mhurhangee/patent-ind-claim-en huggingface dataset:
A photo-curable liquid optically clear adhesive composition, comprising: (a) from 50 to 90 wt.%, based on the total weight of the adhesive composition, of at least one (meth)acrylic copolymer having a weight average molecular weight of from 50000 to 200000 g/mol as measured by gel permeation chromatography according to EN ISO 13885 using a polystyrene standard for calibration and a glass transition temperature of from -40°C to 40°C as determined by differential scanning calorimetry according to ASTM E1356, wherein the (meth)acrylic copolymer is a reaction product of two or more of 2-ethylhexyl (meth)acrylate, N-(meth)acryloyl morpholine, isobutyl (meth)acrylate, 2-hydroxylbutyl (meth)acrylate and 2-hydroxyethyl (meth)acrylate; (b) from 2 to 50 wt.%, based on the total weight of the adhesive composition, of at least one non-functional (meth)acrylic monomer; (c) at least one photo initiator; and, (d) at least one functional (meth)acrylic monomer. (a) from 50 to 90 wt.%, based on the total weight of the adhesive composition, of at least one (meth)acrylic copolymer having a weight average molecular weight of from 50000 to 200000 g/mol as measured by gel permeation chromatography according to EN ISO 13885 using a polystyrene standard for calibration and a glass transition temperature of from -40°C to 40°C as determined by differential scanning calorimetry according to ASTM E1356, wherein the (meth)acrylic copolymer is a reaction product of two or more of 2-ethylhexyl (meth)acrylate, N-(meth)acryloyl morpholine, isobutyl (meth)acrylate, 2-hydroxylbutyl (meth)acrylate and 2-hydroxyethyl (meth)acrylate; (b) from 2 to 50 wt.%, based on the total weight of the adhesive composition, of at least one non-functional (meth)acrylic monomer; (c) at least one photo initiator; and, (d) at least one functional (meth)acrylic monomer.
A method of generating and transmitting an Automatic Identification System, AIS, signal comprising an e-Navigation message, the method comprising: generating a binary payload; forward error correction, FEC, encoding the binary payload; and encapsulating the FEC encoded binary payload in a message wrapper to produce the e-Navigation message. generating a binary payload; forward error correction, FEC, encoding the binary payload; and encapsulating the FEC encoded binary payload in a message wrapper to produce the e-Navigation message.
A method of manufacturing a dental restoration, the method comprising: a construction step (S2) of preparing through a construction means construction data for a dental tool machine for machining the dental restoration from a workpiece, wherein the construction data defines at least the geometry of the dental restoration within the workpiece; and a starting step (S3) of starting machining of the dental restoration from the workpiece in accordance with the construction data; characterized by further comprising: a preparing step (S4) of starting preparing, before termination of the construction step (S2), the dental tool machine at least through equipping it with all the consumables essential for starting the starting step (S3), and completing preparing the dental tool machine before start of the starting step (S3), wherein the consumables are the dental tool, the workpiece, and cooling lubricant provided in a tank. a construction step (S2) of preparing through a construction means construction data for a dental tool machine for machining the dental restoration from a workpiece, wherein the construction data defines at least the geometry of the dental restoration within the workpiece; and a starting step (S3) of starting machining of the dental restoration from the workpiece in accordance with the construction data; characterized by further comprising: a preparing step (S4) of starting preparing, before termination of the construction step (S2), the dental tool machine at least through equipping it with all the consumables essential for starting the starting step (S3), and completing preparing the dental tool machine before start of the starting step (S3), wherein the consumables are the dental tool, the workpiece, and cooling lubricant provided in a tank.
