mhurhangee/patent-ind-claim-en huggingface dataset:
A method of ion mobility spectrometry comprising: transmitting ions to an ion mobility separator ; modulating the introduction of the ions into the ion mobility separator at a first modulation frequency; separating the ions that enter the ion mobility separator according to ion mobility; detecting ions that have exited the ion mobility separator with a detector ; wherein the transmission of ions from the ion mobility separator to the detector is modulated at a second modulation frequency, or the detector output is modulated at a second modulation frequency, such that the detector outputs a modulated signal; varying the first and second modulation frequencies with time; recording the intensity of the modulated signal as a function of the first or second modulation frequency so as to obtain data in a modulation frequency domain; and performing a Fourier transformation of said data so as to produce complex spectral data in a drift time domain; and characterised by : producing absorption spectral data representative of an absorption spectrum of said complex spectral data; and determining the ion mobilities of said ions from said absorption spectral data. transmitting ions to an ion mobility separator ; modulating the introduction of the ions into the ion mobility separator at a first modulation frequency; separating the ions that enter the ion mobility separator according to ion mobility; detecting ions that have exited the ion mobility separator with a detector ; wherein the transmission of ions from the ion mobility separator to the detector is modulated at a second modulation frequency, or the detector output is modulated at a second modulation frequency, such that the detector outputs a modulated signal; varying the first and second modulation frequencies with time; recording the intensity of the modulated signal as a function of the first or second modulation frequency so as to obtain data in a modulation frequency domain; and performing a Fourier transformation of said data so as to produce complex spectral data in a drift time domain; and characterised by : producing absorption spectral data representative of an absorption spectrum of said complex spectral data; and determining the ion mobilities of said ions from said absorption spectral data. producing absorption spectral data representative of an absorption spectrum of said complex spectral data; and determining the ion mobilities of said ions from said absorption spectral data.
A cart assembly for a conveying device, said cart assembly comprising a body element , movable along a conveying path (P), and at least one tool (5; 6) carried by said body element in a movable manner between an operative position, in which said tool (5; 6) is designed to perform an operation on a given article (T), and an idle position, in which said tool (5; 6) is in a stand-by condition; said cart assembly further comprising a guide mechanism (10, 13; 33) configured to allow the movement of said tool (5; 6) with respect to said body element ; said guide mechanism (10, 13; 33) comprising two first guide elements (12, 22; 34), extending parallel to a given direction (A), and one second guide element (13, 23; 35), also extending parallel to said direction (A) and interposed between said first guide elements (12, 22; 34); said first guide elements (12, 22; 34) and second guide element (13, 23; 35) being slidably coupled so as to permit a relative movement along said direction (A) of said second guide element (13, 23; 35) with respect to said first guide elements (12, 22; 34) or vice versa; wherein said second guide element (13, 23; 35) has opposite lateral surfaces extending parallel to said direction (A) and cooperating in contact with both said respective first guide elements (12, 22; 34); wherein said direction (A) is transversal with respect to a portion (O) of said path (P) along which said tool (5; 6) moves between said idle position and operative position.
Supporting frame comprising a lifting column with telescopically arranged profiles (15,16,17;27,28,29), where the telescopically arranged profiles (15,16,17;27,28,29) have an upper and lower end, to which upper end a housing is secured, a base unit comprising a compartment at least for partial reception of the lifting column housing , a cross member for mounting on the base unit , a locking element , which when placed in a locked position exerts a squeezing force between the base unit , the lifting column housing and the cross member , by which the lifting column housing and the cross member are fixed in the base unit , and where the locking element comprises means for retaining the locking element in the locked position characterized in that the base unit has a U-shaped cross section with two parallel side walls (60,61;119,120) having a mutual distance between them which corresponds to the width of the lifting column housing . a lifting column with telescopically arranged profiles (15,16,17;27,28,29), where the telescopically arranged profiles (15,16,17;27,28,29) have an upper and lower end, to which upper end a housing is secured, a base unit comprising a compartment at least for partial reception of the lifting column housing , a cross member for mounting on the base unit , a locking element , which when placed in a locked position exerts a squeezing force between the base unit , the lifting column housing and the cross member , by which the lifting column housing and the cross member are fixed in the base unit , and where the locking element comprises means for retaining the locking element in the locked position characterized in that the base unit has a U-shaped cross section with two parallel side walls (60,61;119,120) having a mutual distance between them which corresponds to the width of the lifting column housing .
