mhurhangee/ep-ind-claims huggingface dataset:
A polyrotaxane monomer having a composite molecular structure comprising: cyclic molecules, and an axial molecule that threads through the rings of the cyclic molecules and has a bulky group at both ends thereof so as not to dethread the rings, wherein: the polyrotaxane monomer has a water content of 5000 ppm or less, which is measured according to a Karl Fischer method, a side chain is introduced into at least a part of the cyclic molecules, and a polymerizable functional group is introduced into the side chain. cyclic molecules, and an axial molecule that threads through the rings of the cyclic molecules and has a bulky group at both ends thereof so as not to dethread the rings, wherein: the polyrotaxane monomer has a water content of 5000 ppm or less, which is measured according to a Karl Fischer method, a side chain is introduced into at least a part of the cyclic molecules, and a polymerizable functional group is introduced into the side chain. the polyrotaxane monomer has a water content of 5000 ppm or less, which is measured according to a Karl Fischer method, a side chain is introduced into at least a part of the cyclic molecules, and a polymerizable functional group is introduced into the side chain.
An injectable composition for use in a method of therapeutically augmenting soft tissue in a mammal by injecting the composition into a target region of the mammal where tissue volumizing and tissue regeneration is desirable, the target region being adjacent to a prosthetic implant; wherein the injectable composition comprises a cellular component including living cells; and a degradable filler component conducive to maintaining viability of the cells, the degradable filler component comprising crosslinked hyaluronic acid.
A tunable light generating system comprising one or more first light generating devices, one or more second light generating devices, and one or more third light generating devices, wherein: - the one or more first light generating devices are configured to generate white first device light having a first color rendering index, CRI1, and a first correlated color temperature, Tc1; - the one or more second light generating devices are configured to generate white second device light having a second color rendering index, CRI2, and a second correlated color temperature, Tc2; - the one or more third light generating devices are configured to generate third device light having a third dominant wavelength, λd3, selected from the range of 470-500 nm; - CRI1≥85; Tc2-Tc1>1000 K; Tc1≤3500 K; and Tc2≥3000 K: and - the tunable light generating system is configured to generate system light comprising one or more of the first device light, the second device light, and the third device light, characterized in - CRI1-CRI2≥10; - the tunable light generating system further comprising (i) a first LED string comprising the one or more first light generating devices, and (ii) a second LED string comprising the one or more second light generating devices and the one or more third light generating devices; and - the tunable light generating system being configured to control the ratio of the first LED string and the second LED string. - the one or more first light generating devices are configured to generate white first device light having a first color rendering index, CRI1, and a first correlated color temperature, Tc1; - the one or more second light generating devices are configured to generate white second device light having a second color rendering index, CRI2, and a second correlated color temperature, Tc2; - the one or more third light generating devices are configured to generate third device light having a third dominant wavelength, λd3, selected from the range of 470-500 nm; - CRI1≥85; Tc2-Tc1>1000 K; Tc1≤3500 K; and Tc2≥3000 K: and - the tunable light generating system is configured to generate system light comprising one or more of the first device light, the second device light, and the third device light, - CRI1-CRI2≥10; - the tunable light generating system further comprising (i) a first LED string comprising the one or more first light generating devices, and (ii) a second LED string comprising the one or more second light generating devices and the one or more third light generating devices; and - the tunable light generating system being configured to control the ratio of the first LED string and the second LED string.
A circuit arrangement for a vehicle comprising a combustion engine in which a coolant can circulate, wherein the circuit arrangement comprises at least one first heat exchanger cooling a motor block via a first coolant circuit and at least one storage installation for giving off heat to a heating device in a second coolant circuit, wherein the storage installation in a third coolant circuit is integrated for additional cooling of the motor block, wherein a conduit of the third coolant circuit leads into a first inlet of a first valve and a conduit of the second coolant circuit leads into a second inlet of the first valve via which the feed of the coolant from the second coolant circuit and the feed of the coolant from the third coolant circuit into the storage installation can be regulated, wherein the use of the storage installation as a heat storage facility and as a cold storage facility can be changed by switching the first valve and the storage installation comprises an outlet which is connected to an inlet of a second valve, wherein the first outlet of the second valve conducts the coolant into the third coolant circuit to the motor block and the second outlet of the second valve conducts the coolant into the second coolant circuit to the heating device, characterised in that the outlet of the storage installation is connected to the heating device and a cylinder head of the combustion engine via the second coolant circuit.
