mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a blast resistant panel comprising: preparing a uniform, self-leveling cementitious aqueous mixture of a) 25-45 weight % inorganic cement binder, b) filler, wherein the filler in the cemetitious aqueous mixture consists of i) silica sand filler having a median particle size of 150- 450 microns, the silica sand filler being at least 35 weight % of the cementitious aqueous mixture, and ii) pozzolanic filler having a median particle size of less than or equal to 50 microns, the pozzolanic filler being 5-15 weight % of the cementitious aqueous mixture, and wherein the pozzolanic filler is silica fume, c) 0.25-5.0 weight % polycarboxylate based self-leveling agent, and d) 6-12 weight % water, adding reinforcing fiber to the aqueous mixture, forming the uniform mixture into a fiber reinforced cementitious panel; curing the fiber reinforced cementitious panel to produce a partially hardened cementitious panel, sanding the surfaces of the partially hardened cementitious panel, cutting the partially hardened cementitious panel to a desired size, curing the partially hardened cementitious panel to a final hardened cementitious panel. preparing a uniform, self-leveling cementitious aqueous mixture of a) 25-45 weight % inorganic cement binder, b) filler, wherein the filler in the cemetitious aqueous mixture consists of i) silica sand filler having a median particle size of 150- 450 microns, the silica sand filler being at least 35 weight % of the cementitious aqueous mixture, and ii) pozzolanic filler having a median particle size of less than or equal to 50 microns, the pozzolanic filler being 5-15 weight % of the cementitious aqueous mixture, and wherein the pozzolanic filler is silica fume, c) 0.25-5.0 weight % polycarboxylate based self-leveling agent, and d) 6-12 weight % water, a) 25-45 weight % inorganic cement binder, b) filler, wherein the filler in the cemetitious aqueous mixture consists of i) silica sand filler having a median particle size of 150- 450 microns, the silica sand filler being at least 35 weight % of the cementitious aqueous mixture, and ii) pozzolanic filler having a median particle size of less than or equal to 50 microns, the pozzolanic filler being 5-15 weight % of the cementitious aqueous mixture, and wherein the pozzolanic filler is silica fume, c) 0.25-5.0 weight % polycarboxylate based self-leveling agent, and d) 6-12 weight % water, adding reinforcing fiber to the aqueous mixture, forming the uniform mixture into a fiber reinforced cementitious panel; curing the fiber reinforced cementitious panel to produce a partially hardened cementitious panel, sanding the surfaces of the partially hardened cementitious panel, cutting the partially hardened cementitious panel to a desired size, curing the partially hardened cementitious panel to a final hardened cementitious panel.
A medical imaging system comprising an illumination device, wherein the illumination device comprises: a first light source configured to emit light having a wavelength range; a second light source configured to emit light having at least one predetermined wavelength band, wherein the at least one predetermined wavelength band is within the wavelength range; a dichroic mirror configured to attenuate a portion of the wavelength range corresponding to the at least one predetermined wavelength band and to multiplex the second light with the first light such that the portion of the wavelength range of the first light is attenuated, wherein light multiplexed by the dichroic mirror is emitted from the illumination device along an optical axis and irradiates an observation site; characterized by a diffusion member positioned between the second light source and the dichroic mirror . a first light source configured to emit light having a wavelength range; a second light source configured to emit light having at least one predetermined wavelength band, wherein the at least one predetermined wavelength band is within the wavelength range; a dichroic mirror configured to attenuate a portion of the wavelength range corresponding to the at least one predetermined wavelength band and to multiplex the second light with the first light such that the portion of the wavelength range of the first light is attenuated, wherein light multiplexed by the dichroic mirror is emitted from the illumination device along an optical axis and irradiates an observation site; characterized by a diffusion member positioned between the second light source and the dichroic mirror .
Method for preparing methyl 4,6-diamino-2-[1-(2-fluorobenzyl)-1H-pyrazolo[3,4-b]pyridin-3-yl]-5-pyrimidinylcarbamate of the formula (VI), characterized in that 2-[1-(2-fluorobenzyl)-1H-pyrazolo[3,4-b]pyridin-3-yl]-4,5,6-pyrimidinetriamine of the formula (VIII) is reacted with dimethyl dicarbonate of the formula (X) in the context of a pyridine-free reaction regime.
