mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a velocity profile of sound waves in a water column, said method being characterized in that it comprises the following steps: - emitting in said water column, by an emitter located in the water column at an emitting depth (P 0 ), at least one incident sound wave emitted at least at one emitting frequency (f 0 ), said emitter being moved along at least one axis (Z) relative to said water column, - receiving , by a receiver , at least one first sound wave reflected by a first reflective object (R 1 , R i-1 ) located in said water column at a first depth (P 1 , P i-1 ) and a second sound wave reflected by a second reflective object (R 2 , R i ) located in said water column at a second depth (P 2 , P i ), greater than the first depth (P 1 , P i-1 ), - providing a first velocity (C 1 , C i-1 ) of the sound waves at said first depth (P 1 , P i-1 ), - determining a second velocity (C 2 , C i ) of the sound waves at said second depth (P 2 , P i ), from the frequencies of said first (f 1 , f i-1 ) and said second (f 2 , f i ) reflected sound waves, the emitting frequency (f 0 ) and said first velocity (C 1 , C i-1 ). - emitting in said water column, by an emitter located in the water column at an emitting depth (P 0 ), at least one incident sound wave emitted at least at one emitting frequency (f 0 ), said emitter being moved along at least one axis (Z) relative to said water column, - receiving , by a receiver , at least one first sound wave reflected by a first reflective object (R 1 , R i-1 ) located in said water column at a first depth (P 1 , P i-1 ) and a second sound wave reflected by a second reflective object (R 2 , R i ) located in said water column at a second depth (P 2 , P i ), greater than the first depth (P 1 , P i-1 ), - providing a first velocity (C 1 , C i-1 ) of the sound waves at said first depth (P 1 , P i-1 ), - determining a second velocity (C 2 , C i ) of the sound waves at said second depth (P 2 , P i ), from the frequencies of said first (f 1 , f i-1 ) and said second (f 2 , f i ) reflected sound waves, the emitting frequency (f 0 ) and said first velocity (C 1 , C i-1 ).
A Multi-use Dust Mitigation System, MDMS, comprising: a finger section ; a hand section physically attached to the finger section; a fabric-material within both the finger section and hand section, wherein the fabric-material includes a front-surface and a back-surface ; a plurality of conductive-fibers within the fabric-material, wherein the plurality of conductive-fibers are approximately parallel along the fabric-material in a first direction and are approximately adjacent to the front-surface of the fabric-material; an input-signal-source configured to produce an alternating-current, AC, voltage-signal ; and a plurality of input-nodes approximately adjacent to the fabric-material, wherein the plurality of input-nodes are in signal communication with the plurality of conductive-fibers and configured to receive the alternating-current, AC, voltage-signal from the input-signal-source, and wherein the plurality of conductive-fibers are configured to generate an electric-field on the front-surface of the fabric-material in response to the plurality of input-nodes receiving the AC voltage-signal from the input-signal-source; wherein the plurality of conductive-fibers generate a standing-wave, from the electric-field, along the front-surface of the fabric-material in the second direction that is approximately transverse to the first direction. a finger section ; a hand section physically attached to the finger section; a fabric-material within both the finger section and hand section, wherein the fabric-material includes a front-surface and a back-surface ; a front-surface and a back-surface ; a plurality of conductive-fibers within the fabric-material, wherein the plurality of conductive-fibers are approximately parallel along the fabric-material in a first direction and are approximately adjacent to the front-surface of the fabric-material; an input-signal-source configured to produce an alternating-current, AC, voltage-signal ; and a plurality of input-nodes approximately adjacent to the fabric-material, wherein the plurality of input-nodes are in signal communication with the plurality of conductive-fibers and configured to receive the alternating-current, AC, voltage-signal from the input-signal-source, and wherein the plurality of conductive-fibers are configured to generate an electric-field on the front-surface of the fabric-material in response to the plurality of input-nodes receiving the AC voltage-signal from the input-signal-source; wherein the plurality of conductive-fibers generate a standing-wave, from the electric-field, along the front-surface of the fabric-material in the second direction that is approximately transverse to the first direction.
