mhurhangee/ep-ind-claims huggingface dataset:
A net comprising cords joined in a net mesh, wherein each cord comprises one or more yarns, the yarns having a tenacity of at least 0.6 N/tex, measured according to ASTM D885M, wherein the cords further comprise a polymeric resin, and wherein the net is a knotless net, characterised in that the polymeric resin is a homopolymer or copolymer of ethylene and/or propylene, wherein the polymeric resin has a density as measured according to ISO1183-2004 in the range from 860 to 970 kg/m 3, a peak melting temperature measured according to ASTM E794-06 in the range from 40 to 140°C and a heat of fusion of at least 5 J/g and at most 200 J/g measured according to ASTM E793-85, considering the second heating curve at a heating rate of 10 K/min, on a dry sample, and in that the knotless net has a mesh size of at least 8 mm.
A display system for displaying enhanced vision images and captured images, comprising: an enhanced vision system configured for generating an image as an enhanced vision image; an electronic vision system configured for generating a synthetic image according to a captured image that is pre-stored in a database; a processor configured to filter the enhanced vision image by removing areas of the enhanced vision image not satisfying a determined threshold to produce a filtered enhanced vision image, the processor configured to superimpose the filtered enhanced vision image over the synthetic image to provide a filtered merged image (FIG. 6); and a display configured to display the filtered merged image. an enhanced vision system configured for generating an image as an enhanced vision image; an electronic vision system configured for generating a synthetic image according to a captured image that is pre-stored in a database; a processor configured to filter the enhanced vision image by removing areas of the enhanced vision image not satisfying a determined threshold to produce a filtered enhanced vision image, the processor configured to superimpose the filtered enhanced vision image over the synthetic image to provide a filtered merged image (FIG. 6); and a display configured to display the filtered merged image.
A clad wire (1, 11, 21) for producing test needles or sliding contacts having a wire core (2, 12, 22) made of rhodium or a rhodium-based alloy, an inner cladding (3, 13, 23) made of copper or silver or aluminum or a copper-based alloy or a silver-based alloy or an aluminum-based alloy, wherein the inner cladding (3, 13, 23) covers the wire core (2, 12, 22) on at least two opposite sides or completely encloses the wire core (2, 12, 22), an adhesion-promoting layer (5, 15, 25) made of gold or a gold-based alloy, which is arranged between the wire core (2, 12, 22) and the inner cladding (3, 13, 23), and an outer cladding (4, 14, 24) made of a metal or a metal alloy having a greater hardness than the material of the inner cladding (3, 13, 23), wherein the outer cladding (4, 14, 24) encloses the inner cladding (3, 13, 23). an inner cladding (3, 13, 23) made of copper or silver or aluminum or a copper-based alloy or a silver-based alloy or an aluminum-based alloy, wherein the inner cladding (3, 13, 23) covers the wire core (2, 12, 22) on at least two opposite sides or completely encloses the wire core (2, 12, 22), an adhesion-promoting layer (5, 15, 25) made of gold or a gold-based alloy, which is arranged between the wire core (2, 12, 22) and the inner cladding (3, 13, 23), and an outer cladding (4, 14, 24) made of a metal or a metal alloy having a greater hardness than the material of the inner cladding (3, 13, 23), wherein the outer cladding (4, 14, 24) encloses the inner cladding (3, 13, 23).
A diesel particle filter having a catalyst comprising a platinum (Pt) and neodymium (Nd) alloy carried in silica, wherein a molar ratio of the platinum and neodymium is 1:0.1 to 1:1.2.
An acceleration sensor comprising a substrate comprising a substrate surface; a sample mass that is movable relative to the substrate along a positive deflection direction (x), which is substantially parallel to the substrate surface, wherein the sample mass comprises a comb-like electrode that is movable together with the sample mass, and wherein the movable comb-like electrode comprises a plurality of teeth, which extend along the positive deflection direction (x); a counter electrode that is fixedly connected to the substrate, wherein the counter electrode comprises a fixed comb-like electrode, and wherein the fixed comb-like electrode comprises a plurality of teeth, which extend along a direction opposite to the positive deflection direction (x), and wherein the teeth of the movable comb-like electrode engage with the teeth of the fixed comb-like electrode; and a shielding electrode that is fixedly connected to the substrate, which is suitable to increase pneumatic damping of the sample mass during a deflection movement of the sample mass, wherein the movable comb-like electrode comprises a comb frontward side with a comb frontward surface that is substantially perpendicular to the positive deflection direction (x); the shielding electrode comprises a shielding electrode surface that is substantially parallel to the comb frontward surface; the comb frontward surface and the shielding electrode surface are opposite to each other; a distance between the comb frontward surface and the shielding electrode surface changes during an deflection movement of the sample mass; and wherein a change of the distance is suitable to increase pneumatic damping of the sample mass, characterized in that the counter electrode and the shielding electrode are mechanically connected to each other via an isolation layer.
