mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a textile article having a hydrophobized textile surface, comprising the following steps: (a) producing or providing an article having a textile surface, (b) plasma-treating the textile surface produced or provided in step (a), to give a plasma-treated textile surface, (c) wet-chemically treating the plasma-treated textile surface resulting in step (b), or a textile surface produced therefrom in further steps, with a hydrophobizing agent, to give a plasma-treated hydrophobized textile surface, wherein the plasma treating in step (b) - is a low-pressure plasma treatment or - comprises a low-pressure plasma treatment and at least one further plasma treatment step, wherein the low-pressure plasma treatment, in both cases, is carried out with at least one oxygen-containing compound selected from the group consisting of O, O 2 , O 3 , NO, N 2 O and CO 2 , wherein the at least one oxygen-containing compound is present in a gas mixture which comprises O 2 and at least one inert gas selected from the group consisting of He and Ar, wherein the gas mixture contains a fraction of O 2 in the range from 70 vol% to 90 vol% and a fraction of inert gas in the range from 10 vol% to 30 vol%. (a) producing or providing an article having a textile surface, (b) plasma-treating the textile surface produced or provided in step (a), to give a plasma-treated textile surface, (c) wet-chemically treating the plasma-treated textile surface resulting in step (b), or a textile surface produced therefrom in further steps, with a hydrophobizing agent, to give a plasma-treated hydrophobized textile surface, wherein the plasma treating in step (b) - is a low-pressure plasma treatment or - comprises a low-pressure plasma treatment and at least one further plasma treatment step, wherein the low-pressure plasma treatment, in both cases, is carried out with at least one oxygen-containing compound selected from the group consisting of O, O 2 , O 3 , NO, N 2 O and CO 2 , wherein the at least one oxygen-containing compound is present in a gas mixture which comprises O 2 and at least one inert gas selected from the group consisting of He and Ar, wherein the gas mixture contains a fraction of O 2 in the range from 70 vol% to 90 vol% and a fraction of inert gas in the range from 10 vol% to 30 vol%. - is a low-pressure plasma treatment or - comprises a low-pressure plasma treatment and at least one further plasma treatment step,
A bio-acoustic information system for analyzing and improving a health status of a person, comprising: a control module configured to collect a first set of bio-acoustic frequency information from a voice sample generated by the person; a frequency processing module coupled to the control module, wherein the frequency processing module is configured to receive the first set of bio-acoustic frequency information and extrapolate a first set of significant frequencies from a first set of bio-acoustic frequency information, and further wherein the significant frequencies appear more than five times in at least 80% of a contiguous portion of the bio-acoustic frequency information; a frequency analysis module coupled to the frequency processing module, wherein the frequency analysis module is configure to receive the first set of significant frequencies, derive a first set of correlations based on the first set of significant frequencies, and use a portion of the derived first set of correlations to develop a first protocol that implements a first frequency at a corresponding first duration; and a frequency implementer coupled to the frequency analysis module, wherein the frequency implementer is configured to implement at least a portion of the first protocol at the person utilizing at least one of an audio speaker, a light source, a vibrational motor, and a SCALAR wave device. a control module configured to collect a first set of bio-acoustic frequency information from a voice sample generated by the person; a frequency processing module coupled to the control module, wherein the frequency processing module is configured to receive the first set of bio-acoustic frequency information and extrapolate a first set of significant frequencies from a first set of bio-acoustic frequency information, and further wherein the significant frequencies appear more than five times in at least 80% of a contiguous portion of the bio-acoustic frequency information; a frequency analysis module coupled to the frequency processing module, wherein the frequency analysis module is configure to receive the first set of significant frequencies, derive a first set of correlations based on the first set of significant frequencies, and use a portion of the derived first set of correlations to develop a first protocol that implements a first frequency at a corresponding first duration; and a frequency implementer coupled to the frequency analysis module, wherein the frequency implementer is configured to implement at least a portion of the first protocol at the person utilizing at least one of an audio speaker, a light source, a vibrational motor, and a SCALAR wave device.
