mhurhangee/ep-ind-claims huggingface dataset:
A method for making a low water content plastic composition comprising hydraulic cement, wherein the plastic composition is obtained by: uniformly mixing granular hydraulic cement with water and polyol by: (i) uniformly mixing granular hydraulic cement with water and then adding the polyol; or (ii) uniformly mixing granular hydraulic cement with a combination of polyol and water; or (iii) uniformly mixing granular hydraulic cement with polyol and then adding the water; then adding an isocyanate compound to the homogenous mixture of hydraulic cement, water and polyol to prepare a flowable homogenous mixture and thereby forming and foaming polyurethane from the polyol and isocyanate in the flowable homogenous mixture, wherein wet cement particles are trapped in the polyurethane and free water present between cement particles is selectively separated and removed so that the plastic composition loses flowability and has plasticity; wherein water is contained in 2.5 to 150 parts by weight and the polyol and isocyanate are contained in 10 to 100 parts by weight, with respect to 100 parts by weight of the hydraulic cement, respectively; wherein the polyol is a liquid polyester or polyether having two or more hydroxyl groups; and wherein the isocyanate is a liquid polymeric methylene diphenyl diisocyanate and wherein the ratio between polyol and isocyanate is with the range of 2:7 to 7:5. uniformly mixing granular hydraulic cement with water and polyol by: (i) uniformly mixing granular hydraulic cement with water and then adding the polyol; or (ii) uniformly mixing granular hydraulic cement with a combination of polyol and water; or (iii) uniformly mixing granular hydraulic cement with polyol and then adding the water; (i) uniformly mixing granular hydraulic cement with water and then adding the polyol; or (ii) uniformly mixing granular hydraulic cement with a combination of polyol and water; or (iii) uniformly mixing granular hydraulic cement with polyol and then adding the water; then adding an isocyanate compound to the homogenous mixture of hydraulic cement, water and polyol to prepare a flowable homogenous mixture and thereby forming and foaming polyurethane from the polyol and isocyanate in the flowable homogenous mixture, wherein wet cement particles are trapped in the polyurethane and free water present between cement particles is selectively separated and removed so that the plastic composition loses flowability and has plasticity; wherein water is contained in 2.5 to 150 parts by weight and the polyol and isocyanate are contained in 10 to 100 parts by weight, with respect to 100 parts by weight of the hydraulic cement, respectively; wherein the polyol is a liquid polyester or polyether having two or more hydroxyl groups; and wherein the isocyanate is a liquid polymeric methylene diphenyl diisocyanate and wherein the ratio between polyol and isocyanate is with the range of 2:7 to 7:5.
Motor vehicle door latch, with a locking mechanism (2, 3) comprising a catch and a pawl, whereby • the pawl lies adjacent with its bolting contour (11, 12) on a ratchet contour (10, 13) of the catch in the closed state of the locking mechanism (2, 3), • the bolting contour (11, 12) is formed in two parts with a holding contour and a roll-off contour, whereby the holding contour predominantly interacts with the ratchet contour (10, 13) in the closed state of the locking mechanism (2, 3), on the contrary, the roll-off contour also rolls off during the opening process of the catch on the ratchet contour (10, 13) and, if applicable, also on a leg of the catch; • the roll-off contour and the holding contour are respectively formed as circular arcs. characterized in that • the radius of the roll-off contour protrudes above the radius of the holding contour. • the pawl lies adjacent with its bolting contour (11, 12) on a ratchet contour (10, 13) of the catch in the closed state of the locking mechanism (2, 3), • the bolting contour (11, 12) is formed in two parts with a holding contour and a roll-off contour, whereby the holding contour predominantly interacts with the ratchet contour (10, 13) in the closed state of the locking mechanism (2, 3), on the contrary, the roll-off contour also rolls off during the opening process of the catch on the ratchet contour (10, 13) and, if applicable, also on a leg of the catch; • the roll-off contour and the holding contour are respectively formed as circular arcs. • the radius of the roll-off contour protrudes above the radius of the holding contour.