A (meth)acryloyl group-containing organosiloxane represented by the following formula : wherein R 1 is, independently of each other, an aliphatic hydrocarbon group having 1 to 10 carbon atoms or an aromatic hydrocarbon group having 6 to 12 carbon atoms, R 2 is, independently of each other, a hydrogen atom, an alkoxy group having 1 to 6 carbon atoms, an aryloxy or aralkyloxy group having 6 to 12 carbon atoms, an aliphatic hydrocarbon group having 1 to 6 carbon atoms, or an aromatic hydrocarbon group having 6 to 12 carbon atoms, R 3 is, independently of each other, a hydrogen atom or a methyl group, Q is a single bond or an alkylene group having 1 to 6 carbon atoms, W is a divalent hydrocarbon group which has 1 to 6 carbon atoms and may have an ether bond, a is 2 or 3, and n is an integer of from 1 to 6. wherein R 1 is, independently of each other, an aliphatic hydrocarbon group having 1 to 10 carbon atoms or an aromatic hydrocarbon group having 6 to 12 carbon atoms, R 2 is, independently of each other, a hydrogen atom, an alkoxy group having 1 to 6 carbon atoms, an aryloxy or aralkyloxy group having 6 to 12 carbon atoms, an aliphatic hydrocarbon group having 1 to 6 carbon atoms, or an aromatic hydrocarbon group having 6 to 12 carbon atoms, R 3 is, independently of each other, a hydrogen atom or a methyl group, Q is a single bond or an alkylene group having 1 to 6 carbon atoms, W is a divalent hydrocarbon group which has 1 to 6 carbon atoms and may have an ether bond, a is 2 or 3, and n is an integer of from 1 to 6.
A fastening module , which is used to fasten a rail foot of an elevator rail to a fastening plane , which fastening module comprises a first fastening device , which, when assembled, is fastened to the fastening plane and is used to hold a first side of the rail foot , and a second fastening device , which, when assembled, is fastened to the fastening plane and is used to hold a second side of the rail foot , it being possible for the second fastening device to be moved at least substantially in parallel with the fastening plane and it being possible for at least one element of the second fastening device , which element , when assembled, interacts with a top side of the rail foot facing away from the fastening plane , to be rotated about an axis of rotation of the second fastening device at least substantially perpendicularly to the fastening plane , over the top side of the rail foot from laterally outside of the rail foot , characterized in that a guide is provided by means of which the second fastening device is guided along a guide track in the fastening plane , and in that the guide track comprises an advancing portion oriented such that the second fastening device can move at least substantially towards a predetermined assembly position of the second side of the rail foot , and the guide track having at least a first and a second inclination in relation to the longitudinal axis of the rail foot specified by the assembly position, when viewed in a projection onto the fastening plane .
A method of drying a cavity loaded with high level nuclear waste comprising: a) flowing a non-reactive gas through the cavity ; b) repetitively measuring dew point temperature of the non-reactive gas exiting the cavity ; the method being characterized in that it further comprises: c) upon the dew point temperature of the non-reactive gas exiting the cavity being measured to be at or below a predetermined dew point temperature, activating a timer set for a predetermined period of time; d) continuing to repetitively measure the dew point temperature of the non-reactive gas exiting the cavity while the timer is activated; e) wherein if during the performance of step d) the dew point temperature of the non-reactive gas is measured to rise above the predetermined dew point temperature prior to the predetermined period of time expiring, deactivating and resetting the timer and returning to step b); and f) wherein if during the performance step d) the predetermined period of time expires without the dew point temperature of the non-reactive gas being measured to rise above the predetermined dew point temperature, discontinuing the flow of the non-reactive gas and sealing the cavity . a) flowing a non-reactive gas through the cavity ; b) repetitively measuring dew point temperature of the non-reactive gas exiting the cavity ; c) upon the dew point temperature of the non-reactive gas exiting the cavity being measured to be at or below a predetermined dew point temperature, activating a timer set for a predetermined period of time; d) continuing to repetitively measure the dew point temperature of the non-reactive gas exiting the cavity while the timer is activated; e) wherein if during the performance of step d) the dew point temperature of the non-reactive gas is measured to rise above the predetermined dew point temperature prior to the predetermined period of time expiring, deactivating and resetting the timer and returning to step b); and f) wherein if during the performance step d) the predetermined period of time expires without the dew point temperature of the non-reactive gas being measured to rise above the predetermined dew point temperature, discontinuing the flow of the non-reactive gas and sealing the cavity .