A cooking device comprising a cooking cavity wherein the materials to be cooked are placed; a casing in the form of a box with the front side open which surrounds the cooking cavity ; an illumination element which has a light source disposed on the casing so as to be outside the cooking cavity and at least one optical waveguide connected to the light source from one end and connected onto the casing from the other end so as to illuminate the inner volume of the cooking cavity , thus enabling the cooking cavity to be illuminated by transmitting the light from the light source to the end connected onto the casing ; at least one mounting gap arranged on the casing ; and at least one connection element which is inserted into the mounting gap and which has a through hole and which keeps the end not connected to the light source of the optical waveguide in said through hole so as to at least partially absorb the impacts acting on the optical waveguide , characterized by at least one elastic element which is fitted into the connection element and which flexibly bears the end, which is not connected to the light source , of the optical waveguide in the connection element , wherein the elastic element is a helical spring which is compressed as a result of the force acting thereon so as to absorb said force.
Cooking hob , comprising at least one grid having a base element which defines a resting plane for resting on the cooking hob and to which at least three support elements (12a,12b,12c;15a,15b) are constrained, said at least three support elements (12a, 12b, 12c; 15a, 15b) being configured so as to define a support plane which is raised and parallel with respect to the resting plane, said base element enclosing an internal space which is configured to house a single gas burner of said cooking hob , wherein at least one of said at least three support elements (12a;15a) has a different shape than the other support elements (12b,12c;15b) and/or it has a relative orientation with respect to said base element different than the relative orientation of said other support elements (12b,12c;15b), wherein the at least three support elements (12a,12b,12c;15a,15b) extend from the base element toward the outside with respect to said internal space , characterised in that a housing seat is provided peripherally with respect to said gas burner , said at least one grid being stopped with respect to radial movements by a shape-coupling with said housing seat and being free to be coupled with said housing seat in a plurality of relative angular positions.
A method comprising: periodically determining a weight associated with an agricultural 2. machine, wherein a frequency at which the weight is determined is based on a speed of the machine; determining if the weight is above a threshold; and storing operational parameters in response to determining that the weight is above the threshold. periodically determining a weight associated with an agricultural 2. machine, wherein a frequency at which the weight is determined is based on a speed of the machine; determining if the weight is above a threshold; and storing operational parameters in response to determining that the weight is above the threshold.
Electronic power circuit, - wherein the electronic power circuit has a substrate with an upper side and a lower side, - wherein the lower side of the substrate is connected to a cooling body , - wherein arranged on the upper side of the substrate are first electronic switching elements , by means of which an alternating current potential (U~) present at a phase terminal of the power circuit can be connected through to a high direct current potential (U+) present at a first potential terminal of the power circuit and to a low direct current potential (U-) present at a second potential terminal of the power circuit, - wherein the electronic power circuit has second electronic switching elements , by means of which the alternating current potential (U~) present at the phase terminal can be connected through to a middle direct current potential (U0) present at a third potential terminal of the power circuit, - wherein, in addition to the substrate , the electronic power circuit has a first circuit board with an upper side and a lower side, - wherein the substrate is arranged at a spacing (a) from the first circuit board under the lower side of the first circuit board , so that the upper side of the substrate faces toward the first circuit board , - wherein the substrate is electrically connected to the first circuit board , characterised in that - the second electronic switching elements are arranged at least on the upper side of the first circuit board , possibly additionally also on the lower side of the first circuit board . - wherein the electronic power circuit has a substrate with an upper side and a lower side, - wherein the lower side of the substrate is connected to a cooling body , - wherein arranged on the upper side of the substrate are first electronic switching elements , by means of which an alternating current potential (U~) present at a phase terminal of the power circuit can be connected through to a high direct current potential (U+) present at a first potential terminal of the power circuit and to a low direct current potential (U-) present at a second potential terminal of the power circuit, - wherein the electronic power circuit has second electronic switching elements , by means of which the alternating current potential (U~) present at the phase terminal can be connected through to a middle direct current potential (U0) present at a third potential terminal of the power circuit, - wherein, in addition to the substrate , the electronic power circuit has a first circuit board with an upper side and a lower side, - wherein the substrate is arranged at a spacing (a) from the first circuit board under the lower side of the first circuit board , so that the upper side of the substrate faces toward the first circuit board , - wherein the substrate is electrically connected to the first circuit board , characterised in that - the second electronic switching elements are arranged at least on the upper side of the first circuit board , possibly additionally also on the lower side of the first circuit board .
