mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for delivering osteogenetic agent to the spine of a patient comprising: a implantable spine pump couplable to a vertebra of the patient; an external removable induction charger for supplying power to the spine pump; a spinal cage insertable between two adjacent vertebrae of the patient and couplable to the spine pump, wherein the spinal cage is substantially doughnut shaped, characterized in that the spinal cage further comprises: an absorbable sponge disposed within the center of the spinal cage; a main internal channel defined circumferentially about an inner radius of the spinal cage; and a network of sub-channels coupled to and extending from the main internal channel. a implantable spine pump couplable to a vertebra of the patient; an external removable induction charger for supplying power to the spine pump; a spinal cage insertable between two adjacent vertebrae of the patient and couplable to the spine pump, wherein the spinal cage is substantially doughnut shaped, characterized in that the spinal cage further comprises: an absorbable sponge disposed within the center of the spinal cage; a main internal channel defined circumferentially about an inner radius of the spinal cage; and a network of sub-channels coupled to and extending from the main internal channel. an absorbable sponge disposed within the center of the spinal cage; a main internal channel defined circumferentially about an inner radius of the spinal cage; and a network of sub-channels coupled to and extending from the main internal channel.
A method for wireless communication at a user equipment, UE, comprising: receiving at the UE signals from a plurality of cells available for coordinated multipoint, CoMP, data transmission to the UE, each of the plurality of cells associated with a separate base station; determining timing information for the plurality of cells based on the received signals, the timing information comprising a receive time for each of the received signals of the plurality of cells, wherein the receive time for each of the received signals of the plurality of cells is within a timing window at the UE, wherein the timing window may have a width that is equal to a cyclic prefix or a fraction of the cyclic prefix used for data transmission to the UE; sending the timing information for the plurality of cells to a serving cell of the UE; and receiving a CoMP data transmission from a subset of the plurality of cells available for CoMP data transmission to the UE, wherein the subset is selected based on the timing information. receiving at the UE signals from a plurality of cells available for coordinated multipoint, CoMP, data transmission to the UE, each of the plurality of cells associated with a separate base station; determining timing information for the plurality of cells based on the received signals, the timing information comprising a receive time for each of the received signals of the plurality of cells, wherein the receive time for each of the received signals of the plurality of cells is within a timing window at the UE, wherein the timing window may have a width that is equal to a cyclic prefix or a fraction of the cyclic prefix used for data transmission to the UE; sending the timing information for the plurality of cells to a serving cell of the UE; and receiving a CoMP data transmission from a subset of the plurality of cells available for CoMP data transmission to the UE, wherein the subset is selected based on the timing information.
An apparatus of a uranium hexafluoride take-off unit, comprising: a uranium hexafluoride cooling chamber configured to receive a uranium hexafluoride container, the chamber comprising a cooling unit for cooling the uranium hexafluoride in the chamber; and a heater comprising a first region inside the cooling chamber arranged to defrost the cooling unit; and a second region outside the cooling chamber arranged to receive heating fluid cooled in the first region and to heat the received fluid, wherein the second region of the heater is configured to heat the fluid cooled in the first region by exposing the fluid to an ambient temperature fluid outside the cooling chamber. a uranium hexafluoride cooling chamber configured to receive a uranium hexafluoride container, the chamber comprising a cooling unit for cooling the uranium hexafluoride in the chamber; and a heater comprising a first region inside the cooling chamber arranged to defrost the cooling unit; and a second region outside the cooling chamber arranged to receive heating fluid cooled in the first region and to heat the received fluid, wherein the second region of the heater is configured to heat the fluid cooled in the first region by exposing the fluid to an ambient temperature fluid outside the cooling chamber.
