mhurhangee/ep-ind-claims huggingface dataset:
Battery pack for supplying an electrically driven treatment apparatus with an electric driving power, the battery pack comprising: - a plurality of pouch cells, wherein the pouch cells have cell tabs and are configured and disposed in a stack such that the cell tabs are disposed on a common tab side of the stack in two tab columns (22a, 22b), wherein averted end limits (22aL, 22bR) of the tab columns (22a, 22b) define an intermediate zone, and - a circuit board, wherein the circuit board is disposed only within the intermediate zone and is electrically connected to the cell tabs. - a plurality of pouch cells, wherein the pouch cells have cell tabs and are configured and disposed in a stack such that the cell tabs are disposed on a common tab side of the stack in two tab columns (22a, 22b), wherein averted end limits (22aL, 22bR) of the tab columns (22a, 22b) define an intermediate zone, and - a circuit board, wherein the circuit board is disposed only within the intermediate zone and is electrically connected to the cell tabs.
A sensor for a molecular gas, comprising: a gas-sensitive measurement electrode (4, 6, 34, 36, 64, 66), a reference electrode (14, 16, 44, 46, 74, 76), and an electrolyte (8, 10, 12, 38, 40, 42, 68, 70, 72) in electrical contact with the measurement electrode and the reference electrode, characterised in that the electrolyte comprises, arranged in series between the measurement electrode and the reference electrode: a first ion-conductor (8, 12, 38, 42, 68, 72), which is a ceramic or glass solid ion-conductor, and a second ion-conductor (10, 40, 70), which comprises an ion-conducting salt. a gas-sensitive measurement electrode (4, 6, 34, 36, 64, 66), a reference electrode (14, 16, 44, 46, 74, 76), and an electrolyte (8, 10, 12, 38, 40, 42, 68, 70, 72) in electrical contact with the measurement electrode and the reference electrode, characterised in that the electrolyte comprises, arranged in series between the measurement electrode and the reference electrode: a first ion-conductor (8, 12, 38, 42, 68, 72), which is a ceramic or glass solid ion-conductor, and a second ion-conductor (10, 40, 70), which comprises an ion-conducting salt. a first ion-conductor (8, 12, 38, 42, 68, 72), which is a ceramic or glass solid ion-conductor, and a second ion-conductor (10, 40, 70), which comprises an ion-conducting salt.
An electrodeposited copper foil comprising: a drum side; and a deposited side opposing to the drum side, wherein the drum side and the deposited side each possess a residual stress, which is a stress present inside the drum side and the deposited side after all external applied forces have been removed, and wherein a difference in the residual stress between the drum side and the deposited side of the electrodeposited copper foil has a magnitude of at most 95 MPa, and wherein a yield strength at 0.5% Extension Under Load of the electrodeposited copper foil is in a range of 11 kgf/mm 2 (107.9 MPa) to 45 kgf/mm 2 (441.3 MPa), and wherein the deposited side of the electrodeposited copper foil exhibits a void volume (Vv) value of 0.15 μm 3 /μm 2 to 1.30 μm 3 /μm 2, and the void volume (Vv) value is obtained through obtaining a material ratio curve by a procedure in accordance with ISO 25178-2 and calculating with a material ratio of 10%. a drum side; and a deposited side opposing to the drum side, wherein the drum side and the deposited side each possess a residual stress, which is a stress present inside the drum side and the deposited side after all external applied forces have been removed, and wherein a difference in the residual stress between the drum side and the deposited side of the electrodeposited copper foil has a magnitude of at most 95 MPa, and wherein a yield strength at 0.5% Extension Under Load of the electrodeposited copper foil is in a range of 11 kgf/mm 2 (107.9 MPa) to 45 kgf/mm 2 (441.3 MPa), and wherein the deposited side of the electrodeposited copper foil exhibits a void volume (Vv) value of 0.15 μm 3 /μm 2 to 1.30 μm 3 /μm 2, and the void volume (Vv) value is obtained through obtaining a material ratio curve by a procedure in accordance with ISO 25178-2 and calculating with a material ratio of 10%.
A lipid nanomaterial, comprising: (a) a lipid construct containing a triglyceride, oil, and lecithin, wherein the triglyceride is a C 6 -C 12 fatty acid ester compound of glycerol; and (b) lysophosphatidylcholine or an ether derivative thereof, as a pharmaceutically active ingredient, wherein the weight ratio of triglyceride: oil: lecithin is 1: 0.5-3: 2-10. (a) a lipid construct containing a triglyceride, oil, and lecithin, wherein the triglyceride is a C 6 -C 12 fatty acid ester compound of glycerol; and (b) lysophosphatidylcholine or an ether derivative thereof, as a pharmaceutically active ingredient, wherein the weight ratio of triglyceride: oil: lecithin is 1: 0.5-3: 2-10.