An antenna arrangement comprising a first substrate comprising a first surface and a second surface , the first surface and the second surface being opposite sides of the first substrate; a second substrate comprising a third surface and a fourth surface , the third surface and the fourth surface being opposite sides of the second substrate; a patch antenna being realized in a first electrically conductive material attached to the first surface; a ground plane being realized in a second electrically conductive material attached to the second surface; and at least two feeds realized in a third electrically conductive material attached at least partially to the fourth surface; each feed being conductively connected to a pad on the third surface, wherein the patch antenna is arranged with respect to the ground plane so as to form a resonant antenna, the first substrate and the second substrate are configured to be held in contact such that the third surface is facing the second surface, and each of said at least two pads, each relating to a feed, has an individual corresponding opening in the ground plane for capacitively coupling each of said at least two feeds to the patch antenna, wherein the footprint of each of said pads is smaller than the footprint of its corresponding opening in the ground plane, the pads and the ground plane thus being essentially in the same plane, and wherein the first substrate and the second substrate are held in contact by soldering a plurality of clamps, each clamp extending between the periphery of the first surface and the periphery of the fourth surface. a first substrate comprising a first surface and a second surface , the first surface and the second surface being opposite sides of the first substrate; a second substrate comprising a third surface and a fourth surface , the third surface and the fourth surface being opposite sides of the second substrate; a patch antenna being realized in a first electrically conductive material attached to the first surface; a ground plane being realized in a second electrically conductive material attached to the second surface; and at least two feeds realized in a third electrically conductive material attached at least partially to the fourth surface; each feed being conductively connected to a pad on the third surface, wherein the patch antenna is arranged with respect to the ground plane so as to form a resonant antenna, the first substrate and the second substrate are configured to be held in contact such that the third surface is facing the second surface, and each of said at least two pads, each relating to a feed, has an individual corresponding opening in the ground plane for capacitively coupling each of said at least two feeds to the patch antenna, wherein the footprint of each of said pads is smaller than the footprint of its corresponding opening in the ground plane, the pads and the ground plane thus being essentially in the same plane, and wherein the first substrate and the second substrate are held in contact by soldering a plurality of clamps, each clamp extending between the periphery of the first surface and the periphery of the fourth surface.
A medical device comprising: a lead including an electrically conductive lead wire ; an electrode electrically coupled to the lead wire, the electrode including a first portion and a second portion , wherein the second portion defines an exposed outer surface of the electrode and is bonded to the first portion along a first interface , wherein the first portion is electrically and mechanically coupled to the lead wire along a second interface different from the first interface via welding to couple the lead wire to the electrode, wherein an electrical signal may be transferred between the lead wire and exposed outer surface of the second portion via the first portion; and an electrically insulating material covering the outer surface of the second portion, and wherein the first portion is formed from a first material having a first composition, and the second portion is formed from a second material having a second composition different from the first composition, the first composition comprising a titanium alloy. a lead including an electrically conductive lead wire ; an electrode electrically coupled to the lead wire, the electrode including a first portion and a second portion , wherein the second portion defines an exposed outer surface of the electrode and is bonded to the first portion along a first interface , wherein the first portion is electrically and mechanically coupled to the lead wire along a second interface different from the first interface via welding to couple the lead wire to the electrode, wherein an electrical signal may be transferred between the lead wire and exposed outer surface of the second portion via the first portion; and an electrically insulating material covering the outer surface of the second portion, and wherein the first portion is formed from a first material having a first composition, and the second portion is formed from a second material having a second composition different from the first composition, the first composition comprising a titanium alloy.
A method for regenerating a particle filter , which is arranged in an exhaust system of an internal combustion engine , comprising at least the following steps: a) performing a first regeneration of the particle filter up to reaching a lower limit value of a particle load of the particle filter ; b) performing a verification measurement , wherein the internal combustion engine is operated at a first operating point , so that upstream of the particle filter an exhaust gas with at least ∘ an excess of oxygen or ∘ an increased first temperature is provided; wherein, if during or after step b), an increase in a second temperature of the exhaust gas is detected downstream of the particle filter , the following step is carried out: c) initiation of a second regeneration of the particle filter . a) performing a first regeneration of the particle filter up to reaching a lower limit value of a particle load of the particle filter ; b) performing a verification measurement , wherein the internal combustion engine is operated at a first operating point , so that upstream of the particle filter an exhaust gas with at least ∘ an excess of oxygen or ∘ an increased first temperature is provided; wherein, if during or after step b), an increase in a second temperature of the exhaust gas is detected downstream of the particle filter , the following step is carried out: ∘ an excess of oxygen or ∘ an increased first temperature c) initiation of a second regeneration of the particle filter .
