mhurhangee/patent-ind-claim-en huggingface dataset:
A method for making polymer-encapsulated metallic ink particles, comprising: disposing a layer of a transparent resin dispersion on a flexible substrate; substantially drying the resin dispersion layer, thereby forming a base resin layer, wherein substantially drying is when at least 90% of the solvent present in the resin dispersion layer is driven off, volatized, or evaporated; disposing a slurry onto the base resin layer, the slurry including metallic pigment particles and polymer particles dispersed in a non-aqueous carrier; drying the slurry, thereby forming a metallic pigment-polymer sheet; disposing another layer of the transparent resin dispersion on the metallic pigment-polymer sheet; and drying the other layer, thereby forming a coating resin layer; whereby the metallic pigment-polymer sheet and the base and coating transparent resin layers form a tri-layer film having the metallic pigment particles encapsulated between the base and coating transparent resin layers. disposing a layer of a transparent resin dispersion on a flexible substrate; substantially drying the resin dispersion layer, thereby forming a base resin layer, wherein substantially drying is when at least 90% of the solvent present in the resin dispersion layer is driven off, volatized, or evaporated; disposing a slurry onto the base resin layer, the slurry including metallic pigment particles and polymer particles dispersed in a non-aqueous carrier; drying the slurry, thereby forming a metallic pigment-polymer sheet; disposing another layer of the transparent resin dispersion on the metallic pigment-polymer sheet; and drying the other layer, thereby forming a coating resin layer; whereby the metallic pigment-polymer sheet and the base and coating transparent resin layers form a tri-layer film having the metallic pigment particles encapsulated between the base and coating transparent resin layers.
A method of providing security at the physical layer of an optical network by processing client signals for transmission on a fiber optic cable of the optical network, the method comprising the following steps: (a) encoding one or more client signals; (b) buffering and synchronizing the encoded client signals; (c) mapping the buffered and synchronized encoded client signals to one or more subchannels within a single International Telecommunication Union (ITU) channel or across multiple ITU channels, wherein each subchannel corresponds to a subcarrier frequency of an ITU carrier frequency, and wherein each subcarrier frequency is generated by a separate and distinct laser; (d) modulating the subchannels onto their corresponding subcarrier frequencies; (e) multiplexing together the signals on the subcarrier frequencies within each ITU channel, and the resulting combined signals on the ITU channel frequencies, to generate an optical signal for transmission along the fiber optic cable of the optical network; and (f) modifying dynamically over time one or more of the processing steps (a)-(e). (a) encoding one or more client signals; (b) buffering and synchronizing the encoded client signals; (c) mapping the buffered and synchronized encoded client signals to one or more subchannels within a single International Telecommunication Union (ITU) channel or across multiple ITU channels, wherein each subchannel corresponds to a subcarrier frequency of an ITU carrier frequency, and wherein each subcarrier frequency is generated by a separate and distinct laser; (d) modulating the subchannels onto their corresponding subcarrier frequencies; (e) multiplexing together the signals on the subcarrier frequencies within each ITU channel, and the resulting combined signals on the ITU channel frequencies, to generate an optical signal for transmission along the fiber optic cable of the optical network; and (f) modifying dynamically over time one or more of the processing steps (a)-(e).
A conjugate of a peptide drug and a substrate that will bind to haptocorrin for use in reducing weight loss of a patient, wherein the peptide drug is Exendin-4.