A spar hull having a centerwell, comprising: a. an adjustable buoyancy device positioned in the centerwell of the spar hull; and b. said buoyancy device having outer dimensions less than the inner dimensions of the centerwell such that a space is defined between the buoyancy device and the centerwell; characterized in that said buoyancy device being rigidly connected to the walls of the centerwell by a plurality of shear plates. a. an adjustable buoyancy device positioned in the centerwell of the spar hull; and b. said buoyancy device having outer dimensions less than the inner dimensions of the centerwell such that a space is defined between the buoyancy device and the centerwell;
Product for decorating a base material by hot-press transfer comprising a sheet transferable by hot-pressing onto such a base material, wherein a raised pattern (5,6) formed in a strengthening layer, obtainable from a first polyurethane-based normal solids content solution onto a mold impression is defined by front surface of transferable sheet which comprises at least one shape-holding layer that is obtainable from a second polyurethane-based high solids content solution having partial, prematurely blocked polymerization, this layer being a shaped-holding layer of the raised pattern (5,6) characterised in that the surface density of the shaped-holding layer is high compared to the surface density of the strengthening layer.
A method for multicast group membership management, comprising: detecting, by a network device and from an application associated with a user space of the network device, a request message to join a multicast group or to leave the multicast group, wherein the request message is addressed to a kernel of the network device; intercepting, by the network device, the request message and readdressing, by the network device, the request message to a service daemon of the network device, wherein the service daemon is associated with the user space of the network device; directing, by the network device, the request message to the service daemon based on readdressing the request message; selectively generating, by the network device and using the service daemon, an advertisement message based on the request message, wherein the advertisement message is to be generated if there are no other applications associated with the user space that are members of the multicast group, wherein the advertisement message is not to be generated if there is at least one other application associated with the user space that is a member of the multicast group; and transmitting, by the network device, the advertisement message when the advertisement message is generated. detecting, by a network device and from an application associated with a user space of the network device, a request message to join a multicast group or to leave the multicast group, wherein the request message is addressed to a kernel of the network device; intercepting, by the network device, the request message and readdressing, by the network device, the request message to a service daemon of the network device, wherein the service daemon is associated with the user space of the network device; directing, by the network device, the request message to the service daemon based on readdressing the request message; selectively generating, by the network device and using the service daemon, an advertisement message based on the request message, wherein the advertisement message is to be generated if there are no other applications associated with the user space that are members of the multicast group, wherein the advertisement message is not to be generated if there is at least one other application associated with the user space that is a member of the multicast group; and wherein the advertisement message is to be generated if there are no other applications associated with the user space that are members of the multicast group, wherein the advertisement message is not to be generated if there is at least one other application associated with the user space that is a member of the multicast group; and transmitting, by the network device, the advertisement message when the advertisement message is generated.
A method for adjusting image capture settings for a video capture device during execution of an interactive gaming application, the video capture device being in communication with a computing device, which is in turn in communication with a display screen, wherein said video capture device performs the steps of: identifying a scene in front of the video capture device; capturing video frames of the scene to track an object or user; generating depth masks of the scene from data of every x number of frames, where x is any integer greater than one, and for frames not associated with one of the depth masks, using one depth mask from a previous frame, each depth mask identifying objects in the scene that are either in a foreground region or a background region; and adjusting pixel values of each frame or every x th frame using the generated depth masks, such that the adjusted pixel values adjust one or both of the foreground region and the background region of the captured image during execution of the interactive gaming application. identifying a scene in front of the video capture device; capturing video frames of the scene to track an object or user; generating depth masks of the scene from data of every x number of frames, where x is any integer greater than one, and for frames not associated with one of the depth masks, using one depth mask from a previous frame, each depth mask identifying objects in the scene that are either in a foreground region or a background region; and adjusting pixel values of each frame or every x th frame using the generated depth masks, such that the adjusted pixel values adjust one or both of the foreground region and the background region of the captured image during execution of the interactive gaming application.
