mhurhangee/ep-ind-claims huggingface dataset:
Method and device for synchronous determination of the proportion of molecular oxygen in a respiratory gas, for example in lung function diagnostics, comprising the steps - introduction of the respiratory gas into a measurement tube via one end of the measurement tube; - transmitting a sound signal by means of a sound transmitter and receiving the sound signal by means of a sound receiver - defining a sound measurement section by means of the sound transmitter and the sound receiver, determining the average molar mass of the respiratory gas by means of the sound propagation time measured over the sound measurement section, the sound measurement section being passed through a total of two times in mutually opposite directions. - determination of the carbon dioxide proportion of the respiratory gas with a carbon dioxide gas sensor. characterised in that - the determination of the proportion of molecular oxygen in the respiratory gas is performed by means of difference formation from the determined mean molar mass of the respiratory gas and from the determined carbon dioxide proportion according to the formula c M O 2 = k 1 M r e s p i r a t o r y gas − k 2 ∗ c M C O 2 − k 3 wherein c M O 2 is the proportion of molecular oxygen in the respiratory gas, M respiratory gas is the average molar mass of the respiratory gas, and c M CO 2 is the proportion of carbon dioxide in the respiratory gas and k 1, k 2 and k 3 are dimensioned constants, and - the sound measurement section extends parallel to a flow direction in the measurement tube, and - the respiratory gas is exhausted via the other end of the measurement tube. - introduction of the respiratory gas into a measurement tube via one end of the measurement tube; - transmitting a sound signal by means of a sound transmitter and receiving the sound signal by means of a sound receiver - defining a sound measurement section by means of the sound transmitter and the sound receiver, determining the average molar mass of the respiratory gas by means of the sound propagation time measured over the sound measurement section, the sound measurement section being passed through a total of two times in mutually opposite directions. - determination of the carbon dioxide proportion of the respiratory gas with a carbon dioxide gas sensor. - the determination of the proportion of molecular oxygen in the respiratory gas is performed by means of difference formation from the determined mean molar mass of the respiratory gas and from the determined carbon dioxide proportion according to the formula c M O 2 = k 1 M r e s p i r a t o r y gas − k 2 ∗ c M C O 2 − k 3 wherein c M O 2 is the proportion of molecular oxygen in the respiratory gas, M respiratory gas is the average molar mass of the respiratory gas, and c M CO 2 is the proportion of carbon dioxide in the respiratory gas and k 1, k 2 and k 3 are dimensioned constants, and - the sound measurement section extends parallel to a flow direction in the measurement tube, and - the respiratory gas is exhausted via the other end of the measurement tube.
Method for identifying the statistical distribution of protein stoichiometry in cells, comprising the steps of: a) culturing the cells in a suitable medium, b) incubating the cells with a first unit which comprises a molecule for specific binding to a protein as well as at least one chemically coupled molecule for attachment to a second unit, wherein the second unit comprises a surface-modified nanoparticle having a surface coating comprising at least one molecule for attachment to the first unit, wherein the molecule for specific binding is formed from a peptide sequence consisting of not more than 60 amino acids, is formed from an RNA or DNA sequence consisting of not more than 70 nucleotides, or is a chemical molecule, the molecular weight of which is not more than 12 kDa, in the suitable medium, c) washing the cells, d) chemically or thermally fixing the cells, e) incubating the fixed cells with the second unit, wherein the second unit is situated in a suitable medium, f) washing the cells, g) capturing electron-microscope images by means of an electron microscope, h) statistical evaluation of the images as to whether the proteins labelled with nanoparticles are present individually or in a protein complex. a) culturing the cells in a suitable medium, b) incubating the cells with a first unit which comprises a molecule for specific binding to a protein as well as at least one chemically coupled molecule for attachment to a second unit, wherein the second unit comprises a surface-modified nanoparticle having a surface coating comprising at least one molecule for attachment to the first unit, wherein the molecule for specific binding is formed from a peptide sequence consisting of not more than 60 amino acids, is formed from an RNA or DNA sequence consisting of not more than 70 nucleotides, or is a chemical molecule, the molecular weight of which is not more than 12 kDa, in the suitable medium, c) washing the cells, d) chemically or thermally fixing the cells, e) incubating the fixed cells with the second unit, wherein the second unit is situated in a suitable medium, f) washing the cells, g) capturing electron-microscope images by means of an electron microscope, h) statistical evaluation of the images as to whether the proteins labelled with nanoparticles are present individually or in a protein complex.