A wet cleaning device (WCD), comprising: a mopping unit (MU) for wet cleaning a surface, and an arrangement (ST) for increasing a pressure of the mopping unit to the surface by means of suction, characterized in that the arrangement (ST) includes a hose at a side of the mopping unit (MU), the hose having an opening for applying suction to the surface. a mopping unit (MU) for wet cleaning a surface, and an arrangement (ST) for increasing a pressure of the mopping unit to the surface by means of suction, characterized in that
A child safety seat comprising a base (no), a backrest and a backrest locking mechanism adapted for the backrest and the base of the child safety seat , the backrest being detachably connected to the base , and the backrest locking mechanism comprising: a locking pin disposed on one of the backrest and the base ; a locking component disposed on another one of the backrest and the base , a locking hole structure being formed on the locking component , the locking pin being configured to detachably engage with the locking hole structure ; and an operating component movably disposed on the backrest (s120) or the base , the operating component driving the locking pin and the locking hole structure to engage with or disengage from each other when the operating component is operated, wherein the child safety seat is characterized in that a ball head protrudes from an end of the locking pin adjacent to the locking component , and an outer diameter of the ball head is greater than an outer diameter of the locking pin . a locking pin disposed on one of the backrest and the base ; a locking component disposed on another one of the backrest and the base , a locking hole structure being formed on the locking component , the locking pin being configured to detachably engage with the locking hole structure ; and an operating component movably disposed on the backrest (s120) or the base , the operating component driving the locking pin and the locking hole structure to engage with or disengage from each other when the operating component is operated, wherein the child safety seat is characterized in that a ball head protrudes from an end of the locking pin adjacent to the locking component , and an outer diameter of the ball head is greater than an outer diameter of the locking pin .
A pharmaceutical composition comprising the VMAT2 inhibitor (S)-2-amino-3-methyl-butyric acid -3-isobutyl-9,10-dimethoxy-1,3,4,6,7,11b-hexahydro-2H-pyrido[2,1-a]isoquinolin-2-yl ester, or a pharmaceutically acceptable salt thereof, for use in a method of treating a hyperkinetic movement disorder in a human subject in need thereof, said method comprising administering to the human subject the VMAT2 inhibitor, or the pharmaceutically acceptable salt thereof, at a daily dosage of 80 mg.
A pharmaceutical composition comprising an anti-beta amyloid (Aβ) antibody at a concentration of 75 mg/ml to 225 mg/ml; arginine hydrochloride (Arg.HCl) at a concentration of 150 mM; methionine at a concentration of 10 mM; histidine at a concentration of 20 mM; and Polysorbate-80 (PS80) at a concentration of 0.01% to 0.1%, wherein the pharmaceutical composition has a pH of 5.2 to 6.2; wherein the anti-Aβ antibody comprises an immunoglobulin heavy chain and an immunoglobulin light chain, wherein the heavy chain comprises the amino acid sequence set forth in SEQ ID NO:9 and the light chain comprises the amino acid sequence set forth in SEQ ID NO:10. an anti-beta amyloid (Aβ) antibody at a concentration of 75 mg/ml to 225 mg/ml; arginine hydrochloride (Arg.HCl) at a concentration of 150 mM; methionine at a concentration of 10 mM; histidine at a concentration of 20 mM; and Polysorbate-80 (PS80) at a concentration of 0.01% to 0.1%, wherein the pharmaceutical composition has a pH of 5.2 to 6.2; wherein the anti-Aβ antibody comprises an immunoglobulin heavy chain and an immunoglobulin light chain, wherein the heavy chain comprises the amino acid sequence set forth in SEQ ID NO:9 and the light chain comprises the amino acid sequence set forth in SEQ ID NO:10.
A flaky metal pigment, said flaky metal pigment being made of aluminum, and in a case where said flaky metal pigment is measured by a flow-type particle image analyzer, P50 showing a 50% cumulative frequency of a diameter equivalent to an area circle in a number distribution being less than 0.500 μm, in the case where said flaky metal pigment is measured by the flow-type particle image analyzer, Pmax showing a maximum particle diameter of a diameter equivalent to an area circle in the number distribution being 5.000 μm or less, Pmax/P10 being 1 or more and 18 or less, wherein P10 is a value of a 10% cumulative frequency in the number distribution of the flaky metal pigments measured by the flow-type particle image analyzer, wherein the P50, the Pmax and the PI0 measured by the flow-type particle image analyzer are values measured on measurement conditions: image pick-up unit: high-magnification image pick-up unit, magnification: 40 times (20-times ocular lens × 2-times object lens), measurement mode: HPF measurement mode, measurement time: about 2 minutes, measurement solvent: ethanol, binarized threshold value setting coefficient: 85%, dilution ratio by solvent during measurement: 2000 times, and sheath liquid: ethanol. image pick-up unit: high-magnification image pick-up unit, magnification: 40 times (20-times ocular lens × 2-times object lens), measurement mode: HPF measurement mode, measurement time: about 2 minutes, measurement solvent: ethanol, binarized threshold value setting coefficient: 85%, dilution ratio by solvent during measurement: 2000 times, and sheath liquid: ethanol.