A lighting module comprising: at least one light emitting device arranged on a first carrier; driving electronics for driving said at least one light emitting device arranged on a second carrier; and an optical interface for outputting light emitted by said at least one light emitting device, wherein said second carrier is arranged in a plane substantially parallel to said first carrier, wherein said first and second carriers are configured such that a projection of said first carrier onto said plane is substantially non-overlapping with the second carrier so as to form a non-overlapping region, wherein said driving electronics is at least partially arranged in said non-overlapping region, wherein said lighting module further comprising a heat conducting element that has a first side having a surface with a protrusion, wherein the first carrier is arranged on top of the protrusion, characterized in that the second carrier is arranged on a portion of the surface that surrounds the protrusion.. at least one light emitting device arranged on a first carrier; driving electronics for driving said at least one light emitting device arranged on a second carrier; and an optical interface for outputting light emitted by said at least one light emitting device, wherein said second carrier is arranged in a plane substantially parallel to said first carrier, wherein said first and second carriers are configured such that a projection of said first carrier onto said plane is substantially non-overlapping with the second carrier so as to form a non-overlapping region, wherein said driving electronics is at least partially arranged in said non-overlapping region, wherein said lighting module further comprising a heat conducting element that has a first side having a surface with a protrusion, wherein the first carrier is arranged on top of the protrusion, characterized in that the second carrier is arranged on a portion of the surface that surrounds the protrusion..
An inhibitor of polynucleotide kinase/phosphatase (PNKP) for use in the treatment of a subject having cancer, or suspected of having cancer, said cancer associated with a defect in ING3, CDKN3, PTPN6, PTEN, or SMG1.
An optical device comprising a stack of the following layers: a capping layer; a layer of light absorber material; a reflective layer; and a spacer layer between the reflective layer and the layer of light absorber material, wherein: the refractive index of the capping layer is at least 1.6; the light absorber material is a phase-change material having a complex refractive index that is settable to at least two values which confer different optical properties to the device; and characterized in that: the spacer layer comprises a plurality of spacer layer sub-layers (401, 402), at least two of the spacer layer sub-layers (401, 402) having different refractive indices relative to each other. a capping layer; a layer of light absorber material; a reflective layer; and a spacer layer between the reflective layer and the layer of light absorber material, wherein: the refractive index of the capping layer is at least 1.6; the light absorber material is a phase-change material having a complex refractive index that is settable to at least two values which confer different optical properties to the device; and characterized in that: the refractive index of the capping layer is at least 1.6; the light absorber material is a phase-change material having a complex refractive index that is settable to at least two values which confer different optical properties to the device; and characterized in that: the spacer layer comprises a plurality of spacer layer sub-layers (401, 402), at least two of the spacer layer sub-layers (401, 402) having different refractive indices relative to each other.
A lighting strip extending in a length direction and having a first side and second side in a width direction, the lighting strip comprising: a flexible printed circuit strip comprising a plurality of wiring portions extending in the length direction at the first side of the lighting strip and a plurality of respective carrying portions protruding from the wiring portions towards the second side of the lighting strip, the wiring portions being for supplying electrical power to electric elements on the carrying portions and the carrying portions being adapted to be bent at a boundary between the wiring portions and the carrying portions; a plurality of lighting elements respectively on the carrying portions; characterized in that a flexible arm disposed between each of two adjacent wiring portions, such that the flexible arm is integrally formed with the adjacent wiring portions in a U-shape or a V-shape having an opening at the first side to adjust a pitch between two adjacent carrying portions and such that the flexible arm protrudes from each of the two adjacent wiring portions towards the second side of the lighting strip such that at least a portion of the flexible arm is located between two adjacent carrying portions when the lighting strip is not bent. a flexible printed circuit strip comprising a plurality of wiring portions extending in the length direction at the first side of the lighting strip and a plurality of respective carrying portions protruding from the wiring portions towards the second side of the lighting strip, the wiring portions being for supplying electrical power to electric elements on the carrying portions and the carrying portions being adapted to be bent at a boundary between the wiring portions and the carrying portions; a plurality of lighting elements respectively on the carrying portions; a flexible arm disposed between each of two adjacent wiring portions, such that the flexible arm is integrally formed with the adjacent wiring portions in a U-shape or a V-shape having an opening at the first side to adjust a pitch between two adjacent carrying portions and such that the flexible arm protrudes from each of the two adjacent wiring portions towards the second side of the lighting strip such that at least a portion of the flexible arm is located between two adjacent carrying portions when the lighting strip is not bent.
