mhurhangee/patent-ind-claim-en huggingface dataset:
An ophthalmic laser system comprising: a laser module producing a beam of short pulses of radiation with high energy density at a first wavelength; a first beam path incorporating optical elements for directing the beam at the first wavelength into a treatment beam path to an eye of a patient ; a second beam path incorporating a frequency doubling module that converts the beam at the first wavelength to a beam at a second wavelength, and optical elements for directing the beam at the second wavelength to the treatment beam path; beam steering optics for selectively deflecting the beam at the first wavelength into the second beam path, the beam steering optics being operable between a first position in which the beam at the first wavelength follows the first beam path and a second position in which the beam at the first wavelength is deflected to the second beam path; a reflex coaxial illuminator comprising a reflex mirror movable on an axis from a position in the treatment beam path to a position out of the treatment beam path; and a safety interlock only allowing operation of the ophthalmic laser system on the first beam path if the reflex coaxial illuminator is in a first position and allowing operation of the ophthalmic laser system on either the first beam path or the second beam path if the reflex coaxial illuminator is not in the first position. a laser module producing a beam of short pulses of radiation with high energy density at a first wavelength; a first beam path incorporating optical elements for directing the beam at the first wavelength into a treatment beam path to an eye of a patient ; a second beam path incorporating a frequency doubling module that converts the beam at the first wavelength to a beam at a second wavelength, and optical elements for directing the beam at the second wavelength to the treatment beam path; beam steering optics for selectively deflecting the beam at the first wavelength into the second beam path, the beam steering optics being operable between a first position in which the beam at the first wavelength follows the first beam path and a second position in which the beam at the first wavelength is deflected to the second beam path; a reflex coaxial illuminator comprising a reflex mirror movable on an axis from a position in the treatment beam path to a position out of the treatment beam path; and a safety interlock only allowing operation of the ophthalmic laser system on the first beam path if the reflex coaxial illuminator is in a first position and allowing operation of the ophthalmic laser system on either the first beam path or the second beam path if the reflex coaxial illuminator is not in the first position.
Controlled, reversible electrostatic method for doping a conductive or non-conductive material deposited in the form of a layer on a solid substrate, said material being selected from the group comprising graphene, molybdenum disulfide, tungsten disulfide, indium selenide, gallium sulfide, zinc oxide, tin-doped indium oxide and cuprate superconductors, said method being characterized in that it is performed in a vacuum, in that said substrate is a glassy matrix containing ions mobile at a doping temperature (T D ) in the range of 50 °C to 130 °C, and in that it comprises at least the following steps: - bringing said glassy matrix comprising said layer of conductive or non-conductive material to said doping temperature; - applying an electric field between said glassy matrix and said conductive or non-conductive material at a voltage in the range of -300 V to +300V, whilst holding the temperature at the doping temperature; - bringing said glassy matrix comprising said layer of conductive or non-conductive material to a temperature of use (T U ), said temperature of use being lower than 50 °C, said method being implemented on at least one portion of the surface of said conductive or non-conductive material. - bringing said glassy matrix comprising said layer of conductive or non-conductive material to said doping temperature; - applying an electric field between said glassy matrix and said conductive or non-conductive material at a voltage in the range of -300 V to +300V, whilst holding the temperature at the doping temperature; - bringing said glassy matrix comprising said layer of conductive or non-conductive material to a temperature of use (T U ), said temperature of use being lower than 50 °C,
A display apparatus comprising: an image generator configured to time-sequentially generate a plurality of images by modulating light; and an optical system comprising a freeform surface comprising a curved surface that is configured to time-sequentially form a plurality of virtual images respectively corresponding to the plurality of images at different depths from a user's eye, characterized in that each error value among error values between the plurality of images and the plurality of virtual images respectively corresponding to the plurality of images on the freeform surface is less than or equal to a curved surface profile value of the freeform surface , and wherein the curved surface profile value of the freeform surface corresponds to minimum values of a sum of the error values between the plurality of images and the plurality of virtual images respectively corresponding to the plurality of images. an image generator configured to time-sequentially generate a plurality of images by modulating light; and an optical system comprising a freeform surface comprising a curved surface that is configured to time-sequentially form a plurality of virtual images respectively corresponding to the plurality of images at different depths from a user's eye, characterized in that each error value among error values between the plurality of images and the plurality of virtual images respectively corresponding to the plurality of images on the freeform surface is less than or equal to a curved surface profile value of the freeform surface , and characterized in that each error value among error values between the plurality of images and the plurality of virtual images respectively corresponding to the plurality of images on the freeform surface is less than or equal to a curved surface profile value of the freeform surface , and wherein the curved surface profile value of the freeform surface corresponds to minimum values of a sum of the error values between the plurality of images and the plurality of virtual images respectively corresponding to the plurality of images.