An opto-electronic sight with modular shielding, the sight comprising an opto-electronic device, a bearing having a rotary portion carrying the opto-electronic device, drive means for driving rotation of the rotary portion, control means adapted to control the drive means, and modular shielding adapted to be carried by the rotary portion of the bearing, the modular shielding being present or absent on the opto-electronic sight, the opto-electronic sight being characterized in that it includes detector means for detecting the shielding on the rotary portion, the detector means being connected to the control means, which are arranged to adapt the control of the drive means as a function of the result of the detection, with control being adapted by making use of a first value of a setting parameter for a control program when presence of modular shielding is detected, and of a second value of the setting parameter for the control program when absence of modular shielding is detected. the opto-electronic sight being characterized in that it includes detector means for detecting the shielding on the rotary portion, the detector means being connected to the control means, which are arranged to adapt the control of the drive means as a function of the result of the detection, with control being adapted by making use of a first value of a setting parameter for a control program when presence of modular shielding is detected, and of a second value of the setting parameter for the control program when absence of modular shielding is detected.
Load management device (100, 300, 400) for a charging arrangement having a plurality of charging stations for charging electric vehicles, comprising: - at least one load management module (102, 302, 402) configured to set a power distribution at the plurality of charging stations at least based on at least one distribution rule and a maximum available power, characterized in that - the load management device (100, 300, 400) comprises at least one activatable reactive power compensation module (104, 204, 404) configured to reduce a reactive power caused by the charging arrangement, - wherein the load management module (102, 302, 402) is configured to activate the reactive power compensation module (104, 204, 404) based on at least one provided reactive power parameter and the set power distribution such that the reactive power caused by the charging arrangement is reduced. - at least one load management module (102, 302, 402) configured to set a power distribution at the plurality of charging stations at least based on at least one distribution rule and a maximum available power, characterized in that - the load management device (100, 300, 400) comprises at least one activatable reactive power compensation module (104, 204, 404) configured to reduce a reactive power caused by the charging arrangement, - wherein the load management module (102, 302, 402) is configured to activate the reactive power compensation module (104, 204, 404) based on at least one provided reactive power parameter and the set power distribution such that the reactive power caused by the charging arrangement is reduced.
Stave for making wood barrels, characterized in that the stave is composed of individual segments (2a to 2e) that are rigidly connected to one another on the face sides.
A compressor (102, 200), comprising: a casing at least partially defining a discharge cavity and a seal cavity; a rotary shaft disposed in the casing; a shaft seal assembly disposed in the seal cavity and radially outward from the rotary shaft; an impeller coupled with and configured to be driven by the rotary shaft; a balance piston integral with the impeller and at least partially defining the discharge cavity and the seal cavity; a balance piston seal disposed radially outward from the balance piston such that the balance piston seal and the balance piston define a radial clearance therebetween, the radial clearance being configured to provide fluid communication from the impeller to the discharge cavity; and a heat shield disposed in the discharge cavity and configured to prevent the conduction of heat from the discharge cavity to the seal cavity via the casing, wherein the heat shield is disposed proximal to an inner surface of the casing such that the heat shield and the inner surface define a cooling gap therebetween, characterized in that the compressor (102, 200) further comprises a cooling fluid source in fluid communication with a first end portion of the cooling gap and configured to direct a cooling fluid to the cooling gap. a casing at least partially defining a discharge cavity and a seal cavity; a rotary shaft disposed in the casing; a shaft seal assembly disposed in the seal cavity and radially outward from the rotary shaft; an impeller coupled with and configured to be driven by the rotary shaft; a balance piston integral with the impeller and at least partially defining the discharge cavity and the seal cavity; a balance piston seal disposed radially outward from the balance piston such that the balance piston seal and the balance piston define a radial clearance therebetween, the radial clearance being configured to provide fluid communication from the impeller to the discharge cavity; and a heat shield disposed in the discharge cavity and configured to prevent the conduction of heat from the discharge cavity to the seal cavity via the casing, wherein the heat shield is disposed proximal to an inner surface of the casing such that the heat shield and the inner surface define a cooling gap therebetween, characterized in that the compressor (102, 200) further comprises a cooling fluid source in fluid communication with a first end portion of the cooling gap and configured to direct a cooling fluid to the cooling gap.
Air pulsing device comprising a support on which there are installed an electric motor and an electronic control board regulating the operation of the motor, the motor being equipped with at least one elongate connector, a terminal part of which passes through the support along a channel for the distal end of said connector to cooperate with a contactor with which the control board is equipped, wherein the support is equipped with at least one sealing member individually gripping the terminal part of the connector passing through the sealing member along an opening formed in extension of the channel, a heat sink being also interposed between the support and the control board and comprising at least one passageway for said connector to pass through it, said passageway being disposed in the extension of said channel, and wherein the sealing member comprises sealing elements interposed between the support and the heat sink in transverse extension outward from said channel, characterized in that the heat sink comprises at least one housing for receiving a socket incorporated in the support and protruding towards the control board, the recess of said socket forming said channel.
