mhurhangee/patent-ind-claim-en huggingface dataset:
Set of floor panels for forming a floor covering, which comprises at least two floor panels (1A-1B), which each comprise an upper side , a lower side , and a core extending between the upper and lower sides (10-11), and which each comprise an edge (2-3) provided with a coupling part (4-5), wherein the coupling parts (4-5) are configured such that they allow realizing a coupled condition between the floor panels (1A-1B) by means of a substantially straight coupling movement (M) of the one floor panel in respect to the other floor panel , according to a direction substantially perpendicular to an installation plane; wherein the coupling parts (4-5) in the coupled condition effect a locking in the direction (H) parallel to the installation plane and perpendicular to said edges (2-3), as well as a locking in the direction (V) perpendicular to the installation plane; wherein the coupling part of the one floor panel is made as a hook-shaped part directed towards the lower side of the floor panel , herein below denominated locking hook , and the coupling part of the other floor panel is made as a hook-shaped part directed towards the upper side of the floor panel , herein below denominated receiving hook ; wherein the locking hook comprises a lip which is provided with a locking part extending towards the lower side of the floor panel , and the receiving hook comprises a lip which is provided with a locking part extending towards the upper side of the floor panel ; and wherein the locking parts , in the coupled condition, cooperate in such a manner that they effect at least the aforementioned locking in the direction (H) parallel to the installation plane and perpendicular to said edges (2-3), whereby the coupling parts (4-5) are configured such that they, in the coupled condition, realize a tensioning force pressing the coupled edges (2-3) towards each other, by means of an elastic bending of the lip of the receiving hook ; characterized in that the hook-shaped parts substantially are manufactured from the material of the core of the floor panels (1A-1B) and substantially are made in one piece therewith; and that the lip of the receiving hook , in the coupled condition, in the direction (V) perpendicular to the installation plane, has a maximum bending (VM) of at most 0.0625 times the overall thickness (T) of the floor panel (1A-1B).
An ex vivo method for promoting cellular proliferation and de-differentiation of cardiomyocyte cells into stem cells for cardiac tissue regeneration, the method comprising: transiently contacting said cells with a composition comprising a microRNA (miR) 302-367 cluster or a miR 302-367 cluster mimic for transient expression of said miR cluster or said miR cluster mimic, wherein said transient contact is sufficient to transiently activate cardiomyocyte proliferation, but not to reactivate the cell cycle of postnatal cardiomyocytes.
Functional module with a housing, wherein the housing forms at least one receptacle for a sub-module, wherein the functional module is a component of a safety retaining system, wherein the sub-module can be mounted in two different rotational positons in the receptacle and wherein the sub-module has rotationally invariant electrical connecting means of such a kind that in the two rotational positions of the sub-module these can be contacted in identical manner with electrical connecting means in the housing of the functional module, characterised in that the functional module is a retaining module of a safety system, wherein a laterally opening locking receptacle for a grip module is provided at the housing of the retaining module and wherein a righthand grip module can be mounted at the locking receptacle in a first rotational position of the retaining module and a lefthand grip module is fixable to the locking receptacle in a second rotational position, which is turned through 180° with respect to the first rotational position, of the retaining module .
An array of cMUT cells of an ultrasound transducer comprising: a plurality of cMUT cells, each cell comprising: a cell membrane ; a membrane support structure; a top electrode coupled to the cell membrane ; a void providing a space in which the cell membrane moves; a bottom electrode used in conjunction with the top electrode , wherein each cell membrane is adapted to oscillate to thereby generate an acoustic pressure force; a substrate ; wherein each cMUT cell further comprises a respective massive plate mounted on the substrate , wherein: the cell membrane , the membrane support structure, the top electrode and the void are mounted on the massive plate , the bottom electrode is either formed by the massive plate or is mounted on the massive plate , each massive plate has a mass, the inertia of the mass opposing the acoustic pressure force generated by the oscillation of the cell membrane , and each massive plate is laterally isolated from adjacent massive plates by a gap , characterized in that each cMUT cell further comprises a plurality of spaced-apart supports , wherein the massive plate is mounted on the substrate by the plurality of spaced-apart supports . a plurality of cMUT cells, each cell comprising: a cell membrane ; a membrane support structure; a top electrode coupled to the cell membrane ; a void providing a space in which the cell membrane moves; a bottom electrode used in conjunction with the top electrode , wherein each cell membrane is adapted to oscillate to thereby generate an acoustic pressure force; a cell membrane ; a membrane support structure; a top electrode coupled to the cell membrane ; a void providing a space in which the cell membrane moves; a bottom electrode used in conjunction with the top electrode , wherein each cell membrane is adapted to oscillate to thereby generate an acoustic pressure force; a substrate ; wherein each cMUT