mhurhangee/patent-ind-claim-en huggingface dataset:
A compound consisting of one or more peptides consisting of the following general structure A - L1 - B - L2 - C wherein A corresponds to a first amino acid sequence that is derived from αA or αC alpha helical region of human IL-4 or IL-13, B corresponds to a second amino acid sequence that is derived from αA or αC alpha helical region of human IL-4 or IL-13, C corresponds to a third amino acid sequence that is derived from αD or αB alpha helical region of human IL-4, or αD alpha helical region of human IL-13, L1 and L2 correspond to 1 to 10 linking amino acids, wherein A corresponds to the amino acids WNR, B corresponds to the amino acids EIIKT, C corresponds to the amino acids KTIMREKY, or A corresponds to the amino acids LMR, B corresponds to the amino acids ELIEELVNIT, C corresponds to the amino acids FVKDLLLHLKK, or A corresponds to the amino acids EIIKT, B corresponds to the amino acids RLDRNLWG, C corresponds to the amino acids RAATVLRQFYS, wherein said peptide is capable of stimulating neuronal axon outgrowth and has no side effect on lymphocytes or bone marrow-derived macrophages. A corresponds to a first amino acid sequence that is derived from αA or αC alpha helical region of human IL-4 or IL-13, B corresponds to a second amino acid sequence that is derived from αA or αC alpha helical region of human IL-4 or IL-13, C corresponds to a third amino acid sequence that is derived from αD or αB alpha helical region of human IL-4, or αD alpha helical region of human IL-13, L1 and L2 correspond to 1 to 10 linking amino acids, A corresponds to the amino acids WNR, B corresponds to the amino acids EIIKT, C corresponds to the amino acids KTIMREKY, or A corresponds to the amino acids LMR, B corresponds to the amino acids ELIEELVNIT, C corresponds to the amino acids FVKDLLLHLKK, or A corresponds to the amino acids EIIKT, B corresponds to the amino acids RLDRNLWG, C corresponds to the amino acids RAATVLRQFYS,
A buffer system comprising: a low pressure supply line ; a high pressure supply line ; and a variable valve in fluid communication with the low pressure supply line and the high pressure supply line , wherein the variable valve comprises a low pressure orifice (310; 410) and a high pressure orifice (320; 420); the variable valve is configured to translate linearly to align the low pressure orifice with the low pressure supply line and/or align the high pressure orifice (320; 420) with the high pressure supply line ; characterised in that a cross-section of the low pressure orifice and the high pressure orifice is substantially triangular and a cross-section of the low pressure supply line and the high pressure supply line at an interface with the variable valve is substantially circular. a low pressure supply line ; a high pressure supply line ; and a variable valve in fluid communication with the low pressure supply line and the high pressure supply line , wherein the variable valve comprises a low pressure orifice (310; 410) and a high pressure orifice (320; 420); the variable valve is configured to translate linearly to align the low pressure orifice with the low pressure supply line and/or align the high pressure orifice (320; 420) with the high pressure supply line ; characterised in that a cross-section of the low pressure orifice and the high pressure orifice is substantially triangular and a cross-section of the low pressure supply line and the high pressure supply line at an interface with the variable valve is substantially circular.
Use of a composition comprising bacteria belonging to Bifidobacterium breve MCC1274 (FERM BP-11175) as an active ingredient for sleep-promotion, wherein the use is non-therapeutic, or wherein the use is not a method for treatment of the human or animal body by therapy. wherein the use is non-therapeutic, or wherein the use is not a method for treatment of the human or animal body by therapy.
A seismic surveying method, comprising: obtaining developed data related to acquisition of seismic data acquired by sailing at least one vessel towing streamers on a streamer spread along one or more developed sail lines (530-538, 802, 804) of an acquisition plan, each of the developed sail lines (530-538, 802, 804) having a developed footprint of the developed data; predicting at least one offset of the streamer spread towed by the at least one vessel along a first candidate sail line adjacent one or more of the one or more developed sail lines (530-538, 802, 804); predicting a first candidate footprint for acquiring first candidate data along the first candidate sail line by tracing the first candidate foot print at the at least one offset of the streamer spread towed by the at least one vessel before acquiring the first candidate data along the first candidate sail line; comparing the first candidate footprint with respectto the adjacent one or more developed footprints ; quantifying the comparison for an operator in terms of at least one of overlap, gap, and an attribute unique to the predicted sail line footprint between the first candidate footprint with respect to the adjacent one or more developed footprints; receiving an instruction from the operator for sailing the at least one vessel based on the quantified comparison; and acquiring seismic data by sailing the at least one vessel with the streamer spread in accordance with the instruction received. obtaining developed data related to acquisition of seismic data acquired by sailing at least one vessel towing streamers on a streamer spread along one or more developed sail lines (530-538, 802, 804) of an acquisition plan, each of the developed sail lines (530-538, 802, 804) having a developed footprint of the developed data; predicting at least one offset of the streamer spread towed by the at least one vessel along a first candidate sail line adjacent one or more of the one or more developed sail lines (530-538, 802, 804); predicting a first candidate footprint for acquiring first candidate data along the first candidate sail line by tracing the first candidate foot print at the at least one offset of the streamer spread towed by the at least one vessel before acquiring the first candidate data along the first candidate sail line; comparing the first candidate footprint with respectto the adjacent one or more developed footprints ; quantifying the comparison for an operator in terms of at least one of overlap, gap, and an attribute unique to the predicted sail line footprint between the first candidate footprint with respect to the adjacent one or more developed footprints; receiving an instruction from the operator for sailing the at least one vessel based on the quantified comparison; and acquiring seismic data by sailing the at least one vessel with the streamer spread in accordance with the instruction received.