A display control apparatus comprising: means for acquiring information specifying a communication connection state of a plurality of image capturing apparatuses, the plurality of image capturing apparatuses being configured to acquire captured images by capturing images to generate a virtual view point image, wherein the plurality of image capturing apparatuses (100-x) are connected in one or more connection groups; generation means configured to generate an image representing: (i) information for specifying the communication connection state, (ii) information for specifying installation positions of the plurality of image capturing apparatuses, and (iii) information for identifying which one of predetermined regions is to be captured by an image capturing apparatus; and display control means configured to cause a display unit to display the image generated by the generation means. means for acquiring information specifying a communication connection state of a plurality of image capturing apparatuses, the plurality of image capturing apparatuses being configured to acquire captured images by capturing images to generate a virtual view point image, wherein the plurality of image capturing apparatuses (100-x) are connected in one or more connection groups; generation means configured to generate an image representing: (i) information for specifying the communication connection state, (ii) information for specifying installation positions of the plurality of image capturing apparatuses, and (iii) information for identifying which one of predetermined regions is to be captured by an image capturing apparatus; and (i) information for specifying the communication connection state, (ii) information for specifying installation positions of the plurality of image capturing apparatuses, and (iii) information for identifying which one of predetermined regions is to be captured by an image capturing apparatus; and display control means configured to cause a display unit to display the image generated by the generation means.
A reaction cartridge comprising: a pressurizable first chamber ; a first valve in fluid communication with the first chamber ; a second valve in fluid communication with the first valve ; a second chamber in fluid communication with the first valve and the second valve ; a third chamber in fluid communication with the second valve ; a third valve in fluid communication with the second valve and the third chamber ; and a fourth chamber in fluid communication with the third valve , characterized in that : the second chamber is reversibly pressurizable; the third chamber is reversibly pressurizable; pressurizing the first chamber with the first valve open and with the second valve closed moves liquid from the first chamber to the second chamber ; pressurizing the second chamber with the second valve open and with the first valve and the third valve closed moves liquid from the second chamber to the third chamber ; pressurizing the third chamber with the second valve open and with the first valve and the third valve closed moves liquid from the third chamber to the second chamber ; and pressurizing the third chamber with the second valve closed and the third valve open moves liquid from the third chamber to the fourth chamber . a pressurizable first chamber ; a first valve in fluid communication with the first chamber ; a second valve in fluid communication with the first valve ; a second chamber in fluid communication with the first valve and the second valve ; a third chamber in fluid communication with the second valve ; a third valve in fluid communication with the second valve and the third chamber ; and a fourth chamber in fluid communication with the third valve , characterized in that : the second chamber is reversibly pressurizable; the third chamber is reversibly pressurizable; pressurizing the first chamber with the first valve open and with the second valve closed moves liquid from the first chamber to the second chamber ; pressurizing the second chamber with the second valve open and with the first valve and the third valve closed moves liquid from the second chamber to the third chamber ; pressurizing the third chamber with the second valve open and with the first valve and the third valve closed moves liquid from the third chamber to the second chamber ; and pressurizing the third chamber with the second valve closed and the third valve open moves liquid from the third chamber to the fourth chamber . the second chamber is reversibly pressurizable; the third chamber is reversibly pressurizable; pressurizing the first chamber with the first valve open and with the second valve closed moves liquid from the first chamber to the second chamber ; pressurizing the second chamber with the second valve open and with the first valve and the third valve closed moves liquid from the second chamber to the third chamber ; pressurizing the third chamber with the second valve open and with the first valve and the third valve closed moves liquid from the third chamber to the second chamber ; and pressurizing the third chamber with the second valve closed and the third valve open moves liquid from the third chamber to the fourth chamber .
