mhurhangee/patent-ind-claim-en huggingface dataset:
Therapy device for treating fascial adhesions in a person, having: a mounting device for fixing to a wall or a wall-like element, the mounting device comprising a guide in the form of two rails ; at least one massage device (4; 5), which has at least one massage roll (2; 6) which is rotatable about its axis and formed to stimulate fasciae of the human body; the at least one massage device (4; 5) being attached to the mounting device so as to be manually displaceable and lockable in different positions along the mounting device , the at least one massage device (4; 5) being attached to the rails by way of a first mounting , characterised in that the first mounting has a first base comprising two plate elements , which are arranged on opposite outer faces of the rails and each have a hole for passing a screw through for screwing the plate elements against the rails , so as to clamp the first base of the first mounting in place on the rails , the first base being manually displaceable and lockable along the rails and being fixable on the rails of the mounting device rotated through an angle of up to 180° with respect to at least a right or left face of the holding device . a mounting device for fixing to a wall or a wall-like element, the mounting device comprising a guide in the form of two rails ; at least one massage device (4; 5), which has at least one massage roll (2; 6) which is rotatable about its axis and formed to stimulate fasciae of the human body; the at least one massage device (4; 5) being attached to the mounting device so as to be manually displaceable and lockable in different positions along the mounting device , the at least one massage device (4; 5) being attached to the rails by way of a first mounting , characterised in that the first mounting has a first base comprising two plate elements , which are arranged on opposite outer faces of the rails and each have a hole for passing a screw through for screwing the plate elements against the rails , so as to clamp the first base of the first mounting in place on the rails , the first base being manually displaceable and lockable along the rails and being fixable on the rails of the mounting device rotated through an angle of up to 180° with respect to at least a right or left face of the holding device .
A vehicle for passenger transport, preferably a bus, comprising a self-supporting body , assembled from a plurality of body modules that can be used for different vehicle variants, comprising: - a front module , comprising a recess for receiving a windscreen; - a rear module ; and - several connecting modules arranged in a row in a longitudinal direction (L) of the vehicle, via which the front module is connected to the rear module ; characterized in that each of the body modules is configured as a lattice frame construction and/or comprises a self-supporting, cage-like lattice frame structure. - a front module , comprising a recess for receiving a windscreen; - a rear module ; and - several connecting modules arranged in a row in a longitudinal direction (L) of the vehicle, via which the front module is connected to the rear module ;
A method for controlling an Unmanned Aerial Vehicle, UAV, , comprising: receiving an enhanced flight plan , wherein the enhanced flight plan includes one or more predefined points and each of the predefined points is associated with a set of conditions and a set of locations ; storing the one or more predefined points in the UAV; flying the UAV according to the enhanced flight plan; detecting , by the UAV, a condition associated with a predefined point in the one or more predefined points stored in the UAV; and adjusting , autonomously by the UAV and in response to detecting the condition , a flight of the UAV using a set of locations associated with the predefined point and associated with the detected condition , wherein the predefined point in the one or more predefined points is associated with a higher-level directive describing an action to be taken by the UAV upon detecting an occurrence of the condition associated with the predefined point , wherein the higher-level directive of the predefined point includes prioritization and selection criteria for selecting a location from the set of locations associated with the predefined point characterized in that the higher-level directive of the predefined point includes transmitting an indication of a selected location from the set of locations associated with the predefined point to a device separate from the UAV. receiving an enhanced flight plan , wherein the enhanced flight plan includes one or more predefined points and each of the predefined points is associated with a set of conditions and a set of locations ; storing the one or more predefined points in the UAV; flying the UAV according to the enhanced flight plan; detecting , by the UAV, a condition associated with a predefined point in the one or more predefined points stored in the UAV; and adjusting , autonomously by the UAV and in response to detecting the condition , a flight of the UAV using a set of locations associated with the predefined point and associated with the detected condition , wherein the predefined point in the one or more predefined points is associated with a higher-level directive describing an action to be taken by the UAV upon detecting an occurrence of the condition associated with the predefined point , wherein the higher-level directive of the predefined point includes prioritization and selection criteria for selecting a location from the set of locations associated with the predefined point characterized in that the higher-level directive of the predefined point includes transmitting an indication of a selected location from the set of locations associated with the predefined point to a device separate from the UAV.