A selectable one-way clutch (1A; 1B) comprising: a first plate; a second plate placed on the same axis (Ax) as the first plate, the second plate having a recessed portion; a claw provided in the first plate, the claw being configured to project from the first plate toward the second plate, the claw being configured to mesh with the recessed portion of the second plate when in a state where the claw projects from the first plate only at the time when the second plate rotates in a predetermined rotation direction; a selector plate placed between the first plate and the second plate, the selector plate being configured to change a state of the claw between a state where the claw is projectable from the first plate and a state where the claw is maintained to be accommodated on a first-plate side; characterized in that it further comprises an outer shell configured to cover an outer periphery of the first plate, the first plate being mounted on a holding member such that the first plate is non-rotatable around the axis and movable in a direction of the axis, the outer shell being configured to be fixed relative to the holding member wherein the outer shell is positioned in a radial direction on the basis of the axis, the outer periphery of the first plate covered with the outer shell and an inner periphery of the outer shell that covers the outer periphery of the first plate having a tapered shape in which a diameter is gradually reduced toward a direction distanced from the second plate. a first plate; a second plate placed on the same axis (Ax) as the first plate, the second plate having a recessed portion; a claw provided in the first plate, the claw being configured to project from the first plate toward the second plate, the claw being configured to mesh with the recessed portion of the second plate when in a state where the claw projects from the first plate only at the time when the second plate rotates in a predetermined rotation direction; a selector plate placed between the first plate and the second plate, the selector plate being configured to change a state of the claw between a state where the claw is projectable from the first plate and a state where the claw is maintained to be accommodated on a first-plate side; characterized in that it further comprises an outer shell configured to cover an outer periphery of the first plate, the first plate being mounted on a holding member such that the first plate is non-rotatable around the axis and movable in a direction of the axis, the outer shell being configured to be fixed relative to the holding member wherein the outer shell is positioned in a radial direction on the basis of the axis, the outer periphery of the first plate covered with the outer shell and an inner periphery of the outer shell that covers the outer periphery of the first plate having a tapered shape in which a diameter is gradually reduced toward a direction distanced from the second plate.
An energy absorber for a structure within a vehicle cabin comprising: (a) a plurality of airbags; (b) an inflator coupled to the plurality of airbags, wherein the inflator comprises a canister and a firing module; (c) a control module electrically connected to the firing module of the inflator; and (d) an outer surface positioned adjacent the plurality of airbags, said outer surface comprising a breakable area positioned adjacent the plurality of airbags, said breakable area comprises a weaker coupling to the outer surface on at least a first side and a stronger coupling to the outer surface on at least a second side; characterised in that the energy absorber further comprises a hinge comprising a first end coupled to the breakable area and a second end coupled to a remainder of the outer surface. (a) a plurality of airbags; (b) an inflator coupled to the plurality of airbags, wherein the inflator comprises a canister and a firing module; (c) a control module electrically connected to the firing module of the inflator; and (d) an outer surface positioned adjacent the plurality of airbags, said outer surface comprising a breakable area positioned adjacent the plurality of airbags, said breakable area comprises a weaker coupling to the outer surface on at least a first side and a stronger coupling to the outer surface on at least a second side;
A method of estimating a state of health of a battery, the method comprising the steps of: - storing an SOH estimation table constructing SOH values corresponding to various values of internal resistance according to temperature and a state of charge in a memory; - measuring temperature, SOC, current and voltage of the battery when a request is made to estimate the SOH; - calculating the internal resistance value of the battery using the measured current and voltage; and - reading the SOH values corresponding to the measured temperature and SOC, and the calculated internal resistance value from the SOH estimation table. - storing an SOH estimation table constructing SOH values corresponding to various values of internal resistance according to temperature and a state of charge in a memory; - measuring temperature, SOC, current and voltage of the battery when a request is made to estimate the SOH; - calculating the internal resistance value of the battery using the measured current and voltage; and - reading the SOH values corresponding to the measured temperature and SOC, and the calculated internal resistance value from the SOH estimation table.
Use of a particulate material in the production of a beverage, wherein the material particles of said material are added in the course of the production process to a starting material or an intermediate product of the beverage and are then separated off again prior to finishing of the beverage, characterised in that the particles of the material are silicate particles, wherein the silicate particles with respect to the total weight of the particles consist of at least 90% by weight of a silicate, wherein the silicate particles with respect to the total weight of the particles have a proportion of the metal ion Ca 2+ in the range of from 5 to 30% by weight and wherein the silicate particles are enriched with the metal ion Ca 2+ at their surface, wherein said enrichment leads to silicate particles, wherein with respect to the total proportion of the metal ion Ca 2+ at least 50% by weight of the metal ion Ca 2+ are present on the surface.