cell further comprises a respective massive plate mounted on the substrate , wherein: the cell membrane , the membrane support structure, the top electrode and the void are mounted on the massive plate , the bottom electrode is either formed by the massive plate or is mounted on the massive plate , each massive plate has a mass, the inertia of the mass opposing the acoustic pressure force generated by the oscillation of the cell membrane , and each massive plate is laterally isolated from adjacent massive plates by a gap , characterized in that each cMUT cell further comprises a plurality of spaced-apart supports , wherein the massive plate is mounted on the substrate by the plurality of spaced-apart supports . the cell membrane , the membrane support structure, the top electrode and the void are mounted on the massive plate , the bottom electrode is either formed by the massive plate or is mounted on the massive plate , each massive plate has a mass, the inertia of the mass opposing the acoustic pressure force generated by the oscillation of the cell membrane , and each massive plate is laterally isolated from adjacent massive plates by a gap ,
A catheter assembly comprising: a catheter ; a needle having a sharp distal tip disposed in the catheter; a catheter hub housing the catheter and the needle, the catheter hub having a collar , the collar including a notch ; a needle shield connected to the catheter hub when the needle is in a first position; and a clip disposed in the needle shield that cooperates with the needle, wherein the clip engages the collar of the catheter hub in the first position of the needle, and the clip disengages the collar of the catheter hub through the notch when the needle is retracted to a second position to enclose at least a portion of the needle. a catheter ; a needle having a sharp distal tip disposed in the catheter; a catheter hub housing the catheter and the needle, the catheter hub having a collar , the collar including a notch ; a needle shield connected to the catheter hub when the needle is in a first position; and a clip disposed in the needle shield that cooperates with the needle, wherein the clip engages the collar of the catheter hub in the first position of the needle, and the clip disengages the collar of the catheter hub through the notch when the needle is retracted to a second position to enclose at least a portion of the needle.
Composition comprising a blend of 90 - 99wt%, based on the blend, of a random propylene copolymer having a melt flow rate (MFR 230°C/2.16kg) of 15 - 40 g/10min and containing 1.5 - 2.5wt% ethylene, and 1 - 10 wt%, based on the blend, of an ethylene based plastomer having a density of 860 - 915 kg/m 3 and an MI 2 (190°C/2.16kg) of 0.5 to 25 g/10 min, wherein the composition has a flexural modulus of 700 - 1300 MPa, determined as disclosed in the description. 90 - 99wt%, based on the blend, of a random propylene copolymer having a melt flow rate (MFR 230°C/2.16kg) of 15 - 40 g/10min and containing 1.5 - 2.5wt% ethylene, and 1 - 10 wt%, based on the blend, of an ethylene based plastomer having a density of 860 - 915 kg/m 3 and an MI 2 (190°C/2.16kg) of 0.5 to 25 g/10 min, wherein the composition has a flexural modulus of 700 - 1300 MPa, determined as disclosed in the description.
A test panel for testing food intolerance in patients diagnosed with or suspected to have Crohn's disease, comprising: a plurality of distinct food preparations, wherein each food preparation is independently coupled to an individually addressable solid carrier; wherein the plurality of distinct food preparations consists of almond, apple, avocado, barley, broccoli, buck wheat, cabbage, cane sugar, cantaloupe, carrot, cauliflower, celery, chili pepper, chocolate, clam, cola nut, corn, cucumber, eggplant, garlic, grapefruit, green pea, green pepper, honey, lemon, lettuce, lima bean, malt, mustard, oat, olive, onion, orange, oyster, peach, pinto bean, potato, rice, rye, safflower, sardine, scallop, soybean, spinach, squashes, strawberry, string bean, sunflower seed, sweet potato, tea, tobacco, tomato, black walnut, wheat, baker's yeast, brewer's yeast, peanut, pineapple, sole, blueberry, grape, chicken, cinnamon, turkey, butter, cottage cheese, cashew, yogurt, cow's milk, egg, millet, coffee, halibut, beef, Swiss cheese, lobster, parsley, pork, shrimp, and cheddar cheese.
A method of preparing superabsorbent polymer granules, the method comprising: forming fine particle granules by mixing particles obtained during a preparation process of a superabsorbent polymer with an aqueous solvent, wherein the fine particles have a particle size of 150 μm or less, wherein the fine particles have been obtained by size-sorting through ASTM standard sieves; mixing the fine particle granules with a metal sulfate; and drying the fine particle granules mixed with the metal sulfate by heating, wherein the aqueous solvent is one or more compounds selected from the group consisting of water, methyl alcohol, ethyl alcohol, n-propyl alcohol, isopropyl alcohol, n-butyl alcohol, isobutyl alcohol, t-butyl alcohol, acetone, tetrahydrofuran, N,N-dimethylformamide, and dimethyl sulfoxide. forming fine particle granules by mixing particles obtained during a preparation process of a superabsorbent polymer with an aqueous solvent, wherein the fine particles have a particle size of 150 μm or less, wherein the fine particles have been obtained by size-sorting through ASTM standard sieves; mixing the fine particle granules with a metal sulfate; and drying the fine particle granules mixed with the metal sulfate by heating, wherein the aqueous solvent is one or more compounds selected from the group consisting of water, methyl alcohol, ethyl alcohol, n-propyl alcohol, isopropyl alcohol, n-butyl alcohol, isobutyl alcohol, t-butyl alcohol, acetone, tetrahydrofuran, N,N-dimethylformamide, and dimethyl sulfoxide.