A printable recording media comprising: a. a base substrate with an image-side and a back-side; b. and an ink-receiving layer, applied to the image-side of the base substrate, comprising, at least, a reactive crosslinking agent, inorganic pigment particles or a mixture of inorganic particles, and polymeric binders or a mixture of polymeric binders; and characterized in that the printable recording media comprises: c. a primary layer containing, at least, inorganic pigment particles or a mixture of inorganic particles, and polymeric binders or a mixture of polymeric binders, that is applied on the image-side of the base substrate, below the ink-receiving layer; and wherein the reactive crosslinking agent is an azetidinium-containing polyamine polymer. a. a base substrate with an image-side and a back-side; b. and an ink-receiving layer, applied to the image-side of the base substrate, comprising, at least, a reactive crosslinking agent, inorganic pigment particles or a mixture of inorganic particles, and polymeric binders or a mixture of polymeric binders; and characterized in that the printable recording media comprises: c. a primary layer containing, at least, inorganic pigment particles or a mixture of inorganic particles, and polymeric binders or a mixture of polymeric binders, that is applied on the image-side of the base substrate, below the ink-receiving layer; and wherein the reactive crosslinking agent is an azetidinium-containing polyamine polymer.
A terminal comprising: a reception section adapted to receive a downlink shared channel that is scheduled by first downlink control information; and a control section adapted to if the terminal transmits an uplink shared channel over multiple slots and at least one slot of the multiple slots overlaps with a slot in which the terminal transmits a transmission acknowledgement signal for the downlink shared channel, characterised in that the control section is further adapted to control to map the transmission acknowledgement signal in transmission of the uplink shared channel in at least one slot of the multiple slots, wherein the control section is adapted to apply, in each of the multiple slots, intra-slot frequency hopping to the uplink shared channel, and the control section is adapted to map, in each of the multiple slots, a demodulation reference signal to a first symbol of each of an uplink shared channel domain of a first hop and an uplink shared channel domain of a second hop. a reception section adapted to receive a downlink shared channel that is scheduled by first downlink control information; and a control section adapted to if the terminal transmits an uplink shared channel over multiple slots and at least one slot of the multiple slots overlaps with a slot in which the terminal transmits a transmission acknowledgement signal for the downlink shared channel, characterised in that the control section is further adapted to control to map the transmission acknowledgement signal in transmission of the uplink shared channel in at least one slot of the multiple slots, wherein the control section is adapted to apply, in each of the multiple slots, intra-slot frequency hopping to the uplink shared channel, and the control section is adapted to map, in each of the multiple slots, a demodulation reference signal to a first symbol of each of an uplink shared channel domain of a first hop and an uplink shared channel domain of a second hop.
A computerized method of generating a map of myelin tissue of a brain comprising the steps of: - generating observed maps of two or more physical properties of the brain based on a range of images produced from at least one magnetic resonance, MR, sequence applied to the brain, wherein the two or more physical properties comprise at least two of a longitudinal relaxation time T1 or longitudinal relaxation rate R1, a, transverse relaxation time T2 or transverse relaxation rate R2, and a proton density PD; - forming a simulation model comprising at least two interacting tissue compartments for each acquisition voxel volume of said range of images, wherein one of the at least two compartments is a myelin tissue fraction compartment, whereby an interaction between two compartments is expressed as a magnetization exchange rate that couples the magnetization evolution of fractional distributions within said two compartments, and each fraction of the fractional distribution within each compartment has its own set of values for said two or more physical properties; - calculating simulated signal intensities of the compartments, under influence of the MR sequence for each acquisition voxel volume; - calculating simulated maps for said two or more physical properties based on the simulated signal intensities, - relating the observed maps to the simulated maps of said two or more physical properties, comprising generating a relationship by relating a myelin fraction from the simulation model to the observed physical properties, and - generating a myelin fraction map of the brain using the relationship. - generating observed maps of two or more physical properties of the brain based on a range of images produced from at least one magnetic resonance, MR, sequence applied to the brain, wherein the two or more physical properties comprise at least two of a longitudinal relaxation time T1 or longitudinal relaxation rate R1, a, transverse relaxation time T2 or transverse relaxation rate R2, and a proton density PD; - forming a simulation model comprising at least two interacting tissue compartments for each acquisition voxel volume of said range of images, wherein one of the at least two compartments is a myelin tissue fraction compartment, whereby an interaction between two compartments is expressed as a magnetization exchange rate that couples the magnetization evolution of fractional distributions within said two compartments, and each fraction of the fractional distribution within each compartment has its own set of values for said two or more physical properties; - calculating simulated signal intensities of the compartments, under influence of the MR sequence for each acquisition voxel volume; - calculating simulated maps for said two or more physical properties based on the simulated signal intensities, - relating the observed maps to the simulated maps of said two or more physical properties, comprising generating a relationship by relating a myelin fraction from the simulation model to the observed physical properties, and - generating a myelin fraction map of the brain using the relationship.