A method performed by a wireless device in a wireless communication system, the method comprising: receiving, from a base station via a radio resource control, RRC, signalling, a semi-persistent scheduling, SPS, configuration comprising an SPS scheduling interval; transmitting, to the base station , a message including a first SPS timing for a logical channel; receiving, from the base station , a command for activating SPS transmissions at a first activation timing; based on that the first SPS timing included in the message which the wireless device has transmitted to the base station needs to be changed for the logical channel, transmitting, to the base station , a message including a second SPS timing for the logical channel; receiving, from the base station , a command for activating the SPS transmissions at a second activation timing; and performing the SPS transmissions to the base station based on the second activation timing and the SPS scheduling interval. receiving, from a base station via a radio resource control, RRC, signalling, a semi-persistent scheduling, SPS, configuration comprising an SPS scheduling interval; transmitting, to the base station , a message including a first SPS timing for a logical channel; receiving, from the base station , a command for activating SPS transmissions at a first activation timing; based on that the first SPS timing included in the message which the wireless device has transmitted to the base station needs to be changed for the logical channel, transmitting, to the base station , a message including a second SPS timing for the logical channel; receiving, from the base station , a command for activating the SPS transmissions at a second activation timing; and performing the SPS transmissions to the base station based on the second activation timing and the SPS scheduling interval.
A front-load washing machine comprising a body , a drum provided in the body , in which the laundry are placed, a loading opening provided on front of the body , enabling access into the drum , a door covering the loading opening and having an inner frame , an outer frame , and a window fixed between the inner frame and the outer frame , a first opening provided on the upper portion of the window so as to be positioned higher than the maximum level of the water received into the drum , at least one fan provided on the door , enabling the drum to be ventilated by blowing the outer environment air into the drum through the first opening , a protective cover fixed between the window and the outer frame so as to be in front of the window , a second opening provided on the protective cover , leading to the outer environment, and a fan seat in which the fan is placed, extending between the first opening and the second opening .
A crisp plate , comprising: a plate ; a liner disposed on a surface of the plate , wherein the liner includes: a network of carbon nanotubes combined with aluminum nanoparticles and a ceramic component ; a polymer component suitable to form a matrix, wherein the network of carbon nanotubes is embedded within the matrix, and further wherein the carbon nanotubes are unidirectionally aligned within the matrix. a plate ; a liner disposed on a surface of the plate , wherein the liner includes: a network of carbon nanotubes combined with aluminum nanoparticles and a ceramic component ; a polymer component suitable to form a matrix, wherein the network of carbon nanotubes is embedded within the matrix, and further wherein the carbon nanotubes are unidirectionally aligned within the matrix. a network of carbon nanotubes combined with aluminum nanoparticles and a ceramic component ; a polymer component suitable to form a matrix, wherein the network of carbon nanotubes is embedded within the matrix, and further wherein the carbon nanotubes are unidirectionally aligned within the matrix.
A crank transmission comprising a crankshaft for connecting to at least one foot crank or hand crank, and at least one transmission wheel driven by means of the crankshaft , - wherein a coupling unit is provided between the crankshaft and the transmission wheel , - wherein the coupling unit , under load, at least temporarily has an angular offset between a crank-side receiving region and an output region connected to the transmission wheel for receiving and outputting the torque introduced into the crankshaft , - wherein the coupling unit comprises a torsion element which is arranged in a cavity of the crankshaft , characterized in that the torsion element is connected in a rotationally fixed manner to the transmission wheel at a connection point in the output region by means of a connecting element , - the connecting element extends from the cavity of the crankshaft through a passage in the wall of the crankshaft , and - the torsion element is connected in a rotationally fixed manner to the crankshaft at a connection point in the receiving region . - wherein a coupling unit is provided between the crankshaft and the transmission wheel , - wherein the coupling unit , under load, at least temporarily has an angular offset between a crank-side receiving region and an output region connected to the transmission wheel for receiving and outputting the torque introduced into the crankshaft , - wherein the coupling unit comprises a torsion element which is arranged in a cavity of the crankshaft , characterized in that the torsion element is connected in a rotationally fixed manner to the transmission wheel at a connection point in the output region by means of a connecting element , - the connecting element extends from the cavity of the crankshaft through a passage in the wall of the crankshaft , and - the torsion element is connected in a rotationally fixed manner to the crankshaft at a connection point in the receiving region .