Endoscopic cap (1; 101; 201; 301) comprising: - a protection envelope (2; 102; 202; 302) formed by a wall folded on itself such that said envelope comprises a proximal opening (5; 105; 305) and a distal opening (4; 104; 304) facing the proximal opening, and the wall having a shape tapered outwards from its proximal opening to its distal opening, in a basic configuration, wherein said envelope (2; 102; 202) defines a housing, - attachment means (3; 103; 203; 303) arranged to enable attachment of the cap onto the distal end of an endoscope with said proximal opening (5; 105; 305) facing or around the distal end of the endoscope, characterised in that the wall of said envelope is made of a structure with sufficient strength to resist perforation and/or incision by a pointed and/or cutting object, the wall of said envelope including a stiffener arranged to surround this housing, said stiffener being composed of one or several wires. - a protection envelope (2; 102; 202; 302) formed by a wall folded on itself such that said envelope comprises a proximal opening (5; 105; 305) and a distal opening (4; 104; 304) facing the proximal opening, and the wall having a shape tapered outwards from its proximal opening to its distal opening, in a basic configuration, wherein said envelope (2; 102; 202) defines a housing, - attachment means (3; 103; 203; 303) arranged to enable attachment of the cap onto the distal end of an endoscope with said proximal opening (5; 105; 305) facing or around the distal end of the endoscope,
A method, performed by a network node in a wireless communication system , for handling resource allocations for a first User Equipment, UE out of a set of UEs , wherein each of the UEs in the set of UEs has a different pre-configured frequency allocation to be used for time wise cyclic transmissions, wherein the method comprises: configuring the UEs with a configured grant periodicity that overprovisions the time resources as compared to an expected need of each of the UEs, determining , based on a data arrival pattern of the cyclic transmissions from each of the UEs in the set of UEs , one or more TTIs, where a collision between transmissions from two UEs out of the set of UEs may occur, reconfiguring the frequency allocation for a first UE of the two UEs to overlap, at least partly, with the frequency allocation of a second UE out of the two UEs for the TTls other than the TTls where the collision between the transmissions from the first and the second UEs (120a 120b) may occur. configuring the UEs with a configured grant periodicity that overprovisions the time resources as compared to an expected need of each of the UEs, determining , based on a data arrival pattern of the cyclic transmissions from each of the UEs in the set of UEs , one or more TTIs, where a collision between transmissions from two UEs out of the set of UEs may occur, reconfiguring the frequency allocation for a first UE of the two UEs to overlap, at least partly, with the frequency allocation of a second UE out of the two UEs for the TTls other than the TTls where the collision between the transmissions from the first and the second UEs (120a 120b) may occur.
A high-frequency amplifier arrangement suitable for generating output powers ≥ 1 kW at frequencies ≥ 2 MHz for plasma excitation, comprising: a. two transistors (S1, S2) each having its source or emitter terminal connected to an earthing point , wherein the transistors (S1, S2) are of the same design and are arranged on a multilayer printed circuit board , b. a power transformer whose primary winding is connected to the drain or collector terminals of the transistors (S1, S2), characterised in that c. the primary winding and the secondary winding of the power transformer are each designed as planar strip conductors which are arranged in different upper layers of the multilayer printed circuit board , and d. the drains or collectors of the transistors (S1, S2) are connected by a series circuit comprising an inductor and a capacitor . a. two transistors (S1, S2) each having its source or emitter terminal connected to an earthing point , wherein the transistors (S1, S2) are of the same design and are arranged on a multilayer printed circuit board , b. a power transformer whose primary winding is connected to the drain or collector terminals of the transistors (S1, S2), characterised in that c. the primary winding and the secondary winding of the power transformer are each designed as planar strip conductors which are arranged in different upper layers of the multilayer printed circuit board , and d. the drains or collectors of the transistors (S1, S2) are connected by a series circuit comprising an inductor and a capacitor .
A method for managing device connectivity between a plurality of secondary devices (102a-n), by a primary device , the method comprising: detecting all of the secondary devices (102a-n) within a predefined area, acquiring history information from at least one secondary device of the plurality of secondary devices (102a-n), the history information including information relating to a current connection and at least one previous connection among the plurality of secondary devices (102a-n); identifying a plurality of connection states between the plurality of secondary devices (102a-n) based on the history information; displaying the plurality of secondary devices (102a-n) and the plurality of connection states between the plurality of secondary devices (102a-n); and in response to receiving an input for two secondary devices of the displayed plurality of secondary devices (102a-n), identifying at least one available service between the two secondary devices (102a-n), and changing a connection status or state between the two secondary devices (102a-n) based on the at least one available service. detecting all of the secondary devices (102a-n) within a predefined area, acquiring history information from at least one secondary device of the plurality of secondary devices (102a-n), the history information including information relating to a current connection and at least one previous connection among the plurality of secondary devices (102a-n); identifying a plurality of connection states between the plurality of secondary devices (102a-n) based on the history information; displaying the plurality of secondary devices (102a-n) and the plurality of connection states between the plurality of secondary devices (102a-n); and in response to receiving an input for two secondary devices of the displayed plurality of secondary devices (102a-n), identifying at least one available service between the two secondary devices (102a-n), and changing a connection status or state between the two secondary devices (102a-n) based on the at least one available service.