An adapter device for a vacuum cleaner comprising a hollow tubular body comprising a first end configured to engage a part of the vacuum cleaner and a second end configured to engage an accessory or a flexible tube, wherein said hollow tubular body is at least partially of a deformable material with elastic return characterized in that said tubular body comprises a plurality of rings protruding radially outwards from the external surface of the tubular body, wherein the rings of the plurality of rings have an increasing diameter.
A method of managing quality of service, QoS, in a data network, the method comprising: receiving at an access network, AN, node in an AN (204, 504), from a core network, CN, (206, 506) QoS policy information, the QoS policy information comprising one or more QoS parameters and one or more data session descriptors; obtaining a QoS policy based on at least a portion of the QoS policy information; storing one or more QoS policies and the one or more data session descriptors in a QoS map that links the one or more QoS policies with the one or more respective descriptors; and applying the QoS policy to a flow between the CN (206, 506) and a user equipment, UE, (202, 502) when a descriptor in a packet in the flow corresponds to the QoS policy; wherein the obtaining the QoS policy comprises: selecting, from the QoS map, the QoS policy that is linked to the descriptor in the packet; and selecting AN resources for the flow based on the QoS policy. receiving at an access network, AN, node in an AN (204, 504), from a core network, CN, (206, 506) QoS policy information, the QoS policy information comprising one or more QoS parameters and one or more data session descriptors; obtaining a QoS policy based on at least a portion of the QoS policy information; storing one or more QoS policies and the one or more data session descriptors in a QoS map that links the one or more QoS policies with the one or more respective descriptors; and applying the QoS policy to a flow between the CN (206, 506) and a user equipment, UE, (202, 502) when a descriptor in a packet in the flow corresponds to the QoS policy; wherein the obtaining the QoS policy comprises: selecting, from the QoS map, the QoS policy that is linked to the descriptor in the packet; and selecting AN resources for the flow based on the QoS policy. selecting, from the QoS map, the QoS policy that is linked to the descriptor in the packet; and selecting AN resources for the flow based on the QoS policy.
A system for eluting a radioactive material, comprising: an elution column configured to enclose the radioactive material; a first sealing member sealing a first end of the elution column; a second sealing member sealing a second end of the elution column; an elution supply source connected to the first end of the elution column via a first fluid communication path; a collection system connected to the second end of the elution column via a second fluid communication path; a filter in the elution column, the filter being configured to support the radioactive material and prevent the radioactive material from contacting the second fluid communication path; and characterized by a plurality of flow trippers attached to an inside wall of the elution column. an elution column configured to enclose the radioactive material; a first sealing member sealing a first end of the elution column; a second sealing member sealing a second end of the elution column; an elution supply source connected to the first end of the elution column via a first fluid communication path; a collection system connected to the second end of the elution column via a second fluid communication path; a filter in the elution column, the filter being configured to support the radioactive material and prevent the radioactive material from contacting the second fluid communication path; and characterized by a plurality of flow trippers attached to an inside wall of the elution column.
Hob system, comprising - a hob device with -- a hob which has at least one energy transmitter and at least one carrier for food to be cooked, and -- a fastening and/or displacement device for reversibly fastening the at least one carrier for food to be cooked in a displaceable manner to a worktop, and - an extractor device for extracting cooking vapours from below, which has at least one inlet opening for the entry of the cooking vapours, characterized in that - the carrier for food to be cooked is displaceable with a movement component parallel to a hob plane, and - wherein the at least one carrier for food to be cooked in at least one covering position at least partially covers the at least one inlet opening. - a hob device with -- a hob which has at least one energy transmitter and at least one carrier for food to be cooked, and -- a fastening and/or displacement device for reversibly fastening the at least one carrier for food to be cooked in a displaceable manner to a worktop, and -- a hob which has at least one energy transmitter and at least one carrier for food to be cooked, and -- a fastening and/or displacement device for reversibly fastening the at least one carrier for food to be cooked in a displaceable manner to a worktop, and - an extractor device for extracting cooking vapours from below, which has at least one inlet opening for the entry of the cooking vapours, - the carrier for food to be cooked is displaceable with a movement component parallel to a hob plane, and - wherein the at least one carrier for food to be cooked in at least one covering position at least partially covers the at least one inlet opening.