An implantable medical device delivery system comprising: an elongated member configured to navigate an intravascular system of a patient; a deployment bay connected to a distal portion of the elongated member and configured to house at least a portion of an implantable medical device (IMD), the deployment bay defining a distal opening configured for deployment of the IMD out of the deployment bay at a target site in a patient; signal generation circuitry configured to deliver an electrical signal to a path between a first electrode located inside of the deployment bay and a second electrode through at least one of a fluid or tissue of the patient; and processing circuitry configured to: determine an impedance of the path based on the signal; and generate an output that indicates when an impedance of the path indicates that at least one of the IMD or the distal opening is in a fixation configuration relative to the target site of the patient via a user interface . an elongated member configured to navigate an intravascular system of a patient; a deployment bay connected to a distal portion of the elongated member and configured to house at least a portion of an implantable medical device (IMD), the deployment bay defining a distal opening configured for deployment of the IMD out of the deployment bay at a target site in a patient; signal generation circuitry configured to deliver an electrical signal to a path between a first electrode located inside of the deployment bay and a second electrode through at least one of a fluid or tissue of the patient; and processing circuitry configured to: determine an impedance of the path based on the signal; and generate an output that indicates when an impedance of the path indicates that at least one of the IMD or the distal opening is in a fixation configuration relative to the target site of the patient via a user interface . determine an impedance of the path based on the signal; and generate an output that indicates when an impedance of the path indicates that at least one of the IMD or the distal opening is in a fixation configuration relative to the target site of the patient via a user interface .
A composition for a laminated material used for a medical lubricating member, the composition comprising: a polymer b including a polysiloxane structure; a catalyst for crosslinking reaction; and a crosslinking agent, wherein the polymer b includes, as a constituent component, at least one of an acrylic acid component, an acrylic acid ester component, an acrylamide component, or a styrene component, the polymer b has at least one of a hydroxy group, a carboxy group, an amino group, an isocyanate group, an oxazolinyl group, an epoxy group, a vinyl group, an ethynyl group, a sulfanyl group, an azide group, a trialkoxysilyl group, or an acid anhydride structure, and the crosslinking agent includes at least one of a crosslinking agent having a structural unit represented by formula (CL1) below or a crosslinking agent represented by formula (CL2) below, wherein R CL represents a hydrogen atom or an organic group, X represents a hydroxy group, a carboxy group, an amino group, an isocyanate group, an oxazolinyl group, an epoxy group, a vinyl group, an ethynyl group, a sulfanyl group, an azide group, a trialkoxysilyl group, or a group having an acid anhydride structure, Y represents an m-valent linking group, m represents an integer of 2 or more, and R dm has the same definition as X. a polymer b including a polysiloxane structure; a catalyst for crosslinking reaction; and a crosslinking agent, wherein the polymer b includes, as a constituent component, at least one of an acrylic acid component, an acrylic acid ester component, an acrylamide component, or a styrene component, the polymer b has at least one of a hydroxy group, a carboxy group, an amino group, an isocyanate group, an oxazolinyl group, an epoxy group, a vinyl group, an ethynyl group, a sulfanyl group, an azide group, a trialkoxysilyl group, or an acid anhydride structure, and the crosslinking agent includes at least one of a crosslinking agent having a structural unit represented by formula (CL1) below or a crosslinking agent represented by formula (CL2) below, wherein R CL represents a hydrogen atom or an organic group, X represents a hydroxy group, a carboxy group, an amino group, an isocyanate group, an oxazolinyl group, an epoxy group, a vinyl group, an ethynyl group, a sulfanyl group, an azide group, a trialkoxysilyl group, or a group having an acid anhydride structure, Y represents an m-valent linking group, m represents an integer of 2 or more, and R dm has the same definition as X.