A method of testing a water sample for at least one anti-corrosion saturated and/or unsaturated aliphatic nitrogen containing organic compound, the method comprising the steps of: collecting the water sample from a thermal power system or other steam water cycle; passing the water sample through an ion exchange column ; passing the water sample through a first vacuum degassing channel after passing through the ion exchange column ; transmitting light having a wavelength of between 190 nm and 310 nm into the water sample after the water sample has passed through the first vacuum degassing channel ; measuring absorption/transmission of the light having a wavelength of between 190 nm and 310 nm by the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound in the water sample ; determining a concentration of the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound within the water sample based on the absorption/transmission of the light having a wavelength of between 190 nm and 310 nm by the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound. collecting the water sample from a thermal power system or other steam water cycle; passing the water sample through an ion exchange column ; passing the water sample through a first vacuum degassing channel after passing through the ion exchange column ; transmitting light having a wavelength of between 190 nm and 310 nm into the water sample after the water sample has passed through the first vacuum degassing channel ; measuring absorption/transmission of the light having a wavelength of between 190 nm and 310 nm by the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound in the water sample ; determining a concentration of the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound within the water sample based on the absorption/transmission of the light having a wavelength of between 190 nm and 310 nm by the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound.
Method for producing a diecast part by means of a diecasting mould , air that is contained in the diecasting mould being extracted by suction and a level of humidity contained in the extracted air being measured, characterized in that the humidity in the extracted air stream is measured while the air is being extracted, the measurement being performed directly at the diecasting mould , so that a time delay between the air leaving the diecasting mould and the measurement is minimized.
A terahertz wave generation device , comprising: a pump light source for generating pump light of only a single wavelength; and a nonlinear optical element having a periodic structure in which polarization or crystal orientation is periodically inverted in an inversion period (Λ), wherein the nonlinear optical element is configured to generate idler light and signal light when the pump light is incident thereon, the idler light and the signal light satisfying the law of conservation of energy with respect to the pump light and a collinear phase matching condition with respect to a virtual pump light wave vector (k' p ), and wherein the virtual pump light wave vector (k' p ) is defined as a vector obtained by vector addition or subtraction of a pump light wave vector (k p ) in the nonlinear optical element and a grating vector (k Λ ), the grating vector (k Λ ) corresponding to the inversion period (Λ) in the nonlinear optical element . a pump light source for generating pump light of only a single wavelength; and a nonlinear optical element having a periodic structure in which polarization or crystal orientation is periodically inverted in an inversion period (Λ), wherein the nonlinear optical element is configured to generate idler light and signal light when the pump light is incident thereon, the idler light and the signal light satisfying the law of conservation of energy with respect to the pump light and a collinear phase matching condition with respect to a virtual pump light wave vector (k' p ), and wherein the virtual pump light wave vector (k' p ) is defined as a vector obtained by vector addition or subtraction of a pump light wave vector (k p ) in the nonlinear optical element and a grating vector (k Λ ), the grating vector (k Λ ) corresponding to the inversion period (Λ) in the nonlinear optical element .
