mhurhangee/patent-ind-claim-en huggingface dataset:
An additive manufacturing process comprising: defining a fixed work surface and housing at least partially surrounding the fixed work surface ; depositing material within the housing ; directing energy on portions of the deposited material according to a defined part geometry; moving the housing vertically relative to the fixed work surface by a single powder layer thickness to maintain a vertical spacing between the housing and the part during fabrication, wherein the fixed work surface is part of a fixed platform mounted to a fixed rigid base ; and moving the housing with a plurality of actuators attached to the platform and fixed relative to the work surface ; wherein the housing includes a plurality of walls that are engaged to the plurality of actuators , the walls and housing being movable upward relative to the platform , such that the walls and platform define a chamber that varies size during part fabrication, characterised in that the shape and number of walls are varied as appropriate to the configuration of the part . defining a fixed work surface and housing at least partially surrounding the fixed work surface ; depositing material within the housing ; directing energy on portions of the deposited material according to a defined part geometry; moving the housing vertically relative to the fixed work surface by a single powder layer thickness to maintain a vertical spacing between the housing and the part during fabrication, wherein the fixed work surface is part of a fixed platform mounted to a fixed rigid base ; and moving the housing with a plurality of actuators attached to the platform and fixed relative to the work surface ; wherein the housing includes a plurality of walls that are engaged to the plurality of actuators , the walls and housing being movable upward relative to the platform , such that the walls and platform define a chamber that varies size during part fabrication, characterised in that the shape and number of walls are varied as appropriate to the configuration of the part .
An organosilicon compound having the structural formula : wherein Z is a divalent silicon-containing organic group, and wherein R 1 is each independently a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, R 2 is each independently a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, and m is a number of 1 to 3, n is an integer of at least 2. wherein Z is a divalent silicon-containing organic group, and wherein R 1 is each independently a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, R 2 is each independently a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, and m is a number of 1 to 3, n is an integer of at least 2.
A polysiloxane, comprising at least one segment selected from a molecular structure shown by formula 1, wherein in formula 1, T is a hydroxyl, an alkyl, an alkyl containing an alcoholic hydroxyl and having less than 12 carbon atoms in the main chain, or an alkyl containing an alcoholic hydroxyl and having less than 12 non-hydrogen atoms in the main chain and containing a heteroatom, characterized in that Q is a structural segment shown by formula 2, wherein in formula 2, X is an alkyl having less than 7 carbon atoms, or an alkyl having less than 7 non-hydrogen atoms in the main chain and containing a heteroatom; R 1 , R 2 , and R 3 are each independently a hydrogen atom, or a substituent having less than 3 carbon atoms, or the R 2 binds to a carbon atom on the X to form a cyclic substituent.
A computer-implemented method, comprising: receiving previous arterial blood gas, ABG, test results for a neonate; determining an initial time for a next ABG test for the neonate based on the previous ABG test results and a set of rules defining subsequent treatment of the neonate; receiving monitoring data for the neonate; determining a modified time for a next ABG test based on the initial time for the next ABG test and the neonate monitoring data; and deriving neonate oxygenation parameters based on the monitoring data, wherein the modified time for the next ABG test is determined based on the initial time for the next ABG test and the neonate oxygenation parameters; wherein determining the modified time for the next ABG test comprises delaying the next ABG test if the monitoring data indicates that a condition of the neonate has not deteriorated; and wherein determining the modified time for the next ABG test comprises accelerating the next ABG test if the monitoring data indicates that a condition of the neonate has deteriorated. receiving previous arterial blood gas, ABG, test results for a neonate; determining an initial time for a next ABG test for the neonate based on the previous ABG test results and a set of rules defining subsequent treatment of the neonate; receiving monitoring data for the neonate; determining a modified time for a next ABG test based on the initial time for the next ABG test and the neonate monitoring data; and deriving neonate oxygenation parameters based on the monitoring data, wherein the modified time for the next ABG test is determined based on the initial time for the next ABG test and the neonate oxygenation parameters; wherein determining the modified time for the next ABG test comprises delaying the next ABG test if the monitoring data indicates that a condition of the neonate has not deteriorated; and wherein determining the modified time for the next ABG test comprises accelerating the next ABG test if the monitoring data indicates that a condition of the neonate has deteriorated.