A cantharidin formulation comprising: ethanol, wherein the formulation comprises ethanol in an amount up to 99% weight/volume; acetone, wherein the formulation comprises acetone in an amount up to 99% weight/volume; hydroxypropylcellulose, wherein the formulation comprises hydroxypropylcellulose in an amount up to 10% weight/volume; nitrocellulose, wherein the formulation comprises nitrocellulose in an amount up to 10% weight/volume; castor oil, wherein the formulation comprises castor oil in an amount up to 5% weight/volume; camphor, wherein the formulation comprises camphor in an amount up to 5% weight/volume; cantharidin, wherein the formulation comprises cantharidin in an amount from 0.001-7% weight/volume; denatonium benzoate, wherein the formulation comprises denatonium benzoate in an amount from 0.00001-1% weight/volume; and gentian violet, wherein the formulation comprises gentian violet in an amount from 0.00001-1% weight/volume. ethanol, wherein the formulation comprises ethanol in an amount up to 99% weight/volume; acetone, wherein the formulation comprises acetone in an amount up to 99% weight/volume; hydroxypropylcellulose, wherein the formulation comprises hydroxypropylcellulose in an amount up to 10% weight/volume; nitrocellulose, wherein the formulation comprises nitrocellulose in an amount up to 10% weight/volume; castor oil, wherein the formulation comprises castor oil in an amount up to 5% weight/volume; camphor, wherein the formulation comprises camphor in an amount up to 5% weight/volume; cantharidin, wherein the formulation comprises cantharidin in an amount from 0.001-7% weight/volume; denatonium benzoate, wherein the formulation comprises denatonium benzoate in an amount from 0.00001-1% weight/volume; and gentian violet, wherein the formulation comprises gentian violet in an amount from 0.00001-1% weight/volume.
A binder for ink-jet printing ink, comprising a polyurethane that has a hydroxyl group at a molecular terminal, has a weight-average molecular weight of 30,000 to 70,000, and is obtained by causing a reaction of a polyisocyanate and a polyol containing a polyether polyol (a2-1) represented by general formula below so that the equivalent ratio [isocyanate group /hydroxyl group] of an isocyanate group in the polyisocyanate to a hydroxyl group in the polyol is in the range of 0.930 to 0.995 and an aqueous medium, wherein the hydroxyl group present at the molecular terminal of the polyurethane is a hydroxyl group derived from the polyether polyol (a2-1), (R in general formula represents an alkylene group having 3 to 8 carbon atoms, and n is an average number of addition moles of a structural unit RO in general formula, n being in the range of 8 to 55).
A fiber-reinforced composite material comprising a plurality of reinforcing-fiber-containing layers and a resin layer in each interlaminar region between adjacent reinforcing-fiber-containing layers, said layers obtained by curing a laminate of a plurality of prepregs, characterized in that said resin layer consists of a cured product of a resin composition comprising a compound having in its molecule a benzoxazine ring represented by formula: wherein R 1 stands for a chain alkyl group having 1 to 12 carbon atoms, a cyclic alkyl group having 3 to 8 carbon atoms, a phenyl group, or a phenyl group substituted with a chain alkyl group having 1 to 12 carbon atoms or a halogen, and a hydrogen atom is bonded to at least one of the carbon atoms of the aromatic ring at ortho- or para-position with respect to the carbon atom to which the oxygen atom is bonded, epoxy resin, a curing agent, a toughness improver, and polyamide 12 powder, wherein the content of component is 65 to 78 mass% and the content of component is 22 to 35 mass%, with the total of components and being 100 mass%, wherein the content of component is 7 to 15 parts by mass with respect to 100 parts by mass of components and together, wherein said fiber-reinforced composite material has a Mode I interlaminar fracture toughness G IC of not lower than 300 J/m 2, and a Mode II interlaminar fracture toughness G IIC of not lower than 1000 J/m 2, and wherein the interlaminar fracture toughnesses G IC and G IIC are measured according to JIS K7086 using a rectangular specimen of 250 mm in the 0° direction and 25 mm in width obtained following the laminating of the prepregs in 26 piles in the direction of 0 degree, and curing laminated prepregs in an autoclave under heating stepwise from room temperature to 180 °C, and at 180 °C for 2 hours.
