mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the lithography-based generative production of a three-dimensional component , in which electromagnetic radiation emitted by an irradiation device is successively focused on focal points within a material, wherein in each case a volume element of the material located at the focal point is solidified by means of multiphoton absorption, wherein a substructure is each built up from the volume elements in a writing area of the irradiation device, and a plurality of substructures are arranged next to one another, wherein the component comprises several superimposed layers , which are each formed from a plurality of substructures arranged next to one another, characterized in that the component is built up in layers, by first building up a plurality of substructures next to one another to form a lower layer, after which immediately above the substructures of an upper layer are built up, which bridge the interface(s) between adjacent substructures of the layer arranged immediately below.
A method for forecasting the time evolution of a magnitude representative of the interior comfort (GI) of a building such as a temperature, a degree of brightness or a degree of hygrometry, comprising the steps consisting in: - (E1) providing a model (M) for forecasting the time evolution of the magnitude representative of the interior comfort (GI), - (E2) acquiring at least one first measurement value (MGI) of the magnitude representative of the interior comfort (GI) at a first given instant (t1), - (E3) providing a first forecast (PGE) of the time evolution of a magnitude representative of the external weather conditions (GE) over a time interval, - (E3') providing data (DR) representative of the thermal inputs inside the building (AT) and/or the thermal exchanges of the building with the outside (ET), - (E4) establishing a forecast (PGI) of the time evolution of the magnitude representative of the interior comfort (GI) by applying the forecasting model (M) to the at least one first measurement value (MGI), to the first forecast (PGE) and to representative data (DR), said forecast (PGI) being called second forecast (PGI), said second forecast (PGI) comprising an estimate of the value of the magnitude representative of the interior comfort (GI) for at least one second given instant (t2) subsequent to the first given instant (t1), at least one modification, occurring at a given instant, of said representative data (DR) is taken into account for the application of the forecasting model (M) at step (E4) of establishing the second forecast (PGI) of the time evolution of the magnitude representative of the interior comfort (GI), the method being characterized in that the at least one modification of the representative data (DR) comprises an estimate of a change considered subsequently to the first given instant (t1) of the thermal inputs inside the building (AT) and/or the thermal exchanges of the building with the outside (ET). - (E1) providing a model (M) for forecasting the time evolution of the magnitude representative of the interior comfort (GI), - (E2) acquiring at least one first measurement value (MGI) of the magnitude representative of the interior comfort (GI) at a first given instant (t1), - (E3) providing a first forecast (PGE) of the time evolution of a magnitude representative of the external weather conditions (GE) over a time interval, - (E3') providing data (DR) representative of the thermal inputs inside the building (AT) and/or the thermal exchanges of the building with the outside (ET), - (E4) establishing a forecast (PGI) of the time evolution of the magnitude representative of the interior comfort (GI) by applying the forecasting model (M) to the at least one first measurement value (MGI), to the first forecast (PGE) and to representative data (DR), said forecast (PGI) being called second forecast (PGI),
A box coating apparatus for vacuum coating of substrates, in particular spectacle lenses, comprising a vacuum chamber which can be evacuated by a pumping arrangement and contains an evaporation source for evaporating coating material, a substrate holder for holding a plurality of substrates being disposed vis-à-vis to said evaporation source in said vacuum chamber so that coating material evaporated by said evaporation source can impinge on substrates held by said substrate holder , wherein, besides said evaporation source and said substrate holder , at least one further functional component is provided, namely at least a Meissner trap and/or a high vacuum valve mechanism , to which in said vacuum chamber a shield arrangement is assigned, that is located between said evaporation source and said functional component so as to prevent coating material evaporated by said evaporation source from impinging on said functional component , characterized in that said shield arrangement assigned to said Meissner trap and/or said high vacuum valve mechanism comprises a shutter portion which can selectively be transferred from a closed shielding position in which said shutter portion covers a passage way leading through said shield arrangement , while said shutter portion serves to shield said functional component optionally together with a remainder of said shield arrangement , to an open pumping position in which said shutter portion substantially clears said passage way to allow essentially free passage for gases and vapor, and vice versa.