A method for inspecting a host computer using a USB device , the USB device being a self-contained computer and being selectively operable in a mass storage mode and in a computing mode, wherein, in the mass storage mode, the USB device is detectable by the host computer as a USB mass storage device, and wherein, in the computing mode, the USB device is detectable by the host computer as an independent computer, the method comprising: booting (S310; S320) an inspection operating system (114; 116) on the host computer from the USB device , when the USB device is operated in the mass storage mode, the inspection operating system (114; 116) providing one or more inspection functions for inspecting the host computer; switching (S316; S326) the USB device from the mass storage mode to the computing mode so that the USB device is detectable by the host computer as an independent computer being able to communicate with the inspection operating system (114; 116) to control the one or more inspection functions of the inspection operating system (114; 116); and inspecting (S318; S328) the host computer using the one or more inspection functions of the inspection operating system (114; 116), the one or more inspection functions being controlled from the USB device operated in the computing mode. booting (S310; S320) an inspection operating system (114; 116) on the host computer from the USB device , when the USB device is operated in the mass storage mode, the inspection operating system (114; 116) providing one or more inspection functions for inspecting the host computer; switching (S316; S326) the USB device from the mass storage mode to the computing mode so that the USB device is detectable by the host computer as an independent computer being able to communicate with the inspection operating system (114; 116) to control the one or more inspection functions of the inspection operating system (114; 116); and inspecting (S318; S328) the host computer using the one or more inspection functions of the inspection operating system (114; 116), the one or more inspection functions being controlled from the USB device operated in the computing mode.
Process for the preparation of bis-resorcinyl triazines of formula (I), wherein R 1 is C 1 -C 18 alkyl or C 2 -C 18 alkenyl, said process comprising the step of reacting a bis-resorcinyl triazine of formula (II) in at least one aromatic solvent, wherein R 1 is a C 1 -C 18 alkyl group or a C 2 -C 18 alkenyl group, with resorcinol in the presence of a Lewis acid and a co-solvent (Friedel-Crafts arylation), characterized in that after the reaction is complete (i) the reaction mixture is added to water while the aromatic solvent is concomitantly distilled off to obtain an aqueous suspension of the BRT of formula (I), followed by, (ii) addition of an organic solvent, which is able to dissolve BRT of formula (I) in an amount of at least 1 wt.-% and which leads to the formation of a biphasic system consisting of (a) a solution of BRT of formula (I) in said solvent (BRT-solution) and (b) water, followed by (iii) separation of said BRT-solution from the water phase and optionally washing said BRT-solution with water, and (iv) addition of the thus obtained BRT-solution to water while the organic solvent is concomitantly distilled off to obtain an aqueous suspension of a BRT of formula (I). wherein R 1 is C 1 -C 18 alkyl or C 2 -C 18 alkenyl, said process comprising the step of reacting a bis-resorcinyl triazine of formula (II) in at least one aromatic solvent, wherein R 1 is a C 1 -C 18 alkyl group or a C 2 -C 18 alkenyl group, with resorcinol in the presence of a Lewis acid and a co-solvent (Friedel-Crafts arylation), characterized in that after the reaction is complete (i) the reaction mixture is added to water while the aromatic solvent is concomitantly distilled off to obtain an aqueous suspension of the BRT of formula (I), followed by, (ii) addition of an organic solvent, which is able to dissolve BRT of formula (I) in an amount of at least 1 wt.-% and which leads to the formation of a biphasic system consisting of (a) a solution of BRT of formula (I) in said solvent (BRT-solution) and (b) water, followed by (iii) separation of said BRT-solution from the water phase and optionally washing said BRT-solution with water, and (iv) addition of the thus obtained BRT-solution to water while the organic solvent is concomitantly distilled off to obtain an aqueous suspension of a BRT of formula (I). (i) the reaction mixture is added to water while the aromatic solvent is concomitantly distilled off to obtain an aqueous suspension of the BRT of formula (I), followed by, (ii) addition of an organic solvent, which is able to dissolve BRT of formula (I) in an amount of at least 1 wt.-% and which leads to the formation of a biphasic system consisting of (a) a solution of BRT of formula (I) in said solvent (BRT-solution) and (b) water, followed by (iii) separation of said BRT-solution from the water phase and optionally washing said BRT-solution with water, and (iv) addition of the thus obtained BRT-solution to water while the organic solvent is concomitantly distilled off to obtain an aqueous suspension of a BRT of formula (I).
