mhurhangee/patent-ind-claim-en huggingface dataset:
Identity document comprising: - an assembly of at least one destination carrier in which or on which an ink that is fluorescent under illumination in the UV-A is deposited locally, and - a multilayer optical security component placed on the destination carrier , - a structurable layer ; and - an assembly of at least one layer including pigments that are fluorescent under UV-B or UV-C excitation; the optical component furthermore comprises: - a dielectric reflective layer that is deposited on the structurable layer discontinuously in the plane of the component, so as to produce dielectric zones allowing patterns to be drawn; the dielectric reflective layer having a relative transmittance in the UV-B or UV-C domain at most equal to 40%; - the assembly of at least one layer including pigments that are fluorescent under UV-B or UV-C excitation being deposited on said dielectric reflective layer , uniformly or discontinuously in the plane of the optical component. - an assembly of at least one destination carrier in which or on which an ink that is fluorescent under illumination in the UV-A is deposited locally, and - a multilayer optical security component placed on the destination carrier , - a structurable layer ; and - an assembly of at least one layer including pigments that are fluorescent under UV-B or UV-C excitation; the optical component furthermore comprises: - a dielectric reflective layer that is deposited on the structurable layer discontinuously in the plane of the component, so as to produce dielectric zones allowing patterns to be drawn; the dielectric reflective layer having a relative transmittance in the UV-B or UV-C domain at most equal to 40%; - the assembly of at least one layer including pigments that are fluorescent under UV-B or UV-C excitation being deposited on said dielectric reflective layer , uniformly or discontinuously in the plane of the optical component. - a structurable layer ; and - an assembly of at least one layer including pigments that are fluorescent under UV-B or UV-C excitation; - a dielectric reflective layer that is deposited on the structurable layer discontinuously in the plane of the component, so as to produce dielectric zones allowing patterns to be drawn; the dielectric reflective layer having a relative transmittance in the UV-B or UV-C domain at most equal to 40%; - the assembly of at least one layer including pigments that are fluorescent under UV-B or UV-C excitation being deposited on said dielectric reflective layer , uniformly or discontinuously in the plane of the optical component.
An aircraft gas turbomachine having an axis (X, 130) and comprising an outer housing and an annular combustion chamber comprising two annular shrouds, respectively inner annular shroud and outer annular shroud , radial with respect to the axis (X, 130) of the turbomachine, arranged one inside the other and connected at upstream ends by an annular wall of chamber bottom , the annular combustion chamber being fixed, at an upstream part thereof, to the outer housing , via pins individually connected by a swivel connection, characterized in that , at said upstream part of the annular combustion chamber , and for each pin: - the swivel connection is established between the pin and a part of the outer housing in which a convex wall of the pin is received, and - a sliding connection is established, spaced from the swivel connection , between the pin and a part of the outer annular shroud and/or the annular wall of the chamber bottom . - the swivel connection is established between the pin and a part of the outer housing in which a convex wall of the pin is received, and - a sliding connection is established, spaced from the swivel connection , between the pin and a part of the outer annular shroud and/or the annular wall of the chamber bottom .
An omnidirectional drive and steering unit comprising: a) an upper case assembly and a lower case assembly ; b) a wheel housing assembly retained in place by said upper case assembly and lower case assembly ; c) a drive wheel housed within said wheel housing assembly , having a wheel drive shaft and a pinion gear attached to said wheel drive shaft ; d) a bevel gear and a worm gear housed within said upper case assembly ; and e) a worm assembly having a worm and a worm shaft ; f) characterized in that when said worm shaft is rotated, said worm rotates and translates movement to said worm gear and bevel gear which translates movement to said pinion gear attached to said wheel drive shaft , rotating said wheel drive shaft driving said wheel . a) an upper case assembly and a lower case assembly ; b) a wheel housing assembly retained in place by said upper case assembly and lower case assembly ; c) a drive wheel housed within said wheel housing assembly , having a wheel drive shaft and a pinion gear attached to said wheel drive shaft ; d) a bevel gear and a worm gear housed within said upper case assembly ; and e) a worm assembly having a worm and a worm shaft ; f) characterized in that when said worm shaft is rotated, said worm rotates and translates movement to said worm gear and bevel gear which translates movement to said pinion gear attached to said wheel drive shaft , rotating said wheel drive shaft driving said wheel .