A device (100, 200, 300) for cutting a tubular workpiece into strips comprising; an infeed mandrel (130, 230, 330); a frame (110, 210, 310); and a plurality of radially disposed cutting members (150, 270, 370) supported on the frame between the infeed mandrel and the frame. an infeed mandrel (130, 230, 330); a frame (110, 210, 310); and a plurality of radially disposed cutting members (150, 270, 370) supported on the frame between the infeed mandrel and the frame.
Method for cleaning a surface by means of a floor cleaning system (1, 101, 201, 301, 401), wherein the floor cleaning system (1, 101, 201, 301, 401) has - at least two autonomous floor cleaning units (2, 2', 102, 102'), - at least one charging station (3, 103), - at least one cleaning station (4, 104) and - at least one computing unit, comprising the following method steps: a) a central computing unit (5, 105) acquires information regarding the floor cleaning units (2, 2', 102, 102'); b) the central computing unit (5, 105) processes the information, specifically such that a sequence in which the relevant floor cleaning units (2, 2', 102, 102') are to be processed by means of the cleaning station (4, 104) is defined; c) the central computing unit (5, 105) transmits commands to the relevant floor cleaning units (2, 2', 102, 102'), so that they approach the cleaning station (4, 104) in the defined sequence. wherein the floor cleaning system (1, 101, 201, 301, 401) has - at least two autonomous floor cleaning units (2, 2', 102, 102'), - at least one charging station (3, 103), - at least one cleaning station (4, 104) and - at least one computing unit, - at least two autonomous floor cleaning units (2, 2', 102, 102'), - at least one charging station (3, 103), - at least one cleaning station (4, 104) and - at least one computing unit, comprising the following method steps: a) a central computing unit (5, 105) acquires information regarding the floor cleaning units (2, 2', 102, 102'); b) the central computing unit (5, 105) processes the information, specifically such that a sequence in which the relevant floor cleaning units (2, 2', 102, 102') are to be processed by means of the cleaning station (4, 104) is defined; c) the central computing unit (5, 105) transmits commands to the relevant floor cleaning units (2, 2', 102, 102'), so that they approach the cleaning station (4, 104) in the defined sequence. a) a central computing unit (5, 105) acquires information regarding the floor cleaning units (2, 2', 102, 102'); b) the central computing unit (5, 105) processes the information, specifically such that a sequence in which the relevant floor cleaning units (2, 2', 102, 102') are to be processed by means of the cleaning station (4, 104) is defined; c) the central computing unit (5, 105) transmits commands to the relevant floor cleaning units (2, 2', 102, 102'), so that they approach the cleaning station (4, 104) in the defined sequence.
A combination of cannabinoids cannabidiol and delta-9-tetrahydrocannabinol for use as a disease modifying treatment of rheumatoid arthritis wherein the ratio of CBD:THC is substantially 1:1, and wherein the dose taken by a patient is in the range of 5-25mg of each cannabinoid per day sublingually or buccally.
A six-direction directing device provided in an XYZ rectangular coordinate system, comprising: a shaft extending in an X axis direction, a rotation member rotatable around an axis inclined at α deg with respect to the shaft and coupled to the shaft, said rotation member defining an xyz rectangular coordinate system and including a spherical surface and an orbit portion formed around an x axis of said spherical surface; a driving source for rotating said shaft around the X axis; and a guide member fixed relative to said XYZ rectangular coordinate system and in contact with said orbit portion, said orbit portion having such a shape that a y axis of said rotation member is directed sequentially in + and - directions on U, V, and W axes that cross one another at intervals of 60 deg around the X axis when said rotation member rotates in contact with said guide member by rotation of said shaft. a shaft extending in an X axis direction, a rotation member rotatable around an axis inclined at α deg with respect to the shaft and coupled to the shaft, said rotation member defining an xyz rectangular coordinate system and including a spherical surface and an orbit portion formed around an x axis of said spherical surface; a driving source for rotating said shaft around the X axis; and a guide member fixed relative to said XYZ rectangular coordinate system and in contact with said orbit portion, said orbit portion having such a shape that a y axis of said rotation member is directed sequentially in + and - directions on U, V, and W axes that cross one another at intervals of 60 deg around the X axis when said rotation member rotates in contact with said guide member by rotation of said shaft.