A process for enzymatic degumming of crude triglyceride oil, said process comprising: a) providing an unrefined triglyceride oil having a phosphorus content of at least 100 mg per kg of unrefined triglyceride oil; b) combining the unrefined triglyceride oil with water, lactic acid and enzyme to produce an oil-and-water emulsion, said enzyme being selected from phospholipase, lipid acyltransferase and combinations thereof; c) keeping the emulsion at a temperature of 20-90°C for at least 10 minutes; and d) separating degummed triglyceride oil from the emulsion. a) providing an unrefined triglyceride oil having a phosphorus content of at least 100 mg per kg of unrefined triglyceride oil; b) combining the unrefined triglyceride oil with water, lactic acid and enzyme to produce an oil-and-water emulsion, said enzyme being selected from phospholipase, lipid acyltransferase and combinations thereof; c) keeping the emulsion at a temperature of 20-90°C for at least 10 minutes; and d) separating degummed triglyceride oil from the emulsion.
An electromagnetic rotary drive with a rotor , which can be driven magnetically without contact and which is designed without coils, and with a stator , which is designed as a bearing and drive stator, with which, in the operating state, the rotor can be driven magnetically without contact about a desired axis of rotation (A) and can be levitated magnetically without contact with respect to the stator , wherein the stator comprises an upper stator part having a plurality of pronounced upper poles for supporting upper windings (311; 312; 313; 314; 315; 316), and a lower stator part having a plurality of pronounced lower poles for supporting lower windings (321; 322; 323; 324; 325; 326), wherein the upper stator part and the lower stator part are arranged at a distance from each other with respect to the axial direction, and wherein a permanent magnet is provided between the upper stator part and the lower stator part , characterized in that both the upper stator part and the lower stator part contribute respectively to the drive and to the contactless magnetic levitation of the rotor , wherein on each upper stator pole and on each lower stator pole in each case one coil is arranged as a winding, wherein two coils are connected together in each case to form an electrical phase, and wherein a separate power amplifier is provided for each electrical phase.
Lamp comprising: - a light head for receiving a light source and - a holding element , wherein the light head is mounted on the holding element such that it can pivot about a pivot axis (X6) by means of a pivot bearing , wherein the pivot bearing comprises a first connecting part on the holding element and a second connecting part on the light head , wherein at least one of the connecting parts comprises a first latching element which, viewed in the direction of the pivot axis (X6), is pretensioned toward the other connecting part and cooperates with a corresponding second latching element of the other connecting part to connect the light head and the holding element in such a manner that they are releasable in an assembly direction (Z2) substantially transverse to the pivot axis (X6) and can pivot about the pivot axis (X6), characterized in that, viewed in its assembly direction (Z21), the light head comprises a stop in front of the second connecting part in order to arrest the first connecting part in a connecting position of the connecting parts during assembly of the light head and the holding element . - a light head for receiving a light source and - a holding element , wherein the light head is mounted on the holding element such that it can pivot about a pivot axis (X6) by means of a pivot bearing , wherein the pivot bearing comprises a first connecting part on the holding element and a second connecting part on the light head , wherein at least one of the connecting parts comprises a first latching element which, viewed in the direction of the pivot axis (X6), is pretensioned toward the other connecting part and cooperates with a corresponding second latching element of the other connecting part to connect the light head and the holding element in such a manner that they are releasable in an assembly direction (Z2) substantially transverse to the pivot axis (X6) and can pivot about the pivot axis (X6), characterized in that, viewed in its assembly direction (Z21), the light head comprises a stop in front of the second connecting part in order to arrest the first connecting part in a connecting position of the connecting parts during assembly of the light head and the holding element . wherein the pivot bearing comprises a first connecting part on the holding element and a second connecting part on the light head , wherein at least one of the connecting parts comprises a first latching element which, viewed in the direction of the pivot axis (X6), is pretensioned toward the other connecting part and cooperates with a corresponding second latching element of the other connecting part to connect the light head and the holding element in such a manner that they are releasable in an assembly direction (Z2) substantially transverse to the pivot axis (X6) and can pivot about the pivot axis (X6), characterized in that, viewed in its assembly direction (Z21), the light head comprises a stop in front of the second connecting part in order to arrest the first connecting part in a connecting position of the connecting parts during assembly of the light head and the holding element .