A method for beam calibration, the method comprising: transmitting a first set of reference signals over a transmit, TX, radio frequency, RF, chain of a first wireless device according to a set of beam directions, each reference signal in the first set of reference signals being transmitted over a different beam direction in the set of beam directions; receiving, by the first wireless device, a first list of indices from a second wireless device, the first list of indices ranking beam directions in the set of beam directions based on quality parameters of corresponding reference signals in the first set of reference signals received by a second wireless device; receiving a second set of reference signals over a receive, RX, RF chain of the first wireless device according to the set of beam directions, each reference signal in the second set of reference signals being received over a different beam direction in the set of beam directions; determining a second list of indices based on the second set of reference signals, the second list of indices ranking beam directions in the set of beam directions based on quality parameters of corresponding reference signals in the second set of reference signals received over the RX RF chain; and determining that the first list of indices ranks the set of beam directions in a different order than the second list of indices and, based thereon, calibrating analog beamforming components of at least one of the TX RF chain and the RX RF chain; wherein the set of beam directions includes a plurality of beam directions. transmitting a first set of reference signals over a transmit, TX, radio frequency, RF, chain of a first wireless device according to a set of beam directions, each reference signal in the first set of reference signals being transmitted over a different beam direction in the set of beam directions; receiving, by the first wireless device, a first list of indices from a second wireless device, the first list of indices ranking beam directions in the set of beam directions based on quality parameters of corresponding reference signals in the first set of reference signals received by a second wireless device; receiving a second set of reference signals over a receive, RX, RF chain of the first wireless device according to the set of beam directions, each reference signal in the second set of reference signals being received over a different beam direction in the set of beam directions; determining a second list of indices based on the second set of reference signals, the second list of indices ranking beam directions in the set of beam directions based on quality parameters of corresponding reference signals in the second set of reference signals received over the RX RF chain; and determining that the first list of indices ranks the set of beam directions in a different order than the second list of indices and, based thereon, calibrating analog beamforming components of at least one of the TX RF chain and the RX RF chain; wherein the set of beam directions includes a plurality of beam directions.
Cutting machine for producing slices (101, 102) from strands of an elastic material, e.g. meat strands, and in particular portions composed of several slices, in particular with precise weight, wherein the cutting machine - comprises a plurality of form tubes for one meat strand each, which are arranged in parallel side by side, open at the front and rear and extending in the longitudinal pressing direction, the axial direction, - there is a longitudinal press plunger for each of the form tubes, which can be pushed into the form tube from the rear loading end in the longitudinal pressing direction of the form tube, - at the front cutting end of the form tubes, a blade for separating slices (101, 102) from the strands is movably arranged in a first blade transverse direction (31.1), - wherein the form tubes consist in the circumferential direction of a plurality of form parts movable relative to one another in at least one of two transverse directions (11.1, 11.2) and thereby have a cross-section adjustable in at least one of the two transverse directions (11.1, 11.2) relative to the longitudinal direction, characterized in - a plurality of stop plates, in particular one for each form tube, the stop plates extending parallel to the blade plane (3") and being movable in a transverse direction (11.1, 11.2),, in particular the first blade transverse direction (31.1). - comprises a plurality of form tubes for one meat strand each, which are arranged in parallel side by side, open at the front and rear and extending in the longitudinal pressing direction, the axial direction, - there is a longitudinal press plunger for each of the form tubes, which can be pushed into the form tube from the rear loading end in the longitudinal pressing direction of the form tube, - at the front cutting end of the form tubes, a blade for separating slices (101, 102) from the strands is movably arranged in a first blade transverse direction (31.1), - wherein the form tubes consist in the circumferential direction of a plurality of form parts movable relative to one another in at least one of two transverse directions (11.1, 11.2) and thereby have a cross-section adjustable in at least one of the two transverse directions (11.1, 11.2) relative to the longitudinal direction, - a plurality of stop plates, in particular one for each form tube, the stop plates extending parallel to the blade plane (3") and being movable in a transverse direction (11.1, 11.2),, in particular the first blade transverse direction (31.1).