A method of splitting a semiconductor wafer, the semiconductor wafer having a front side and a backside, the method comprising: forming one or more epitaxial layers on the front side of the semiconductor wafer; forming a plurality of device structures in the one or more epitaxial layers; forming a metallization layer and/or a passivation layer over the plurality of device structures; attaching a carrier to the semiconductor wafer with the one or more epitaxial layers, the carrier protecting the plurality of device structures and mechanically stabilizing the semiconductor wafer; forming a separation region within the semiconductor wafer, the separation region having at least one altered physical property which increases thermo-mechanical stress within the separation region relative to the remainder of the semiconductor wafer, wherein forming the separation region comprises damaging a material of the semiconductor wafer at a targeted position within the semiconductor wafer, wherein damaging the material of the semiconductor wafer comprises creating a plasma in the material at the targeted position, wherein creating the plasma comprises focusing laser radiation at the targeted position through the backside of the semiconductor wafer opposite the device structures; and applying an external force to the semiconductor wafer such that at least one crack propagates along the separation region and the semiconductor wafer splits into two separate pieces (124, 126), one of the pieces retaining the plurality of device structures. forming one or more epitaxial layers on the front side of the semiconductor wafer; forming a plurality of device structures in the one or more epitaxial layers; forming a metallization layer and/or a passivation layer over the plurality of device structures; attaching a carrier to the semiconductor wafer with the one or more epitaxial layers, the carrier protecting the plurality of device structures and mechanically stabilizing the semiconductor wafer; forming a separation region within the semiconductor wafer, the separation region having at least one altered physical property which increases thermo-mechanical stress within the separation region relative to the remainder of the semiconductor wafer, wherein forming the separation region comprises damaging a material of the semiconductor wafer at a targeted position within the semiconductor wafer, wherein damaging the material of the semiconductor wafer comprises creating a plasma in the material at the targeted position, wherein creating the plasma comprises focusing laser radiation at the targeted position through the backside of the semiconductor wafer opposite the device structures; and applying an external force to the semiconductor wafer such that at least one crack propagates along the separation region and the semiconductor wafer splits into two separate pieces (124, 126), one of the pieces retaining the plurality of device structures.
A control apparatus for an internal combustion engine, comprising: an intake-air-pressure calculating unit that acquires a pressure in an intake pipe, which supplies air into a combustion chamber of the internal combustion engine, and measures a maximum pressure and a minimum pressure in the intake pipe during one revolution of an output shaft of the internal combustion engine; a fluctuation-range calculating unit that calculates a pressure fluctuation range during one revolution of the output shaft from a difference between the maximum pressure and the minimum pressure in the intake pipe; a fluctuation-range comparing unit that compares, with respect to a magnitude relation, a previous pressure fluctuation range with a current pressure fluctuation range obtained during two revolutions of the output shaft; a stroke determining unit that, based on a magnitude relation in the previous pressure fluctuation range with the current pressure fluctuation range, determines strokes of the internal combustion engine; and an output processing unit that executes a fuel injection output and an ignition output once for every two revolutions of the output shaft after strokes of the internal combustion engine are determined. an intake-air-pressure calculating unit that acquires a pressure in an intake pipe, which supplies air into a combustion chamber of the internal combustion engine, and measures a maximum pressure and a minimum pressure in the intake pipe during one revolution of an output shaft of the internal combustion engine; a fluctuation-range calculating unit that calculates a pressure fluctuation range during one revolution of the output shaft from a difference between the maximum pressure and the minimum pressure in the intake pipe; a fluctuation-range comparing unit that compares, with respect to a magnitude relation, a previous pressure fluctuation range with a current pressure fluctuation range obtained during two revolutions of the output shaft; a stroke determining unit that, based on a magnitude relation in the previous pressure fluctuation range with the current pressure fluctuation range, determines strokes of the internal combustion engine; and an output processing unit that executes a fuel injection output and an ignition output once for every two revolutions of the output shaft after strokes of the internal combustion engine are determined.