An exhaust system for internal combustion engines comprising: a lean NO x trap including a NOx adsorbent for the storage of NOx and an oxidation/reduction catalyst, wherein the oxidation/reduction catalyst comprises one or more of platinum, palladium, and/or rhodium; and the NOx absorbent comprises alkaline earth metals, alkali metals, rare earth metals or combinations thereof; and a catalyzed filter substrate having a first zone and a second zone, wherein the first zone comprises a platinum group metal loaded on a support and the second zone comprises copper or iron loaded on a zeolite, and the first zone or the second zone additionally comprises a base metal oxide or a base metal loaded on an inorganic oxide, wherein the base metal is selected from the group consisting of iron, manganese, copper, nickel, and mixtures thereof, and the base metal oxide is selected from the group consisting of iron oxide, manganese oxide, copper oxide, nickel oxide, and mixtures thereof and the inorganic oxide is alumina, silica, titania, zirconia, ceria, niobia, tantalum oxides, molybdenum oxides, tungsten oxides, mixed oxides or composite oxides of any two or more thereof, or mixtures thereof, wherein the catalyzed filter substrate is oriented such that the first zone is contacted by an exhaust gas from the NO x trap prior to the second zone. a lean NO x trap including a NOx adsorbent for the storage of NOx and an oxidation/reduction catalyst, wherein the oxidation/reduction catalyst comprises one or more of platinum, palladium, and/or rhodium; and the NOx absorbent comprises alkaline earth metals, alkali metals, rare earth metals or combinations thereof; and a catalyzed filter substrate having a first zone and a second zone, wherein the first zone comprises a platinum group metal loaded on a support and the second zone comprises copper or iron loaded on a zeolite, and the first zone or the second zone additionally comprises a base metal oxide or a base metal loaded on an inorganic oxide, wherein the base metal is selected from the group consisting of iron, manganese, copper, nickel, and mixtures thereof, and the base metal oxide is selected from the group consisting of iron oxide, manganese oxide, copper oxide, nickel oxide, and mixtures thereof and the inorganic oxide is alumina, silica, titania, zirconia, ceria, niobia, tantalum oxides, molybdenum oxides, tungsten oxides, mixed oxides or composite oxides of any two or more thereof, or mixtures thereof, wherein the catalyzed filter substrate is oriented such that the first zone is contacted by an exhaust gas from the NO x trap prior to the second zone.
A method for charging a lithium ion battery, comprising the steps of: 1) determining a maximum charging current I 0 and a lowest anode potential η of the lithium ion battery at which no lithium precipitation occurs; 2) charging the lithium ion battery at a constant current of I 1 which is greater than I 0 for a charging time of t 1; 3) discharging the lithium ion battery at a constant current of I 2 which is less than I 0 for a discharging time of t 2, wherein 5≤t 1 /t 2 ≤50; 4) repeating steps 2) and 3) until a cutoff voltage of the lithium ion battery reaches Vo, and then standing the lithium ion battery for a standing time of t 3; and 5) charging the lithium ion battery with a constant current of I 0 until the cutoff voltage of the lithium ion battery reaches V 0 and then charging the lithium ion battery to a cutoff current of I 3 at a constant voltage. 1) determining a maximum charging current I 0 and a lowest anode potential η of the lithium ion battery at which no lithium precipitation occurs; 2) charging the lithium ion battery at a constant current of I 1 which is greater than I 0 for a charging time of t 1; 3) discharging the lithium ion battery at a constant current of I 2 which is less than I 0 for a discharging time of t 2, wherein 5≤t 1 /t 2 ≤50; 4) repeating steps 2) and 3) until a cutoff voltage of the lithium ion battery reaches Vo, and then standing the lithium ion battery for a standing time of t 3; and 5) charging the lithium ion battery with a constant current of I 0 until the cutoff voltage of the lithium ion battery reaches V 0 and then charging the lithium ion battery to a cutoff current of I 3 at a constant voltage.
A system, comprising: a light source to generate an optical signal, the optical signal including a set of pulses at a first repetition rate; an optical multiplexer circuit to receive the optical signal and to generate a multiplexed optical signal including a set of pulses at a second repetition rate, wherein the second repetition rate is an n-multiple of the first repetition rate, wherein the set of pulses at the second repetition rate includes n sets of pulses, each set of pulses of the n set of pulses having a different polarization state than each other of the n set of pulses and being at the first repetition rate; a focusing unit to receive the multiplexed optical signal and to split the multiplexed optical signal into a set of n excitation signals to excite a sample, each excitation signal of the set of n excitation signals corresponding to a set of pulses of the n set of pulses; an objective to receive the set of n excitation signals and to illuminate the sample, wherein the objective and the focusing unit collectively focus each excitation signal of the set of n excitation signals on a different focal plane of the sample than each other excitation signal of the set of n excitation signals to generate a response signal in response to the set of n excitation signals; and an electronic demultiplexer circuit to demultiplex emission from the different focal planes and to generate a set of n emission signals based on the response signal, each emission signal of the set of n emission signals corresponding to an excitation signal of the set of n excitation signals. a light source to generate an optical signal, the optical signal including a set of pulses at a first repetition rate; an optical multiplexer circuit to receive the optical signal and to generate a multiplexed optical signal including a set of pulses at a second repetition rate, wherein the second repetition rate is an n-multiple of the first repetition rate, wherein the set of pulses at the second repetition rate includes n sets of pulses, each set of pulses of the n set of pulses having a different polarization state than each other of the n set of pulses and being at the first repetition rate; a focusing unit to receive the multiplexed optical signal and to split the multiplexed optical signal into a set of n excitation signals to excite a sample, each excitation signal of the set of n excitation signals corresponding to a set of pulses of the n set of pulses; an objective to receive the set of n excitation signals and to illuminate the sample, wherein the objective and the focusing unit collectively focus each excitation signal of the set of n excitation signals on a different focal plane of the sample than each other excitation signal of the set of n excitation signals to generate a response signal in response to the set of n excitation signals; and an electronic demultiplexer circuit to demultiplex emission from the different focal planes and to generate a set of n emission signals based on the response signal, each emission signal of the set of n emission signals corresponding to an excitation signal of the set of n excitation signals.
