mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the simultaneous interferometric examination of the form and/or position of at least two optical functional surfaces by use of an interferometric test set-up comprising - an interferometer , - a beam-shaping optical element disposed in the radiation path between the interferometer and the optical functional surfaces , and - alignment marks which are located at defined positions in the interferometric test set-up or defined positions in relation to the optical functional surfaces , having the steps: - generating a plurality of alignment wavefronts by the beam-shaping optical element , the alignment wavefronts being transmitted or reflected at the alignment marks and at the optical functional surfaces and thus generating measuring wavefronts, - measuring the position of the optical functional surfaces with respect to each other and with respect to the alignment marks by evaluating the measuring wavefronts in the interferometer , - performing alignment movements for aligning the optical functional surfaces to a target position, - generating at least two test wavefronts by the beam-shaping optical element , the test wavefronts being transmitted or reflected at the optical functional surfaces and thus generating further measuring wavefronts, and - determining form and/or position deviations of the optical functional surfaces with respect to their target geometry and/or position by evaluating the further measuring wavefronts in the interferometer , the beam-shaping optical element comprising at least two test holograms for generating the test wavefronts and a plurality of alignment holograms for generating the alignment wavefronts. - an interferometer , - a beam-shaping optical element disposed in the radiation path between the interferometer and the optical functional surfaces , and - alignment marks which are located at defined positions in the interferometric test set-up or defined positions in relation to the optical functional surfaces , - generating a plurality of alignment wavefronts by the beam-shaping optical element , the alignment wavefronts being transmitted or reflected at the alignment marks and at the optical functional surfaces and thus generating measuring wavefronts, - measuring the position of the optical functional surfaces with respect to each other and with respect to the alignment marks by evaluating the measuring wavefronts in the interferometer , - performing alignment movements for aligning the optical functional surfaces to a target position, - generating at least two test wavefronts by the beam-shaping optical element , the test wavefronts being transmitted or reflected at the optical functional surfaces and thus generating further measuring wavefronts, and - determining form and/or position deviations of the optical functional surfaces with respect to their target geometry and/or position by evaluating the further measuring wavefronts in the interferometer , the beam-shaping optical element comprising at least two test holograms for generating the test wavefronts and a plurality of alignment holograms for generating the alignment wavefronts.
Device for cleaning with explosive material, the device comprises - a lance , , comprising - a number of lance pipes , , - a first connection for cooling means in a first end of the lance , , such that a coolant is supplied through the lance pipes , - an inlet channel , for an electric cable , the inlet channel guiding the electric cable through the lance pipes , , - a sleeve connector in a second end of the lance , , for connecting a breakable part to the lance , , - a control unit comprising - an inlet for the cooling means - an outlet for connecting the cooling means to the first connection of the lance , , , - an explosion trigger , - an electric cable arranged in connection with the explosion trigger and a detonator , - a detonator arranged to the breakable part next to explosive material, - a breakable part comprising explosive material, and - cooling means for cooling the explosive material and/or detonator , characterized in that the device comprises an additional cooling pipe arranged between the first end of the lance and a second point of the lance for transferring the coolant closer to the second end of the lance . - a lance , , comprising - a number of lance pipes , , - a first connection for cooling means in a first end of the lance , , such that a coolant is supplied through the lance pipes , - an inlet channel , for an electric cable , the inlet channel guiding the electric cable through the lance pipes , , - a sleeve connector in a second end of the lance , , for connecting a breakable part to the lance , , - a number of lance pipes , , - a first connection for cooling means in a first end of the lance , , such that a coolant is supplied through the lance pipes , - an inlet channel , for an electric cable , the inlet channel guiding the electric cable through the lance pipes , , - a sleeve connector in a second end of the lance , , for connecting a breakable part to the lance , , - a control unit comprising - an inlet for the cooling means - an outlet for connecting the cooling means to the first connection of the lance , , , - an explosion trigger , - an inlet for the cooling means - an outlet for connecting the cooling means to the first connection of the lance , , , - an explosion trigger , - an electric cable arranged in connection with the explosion trigger and a detonator , - a detonator arranged to the breakable part next to explosive material, - a breakable part comprising explosive material, and - cooling means for cooling the explosive material and/or detonator ,
A method of making an optical element transfer structure comprising: - providing a transfer medium having a first surface and a second surface, wherein the first surface is a textured surface; and - disposing an optical element (12A'-12M'; 12A"-12M"; 200) onto the first surface of the transfer medium, wherein the optical element includes 2 to 20 layers, wherein each layer has a thickness of 10 to 500 nanometers, and the optical element has a first side and a second side, wherein the first side of the optical element is disposed on the first surface of the transfer medium, resulting in a textured surface on the first side of the optical element, and wherein the transfer medium is releasably coupled with the optical element. - providing a transfer medium having a first surface and a second surface, wherein the first surface is a textured surface; and - disposing an optical element (12A'-12M'; 12A"-12M"; 200) onto the first surface of the transfer medium, wherein the optical element includes 2 to 20 layers, wherein each layer has a thickness of 10 to 500 nanometers, and the optical element has a first side and a second side, wherein the first side of the optical element is disposed on the first surface of the transfer medium, resulting in a textured surface on the first side of the optical element, and wherein the transfer medium is releasably coupled with the optical element.