A communication method, wherein the method comprises: determining (S901, S1201), by a first access network node, to deactivate a secondary cell group, SCG, or activate the SCG; and sending (S902), by the first access network node, first indication information to a second base station, wherein the first indication information is used to indicate the second base station to send an SCG deactivation command or an SCG activation command to a terminal, wherein the first access network node belongs to a first base station, the first base station is a master node or a secondary node of the terminal during dual connectivity communication, and when the first base station is a master node, the second base station is a secondary node; or when the first base station is a secondary node, the second base station is a master node; and the SCG comprises one or more cells managed by the secondary node; wherein the SCG deactivation command is used to instruct the terminal to deactivate the SCG such that the terminal temporarily stops transmitting data by using an SCG communication link, and the terminal retains a part or all of configuration of the secondary node; and wherein the SCG activation command is used to instruct the terminal to activate the SCG such that the terminal recovers retained configuration of the secondary node and transmits data by using the SCG communications link. determining (S901, S1201), by a first access network node, to deactivate a secondary cell group, SCG, or activate the SCG; and sending (S902), by the first access network node, first indication information to a second base station, wherein the first indication information is used to indicate the second base station to send an SCG deactivation command or an SCG activation command to a terminal, wherein the first access network node belongs to a first base station, the first base station is a master node or a secondary node of the terminal during dual connectivity communication, and when the first base station is a master node, the second base station is a secondary node; or when the first base station is a secondary node, the second base station is a master node; and the SCG comprises one or more cells managed by the secondary node; wherein the SCG deactivation command is used to instruct the terminal to deactivate the SCG such that the terminal temporarily stops transmitting data by using an SCG communication link, and the terminal retains a part or all of configuration of the secondary node; and wherein the SCG activation command is used to instruct the terminal to activate the SCG such that the terminal recovers retained configuration of the secondary node and transmits data by using the SCG communications link.
Method for processing a network service supported by a network infrastructure, said infrastructure comprising an orchestration entity, a security module and at least one virtualized resource management entity, said method allowing at least one network function to be virtualized, said network service being formed by a sequence, called initial sequence, of said at least one virtualized network function for processing an incoming stream subject to the sequence, said method comprising the following steps: - detection (E1, E2) by the at least one management entity of an anomaly relating to said at least one virtualized network function; - detection and identification (E3) by the security module of a network attack targeting said network function from said anomaly; - identification (E3) by said security module in said initial sequence of at least one virtualized network function impacted by said attack and comprising at least one corrupted component; - modification (E5, E7, E9) by the at least one management entity of the infrastructure of said initial sequence to circumscribe the attack such that said incoming stream intended for the virtualized network function impacted by said attack is routed to at least one virtualized network function, called curative function, implementing only the functions implemented by said at least one corrupted component of said at least one virtualized network function impacted by said attack. - detection (E1, E2) by the at least one management entity of an anomaly relating to said at least one virtualized network function; - detection and identification (E3) by the security module of a network attack targeting said network function from said anomaly; - identification (E3) by said security module in said initial sequence of at least one virtualized network function impacted by said attack and comprising at least one corrupted component; - modification (E5, E7, E9) by the at least one management entity of the infrastructure of said initial sequence to circumscribe the attack such that said incoming stream intended for the virtualized network function impacted by said attack is routed to at least one virtualized network function, called curative function, implementing only the functions implemented by said at least one corrupted component of said at least one virtualized network function impacted by said attack.