A mounting kit , comprising: a mounting element defining a bore , the mounting element being configured to mount to an exterior surface of an organ of a patient; a one way valve sized to be received and retained within the bore of the mounting element, the one way valve having an open position and a closed position, the one way valve substantially occluding the bore when the valve is in the closed position, the one way valve being biased in the closed position; and a plug having a lumen extending there through, the plug being configured to be releasably inserted through at least a portion of the one way valve, the plug being configured to transition the one way valve from the closed position to the open position and to maintain the one way valve in the open position when the plug is inserted within the bore, wherein, when the plug is fully inserted, a distal end of the plug is flush with a distal side of the mounting element. a mounting element defining a bore , the mounting element being configured to mount to an exterior surface of an organ of a patient; a one way valve sized to be received and retained within the bore of the mounting element, the one way valve having an open position and a closed position, the one way valve substantially occluding the bore when the valve is in the closed position, the one way valve being biased in the closed position; and a plug having a lumen extending there through, the plug being configured to be releasably inserted through at least a portion of the one way valve, the plug being configured to transition the one way valve from the closed position to the open position and to maintain the one way valve in the open position when the plug is inserted within the bore, wherein, when the plug is fully inserted, a distal end of the plug is flush with a distal side of the mounting element.
A pluripotent cell, wherein the pluripotent cell is genetically engineered not to be differentiated into a predetermined type of cell, (i) wherein the pluripotent cell has a Prdm14 knockout and an Otx2 knockout; or (ii) wherein the pluripotent cell has both a cytotoxic gene, which is operatively connected to an enhancer and/or promoter of a gene exhibiting germ cell specific expression, and a cytotoxic gene, that is operatively connected to an enhancer and/or promoter of a gene exhibiting forebrain specific expression, wherein the gene exhibiting germ cell specific expression is Prdm14, and the gene exhibiting forebrain specific expression is Otx1 or Otx2. (i) wherein the pluripotent cell has a Prdm14 knockout and an Otx2 knockout; or (ii) wherein the pluripotent cell has both a cytotoxic gene, which is operatively connected to an enhancer and/or promoter of a gene exhibiting germ cell specific expression, and a cytotoxic gene, that is operatively connected to an enhancer and/or promoter of a gene exhibiting forebrain specific expression, wherein the gene exhibiting germ cell specific expression is Prdm14, and the gene exhibiting forebrain specific expression is Otx1 or Otx2. a cytotoxic gene, which is operatively connected to an enhancer and/or promoter of a gene exhibiting germ cell specific expression, and a cytotoxic gene, that is operatively connected to an enhancer and/or promoter of a gene exhibiting forebrain specific expression, wherein the gene exhibiting germ cell specific expression is Prdm14, and the gene exhibiting forebrain specific expression is Otx1 or Otx2.
A revision talar implant component , comprising: a tapered body shaped and dimensioned to substantially align a top surface of a resected talus bone, the body including an inner side and an outer side , the body defining a plurality of screw holes and having a head configured to engage a talar dome component of a multi-component ankle prosthesis, wherein the body has a front side and a back side , said revision talar implant component being characterized in that a plurality of polyaxial locking tabs are disposed about the circumference of the plurality of screw holes or in that the plurality of screw holes comprise a deformable region adjacent to each screw hole adapted to contact a threaded head of a locking screw, in that the front side has a bulbous shape, in that a length between the front side and the back side near the inner side of the body is greater than the length between the front side and the back side near the outer side of the body , and in that the back side of the body has a curved back side . a tapered body shaped and dimensioned to substantially align a top surface of a resected talus bone, the body including an inner side and an outer side , the body defining a plurality of screw holes and having a head configured to engage a talar dome component of a multi-component ankle prosthesis, wherein the body has a front side and a back side , said revision talar implant component being characterized in that a plurality of polyaxial locking tabs are disposed about the circumference of the plurality of screw holes or in that the plurality of screw holes comprise a deformable region adjacent to each screw hole adapted to contact a threaded head of a locking screw, in that the front side has a bulbous shape, in that a length between the front side and the back side near the inner side of the body is greater than the length between the front side and the back side near the outer side of the body , and in that the back side of the body has a curved back side .
Monitoring and diagnostics system for a rail car , comprising: - multiple sensor units (1a, 1b, and 1c), each comprising sensor devices (S) and a data transfer unit (D), wherein the set of sensor units comprise at least one power harvester (P), configured to convert ambient energy into electrical energy, and one energy storage means (E), configured to store the electrical energy generated by the power harvester (P), - a sensor hub which comprises a communication subsystem (cs) and - a receiver , wherein the data transfer unit (D) is configured, so that the sensor units (1a, 1b, and 1c) transfer detected / measured data to the sensor hub and the communication subsystem (cs) is configured, so that the sensor hub transfers the data to the receiver , either with cable or wirelessly and wherein the sensor unit is connected directly with or integrated in a control valve of a brake system of the rail car . - multiple sensor units (1a, 1b, and 1c), each comprising sensor devices (S) and a data transfer unit (D), wherein the set of sensor units comprise at least one power harvester (P), configured to convert ambient energy into electrical energy, and one energy storage means (E), configured to store the electrical energy generated by the power harvester (P), - a sensor hub which comprises a communication subsystem (cs) and - a receiver ,