A system for the asymmetric rotation of a metered dispenser comprising: (a) an asymmetric rotation mixer having a rotation drive , the asymmetric rotation mixer being a dual axis rotation mixer having a hatch and a mixing chamber for conducting asymmetric rotation mixing; (b) a basket engaged with the rotation drive of the asymmetric rotation mixer and configured to receive rotational force about a primary axis ; (c) a metered dispenser having a body and two opposing ends ; (d) a mixer catch having a catch body configured for engagement within the basket of the asymmetric rotation mixer to receive asymmetric rotation, the catch body formed complimentary to the basket to maintain relative position about the primary axis of asymmetric rotation and to rotate about a secondary axis ; and (e) a cavity defined in the catch body , the cavity being open on a top end face of said catch body and further configured to receive the metered dispenser such that both opposing ends are secured within said cavity , and wherein the cavity is further configured to maintain the metered dispenser stationary relative to the catch body and defining a longitudinal dimension (line L) corresponding to the metered dispenser , wherein the longitudinal dimension extends along the top face of the catch body ; wherein the primary axis is vertical and the longitudinal dimension (line L) of the cavity is oriented at an angle (β) from horizontal, the angle (β) being within a range of about 20 degrees to about 70 degrees. (a) an asymmetric rotation mixer having a rotation drive , the asymmetric rotation mixer being a dual axis rotation mixer having a hatch and a mixing chamber for conducting asymmetric rotation mixing; (b) a basket engaged with the rotation drive of the asymmetric rotation mixer and configured to receive rotational force about a primary axis ; (c) a metered dispenser having a body and two opposing ends ; (d) a mixer catch having a catch body configured for engagement within the basket of the asymmetric rotation mixer to receive asymmetric rotation, the catch body formed complimentary to the basket to maintain relative position about the primary axis of asymmetric rotation and to rotate about a secondary axis ; and (e) a cavity defined in the catch body , the cavity being open on a top end face of said catch body and further configured to receive the metered dispenser such that both opposing ends are secured within said cavity , and wherein the cavity is further configured to maintain the metered dispenser stationary relative to the catch body and defining a longitudinal dimension (line L) corresponding to the metered dispenser , wherein the longitudinal dimension extends along the top face of the catch body ;
A method for ultrasonic fatigue testing at high temperature of an hourglass-shaped test specimen , wherein Young's modulus corresponding to temperature is calculated from a measurement result of a resonance frequency by inverse calculation, and a fatigue load condition is controlled, characterized in that the Young's modulus inverse calculation comprises the following steps: (a) calculating a shoulder part length (L2) of the hourglass-shaped test specimen by expressions to as follows: U " x + P x U ′ x + k 2 U x = 0 P x = S ′ x S x k = 2 ⁢ π ⁢ f ρ E wherein U(x) denotes displacement amplitude, f denotes the resonance frequency, E denotes Young's modulus, ρ denotes density and S(x) denotes a cross-sectional area of the hourglass-shaped test specimen , as follows: S x = π 4 d 1 2 cosh 2 αx , α = 1 L 1 cosh − 1 d 2 d 1 , 0 ≤ x ≤ L 1 S x = π 4 d 2 2 , L 1 ≤ x ≤ L 1 + L 2 wherein d1 denotes a minimum part diameter of the hourglass-shaped test specimen , d3 denotes a shoulder part diameter of the hourglass-shaped test specimen , L1 denotes an R part half-length of the hourglass-shaped test specimen , and L2 denotes a shoulder part length of the hourglass-shaped test specimen ; (b) measuring the shoulder part length (L2) using an ultrasonic fatigue testing device ; and (c) searching Young's modulus when the shoulder part length (L2) calculated in step (a) and the shoulder part length L2 measured in step (b) are identical. (a) calculating a shoulder part length (L2) of the hourglass-shaped test specimen by expressions to as follows: U " x + P x U ′ x + k 2 U x = 0 P x = S ′ x S x k = 2 ⁢ π ⁢ f ρ E wherein U(x) denotes displacement amplitude, f denotes the resonance frequency, E denotes Young's modulus, ρ denotes density and S(x) denotes a cross-sectional area of the hourglass-shaped test specimen , as follows: S x = π 4 d 1 2 cosh 2 αx , α = 1 L 1 cosh − 1 d 2 d 1 , 0 ≤ x ≤ L 1 S x = π 4 d 2 2 , L 1 ≤ x ≤ L 1 + L 2 wherein d1 denotes a minimum part diameter of the hourglass-shaped test specimen , d3 denotes a shoulder part diameter of the hourglass-shaped test specimen , L1 denotes an R part half-length of the hourglass-shaped test specimen , and L2 denotes a shoulder part length of the hourglass-shaped test specimen ; (b) measuring the shoulder part length (L2) using an ultrasonic fatigue testing device ; and (c) searching Young's modulus when the shoulder part length (L2) calculated in step (a) and the shoulder part length L2 measured in step (b) are identical.