A composite pressure vessel assembly comprising: a plurality of lobes , each of the lobes having at least one interior wall and at least one curved wall , the plurality of lobes being positioned in a side by side arrangement and extending in a longitudinal direction from a first end to a second end ; and a plurality of end caps disposed at the ends of the lobes ; wherein the plurality of lobes and end caps are formed of at least one fiber-reinforced polymer; wherein the plurality of lobes and end caps are configured to form a single, integrally formed composite structure; characterized in that each of the plurality of lobes are joined to each other with an adhesive bond; or each of the plurality of lobes are joined to each other with a preformed connector beam that is positioned between adjacent lobes and bonded to the adjacent lobes. a plurality of lobes , each of the lobes having at least one interior wall and at least one curved wall , the plurality of lobes being positioned in a side by side arrangement and extending in a longitudinal direction from a first end to a second end ; and a plurality of end caps disposed at the ends of the lobes ; wherein the plurality of lobes and end caps are formed of at least one fiber-reinforced polymer; wherein the plurality of lobes and end caps are configured to form a single, integrally formed composite structure; characterized in that each of the plurality of lobes are joined to each other with an adhesive bond; or each of the plurality of lobes are joined to each other with a preformed connector beam that is positioned between adjacent lobes and bonded to the adjacent lobes.
Computer implemented method for determining an initial ego-pose for initialization of self-localization, the method comprising the following steps carried out by computer hardware components: - providing a plurality of particles in a map; - grouping the particles in a plurality of clusters with a binary grid, each cluster comprising a respective subset of the plurality of particles; - during particle filtering, injecting particles based on the plurality of clusters; - determining an initial ego-pose based on the particle filtering; and - determining a mean value and a variance of the respective locations of the respective subject of particles for each of the clusters; characterised in that injecting particles based on the plurality of clusters comprises injecting the particles based on the respective mean value and the respective variance; wherein the initial ego-position is determined based on entropy based monitoring based on the binary grid; and wherein the particles are injected if an entropy change rate exceeds a pre-determined threshold. the method comprising the following steps carried out by computer hardware components: - providing a plurality of particles in a map; - grouping the particles in a plurality of clusters with a binary grid, each cluster comprising a respective subset of the plurality of particles; - during particle filtering, injecting particles based on the plurality of clusters; - determining an initial ego-pose based on the particle filtering; and - determining a mean value and a variance of the respective locations of the respective subject of particles for each of the clusters; - providing a plurality of particles in a map; - grouping the particles in a plurality of clusters with a binary grid, each cluster comprising a respective subset of the plurality of particles; - during particle filtering, injecting particles based on the plurality of clusters; - determining an initial ego-pose based on the particle filtering; and - determining a mean value and a variance of the respective locations of the respective subject of particles for each of the clusters; characterised in that injecting particles based on the plurality of clusters comprises injecting the particles based on the respective mean value and the respective variance; wherein the initial ego-position is determined based on entropy based monitoring based on the binary grid; and wherein the particles are injected if an entropy change rate exceeds a pre-determined threshold.
An internal combustion engine air cleaner comprising a case having an inlet duct , a cap having an outlet , and a filter element provided between an opening in the case and an opening in the cap facing the opening of the case , wherein a case channel is formed at an edge of the case , constituting part of a circulating channel through which internal combustion engine blow-by gas is caused to circulate to an intake air channel, and a cap channel is formed at an edge of the cap , constituting a part of the circulating channel further downstream than the case channel , the configuration being such that the case channel and the cap channel are in communication as the case and cap are assembled, characterized in that the case comprises a first molded case having an opening-side peripheral wall section surrounding the opening and a first case channel-forming section that is continuous with the opening-side peripheral wall section , and a second molded case comprising a bottom wall of the case , a bottom wall-side peripheral wall section that is continuous with the bottom wall , and a second case channel-forming section that is formed at an edge of the bottom wall-side peripheral wall section , a case body is formed by joining of the peripheral edge of the opening-side peripheral wall section with the peripheral edge of the bottom wall-side peripheral wall section , and the case channel is formed by joining of the first case channel-forming section with the second case channel-forming section .
A fluid injection device comprising a body for coming into contact with an injection site (SI), at least two fluid reservoirs , and an injection needle for penetrating into said injection site (SI) so as to inject therein the contents of one or more reservoir(s) , said device comprising a single rotary actuator that, when it turns in a first direction of rotation, includes means to activate the selection of the reservoir(s) to be dispensed, and that, when it turns in the opposite direction, includes means to actuate a dispenser system, in particular a peristaltic pump , characterized in that said actuator includes a central pin that extends through an oblong opening of the body, thereby forming a floating cog wherein the actuator , when it is at a first end of said oblong opening , cooperates with a gear of a rotary selector member , in particular via an intermediate cog , so as to actuate the selection of the reservoir(s) to be dispensed, and when it is at the other end of said oblong opening , cooperates with a gear of a crankshaft , so as to actuate a peristaltic pump .