Wind power plant having a rotor hub , at least one blade bearing and at least one rotor blade , the wind power plant exhibiting the following features: - the blade bearing exhibits a first ring and a second ring concentrically rotatable with respect to each other; - the first ring is connected to the rotor blade by means of at least one first connecting bolt which penetrates a first through hole of the first ring ; - the second ring is connected to the rotor hub by means of at least one second connecting bolt which penetrates a second through hole of the second ring ; - the wind power plant exhibits at least one stiffening device with at least one through-opening , through which the first connecting bolt and/or the second connecting bolt projects/project; - the stiffening device is subjected to force in direction of the blade bearing by means of at least one mounting nut , which is mounted on a thread section of the first connecting bolt and/or of the second connecting bolt projecting out of the stiffening device - the stiffening device exhibits at least one first stiffening segment ; - the first ring of said blade bearing is placed between said first stiffening segment and said rotor blade ; and - the first stiffening segment is subjected to force in the direction of the first ring by means of a mounting nut , wherein the wind power plant is characterized in that the stiffening device exhibits at least one clamp which is connected to the first stiffening segment and to the rotor blade , so that forces exerted on the rotor blade can be transmitted at least partially via the clamp to the first stiffening element . - the blade bearing exhibits a first ring and a second ring concentrically rotatable with respect to each other; - the first ring is connected to the rotor blade by means of at least one first connecting bolt which penetrates a first through hole of the first ring ; - the second ring is connected to the rotor hub by means of at least one second connecting bolt which penetrates a second through hole of the second ring ; - the wind power plant exhibits at least one stiffening device with at least one through-opening , through which the first connecting bolt and/or the second connecting bolt projects/project; - the stiffening device is subjected to force in direction of the blade bearing by means of at least one mounting nut , which is mounted on a thread section of the first connecting bolt and/or of the second connecting bolt projecting out of the stiffening device - the stiffening device exhibits at least one first stiffening segment ; - the first ring of said blade bearing is placed between said first stiffening segment and said rotor blade ; and - the first stiffening segment is subjected to force in the direction of the first ring by means of a mounting nut ,
A shovel comprising: a lower-part traveling body ; an upper-part swing body rotatably provided above the lower-part traveling body ; an object detecting device provided in the upper-part swing body ; a control device provided in the upper-part swing body ; and at least one driven body configured to be operated by an actuator, wherein the object detecting device is configured to detect an object in a detection space (DS) set around the shovel , and wherein the control device is configured to vary a movable range (MS) being a range accessible to the driven body, based on a state of the object detected by the object detecting device , such that the movable range (MS) decreases upon determining that the object in the detection space (DS) moves closer to the shovel or is estimated to move closer to the shovel ; and that the movable range (MS) increases upon determining that the object in the detection space (DS) moves away from the shovel or is estimated to move away from the shovel , wherein the movable range (MS) is an angular range in which the upper-part swing body can turn relative to the lower-part traveling body without any restriction, wherein the control device allows the movement of the driven body in the movable range (MS) . a lower-part traveling body ; an upper-part swing body rotatably provided above the lower-part traveling body ; an object detecting device provided in the upper-part swing body ; a control device provided in the upper-part swing body ; and at least one driven body configured to be operated by an actuator, wherein the object detecting device is configured to detect an object in a detection space (DS) set around the shovel , and wherein the control device is configured to vary a movable range (MS) being a range accessible to the driven body, based on a state of the object detected by the object detecting device , such that the movable range (MS) decreases upon determining that the object in the detection space (DS) moves closer to the shovel or is estimated to move closer to the shovel ; and that the movable range (MS) increases upon determining that the object in the detection space (DS) moves away from the shovel or is estimated to move away from the shovel , wherein the movable range (MS) is an angular range in which the upper-part swing body can turn relative to the lower-part traveling body without any restriction, wherein the control device allows the movement of the driven body in the movable range (MS) .
