mhurhangee/patent-ind-claim-en huggingface dataset:
A construction machine comprising: a lower propelling body ; an upper slewing body including an upper frame which is provided on the lower propelling body so as to be revolvable; a cab supported on the upper frame of the upper slewing body; and a device provided on the upper frame , wherein the cab includes a floor plate which is provided on the upper frame and which constitutes a floor surface of the cab , a frame-shaped lower frame which extends along a peripheral edge of the floor plate and which is fixed onto the floor plate , a column standing on the lower frame , and a panel member which is supported by the lower frame and the column and which constitutes an outer surface of the cab , and the device is arranged below the floor plate such that a part of the device overlaps with a peripheral edge of the lower frame in plan view, characterized in that a floor-side projecting portion which projects upward from the floor plate is provided on the peripheral edge of the floor plate and a floor-side housing portion which opens downward and which houses the device is provided below the floor-side projecting portion , and a frame-side projecting portion which projects upward from the lower frame is provided on the lower frame and a frame-side housing portion which opens downward and which houses the floor-side projecting portion is provided below the frame-side projecting portion . a lower propelling body ; an upper slewing body including an upper frame which is provided on the lower propelling body so as to be revolvable; a cab supported on the upper frame of the upper slewing body; and a device provided on the upper frame , wherein the cab includes a floor plate which is provided on the upper frame and which constitutes a floor surface of the cab , a frame-shaped lower frame which extends along a peripheral edge of the floor plate and which is fixed onto the floor plate , a column standing on the lower frame , and a panel member which is supported by the lower frame and the column and which constitutes an outer surface of the cab , and the device is arranged below the floor plate such that a part of the device overlaps with a peripheral edge of the lower frame in plan view, characterized in that a floor-side projecting portion which projects upward from the floor plate is provided on the peripheral edge of the floor plate and a floor-side housing portion which opens downward and which houses the device is provided below the floor-side projecting portion , and a frame-side projecting portion which projects upward from the lower frame is provided on the lower frame and a frame-side housing portion which opens downward and which houses the floor-side projecting portion is provided below the frame-side projecting portion .
Dredging system of a conduit (T), or a section of it, accessible through at least a first (P1) and a second (P2) inspection channel or access passage, which connect and delimit this section of conduit to the surface (S), such a system comprising: • machines (M1, M2) for positioning a respective winch (A1, A2) along each inspection channel on the junction between each inspection channel and said conduit, • said machines being arranged on the surface above the section of the conduit, • each winch being connected with a cable (C1, C2) which at its free end is connected with a sediment collection container (S) sliding along the section of duct through these winches and which collects the sediments, • these machines (M1, M2) comprising means for moving the winches along the inspection channel and positioning them on the bottom of it substantially at the same level as the section of duct to be dredged, characterised in that the sediment collection container is shaped like a slide or like a bucket provided with a mouth for the collection during the dragging of the sediments and a closed bottom to form a "bag". • machines (M1, M2) for positioning a respective winch (A1, A2) along each inspection channel on the junction between each inspection channel and said conduit, • said machines being arranged on the surface above the section of the conduit, • each winch being connected with a cable (C1, C2) which at its free end is connected with a sediment collection container (S) sliding along the section of duct through these winches and which collects the sediments, • these machines (M1, M2) comprising means for moving the winches along the inspection channel and positioning them on the bottom of it substantially at the same level as the section of duct to be dredged,
A multi-channel decorrelator (140; 600; 1590; 1700) for providing a plurality of decorrelated signals (142, 144; 612a-612n'; 1592a-1592n; 1712a-1712n) on the basis of a plurality of decorrelator input signals (134,136; 610a-610n; 1582a-1582n; 1710a-1710n), wherein the multi-channel decorrelator is configured to premix a first set (134,136; 610a-610n; 1582a-1582n; 1710a-1710n) Ẑ of N decorrelator input signals into a second set (622a-622k; 1722a-1722k) Ẑ mix of K decorrelator input signals, wherein K<N; wherein the multi-channel decorrelator is configured to provide a first set (632a-632k'; 1732a-1732k) Z ^ mix dec of K' decorrelator output signals on the basis of the second set of K decorrelator input signals; and wherein the multi-channel decorrelator is configured to upmix the first set of K' decorrelator output signals into a second set (142,144; 612a-612n'; 1592a-1592n; 1712a-1712n) W of N' decorrelator output signals, wherein N'>K'; wherein the multi-channel decorrelator is configured to premix the first set Ẑ of N decorrelator input signals into the second set Ẑ mix of K decorrelator input signals using a premixing matrix M pre according to Z ^ mix = M pre Z ^ ; wherein the multi-channel decorrelator is configured to upmix the first set Z ^ mix dec of K' decorrelator output signals into the second set W of N' decorrelator output signals using a postmixing matrix M post according to W = M post Z ^ mix dec ; characterized in that the multi-channel decorrelator is configured to obtain the postmixing matrix M post according to M post = M pre H M pre M pre H − 1 . wherein the multi-channel decorrelator is configured to premix a first set (134,136; 610a-610n; 1582a-1582n; 