mhurhangee/ep-ind-claims huggingface dataset:
A vertical shelving system for use with a robotic device in an automated laboratory system, the vertical shelving system comprising: a frame including at least one post extending in a vertical direction; a plurality of shelves selectively attachable to the at least one post; a handle having at least one body portion configured to be operatively attached to at least one of a plurality of shelves, wherein the at least one body portion is grippable by a user's hand for receiving a force exerted by the user's hand to move the at least one shelf between a docked position and an undocked position, the at least one shelf being configured to carry at least one instrument; and the at least one shelf being configured to be rotatable relative to the at least one post between the docked position and the undocked position when attached to the at least one post, characterized by: at least one indicator included in the handle for providing a discernible indication of a status of the at least one shelf or the at least one instrument to a user. a frame including at least one post extending in a vertical direction; a plurality of shelves selectively attachable to the at least one post; a handle having at least one body portion configured to be operatively attached to at least one of a plurality of shelves, wherein the at least one body portion is grippable by a user's hand for receiving a force exerted by the user's hand to move the at least one shelf between a docked position and an undocked position, the at least one shelf being configured to carry at least one instrument; and the at least one shelf being configured to be rotatable relative to the at least one post between the docked position and the undocked position when attached to the at least one post, characterized by: at least one indicator included in the handle for providing a discernible indication of a status of the at least one shelf or the at least one instrument to a user.
A nasal preparation, which comprises at least a complex of a peptide/protein drug and/or a non-peptide/non-protein drug including a low-molecular-weight drug and a powder flowability-improving component comprising: (crystalline cellulose, which is a first crystalline cellulose with an untapped bulk density of 0.13 to 0.29 g/cm 3, a specific surface area of 1,3m 2 /g or more, an average particle diameter of 30μm or less, and an angle of repose of 55° or more; tribasic calcium phosphate; and crystalline cellulose, which is a second crystalline cellulose with an untapped bulk density of 0.26 to 0.48 g/cm 3, a specific surface area of 1.3m 2 /g or less, an angle of repose of 50° or less, and an average particle diameter of 150μm or less, or starch with an untapped bulk density of 0.35 to 0.65g/cm 3, a specific surface area of 1.3 m 2 /g or less, an angle of repose of 55° or less, an average particle diameter of 150μm or less; wherein the flowability-improving component comprises 0.1 to 10 (W/W)% tribasic calcium phosphate, 5.0 to 30 (W/W)% second crystalline cellulose and/or starch, and the remainder is the first crystalline cellulose; and the nasal preparation comprises the peptide/protein drug and/or a non-peptide/non-protein drug including a low-molecular-weight drug at a weight ratio of 0.0001 to 1.2 in its free form without being converted to the salt form, when the total weight of the flowability-improving component is taken as 1. (crystalline cellulose, which is a first crystalline cellulose with an untapped bulk density of 0.13 to 0.29 g/cm 3, a specific surface area of 1,3m 2 /g or more, an average particle diameter of 30μm or less, and an angle of repose of 55° or more; tribasic calcium phosphate; and crystalline cellulose, which is a second crystalline cellulose with an untapped bulk density of 0.26 to 0.48 g/cm 3, a specific surface area of 1.3m 2 /g or less, an angle of repose of 50° or less, and an average particle diameter of 150μm or less, or starch with an untapped bulk density of 0.35 to 0.65g/cm 3, a specific surface area of 1.3 m 2 /g or less, an angle of repose of 55° or less, an average particle diameter of 150μm or less; wherein the flowability-improving component comprises 0.1 to 10 (W/W)% tribasic calcium phosphate, 5.0 to 30 (W/W)% second crystalline cellulose and/or starch, and the remainder is the first crystalline cellulose; and the nasal preparation comprises the peptide/protein drug and/or a non-peptide/non-protein drug including a low-molecular-weight drug at a weight ratio of 0.0001 to 1.2 in its free form without being converted to the salt form, when the total weight of the flowability-improving component is taken as 1.