A method of adjusting a working depth of a plough implement, the plough implement comprising a plurality of ground-engaging tools for penetrating and moving soil and a plurality of depth adjustment apparatuses configured to adjust working depths of a plurality of the ground-engaging tools , wherein the method comprises: receiving control data indicative of two or more field conditions of a field across which the plough implement is being moved; automatically controlling operation of the depth adjustment apparatuses in a manner that adjusts working depths of the plurality of ground-engaging tools on the basis of the control data received, the method being characterised in that each depth adjustment apparatus is configured independently to adjust a working depth of at least one of the plurality of ground-engaging tools, and wherein automatically controlling an operation of the depth adjustment apparatus comprises controlling operation of two or more of the depth adjustment apparatuses in a manner that changes a working depth of two or more of the plurality of ground-engaging tools independently of each other. receiving control data indicative of two or more field conditions of a field across which the plough implement is being moved; automatically controlling operation of the depth adjustment apparatuses in a manner that adjusts working depths of the plurality of ground-engaging tools on the basis of the control data received, the method being characterised in that each depth adjustment apparatus is configured independently to adjust a working depth of at least one of the plurality of ground-engaging tools, and wherein automatically controlling an operation of the depth adjustment apparatus comprises controlling operation of two or more of the depth adjustment apparatuses in a manner that changes a working depth of two or more of the plurality of ground-engaging tools independently of each other.
Food supplement for use in the fight against stress and anxiety in pets, said food supplement containing a mixture of α-lactalbumin and magnesium, characterized in that said food supplement contains more than 50% by weight of the mixture of α-lactalbumin and magnesium, wherein the α-lactalbumin / magnesium ratio is between 50/50 and 80/20, and in that its contains, as a source of magnesium, magnesium glycerophosphate representing at least 80% by weight of the magnesium source.
A method for receiving, by a user equipment, UE, downlink signals, the method comprising: receiving, by the UE, semi-persistent scheduling, SPS, configuration information on N SPS resource configurations, where N is an integer larger than 1; receiving, by the UE, an SPS command to activate or deactivate each of multiple SPS resource configurations among the N SPS resource configurations; transmitting, by the UE, SPS status information on the N SPS resource configurations in response to the SPS command; and performing, by the UE, downlink reception or uplink transmission in an SPS resource corresponding to an SPS resource configuration among activated SPS resource configurations, wherein the SPS command includes information indicating each of the multiple SPS resource configurations and information indicating whether a corresponding SPS resource configuration is activated or deactivated, wherein the SPS status information includes information on whether the N SPS resource configurations are active or not in the UE, respectively, wherein the SPS status information is transmitted on a first SPS resource of a union of the activated SPS resource configurations. receiving, by the UE, semi-persistent scheduling, SPS, configuration information on N SPS resource configurations, where N is an integer larger than 1; receiving, by the UE, an SPS command to activate or deactivate each of multiple SPS resource configurations among the N SPS resource configurations; transmitting, by the UE, SPS status information on the N SPS resource configurations in response to the SPS command; and performing, by the UE, downlink reception or uplink transmission in an SPS resource corresponding to an SPS resource configuration among activated SPS resource configurations, wherein the SPS command includes information indicating each of the multiple SPS resource configurations and information indicating whether a corresponding SPS resource configuration is activated or deactivated, wherein the SPS status information includes information on whether the N SPS resource configurations are active or not in the UE, respectively, wherein the SPS status information is transmitted on a first SPS resource of a union of the activated SPS resource configurations.