A photobioreactor for cultivation and/or propagation of a photosynthetic organism comprising: a.) a substantially spherical vessel having a wall defining an interior vessel volume; and b.) a single lamp assembly positioned within and at the center of the interior vessel volume, wherein the lamp assembly comprises: a substantially spherical light source comprising a plurality of circuit boards arranged in a substantially spherical shape defining an interior lamp assembly volume, wherein the plurality of circuit boards each comprise a first planar surface in contact with the interior lamp assembly volume and an opposing second planar surface comprising light emitting diodes (LEDs) ; and a substantially spherical barrier that surrounds the substantially spherical light source, wherein the circuit boards comprise a metal layer that faces the interior lamp assembly volume for dissipation of heat from the LEDs. a.) a substantially spherical vessel having a wall defining an interior vessel volume; and b.) a single lamp assembly positioned within and at the center of the interior vessel volume, wherein the lamp assembly comprises: a substantially spherical light source comprising a plurality of circuit boards arranged in a substantially spherical shape defining an interior lamp assembly volume, wherein the plurality of circuit boards each comprise a first planar surface in contact with the interior lamp assembly volume and an opposing second planar surface comprising light emitting diodes (LEDs) ; and a substantially spherical barrier that surrounds the substantially spherical light source, wherein the circuit boards comprise a metal layer that faces the interior lamp assembly volume for dissipation of heat from the LEDs. a substantially spherical light source comprising a plurality of circuit boards arranged in a substantially spherical shape defining an interior lamp assembly volume, wherein the plurality of circuit boards each comprise a first planar surface in contact with the interior lamp assembly volume and an opposing second planar surface comprising light emitting diodes (LEDs) ; and a substantially spherical barrier that surrounds the substantially spherical light source, wherein the circuit boards comprise a metal layer that faces the interior lamp assembly volume for dissipation of heat from the LEDs.
Device for the rotation of flag comprising a flagpole , characterised by a drive unit adapted to rotate the flag and comprising at least one electro-holding magnet ; further characterised by an upper hoisting part , which on the one hand is connected to the drive unit via at least one band , a cord or a rope, and which on the other hand is connected to the drive unit in a hoisted operating state via the at least one electro-holding magnet in a manner secured against rotation, wherein the upper hoisting part is further connected to the upper end of the flag via struts ; wherein the drive unit is arranged to pull up the upper hoisting part on the at least one band , the at least one cord or the at least one rope; the electro-holding magnet being arranged, on the one hand, to hold the flag in a hoisted operating state; and, on the other hand, being arranged to allow the flag to be dropped by its own weight after being switched off.
A method of forming a composite structure having structured features defined thereon to define an optical path in connection with optical transmissions, comprising: providing a base of a first material defining a first structured feature ; inserting a second material into an opening provided in the base , wherein the second material is dissimilar to the first material; and stamping the second material to structurally couple the second material to the base and to define a second structured feature on the second material, thereby forming the composite structure comprising the base of the first material and an auxiliary portion from the second material with the second structured feature defined thereon, wherein the first and second structured features define the optical path in connection with optical transmissions. providing a base of a first material defining a first structured feature ; inserting a second material into an opening provided in the base , wherein the second material is dissimilar to the first material; and stamping the second material to structurally couple the second material to the base and to define a second structured feature on the second material, thereby forming the composite structure comprising the base of the first material and an auxiliary portion from the second material with the second structured feature defined thereon, wherein the first and second structured features define the optical path in connection with optical transmissions.
An external preparation comprising cyclosporine, methyl ethyl ketone, ethanol, and a fatty acid ester.
A fuel tank comprising: a front spar , a rear spar , an upper skin , a lower skin , and a rib as structural members of the fuel tank , wherein the rib is disposed between the upper skin and the lower skin and includes a flange and a web , wherein a carbon fiber reinforced plastic is used for the rib in which reinforcing materials are carbon fibers and a matrix includes plastic, and wherein the matrix has electrical conductivity applied thereto to secure electrical conduction between the reinforcing materials that are the carbon fibers, wherein cut surfaces of the rib at end portions of the flange are exposed to an inside of the fuel tank , in which fuel is to be accommodated, such that the reinforcing materials that are the carbon fibers exist in the cut surfaces of the rib , characterized in that the carbon fiber reinforced plastic used in the rib has a resistivity in a plate thickness direction of less than or equal to 500 Ωcm. a front spar , a rear spar , an upper skin , a lower skin , and a rib as structural members of the fuel tank , wherein the rib is disposed between the upper skin and the lower skin and includes a flange and a web , wherein a carbon fiber reinforced plastic is used for the rib in which reinforcing materials are carbon fibers and a matrix includes plastic, and wherein the matrix has electrical conductivity applied thereto to secure electrical conduction between the reinforcing materials that are the carbon fibers, wherein cut surfaces of the rib at end portions of the flange are exposed to an inside of the fuel tank , in which fuel is to be accommodated, such that the reinforcing materials that are the carbon fibers exist in the cut surfaces of the rib , characterized in that the carbon fiber reinforced plastic used in the rib has a resistivity in a plate thickness direction of less than or equal to 500 Ωcm.
An in-vitro process for predicting and/or detecting fibrinolytic insufficiency associated to pathologies with NETs (Neutrophil Extracellular Traps) with/without disseminated intravascular coagulation (DIC) from a first biological sample comprising measuring the concentration of Plasminogen and at least one fragment thereof.