A device to contact the wiring screen of a coaxial cable with a coaxial cable which has an internal conductor , internal conductor insulation , a wiring screen and a cable shroud , with a contact element which has a circular ring-shaped contact surface and a first cut-out and has a disc-shaped tensioning element which has a second cut-out , whereby the internal wiring insulation of the coaxial cable is passed through both cut-outs and where a section of the wiring screen which has been freed from the cable shroud is clamped between the tensioning element and the contact element characterised by the fact, that the free section of the wiring screen is staked vertically to the cable axis by brining together the tensioning element and contact element in an axial direction in relation to the coaxial cable the tensioning element and contact element are attached to each other either by their form or by force, whereby the tensioning element or the contact element has a collar through which a crimp connection is produced between the tensioning element and the contact element the tensioning element and the contact element surround completely the free section of the wiring screen .
Machining installation for aircraft structural components , having a machining station which comprises a clamping frame for receiving the aircraft structural component to be machined in each case, wherein the clamping frame extends along a station longitudinal axis , extending in a longitudinal direction (X), and which comprises a machining unit for machining the aircraft structural component , which machining unit has a top tool unit with a top tool oriented along a first tool axis and has a bottom tool unit with a bottom tool oriented along a second tool axis , wherein the first tool axis and the second tool axis are or are able to be oriented parallel to a vertical direction (Z), which is at an angle, in particular orthogonal, to the longitudinal axis (X), wherein, in at least one machining position of the top tool and in at least one machining position of the bottom tool , the first tool axis and the second tool axis are oriented coaxially with respect to one another, and wherein the bottom tool is mounted on a bottom-tool carrier , wherein the lower framework part and upper framework part are connected to one another via at least one lateral framework part , wherein the lower framework part , the at least one lateral framework part and the upper framework part together form a C-shape or portal-like shape, wherein the bottom-tool carrier is linearly moveable on the lower framework part in the transverse direction (Y), wherein, in at least one machining position of the top tool and/or in at least one machining position of the bottom tool , the respective tool axis is not coaxial with the bottom-tool-carrier axis .
A device for use in microgravity environments, the device comprising: a first member for supporting a user ; a second member , attached to the first member , comprising a counterbalance portion ; wherein the first member and the second member are each moveable, and operable to slide with respect to each other in opposite directions, between a first position and a second position; wherein the device is operable such that between the first and second positions, the combined centre of mass of the device and its user remains substantially fixed; and characterised in that the mass of the counterbalance portion is variable for balancing the mass of the first member and the user with the mass of the second member . a first member for supporting a user ; a second member , attached to the first member , comprising a counterbalance portion ; wherein the first member and the second member are each moveable, and operable to slide with respect to each other in opposite directions, between a first position and a second position; wherein the device is operable such that between the first and second positions, the combined centre of mass of the device and its user remains substantially fixed; and characterised in that the mass of the counterbalance portion is variable for balancing the mass of the first member and the user with the mass of the second member .
A method comprising: receiving an image captured by an image capture device , wherein the image is associated with registration information indicating a position and an orientation of the image capture device when the image was captured; aligning, with a processor, a three dimensional model to the received image using the position and orientation information from the registration information; determining a two-dimensional view of the three dimensional model defined by the outline of the received image; identifying a point of interest in the determined two-dimensional view of the aligned three dimensional model; determining an area of interest of the image, wherein the area of interest comprises an area of the image surrounding the point of interest; transitioning from the received image to information (720, 760, 930A-C) from the three dimensional model associated with the point of interest; and displaying the area of interest enlarged. receiving an image captured by an image capture device , wherein the image is associated with registration information indicating a position and an orientation of the image capture device when the image was captured; aligning, with a processor, a three dimensional model to the received image using the position and orientation information from the registration information; determining a two-dimensional view of the three dimensional model defined by the outline of the received image; identifying a point of interest in the determined two-dimensional view of the aligned three dimensional model; determining an area of interest of the image, wherein the area of interest comprises an area of the image surrounding the point of interest; transitioning from the received image to information (720, 760, 930A-C) from the three dimensional model associated with the point of interest; and displaying the area of interest enlarged.
