mhurhangee/patent-ind-claim-en huggingface dataset:
A method of laser processing a transparent material , the method comprising: positioning the transparent material on a carrier; and transmitting a laser beam through the transparent material, the laser beam incident on a side of the transparent material opposite the carrier, wherein: the transparent material is transparent to the laser beam; the carrier comprises a support base and a laser disruption element ; the laser disruption element optically disrupts the laser beam transmitted through the transparent material such that the laser beam does not have sufficient intensity below the laser disruption element to damage the support base; and characterized in that the laser disruption element comprises a frosted glass the transparent material is transparent to the laser beam; the carrier comprises a support base and a laser disruption element ; the laser disruption element optically disrupts the laser beam transmitted through the transparent material such that the laser beam does not have sufficient intensity below the laser disruption element to damage the support base; and characterized in that the laser disruption element comprises a frosted glass
Measurement equipment comprising a probe for observing objects moving along a longitudinal direction , preferably for carrying out a spatially resolved spectroscopic analysis on said objects , a triggering device offset from the probe along the longitudinal direction , and a control unit ; the probe comprising: • a surface extending along the longitudinal direction and along a lateral direction perpendicular to the longitudinal direction , • one or more first optical fibres opening out onto said surface and arranged to emit electromagnetic radiation from at least one source , each first optical fibre having a first acceptance cone , • second optical fibres opening out onto said surface , and arranged to capture electromagnetic radiation and transmit it to a receiving device , each second optical fibre having a second acceptance cone , the second optical fibres being offset from the first optical fibre or fibres along the longitudinal direction and located on a same side of the first optical fibre or fibres ; the probe being such that at least one of the second acceptance cones intersects at least one first acceptance cone at less than 10 mm of said surface ; the triggering device being configured to detect the moving objects ; and the measurement equipment being configured to activate the observation of the objects by the probe in response to their detection by the triggering device . • a surface extending along the longitudinal direction and along a lateral direction perpendicular to the longitudinal direction , • one or more first optical fibres opening out onto said surface and arranged to emit electromagnetic radiation from at least one source , each first optical fibre having a first acceptance cone , • second optical fibres opening out onto said surface , and arranged to capture electromagnetic radiation and transmit it to a receiving device , each second optical fibre having a second acceptance cone , the second optical fibres being offset from the first optical fibre or fibres along the longitudinal direction and located on a same side of the first optical fibre or fibres ; the probe being such that at least one of the second acceptance cones intersects at least one first acceptance cone at less than 10 mm of said surface ; the triggering device being configured to detect the moving objects ; and the measurement equipment being configured to activate the observation of the objects by the probe in response to their detection by the triggering device . the probe being such that at least one of the second acceptance cones intersects at least one first acceptance cone at less than 10 mm of said surface ; the triggering device being configured to detect the moving objects ; and the measurement equipment being configured to activate the observation of the objects by the probe in response to their detection by the triggering device .
Awning, in particular conservatory or weather protection awning, comprising - an awning cover , - a supporting frame with lateral guide rails for the awning cover , running in the direction of projection (A) of the awning cover , and end rails , running transversely thereto for the stationary mounting of the awning at a building and/or on supports , wherein one of the end rails is designed as an awning housing with a drive device for the awning cover , as well as - a front profile at the front end of the awning cover , which is mounted in the respective guide rail so as to be displaceable in and against the direction of projection (A) by means of a drive belt that is circulating in the respective guide rail via pulleys on the end side, wherein the drive device can be coupled via at least one telescopic drive shaft to the respective pulley to be driven in the guide rail , characterized in that - the guide rails are each designed at least with the pulleys and drive belts for the front profile as a factory-preassembled unit which can be connected to the awning housing during the final assembly of the awning, and - the drive shaft is telescopically adjustable in its length in such a manner that in an intermediate assembly step the drive shaft is disengaged from the pulley to be driven and during the final assembly of the awning the drive shaft can be telescopically extended and brought into rotationally fixed engagement with the pulley to be driven. - an awning cover , - a supporting frame with lateral guide rails for the awning cover , running in the direction of projection (A) of the awning cover , and end rails , running transversely thereto for the stationary mounting of the awning at a building and/or on supports , wherein one of the end rails is designed as an awning housing with a drive device for the awning cover , as well as - a front profile at the front end of the awning cover , which is mounted in the respective guide rail so as to be displaceable in and against the direction of projection (A) by means of a drive belt that is circulating in the respective guide rail via pulleys on the end side, wherein the drive device can be coupled via at least one telescopic drive shaft to the respective pulley to be driven in the guide rail , - the guide rails are each designed at least with the pulleys and drive belts for the front profile as a factory-preassembled unit which can be connected to the awning housing during the final assembly of the awning, and - the drive shaft is telescopically adjustable in its length in such a manner that in an intermediate assembly step the drive shaft is disengaged from the pulley to be driven and during the final assembly of the awning the drive shaft can be telescopically extended and brought into rotationally fixed engagement with the pulley to be driven.