Winding device for covering wall openings or windows comprising a roll-up cover element, a deflecting element and at least one raising and lowering unit, wherein - the cover element comprises an upper longitudinal edge and a lower longitudinal edge (5, 7), - the lower longitudinal edge of the cover element is connected to the deflecting element or forms the deflecting element, so that the cover element can be wound on the deflecting element or on the lower longitudinal edge of the cover element by a rotation of the deflecting element or the lower longitudinal edge about a horizontal axis, - the winding device comprises at least one cord (13, 13'), whereby at least one free end (23, 25) of the cord is connected to the raising and lowering unit, wherein the cord (13, 13') is arranged in such a manner that it surrounds the cover element, so that the deflecting element or the lower longitudinal edge of the cover element is guided in the cord bend, - the raising and lowering unit is a shaft or a cord pull and whereby by rotation of the shaft or a horizontal movement of the cord pull on the one hand the deflecting element or the lower longitudinal edge of the cover element is set into rotation by the movement of the at least one cord (13, 13', 31) in two opposite directions of movement and whereby on the other hand at the same time the upper longitudinal edge is raised and/or lowered by releasing and/or raising at least one cord (13, 13', 31). - the cover element comprises an upper longitudinal edge and a lower longitudinal edge (5, 7), - the lower longitudinal edge of the cover element is connected to the deflecting element or forms the deflecting element, so that the cover element can be wound on the deflecting element or on the lower longitudinal edge of the cover element by a rotation of the deflecting element or the lower longitudinal edge about a horizontal axis, - the winding device comprises at least one cord (13, 13'), whereby at least one free end (23, 25) of the cord is connected to the raising and lowering unit, wherein the cord (13, 13') is arranged in such a manner that it surrounds the cover element, so that the deflecting element or the lower longitudinal edge of the cover element is guided in the cord bend, - the raising and lowering unit is a shaft or a cord pull and whereby by rotation of the shaft or a horizontal movement of the cord pull on the one hand the deflecting element or the lower longitudinal edge of the cover element is set into rotation by the movement of the at least one cord (13, 13', 31) in two opposite directions of movement and whereby on the other hand at the same time the upper longitudinal edge is raised and/or lowered by releasing and/or raising at least one cord (13, 13', 31).
A bio-resin composition containing a blend of polymers including cellulose acetate and a biodegradable secondary polymer wherein the cellulose acetate is present in the range 60% to 75% by weight of the total weight of the composition and the biodegradable secondary polymer is present in an amount up to 3% by weight of the total weight of the composition, wherein the biodegradable secondary polymer is polybutylene adipate terephthalate and a ratio of cellulose acetate to biodegradable secondary polymer is at least 20:1, and the composition further including plasticiser(s) and lubricant(s), the plasticiser(s) being present in an amount in the range 5% to 25% by weight of the total weight of the composition.
A door handle device for a vehicle, comprising: a door handle configured to be supported by a door panel and being rotatable in an outward direction of the door panel, the door handle including a first handle case arranged to have a void relative to the door panel, a second handle case fixed to the first handle case at a sidle opposite from the door panel, and a lock command detection sensor detecting a lock command based on a capacitance characterized in that; the lock command detection sensor including a lock detection signal processing circuit fixed to an inner side of the first handle case, a circuit connection portion electrically connected to the lock detection signal processing circuit, and a lock detection electrode assembled on the second handle case in a state to be arranged along an inner surface of the second handle case, the lock detection electrode being electrically connected to the circuit connection portion in a state where the second handle case is fixed to the first handle case. a door handle configured to be supported by a door panel and being rotatable in an outward direction of the door panel, the door handle including a first handle case arranged to have a void relative to the door panel, a second handle case fixed to the first handle case at a sidle opposite from the door panel, and a lock command detection sensor detecting a lock command based on a capacitance characterized in that; the lock command detection sensor including a lock detection signal processing circuit fixed to an inner side of the first handle case, a circuit connection portion electrically connected to the lock detection signal processing circuit, and a lock detection electrode assembled on the second handle case in a state to be arranged along an inner surface of the second handle case, the lock detection electrode being electrically connected to the circuit connection portion in a state where the second handle case is fixed to the first handle case.
Device for heating fuel, in particular alcohol, for the operation of internal combustion engines which are operated with alcohol or with an alcohol-gasoline mixture, wherein the device for heating fuel is integrated into an injection system of the internal combustion engine operable with alcohol or with an alcohol-gasoline mixture, wherein said device has a housing and has a heating tube which is of thin-walled form and which surrounds a heating element composed of a material which exhibits an increase in electrical resistance with increasing temperature, characterized in that an overheating prevention device is provided by virtue of the heating element being formed as a metallic wire of spiral-shaped and coiled form which has a specific electrical resistance of 0.07 μΩm to 0.6 μΩm at 20°C.
