mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle bond filler formulation comprising: a part A comprising a curable resin having a degree of unsaturation; and a monomer reactive diluent in which said curable resin is dissolved or suspended, wherein the monomer reactive diluent is an acrylic, acrylate, methacrylate, ether monomer of the structure (C 1 -C 6 alkyl)-O-(C 2 -C 6 alkylene), styrene, α-methylstyrene, vinyl toluene, di-functional styrene, allyl substituted benzene, di-vinyl benzene, difunctional acrylate, trifunctional acrylate, acrylonitrile, mono-vinyl-terminated polydimethylsiloxanes, and combinations of any of the aforementioned; a part B storage-separate, free-radical cure initiator package comprising a free-radical cure initiator; and at least one color changing dye present from 0.00005 to 0.002 total weight percent of the active dye in a complete formulation adapted to i) change color upon mixing of said part A and said part B, such that a terminal color change occurs within ±5 minutes of cure of said curable resin to a sandable condition or ii) serve as a guide coat colorant which is reactive with ambient air or light; or a combination thereof. a part A comprising a curable resin having a degree of unsaturation; and a monomer reactive diluent in which said curable resin is dissolved or suspended, wherein the monomer reactive diluent is an acrylic, acrylate, methacrylate, ether monomer of the structure (C 1 -C 6 alkyl)-O-(C 2 -C 6 alkylene), styrene, α-methylstyrene, vinyl toluene, di-functional styrene, allyl substituted benzene, di-vinyl benzene, difunctional acrylate, trifunctional acrylate, acrylonitrile, mono-vinyl-terminated polydimethylsiloxanes, and combinations of any of the aforementioned; a part B storage-separate, free-radical cure initiator package comprising a free-radical cure initiator; and at least one color changing dye present from 0.00005 to 0.002 total weight percent of the active dye in a complete formulation adapted to i) change color upon mixing of said part A and said part B, such that a terminal color change occurs within ±5 minutes of cure of said curable resin to a sandable condition or ii) serve as a guide coat colorant which is reactive with ambient air or light; or a combination thereof.
A method for producing a membrane filter comprising a thin film and a support film supporting the thin film , characterized in that the method comprises the steps of: forming the thin film on a first sacrificial film that is formed on a first substrate , forming a first photosensitive composition film on the thin film , forming the support film by exposure and development of the first photosensitive composition film thereby obtaining the membrane filter , and detaching the membrane filter from the first substrate by dissolving the first sacrificial film in a dissolving solution , wherein the thin film has a thickness of 1 to 1,000 nm, the support film is a porous film having a thickness of 1 to 1,000 μm and a plurality of hole portions penetrating in the thickness direction, the thin film does not have the hole portion penetrating in the thickness direction, a material for formation of the thin film is an organic material, a material for formation of the support film is an organic material. forming the thin film on a first sacrificial film that is formed on a first substrate , forming a first photosensitive composition film on the thin film , forming the support film by exposure and development of the first photosensitive composition film thereby obtaining the membrane filter , and detaching the membrane filter from the first substrate by dissolving the first sacrificial film in a dissolving solution , wherein the thin film has a thickness of 1 to 1,000 nm, the support film is a porous film having a thickness of 1 to 1,000 μm and a plurality of hole portions penetrating in the thickness direction, the thin film does not have the hole portion penetrating in the thickness direction, a material for formation of the thin film is an organic material, a material for formation of the support film is an organic material. the thin film has a thickness of 1 to 1,000 nm, the support film is a porous film having a thickness of 1 to 1,000 μm and a plurality of hole portions penetrating in the thickness direction, the thin film does not have the hole portion penetrating in the thickness direction, a material for formation of the thin film is an organic material, a material for formation of the support film is an organic material.
