537) based on the second characteristic. transmitting a fourth message to instruct the first light emitting element (106, 517, 527, 537) to emit light having a second characteristic; and verifying, via the photosensitive device, the first location of the first light emitting element (106, 517, 527, 537) based on the second characteristic.
A vehicle mirror device comprising: a first mirror that is disposed at a vehicle; a first tilting mechanism that supports the first mirror, an angle of a mirror surface of the first mirror being adjusted as a result of the first tilting mechanism tilting the first mirror; a second mirror that is disposed at the vehicle; and a second tilting mechanism that is supported by the first tilting mechanism and supports the second mirror, an angle of a mirror surface of the second mirror being adjusted as a result of the first tilting mechanism tilting the second mirror and the angle of the mirror surface of the second mirror being adjusted as a result of the second tilting mechanism tilting the second mirror, characterized in that the second tilting mechanism tilts the second mirror at a time when the first tilting mechanism tilts the second mirror by tilting the second tilting mechanism. a first mirror that is disposed at a vehicle; a first tilting mechanism that supports the first mirror, an angle of a mirror surface of the first mirror being adjusted as a result of the first tilting mechanism tilting the first mirror; a second mirror that is disposed at the vehicle; and a second tilting mechanism that is supported by the first tilting mechanism and supports the second mirror, an angle of a mirror surface of the second mirror being adjusted as a result of the first tilting mechanism tilting the second mirror and the angle of the mirror surface of the second mirror being adjusted as a result of the second tilting mechanism tilting the second mirror, characterized in that the second tilting mechanism tilts the second mirror at a time when the first tilting mechanism tilts the second mirror by tilting the second tilting mechanism.
A touch panel, comprising: a base; and a pressure-sensitive adhesive layer attached to the base, which comprises an acryl polymer compound containing an acryl polymer including a meth(acrylic) acid ester monomer and a copolymerizable monomer providing a crosslinkable functional group in a polymerized form and a thiol polymer derived from an acryl monomer and a thiol compound, wherein the pressure-sensitive adhesive layer has a peel strength with respect to a polycarbonate sheet of 1,900 g/25 mm or more as measured according to the Peel Strength Test defined herein; wherein the acryl polymer compound has a weight average molecular weight of 200,000 to 2,500,000 as measured according to the Evaluation of Weight Average Molecular Weight and Polydispersity Index defined herein, wherein the acryl polymer compound has a polydispersity index of 4.0 or more as measured according to the Evaluation of Weight Average Molecular Weight and Polydispersity Index defined herein. a base; and a pressure-sensitive adhesive layer attached to the base, which comprises an acryl polymer compound containing an acryl polymer including a meth(acrylic) acid ester monomer and a copolymerizable monomer providing a crosslinkable functional group in a polymerized form and a thiol polymer derived from an acryl monomer and a thiol compound, wherein the pressure-sensitive adhesive layer has a peel strength with respect to a polycarbonate sheet of 1,900 g/25 mm or more as measured according to the Peel Strength Test defined herein; wherein the acryl polymer compound has a weight average molecular weight of 200,000 to 2,500,000 as measured according to the Evaluation of Weight Average Molecular Weight and Polydispersity Index defined herein, wherein the acryl polymer compound has a polydispersity index of 4.0 or more as measured according to the Evaluation of Weight Average Molecular Weight and Polydispersity Index defined herein.
A clamping device for clamping a work piece at a rotating spindle of a machine tool or a balancer, wherein the clamping device comprises a base body, which is configured to be fixable at the spindle, characterized by at least one change body for the work piece which can be coupled to and decoupled from the base body, wherein the work piece can be clamped to the change body, wherein the change body and the base body are supported coaxially relative to one another and clamped against each other in radial direction by roller elements when being in a fully clamped state, wherein each of the roller elements is disposed - in a gap between the base body and the change body or - in a gap between the base body and a ring, which is supported rotatably through a rolling bearing at the actual change body, and wherein the gap is configured as a wedge shaped gap in form of a local groove with a decreasing depth of the groove at its end portion which receives at least one rolling element, and is configured and adapted to the respective rolling element, so that the respective rolling element can be moved along the wedge shaped gap, deeper into the wedge shaped gap, when the base body and the change body are connected to one another, so that the desired clamping is provided in radial direction. - in a gap between the base body and the change body or - in a gap between the base body and a ring, which is supported rotatably through a rolling bearing at the actual change body,
A method executed by at least one processor at a first node, the method comprising: receiving a workflow request sent from a customer (102, 104, 106); determining workflow identification from the request; using the workflow identification to determine a workflow node (122, 124, 126); sending one or more first messages to the workflow node (122, 124, 126), each of the one or more first messages including a workflow description from the first request; receiving, after sending the first message, one or more workflows from the workflow node (122, 124, 126), the one or more workflows being created by the workflow node using one or more policies; using the one or more workflows to determine one or more service providers (132, 134, 136); sending a second message to each of the service providers requesting that each service provider creates a respective service; receiving one or more third messages from the service provider(s) indicating that the respective service was created by the respective service provider; and sending to the customer a fourth message including information regarding each of the services. receiving a workflow request sent from a customer (102, 104, 106); determining workflow identification from the request; using the workflow identification to determine a workflow node (122, 124, 126); sending one or more first messages to the workflow node (122, 124, 126), each of the one or more first messages including a workflow description from the first request; receiving, after sending the first message, one or more workflows from the workflow node (122, 124, 126), the one or more workflows being created by the workflow node using one or more policies; using the one or more workflows to determine one or more service providers (132, 134, 136); sending a second message to each of the service providers requesting that each service provider creates a respective service; receiving one or more third messages from the service provider(s) indicating that the respective service was created by the respective service provider; and sending to the customer a fourth message including information regarding each of the services.