A porous ceramic body, comprising: a microstructure of (i) solid matter comprising sinter bonded or reaction bonded pre-reacted spheroidal particles and (ii) a network of contiguous pores with inverse porosity, wherein the solid matter comprises a primary phase of aluminum-titanate solid solution, the primary phase being greater than 50 vol % of the porous ceramic body; a permeability of greater than or equal to 9.869233x10 -13 m 2 (1000 mDarcy); a porosity greater than or equal to 50%; a median pore size greater than 10 μm; and a modulus of rupture greater than 1172 kPa (170 psi) for a honeycomb geometry of 46.5 cells per cm 2 with a wall thickness of 0.036 cm (300 cells per square inch/14 mil). a microstructure of (i) solid matter comprising sinter bonded or reaction bonded pre-reacted spheroidal particles and (ii) a network of contiguous pores with inverse porosity, wherein the solid matter comprises a primary phase of aluminum-titanate solid solution, the primary phase being greater than 50 vol % of the porous ceramic body; a permeability of greater than or equal to 9.869233x10 -13 m 2 (1000 mDarcy); a porosity greater than or equal to 50%; a median pore size greater than 10 μm; and a modulus of rupture greater than 1172 kPa (170 psi) for a honeycomb geometry of 46.5 cells per cm 2 with a wall thickness of 0.036 cm (300 cells per square inch/14 mil).
A method of operating a multiple axis machine, in particular a robot, wherein a machine control system controls drives (23, 33) of the machine; and a fail-safe control system, which comprises a first channel and a second channel (100, 200) redundant thereto, in particular a diversity channel, monitors the machine; wherein the first channel receives first input set point values (x s) and first input actual values (x i) from the machine control system; compares first reference set point values, which depend on the first input set point values, and first reference actual values, which depend on the first input actual values, with each other; and triggers a fault reaction (STOP) if a deviation between the first reference set point values and the first reference actual values exceeds a specified tolerance; and the second channel receives first input set point values (x s) and first input actual values (x i) from the machine control system; compares first reference set point values, which depend on these first input set point values, and first reference actual values, which depend on these first input actual values, with each other; and triggers a fault reaction (STOP) if a deviation between these first reference set point values and these first reference actual values exceeds a specified tolerance; wherein the first input set point values and the first input actual values comprise reference position values (x) of a reference of the machine which is fixed in relation to the machine and/or first and/or higher order derivatives thereof with respect to time, and the machine control system determines these reference set point position values and/or these reference actual position values on the basis of a transformation between reference position values of the reference which is fixed in relation to the machine and axial position values of the machine. receives first input set point values (x s) and first input actual values (x i) from the machine control system; compares first reference set point values, which depend on the first input set point values, and first reference actual values, which depend on the first input actual values, with each other; and triggers a fault reaction (STOP) if a deviation between the first reference set point values and the first reference actual values exceeds a specified tolerance; and receives first input set point values (x s) and first input actual values (x i) from the machine control system; compares first reference set point values, which depend on these first input set point values, and first reference actual values, which depend on these first input actual values, with each other; and triggers a fault reaction (STOP) if a deviation between these first reference set point values and these first reference actual values exceeds a specified tolerance;
A pharmaceutical composition comprising: an oligonucleotide and a chemotherapeutic agent, wherein the oligonucleotide comprises SEQ ID NO:1251, or the complement thereof. an oligonucleotide and a chemotherapeutic agent,
A biosensor molecule comprising a protease amino acid sequence; at least one sensor comprising at least one sensor amino acid sequence which is responsive to at least one target molecule; and an inhibitor of the protease activity of said protease; wherein the biosensor is switchable from a protease active to a protease inactive state, or from a protease inactive to a protease active state when said sensor responds to said target molecule.
An optical apparatus comprising: a lens unit including at least one lens; a drive unit configured to include a base member, a shift member, and an urging member; a cylindrical body configured to support the drive unit; and a first coupling portion configured to be coupled with the urging member, wherein the drive unit includes a plurality of the urging members, the drive unit is capable of moving at least the lens unit in a direction orthogonal to an optical axis of the lens unit, the first coupling portion is provided on the base member, a second coupling portion configured to be coupled with the urging member is provided on the shift member, the first coupling portion is located distal to the optical axis than the second coupling portion, and the urging member urges the shift member with respect to the base member, characterized in that a groove along a direction of the optical axis of the lens unit is provided inside the cylindrical body, and the first coupling portion and the groove overlap with each other when viewed from the direction of the optical axis. a lens unit including at least one lens; a drive unit configured to include a base member, a shift member, and an urging member; a cylindrical body configured to support the drive unit; and a first coupling portion configured to be coupled with the urging member, wherein the drive unit includes a plurality of the urging members, the drive unit is capable of moving at least the lens unit in a direction orthogonal to an optical axis of the lens unit, the first coupling portion is provided on the base member, a second coupling portion configured to be coupled with the urging member is provided on the shift member, the first coupling portion is located distal to the optical axis than the second coupling portion, and the urging member urges the shift member with respect to the base member, characterized in that a groove along a direction of the optical axis of the lens unit is provided inside the cylindrical body, and the first coupling portion and the groove overlap with each other when viewed from the direction of the optical axis.