A superconducting device , wherein the superconducting device is a superconducting four-port circulator, comprising: a first mixing device (130_1) having a first mixing port (320_1) and a second mixing port (322_1); and a second mixing device (130_2) having another first mixing port (320_2) and another second mixing port (322_2), the first and second mixing devices (130_1, 130_2) being superconducting nondegenerate three-wave mixing devices (130_1, 130_2) configured to be operated in unitary frequency conversion mode, wherein the first mixing port (320_1) and the another first mixing port (320_2) are configured to couple to a first coupler , wherein the second mixing port (322_1) and the another second mixing port (322_2) are configured to couple to a second coupler , wherein one of the first and second couplers is a 90 degree hybrid coupler and the other one of the first and second couplers is a 180 degree hybrid coupler, and wherein the first mixing device (130_1) has a third mixing port (324_1) and the second mixing device (130_2) has another third mixing port (324_2), wherein the third mixing ports (324_1, 324_2) are connected to pump drives, wherein a phase of the pump signal for the second mixing device (130_2) is shifted by 90 degrees from the one for the first mixing device (130_1). a first mixing device (130_1) having a first mixing port (320_1) and a second mixing port (322_1); and a second mixing device (130_2) having another first mixing port (320_2) and another second mixing port (322_2), the first and second mixing devices (130_1, 130_2) being superconducting nondegenerate three-wave mixing devices (130_1, 130_2) configured to be operated in unitary frequency conversion mode, wherein the first mixing port (320_1) and the another first mixing port (320_2) are configured to couple to a first coupler , wherein the second mixing port (322_1) and the another second mixing port (322_2) are configured to couple to a second coupler , wherein one of the first and second couplers is a 90 degree hybrid coupler and the other one of the first and second couplers is a 180 degree hybrid coupler, and wherein the first mixing device (130_1) has a third mixing port (324_1) and the second mixing device (130_2) has another third mixing port (324_2), wherein the third mixing ports (324_1, 324_2) are connected to pump drives, wherein a phase of the pump signal for the second mixing device (130_2) is shifted by 90 degrees from the one for the first mixing device (130_1).
Method for manufacturing an armature of a commutator motor, in particular in a DC configuration, the commutator motor having: a stator comprising a plurality of stator poles , an armature comprising a plurality of armature teeth which are arranged on the periphery of the armature with armature grooves positioned between them, and a commutator which has a plurality of lamellae (L) and associated winding hooks , comprising the steps of: winding bridges of the commutator by connecting winding hooks of the lamellae (L) of the commutator ; winding windings of armature teeth , each half of the number of windings being formed from one continuous winding wire ; and attaching the associated winding ends to winding hooks of the lamellae (L) of the commutator . winding bridges of the commutator by connecting winding hooks of the lamellae (L) of the commutator ; winding windings of armature teeth , each half of the number of windings being formed from one continuous winding wire ; and attaching the associated winding ends to winding hooks of the lamellae (L) of the commutator .
A processing method of a digital signal (S(t)) of an electronic or mechanical pulse and scanning radar during an observation of a coastal zone in land / sea detection mode, said signal being sampled according to a two-dimensional temporal sampling map, one dimension corresponding to a distance (d) from the radar and the other dimension corresponding to a recurrence (rec) of pulse emission by the radar, the two-dimensional temporal sampling map being thus made of samples (E(d,rec)), characterized in that the processing method includes: - selecting a digital terrain model file (MNT) corresponding to the observed coastal zone; - transforming the temporal sampling map and the digital terrain model file to obtain a transformed temporal sampling map and a transformed digital terrain model file whose data are expressed in a shared reference frame; - constructing a temporal mask (MT) by initializing a temporal mask including a matrix of cells having as many distance bins and recurrence bins as the transformed temporal sampling map, and by allocating to each cell of the temporal mask a value (p(d,rec) that depends on the proportion of the land surface to the surface defined by said cell in the transformed digital terrain model file; and - applying said temporal mask to the samples (E(d,rec)) of the transformed temporal sampling map, so as to obtain filtered samples (Ef(d,rec), the temporal mask (MT) being applied by weighting the sample ( E(d,rec) ) of a cell of the transformed temporal sampling map, by the value ( p(d,rec) ) of the corresponding cell of the temporal mask (MT). - selecting a digital terrain model file (MNT) corresponding to the observed coastal zone; - transforming the temporal sampling map and the digital terrain model file to obtain a transformed temporal sampling map and a transformed digital terrain model file whose data are expressed in a shared reference frame; - constructing a temporal mask (MT) by initializing a temporal mask including a matrix of cells having as many distance bins and recurrence bins as the transformed temporal sampling map, and by allocating to each cell of the temporal mask a value (p(d,rec) that depends on the proportion of the land surface to the surface defined by said cell in the transformed digital terrain model file; and - applying said temporal mask to the samples (E(d,rec)) of the transformed temporal sampling map, so as to obtain filtered samples (Ef(d,rec), the temporal mask (MT) being applied by weighting the sample ( E(d,rec) ) of a cell of the transformed temporal sampling map, by the value ( p(d,rec) ) of the corresponding cell of the temporal mask (MT).