An adapter for connecting a paint can to an inlet of a handheld spray device , the adapter comprising: a cage for holding an open paint can; a connector for connecting the cage and open paint can to the handheld spray device; a gasket for sealing the open paint can to the handheld spray device; and a can spacer insert for positioning on the bottom of the cage to support a bottom end of the paint can as spaced a distance above the bottom of the cage; characterized in that the can spacer insert comprises: a cylindrical body having an open first end and an open second end ; and a shelf positioned within the cylindrical body at a location between the open first end and the open second end. a cage for holding an open paint can; a connector for connecting the cage and open paint can to the handheld spray device; a gasket for sealing the open paint can to the handheld spray device; and a can spacer insert for positioning on the bottom of the cage to support a bottom end of the paint can as spaced a distance above the bottom of the cage; characterized in that the can spacer insert comprises: a cylindrical body having an open first end and an open second end ; and a shelf positioned within the cylindrical body at a location between the open first end and the open second end. a cylindrical body having an open first end and an open second end ; and a shelf positioned within the cylindrical body at a location between the open first end and the open second end.
Motor vehicle seat with a belt system, wherein the belt system comprises a first three-point belt system and a second three-point belt system , wherein a first person can be buckled up on the motor vehicle seat with the first three-point belt system , and wherein at the same time a second person different from the first person can be buckled up on the motor vehicle seat with the second three-point belt system , wherein the first three-point belt system is designed to be connected to the second three-point belt system via a transverse connection in order to form an H belt, and therefore alternatively a single person instead of the first and second person can be buckled up on the motor vehicle seat by means of the H belt, wherein the first three-point belt system comprises a first upper belt piece and a first lower belt piece , wherein a first belt tongue is arranged between the first upper belt piece and the first lower belt piece , wherein the first three-point belt system comprises a first belt buckle for receiving the first belt tongue , wherein the second three-point belt system comprises a second upper belt piece and a second lower belt piece , wherein a second belt tongue is arranged between the second upper belt piece and the second lower belt piece , wherein the second three-point belt system comprises a second belt buckle for receiving the second belt tongue , wherein the transverse connection is arranged between the first upper belt piece and the first lower belt piece , wherein the transverse connection has a third belt tongue or a third belt buckle , and wherein a suitable counter element, i.e. a third belt buckle or a third belt tongue , is arranged between the second upper belt piece and the second lower belt piece , characterized in that the transverse connector and the first belt tongue are formed on a common first carrier element .
Roof construction of a hall roof with insulating panels which are supported by a substructure and are covered on the upper side by a roof membrane , wherein Velcro hooks or Velcro mushroom heads find a hold in the upper side surface of the insulating panels and protrude on the underside of the roof membrane , characterised in that the insulating panels are non-woven textile fibre panels, the fibres of which lie essentially horizontally in a disordered manner, so that the Velcro hooks or Velcro mushroom heads engage under the fibres when they penetrate into the insulating panel and thus find a secure hold.
An in vitro method to predict a prognosis in a cancer patient following a BCG therapy, comprising: measuring changes in the levels of IL-2, IL-6, IL-8, IL-18, IL-1ra, IL-1B, TRAIL, IL-10, IFN-γ, IL-12 (p70), IL-12 (p40), and TNF-α in at least two samples obtained from the patient, the samples obtained both before and after BCG therapy; and identifying whether the patient is at risk for relapse based on the measured changes in cytokine levels. measuring changes in the levels of IL-2, IL-6, IL-8, IL-18, IL-1ra, IL-1B, TRAIL, IL-10, IFN-γ, IL-12 (p70), IL-12 (p40), and TNF-α in at least two samples obtained from the patient, the samples obtained both before and after BCG therapy; and identifying whether the patient is at risk for relapse based on the measured changes in cytokine levels.