System (SYS) for testing an application-specific integrated circuit represented by a description comprising a assembly of paths linking several logic cells, the test system (SYS) comprising a characterization integrated circuit (CAR) comprising at least two configurable test structures (ST1, ST2), each comprising a plurality of activatable logic cells (A, B, C, R1, R2) and a plurality of connectors for activating and interconnecting the logic cells, and a test assembly (EDT) comprising: - a device (CTR) for controlling the integrated characterization circuit, configured to vary at least one physical parameter of at least one test structure configurable to accelerate its aging so as to obtain at least one degraded test structure, - an interface (INT) for receiving at least one description of an application-specific integrated circuit and extracting at least one path from the description, - a device (CONF) for configuring the integrated characterization circuit to activate and interconnect at least one subset of logical cells of at least one degraded test structure and at least one non-degraded test structure, so that they each produce a topology identical to at least one portion of an extracted path, - a measurement control device (MES) for performing at least one first measurement of a physical quantity on said at least one degraded test structure and at least a second measurement, identical to the first measurement, on said at least one non-degraded test structure. - a device (CTR) for controlling the integrated characterization circuit, configured to vary at least one physical parameter of at least one test structure configurable to accelerate its aging so as to obtain at least one degraded test structure, - an interface (INT) for receiving at least one description of an application-specific integrated circuit and extracting at least one path from the description, - a device (CONF) for configuring the integrated characterization circuit to activate and interconnect at least one subset of logical cells of at least one degraded test structure and at least one non-degraded test structure, so that they each produce a topology identical to at least one portion of an extracted path, - a measurement control device (MES) for performing at least one first measurement of a physical quantity on said at least one degraded test structure and at least a second measurement, identical to the first measurement, on said at least one non-degraded test structure.
A timepiece comprising: - a case comprising a sealed part and an unsealed part , - a striking mechanism located in the sealed part of the case , - at least one gong intended to be actuated by the striking mechanism , characterized in that the one or more gongs is/are situated completely inside the unsealed part of the case , in that the unsealed part comprises at least a resonance chamber 12, in that the timepiece comprises transmission means (4, 5, 6, 7, 9, 14 to 28) provided for the transmission of the movements of the striking mechanism occurring inside the sealed part of the case to the one or more gongs situated completely inside the unsealed part of the case and in that the transmission means comprise an elastic membrane separating the sealed part from the unsealed part of the case , this membrane being arranged in such a way as to transmit movements of the striking mechanism to the one or more gongs , the unsealed part of the case being provided, on the external side of the case , with openings and parts forming a resonance chamber being positioned in the openings opposite the at least one gong . - a case comprising a sealed part and an unsealed part , - a striking mechanism located in the sealed part of the case , - at least one gong intended to be actuated by the striking mechanism ,
Composite construction element for building a construction, said construction element comprising a first longitudinal wall and a second longitudinal wall maintained at a distance from each other by a plurality of spacers , said spacers being perpendicular to said first and second longitudinal walls (2 and 3) and distributed at intervals to form at least one receiving space inside of said construction element , said first and second longitudinal walls (2 and 3) moreover comprising at their ends assembly means to allow fitting construction element with another adjacent construction element, said first longitudinal wall and/or said second longitudinal wall , and said spacers comprising three successively superimposed layers called first, second and third layer, said first layer comprising a material including wood and said third layer comprising a material including wood, characterized in that said second intermediate layer comprises a panel out of a heat-insulating material arranged to eliminate the thermal bridges at the junctions between spacer and longitudinal wall, in that said construction element moreover comprises at least one bottom and at least one cover to close said at least one receiving space , and in that said at least one closed receiving space is filled partly or totally with a heat-insulating filling material when manufacturing said construction element.