An electronic system, comprising an electronic device; an extension device including a second battery, the extension device being detachably coupled to the electronic device, the electronic device comprising: a first battery; a load circuit that activates the electronic device; and a control circuit that selects one of the first battery and the second battery and causes the selected one to supply electric power to the load circuit, characterized in that the control circuit detects whether a switch provided in the extension device is in a first state or in a second state, and selects the first battery preferentially as a supply source of electric power to the load circuit as compared with the second battery when the switch is in the first state. an electronic device; an extension device including a second battery, the extension device being detachably coupled to the electronic device, the electronic device comprising: a first battery; a load circuit that activates the electronic device; and a control circuit that selects one of the first battery and the second battery and causes the selected one to supply electric power to the load circuit, a first battery; a load circuit that activates the electronic device; and a control circuit that selects one of the first battery and the second battery and causes the selected one to supply electric power to the load circuit, characterized in that the control circuit detects whether a switch provided in the extension device is in a first state or in a second state, and selects the first battery preferentially as a supply source of electric power to the load circuit as compared with the second battery when the switch is in the first state. detects whether a switch provided in the extension device is in a first state or in a second state, and selects the first battery preferentially as a supply source of electric power to the load circuit as compared with the second battery when the switch is in the first state.
Electric current breaking apparatus housed in an insulating housing and comprising at least one single-pole phase assembly (2, 3, 4, 5) and one control mechanism, said single-pole phase assembly comprising a breaking chamber housing a fixed contact and a moving contact, the different moving contacts of the different assemblies being borne by a moving-contact-holding shaft, these moving contacts being able to be brought into an opening position manually or automatically via, for each subassembly, a thermal protection device suitable for actuating the control mechanism so as to open the contacts upon the occurrence of an overcurrent in the circuit to be protected, the thermal protection device comprising, on the one hand, a so-called active bimetal strip suitable for producing an overheating when an overcurrent occurs above a certain level above the rated current value, this overheating leading to a thermal tripping of the control mechanism of the apparatus so as to cause the contacts to open, and on the other hand, a so-called compensation bimetal strip intended to compensate the variations that the changes of the ambient temperature determine in the temperature of the circuit, the two bimetal strips (26, 27) being secured to one another at one of their ends by means of an attachment device, this attachment device being deactivated upon the occurrence of an overcurrent, this deactivation resulting in the actuation by the compensation bimetal strip of the control mechanism, and rearming means suitable for returning the attachment device to the activated position upon the opening of the contacts, characterized in that the compensation bimetal strip is mounted to rotate about a so-called first fixed axis belonging to a so-called first support of the apparatus, and in that the so-called second axis of rotation of the moving-contact-holding shaft and the so-called first axis of rotation of the compensation bimetal strip, are brought in proximity to one another, and in that the moving-contact-holding shaft comprises a so-called first part co-operating with a so-called second part secured in rotation to the compensation bimetal strip, these two parts (34, 35) being arranged relative to one another in such a way that, after a tripping of the mechanism, when the moving-contact-holding shaft is driven in the direction of opening of the contacts, the so-called first part drives said second part and, therefore the compensation bimetal strip, in rotation in a direction opposite to that having resulted in the tripping of the mechanism, until the re-attachment of the two bimetal strips (26, 27) to one another is obtained.
A recombinant microorganism having ability of producing poly-γ-glutamic acid, wherein, the recombinant microorganism is being prepared by introducing a Bacillus subtilis pgsB gene, and a Bacillus subtilis pgsC gene into a host microorganism, wherein no Bacillus subtilis pgsA gene or a gene having a nucleotide sequence with a genetic identity to the nucleotide sequence set forth in SEQ ID NO:5 of 80% or more and coding a protein having been considered to have PGA synthesis activity together with PgsB and PgsC, is being introduced into the host microorganism, wherein the host microorganism is a Bacillus microbe selected from Bacillus subtilis, Bacillus licheniformis and Bacillus megaterium, wherein the pgsB gene and the pgsC gene are incorporated in a plasmid self-replicable in a cell of the host microorganism and wherein multiple copies of said plasmid are contained in the cell.
A synthesis system for synthesizing at least one of aniline and styrene from an alcohol having two or more carbon atoms via an aromatic compound wherein the synthesis system is adapted to subject the alcohol to catalysis by a solid acid catalyst to give a reaction product, and circulate the reaction product so that it is further subjected to catalysis by the solid acid catalyst.
Method for controlling an electromagnetically controllable inlet valve that is integrated in a high-pressure fuel pump, in which for closing the inlet valve a solenoid is energized as a function of the piston stroke of a pump piston of the high-pressure fuel pump, characterized in that, when undershooting a predefined temperature threshold, when cold-starting and/or when exceeding a predefined fuel viscosity, a power loss which is used for heating the fuel is introduced by way of the current feed to the solenoid, so that the risk of a separation of paraffin, and thus the risk of a sieve disposed upstream of the inlet valve being clogged, is reduced.