A method for determining a precoding matrix indicator, comprising: determining a precoding matrix indicator PMI, wherein the PMI corresponds to a precoding matrix W, and wherein the precoding matrix W satisfies a first condition; and sending the PMI to a base station, wherein the first condition is that the precoding matrix W satisfies W = DV, wherein the matrix D is a diagonal matrix, wherein D = α ⋅ d i a g u 1, u 2,..., u n, u n *, u n − 1 *,..., u 1 *, wherein α is a complex factor, wherein u i * is a conjugate complex number of a complex number u i, wherein n is determined by a quantity of antenna ports; and wherein the matrix V is a constant modulus matrix whose elements have a same module or amplitude. determining a precoding matrix indicator PMI, wherein the PMI corresponds to a precoding matrix W, and wherein the precoding matrix W satisfies a first condition; and sending the PMI to a base station, wherein the first condition is that the precoding matrix W satisfies W = DV, wherein the matrix D is a diagonal matrix, wherein D = α ⋅ d i a g u 1, u 2,..., u n, u n *, u n − 1 *,..., u 1 *, wherein α is a complex factor, wherein u i * is a conjugate complex number of a complex number u i, wherein n is determined by a quantity of antenna ports; and wherein the matrix V is a constant modulus matrix whose elements have a same module or amplitude.
A method for the preparation of surface-modified hydrogels and hydrogel microparticles, comprising: treating a hydrogel or hydrogel microparticles comprising Component, at least one water-compatible organic polymer, alcohol-compatible organic polymer, or any combination thereof; with (i) Component, at least one free-radical polymerizable compound that is immiscible with water, water-compatible alcohols, or combinations thereof; and (ii) Component, at least one organoborane free radical initiator, said treatment occurring in the presence of oxygen; wherein at least one modified surface is formed on the treated hydrogel or hydrogel microparticles. treating a hydrogel or hydrogel microparticles comprising Component, at least one water-compatible organic polymer, alcohol-compatible organic polymer, or any combination thereof; with (i) Component, at least one free-radical polymerizable compound that is immiscible with water, water-compatible alcohols, or combinations thereof; and (ii) Component, at least one organoborane free radical initiator, said treatment occurring in the presence of oxygen; wherein at least one modified surface is formed on the treated hydrogel or hydrogel microparticles.
A method for controlling a vehicle including an engine, a generator, a drive motor, and a filter that collects particulate matter in exhaust gas of the engine, in which the generator is driven by the engine to generate power, and the drive motor is driven with the power generated by the generator, the method comprising: performing motoring by driving the engine in an operation stop state with the generator, thereby performing fuel cut of the engine and consuming power; and prohibiting fuel cut of the engine based on a temperature of the filter; the method being characterized by: when a discharge request is made while the fuel cut of the engine is prohibited, performing a power consumption operation in which a negative engine torque is generated in the engine by driving the engine with the generator while performing combustion in the engine. performing motoring by driving the engine in an operation stop state with the generator, thereby performing fuel cut of the engine and consuming power; and prohibiting fuel cut of the engine based on a temperature of the filter;
An immunogen of the structure where n=0 or 1, the antigenicity-conferring carrier material (accm) is a protein, a protein fragment, a synthetic polypeptide or a semi-synthetic polypeptide and the crosslinker links the carbonyl group to the accm.
°/ Locking system of a blade in the extended position for a knife with a folding blade and a handle, that allows the user to hold the knife, and a mounted blade that turns towards this handle, the blade can be pivoted to either an extended position when in use or to a folded position when not in use, in which position it is partially hidden inside the said handle, the said locking system includes first locking means arranged on the top of the knife and be able to adopt: - A first position wherein the said first means lock the blade in the extended position and, - A second position wherein the said first means do not lock the blade in the extended position, characterised in that it comprises the second locking means able to adopt: -A first position wherein the said second means lock the first means in their first locking position of the blade and, -A second position wherein the said second means force the said first means to adopt their second non-locking position of the blade. - A first position wherein the said first means lock the blade in the extended position and, - A second position wherein the said first means do not lock the blade in the extended position, -A first position wherein the said second means lock the first means in their first locking position of the blade and, -A second position wherein the said second means force the said first means to adopt their second non-locking position of the blade.