Method for installing a transmission between a drive with a driveshaft and a load with a driven shaft , whereby this transmission comprises a housing with a first borehole for the driveshaft and a cavity created by a second borehole in the housing for fixing a shaft seal around the drive shaft to seal the driveshaft to prevent oil leakage from the transmission to the drive and at least a drive gear to be mounted on the drive shaft and a driven gear mounted on the driven shaft , characterised in that the method comprises the following steps: - first affixing the housing of the transmission over the driveshaft with the driveshaft extending through the first borehole in the housing ; - then fastening the housing of the transmission to the housing of the drive ; - then affixing the shaft seal over the driveshaft , the shaft seal having smaller dimensions than the cavity created by the second borehole in the housing so that a radial clearance remains that allows a self centering of the shaft seal around the drive shaft to accommodate tolerances in the construction of the drive and in the assembly of the transmission when installing the shaft seal; - after affixing the shaft seal over the drive shaft , the axial clamping of the shaft seal to the housing ; - then affixing the drive gear on the drive shaft . - first affixing the housing of the transmission over the driveshaft with the driveshaft extending through the first borehole in the housing ; - then fastening the housing of the transmission to the housing of the drive ; - then affixing the shaft seal over the driveshaft , the shaft seal having smaller dimensions than the cavity created by the second borehole in the housing so that a radial clearance remains that allows a self centering of the shaft seal around the drive shaft to accommodate tolerances in the construction of the drive and in the assembly of the transmission when installing the shaft seal; - after affixing the shaft seal over the drive shaft , the axial clamping of the shaft seal to the housing ; - then affixing the drive gear on the drive shaft .
A packaging system for at least one article or item, comprising: a multilayer laminate structure that includes first and second conductive layers and an encapsulated transformative material , wherein the transformative material is configured to undergo a state change that changes impedance between the first and second conductive layers in response to an intrusion or perforation through at least part of the multilayer laminate structure , and wherein the first and second conductive layers are further configured to provide an RF antenna and opposed electrodes of at least one integrated galvanic cell ; and at least one NFC/RFID integrated circuit (301; 301'; 301") that is mechanically secured to the multilayer laminate structure and electrically coupled to the RF antenna, the at least one integrated galvanic cell , and other parts of the first and second conductive layers of the multilayer laminate structure; wherein the at least one galvanic cell is configured to supply electrical power to the at least one NFC/RFID integrated circuit (301; 301'; 301"); characterized in that the at least one integrated galvanic cell further comprises an encapsulated electrolyte material and ion bridge that are part of the multilayer laminate structure and, wherein the transformative material , the encapsulated electrolyte material and the ion bridge are disposed between the first and second conductive layers of the multilayer laminate structure. a multilayer laminate structure that includes first and second conductive layers and an encapsulated transformative material , wherein the transformative material is configured to undergo a state change that changes impedance between the first and second conductive layers in response to an intrusion or perforation through at least part of the multilayer laminate structure , and wherein the first and second conductive layers are further configured to provide an RF antenna and opposed electrodes of at least one integrated galvanic cell ; and at least one NFC/RFID integrated circuit (301; 301'; 301") that is mechanically secured to the multilayer laminate structure and electrically coupled to the RF antenna, the at least one integrated galvanic cell , and other parts of the first and second conductive layers of the multilayer laminate structure; wherein the at least one galvanic cell is configured to supply electrical power to the at least one NFC/RFID integrated circuit (301; 301'; 301"); characterized in that the at least one integrated galvanic cell further comprises an encapsulated electrolyte material and ion bridge that are part of the multilayer laminate structure and, wherein the transformative material , the encapsulated electrolyte material and the ion bridge are disposed between the first and second conductive layers of the multilayer laminate structure.