mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for use in treatment of ischemic cerebrovascular disease, ischemic heart disease, myocardial infarction, Alzheimer's disease, Parkinson's disease, Lewy body disease, multiple sclerosis, amyotrophic lateral sclerosis, or spinal cord injury, the composition comprising the secretome of poly-sialylated neural cell adhesion molecule (PSA-NCAM)-positive neural precursor cells (NPCs) as an active ingredient, wherein the PSA-NCAM-positive neural precursor cells are separated from neural rosettes differentiated from pluripotent stem cells, and the pluripotent stem cells are embryonic stem cells, or induced pluripotent stem cells (iPSCs), wherein the secretome is in a form of being contained in a cell culture liquid obtained by culturing the PSA-NCAM-positive neural precursor cells in cell culture medium, wherein the secretome is obtained by removing the cells from the cell culture medium.
A yarn tension sensor, comprising a support and a contact element which is adapted to be slideably engaged by a yarn (Y) and is movably sustained with respect to the support in relation to the fluctuations of tension of said yarn (Y), said contact element being integral with a reference element which is made of a conductive material, said reference element operatively facing at least one spiral coil driven by a control unit in order to generate a primary magnetic field of constant strength which produces eddy currents on said reference element which have a strength proportional to the distance from said spiral coil , which eddy currents generate an induced magnetic field of proportional strength which causes the inductance and the resistance of said spiral coil to vary as a function of the distance of said spiral coil from said reference element , characterized in that said control unit is programmed to calculate the tension of the yarn from the variations of said inductance (L(d)) and said resistance (R(d)), on the basis of either the resulting oscillation frequency (f) or the resulting parallel impedance (R p ) of the resonant circuit.
A device for generating a variable time-dependent signal on a capacitive surface sensor , wherein the device comprises an apparatus and the capacitive surface sensor , wherein the apparatus comprises a first electrically conductive structure , wherein the first electrically conductive structure can be converted into a second electrically conductive structure by changing the first electrically conductive structure , characterized in that the first electrically conductive structure comprises at least two individual elements which are electrically isolated from one another and is configured, when a dynamic input is performed in the form of a movement of an input means by a user on the first electrically conductive structure , while the apparatus is in operative contact with the capacitive surface sensor, to generate a first time-dependent signal on the capacitive surface sensor , which is determined by the arrangement, electrical conductivity, size, distance, and/or shape of the individual elements of the first electrically conductive structure and wherein the second electrically conductive structure comprises at least two individual elements which are electrically isolated from one another and is configured, when a dynamic input is performed in the form of a movement of an input means on the second electrically conductive structure , while the device is in operative contact with the capacitive surface sensor, to generate a second time-dependent signal on the capacitive surface sensor , which is determined by the arrangement, electrical conductivity, size, distance, and/or shape of the individual elements of the second electrically conductive structure . wherein the first electrically conductive structure can be converted into a second electrically conductive structure by changing the first electrically conductive structure , characterized in that the first electrically conductive structure comprises at least two individual elements which are electrically isolated from one another and is configured, when a dynamic input is performed in the form of a movement of an input means by a user on the first electrically conductive structure , while the apparatus is in operative contact with the capacitive surface sensor, to generate a first time-dependent signal on the capacitive surface sensor , which is determined by the arrangement, electrical conductivity, size, distance, and/or shape of the individual elements of the first electrically conductive structure and wherein the second electrically conductive structure comprises at least two individual elements which are electrically isolated from one another and is configured, when a dynamic input is performed in the form of a movement of an input means on the second electrically conductive structure , while the device is in operative contact with the capacitive surface sensor, to generate a second time-dependent signal on the capacitive surface sensor , which is determined by the arrangement, electrical conductivity, size, distance, and/or shape of the individual elements of the second electrically conductive structure .
A water transport membrane comprising a porous silica-loaded polyethylene substrate with a coating comprising a cross-linked, water permeable, non-ionic polyurethane-polyether polymer formed on one surface thereof.