A method for a user equipment device, UE, to determine a default beam for dedicated physical uplink control channel, PUCCH, or sounding reference signal, SRS, transmissions in a component carrier, CC, comprising: in response to determining that a base station serving the UE has not configured spatial relationship information for a default beam for transmissions in the CC , determining whether a pathloss reference signal, RS, has been configured in the CC; in response to determining that the pathloss RS has been configured in the CC, determining the default beam for transmissions based, at least in part, on the pathloss RS; in response to determining that the pathloss RS has not been configured in the CC, determining whether any control resource sets, CORESETs, and/or transmission configuration indication, TCI, states for a physical downlink shared channel, PDSCH, in the CC have been configured; characterized by : in response to determining that no CORESESTs and/or TCI states have been configured in the CC, determining the default beam for transmissions based, at least in part, on a physical random-access channel, PRACH, procedure. in response to determining that a base station serving the UE has not configured spatial relationship information for a default beam for transmissions in the CC , determining whether a pathloss reference signal, RS, has been configured in the CC; in response to determining that the pathloss RS has been configured in the CC, determining the default beam for transmissions based, at least in part, on the pathloss RS; in response to determining that the pathloss RS has not been configured in the CC, determining whether any control resource sets, CORESETs, and/or transmission configuration indication, TCI, states for a physical downlink shared channel, PDSCH, in the CC have been configured;
A pole-piece for a torque motor used in a valve, the pole-piece consisting of two separate pieces, namely a first section and a second section , the first section formed separate from the second section , wherein the first section is held in position with respect to the second section using one or more rigid members ; one or more abutment surfaces of the first section are configured to abut one or more abutment surfaces of the second section when the first section is held in position with respect to the second section using the one or more rigid members , and the abutment surfaces form one or more lines of abutment in an outer surface of the pole piece , wherein each rigid member extends through a line of abutment , and characterized in that a longitudinal axis of each rigid member is at an angle (β) with respect to the line of abutment through which it extends and wherein the angle (β) is less than 90 degrees.