A method for identification of a protein, the method comprising the steps of: a) providing a first protein sample comprising at least a first protein, b) providing at least a second protein sample comprising at least a second protein having substantially the same amino acid sequence as the first protein but being different from the first protein, wherein "substantially the same amino acid sequence" is defined (i) in that the amino acid sequence of the first and second protein differs from each other in five or less amino acids, or (ii) in that the first and second proteins are identical in the encoded amino acid sequence but differ in posttranslational modifications, or (iii) in that the first and second proteins are identical in the encoded amino acid sequence and have different conformational structures, c) subjecting the at least first and second protein samples to enzymatic modification with a first enzyme having a different binding affinity and/or catalytic turnover of the at least first and second protein, d) repeating step c) one or more times with a second or further enzyme, wherein each enzymatic modification step amplifies differences between the first and the second protein, e) visualizing differences between the first and second protein, and f) identifying the protein based on visualized differences between the first and the second protein. a) providing a first protein sample comprising at least a first protein, b) providing at least a second protein sample comprising at least a second protein having substantially the same amino acid sequence as the first protein but being different from the first protein, wherein "substantially the same amino acid sequence" is defined (i) in that the amino acid sequence of the first and second protein differs from each other in five or less amino acids, or (ii) in that the first and second proteins are identical in the encoded amino acid sequence but differ in posttranslational modifications, or (iii) in that the first and second proteins are identical in the encoded amino acid sequence and have different conformational structures, (i) in that the amino acid sequence of the first and second protein differs from each other in five or less amino acids, or (ii) in that the first and second proteins are identical in the encoded amino acid sequence but differ in posttranslational modifications, or (iii) in that the first and second proteins are identical in the encoded amino acid sequence and have different conformational structures, c) subjecting the at least first and second protein samples to enzymatic modification with a first enzyme having a different binding affinity and/or catalytic turnover of the at least first and second protein, d) repeating step c) one or more times with a second or further enzyme, wherein each enzymatic modification step amplifies differences between the first and the second protein, e) visualizing differences between the first and second protein, and f) identifying the protein based on visualized differences between the first and the second protein.
A polymerizable composition comprising: (a) at least one 2-methylene-1,3-dicarbonyl compound each having at least one structural unit represented by formula (I) below: and (b) at least one ionic compound which does not substantially react with the compound (a), the ionic compound comprising: an anion selected from the group consisting of a bissulfonylimide anion, hexafluorophosphate anion and a sulfonate anion; and an onium cation, and which polymerizable composition polymerizes when contacted with a polymerization initiator comprising at least one basic substance. (a) at least one 2-methylene-1,3-dicarbonyl compound each having at least one structural unit represented by formula (I) below: and (b) at least one ionic compound which does not substantially react with the compound (a), the ionic compound comprising: an anion selected from the group consisting of a bissulfonylimide anion, hexafluorophosphate anion and a sulfonate anion; and an onium cation, and which polymerizable composition polymerizes when contacted with a polymerization initiator comprising at least one basic substance. an anion selected from the group consisting of a bissulfonylimide anion, hexafluorophosphate anion and a sulfonate anion; and an onium cation, and which polymerizable composition polymerizes when contacted with a polymerization initiator comprising at least one basic substance.
A connector for two components , in particular wooden components, comprising two fittings , each of which has a mounting side for mounting on one of the components and an abutment side opposite the mounting side for contact against the other of the components , wherein the two fittings may be hooked into one another at an end face connecting the mounting and abutment sides , for which purpose the end face has, over its entire length (L) running along the abutment side , a shoulder which is flush with the abutment side and the width (B) of which in the orthogonal direction (R N ) to the abutment side corresponds substantially to half the width (w) of the end face , characterised in that the fittings are made of wood, preferably of plywood, or of wood-plastic composite and each fitting has one or more generally cylindrical blind holes on its abutment side , wherein the connector further comprises, for each blind hole , a molding for removable insertion into the blind hole , said molding having a base surface , a top surface parallel thereto, a substantially generally cylindrical lateral surface connecting the two, and a slanted bore for a mounting screw , wherein said slanted bore penetrates the molding at an acute angle (α) to the base and top surfaces .
A re-baselining control system for controlling a re-baselining of a network device being part of a network of network devices , wherein the re-baselining refers to determining a new baseline for the detection of a subject in a detection area, wherein the new baseline is determined based on a detection signal detected by the network device and/or detected by other network devices being part of the network , wherein the re-baselining control system comprises: - a detection signal providing unit for providing a detection signal detected by the network device and/or by other network devices being part of the network in the detection area, wherein the detection signal is indicative of a presence or absence of a subject in the detection area and is usable for determining a baseline, - a quality criterion checking unit for checking if a predetermined quality criterion for a re-baselining is fulfilled based on the provided detection signal, - a re-baselining unit for controlling the network device to re-baseline if the predetermined quality criterion is fulfilled; characterised in that wherein the re-baselining control system further comprises a signal initiating unit , wherein the signal initiating unit is adapted to initiate a user perceptible output from the network device or a device connected to the network device via the network to notify a potential subject in the detection area of an intention to re-baseline. - a detection signal providing unit for providing a detection signal detected by the network device and/or by other network devices being part of the network in the detection area, wherein the detection signal is indicative of a presence or absence of a subject in the detection area and is usable for determining a baseline, - a quality criterion checking unit for checking if a predetermined quality criterion for a re-baselining is fulfilled based on the provided detection signal, - a re-baselining unit for controlling the network device to re-baseline if the predetermined quality criterion is fulfilled; characterised in that wherein the re-baselining control system further comprises a signal initiating unit , wherein the signal initiating unit is adapted to initiate a user perceptible output from the network device or a device connected to the network device via the network to notify a potential subject in the detection area of an intention to re-baseline.