An aerosol generating article for producing an inhalable aerosol when heated, the aerosol generating article comprising: a hollow cylindrical rod of aerosol generating substrate; a wrapper circumscribing the rod ; a hollow tube extending along a longitudinal axis of the rod and defining a central airflow channel of the aerosol generating article, the hollow tube comprising a plurality of openings extending through a wall of the tube, such that the aerosol generating substrate in the rod is in fluid communication with the central airflow channel through the openings ; wherein a ratio between a cumulative cross-sectional area of the plurality of openings and a cross-sectional area of the central airflow channel is from about 0.042 to about 0.672. a hollow cylindrical rod of aerosol generating substrate; a wrapper circumscribing the rod ; a hollow tube extending along a longitudinal axis of the rod and defining a central airflow channel of the aerosol generating article, the hollow tube comprising a plurality of openings extending through a wall of the tube, such that the aerosol generating substrate in the rod is in fluid communication with the central airflow channel through the openings ; wherein a ratio between a cumulative cross-sectional area of the plurality of openings and a cross-sectional area of the central airflow channel is from about 0.042 to about 0.672.
A sample collection unit configured to receive a test strip , the sample collection unit comprising: a collection tube including an open end ; and a cap configured to be coupled to the open end to close the collection tube , the cap including an access opening that extends through the cap and at least one sealing member aligned with the access opening , the at least one sealing member including a dynamic strip interface that permits insertion of the test strip through the access opening and into the collection tube when the cap is coupled to the open end of the collection tube, characterized in that the access opening includes a first end and a second end that opens into the collection tube , wherein the second end of the access opening is offset with respect to the first end to an extent that inhibits the sample inside the collection tube entering the second end of the access opening from exiting the first end of the access opening when the collection tube is turned on its side. a collection tube including an open end ; and a cap configured to be coupled to the open end to close the collection tube , the cap including an access opening that extends through the cap and at least one sealing member aligned with the access opening , the at least one sealing member including a dynamic strip interface that permits insertion of the test strip through the access opening and into the collection tube when the cap is coupled to the open end of the collection tube, characterized in that
A multi-layered paperboard comprising a first cellulose fibre-based layer and a second cellulose fibre-based layer , which second layer has an inner surface facing in the direction of the first layer and an outer surface facing in the opposite direction, wherein the density of the second layer is below 550 kg/m 3 and lower than the density of the first layer , wherein said second layer is formed from a furnish comprising mechanical pulp and wherein an additive selected from the group consisting of starch, fines, MFC, CMC and PVOH is added to the outer surface of the second layer in an amount of 0.3-6.0 g/m 2 , with the proviso that no further cellulose fibre-based layer is provided on the outer surface of the second layer .
A block copolymer comprising a first block represented by Formula 4 and a second block comprising an aromatic structure having at least one halogen atom: wherein R is hydrogen or an alkyl group having 1 to 4 carbon atoms; X is a carbonyl group, - C(=O)-X 1 - or -X 1 -C(=O)-, wherein X 1 is an oxygen atom or a sulfur atom; and Y is a monovalent substituent comprising an aromatic structure having 6 to 13 carbon atoms, wherein a chain having 8 to 20 chain-forming atoms is linked to the aromatic structure and wherein the chain-forming atoms are each independently an oxygen, a nitrogen or a carbon atom.
A method comprising: entering a connected state with a wireless network by a user equipment, UE, that is using Narrowband Internet of Things, NB-IoT, radio access or Cellular Internet of Things, CIoT, features; engaging in a positioning session with a location server, wherein the positioning session is a Control Plane, CP, location session or a User Plane, UP, location session, wherein engaging in the positioning session with the location server comprises transmitting an indication to the location server or to the wireless network that the UE will defer performing location measurements for the positioning session until the UE is not in the connected state; receiving a request for location measurements from the location server for the positioning session; deferring performing the location measurements until the UE is not in the connected state with the wireless network; entering an idle state wherein the UE is not connected with the wireless network, obtaining the location measurements while in the idle state; re-entering the connected state with the wireless network; and providing the location measurements to the location server. entering a connected state with a wireless network by a user equipment, UE, that is using Narrowband Internet of Things, NB-IoT, radio access or Cellular Internet of Things, CIoT, features; engaging in a positioning session with a location server, wherein the positioning session is a Control Plane, CP, location session or a User Plane, UP, location session, wherein engaging in the positioning session with the location server comprises transmitting an indication to the location server or to the wireless network that the UE will defer performing location measurements for the positioning session until the UE is not in the connected state; receiving a request for location measurements from the location server for the positioning session; deferring performing the location measurements until the UE is not in the connected state with the wireless network; entering an idle state wherein the UE is not connected with the wireless network, obtaining the location measurements while in the idle state; re-entering the connected state with the wireless network; and providing the location measurements to the location server.