An apparatus (660, 901) arranged for showing direction of one or more sound sources around the apparatus (660, 901), the apparatus (660, 901) comprising: means for determining, using signals (120, 940) captured from two or more microphones (110, 945) configured to detect an acoustic signal from the one or more sound sources (131, 593, 693, 793), one or more directions (520, 620, 720, 820) of the one or more sound sources (131, 593, 693, 793) relative to a position of at least one of the two or more microphones (110, 945); and means for modifying at least one user interface element (510, 610, 710, 810) currently displayed on a user interface of a display (690, 960) of the apparatus (660, 901) to provide an indication at least in part of the one or more determined directions (520, 620, 720, 820),said at least one user interface element (510, 610, 710, 810) being used for performing operation at the apparatus (660, 901) through user input. means for determining, using signals (120, 940) captured from two or more microphones (110, 945) configured to detect an acoustic signal from the one or more sound sources (131, 593, 693, 793), one or more directions (520, 620, 720, 820) of the one or more sound sources (131, 593, 693, 793) relative to a position of at least one of the two or more microphones (110, 945); and means for modifying at least one user interface element (510, 610, 710, 810) currently displayed on a user interface of a display (690, 960) of the apparatus (660, 901) to provide an indication at least in part of the one or more determined directions (520, 620, 720, 820),said at least one user interface element (510, 610, 710, 810) being used for performing operation at the apparatus (660, 901) through user input.
A method for manufacturing a cut resistant fabric, in which method a cut resistant fabric is manufactured according to the following steps: - supplying protective yarn and a first additional yarn to a circular knitting machine for forming a fabric, wherein said first additional yarn is supplied with each protective yarn through a same feeder of the circular knitting machine, - using polyethene yarn with a thickness of 50 - 225 dtex, preferably 100 - 120 dtex, as said protective yarn and uncoated elastane yarn with a thickness of 20 - 80 dtex, preferably 30 - 78 dtex, as the first additional yarn, - forming the fabric from the supplied protective yarn and the first additional yarn as single-jersey knits, characterised in that the method comprises - supplying separately the first additional yarn and the protective yarn to a circular knitting machine both at a selected tension each through a separate yarn carrier to the same feeder needle, with the tension of the first additional yarn being higher than that of the protective yarn for compressing the final fabric, and - finishing the fabric in a heat treatment step for stabilising the fabric by interlocking the protective yarn and the first additional yarn in each single-jersey knit using the heat treatment on a stenter frame. - supplying protective yarn and a first additional yarn to a circular knitting machine for forming a fabric, wherein said first additional yarn is supplied with each protective yarn through a same feeder of the circular knitting machine, - using polyethene yarn with a thickness of 50 - 225 dtex, preferably 100 - 120 dtex, as said protective yarn and uncoated elastane yarn with a thickness of 20 - 80 dtex, preferably 30 - 78 dtex, as the first additional yarn, - forming the fabric from the supplied protective yarn and the first additional yarn as single-jersey knits, - supplying separately the first additional yarn and the protective yarn to a circular knitting machine both at a selected tension each through a separate yarn carrier to the same feeder needle, with the tension of the first additional yarn being higher than that of the protective yarn for compressing the final fabric, and - finishing the fabric in a heat treatment step for stabilising the fabric by interlocking the protective yarn and the first additional yarn in each single-jersey knit using the heat treatment on a stenter frame.
A check valve comprising: a housing; a fluid passage extending through the housing; a seat disposed in the fluid passage; a valve member positioned in the passage to engage the seat and control fluid flow through the fluid passage; and a stop extending through the housing to engage the valve member, the stop comprising: a rod having a first end terminating outside of the housing, a second end terminating in the fluid passage, and a channel within the rod; wherein the stop is accessible from outside the housing to adjust a distance between the second end of the rod and the valve member to thereby adjust a distance the valve member can travel from the seat, characterised in that the stop further comprises: a pump valve disposed within the channel within the rod to control fluid flow through the channel. a housing; a fluid passage extending through the housing; a seat disposed in the fluid passage; a valve member positioned in the passage to engage the seat and control fluid flow through the fluid passage; and a stop extending through the housing to engage the valve member, the stop comprising: a rod having a first end terminating outside of the housing, a second end terminating in the fluid passage, and a channel within the rod; wherein the stop is accessible from outside the housing to adjust a distance between the second end of the rod and the valve member to thereby adjust a distance the valve member can travel from the seat, a rod having a first end terminating outside of the housing, a second end terminating in the fluid passage, and a channel within the rod; wherein the stop is accessible from outside the housing to adjust a distance between the second end of the rod and the valve member to thereby adjust a distance the valve member can travel from the seat, characterised in that the stop further comprises: a pump valve disposed within the channel within the rod to control fluid flow through the channel.