A display device comprising: a base layer having one or more first regions (B) that can be folded along a predetermined axis, and a second region (C) adjacent to the first regions (B); and thin-film transistors 102, 104, 106, 108, organic light-emitting elements and insulation layers stacked in the second region (C) of the base layer , wherein the first regions (B) comprise a filling layer , and wherein the thin-film transistors 102, 104, 106, 108, the organic light-emitting elements and the insulation layers are not disposed in the first regions (B), and the first regions (B) are filled with the filling layer instead; characterized in that the filling layer is a material in a liquid state, a sol state, or a gel state. a base layer having one or more first regions (B) that can be folded along a predetermined axis, and a second region (C) adjacent to the first regions (B); and thin-film transistors 102, 104, 106, 108, organic light-emitting elements and insulation layers stacked in the second region (C) of the base layer , wherein the first regions (B) comprise a filling layer , and wherein the thin-film transistors 102, 104, 106, 108, the organic light-emitting elements and the insulation layers are not disposed in the first regions (B), and the first regions (B) are filled with the filling layer instead; characterized in that the filling layer is a material in a liquid state, a sol state, or a gel state.
A chemiluminescent projectile having multi-spectral output , comprising: an insert having a first chemiluminescent light generating component separated from a second chemiluminescent light generating component via a breakable barrier, said first chemiluminescent light generating component comprising at least one oxalate ester and at least one fluorescer, said second chemiluminescent light generating component comprising at least one peroxide and at least one catalyst, said second chemiluminescent light generating component interacting with said first chemiluminescent light generating component to generate light; an inert ballast material surrounding said insert ; at least one inorganic salt at a concentration sufficient to produce an exothermic reaction when said first and second chemiluminescent light generating components interact, said at least one inorganic salt forming part of said first chemiluminescent light generating component and being intermixed with said inert ballast material, or forming part of said second chemiluminescent light generating component and being intermixed with said inert ballast material ; and a chemical dispersant visualizing agent constructed and arranged to disperse heat or chemical light reactions upon impact with a target in a vertical direction or plane, a horizontal direction or plane, or in vertical and horizontal directions or planes. an insert having a first chemiluminescent light generating component separated from a second chemiluminescent light generating component via a breakable barrier, said first chemiluminescent light generating component comprising at least one oxalate ester and at least one fluorescer, said second chemiluminescent light generating component comprising at least one peroxide and at least one catalyst, said second chemiluminescent light generating component interacting with said first chemiluminescent light generating component to generate light; an inert ballast material surrounding said insert ; at least one inorganic salt at a concentration sufficient to produce an exothermic reaction when said first and second chemiluminescent light generating components interact, said at least one inorganic salt forming part of said first chemiluminescent light generating component and being intermixed with said inert ballast material, or forming part of said second chemiluminescent light generating component and being intermixed with said inert ballast material ; and a chemical dispersant visualizing agent constructed and arranged to disperse heat or chemical light reactions upon impact with a target in a vertical direction or plane, a horizontal direction or plane, or in vertical and horizontal directions or planes.
A bendable telescopic lance for spraying of a material, characterized in that it comprises: a flexible inner tube , a bendable telescopic element with an inlet side and an outlet side, and an outer pipe ; wherein: the flexible inner tube is located inside, and connected in a longitudinally mutually slidable manner to, the outer pipe ; the outer pipe is connected to the inlet side of the bendable telescopic element and the inner tube is connected to the outlet side of the bendable telescopic element ; and where the relative position of the inner tube and the outer pipe determines the spatial position and length of the bendable telescopic element . a flexible inner tube , a bendable telescopic element with an inlet side and an outlet side, and an outer pipe ; wherein: the flexible inner tube is located inside, and connected in a longitudinally mutually slidable manner to, the outer pipe ; the outer pipe is connected to the inlet side of the bendable telescopic element and the inner tube is connected to the outlet side of the bendable telescopic element ; and where the relative position of the inner tube and the outer pipe determines the spatial position and length of the bendable telescopic element . the flexible inner tube is located inside, and connected in a longitudinally mutually slidable manner to, the outer pipe ; the outer pipe is connected to the inlet side of the bendable telescopic element and the inner tube is connected to the outlet side of the bendable telescopic element ; and where the relative position of the inner tube and the outer pipe determines the spatial position and length of the bendable telescopic element .