1710a-1710n) Ẑ of N decorrelator input signals into a second set (622a-622k; 1722a-1722k) Ẑ mix of K decorrelator input signals, wherein K<N; wherein the multi-channel decorrelator is configured to provide a first set (632a-632k'; 1732a-1732k) Z ^ mix dec of K' decorrelator output signals on the basis of the second set of K decorrelator input signals; and wherein the multi-channel decorrelator is configured to upmix the first set of K' decorrelator output signals into a second set (142,144; 612a-612n'; 1592a-1592n; 1712a-1712n) W of N' decorrelator output signals, wherein N'>K'; wherein the multi-channel decorrelator is configured to premix the first set Ẑ of N decorrelator input signals into the second set Ẑ mix of K decorrelator input signals using a premixing matrix M pre according to Z ^ mix = M pre Z ^ ; wherein the multi-channel decorrelator is configured to upmix the first set Z ^ mix dec of K' decorrelator output signals into the second set W of N' decorrelator output signals using a postmixing matrix M post according to W = M post Z ^ mix dec ; characterized in that the multi-channel decorrelator is configured to obtain the postmixing matrix M post according to M post = M pre H M pre M pre H − 1 .
An electrically conductive adhesive comprising a) a (meth)acrylate monomer, b) a polymer being soluble in the (meth)acrylate monomer, and wherein the polymer is selected from the group consisting of poly((meth)acrylates), poly((meth)acrylate) copolymers, and a mixture thereof, c) a biocompatible metal having a median particle size d 50 of below 50 μm, and d) a polymerization initiator. a) a (meth)acrylate monomer, b) a polymer being soluble in the (meth)acrylate monomer, and wherein the polymer is selected from the group consisting of poly((meth)acrylates), poly((meth)acrylate) copolymers, and a mixture thereof, c) a biocompatible metal having a median particle size d 50 of below 50 μm, and d) a polymerization initiator.
Domestic cooking appliance comprising: - a cooking vessel arranged to hold ingredients to be cooked, - stirring means that are removable with respect to the cooking vessel and arranged to stir the ingredients contained in the cooking vessel , - a lid arranged to close a cooking space defined partially at least by the cooking vessel , - driving means arranged to drive the stirring means when said driving means are mounted on the cooking appliance, the driving means being arranged in the lid , characterised in that the stirring means comprise a part that is mobile with respect to the cooking vessel, and a part that is fixed with respect to the cooking vessel and comprising an upper crown . - a cooking vessel arranged to hold ingredients to be cooked, - stirring means that are removable with respect to the cooking vessel and arranged to stir the ingredients contained in the cooking vessel , - a lid arranged to close a cooking space defined partially at least by the cooking vessel , - driving means arranged to drive the stirring means when said driving means are mounted on the cooking appliance, the driving means being arranged in the lid , characterised in that the stirring means comprise a part that is mobile with respect to the cooking vessel, and a part that is fixed with respect to the cooking vessel and comprising an upper crown .
A screw compressor , in which a pair of intermeshing male and female screw rotors are housed in a rotor chamber formed in a casing , and a gas sucked from an intake channel is compressed by the screw rotors and discharged from a discharge channel , the screw compressor comprising: a columnar space opening at a discharge-side end region of the rotor chamber and provided with a functional end face having an opening into an intermediate pressure section, which is an empty space in the rotor chamber and isolatable from both the intake channel and the discharge channel by the screw rotors , and also having an opening into a bypass channel which is communicated with the rotor chamber and the discharge channel , wherein the bypass channel branches from said columnar space ; a piston fittingly inserted in said columnar space and brought into contact with said functional end face , to thereby separate said intermediate pressure section from said bypass channel when said piston is brought into contact with said functional end face ; and a pressure detection channel communicating with the discharge channel for allowing an area located on an opposite side of said functional end face across said piston in said columnar space to communicate with the discharge channel , wherein the piston is moved by a difference between the pressure on the functional end face side with respect to the piston and the pressure on the side opposite to the functional end face with respect to the piston , and wherein the pressure detection channel is formed on a wall side of the columnar space which is opposite to the functional end face . a columnar space opening at a discharge-side end region of the rotor chamber and provided with a functional end face having an opening into an intermediate pressure section, which is an empty space in the rotor chamber and isolatable from both the intake channel and the discharge channel by the screw rotors , and also having an opening into a bypass channel which is communicated with the rotor chamber and the discharge channel , wherein the bypass channel branches from said columnar space ; a piston fittingly inserted in said columnar space and brought into contact with said functional end face , to thereby separate said intermediate pressure section from said bypass channel when said piston is brought into contact with said functional end face ; and a pressure detection channel communicating with the discharge channel for allowing an area located on an opposite side of said functional end face across said piston in said columnar space to communicate with the discharge channel , wherein the piston is moved by a difference between the pressure on the functional end face side with respect to the piston and the pressure on the side opposite to the functional end face with respect to the piston , and wherein the pressure detection channel is formed on a wall side of the columnar space which is opposite to the functional end face .