An adsorbent polymeric structure according to formula (I): in which R 1 is an aliphatic moiety having from 5 carbons to 15 carbons; n is an integer ranging from 1 to 20; and X 1 is a graphene-containing moiety having from 20 carbons to 100 carbons. R 1 is an aliphatic moiety having from 5 carbons to 15 carbons; n is an integer ranging from 1 to 20; and X 1 is a graphene-containing moiety having from 20 carbons to 100 carbons.
Lighting device for a vehicle comprising at least one light source , at least one sensor configured to acquire information outside the vehicle based on infrared, a housing closed by a cover , said cover comprising a first portion covering said at least one light source and a second portion that is opaque to visible light and to infrared, said cover further comprising a third portion that is opaque to visible light and transparent to infrared, substantially centred on said at least one sensor and integrated into the second portion .
An amplification optical fiber comprising: a core ; a clad coating the core; and an outer clad coating the clad, wherein the core has a larger refractive index than the clad, the core allows light having a predetermined wavelength to propagate in at least LP01 mode and LP02 mode, and said core is doped with an active element that stimulates to emit light of said predetermined wavelength, characterized in that a concentration of the active element doped at the center of the core is lower than that at the position (r) where the intensity of the LP02 mode becomes zero. a core ; a clad coating the core; and an outer clad coating the clad, wherein the core has a larger refractive index than the clad, the core allows light having a predetermined wavelength to propagate in at least LP01 mode and LP02 mode, and said core is doped with an active element that stimulates to emit light of said predetermined wavelength, characterized in that a concentration of the active element doped at the center of the core is lower than that at the position (r) where the intensity of the LP02 mode becomes zero.
An electronic device comprising: an antenna including a radiation part emitting signal transmitted from a wireless communication circuit , a first feeding port provided in a first direction (D1) of the radiation part , a second feeding port provided in a second direction (D2) perpendicular to the first direction of the radiation part , and a third feeding port provided in a direction facing away from the first direction (D1); a first communication circuit and a second communication circuit included in the wireless communication circuit , the first communication circuit including a first transmitter and a first receiver and the second communication circuit including a second transmitter and a second receiver ; a first switch configured to selectively connect the first transmitter and the first receiver with the first feeding port ; a second switch configured to selectively connect the first transmitter and the first receiver with the second feeding port ; and a third switch configured to selectively connect the second transmitter and the second receiver with the third feeding port , based on a communication state associated with the wireless communication circuit . an antenna including a radiation part emitting signal transmitted from a wireless communication circuit , a first feeding port provided in a first direction (D1) of the radiation part , a second feeding port provided in a second direction (D2) perpendicular to the first direction of the radiation part , and a third feeding port provided in a direction facing away from the first direction (D1); a first communication circuit and a second communication circuit included in the wireless communication circuit , the first communication circuit including a first transmitter and a first receiver and the second communication circuit including a second transmitter and a second receiver ; a first switch configured to selectively connect the first transmitter and the first receiver with the first feeding port ; a second switch configured to selectively connect the first transmitter and the first receiver with the second feeding port ; and a third switch configured to selectively connect the second transmitter and the second receiver with the third feeding port , based on a communication state associated with the wireless communication circuit .
An injector for a fuel injection system comprising: input means for receiving drive signals from an injector drive circuit for controlling operation of the injector, and; an ID chip wherein the injector further comprises an electronic latch means arranged to move between a first state in which the electronic latch means is arranged to be enabled such that the ID chip is in communication with the injector drive circuit via the input means, and a second state in which the electronic latch means is arranged to be disabled such that the ID chip is not in communication with the injector drive circuit via the input means wherein the electronic latch means is arranged to move from the first state to the second state upon receipt at the injector of a drive pulse signal from the injector drive circuit, wherein the injector is a solenoid controlled injector and the drive pulse signal is arranged to initiate an injection event in order to switch the electronic latch means from the first to the second state, characterised in that the electronic latch means is arranged to switch from the second state to the first state on fuel injection system power-up. input means for receiving drive signals from an injector drive circuit for controlling operation of the injector, and; an ID chip wherein the injector further comprises an electronic latch means arranged to move between a first state in which the electronic latch means is arranged to be enabled such that the ID chip is in communication with the injector drive circuit via the input means, and a second state in which the electronic latch means is arranged to be disabled such that the ID chip is not in communication with the injector drive circuit via the input means wherein the electronic latch means is arranged to move from the first state to the second state upon receipt at the injector of a drive pulse signal from the injector drive circuit, wherein the injector is a solenoid controlled injector and the drive pulse signal is arranged to initiate an injection event in order to switch the electronic latch means from the first to the second state, characterised in that the electronic latch means is arranged to switch from the second state to the first state on fuel injection system power-up.