Device for editing a panoramic radiography image of an examination object generated by a panoramic X-ray machine , comprising: an input interface for receiving the panoramic radiography image as well as reconstruction data of the panoramic radiography image, the reconstruction data including information on a course of projection lines of the panoramic radiography image between an X-ray source and an X-ray detector of the panoramic X-ray machine as well as information on an image surface of the panoramic radiography image; characterized by further comprising: an evaluation unit for evaluating the reconstruction data and for determining, on the basis of one of the projection lines with two intersection points with the image surface, an image section of the panoramic radiography image that has been generated; an image editing unit for editing the panoramic radiography image based on the determined image section; and an output unit for outputting the edited panoramic radiography image. an input interface for receiving the panoramic radiography image as well as reconstruction data of the panoramic radiography image, the reconstruction data including information on a course of projection lines of the panoramic radiography image between an X-ray source and an X-ray detector of the panoramic X-ray machine as well as information on an image surface of the panoramic radiography image; characterized by further comprising: an evaluation unit for evaluating the reconstruction data and for determining, on the basis of one of the projection lines with two intersection points with the image surface, an image section of the panoramic radiography image that has been generated; an image editing unit for editing the panoramic radiography image based on the determined image section; and an output unit for outputting the edited panoramic radiography image. an evaluation unit for evaluating the reconstruction data and for determining, on the basis of one of the projection lines with two intersection points with the image surface, an image section of the panoramic radiography image that has been generated; an image editing unit for editing the panoramic radiography image based on the determined image section; and an output unit for outputting the edited panoramic radiography image.
A method for the layered construction of a shaped body of highly viscous photopolymerizable material having a viscosity of at least 10 Pa*s, in particular a resin with a ceramic filler, where layers of said shaped body are formed one after the other and one on top of the other by each forming a material layer of predetermined thickness of the highly viscous photopolymerizable material in a tank and lowering the construction platform , or the shaped body at least partially formed on the construction platform, into the material layer so as to cause a layer of the highly viscous photopolymerizable material to form between the construction platform or shaped body and the tank bottom, which layer is cured in a position-selective manner, in particular by irradiation through the tank bottom, to provide the desired shape of the shaped body layer, characterized in that at least one material layer comprises a layer thickness variation in the lateral direction before lowering the construction platform, or the shaped body at least partially formed on the construction platform, into the material layer.
A hair colouring and/or bleaching composition obtained by mixing, prior to application onto hair, at least a first aqueous component (i) and a second aqueous component (ii), wherein: - the first aqueous component (i) comprises, in a cosmetically acceptable carrier: - one or more oxidizing agent(s) and - the second aqueous component (ii) comprises, in a cosmetically acceptable carrier: - one or more alkalizing agent(s) selected from the group consisting of ammonia, its salts and mixtures thereof, wherein the composition comprises a gel-network system derived from the first component (i) or the second component (ii) or both components (i) and (ii), the gel-network system comprising at least one fatty alcohol and at least one non-ionic surfactant, the gel-network system consisting of multi-lamellar sheets or vesicles or both, with d-spacing (interlayer spacing between sheets) between 5 nm and 50 nm as measured by Small Angle X-Ray Scattering (SAXS), and the first component (i) or the second component (ii) or both comprise less than 2% of anionic surfactants other than phosphate esters and less than 2% of cationic surfactants and the first component (i) or the second component (ii) or both comprise at least a first malodor suppressant and a second malodor suppressant, wherein the first and second malodor suppressants are isopropylmyristate and galaxolide, or isopropylmyristate and habanolide. - the first aqueous component (i) comprises, in a cosmetically acceptable carrier: - one or more oxidizing agent(s) and - one or more oxidizing agent(s) and - the second aqueous component (ii) comprises, in a cosmetically acceptable carrier: - one or more alkalizing agent(s) selected from the group consisting of ammonia, its salts and mixtures thereof, - one or more alkalizing agent(s) selected from the group consisting of ammonia, its salts and mixtures thereof,