Lattice structure for a tower of a wind power installation, comprising - at least three corner posts which are mutually inclined at an angle in relation to the vertical (V) of the lattice structure , wherein the corner posts in the lower part of the lattice structure are further spaced apart from one another than in the upper part of the lattice structure , wherein each corner post is assembled from a plurality of longitudinal struts , - at least one cross strut which is disposed in a horizontal plane (E1, E2) of the lattice structure between two corner posts and is connected to the latter, and/or - at least one diagonal strut which is disposed between two horizontal planes (E1, E2) of the lattice structure between two corner posts and is connected to the latter, - at least three node elements which are disposed in at least one horizontal plane (E1, E2) of the lattice structure , in each case between the longitudinal struts forming the corner posts , and in each case function as a connecting element between two longitudinal struts , the at least one cross strut , and/or at least one diagonal strut , characterized in that the node element in the longitudinal extent on the ends thereof has in each case one flange with passage openings (4.1, 5.1), and the two longitudinal struts which at the ends thereof are to be connected to the node element have in each case one flange (20.1) with passage openings, wherein joining element by way of which the node element is mechanically connected to the longitudinal struts are received by way of or in the passage openings (4.1, 5.1), wherein the node element is manufactured from a plurality of parts , wherein one part is integrally manufactured in the form of a shell part and comprises at least one attachment element (1.1, 1.2, 1.3) which runs radially outwards, wherein the shell part comprises two longitudinal edges (1.4) by way of which at least one further part in the form of a shell part having two longitudinal edges (2.1) is connected in a materially integral manner, wherein the two shell parts in the connected state form a hollow section. - at least three corner posts which are mutually inclined at an angle in relation to the vertical (V) of the lattice structure , wherein the corner posts in the lower part of the lattice structure are further spaced apart from one another than in the upper part of the lattice structure , wherein each corner post is assembled from a plurality of longitudinal struts , - at least one cross strut which is disposed in a horizontal plane (E1, E2) of the lattice structure between two corner posts and is connected to the latter, and/or - at least one diagonal strut which is disposed between two horizontal planes (E1, E2) of the lattice structure between two corner posts and is connected to the latter, - at least three node elements which are disposed in at least one horizontal plane (E1, E2) of the lattice structure , in each case between the longitudinal struts forming the corner posts , and in each case function as a connecting element between two longitudinal struts , the at least one cross strut , and/or at least one diagonal strut ,
A paint composition comprising a) an aqueous dispersion of 1) acrylic or styrene-acrylic polymer particles having an average particle size in the range of from 75 nm to 350 nm, and 2) crosslinked polymer beads having an average particle size in the range of from 1 μm to 30 μm; wherein the acrylic or styrene-acrylic polymer particles comprise from 0.1 to 12 weight percent structural units of a monomer containing a ketone or aldehyde group, based on the weight of the acrylic or styrene-acrylic polymer particles; and the crosslinked polymer beads comprise 0.05 to 12 weight percent structural units of a monomer containing a ketone or aldehyde group based on the weight of the crosslinked polymer beads; and wherein the weight to weight ratio of acrylic or styrene-acrylic polymer particles to crosslinked polymer beads is in the range of 1:10 to 10:1; and b) from 0.1 to 10 weight percent of a dihydrazide or a polyamine crosslinking agent, based on the weight of the paint composition. a) an aqueous dispersion of 1) acrylic or styrene-acrylic polymer particles having an average particle size in the range of from 75 nm to 350 nm, and 2) crosslinked polymer beads having an average particle size in the range of from 1 μm to 30 μm; wherein the acrylic or styrene-acrylic polymer particles comprise from 0.1 to 12 weight percent structural units of a monomer containing a ketone or aldehyde group, based on the weight of the acrylic or styrene-acrylic polymer particles; and the crosslinked polymer beads comprise 0.05 to 12 weight percent structural units of a monomer containing a ketone or aldehyde group based on the weight of the crosslinked polymer beads; and wherein the weight to weight ratio of acrylic or styrene-acrylic polymer particles to crosslinked polymer beads is in the range of 1:10 to 10:1; and 1) acrylic or styrene-acrylic polymer particles having an average particle size in the range of from 75 nm to 350 nm, and 2) crosslinked polymer beads having an average particle size in the range of from 1 μm to 30 μm; b) from 0.1 to 10 weight percent of a dihydrazide or a polyamine crosslinking agent, based on the weight of the paint composition.
Puncture device that is arranged for being advanced to a puncture site through the human vasculature, the puncture device comprising: - a puncture means , the puncture means comprising a distal end that is arranged for creating a puncture in a patient's tissue, - a sheath , the sheath being arranged so as to surround the puncture means , the puncture means being slidably arranged inside the sheath , - a tissue expansion means , the tissue expansion means being arranged so that it can be selectively activated, wherein in the activated state, the tissue expansion means pushes away the patient's tissue to thereby allow a re-orientation of the puncture means , the tissue expansion means being arranged so as to expand when heated above a threshold temperature to thereby push away tissue, the tissue expansion means comprising a shape memory alloy. - a puncture means , the puncture means comprising a distal end that is arranged for creating a puncture in a patient's tissue, - a sheath , the sheath being arranged so as to surround the puncture means , the puncture means being slidably arranged inside the sheath , - a tissue expansion means , the tissue expansion means being arranged so that it can be selectively activated, wherein in the activated state, the tissue expansion means pushes away the patient's tissue to thereby allow a re-orientation of the puncture means , the tissue expansion means being arranged so as to expand when heated above a threshold temperature to thereby push away tissue, the tissue expansion means comprising a shape memory alloy.