A spacer profile that is adapted to be used in a spacer frame of an insulating glass unit for door, window or facade elements, the insulating glass unit comprising panes (51, 52) having an intervening space defined between the panes (51, 52), the spacer profile comprising a hollow profile body made of a first synthetic material comprising a chamber for accommodating hygroscopic material, the hollow profile body - extending in a longitudinal direction, - comprising an inner wall, which is adapted to face the intervening space between the panes (51, 52) of the insulating glass unit in an assembled state of the insulating glass unit, - comprising an outer wall on the opposite side of the inner wall in a height direction, the height direction being perpendicular to the longitudinal direction, and - comprising, in a lateral direction that is perpendicular to the longitudinal direction and the height direction, a first side wall and a second side wall on the opposite side of the first side wall, wherein the inner wall and the outer wall and the first and second side walls (16, 18) are connected for forming the chamber, and a diffusion-resistant diffusion barrier portion forming at least partly a diffusion barrier, characterized in that the diffusion barrier portion is made of a second synthetic material to which sheet silicate is added and is formed as at least a part of the outer wall. - extending in a longitudinal direction, - comprising an inner wall, which is adapted to face the intervening space between the panes (51, 52) of the insulating glass unit in an assembled state of the insulating glass unit, - comprising an outer wall on the opposite side of the inner wall in a height direction, the height direction being perpendicular to the longitudinal direction, and - comprising, in a lateral direction that is perpendicular to the longitudinal direction and the height direction, a first side wall and a second side wall on the opposite side of the first side wall, wherein the inner wall and the outer wall and the first and second side walls (16, 18) are connected for forming the chamber, and a diffusion-resistant diffusion barrier portion forming at least partly a diffusion barrier, characterized in that the diffusion barrier portion is made of a second synthetic material to which sheet silicate is added and is formed as at least a part of the outer wall.
A cutting tool comprising: a first blade; a second blade pivotally coupled to the first blade at a pivot point, wherein the first blade and the second blade together perform a cutting action on an object placed therebetween; a first handle operatively coupled to the first blade; a second handle operatively coupled to the second blade; wherein the first handle is pivotally coupled to the second handle at the pivot point; a cable disposed within at least one of the first handle and the second handle; and a drive unit including a motor, a gearbox, a wind, a clutch, a printed circuit board assembly (PCBA) and a battery, wherein the drive unit operatively coupled to at least one of the first blade and the second blade and configured to selectively provide a supplemental motor force to assist a movement of at least one of the first blade and the second blade to perform the cutting action, wherein the cable is connected to the drive unit, characterized in that: the cable is a signal transferring cable or an electrical energy transferring cable; the cable is fully enclosed by the first handle and the second handle, and at least one of the first handle and the second handle comprises a channel (136, 142), wherein the cable is at least partially disposed in the channel (136, 142) and wherein at least one of the first blade and the second blade delimits the channel (136, 142). a first blade; a second blade pivotally coupled to the first blade at a pivot point, wherein the first blade and the second blade together perform a cutting action on an object placed therebetween; a first handle operatively coupled to the first blade; a second handle operatively coupled to the second blade; wherein the first handle is pivotally coupled to the second handle at the pivot point; a cable disposed within at least one of the first handle and the second handle; and a drive unit including a motor, a gearbox, a wind, a clutch, a printed circuit board assembly (PCBA) and a battery, wherein the drive unit operatively coupled to at least one of the first blade and the second blade and configured to selectively provide a supplemental motor force to assist a movement of at least one of the first blade and the second blade to perform the cutting action, wherein the cable is connected to the drive unit, characterized in that: the cable is a signal transferring cable or an electrical energy transferring cable; the cable is fully enclosed by the first handle and the second handle, and the cable is a signal transferring cable or an electrical energy transferring cable; the cable is fully enclosed by the first handle and the second handle, and at least one of the first handle and the second handle comprises a channel (136, 142), wherein the cable is at least partially disposed in the channel (136, 142) and wherein at least one of the first blade and the second blade delimits the channel (136, 142).