A computer-implemented method for automated monitoring of monoclonal quality of cell growth, comprising: - acquiring a sequence of images of a cell culture taken at different times during cell growth; characterized by - processing each image in the sequence of images to identify cell locations of cells in the cell culture, wherein a single point location is identified for each cell in each image in the sequence of images, wherein the single point location of each cell is set to a center point of an identified graphical structure of each cell, and wherein the single point location is stored and processed based on coordinates within a coordinate system of the image in the sequence of images, resulting in a two-dimensional map of the single point locations, each of which representing one cell in the cell culture; - determining for at least some of the images in the sequence of images the number of cells from the identified cell locations; - determining for at least one image in the sequence of images a spatial distribution of cells from the identified cell locations; - evaluating compliance of the determined numbers of cells and the determined spatial distribution of cells with predetermined evaluation conditions being characteristic of monoclonal growth; and - assessing and outputting a monoclonal quality indicator based on the evaluated compliance with the predetermined evaluation conditions. - acquiring a sequence of images of a cell culture taken at different times during cell growth; characterized by - processing each image in the sequence of images to identify cell locations of cells in the cell culture, wherein a single point location is identified for each cell in each image in the sequence of images, wherein the single point location of each cell is set to a center point of an identified graphical structure of each cell, and wherein the single point location is stored and processed based on coordinates within a coordinate system of the image in the sequence of images, resulting in a two-dimensional map of the single point locations, each of which representing one cell in the cell culture; - determining for at least some of the images in the sequence of images the number of cells from the identified cell locations; - determining for at least one image in the sequence of images a spatial distribution of cells from the identified cell locations; - evaluating compliance of the determined numbers of cells and the determined spatial distribution of cells with predetermined evaluation conditions being characteristic of monoclonal growth; and - assessing and outputting a monoclonal quality indicator based on the evaluated compliance with the predetermined evaluation conditions.
An antiferromagnetic alloy having a composition constituted of: • 10.0% to 30.0% by weight manganese, • 4.0% to 10.0% by weight chromium, • 5.0% to 15.0% by weight nickel, • 0.1% to 2.0% by weight titanium, • the remainder being iron and residual impurities, • the alloy being free of beryllium. • 10.0% to 30.0% by weight manganese, • 4.0% to 10.0% by weight chromium, • 5.0% to 15.0% by weight nickel, • 0.1% to 2.0% by weight titanium, • the remainder being iron and residual impurities, • the alloy being free of beryllium.
A semiconductor device comprising: an output transistor configured to control electric power supply from an electric power source to a load; and a current detection section configured to detect that the current flowing through the output transistor exceeds a current detection value, wherein the current detection section has a current detection characteristic in which a current detection value has a linear and negative dependence on a drain-source voltage of the output transistor, and wherein the current detection section includes: a comparison circuit configured to compare a current depending on an electric power source voltage of the electric power source with the sum of a current depending on a drain-source voltage of the output transistor and a current depending on a current of the output transistor. an output transistor configured to control electric power supply from an electric power source to a load; and a current detection section configured to detect that the current flowing through the output transistor exceeds a current detection value, wherein the current detection section has a current detection characteristic in which a current detection value has a linear and negative dependence on a drain-source voltage of the output transistor, and wherein the current detection section includes: a comparison circuit configured to compare a current depending on an electric power source voltage of the electric power source with the sum of a current depending on a drain-source voltage of the output transistor and a current depending on a current of the output transistor. a comparison circuit configured to compare a current depending on an electric power source voltage of the electric power source with the sum of a current depending on a drain-source voltage of the output transistor and a current depending on a current of the output transistor.