A method for producing an image of a subject, the steps of the method comprising: a) acquiring image data of a brain of the subject that includes white matter tissue, containing white matter fibers, wherein the image data includes diffusion information; b) reconstructing from the image data, an image of the subject that depicts the white matter fibers; c) producing coordinate system information by correlating the white matter fibers in the reconstructed image with a coordinate system defined such that the white matter fibers are arranged in a substantially orthogonal grid, and wherein fiber pathways in the white matter fibers are arranged along axes defining the substantially orthogonal grid; and d) providing the reconstructed image and the produced coordinate system information to a user. a) acquiring image data of a brain of the subject that includes white matter tissue, containing white matter fibers, wherein the image data includes diffusion information; b) reconstructing from the image data, an image of the subject that depicts the white matter fibers; c) producing coordinate system information by correlating the white matter fibers in the reconstructed image with a coordinate system defined such that the white matter fibers are arranged in a substantially orthogonal grid, and wherein fiber pathways in the white matter fibers are arranged along axes defining the substantially orthogonal grid; and d) providing the reconstructed image and the produced coordinate system information to a user.
A method for transmitting a sequence of sets of data, from a communication device to an access point (20a; 20b; 20c) of a wireless communication network , through at least one radio communication channel, comprising: for each set of data, determining (S320) a value of at least one parameter to be used by the communication device for transmission of said set of data; and transmitting (S330) said set of data, through the at least one radio communication channel, according to the value of said at least one parameter; wherein for each set of data, said at least one value is determined by selecting (S322, S324, S326), according to the order of said set of data in the sequence, in a list of predetermined values of said at least one parameter, a corresponding value; and wherein the number of occurrences of each predetermined value in the list being determined according to a probability that the selection of said predetermined value leads to a transmission of a set of data with at least one quality criteria fulfilling at least one predefined condition. for each set of data, determining (S320) a value of at least one parameter to be used by the communication device for transmission of said set of data; and transmitting (S330) said set of data, through the at least one radio communication channel, according to the value of said at least one parameter; wherein for each set of data, said at least one value is determined by selecting (S322, S324, S326), according to the order of said set of data in the sequence, in a list of predetermined values of said at least one parameter, a corresponding value; and wherein the number of occurrences of each predetermined value in the list being determined according to a probability that the selection of said predetermined value leads to a transmission of a set of data with at least one quality criteria fulfilling at least one predefined condition.