An advanced thermal treatment, ATT, method comprising: applying heat from a heat source to a cylindrical retort to cause a first ATT process, the first ATT process resulting in a gaseous mixture, wherein an ATT process comprises a pyrolysis process or a gasification process; characterized by applying heat from the heat source to a gas enclosure to cause a second ATT process, the second ATT process being applied to the gaseous mixture; wherein the gas enclosure is located closer to the heat source than the retort , the method further comprising: applying heat from the heat source to a system of piping to cause a third ATT process, the third ATT process being applied to the gaseous mixture; wherein the system of piping is located closer to the heat source than the first region and the gas enclosure is located closer to the heat source than the system of piping . applying heat from a heat source to a cylindrical retort to cause a first ATT process, the first ATT process resulting in a gaseous mixture, wherein an ATT process comprises a pyrolysis process or a gasification process; characterized by applying heat from the heat source to a gas enclosure to cause a second ATT process, the second ATT process being applied to the gaseous mixture; wherein the gas enclosure is located closer to the heat source than the retort , the method further comprising: applying heat from the heat source to a system of piping to cause a third ATT process, the third ATT process being applied to the gaseous mixture; wherein the system of piping is located closer to the heat source than the first region and the gas enclosure is located closer to the heat source than the system of piping . applying heat from the heat source to a system of piping to cause a third ATT process, the third ATT process being applied to the gaseous mixture; wherein the system of piping is located closer to the heat source than the first region and the gas enclosure is located closer to the heat source than the system of piping .
Tool for supporting and guiding a set of electrical cables that are intended to be mounted between a passenger compartment and an engine compartment of a vehicle by passing through an opening in a firewall of said vehicle, characterized in that said tool includes a supporting portion which takes the form of a tray including lateral walls so as to support said set of electrical cables and a guiding portion having a width that decreases, the end of said guiding portion not including lateral walls and having a width less than or equal to the width of the opening in the firewall of the vehicle intended to be positioned at least opposite said opening in the firewall so as to allow guiding and thus to facilitate the passage of said set of electrical cables through the opening in the firewall of the vehicle.
An MR active tracking system comprising: an integrated circuit active tracking coil, IC at coil, , comprising an active tracking coil , an integrated circuit proximate the active tracking coil , a frequency down-converter configured to down-convert a magnetic resonance (MR) signal received by the active tracking coil, and a frequency generator ; a tracking receiver ; a first MR safe means configured for transmitting a received and downconverted MR signal from the IC at coil to the tracking receiver; and a second MR safe means configured for communicating one or more signals from the tracking receiver to the IC at coil, characterised in that said active tracking coil is configured to sample an MR transmit excitation pulse, or alternatively in that the IC at coil comprises a separate sense coil configured to sample an MR transmit excitation pulse, and further characterised in that the frequency generator is configured to generate a reference frequency signal from the sampled MR transmit excitation pulse, and in that the frequency down-converter is configured for down-conversion of an MR signal received by the active tracking coil using the reference frequency signal. an integrated circuit active tracking coil, IC at coil, , comprising an active tracking coil , an integrated circuit proximate the active tracking coil , a frequency down-converter configured to down-convert a magnetic resonance (MR) signal received by the active tracking coil, and a frequency generator ; a tracking receiver ; a first MR safe means configured for transmitting a received and downconverted MR signal from the IC at coil to the tracking receiver; and a second MR safe means configured for communicating one or more signals from the tracking receiver to the IC at coil, characterised in that said active tracking coil is configured to sample an MR transmit excitation pulse, or alternatively in that the IC at coil comprises a separate sense coil configured to sample an MR transmit excitation pulse, and further characterised in that the frequency generator is configured to generate a reference frequency signal from the sampled MR transmit excitation pulse, and in that the frequency down-converter is configured for down-conversion of an MR signal received by the active tracking coil using the reference frequency signal.