A magnetic base for a sample plate of a sample processing system , the magnetic base comprising: a first plate comprising a first top surface , a bottom surface , and a sample plate mounting cavity wall mounted to the first top surface , wherein the first plate and the sample plate mounting cavity wall define a sample plate mounting cavity configured to accommodate a sample plate of a sample processing system , characterized in that the magnetic base comprises a second plate extending parallel to the first plate , the second plate comprising a second top surface , and a magnet mounting cavity wall extending between the bottom surface of the first plate and the second top surface of the second plate , wherein the first plate , the second plate , and the magnet mounting cavity wall define a magnet mounting cavity configured to accommodate a free floating magnet , wherein the magnetic base comprises a free floating magnet mounted within the magnet mounting cavity. a first plate comprising a first top surface , a bottom surface , and a sample plate mounting cavity wall mounted to the first top surface , wherein the first plate and the sample plate mounting cavity wall define a sample plate mounting cavity configured to accommodate a sample plate of a sample processing system , a first top surface , a bottom surface , and a sample plate mounting cavity wall mounted to the first top surface , wherein the first plate and the sample plate mounting cavity wall define a sample plate mounting cavity configured to accommodate a sample plate of a sample processing system , characterized in that the magnetic base comprises a second plate extending parallel to the first plate , the second plate comprising a second top surface , and a magnet mounting cavity wall extending between the bottom surface of the first plate and the second top surface of the second plate , wherein the first plate , the second plate , and the magnet mounting cavity wall define a magnet mounting cavity configured to accommodate a free floating magnet , wherein the magnetic base comprises a free floating magnet mounted within the magnet mounting cavity. a second top surface , and a magnet mounting cavity wall extending between the bottom surface of the first plate and the second top surface of the second plate , wherein the first plate , the second plate , and the magnet mounting cavity wall define a magnet mounting cavity configured to accommodate a free floating magnet , wherein the magnetic base comprises a free floating magnet mounted within the magnet mounting cavity.
Set consisting of floor panels having a first floor panel which has a first holding profile on a side edge, and having a second floor panel which has a second holding profile on a side edge which is connectable with the first holding profile by means of a substantially vertically oriented downwards movement of the second floor panel , wherein a separate clip is set into a clip groove of the first holding profile , which separate clip is substantially L-shaped and has a horizontal leg , a vertical leg and a snap-in tab , starting at an upper end of the vertical leg , which, during or after the downwards movement of the second floor panel , reaches a locking position for the vertical locking of the holding profiles , wherein the horizontal leg rests with an outer end on a lower delimiting wall of the clip groove , wherein the clip groove has an outlet delimiting wall on which the outer end of the horizontal leg rests in the horizontal direction, wherein the second holding profile has a hook element oriented downwardly which has an approximately vertically extending locking surface for the horizontal locking of the floor panels, and wherein the first holding profile has a lower lip and a heel standing upright having an approximately vertically extending locking surface of the hook element characterised in that when the clip is inserted in the clip groove the horizontal leg generates a tensioning force by means of which the upper end of the vertical leg is pressed against an upper delimiting wall of the clip groove , wherein, when the clip is inserted in the clip groove , the horizontal leg is subjected to bending stress, and wherein a free space results between a lower side of the horizontal leg and the lower delimiting wall of the clip groove , which free space extends from the outer end of the horizontal leg as far as the vertical leg .
A composition comprising at least one zeolite and a mixture comprising at least one fluoroolefin and at least one R f C≡CX impurity, wherein: (a) R f is a straight-chain perfluorinated alkyl group, and X is H, F, Cl, Br or I; and (b) said at least one zeolite is selected from the group consisting of zeolites having pore opening of at least 4 Angstroms and no more than 5 Angstroms, zeolites having pore opening of at least 5 Angstroms and Sanderson electronegativity of no more than 2.6, and mixtures thereof; provided that said at least one zeolite is not zeolite 4A. (a) R f is a straight-chain perfluorinated alkyl group, and X is H, F, Cl, Br or I; and (b) said at least one zeolite is selected from the group consisting of zeolites having pore opening of at least 4 Angstroms and no more than 5 Angstroms, zeolites having pore opening of at least 5 Angstroms and Sanderson electronegativity of no more than 2.6, and mixtures thereof; provided that said at least one zeolite is not zeolite 4A.