A horological oscillator (100; 300) comprising: - a spiral spring , and - an oscillating member (5; 205) comprising at least one weight (4; 12; 204)the configuration of which can be modified so as to modify the moment of inertia of the member, the weight being arranged such that the configuration of the weight can be (i) modified actively or in a controlled manner while the member is moving or stopped,and (ii) carried out on the basis of: - determining a current frequency of the movement of the member or an average frequency of the movement over a period, notably over a sliding period; and - comparing the determined frequency to a reference frequency; and/or - a frequency deviation between the determined frequency and a reference frequency, the weight being, for example, made of piezoelectric material or of magnetostrictive material and/or the weight being, for example, arranged so as to occupy a first stable position defining a first moment of inertia of the member or a second stable position defining a second moment of inertia of the member, the oscillator comprising: - an element for determining a current frequency of the movement of the member or an average frequency of the movement over a period, notably over a sliding period; and - an element for comparing the determined frequency to a reference frequency; and - an element for modifying the inertia of the member, the modification element being able to be activated with the member being in motion or stopped. - a spiral spring , and - an oscillating member (5; 205) comprising at least one weight (4; 12; 204)the configuration of which can be modified so as to modify the moment of inertia of the member, - determining a current frequency of the movement of the member or an average frequency of the movement over a period, notably over a sliding period; and - comparing the determined frequency to a reference frequency; and/or - a frequency deviation between the determined frequency and a reference frequency, - an element for determining a current frequency of the movement of the member or an average frequency of the movement over a period, notably over a sliding period; and - an element for comparing the determined frequency to a reference frequency; and - an element for modifying the inertia of the member, the modification element being able to be activated with the member being in motion or stopped.
A carbon material for a non-aqueous secondary battery, comprising a graphite capable of occluding and releasing lithium ions, the carbon material having a cumulative pore volume at pore diameters in a range of 0.01 μm to 1 μm of 0.08 mL/g or more, a roundness, as determined by flow-type particle image analysis, of 0.88 or greater, and a pore diameter to particle diameter ratio (PD/d50 (%)) of 1.8 or less, the ratio being given by equation : PD / d 50 % = mode pore diameter PD in a pore diameter range of 0.01 μ m to 1 μ m in a pore distribution determined by mercury intrusion / volume-based average particle diameter d 50 × 100 wherein the carbon material is a spheroidized graphite made of flake graphite, crystalline graphite, and vein graphite and has a half width at half maximum of pore distribution (log (nm)) of 0.45 or greater, the half width at half maximum of pore distribution (log (nm)) referring to a half width at half maximum at a micropore side of a peak in a pore diameter range of 0.01 μm to 1 μm in a pore distribution (nm), as determined by mercury intrusion (mercury porosimetry), of the carbon material for a non-aqueous secondary battery, with a horizontal axis expressed in common logarithm (log (nm)).
A measuring assembly for attachment to a container , comprising at least one measuring sensor , a transmission device , a power supply unit and a fastening device for fastening the measuring assembly to the container , characterized in that the fastening device is configured as a clamping device and comprises an activation device , wherein the activation device can be mechanically actuated and is configured such that the activation device can be actuated by clamping the measuring assembly to the container .
A vibration damper for vehicles, comprising a damper tube which is at least partially filled with damper medium and which has a longitudinal axis (L) along which a piston rod is movable back and forth, wherein a working piston is movable jointly with the piston rod , by means of which working piston the interior space of the damper tube is divided into a piston-rod-side working space and a piston-rod-remote working space, wherein the damper tube has an outer wall, wherein the vibration damper has at least one leakage indicator for the damper medium, wherein the at least one leakage indicator is at least partially covered by at least one protective element characterized in that the at least one leakage indicator comprises at least one indicator reaction composition for reaction with the damper medium upon contact therewith. a damper tube which is at least partially filled with damper medium and which has a longitudinal axis (L) along which a piston rod is movable back and forth, wherein a working piston is movable jointly with the piston rod , by means of which working piston the interior space of the damper tube is divided into a piston-rod-side working space and a piston-rod-remote working space, wherein the damper tube has an outer wall, wherein the vibration damper has at least one leakage indicator for the damper medium, wherein the at least one leakage indicator is at least partially covered by at least one protective element characterized in that the at least one leakage indicator comprises at least one indicator reaction composition for reaction with the damper medium upon contact therewith.