A method for creating a transition joint between two High Voltage DC Mass Impregnated cables (20/40) of the type having a conductor (22/42) comprising a central wire (24/44) surrounded by a plurality of layers (25a-e / 45a-e) of stranded wires (26/46) wound about the central wire, wherein the method comprises the steps of: a) Providing two cables wherein the conductor of the first cable is of smaller diameter than the conductor of the second cable, b) Removing, from terminal portions of the cables, any insulating layers (28/48) or protective layers (30/50, 32/52, 34/54, 36/56, 38/58) surrounding the conductors, c) Unwinding and pulling back in an upstream direction the stranded wires (26/46) thereby exposing the ends of the central wires (24/44) d) Thermally joining a connection piece between the ends of the central wires (24/44), e) Rewinding and thermally joining the stranded wires of the plurality of layers (25a-e) of the first cable to the stranded wires of corresponding layers (45a-e) of the second cable such that each stranded wire of the first cable is joined to a single stranded wire of the second cable, thus forming a flexible transition joint, wherein, in the event a layer of one of the cables comprises more strands than its corresponding layer from the other cable, that two strands of the one cable are joined to a single strand of the other cable a sufficient number of times to account for the difference in total strands, and f) Patching any insulating or protective layers about the transition joint. a) Providing two cables wherein the conductor of the first cable is of smaller diameter than the conductor of the second cable, b) Removing, from terminal portions of the cables, any insulating layers (28/48) or protective layers (30/50, 32/52, 34/54, 36/56, 38/58) surrounding the conductors, c) Unwinding and pulling back in an upstream direction the stranded wires (26/46) thereby exposing the ends of the central wires (24/44) d) Thermally joining a connection piece between the ends of the central wires (24/44), e) Rewinding and thermally joining the stranded wires of the plurality of layers (25a-e) of the first cable to the stranded wires of corresponding layers (45a-e) of the second cable such that each stranded wire of the first cable is joined to a single stranded wire of the second cable, thus forming a flexible transition joint, wherein, in the event a layer of one of the cables comprises more strands than its corresponding layer from the other cable, that two strands of the one cable are joined to a single strand of the other cable a sufficient number of times to account for the difference in total strands, and f) Patching any insulating or protective layers about the transition joint.
A method of preparing a MALDI sample, the method comprising the steps of: (a) mixing a solid sample precursor comprising sample and matrix to form a solid sample mixture; (b) applying the solid sample mixture to a sample cavity of a MALDI target; (c) placing a surface forming means over the sample cavity on the surface of the MALDI target; (d) compressing the solid sample mixture against the surface forming means in the sample cavity so as to form a MALDI sample surface for laser desorption that is level with the surface of the MALDI target; and (e) removing the surface forming means from the surface of the MALDI target. (a) mixing a solid sample precursor comprising sample and matrix to form a solid sample mixture; (b) applying the solid sample mixture to a sample cavity of a MALDI target; (c) placing a surface forming means over the sample cavity on the surface of the MALDI target; (d) compressing the solid sample mixture against the surface forming means in the sample cavity so as to form a MALDI sample surface for laser desorption that is level with the surface of the MALDI target; and (e) removing the surface forming means from the surface of the MALDI target.
Method for ventilating a delivery unit for a liquid additive, wherein the delivery unit has a metering pump, by means of which precise metering of the liquid additive can be performed, with a movable pump element and has a delivery line, the method comprising at least the following steps: a) building up pressure in the delivery line by means of a movement of the movable pump element until a delivery pressure is attained in the delivery line; b) detecting when, during step a), a predefined test pressure is attained in the delivery line; c) determining a pump element position when the test pressure is attained; d) comparing the pump element position with a predefined limit position and detecting air in the delivery line if the pump element position exceeds the predefined limit position; and e) initiating a purging process for at least one part of the delivery line if air has been detected in the delivery line in step d). a) building up pressure in the delivery line by means of a movement of the movable pump element until a delivery pressure is attained in the delivery line; b) detecting when, during step a), a predefined test pressure is attained in the delivery line; c) determining a pump element position when the test pressure is attained; d) comparing the pump element position with a predefined limit position and detecting air in the delivery line if the pump element position exceeds the predefined limit position; and e) initiating a purging process for at least one part of the delivery line if air has been detected in the delivery line in step d).
Rotor for a turbine, comprising a number of rotor components arranged in a row in the axial direction and connected by means of a tie rod, wherein in one of the rotor components there is arranged a groove extending in the circumferential direction and open in the axial direction, wherein a coupling element surrounding the tie rod is arranged in the groove for oscillation-preventing radial bracing of the tie rod, and wherein the coupling element is arranged on a retaining element connected to the tie rod.