A method for monitoring a home automation installation comprising at least one central control unit (U); the method being executed by a user terminal (T) and comprising the following steps: i. Selection (ECTLT1, ECTLT1') of a first local connection mode (CM1) or a second connection mode by a wide area network (CM2) said selection being received from the user of the terminal or of an application that the user has previously launched; ii. Establishment (ECTLT2, ECTLT2') of a connection between the user terminal and at least one target unit (U, U1, U2, Sv), said at least one target unit (U, U1, U2, Sv) being a central control unit (U, U1, U2) in the case where the first local connection mode (CM1) has been selected, and a management unit (Sv) in the case where the second connection mode by a wide area network is selected (CM2) when no central control unit (U, U1, U2) is detected nearby; iii. Sending (ECTLT3, ECTLT3') of a discovery message (MCTLD1, MCTLD2, MCTLD') in connection with an installation identifier (StID) towards at least one target unit (U, U1, U2, Sv); iv. Reception (ECTLT5, ECTLT7, ECTLT10') of at least one topology description message from the target unit (U, U1, U2, Sv) comprising a description of a group of devices (DGrSt) attached to the identifier of the installation (StID). i. Selection (ECTLT1, ECTLT1') of a first local connection mode (CM1) or a second connection mode by a wide area network (CM2) said selection being received from the user of the terminal or of an application that the user has previously launched; ii. Establishment (ECTLT2, ECTLT2') of a connection between the user terminal and at least one target unit (U, U1, U2, Sv), said at least one target unit (U, U1, U2, Sv) being a central control unit (U, U1, U2) in the case where the first local connection mode (CM1) has been selected, and a management unit (Sv) in the case where the second connection mode by a wide area network is selected (CM2) when no central control unit (U, U1, U2) is detected nearby; iii. Sending (ECTLT3, ECTLT3') of a discovery message (MCTLD1, MCTLD2, MCTLD') in connection with an installation identifier (StID) towards at least one target unit (U, U1, U2, Sv); iv. Reception (ECTLT5, ECTLT7, ECTLT10') of at least one topology description message from the target unit (U, U1, U2, Sv) comprising a description of a group of devices (DGrSt) attached to the identifier of the installation (StID).
A method of controlling two or more Variable Frequency Drives, 'VFD' , each VFD being configured to generate a Pulse Width Modulated, 'PWM', signal to drive a motor, in each of a plurality of successive time intervals: for each controlled VFD , calculating a plurality of drive signals to switch a plurality of power transistors in a power section of the VFD for a subsequent time interval, to generate a desired PWM signal; and characterized by wirelessly transmitting the plurality of drive signals to respective VFDs in a single main downlink, 'DL', frame of a DL transmission packet for each VFD, the downlink frame instructing the VFD as to which of the plurality of power transistors are switched on and off in the subsequent time interval; wherein the DL transmission packet for each VFD includes an individual identifier for the VFD and is transmitted over a packet-switched network. for each controlled VFD , calculating a plurality of drive signals to switch a plurality of power transistors in a power section of the VFD for a subsequent time interval, to generate a desired PWM signal; and characterized by wirelessly transmitting the plurality of drive signals to respective VFDs in a single main downlink, 'DL', frame of a DL transmission packet for each VFD, the downlink frame instructing the VFD as to which of the plurality of power transistors are switched on and off in the subsequent time interval; wherein the DL transmission packet for each VFD includes an individual identifier for the VFD and is transmitted over a packet-switched network.
Communication connection setup method for setting up a communication connection between a visitor at a door station having a short-range communication interface and an owner of the door station, who is outside the short range, by using a portable communicative data processing device, characterized in that first the door station communicates with a portable communicative data processing device of the visitor via the short-range communication interface, the portable communicative data processing device of the visitor using the short-range communication interface to transmit signals having a unique ID to the door station, the visitor is identified by the door station on the basis of the signals from the portable communicative data processing device that uses the short-range communication interface to transmit the unique ID to the door station, the door station then transmits information that is intended for the identified visitor and that facilitates setup of a communication connection by mobile radio between the portable communicative data processing device of the visitor and a communication device of the owner, and then the information transmitted by the door station is used to set up a mobile radio connection directly from the portable communicative data processing device of the visitor to the communication device of the owner. first the door station communicates with a portable communicative data processing device of the visitor via the short-range communication interface, the portable communicative data processing device of the visitor using the short-range communication interface to transmit signals having a unique ID to the door station, the visitor is identified by the door station on the basis of the signals from the portable communicative data processing device that uses the short-range communication interface to transmit the unique ID to the door station, the door station then transmits information that is intended for the identified visitor and that facilitates setup of a communication connection by mobile radio between the portable communicative data processing device of the visitor and a communication device of the owner, and then the information transmitted by the door station is used to set up a mobile radio connection directly from the portable communicative data processing device of the visitor to the communication device of the owner.