A separator comprising a porous substrate, the porous substrate has two opposite surfaces, a composite layer is provided on only one or both of the two opposite surfaces of the porous substrate, and the composite layer comprising a porous inorganic layer and an organic particle coating layer sequentially disposed on the surface of the porous substrate, wherein when the composite layer is provided on only one of the two opposite surfaces of the porous substrate, the porous inorganic layer or the organic particle coating layer is selectively further provided on the other one of the two opposite surfaces of the porous substrate, wherein the porous inorganic layer comprises an inorganic dielectric material and does not contain a binder, and the organic particle coating layer is an island-like or sheet-like coating discontinuously distributed on a surface of the porous inorganic layer, and wherein mass per unit area of the composite layer is 0.2 g/m 2 to 8.4 g/m 2 , the mass per unit area of the composite layer is measured by a method comprising: weighting precisely the mass of each square piece of 50 mm × 50 mm of a porous substrate without composite coating, calculating an average value of mass as the quality of square pieces, denoted as m0; weighting precisely the mass of each square piece of a porous substrate having composite coating and calculating an average value of mass, denoted as m2, the mass per unit area of the composite layer is (m2-m0)/25cm 2 . the porous substrate has two opposite surfaces, a composite layer is provided on only one or both of the two opposite surfaces of the porous substrate, and the composite layer comprising a porous inorganic layer and an organic particle coating layer sequentially disposed on the surface of the porous substrate, wherein when the composite layer is provided on only one of the two opposite surfaces of the porous substrate, the porous inorganic layer or the organic particle coating layer is selectively further provided on the other one of the two opposite surfaces of the porous substrate, wherein the porous inorganic layer comprises an inorganic dielectric material and does not contain a binder, and the organic particle coating layer is an island-like or sheet-like coating discontinuously distributed on a surface of the porous inorganic layer, and wherein mass per unit area of the composite layer is 0.2 g/m 2 to 8.4 g/m 2 , the mass per unit area of the composite layer is measured by a method comprising: weighting precisely the mass of each square piece of 50 mm × 50 mm of a porous substrate without composite coating, calculating an average value of mass as the quality of square pieces, denoted as m0; weighting precisely the mass of each square piece of a porous substrate having composite coating and calculating an average value of mass, denoted as m2, the mass per unit area of the composite layer is (m2-m0)/25cm 2 .
A patient monitoring device , comprising: at least one processing device ; and a memory device storing instructions which, when executed by the at least one processing device , cause the at least one processing device to: initiate an interval mode that includes measuring blood pressure at predetermined intervals over a predetermined period of time; take a first blood pressure measurement at one of the predetermined intervals; determine whether the first blood pressure measurement is abnormal ; take a second blood pressure measurement after a predetermined delay when the first blood pressure measurement is determined abnormal; compare the first blood pressure measurement to the second blood pressure measurement wherein if the second blood pressure measurement is within a predefined threshold of the first blood pressure measurement, the first blood pressure measurement is confirmed as abnormal; and trigger an alarm when the first blood pressure measurement is confirmed as abnormal. at least one processing device ; and a memory device storing instructions which, when executed by the at least one processing device , cause the at least one processing device to: initiate an interval mode that includes measuring blood pressure at predetermined intervals over a predetermined period of time; take a first blood pressure measurement at one of the predetermined intervals; determine whether the first blood pressure measurement is abnormal ; take a second blood pressure measurement after a predetermined delay when the first blood pressure measurement is determined abnormal; compare the first blood pressure measurement to the second blood pressure measurement wherein if the second blood pressure measurement is within a predefined threshold of the first blood pressure measurement, the first blood pressure measurement is confirmed as abnormal; and trigger an alarm when the first blood pressure measurement is confirmed as abnormal. initiate an interval mode that includes measuring blood pressure at predetermined intervals over a predetermined period of time; take a first blood pressure measurement at one of the predetermined intervals; determine whether the first blood pressure measurement is abnormal ; take a second blood pressure measurement after a predetermined delay when the first blood pressure measurement is determined abnormal; compare the first blood pressure measurement to the second blood pressure measurement wherein if the second blood pressure measurement is within a predefined threshold of the first blood pressure measurement, the first blood pressure measurement is confirmed as abnormal; and trigger an alarm when the first blood pressure measurement is confirmed as abnormal.