An electronic device, comprising: an interface circuit, coupled to an antenna, configured to communicate with an installing device; and a secure element comprising one or more processors that are configured to execute one or more applications in an environment of the secure element, wherein the secure element is configured to: receive, from the installing device, an installation package with a digital signature, wherein the installation package comprises a purposed application to install on the secure element; identify a second purposed application installed on the secure element by determining a correspondence between an application identifier associated with the purposed application and a second application identifier associated with the second purposed application installed on the secure element; verify the digital signature using an encryption key associated with a vendor of the secure element; install the purposed application; export data from the second purposed application; and personalize the installed purposed application based at least in part on the exported data. receive, from the installing device, an installation package with a digital signature, wherein the installation package comprises a purposed application to install on the secure element; identify a second purposed application installed on the secure element by determining a correspondence between an application identifier associated with the purposed application and a second application identifier associated with the second purposed application installed on the secure element; verify the digital signature using an encryption key associated with a vendor of the secure element; install the purposed application; export data from the second purposed application; and personalize the installed purposed application based at least in part on the exported data.
System for fixing a tooling bit to a tool having an axis of rotation (Z) for working the bit , said system comprising: - a bit box comprising a plurality of bit supports , said bit supports being movable and each carrying a bit , each bit having a first working end and a second end; - a bit holder having a first end able to be secured to one end of said tool and a second end configured to be secured to said second end of each of said bits ; - reversible securing means for securing said bit to said bit holder , said bit being able to assume at least two states with respect to said bit holder : - a locked state wherein said bit is engaged on said bit holder and is at a distance from said bit support , and - a released state wherein said bit is at a distance from said bit holder and rests on said bit support , characterized in that switching from said released state to said locked state being made by the combination of a first movement along the axis (Z) of rotation of the tool of said bit holder towards said bit support so that said bit holder is fixed to said bit , and a second movement of said bit holder carrying with it said bit support , so that the bit is locked on said bit holder . - a bit box comprising a plurality of bit supports , said bit supports being movable and each carrying a bit , each bit having a first working end and a second end; - a bit holder having a first end able to be secured to one end of said tool and a second end configured to be secured to said second end of each of said bits ; - reversible securing means for securing said bit to said bit holder , said bit being able to assume at least two states with respect to said bit holder : - a locked state wherein said bit is engaged on said bit holder and is at a distance from said bit support , and - a released state wherein said bit is at a distance from said bit holder and rests on said bit support , - a locked state wherein said bit is engaged on said bit holder and is at a distance from said bit support , and - a released state wherein said bit is at a distance from said bit holder and rests on said bit support , characterized in that switching from said released state to said locked state being made by the combination of a first movement along the axis (Z) of rotation of the tool of said bit holder towards said bit support so that said bit holder is fixed to said bit , and a second movement of said bit holder carrying with it said bit support , so that the bit is locked on said bit holder .
A method for wireless communications by a wireless node, comprising: receiving , from a base station, a plurality of modulation and coding schemes, MCS, and interference-controlling parameters each interference-controlling parameter associated with one of the plurality of MCS, wherein the interference-controlling parameters indicate: for each of the MCS, an associated maximum duration or payload size for grant-less transmission using that MCS; determining a data rate and duration for a grant-less transmission based on a selected MCS from the plurality of MCS and the maximum duration or payload size indicated by the interference-controlling parameter associated with the selected MCS; selecting access resources to use for the grant-less transmission from a common pool of resources configured to be shared by a plurality of wireless nodes for grant-less transmissions; and transmitting the grant-less transmission using the selected access resources at the determined data rate and for the determined duration; and characterized in that : the grant-less transmission is transmitted using multiple component carriers, CCs; and the data rate and the duration for the grant-less transmission are determined per-CC. for each of the MCS, an associated maximum duration or payload size for grant-less transmission using that MCS; determining a data rate and duration for a grant-less transmission based on a selected MCS from the plurality of MCS and the maximum duration or payload size indicated by the interference-controlling parameter associated with the selected MCS; selecting access resources to use for the grant-less transmission from a common pool of resources configured to be shared by a plurality of wireless nodes for grant-less transmissions; and transmitting the grant-less transmission using the selected access resources at the determined data rate and for the determined duration; and characterized in that : the grant-less transmission is transmitted using multiple component carriers, CCs; and the data rate and the duration for the grant-less transmission are determined per-CC. the grant-less transmission is transmitted using multiple component carriers, CCs; and the data rate and the duration for the grant-less transmission are determined per-CC.