Laser welding method for connecting a PVC-free tube segment with a tubular shaped body, wherein the tube wall of the tube segment is composed of at least two material layers (302, 307) different from each other and one of these layers contains at least in parts an absorber for laser radiation in a concentration of 50-300 ppm and the layer thickness of the absorber-containing layer is 20 to 100 μm, the material for the absorber-containing layer is selected from polyolefins, polyethylene, polypropylene, polyisoprene, styrene-olefin block copolymers, SEBS, SEPS, SIS, SEB and mixtures thereof, and the material of the absorber-free layer is selected from polyethylene, polypropylene, polyisoprene, styrene-ethylene-butadiene-styrene block copolymers (SEBS), styrene-ethylene-propylene-styrene block copolymers (SEPS), styrene-isoprene-styrene copolymers, styrene-ethylene-butadiene copolymers and mixtures thereof, wherein in the method a) the PVC-free tube segment and the tubular shaped body are provided, b) the tube segment and the tubular shaped body are pushed into one another in a form-fitting manner, so that surface regions of the tube segment and the tubular shaped body overlap, c) a first, substantially semicylindrical segment of the overlapping surface areas is irradiated with laser radiation of a defined wavelength, d) the laser radiation is attenuated to 90-50% of the original energy by absorption in the absorber-containing layer to form a welded joint in the first segment, e) the attenuated laser radiation hits a second, substantially semi-cylindrical segment of the overlapping surface area to form a welded joint in the second segment. a) the PVC-free tube segment and the tubular shaped body are provided, b) the tube segment and the tubular shaped body are pushed into one another in a form-fitting manner, so that surface regions of the tube segment and the tubular shaped body overlap, c) a first, substantially semicylindrical segment of the overlapping surface areas is irradiated with laser radiation of a defined wavelength, d) the laser radiation is attenuated to 90-50% of the original energy by absorption in the absorber-containing layer to form a welded joint in the first segment, e) the attenuated laser radiation hits a second, substantially semi-cylindrical segment of the overlapping surface area to form a welded joint in the second segment.
A nutritional composition comprising lipid, wherein the lipid is present in the form of lipid globules, said lipid globules comprising a core comprising triglycerides derived from vegetable origin and a surface layer comprising cholesterol and phospholipids, for use in feeding a human subject having an age of 0 to 36 months, for use in a) reducing blood cholesterol levels, and/or b) reducing levels of blood LDL and/or VLDL, when said human subject has reached an age above 36 months. a) reducing blood cholesterol levels, and/or b) reducing levels of blood LDL and/or VLDL,
Hammering device meant for hammering poles, profiles and other elongated objects into the ground which hammering device comprises a body which can be attached to a working machine, one or more moveable pair of jaws which is attached to the body in order to grip the object to be hammered at least with a side grip wherein the jaws (7, 2) of the pair of jaws can be brought closer or brought farther away from each other with the help of a regulating unit, such as a hydraulic cylinder and the object to be hammered can be pressed between the mentioned jaws (7, 2) and which device further comprises at least two vibrator devices in order to create impacts which can be directed to the object to be hammered and that both jaws (7, 2) of the pair of jaws comprise their own vibrator device the rotations of which vibrator device are synchronized with each other, characterized in that both jaws comprise a jaw arm and attached at its end a gripping head which is attached at the end of the jaw arm with the help of a slide rail or with the help of a bearing with a linear direction, wherein the vibrator devices are located at the mentioned gripping heads.
A target object detection system comprising: - a first detector comprising at least a first passive magnetic sensor configured to generate a first signal indicative of an intensity of a detected magnetic field, - a second detector distinct from the first detector and comprising at least one second passive magnetic sensor configured to generate a second signal indicative of an intensity of a detected magnetic field, and - a processing unit configured to receive the first signal generated by the first passive magnetic sensor and the second signal generated by the second passive magnetic sensor, and at least one communication interface, said interface being configured to transmit the first and/or second signal to the processing unit, the detection system being characterised in that the processing unit is configured to determine an average value of the first signal and of the second signal, to compare said determined average value with a predetermined threshold value and, when said average value is greater than the predetermined threshold value, to send instructions for generating an alarm. - a first detector comprising at least a first passive magnetic sensor configured to generate a first signal indicative of an intensity of a detected magnetic field, - a second detector distinct from the first detector and comprising at least one second passive magnetic sensor configured to generate a second signal indicative of an intensity of a detected magnetic field, and - a processing unit configured to receive the first signal generated by the first passive magnetic sensor and the second signal generated by the second passive magnetic sensor, and at least one communication interface, said interface being configured to transmit the first and/or second signal to the processing unit, the detection system being characterised in that the processing unit is configured to determine an average value of the first signal and of the second signal, to compare said determined average value with a predetermined threshold value and, when said average value is greater than the predetermined threshold value, to send instructions for generating an alarm.
A method for controlling the stability of a tension leg platform structure by controlling tension in mooring lines, the tension leg platform structure having a buoyancy structure including one or more water tanks and the buoyancy structure providing excess buoyancy, the method comprising varying the mass and/or the centre of gravity of the tension leg platform structure by varying the quantity of water in one or more of the water tanks.