A backing layer (10; 10'; 10") for an insulating construction panel of the type comprising: - a main thermally insulating layer consisting of an expanded insulation having a cellular structure comprising a first surface and an opposite second surface ; - at least one backing layer (10; 10'; 10") intended to face and be connected to the main layer of the insulating panel along at least one of said first and second surfaces , wherein said backing layer (10; 10'; 10") comprises: - a reinforcement layer made of fibrous material, - a first coating layer for said reinforcement layer of the mineral type, - a second coating layer for the reinforcement layer having gas-impermeability properties, characterized in that said second gas-impermeable coating layer is made by applying at least one polymer to the reinforcement layer or to the first coating layer of the mineral type, and after drying, said second coating layer is an applied compound comprising a water dispersed polymer resin, and optionally additives. - a main thermally insulating layer consisting of an expanded insulation having a cellular structure comprising a first surface and an opposite second surface ; - at least one backing layer (10; 10'; 10") intended to face and be connected to the main layer of the insulating panel along at least one of said first and second surfaces , - a reinforcement layer made of fibrous material, - a first coating layer for said reinforcement layer of the mineral type, - a second coating layer for the reinforcement layer having gas-impermeability properties, said second gas-impermeable coating layer is made by applying at least one polymer to the reinforcement layer or to the first coating layer of the mineral type, and after drying, said second coating layer is an applied compound comprising a water dispersed polymer resin, and optionally additives.
A method implemented by a user equipment , comprising: obtaining at least one value from a network node for determining a measurement offset of a trigger event, wherein the measurement offset indicates an offset which is subtracted from a measurement of a neighboring cell when comparing it to the highest or lowest measurement among the measurements of the active set of serving cells, wherein the measurement offset depends on both the at least one value and a number K of cells currently in the active set of serving cells of the user equipment , where K is an integer greater than one, and wherein the trigger event triggers the user equipment to wirelessly send a cell measurement report to the network node; updating the measurement offset when a new serving cell is added to, or a serving cell is removed from, the active set of serving cells of the user equipment ; and sending the cell measurement report, in response to the cell measurement report being triggered by the trigger event. obtaining at least one value from a network node for determining a measurement offset of a trigger event, wherein the measurement offset indicates an offset which is subtracted from a measurement of a neighboring cell when comparing it to the highest or lowest measurement among the measurements of the active set of serving cells, wherein the measurement offset depends on both the at least one value and a number K of cells currently in the active set of serving cells of the user equipment , where K is an integer greater than one, and wherein the trigger event triggers the user equipment to wirelessly send a cell measurement report to the network node; updating the measurement offset when a new serving cell is added to, or a serving cell is removed from, the active set of serving cells of the user equipment ; and sending the cell measurement report, in response to the cell measurement report being triggered by the trigger event.
A compound of the formula (I) where R 1 , R 2 are hydrogen or R 1 and R 2 together with the carbon atoms to which they are bound may also form a fused benzene ring, which is unsubstituted, Y represents an alkylene group having 2, 3 or 4 carbon atoms, Ar is selected from the group consisting of radicals of the formulae Ar-1 to Ar-19; where * indicates the point of attachment; and X 1 , X 2 , X 3 , X 4 are CH. R 1 , R 2 are hydrogen or R 1 and R 2 together with the carbon atoms to which they are bound may also form a fused benzene ring, which is unsubstituted, Y represents an alkylene group having 2, 3 or 4 carbon atoms, Ar is selected from the group consisting of radicals of the formulae Ar-1 to Ar-19;
An optical anti-counterfeiting element, comprising: a relief structure layer ; the relief structure layer comprises a first region (A) having a first microstructure and a second region (B) having a second microstructure, a specific volume of the second microstructure is greater than a specific volume of the first microstructure; a first coating , a dielectric layer , a second coating and a protective layer stacked in sequence are arranged on a side of the relief structure layer ; the first coating and the dielectric layer are located in the first region (A) and the second region (B), and the second coating and the protective layer are located in the first region (A) but not located in the second region (B); and wherein, the first coating , the dielectric layer and the second coating form a functional coating group , the functional coating group and the first microstructure have a combined optical characteristic in the first region (A), and the first coating and the second microstructure have a combined optical characteristic in the second region (B). a relief structure layer ; the relief structure layer comprises a first region (A) having a first microstructure and a second region (B) having a second microstructure, a specific volume of the second microstructure is greater than a specific volume of the first microstructure; a first coating , a dielectric layer , a second coating and a protective layer stacked in sequence are arranged on a side of the relief structure layer ; the first coating and the dielectric layer are located in the first region (A) and the second region (B), and the second coating and the protective layer are located in the first region (A) but not located in the second region (B); and wherein, the first coating , the dielectric layer and the second coating form a functional coating group , the functional coating group and the first microstructure have a combined optical characteristic in the first region (A), and the first coating and the second microstructure have a combined optical characteristic in the second region (B).