A voltage sensor device, with a high voltage part , and a low voltage part , the voltage sensor device comprising: - a plurality of segments ; and - a plurality of impedance elements ; wherein the high voltage part is formed from at least one segment and the low voltage part is formed from at least one segment; wherein, each segment comprises at least one impedance element, an insulated support and a connection system ; wherein, the connection system for each segment has a first part at a first end of each segment and a second part at a second end of each segment; wherein, the connection system is configured to mechanically connect adjacent pairs of segments to each other and the connection system is configured to electrically connect the at least one impedance element of adjacent pairs of segments to each other, wherein a first part of the connection system of one segment of adjacent pairs of segments is configured to connect to a second part of the connection system of a second segment of adjacent pairs of segments; wherein, the connection system is configured to enable the angle between adjacent pairs of segments to be changed; characterised in that the impedance elements are either capacitive elements or a combination of resistive elements and capacitive elements; and the impedance elements are connected within at least one segment in parallel and the impedance elements are connected within at least one other segment in series. - a plurality of segments ; and - a plurality of impedance elements ; wherein the high voltage part is formed from at least one segment and the low voltage part is formed from at least one segment; wherein, each segment comprises at least one impedance element, an insulated support and a connection system ; wherein, the connection system for each segment has a first part at a first end of each segment and a second part at a second end of each segment; wherein, the connection system is configured to mechanically connect adjacent pairs of segments to each other and the connection system is configured to electrically connect the at least one impedance element of adjacent pairs of segments to each other, wherein a first part of the connection system of one segment of adjacent pairs of segments is configured to connect to a second part of the connection system of a second segment of adjacent pairs of segments; wherein, the connection system is configured to enable the angle between adjacent pairs of segments to be changed; characterised in that the impedance elements are either capacitive elements or a combination of resistive elements and capacitive elements; and the impedance elements are connected within at least one segment in parallel and the impedance elements are connected within at least one other segment in series.
A combine double-decker crop residue spreader for use with a rotating chopper having chopper blades and through which air is blown, the combine residue spreader comprising: a divider panel separating a lower portion from an upper portion of the spreader , the divider panel to extend rearwardly from a location where the chopper blades transition from rotating towards the divider panel to rotating away from the divider panel ; an air flow conduit above the divider panel in the upper portion to rearwardly direct air flow; and at least one lower vertical panel below the divider panel in the lower portion to rearwardly direct residue, wherein the at least one lower vertical panel comprises lower rotatable paddles , characterized in that the upper portion of the spreader comprises upper rotatable paddles to move air through the airflow conduit . a divider panel separating a lower portion from an upper portion of the spreader , the divider panel to extend rearwardly from a location where the chopper blades transition from rotating towards the divider panel to rotating away from the divider panel ; an air flow conduit above the divider panel in the upper portion to rearwardly direct air flow; and at least one lower vertical panel below the divider panel in the lower portion to rearwardly direct residue, wherein the at least one lower vertical panel comprises lower rotatable paddles , characterized in that the upper portion of the spreader comprises upper rotatable paddles to move air through the airflow conduit .