A device for detecting at least one level (L) of a fluid (F) of a tank, comprising: - a floating body having a floating axis (X); - a plurality of orientation sensors constrained in a fixed position to said floating body ; - a command unit configured to communicate with said plurality of orientation sensors and to control an operating device, wherein each sensor of said plurality is configured to send a signal to said command unit to change the operating state of said operating device at a certain level (L1, L2, L3, L4) of said fluid (F) corresponding to a determined inclination (i1, i2, i3, i4) of said axis (X) with respect to said certain level (L1, L2, L3, L4), - a support means operatively connected to said floating body and comprising a hinge , said support means being configured to allow movement of said floating body only with respect to a single plane perpendicular to the plane corresponding to said level (L) of said fluid (F) of said tank, - said floating body comprising at one end a connecting protrusion configured for stably connecting and in a unique position said floating body to said support means , wherein said predetermined inclination (i1, i2, i3, i4) of said axis (X), determining a change of the state of said sensors , is different for each sensor of said plurality. - a floating body having a floating axis (X); - a plurality of orientation sensors constrained in a fixed position to said floating body ; - a command unit configured to communicate with said plurality of orientation sensors and to control an operating device, wherein each sensor of said plurality is configured to send a signal to said command unit to change the operating state of said operating device at a certain level (L1, L2, L3, L4) of said fluid (F) corresponding to a determined inclination (i1, i2, i3, i4) of said axis (X) with respect to said certain level (L1, L2, L3, L4), - a support means operatively connected to said floating body and comprising a hinge , said support means being configured to allow movement of said floating body only with respect to a single plane perpendicular to the plane corresponding to said level (L) of said fluid (F) of said tank, - said floating body comprising at one end a connecting protrusion configured for stably connecting and in a unique position said floating body to said support means , wherein
Structure comprising: a resonant circuit for providing a resonating output signal (RSR) on a resonator output lead; an SRAM cell comprising a first SRAM data input lead, a second SRAM data input lead and an SRAM power supply lead; an input lead for receiving a data signal (DATA); first and second write bit lines (WBIT, WBITn); a first switch (S20) for coupling said resonator output lead to said first write bit line; a second switch (S20n) for coupling said resonator output lead to said second write bit line, said first and second switches coupling said resonator output lead to said first or second write bit lines in response to the state of said data signal; and a set of switches (S10, S11) for providing said resonating output signal on said first SRAM data input lead and a static binary voltage on said second SRAM data input lead to store a first value in said SRAM cell, and for providing said resonating output signal on said second SRAM data input lead and said static binary voltage on said first SRAM data input lead to store a second value in said SRAM cell opposite said first value, data being stored in said SRAM cell while a DC voltage (V2) is applied to said SRAM power supply lead. a resonant circuit for providing a resonating output signal (RSR) on a resonator output lead; an SRAM cell comprising a first SRAM data input lead, a second SRAM data input lead and an SRAM power supply lead; an input lead for receiving a data signal (DATA); first and second write bit lines (WBIT, WBITn); a first switch (S20) for coupling said resonator output lead to said first write bit line; a second switch (S20n) for coupling said resonator output lead to said second write bit line, said first and second switches coupling said resonator output lead to said first or second write bit lines in response to the state of said data signal; and a set of switches (S10, S11) for providing said resonating output signal on said first SRAM data input lead and a static binary voltage on said second SRAM data input lead to store a first value in said SRAM cell, and for providing said resonating output signal on said second SRAM data input lead and said static binary voltage on said first SRAM data input lead to store a second value in said SRAM cell opposite said first value, data being stored in said SRAM cell while a DC voltage (V2) is applied to said SRAM power supply lead.
An apparatus for providing virtual reality video content comprising: means for providing virtual reality video content to a virtual reality user device for display in a virtual space , wherein the virtual reality user device is a virtual reality headset ; means for determining selection of an object of interest in the virtual space ; means for scaling a representation of a user in the virtual space based at least on a distance V in the virtual space between the user and the object of interest , wherein the scaling of the representation of the user comprises scaling both a speed and a height of the representation of the user, and wherein the means for scaling the representation of the user in the virtual space is arranged such that the representation of the user in the virtual space is scaled based on a distance P between a physical location of the user in the real-world space and a boundary in the real-world space and the boundary is located between the user and the object of interest; and means for performing a reversal of the scaling based on a location of the user in the real-world space, wherein scaling the representation of the user comprises increasing a height of the representation of the user and the reversal of the scaling comprises decreasing the height of the user. means for providing virtual reality video content to a virtual reality user device for display in a virtual space , wherein the virtual reality user device is a virtual reality headset ; means for determining selection of an object of interest in the virtual space ; means for scaling a representation of a user in the virtual space based at least on a distance V in the virtual space between the user and the object of interest , wherein the scaling of the representation of the user comprises scaling both a speed and a height of the representation of the user, and wherein the means for scaling the representation of the user in the virtual space is arranged such that the representation of the user in the virtual space is scaled based on a distance P between a physical location of the user in the real-world space and a boundary in the real-world space and the boundary is located between the user and the object of interest; and means for performing a reversal of the scaling based on a location of the user in the real-world space, wherein scaling the representation of the user comprises increasing a height of the representation of the user and the reversal of the scaling comprises decreasing the height of the user.