An aircraft comprising: a window assembly comprising: a windshield oriented toward a front of the aircraft ; a side window oriented toward a side of the aircraft ; a post interposed between the windshield and the side window ; and an airflow surface disposed on the post , the airflow surface extending along a length from a leading edge proximate the windshield to a trailing edge proximate the side window , the airflow surface extending along a height between a top and a bottom , the airflow surface having a first radius of curvature proximate the leading edge and a second radius of curvature proximate the trailing edge , wherein the first radius of curvature is less than the second radius of curvature . a windshield oriented toward a front of the aircraft ; a side window oriented toward a side of the aircraft ; a post interposed between the windshield and the side window ; and an airflow surface disposed on the post , the airflow surface extending along a length from a leading edge proximate the windshield to a trailing edge proximate the side window , the airflow surface extending along a height between a top and a bottom , the airflow surface having a first radius of curvature proximate the leading edge and a second radius of curvature proximate the trailing edge , wherein the first radius of curvature is less than the second radius of curvature .
A supporting member for diffusion plate , mountable between a backplane and a diffusion plate , comprising: a fixing portion and a supporting portion ; the fixing portion being securable to the backplane ; the supporting portion connecting the fixing portion and extending opposite from the fixing portion ; the supporting portion being adapted for contacting and elastically supporting the diffusion plate ; wherein the supporting portion comprises: a supporting plate and one or more reinforcing ribs ; the supporting plate connects the fixing portion and extends opposite from the fixing portion ; the reinforcing rib connects the junction of the fixing portion and the supporting plate to improve the supporting of the supporting plate ; characterized in that a portion of the supporting plate between the top end of the supporting plate and the connecting position of the reinforcing rib and the supporting plate defines an elastic deformation portion ; when the supporting portion being pressed by a force from the extending direction , the elastic deformation portion causes an elastic deformation to allow the supporting portion shortening along the extending direction . a fixing portion and a supporting portion ; the fixing portion being securable to the backplane ; the supporting portion connecting the fixing portion and extending opposite from the fixing portion ; the supporting portion being adapted for contacting and elastically supporting the diffusion plate ; wherein the supporting portion comprises: a supporting plate and one or more reinforcing ribs ; the supporting plate connects the fixing portion and extends opposite from the fixing portion ; the reinforcing rib connects the junction of the fixing portion and the supporting plate to improve the supporting of the supporting plate ; characterized in that a portion of the supporting plate between the top end of the supporting plate and the connecting position of the reinforcing rib and the supporting plate defines an elastic deformation portion ; when the supporting portion being pressed by a force from the extending direction , the elastic deformation portion causes an elastic deformation to allow the supporting portion shortening along the extending direction .
An endovenous treatment device having a delivery system (1 ; 2) of at least one treatment dose, which delivery system (1 ; 2) comprises a wired treatment dose delivery element which is flexible, which has a distal end portion capable of being inserted, at least over part of its length, longitudinally into a vein (V), and which enables delivery into a vein (V) of at least one treatment dose in the region of the end of said distal end portion , the endovenous treatment device further comprising a drive system for driving of the wired treatment dose delivery element in at least a given first drive direction (R), characterized in that it further comprises a guide which is flexible over all or part of its length, which has a proximal end portion and a distal end portion , and which allows the wired treatment dose delivery element to be guided over a portion of its length with a proximal end portion and, at the opposite end, a distal end portion of the wired treatment dose delivery element , which are not guided by the guide , and in that it further comprises a holding system which enables the distal end portion of the guide to be temporarily held relative to the body of a patient, near the insertion zone of the wired treatment dose delivery element , the wired treatment dose delivery element being slidable in the direction of its length relative to the guide , so as to allow insertion longitudinally into a vein (V) of the distal end portion of the wired treatment dose delivery element over at least a portion of its length when the distal end portion of the guide is held relative to the body of a patient by means of the holding system , and locking means , which allow axially the proximal end portion of the guide to be locked, at least in the drive direction (R) of the wired element for treatment dose delivery.