Alight-emitting device , comprising: a wavelength conversion member including, in a dispersed manner, a first phosphor having a first peak wavelength (λ1) in a wavelength region of 400 to 500 nm, a second phosphor having a second peak wavelength (λ2) in a wavelength region of 450 to 550 nm, a third phosphor having a third peak wavelength (λ3) in a wavelength region of 500 to 600 nm, a fourth phosphor having a fourth peak wavelength (λ4) in a wavelength region of 600 to 700 nm, and a fifth phosphor having a fifth peak wavelength (λ5) and a sixth peak wavelength (λ6) in a wavelength region of 680 to 800 nm; and a light emitter having a seventh peak wavelength (λ7) in a wavelength region of 380 to 430 nm, wherein the light-emitting device has an emission spectrum in a wavelength region of 380 to 950 nm including an eighth peak wavelength (λ8) in a wavelength region of 380 to 430 nm, a ninth peak wavelength (λ9) in a wavelength region of 430 to 480 nm, a tenth peak wavelength (λ10) in a wavelength region of 480 to 550 nm, an eleventh peak wavelength (λ11) in a wavelength region of 550 to 650 nm, a twelfth peak wavelength (λ12) and a thirteenth peak wavelength (λ13) in a wavelength region of 650 to 750 nm, and differences between relative light intensities at the peak wavelengths are less than 20%. a wavelength conversion member including, in a dispersed manner, a first phosphor having a first peak wavelength (λ1) in a wavelength region of 400 to 500 nm, a second phosphor having a second peak wavelength (λ2) in a wavelength region of 450 to 550 nm, a third phosphor having a third peak wavelength (λ3) in a wavelength region of 500 to 600 nm, a fourth phosphor having a fourth peak wavelength (λ4) in a wavelength region of 600 to 700 nm, and a fifth phosphor having a fifth peak wavelength (λ5) and a sixth peak wavelength (λ6) in a wavelength region of 680 to 800 nm; and a light emitter having a seventh peak wavelength (λ7) in a wavelength region of 380 to 430 nm, wherein the light-emitting device has an emission spectrum in a wavelength region of 380 to 950 nm including an eighth peak wavelength (λ8) in a wavelength region of 380 to 430 nm, a ninth peak wavelength (λ9) in a wavelength region of 430 to 480 nm, a tenth peak wavelength (λ10) in a wavelength region of 480 to 550 nm, an eleventh peak wavelength (λ11) in a wavelength region of 550 to 650 nm, a twelfth peak wavelength (λ12) and a thirteenth peak wavelength (λ13) in a wavelength region of 650 to 750 nm, and differences between relative light intensities at the peak wavelengths are less than 20%.
Method for producing animal feed, in which plant feed components are fermented in a fermentation process, characterized in that either a) at least parts of the plant feed components are cooked in a cooking process at a temperature of 72°C to 80°C before the fermentation process, gastric juice is obtained from rumen by slicing green rumen, rinsing it with water and hanging it up for drip off, wherein gastric juice dripping off from the rumen is collected, the gastric juice is added to the plant feed components for supporting the fermentation process of the plant feed components, and the fermented and at least partially cooked plant feed components are mixed with at least animal feed components originating from at least one warm-blooded slaughtered animal and/or poultry and/or fish to form an animal feed base mass, or b) a portion of the plant feed components is fermented in a fermentation process and a further portion of the plant feed components is cooked in a cooking process at a temperature between 72°C and 80°C, the fermented plant feed components and the cooked plant feed components are mixed together, gastric juice is obtained from rumen by slicing green rumen, rinsing it with water and hanging it up for drip off, wherein gastric juice dripping off from the rumen is collected, the gastric juice is added to the plant feed components, the plant feed components mixed together are further fermented and mixed at least with rumen and animal feed components originating from at least one warm-blooded slaughtered animal and/or poultry and/or fish to form an animal feed base mass. a) at least parts of the plant feed components are cooked in a cooking process at a temperature of 72°C to 80°C before the fermentation process, gastric juice is obtained from rumen by slicing green rumen, rinsing it with water and hanging it up for drip off, wherein gastric juice dripping off from the rumen is collected, the gastric juice is added to the plant feed components for supporting the fermentation process of the plant feed components, and the fermented and at least partially cooked plant feed components are mixed with at least animal feed components originating from at least one warm-blooded slaughtered animal and/or poultry and/or fish to form an animal feed base mass, or b) a portion of the plant feed components is fermented in a fermentation process and a further portion of the plant feed components is cooked in a cooking process at a temperature between 72°C and 80°C, the fermented plant feed components and the cooked plant feed components are mixed together, gastric juice is obtained from rumen by slicing green rumen, rinsing it with water and hanging it up for drip off, wherein gastric juice dripping off from the rumen is collected, the gastric juice is added to the plant feed components, the plant feed components mixed together are further fermented and mixed at least with rumen and animal feed components originating from at least one warm-blooded slaughtered animal and/or poultry and/or fish to form an animal feed base mass.