A method of imparting easy-to-clean properties to a siliceous substrate, which comprises the steps of: a) providing a siliceous substrate; b) applying a coating composition to the siliceous substrate thereby forming a layer of the coating composition adjacent to the siliceous substrate, wherein the coating composition comprises: i. a polyacrylic acid having a weight average molecular weight (M w ) greater than 100.000 g/mol; ii. an organic tetrafunctional alkoxysilane; iii. phosphoric acid; and iv. at least 70 wt% of water, based on the weight of the overall coating composition; and c) drying and/or curing the layer of the coating composition thereby forming a coating layer adjacent to the siliceous substrate. a) providing a siliceous substrate; b) applying a coating composition to the siliceous substrate thereby forming a layer of the coating composition adjacent to the siliceous substrate, wherein the coating composition comprises: i. a polyacrylic acid having a weight average molecular weight (M w ) greater than 100.000 g/mol; ii. an organic tetrafunctional alkoxysilane; iii. phosphoric acid; and iv. at least 70 wt% of water, based on the weight of the overall coating composition; and i. a polyacrylic acid having a weight average molecular weight (M w ) greater than 100.000 g/mol; ii. an organic tetrafunctional alkoxysilane; iii. phosphoric acid; and iv. at least 70 wt% of water, based on the weight of the overall coating composition; and c) drying and/or curing the layer of the coating composition thereby forming a coating layer adjacent to the siliceous substrate.
A dispersion adjustment unit for electromagnetic radiation with a spectral width, in particular for laser pulses, with an arrangement with at least one dispersive element for producing angular dispersion in an angular dispersion range bounded by two interaction areas of the electromagnetic radiation with the at least one dispersive element , in which individual spectral components of the electromagnetic radiation are assigned optical paths running at an angle to one another, and an optical unit arranged in the angular dispersion range between the two interaction areas of the electromagnetic radiation with the at least one dispersive element with a plane-parallel optical disc that transmits electromagnetic radiation, with a plane entrance surface and a plane exit surface that are arranged parallel to one another, wherein the optical disc causes a parallel offset, dependent on the angle of incidence, of the individual spectral components of the electromagnetic radiation with respect to the propagation of the individual spectral components in front of and after the optical disc . an arrangement with at least one dispersive element for producing angular dispersion in an angular dispersion range bounded by two interaction areas of the electromagnetic radiation with the at least one dispersive element , in which individual spectral components of the electromagnetic radiation are assigned optical paths running at an angle to one another, and an optical unit arranged in the angular dispersion range between the two interaction areas of the electromagnetic radiation with the at least one dispersive element with a plane-parallel optical disc that transmits electromagnetic radiation, with a plane entrance surface and a plane exit surface that are arranged parallel to one another, wherein the optical disc causes a parallel offset, dependent on the angle of incidence, of the individual spectral components of the electromagnetic radiation with respect to the propagation of the individual spectral components in front of and after the optical disc .
A bulk-metal crystalline catalyst comprising a first transition metal core surrounded by a silica-alkaline earth metal framework crystal lattice and including at least two transition metal atoms bound to the periphery of the framework crystal lattice, wherein the first transition metal core comprises iron (Fe) and wherein the catalyst has a formula of (M 1 ) a (M 2 ) b (Fe) c Si x M 3 y O z where M 1 and M 2 are the transitions metals selected from the group consisting of cobalt, ruthenium, rhodium, manganese, and combinations thereof M 3 is an alkaline earth metal, and 0.01 ≤ a < 1, 0.07 ≤ b <1, 0.01 ≤ c < 1, 0.03 ≤ x < 1, 0.26 < y ≤ 1, and z balances the valence of the catalyst, or wherein first transition metal core is Fe metal surrounded by a silica-magnesia framework crystal lattice and includes cobalt (Co) and manganese (Mn) atoms bound to periphery of the framework crystal lattice. wherein the first transition metal core comprises iron (Fe) and wherein the catalyst has a formula of (M 1 ) a (M 2 ) b (Fe) c Si x M 3 y O z where M 1 and M 2 are the transitions metals selected from the group consisting of cobalt, ruthenium, rhodium, manganese, and combinations thereof M 3 is an alkaline earth metal, and 0.01 ≤ a < 1, 0.07 ≤ b <1, 0.01 ≤ c < 1, 0.03 ≤ x < 1, 0.26 < y ≤ 1, and z balances the valence of the catalyst, or wherein first transition metal core is Fe metal surrounded by a silica-magnesia framework crystal lattice and includes cobalt (Co) and manganese (Mn) atoms bound to periphery of the framework crystal lattice.