A virus-like particle (VLP) which comprises: - a capsid, which exhibits resistance to hydrolysis catalyzed by at least one hydrolase acting on peptide bonds when the capsid is contacted with the hydrolase, - a heterologous cargo molecule, said molecule comprising a double stranded RNA molecule of more than 100 nucleotide base pairs and a capsid packing sequence, wherein said double stranded RNA molecule further comprises more than one complementary region, each of said complementary regions comprising; (a) a single sense strand short RNA sequence or multiple catenated sense strand short RNA sequences, immediately followed by (b) a non-complementary RNA sequence capable of forming a loop, immediately followed by (c) a single antisense strand short RNA sequence complementary to the sense strand short RNA sequence or multiple catenated antisense strand short RNA sequences complementary to the multiple catenated sense strand short RNA sequences wherein the complementary regions are contiguously arrayed, wherein if the complementary region comprises multiple catenated sense strand short RNA sequences, the multiple catenated sense strand short RNA sequences are linked by 1 to 3 non-complementary nucleotides to form bulged RNA, and wherein if the complementary region comprises a single sense strand short RNA sequence, the single sense strand short RNA sequence is modified so that 1 to 3 non-complementary consecutive nucleotides are added every 19 to 28 nucleotides to form bulged RNA. - a capsid, which exhibits resistance to hydrolysis catalyzed by at least one hydrolase acting on peptide bonds when the capsid is contacted with the hydrolase, - a heterologous cargo molecule, said molecule comprising a double stranded RNA molecule of more than 100 nucleotide base pairs and a capsid packing sequence, (a) a single sense strand short RNA sequence or multiple catenated sense strand short RNA sequences, immediately followed by (b) a non-complementary RNA sequence capable of forming a loop, immediately followed by (c) a single antisense strand short RNA sequence complementary to the sense strand short RNA sequence or multiple catenated antisense strand short RNA sequences complementary to the multiple catenated sense strand short RNA sequences
Starch-containing microspheres, wherein the particle size of the starch-containing microspheres has a uniformly distributed polydispersity in a particle size concentrated distribution interval, characterized by : evenly dividing the particle size concentrated distribution interval into n intervals, wherein the proportion of microspheres in each interval is as follows: 100 n % ± 10 n % wherein n is an integer greater than 1; preferably, n is an integer between 4 and 10; wherein said starch-containing microspheres comprise a zwitterionic surfactant with a formula: wherein m is an integer of 2-6, preferably m is 3 or 4; R is a saturated carbon chain having 1-18 carbon atoms, preferably 12-18 carbon atoms; and wherein the starch-containing microspheres contain a constitutional unit derived from epoxy chloropropane as a crosslinking agent. wherein n is an integer greater than 1; preferably, n is an integer between 4 and 10; wherein said starch-containing microspheres comprise a zwitterionic surfactant with a formula: wherein m is an integer of 2-6, preferably m is 3 or 4; R is a saturated carbon chain having 1-18 carbon atoms, preferably 12-18 carbon atoms; and wherein the starch-containing microspheres contain a constitutional unit derived from epoxy chloropropane as a crosslinking agent.