A compressed unit dose, comprising: a granulate formulation of 5-methyl-1-phenyl-2- -pyridone, comprising granules comprising 5-methyl-1-phenyl-2- -pyridone and a glidant, wherein the compressed unit dose has a solid fraction of about 80% to about 95%.
A method of manufacturing a biological therapy, the method comprising: detecting a level of a molecular attribute of the biological therapy in a formulation at one or more timepoints under storage conditions; determining a rate of change of the molecular attribute under the storage conditions, wherein a molecular attribute is a chemically or physically changed structure of the molecule that defines its physicochemical properties; obtaining data on in vivo safety and/or efficacy of the biological therapy for subjects that have received an administration of the biological therapy; estimating a level of molecular attribute exposure received by the subjects at the time of said administration, based on (i) the rate of change of the molecular attribute during storage of the biological therapy in the formulation and (ii) a duration that the biological therapy in the formulation was under the storage conditions prior to said administration; determining a presence or absence of a correlation between the estimated level of molecular attribute exposure and the safety and/or efficacy data for the biological therapy; and if the correlation is absent, manufacturing production lots of the biological therapy comprising the molecular attribute at or below a specified permissible level of the molecular attribute based on the estimated level of molecule attribute exposure. detecting a level of a molecular attribute of the biological therapy in a formulation at one or more timepoints under storage conditions; determining a rate of change of the molecular attribute under the storage conditions, wherein a molecular attribute is a chemically or physically changed structure of the molecule that defines its physicochemical properties; obtaining data on in vivo safety and/or efficacy of the biological therapy for subjects that have received an administration of the biological therapy; estimating a level of molecular attribute exposure received by the subjects at the time of said administration, based on (i) the rate of change of the molecular attribute during storage of the biological therapy in the formulation and (ii) a duration that the biological therapy in the formulation was under the storage conditions prior to said administration; determining a presence or absence of a correlation between the estimated level of molecular attribute exposure and the safety and/or efficacy data for the biological therapy; and if the correlation is absent, manufacturing production lots of the biological therapy comprising the molecular attribute at or below a specified permissible level of the molecular attribute based on the estimated level of molecule attribute exposure.
An axial piston pump controller configured to control an axial piston pump having a fixed valve plate and a variable displacement configured to: determine a displacement of the axial piston pump ; calculate a pump displacement control current to be supplied to the axial piston pump to control the displacement of the axial piston pump comprising: calculating a nominal value for the pump displacement control current based on a rotational speed of the axial piston pump ; calculating a pump stiffness adjustment factor based on a pump stiffness control map having as inputs: an output pressure of the axial piston pump , and the displacement of the axial piston pump ; and calculating the pump displacement control current to be supplied to the axial piston pump based on the nominal value and the pump stiffness adjustment factor; and output an instruction to output the calculated pump displacement control current to the axial piston pump in order to control the displacement of the axial piston pump . determine a displacement of the axial piston pump ; calculate a pump displacement control current to be supplied to the axial piston pump to control the displacement of the axial piston pump comprising: calculating a nominal value for the pump displacement control current based on a rotational speed of the axial piston pump ; calculating a pump stiffness adjustment factor based on a pump stiffness control map having as inputs: an output pressure of the axial piston pump , and the displacement of the axial piston pump ; and calculating the pump displacement control current to be supplied to the axial piston pump based on the nominal value and the pump stiffness adjustment factor; and calculating a nominal value for the pump displacement control current based on a rotational speed of the axial piston pump ; calculating a pump stiffness adjustment factor based on a pump stiffness control map having as inputs: an output pressure of the axial piston pump , and the displacement of the axial piston pump ; and calculating the pump displacement control current to be supplied to the axial piston pump based on the nominal value and the pump stiffness adjustment factor; and output an instruction to output the calculated pump displacement control current to the axial piston pump in order to control the displacement of the axial piston pump .