A core drill bit comprising: an abrasive tip , wherein the abrasive tip comprises a first region and a second region , wherein the first region comprises abrasive grains within a first bond matrix and a first bond matrix concentration of at least 90% and not greater than 99% for a total weight of the first region , wherein the second region comprises abrasive grains within a second bond matrix, and wherein a composition of the first bond matrix is different from a composition of the second bond matrix; a drill body ; and a central opening extending through the first region , the second region , and the drill body . an abrasive tip , wherein the abrasive tip comprises a first region and a second region , wherein the first region comprises abrasive grains within a first bond matrix and a first bond matrix concentration of at least 90% and not greater than 99% for a total weight of the first region , wherein the second region comprises abrasive grains within a second bond matrix, and wherein a composition of the first bond matrix is different from a composition of the second bond matrix; a drill body ; and a central opening extending through the first region , the second region , and the drill body .
A percussive drill bit comprising: a head having cutting elements to abrade rock by rotation of the drill bit about its longitudinal axis ; a skirt extending axially rearward from the head ; a plurality of ribs projecting radially outward and extending axially along the skirt to define axially extending channels , the rib and channels each having a length extending axially in a direction between the head and an axially rearward end of the skirt ; in the lengthwise direction at least a part of the ribs and channels are bent or curved such that the lengthwise part of the ribs or channels is oblique to the longitudinal axis wherein each rib comprises a leading face and a trailing face separated by a radially outward facing land face , the leading and trailing faces at least partial defining the channels ; characterised in that : at a cross sectional plane perpendicular to the longitudinal axis, the leading face is aligned generally normal to the rotational direction (R) of the bit about the axis . a head having cutting elements to abrade rock by rotation of the drill bit about its longitudinal axis ; a skirt extending axially rearward from the head ; a plurality of ribs projecting radially outward and extending axially along the skirt to define axially extending channels , the rib and channels each having a length extending axially in a direction between the head and an axially rearward end of the skirt ; in the lengthwise direction at least a part of the ribs and channels are bent or curved such that the lengthwise part of the ribs or channels is oblique to the longitudinal axis wherein each rib comprises a leading face and a trailing face separated by a radially outward facing land face , the leading and trailing faces at least partial defining the channels ; characterised in that : at a cross sectional plane perpendicular to the longitudinal axis, the leading face is aligned generally normal to the rotational direction (R) of the bit about the axis .
A fabric comprising the thread systems warp and weft, wherein at least one thread system comprises a reinforcing yarn and a polyolefin yarn, characterized in that the warp or weft threads of the reinforcing yarn and the polyolefin yarn are arranged alternately and that the polyolefin yarn has a linear density between 89 tex (800 den) and 167 tex (1500 den) and the reinforcing yarn has a linear density between 311 tex (2800 den) and 422 tex (3800 den).
A turbomachine comprising a lubrication circuit with an oil tank , the oil tank comprising: - a chamber for containing the oil; - an inlet and an outlet allowing the oil to enter and exit the chamber respectively; and - sensors , arranged in the chamber , in the inlet and/or the outlet ; the sensors including a sensor for measuring the electrical resistance of the oil, a temperature sensor for measuring oil temperature, and a sensor for detecting the amount of ferromagnetic debris in the oil, the turbomachine comprising a computing unit receiving the data measured by the sensors , wherein the computing unit determines on the basis of the measurements of the sensors , at least one of the following: oil quality (q), oil level (n), oil pollution rate (tp), or oil mass (m), the turbomachine being characterized in that it further comprises a blower and a rotational speed sensor (N) for detecting the speed of the blower , which communicates its measurements to the computing unit , the latter determining the remaining operating time (dt) of the turbomachine before running out of oil, based on the rotational speed (N) and the oil mass (m). - a chamber for containing the oil; - an inlet and an outlet allowing the oil to enter and exit the chamber respectively; and - sensors , arranged in the chamber , in the inlet and/or the outlet ; the sensors including a sensor for measuring the electrical resistance of the oil, a temperature sensor for measuring oil temperature, and a sensor for detecting the amount of ferromagnetic debris in the oil, the turbomachine comprising a computing unit receiving the data measured by the sensors , wherein the computing unit determines on the basis of the measurements of the sensors , at least one of the following: oil quality (q), oil level (n), oil pollution rate (tp), or oil mass (m), the turbomachine being characterized in that it further comprises a blower and a rotational speed sensor (N) for detecting the speed of the blower , which communicates its measurements to the computing unit , the latter determining the remaining operating time (dt) of the turbomachine before running out of oil, based on the rotational speed (N) and the oil mass (m).