A footwear for wrapping an entire foot, comprising a main body made of foam rubber and an embedded part made of synthetic rubber, wherein the main body is dug and configured to embed the embedded part made of synthetic rubber into a heel side of a bottom of the main body made of the foam rubber, the embedded part is a part from a mid-point from a toe to a heel to a heel part of the bottom of the main body, specific gravities of the foam rubber and the synthetic rubber are 0.38 g/cm 3 and 1.03 g/cm 3 , respectively, a center of gravity of the footwear is shifted to the heel side using a difference in the specific gravity of both to increase stability such that the footwear does not fall over when the footwear is placed upside down, and an opening of the footwear is further formed to be flat with respect to a ground surface when the footwear is placed upside down. a main body made of foam rubber and an embedded part made of synthetic rubber, wherein the main body is dug and configured to embed the embedded part made of synthetic rubber into a heel side of a bottom of the main body made of the foam rubber, the embedded part is a part from a mid-point from a toe to a heel to a heel part of the bottom of the main body, specific gravities of the foam rubber and the synthetic rubber are 0.38 g/cm 3 and 1.03 g/cm 3 , respectively, a center of gravity of the footwear is shifted to the heel side using a difference in the specific gravity of both to increase stability such that the footwear does not fall over when the footwear is placed upside down, and an opening of the footwear is further formed to be flat with respect to a ground surface when the footwear is placed upside down.
Device for connecting two components in a given relative orientation with a bolt and a first sleeve , wherein the first sleeve can be embedded in one of the two components and a first end section of the bolt can be inserted into this first sleeve , with the opposite, second end section of the bolt being designed for engagement in the other concrete component , the device comprises a second sleeve which can be embedded in the other component and into which the second end section of the bolt can be inserted, the bolt, with its first end section in the first sleeve, can be rotated about a first axis, the bolt can be displaced in at least one of the two sleeves transversely to its respective axis, characterized in that the bolt can be inserted into the second sleeve in multiple rotational positions with respect to a second axis, but is secured in a rotationally fixed manner in the respective rotational position when in the inserted state, wherein the second axis is oriented with a lateral offset parallel to the first axis.
A method of preparing a composition, comprising the steps of: (a) providing a mixture of carbon particles and a solvent and shearing the mixture to form a dispersion of the carbon particles in the solvent; and (b) adding non-fibrillated poly(tetraflouroethylene) to the dispersion to provide a resultant mixture and shearing the resultant mixture until at least a portion of the poly(tetrafluoroethylene) has been fibrillated, the method being operated at room temperature. (a) providing a mixture of carbon particles and a solvent and shearing the mixture to form a dispersion of the carbon particles in the solvent; and (b) adding non-fibrillated poly(tetraflouroethylene) to the dispersion to provide a resultant mixture and shearing the resultant mixture until at least a portion of the poly(tetrafluoroethylene) has been fibrillated, the method being operated at room temperature.
A blade for a wind turbine including: - a suction side and a pressure side extending between a leading edge and the trailing edge , - an energy distribution system having at least one external portion protruding from the suction side or the pressure side , wherein the blade further includes: - at least one aerodynamic element attached to the suction side or the pressure side for aerodynamically shielding the external portion of the energy distribution system , - at least one active aerodynamic device and a pneumatic actuator , wherein the energy distribution system is a pressure supply system activating the at least one active aerodynamic device provided on the suction side or the pressure side , the active aerodynamic device being moved by means of the pneumatic actuator fed by the pressure supply system , the pressure supply system comprising at least one external duct protruding from the suction side or the pressure side , said aerodynamic element being attached to the suction side or the pressure side for covering said external duct . - a suction side and a pressure side extending between a leading edge and the trailing edge , - an energy distribution system having at least one external portion protruding from the suction side or the pressure side , wherein the blade further includes: - at least one aerodynamic element attached to the suction side or the pressure side for aerodynamically shielding the external portion of the energy distribution system , - at least one active aerodynamic device and a pneumatic actuator , - at least one aerodynamic element attached to the suction side or the pressure side for aerodynamically shielding the external portion of the energy distribution system , - at least one active aerodynamic device and a pneumatic actuator , wherein the energy distribution system is a pressure supply system activating the at least one active aerodynamic device provided on the suction side or the pressure side , the active aerodynamic device being moved by means of the pneumatic actuator fed by the pressure supply system , the pressure supply system comprising at least one external duct protruding from the suction side or the pressure side , said aerodynamic element being attached to the suction side or the pressure side for covering said external duct .