A method of decoding a bitstream of inter-coded video using sign bit hiding, wherein a prediction block in a reference frame is specified by a motion vector, the bitstream encoding a horizontal motion vector difference component and a vertical motion vector difference component, wherein the motion vector is determined, in the decoder, based on a predicted motion vector adjusted by the horizontal motion vector difference component and the vertical motion vector difference component, the method comprising: decoding a part of the bitstream to reconstruct a magnitude of one of the motion vector difference components and to reconstruct a magnitude of the other of the motion vector difference components; determining a parity by summing said magnitude of the one of the motion vector difference components and said magnitude of the other of the motion vector difference components to obtain said parity; inferring (210-212, 216-218) a sign for said one of the motion vector difference components based on whether said parity is even or odd; and assigning the sign to said magnitude to reconstruct said one of the motion vector difference components. decoding a part of the bitstream to reconstruct a magnitude of one of the motion vector difference components and to reconstruct a magnitude of the other of the motion vector difference components; determining a parity by summing said magnitude of the one of the motion vector difference components and said magnitude of the other of the motion vector difference components to obtain said parity; inferring (210-212, 216-218) a sign for said one of the motion vector difference components based on whether said parity is even or odd; and assigning the sign to said magnitude to reconstruct said one of the motion vector difference components.
Household refrigerator having an outer housing which surrounds an inner container , wherein walls of the inner container delimit a receiving space for food, wherein a thermally insulating material is arranged in an intermediate space between the outer housing and a wall of the inner container , and wherein in at least one first region of the intermediate space a housing for receiving components of the household refrigerator is arranged, wherein a thickness of the thermally insulating material is less in the at least one first region than in a second region of the intermediate space , characterised in that in the at least one first region of the intermediate space a highly porous, thermally insulating solid body is arranged adjacent to the housing and has a better thermal insulation effect than the thermally insulating material arranged in the intermediate space .
A fluid apparatus comprising: a body portion in which a fluid flow passage is formed, the fluid flow passage extending along an axis (X1, X2), and having a valve hole at one end of the fluid flow passage ; and a valve element portion accommodated in the body portion in an advancing and retracting manner along the axis (X1, X2), wherein at least a portion of the valve element portion is made of a conductive fluororesin material containing a fluororesin material and carbon nanotubes dispersed in the fluororesin material, and is conductive with a grounding portion maintained at a ground potential, a volume resistivity of the conductive fluororesin material falls within a range of larger than 1.0×10 3 Ω·cm and less than 1.0×10 4 Ω·cm, the valve element portion is formed into a tubular shape conforming to an inner peripheral surface of the body portion , and the valve element portion includes: a distal end portion inserted into the valve hole ; a proximal end portion having an inner space (S1, S2) in communication with the other end of the fluid flow passage , and a flow hole allowing a fluid to flow between the inner space (S1, S2) and the valve hole , the proximal end portion is made of the conductive fluororesin material, and the distal end portion is made of a non-conductive fluororesin material containing no carbon nanotube. a body portion in which a fluid flow passage is formed, the fluid flow passage extending along an axis (X1, X2), and having a valve hole at one end of the fluid flow passage ; and a valve element portion accommodated in the body portion in an advancing and retracting manner along the axis (X1, X2), wherein at least a portion of the valve element portion is made of a conductive fluororesin material containing a fluororesin material and carbon nanotubes dispersed in the fluororesin material, and is conductive with a grounding portion maintained at a ground potential, a volume resistivity of the conductive fluororesin material falls within a range of larger than 1.0×10 3 Ω·cm and less than 1.0×10 4 Ω·cm, the valve element portion is formed into a tubular shape conforming to an inner peripheral surface of the body portion , and the valve element portion includes: a distal end portion inserted into the valve hole ; a proximal end portion having an inner space (S1, S2) in communication with the other end of the fluid flow passage , and a flow hole allowing a fluid to flow between the inner space (S1, S2) and the valve hole , the proximal end portion is made of the conductive fluororesin material, and the distal end portion is made of a non-conductive fluororesin material containing no carbon nanotube.