A phase difference film consisting of a resin C containing a copolymer P containing a polymerization unit A and a polymerization unit B, the phase difference film including a phase separation structure that exhibits a structural birefringence, the phase separation structure including a phase including as a main component the polymerization unit A and another phase including as a main component the polymerization unit B, and the phase difference film having an NZ factor of greater than 0 and smaller than 1, the NZ factor being a value represented by (nx - nz)/(nx - ny), wherein nx represents the refractive index in the direction in which a maximum refractive index is given among in-plane directions, ny represents the refractive index in the direction, among the in-plane directions of the film, orthogonal to the direction giving nx, and nz represents the refractive index in the thickness direction of the film, the refractive indices being measured at a wavelength of 540 nm; and characterized in that the copolymer P includes: a triblock copolymer P' that is an (A)-(B)-(A) triblock copolymer having blocks (A) including as a main component the polymerization unit A and a block (B) including as a main component the polymerization unit B; and a diblock copolymer P" that is an (A)-(B) diblock copolymer having the block (A) and the block (B), the ratio of the diblock copolymer P" relative to the total of the triblock copolymer P' and the diblock copolymer P" is 5 to 40% by weight. the phase difference film including a phase separation structure that exhibits a structural birefringence, the phase separation structure including a phase including as a main component the polymerization unit A and another phase including as a main component the polymerization unit B, and the phase difference film having an NZ factor of greater than 0 and smaller than 1, the NZ factor being a value represented by (nx - nz)/(nx - ny), wherein nx represents the refractive index in the direction in which a maximum refractive index is given among in-plane directions, ny represents the refractive index in the direction, among the in-plane directions of the film, orthogonal to the direction giving nx, and nz represents the refractive index in the thickness direction of the film, the refractive indices being measured at a wavelength of 540 nm; and characterized in that the copolymer P includes: a triblock copolymer P' that is an (A)-(B)-(A) triblock copolymer having blocks (A) including as a main component the polymerization unit A and a block (B) including as a main component the polymerization unit B; and a diblock copolymer P" that is an (A)-(B) diblock copolymer having the block (A) and the block (B), a triblock copolymer P' that is an (A)-(B)-(A) triblock copolymer having blocks (A) including as a main component the polymerization unit A and a block (B) including as a main component the polymerization unit B; and a diblock copolymer P" that is an (A)-(B) diblock copolymer having the block (A) and the block (B), the ratio of the diblock copolymer P" relative to the total of the triblock copolymer P' and the diblock copolymer P" is 5 to 40% by weight.
A method of detecting an event generating radiant optical energy, the method comprising using a coherent fiber array having a dome-shaped detection surface and planar output surface , wherein the dome-shaped detection surface has a radius of curvature and a center of curvature, wherein flat face tips at a first end of the fibers of the coherent fiber array are perpendicular to the dome-shaped detection surface, and wherein flat face tips at the other end of the fibers of the coherent fiber array are perpendicular to the planar output surface, the method including the steps of: capturing electromagnetic radiation from the event generating radiant optical energy at the dome-shaped detection surface; transferring the electromagnetic radiation to the planar output surface, wherein the coherent fiber array is configured to retain directionality of the event generating radiant optical energy while transferring the optical energy from the dome-shaped detection surface to the planar output surface; using a focal plane array to create an image of the output surface of the coherent fiber array, wherein the focal plane array comprises pixels, wherein each pixel is a detection device from which data is extracted, wherein each pixel of the focal plane array is mapped to at least one fiber of the coherent fiber array; and processing the image to measure spherical coordinates of the event to optically detect or track optical energy from the event generating radiant optical energy ,wherein the spherical coordinates include azimuth, Θ, and elevation, φ, wherein processing the image comprises: computing the azimuth, Θ, and elevation, φ, of the event generating radiant optical energy as: Θ = tan − 1 y x ; and φ = cos − 1 D x 2 + y 2 + D 2 , wherein x and y denote the position of a pixel in x and y directions on the focal plane array corresponding to the centroid of the event, and D denotes an axial distance from the center of curvature