Expression kit for a breast pump device for extracting breast milk from a human breast, the expression kit comprising a breast pump body having a first pressure chamber , a second pressure chamber , and a membrane portion separating the first and the second pressure chamber from each other, - wherein the first pressure chamber is configured for connection to a pressure unit for generating a pressure in the first pressure chamber , - wherein the second pressure chamber comprises a breast-receiving funnel , a milk outlet , and a milk path from the breast-receiving funnel to the milk outlet , - wherein the membrane portion is configured to form a barrier between the first and the second pressure chamber for preventing leakage of human breast milk from the second pressure chamber to the first pressure chamber , yet to allow for air exchange between the first and the second pressure chamber , and - wherein the membrane portion is hydrophobic and characterized in that the membrane portion has the shape of a solid sheet having a continuous appearance and being provided with holes which are configured for rendering the sheet permeable to air and impermeable to liquid. - wherein the first pressure chamber is configured for connection to a pressure unit for generating a pressure in the first pressure chamber , - wherein the second pressure chamber comprises a breast-receiving funnel , a milk outlet , and a milk path from the breast-receiving funnel to the milk outlet , - wherein the membrane portion is configured to form a barrier between the first and the second pressure chamber for preventing leakage of human breast milk from the second pressure chamber to the first pressure chamber , yet to allow for air exchange between the first and the second pressure chamber , and - wherein the membrane portion is hydrophobic and characterized in that the membrane portion has the shape of a solid sheet having
A case for a battery module comprising: a body having an internal space; and an end plate disposed on an end of the body , wherein the body includes a bottom plate having at least one coolant flow path through which a coolant flows, and wherein the end plate includes a coolant flow tube through which the coolant flows and at least one connection portion extending from the coolant flow tube and coupled to the at least one coolant flow path of the bottom plate , characterized in that the end plate includes a plate portion having a lattice shape on one surface thereof and an extension portion extending from the plate portion , and the coolant flow tube is connected to an end of the extension portion . a body having an internal space; and an end plate disposed on an end of the body , wherein the body includes a bottom plate having at least one coolant flow path through which a coolant flows, and wherein the end plate includes a coolant flow tube through which the coolant flows and at least one connection portion extending from the coolant flow tube and coupled to the at least one coolant flow path of the bottom plate , characterized in that the end plate includes a plate portion having a lattice shape on one surface thereof and an extension portion extending from the plate portion , and the coolant flow tube is connected to an end of the extension portion .
A method for transferring a graphene layer from a metal substrate to a second substrate comprising: a. Providing a graphene layer on said metal substrate , b. Adsorbing hydrogen atoms on said metal substrate by passing protons through said graphene layer , c. Treating said metal substrate having adsorbed hydrogen atoms thereon in such a way as to form hydrogen gas from said adsorbed hydrogen atoms, thereby detaching said graphene layer from said metal substrate , d. Transferring said graphene layer to said second substrate , and e. Optionally reusing said metal substrate in a subsequent step a. a. Providing a graphene layer on said metal substrate , b. Adsorbing hydrogen atoms on said metal substrate by passing protons through said graphene layer , c. Treating said metal substrate having adsorbed hydrogen atoms thereon in such a way as to form hydrogen gas from said adsorbed hydrogen atoms, thereby detaching said graphene layer from said metal substrate , d. Transferring said graphene layer to said second substrate , and e. Optionally reusing said metal substrate in a subsequent step a.
A management system , comprising: a measurement device configured to be operably coupled with an energy storage device for measuring two or more operating parameters of the energy storage device ; and a controller configured to determine discharge effectiveness indicators of the energy storage device from the measured operating parameters at a designated frequency, wherein the discharge effective indicator is determined as a function of incremental energy by tracking a peak in delivered incremental energy and using that as an indication of diminishing discharge effectiveness; wherein the controller is further configured to assess at least one of relative slopes or absolute values of the discharge effectiveness indicators for instantaneous detection of a deviation in one of the relative slopes or absolute values representing a threshold limit of a state-of-charge of the energy storage device , and at least one of signal an end of a discharge operation for the energy storage device or terminate the discharge operation responsive to the detection. a measurement device configured to be operably coupled with an energy storage device for measuring two or more operating parameters of the energy storage device ; and a controller configured to determine discharge effectiveness indicators of the energy storage device from the measured operating parameters at a designated frequency, wherein the discharge effective indicator is determined as a function of incremental energy by tracking a peak in delivered incremental energy and using that as an indication of diminishing discharge effectiveness; wherein the controller is further configured to assess at least one of relative slopes or absolute values of the discharge effectiveness indicators for instantaneous detection of a deviation in one of the relative slopes or absolute values representing a threshold limit of a state-of-charge of the energy storage device , and at least one of signal an end of a discharge operation for the energy storage device or terminate the discharge operation responsive to the detection.
A liquid composition comprising a proteinaceous neurotoxin, a surfactant, an amino acid selected from tryptophan and tyrosine, a buffer comprising sodium, chloride and phosphate ions, wherein said liquid composition has a pH between 5.5 and 8, wherein said composition is free of animal derived proteins, and wherein said liquid composition is stable for 2 months at 2-8 °C. wherein said liquid composition has a pH between 5.5 and 8, wherein said composition is free of animal derived proteins, and wherein said liquid composition is stable for 2 months at 2-8 °C.
A bacterial composition comprising at least one Microbacterium strain, said composition having a plant-growth promoting effect upon administration to seeds, seedlings and plants, wherein the Microbacterium strain is chosen from the strains EC6, EC8, EC19, W283, EC6, W211, W219, W236, W269, or any other strain with a genetic correspondence with Microbacterium sp. EC8 as based on 16S rRNA gene of at least 96%.