A Ni-added steel plate comprising, by mass%: C: 0.03% to 0.10%; Si: 0.02% to 0.40%; Mn: 0.3% to 1.2%; Ni: 5.0% to 7.5%; Cr: 0.4% to 1,5%; Mo: 0.02% to 0.4%; Al: 0.01% to 0.08%; total of oxygen: 0.0001% to 0.0050%; P: limited to 0.0100% or less; S: limited to 0.0035% or less; N: limited to 0.0070% or less; and optionally further comprising, by mass%, at least one of: Cu: 1.0% or less; Nb: 0.05% or less; Ti: 0.05% or less; V: 0.05% or less; B: 0.05% or less; Ca: 0.0040% or less; Mg: 0.0040% or less; and REM: 0.0040% or less; and the balance consisting of iron and unavoidable impurities, wherein the plate thickness is 4.5 mm to 80 mm; wherein a Ni segregation ratio based on mass% at a position of 1/4 of a plate thickness away from a plate surface in a thickness direction is 1.3 or less, a fraction of residual austenite after a deep cooling by immersing in liquid nitrogen and holding for at least 60 min. is 2% or more, residual austenite unevenness index after the deep cooling is 5.0 or less, and an average equivalent circle diameter of the residual austenite after the deep cooling is 1 μm or less; wherein the residual austenite unevenness index after the deep cooling is a value obtained by dividing a maximum area fraction by a minimum area fraction, in which, among data which is evaluated such that an evaluation of an area fraction of the residual austenite is carried out with each viewing areas thereof being defined as a 5x5 μm area and is continuously carried out in the thickness direction with being centered on the position of 1/4 of the plate thickness away from the plate surface in the thickness direction, an average of the data of 5 largest area fractions of the residual austenite is defined to be the maximum area fraction and an average of the data of 5 smallest area fractions of the residual austenite is defined to be the minimum area fraction. C: 0.03% to 0.10%; Si: 0.02% to 0.40%; Mn: 0.3% to 1.2%; Ni: 5.0% to 7.5%; Cr: 0.4% to 1,5%; Mo: 0.02% to 0.4%; Al: 0.01% to 0.08%; total of oxygen: 0.0001% to 0.0050%; P: limited to 0.0100% or less; S: limited to 0.0035% or less; N: limited to 0.0070% or less; and optionally further comprising, by mass%, at least one of: Cu: 1.0% or less; Nb: 0.05% or less; Ti: 0.05% or less; V: 0.05% or less; B: 0.05% or less; Ca: 0.0040% or less; Mg: 0.0040% or less; and REM: 0.0040% or less; and Cu: 1.0% or less; Nb: 0.05% or less; Ti: 0.05% or less; V: 0.05% or less; B: 0.05% or less; Ca: 0.0040% or less; Mg: 0.0040% or less; and REM: 0.0040% or less; and
A shroud assembly, comprising: a plurality of receiver rings (121, 122), each receiver ring having two portions pivotally coupled to each other; two semi-cylindrical covers (111, 112) attached to the plurality of receiver rings; and a fastener for locking the two portions together; a base ring, a first receiver ring of the plurality of receiver rings axially movable with respect to the base ring; a torque key coupled to the base ring and the first receiver ring, and an extender ring coupled to the base ring, and configured to move the first receiver ring toward a second receiver ring of the plurality of receiver rings, wherein the extender ring is rotatable relative to the base ring. a plurality of receiver rings (121, 122), each receiver ring having two portions pivotally coupled to each other; two semi-cylindrical covers (111, 112) attached to the plurality of receiver rings; and a fastener for locking the two portions together; a base ring, a first receiver ring of the plurality of receiver rings axially movable with respect to the base ring; a torque key coupled to the base ring and the first receiver ring, and an extender ring coupled to the base ring, and configured to move the first receiver ring toward a second receiver ring of the plurality of receiver rings, wherein the extender ring is rotatable relative to the base ring.