An actuating system tank comprising: a first, inner enclosure provided inside a second, outer enclosure to form an enclosed chamber between the outer surface of the wall of the first enclosure and the inner surface of the wall of the second enclosure , and wherein a first pressurized gas is provided within said first, inner enclosure ; and wherein a pressure measuring sensor is positioned relative to said chamber so as to allow the measurement of the pressure within said chamber ; characterized in that a wall of said first, inner enclosure comprises a section that is configured to perforate upon application of an impact force to said section , and wherein said tank is connectable to an actuating system to allow said first pressurized gas to flow from an exit of said first enclosure of said tank to said actuating system . a first, inner enclosure provided inside a second, outer enclosure to form an enclosed chamber between the outer surface of the wall of the first enclosure and the inner surface of the wall of the second enclosure , and wherein a first pressurized gas is provided within said first, inner enclosure ; and wherein a pressure measuring sensor is positioned relative to said chamber so as to allow the measurement of the pressure within said chamber ; characterized in that a wall of said first, inner enclosure comprises a section that is configured to perforate upon application of an impact force to said section , and wherein said tank is connectable to an actuating system to allow said first pressurized gas to flow from an exit of said first enclosure of said tank to said actuating system .
Arrangement having - a bypass switch (S1_1) for a module (1_1) of a modular multilevel converter , wherein the bypass switch (S1_1) can be driven by a propellant charge (T1_1), and - a first ignition device for igniting the propellant charge (T1_1), wherein - the first ignition device has a first light guide for supplying light energy to the propellant charge (T1_1), - the arrangement has a second ignition device for igniting the propellant charge, wherein the second ignition device comprises an electric igniter and an electrical conductor for supplying electrical energy to the electric igniter , and - the electrical conductor connects the electric igniter to an electrical energy source . - a bypass switch (S1_1) for a module (1_1) of a modular multilevel converter , wherein the bypass switch (S1_1) can be driven by a propellant charge (T1_1), and - a first ignition device for igniting the propellant charge (T1_1), wherein - the first ignition device has a first light guide for supplying light energy to the propellant charge (T1_1), - the arrangement has a second ignition device for igniting the propellant charge, wherein the second ignition device comprises an electric igniter and an electrical conductor for supplying electrical energy to the electric igniter , and - the electrical conductor connects the electric igniter to an electrical energy source .
A method for evaluating renal status in a subject, comprising: performing one or more assays configured to detect Angiopoietin-related protein 4 in a body fluid sample obtained from the subject to provide an assay result; and correlating the assay result(s) to the renal status of the subject, wherein said correlating step comprises assigning a likelihood of one or more future changes in renal status to the subject based on the assay result(s). performing one or more assays configured to detect Angiopoietin-related protein 4 in a body fluid sample obtained from the subject to provide an assay result; and correlating the assay result(s) to the renal status of the subject, wherein said correlating step comprises assigning a likelihood of one or more future changes in renal status to the subject based on the assay result(s).
Process for manufacturing a substrate for epitaxial growth of a gallium nitride (GaN), gallium aluminum nitride (AlGaN) or gallium indium nitride (InGaN) layer, comprising the following successive steps: - supply of a donor substrate of single-crystal silicon carbide, - implantation of ionic species in the donor substrate to form an embrittlement zone delimiting a thin layer of single-crystal SiC to be transferred, - bonding the donor substrate to a first recipient substrate via a bonding layer , - detachment of the donor substrate along the embrittlement zone so as to transfer the SiC thin film onto the first recipient substrate , - epitaxial growth of a semi-insulating SiC layer thicker than 1 μm on the SiC thin film , - bonding the semi-insulating SiC layer to a second receiving substrate , said second receiving substrate having a high electrical resistivity, - removal of at least a part of the bonding layer so as to detach the first receiving substrate , - removal of the transferred single-crystal SiC thin film to expose the semi-insulating SiC layer . - supply of a donor substrate of single-crystal silicon carbide, - implantation of ionic species in the donor substrate to form an embrittlement zone delimiting a thin layer of single-crystal SiC to be transferred, - bonding the donor substrate to a first recipient substrate via a bonding layer , - detachment of the donor substrate along the embrittlement zone so as to transfer the SiC thin film onto the first recipient substrate , - epitaxial growth of a semi-insulating SiC layer thicker than 1 μm on the SiC thin film , - bonding the semi-insulating SiC layer to a second receiving substrate , said second receiving substrate having a high electrical resistivity, - removal of at least a part of the bonding layer so as to detach the first receiving substrate , - removal of the transferred single-crystal SiC thin film to expose the semi-insulating SiC layer .