A first device comprising: - a communication link to a RF network; - a processor; - a memory storing a table of data representative of a plurality of states of the first device or values measured or received at the first device; the processor being configured to: - cause a joining of the first device to the RF network on one of a first predefined event or a single predefined event (630, 730a); - cause a binding of a second device to the first device on one of a second predefined event or the single predefined event (730, 730a), said first device being characterized in that said one of the second predefined event or the single predefined event is a detection, from the signals of at least one accelerometer in at least one of the first device and the second device, of at least one shock between the first device and the second device. - a communication link to a RF network; - a processor; - a memory storing a table of data representative of a plurality of states of the first device or values measured or received at the first device; the processor being configured to: - cause a joining of the first device to the RF network on one of a first predefined event or a single predefined event (630, 730a); - cause a binding of a second device to the first device on one of a second predefined event or the single predefined event (730, 730a), said first device being characterized in that said one of the second predefined event or the single predefined event is a detection, from the signals of at least one accelerometer in at least one of the first device and the second device, of at least one shock between the first device and the second device. - cause a joining of the first device to the RF network on one of a first predefined event or a single predefined event (630, 730a); - cause a binding of a second device to the first device on one of a second predefined event or the single predefined event (730, 730a), said first device being characterized in that said one of the second predefined event or the single predefined event is a detection, from the signals of at least one accelerometer in at least one of the first device and the second device, of at least one shock between the first device and the second device.
A dual mode SAXS (Small Angle X-ray Scattering) camera for analyzing a sample, the camera being configured to provide both a one-dimensional operation mode and a two-dimensional operation mode comprising: an x-ray source, wherein the x-ray source is a line source; an optical system receiving x-rays from the source, and configured to provide both one-dimensional beam and two-dimensional beam on to the sample; a selection device to select either the one-dimensional beam or the two-dimensional beam; a detector to collect the scattering data from the sample; and a Kratky anti-parasitic scattering system (124, 126) between the optical system and the detector to create a data collection zone free of parasitic scattering, wherein the sample position is located between the Kratky anti-parasitic scattering system and the detector. an x-ray source, wherein the x-ray source is a line source; an optical system receiving x-rays from the source, and configured to provide both one-dimensional beam and two-dimensional beam on to the sample; a selection device to select either the one-dimensional beam or the two-dimensional beam; a detector to collect the scattering data from the sample; and a Kratky anti-parasitic scattering system (124, 126) between the optical system and the detector to create a data collection zone free of parasitic scattering, wherein the sample position is located between the Kratky anti-parasitic scattering system and the detector.
A computer-implemented method comprising: receiving, at a first event publisher, a first plurality of publication instructions to publish a first dataset, the first plurality of publication instructions comprising a directive to retrieve a second dataset published by a second event publisher, a directive to determine a first metadata structure including a plurality of first attributes describing the first dataset, and a directive to send the first metadata structure to an asynchronous communication repository for storage, wherein the asynchronous communication repository is configured to store a second metadata structure including a plurality of second attributes describing the second dataset; receiving, at the first event publisher via an event application program interface, API, the second metadata structure from the asynchronous communication repository using an asynchronous communication protocol; retrieving, at the first event publisher and based on the second attributes describing the second metadata structure, the second dataset from the second event publisher; generating, at the first event publisher, the first dataset based on the second dataset; determining, at the first event publisher, the first metadata structure based on the first dataset; and sending the first metadata structure from the first event publisher to the asynchronous communication repository via the event API. receiving, at a first event publisher, a first plurality of publication instructions to publish a first dataset, the first plurality of publication instructions comprising a directive to retrieve a second dataset published by a second event publisher, a directive to determine a first metadata structure including a plurality of first attributes describing the first dataset, and a directive to send the first metadata structure to an asynchronous communication repository for storage, wherein the asynchronous communication repository is configured to store a second metadata structure including a plurality of second attributes describing the second dataset; receiving, at the first event publisher via an event application program interface, API, the second metadata structure from the asynchronous communication repository using an asynchronous communication protocol; retrieving, at the first event publisher and based on the second attributes describing the second metadata structure, the second dataset from the second event publisher; generating, at the first event publisher, the first dataset based on the second dataset; determining, at the first event publisher, the first metadata structure based on the first dataset; and sending the first metadata structure from the first event publisher to the asynchronous communication repository via the event API.