A load-bearing building block for building mortarless demountable load-bearing walls, the building block having a first short side surface, a second short side surface, a first long side surface, and a second long side surface; the building block comprising: - interconnecting means in said first short side surface, said second short side surface, said first long side surface, and said second long side surface of the building block for interconnecting the block adjacent to its side surface, with the interconnecting means of a similar block by use of a first complementary element, wherein said interconnecting means comprise a groove and the first complementary element is slidable in a first dimension along the groove and has a two-dimensional form closure when installed in the groove, wherein interconnecting means of adjacent building blocks forming a corner are situated in front of one another; wherein the combination of said building blocks and said first complementary element allows the build-up of said wall, whereby said wall is part of an architectural structure, characterized in that the building block further comprises - at least one vertical hole, extending from the top to the bottom surface of the block; wherein said at least one hole is vertically interconnectable with the at least one hole of a similar block, positioned above or below, by use of said first complementary element, the first complementary element being slidable in the first dimension through the hole and having two-dimensional form closure when installed in the hole. - interconnecting means in said first short side surface, said second short side surface, said first long side surface, and said second long side surface of the building block for interconnecting the block adjacent to its side surface, with the interconnecting means of a similar block by use of a first complementary element, wherein said interconnecting means comprise a groove and the first complementary element is slidable in a first dimension along the groove and has a two-dimensional form closure when installed in the groove, wherein interconnecting means of adjacent building blocks forming a corner are situated in front of one another; wherein the combination of said building blocks and said first complementary element allows the build-up of said wall, whereby said wall is part of an architectural structure, characterized in that the building block further comprises - at least one vertical hole, extending from the top to the bottom surface of the block; wherein said at least one hole is vertically interconnectable with the at least one hole of a similar block, positioned above or below, by use of said first complementary element, the first complementary element being slidable in the first dimension through the hole and having two-dimensional form closure when installed in the hole.
A method of grinding an inorganic particulate material, comprising grinding said material in a stirred mill in the presence of a grinding media comprising rod-shaped particles, characterised in that said rod-shaped particles have an aspect ratio of more than 2:1, wherein the aspect ratio of a rod-shaped particle is the ratio of the longest dimension of the rod-shaped particle to the shortest dimension, and wherein the longest dimension is the axial length of the rod-shaped particle.
A method for controlling a hybrid vehicle including an engine, a battery charged with electric power generated by a generator driven by the engine, and a motor as a drive source and having multiple running modes that can be selected through a mode operation, the running modes including: a normal mode configured to perform charging of the battery according to a running state; and a charge mode configured to perform electric power generation by the generator according to the mode operation, characterized in that the method comprises, in a case where a charging current in the charge mode exceeds a predetermined specified value, setting an upper limit of charging electric power based on the generated electric power in the charge mode to a value lower than an upper limit of charging electric power based on the generated electric power in the normal mode, wherein in a case where the battery is charged with regenerative electric power generated by the motor, the upper limit of charging electric power based on the generated electric power in the charge mode is lowered according to an amount of the regenerative electric power. the running modes including: a normal mode configured to perform charging of the battery according to a running state; and a charge mode configured to perform electric power generation by the generator according to the mode operation, a normal mode configured to perform charging of the battery according to a running state; and a charge mode configured to perform electric power generation by the generator according to the mode operation, characterized in that the method comprises, in a case where a charging current in the charge mode exceeds a predetermined specified value, setting an upper limit of charging electric power based on the generated electric power in the charge mode to a value lower than an upper limit of charging electric power based on the generated electric power in the normal mode, wherein in a case where the battery is charged with regenerative electric power generated by the motor, the upper limit of charging electric power based on the generated electric power in the charge mode is lowered according to an amount of the regenerative electric power.
Polyphenylene sulfide microparticles in which a linseed oil absorption amount is in a range of 80 to 1,000 mL/100 g and a number average particle diameter is in a range of 1 to 200 μm, wherein sphericity is 80% or more.