Motor vehicle trim piece , comprising: - a frame , - a flexible surface skin covering the frame , - a compressible foam layer connecting the skin and the frame , filling a variable thickness separating the skin from the frame , the trim piece comprising at least one light guide fed by a light source , the light guide forming, under the foam or in the foam , at least one slender or surface diffusion area, configured to diffuse light in the direction of one or more portions of the skin , the skin comprising at least one layer opaque to the light coming from the light guide , the opaque layer having, opposite at least one diffusion area of the light guide , display pattern-forming portions at local thickness reductions and/or local cutouts of the opaque layer , which are provided to locally transmit, through the skin, light emitted by the light guide , characterized in that at least one cutout line passes through the foam between the light guide and the skin , the same line passing through at least some of the thickness of the opaque layer . - a frame , - a flexible surface skin covering the frame , - a compressible foam layer connecting the skin and the frame , filling a variable thickness separating the skin from the frame ,
Method for manufacturing a film (F1; F2) comprising cavities and formed from a polymer in which a cavitating agent is dispersed, said method comprising a step of extruding the polymer in a production line equipped with actuators (Act) for adjusting the features of the extruded film and a step (S30; S130) of stretching (Str1; Str2) the film as well as a step (S50a, S150a) consisting in establishing a film mapping function, characterized in that: - a first mass-per-unit area sensor (Cap m.surf ) measures (S20; S120) a mass-per-unit area cross-sectional profile of the unstretched film; - a second mass-per-unit area sensor (Cap m.surf ) measures (S40; S140) a mass-per-unit area cross-sectional profile of the film stretched by said stretching (Str1; Str2); - a computing unit (CALC) computes (S50a, S150a) said mapping function of the stretched film from said mass-per-unit area cross-sectional profiles; - said computing unit (CALC) computes (S50b, S150b) a stretching profile of the stretched film, from said mapping function and said mass-per-unit area cross-sectional profiles; - said computing unit (CALC) computes (S50f, S60B; S150f, S150B) a characteristic cross-sectional profile of the film from said stretching profile and a mass concentration cross-sectional profile of the cavitating agent in the stretched film, which makes it possible to take into account the distribution of the cavities in the film, and - said adjustment actuators are controlled (FBK1, FBK2, FBK3, FBK4) according to said characteristic cross-sectional profile. - a first mass-per-unit area sensor (Cap m.surf ) measures (S20; S120) a mass-per-unit area cross-sectional profile of the unstretched film; - a second mass-per-unit area sensor (Cap m.surf ) measures (S40; S140) a mass-per-unit area cross-sectional profile of the film stretched by said stretching (Str1; Str2); - a computing unit (CALC) computes (S50a, S150a) said mapping function of the stretched film from said mass-per-unit area cross-sectional profiles; - said computing unit (CALC) computes (S50b, S150b) a stretching profile of the stretched film, from said mapping function and said mass-per-unit area cross-sectional profiles; - said computing unit (CALC) computes (S50f, S60B; S150f, S150B) a characteristic cross-sectional profile of the film from said stretching profile and a mass concentration cross-sectional profile of the cavitating agent in the stretched film, which makes it possible to take into account the distribution of the cavities in the film, and - said adjustment actuators are controlled (FBK1, FBK2, FBK3, FBK4) according to said characteristic cross-sectional profile.
Transmitter for an optical free-beam communication system, in particular for a data uplink to a satellite, for sending a light signal characterized by two light transmitters for the optical transmission of a data signal using one single-sideband modulation, wherein each light transmitter emits one side of the band modulation so that the signal arriving at the receiver corresponds to a double-sideband modulation, wherein the distance between the two light transmitters has to be greater than the structure sizes of turbulence cells in the optical free-space transmission.