A method for preparing biomass graphene using cellulose as a raw material, characterized in that the steps thereof are: Step 1: Preparation of a catalyst solution: a catalyst is added to distilled water and the mixture is stirred for 10-30 min to obtain a homogeneous catalyst solution, in which the ratio of solute to solvent is from 2:100 to 35:100; Step 2: Preparation of a precursor: biomass cellulose is added to the catalyst solution obtained in step 1, and the mixture is stirred for 2-3 h and then deoxidized at a high temperature and dried to obtain a precursor, in which the mass ratio of cellulose to solvent is 3:100 to 40:100; and the deoxidation at a high temperature is conducted at a temperature of 110-205°C for 6-16 h or at a microwave strength of 3-9 kW and a temperature of 110-170°C for 5min-2h; Step 3: Heat treatment: pre-carbonization: the precursor obtained in step 2 is heated to 300-450°C at a heating rate of 11-16°C/min in a nitrogen gas, argon gas or hydrogen gas atmosphere to be pre-carbonized for 2-5 h; secondary carbonization: the pre-carbonized product is heated to 1000-1550°C at a heating rate of 5-12°C/min for heat treatment for 5-10 h to carry out secondary carbonization treatment to the precursor obtained in step 2; Step 4: Acid treatment, water-washing and drying: the product obtained in step 3 is acid-treated, centrifuged and then washed with distilled water to neutral, and then dried at 80-110°C to obtain graphene. Step 1: Preparation of a catalyst solution: a catalyst is added to distilled water and the mixture is stirred for 10-30 min to obtain a homogeneous catalyst solution, in which the ratio of solute to solvent is from 2:100 to 35:100; Step 2: Preparation of a precursor: biomass cellulose is added to the catalyst solution obtained in step 1, and the mixture is stirred for 2-3 h and then deoxidized at a high temperature and dried to obtain a precursor, in which the mass ratio of cellulose to solvent is 3:100 to 40:100; and the deoxidation at a high temperature is conducted at a temperature of 110-205°C for 6-16 h or at a microwave strength of 3-9 kW and a temperature of 110-170°C for 5min-2h; Step 3: Heat treatment: pre-carbonization: the precursor obtained in step 2 is heated to 300-450°C at a heating rate of 11-16°C/min in a nitrogen gas, argon gas or hydrogen gas atmosphere to be pre-carbonized for 2-5 h; secondary carbonization: the pre-carbonized product is heated to 1000-1550°C at a heating rate of 5-12°C/min for heat treatment for 5-10 h to carry out secondary carbonization treatment to the precursor obtained in step 2; Step 4: Acid treatment, water-washing and drying: the product obtained in step 3 is acid-treated, centrifuged and then washed with distilled water to neutral, and then dried at 80-110°C to obtain graphene.
A method for in vitro sorting or assisting the sorting of pancreatic endocrine progenitor cells or nascent pancreatic endocrine cells in a population of cells to be tested, comprising the steps of: detecting whether the cells in the population of cells to be tested express a SUSD2 gene, if some cells express the SUSD2 gene, these cells are or are candidates for pancreatic endocrine progenitor cells or nascent endocrine cells; if some cells do not express the SUSD2 gene, these cells are not or are not candidates for pancreatic endocrine progenitor cells or nascent endocrine cells; and the nucleotide sequence of the SUSD2 gene is illustrated as SEQ ID NO: 2 in the Sequence Listing.
Washing machine for the washing of laundry such as clothes and textiles, which washing machine comprises a housing , wherein the housing comprises: an inlet , for supplying washing water, an outlet , for disposal of washing water, a pump , for pumping the washing water and air, and at least one, preferably a plurality of washing drawers , characterized in that each washing drawer has a pair of conduits for fluid tight connection of a respective flexible washing compartment for washing laundry and arranged in the washing drawer , wherein each drawer of the housing is arranged to lead water from the inlet of the housing via conduit to the respective washing compartment arranged therein and, by means of the pump and conduit , to pump air and water out from the respective flexible washing compartment in order to create a pressure difference inside the washing compartment with respect to the surrounding pressure and by that emptying the flexible washing compartment of washing water and air, one or more inflatable outer compartment(s) are arranged externally to the washing compartment to provide pressure on the outside of the washing compartment . an inlet , for supplying washing water, an outlet , for disposal of washing water, a pump , for pumping the washing water and air, and at least one, preferably a plurality of washing drawers , characterized in that each washing drawer has a pair of conduits for fluid tight connection of a respective flexible washing compartment for washing laundry and arranged in the washing drawer , wherein each drawer of the housing is arranged to lead water from the inlet of the housing via conduit to the respective washing compartment arranged therein and, by means of the pump and conduit , to pump air and water out from the respective flexible washing compartment in order to create a pressure difference inside the washing compartment with respect to the surrounding pressure and by that emptying the flexible washing compartment of washing water and air, one or more inflatable outer compartment(s) are arranged externally to the washing compartment to provide pressure on the outside of the washing compartment .