Manual cutting tool, comprising two arms hinged about an axis, each arm comprising a first portion to enable the tool to be gripped by a user and a second cutting portion, said first and second portions being separated from one another by said axis, the second portions of the arms comprising cutting edges that define a cross-sectional area of an element to be cut, the tool being configured such that a hinged movement of the arms about said axis causes the cutting edges of the arms to move towards one another and said element to be cut, characterised in that it further includes a member for protecting the user, which member is made of a transparent material, said member extending substantially in parallel with said cross-sectional area and covering said area completely and being flexible in a plane substantially perpendicular to said cross-sectional area.
A multifunctional capacitive-type sleeve with a vacuum arc-extinguishing chamber, comprising a capacitive-type sleeve insulation core covering the outside of the vacuum arc-extinguishing chamber, wherein first ends of two connection terminals are respectively led out from the two ends of the sleeve insulation core, and the other ends of the two connection terminals can be contacted and separated in the vacuum arc-extinguishing chamber to switch on and off a circuit, wherein at least two capacitive screen groups are embedded in the sleeve insulation core, wherein each capacitive screen group is composed of a plurality of coaxial capacitive screens alternatively arranged with an insulating layer, and the outermost capacitive screen is an earthing screen, characterized in that, two capacitive screen groups are respectively arranged at the two ends of the sleeve insulation core, and the earthing screens of the two capacitive screen groups are connected.
A heating or cooling control system for a building comprising a number of controlled rooms (2, 6, 8, 10, 12; 402, 404, 406, 408; 502, 504, 506, 508, 510, 512, 514) wherein there is provided at least a first controlled room (12; 402, 502) comprising: a first heating or cooling source (26; 410; 516); a first operating means for controlling operation of the heating or cooling source (26; 410; 516); a first temperature detection means (36; 412; 518) arranged to detect a temperature in the first room and to output temperature information; and at least one second controlled room (8; 408; 506) comprising: a second heating or cooling source (418; 524), a second operating means arranged to control operation of the second heating or cooling source and a second temperature detection means (38; 420; 526) arranged to detect a temperature in the second controlled room; and a third controlled room (6; 404; 504) comprising: a third heating or cooling source (26; 414; 520); a third operating means for controlling operation of the third heating or cooling source; a third temperature detection means (36; 416; 522) arranged to detect a temperature in the third room and to output temperature information; and wherein the system comprises a controller (32; 400; 500) arranged to receive data from the first (36; 412; 518), second (38; 420; 526) and third (36; 416; 522) temperature detection means and to output signals controlling the first second, and third operating means characterised in that the controller (32; 400; 500) is arranged to be able to allocate the first room in the building to a first primary zone, to be able to allocate the second controlled room (8; 408; 506) in the building to a first secondary zone and the controller (32; 400; 500) is arranged to be able to allocate the third room (6; 404; 504) in the building to a second primary zone and wherein the controller is arranged to control a temperature in the first (12; 402; 502) and second primary rooms (6; 404; 504) in response to a respective temperature output from the first and third rooms and to control a temperature in the first secondary zone (8; 408; 506) in response to a temperature output of the second temperature detection means (38; 420; 526) when the heating or cooling source in one of the first primary (12; 402; 502) zone or the second primary zones (6; 404; 504) is active and wherein the secondary zone is a slave zone linked to one of the primary zones as a master primary zone and the secondary slave zone is arranged such that the operating means in the slave zone is controlled to be active if the operating means in the master primary zone is active.
A process for preparing 3-methylthiopropionaldehyde, comprising the steps of a) providing a liquid stream comprising methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan, b) providing an acrolein comprising vapor stream, wherein the major part of said stream is acrolein, and the pressure of said stream is lower than atmospheric pressure, c) introducing the liquid stream comprising methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan of step a) and the acrolein comprising vapor stream of step b) into a reaction unit by means of a vapor-liquid mixing device, and d) reacting acrolein with methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan in the reaction unit of step c) to give a 3-methylthiopropionaldehyde comprising product mixture. a) providing a liquid stream comprising methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan, b) providing an acrolein comprising vapor stream, wherein the major part of said stream is acrolein, and the pressure of said stream is lower than atmospheric pressure, c) introducing the liquid stream comprising methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan of step a) and the acrolein comprising vapor stream of step b) into a reaction unit by means of a vapor-liquid mixing device, and d) reacting acrolein with methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan in the reaction unit of step c) to give a 3-methylthiopropionaldehyde comprising product mixture.