to a base of the dome-shaped detection surface. capturing electromagnetic radiation from the event generating radiant optical energy at the dome-shaped detection surface; transferring the electromagnetic radiation to the planar output surface, wherein the coherent fiber array is configured to retain directionality of the event generating radiant optical energy while transferring the optical energy from the dome-shaped detection surface to the planar output surface; using a focal plane array to create an image of the output surface of the coherent fiber array, wherein the focal plane array comprises pixels, wherein each pixel is a detection device from which data is extracted, wherein each pixel of the focal plane array is mapped to at least one fiber of the coherent fiber array; and processing the image to measure spherical coordinates of the event to optically detect or track optical energy from the event generating radiant optical energy ,wherein the spherical coordinates include azimuth, Θ, and elevation, φ,
A laminated glass comprising a first glass sheet , a second glass sheet and a laminating interlayer between the first glass sheet and the second glass sheet ; said first glass sheet being a textured glass sheet having a textured inner surface in contact with the laminating interlayer , characterized in that a first reflective coating is arranged between the first glass sheet and the laminating interlayer and a second reflective coating is arranged between the second glass sheet and the laminating interlayer , the first and second reflective coatings being in direct contact with the inner surface of the first and second glass sheet , and said laminated glass having a visible light reflection, measured according to ISO 9059:2003, on each of its faces above 10%.
Bread-packaging device for packaging a single sliced loaf of bread (VB), comprising: - a conveying unit which can be placed near a bread-slicing device or can be connected thereto and which is configured to receive a single sliced loaf of bread (VB) from the bread-slicing device ; and - a packaging unit which is connected to the conveying unit in such a way that a passage for the single sliced loaf (VB) is formed between the conveying unit and the packaging unit , in which the conveying unit is configured for conveying the received single sliced loaf (VB) to the packaging unit via the passage , and in which the packaging unit is configured for packaging the single sliced loaf of bread (VB) received from the conveying unit in a bag (Z), characterized in that the packaging unit comprises bag-opening means which can be brought into a first state for receiving a bag (Z), and which can be brought into a second state by a user in order to open the bag (Z) with an opening of the bag (Z) being situated in front of the passage and the single sliced loaf (VB) is movable into the bag by means of the conveying unit, in which the bread-packaging device is configured in such a way that for each loaf of bread to be packaged the bag-opening means has to be brought into the second state in each case by a user. - a conveying unit which can be placed near a bread-slicing device or can be connected thereto and which is configured to receive a single sliced loaf of bread (VB) from the bread-slicing device ; and - a packaging unit which is connected to the conveying unit in such a way that a passage for the single sliced loaf (VB) is formed between the conveying unit and the packaging unit , in which the conveying unit is configured for conveying the received single sliced loaf (VB) to the packaging unit via the passage , and in which the packaging unit is configured for packaging the single sliced loaf of bread (VB) received from the conveying unit in a bag (Z), characterized in that the packaging unit comprises bag-opening means which can be brought into a first state for receiving a bag (Z), and which can be brought into a second state by a user in order to open the bag (Z) with an opening of the bag (Z) being situated in front of the passage and the single sliced loaf (VB) is movable into the bag by means of the conveying unit, in which the bread-packaging device is configured in such a way that for each loaf of bread to be packaged the bag-opening means has to be brought into the second state in each case by a user.
Check valve , having a housing , a flow duct and a valve body which is arranged in the flow duct and bears with a sealing section against a housing-side sealing seat when the check valve is closed, the valve body being guided along a movement axis by means of a housing-side guide face and, when the check valve is open to its maximum, bearing with a stop face against a housing-side movement limiting face , characterized in that the guide face is provided by a guide element , and the sealing seat and the movement limiting face are provided separately by the guide element , wherein in that the guide element is manufactured in the form of a stamped part and in that the movement limiting face is provided by a movement limiting element which is separate from the housing .