mhurhangee/ep-ind-claims huggingface dataset:
Feeding device for feeding dairy cows having a conveying device which has a conveyer belt, the feed strand of which designed for receiving feed extends in the transport direction between a strand beginning and a strand end, wherein in the feeding device along at least one longitudinal side of the feed strand, several regions (1, 2, 3, 4) arranged one behind another in the transport direction of the feed strand and separated from one another are provided in each case with access to the feed strand, characterised in that the conveyer belt is a continuously rotating conveyer belt, wherein a conveying rate of the continuous conveyer belt is provided for a residence period of the feed on the feed strand of 4 to 30 hours, and furthermore a milking robot is provided for automatic milking of dairy cows, wherein a switchable exit deflector arranged at the exit of the milking robot is provided for the dairy cows, wherein by means of the exit deflector, optionally access to one of the regions (1, 2, 3, 4) arranged separated from one another may be switched in each case with access to the feed strand.
A method for purifying an AAV-derived empty capsid, or a virion thereof, comprising the step of heating a culture solution of a helper virus-uninfected host cell and/or an extract of the host cell that has produced the AAV-derived empty capsid, or the virion thereof, and the step of removing the coagulated proteins from the culture solution and/or the extract after the heating step by centrifugation or filtration, wherein the heating time is 10 minutes to 90 minutes in the case of a heating temperature of 45°C or higher and lower than 55°C, or the heating time is 3 minutes to 30 minutes in the case of a heating temperature of 55°C or higher and 60°C or lower. the step of heating a culture solution of a helper virus-uninfected host cell and/or an extract of the host cell that has produced the AAV-derived empty capsid, or the virion thereof, and the step of removing the coagulated proteins from the culture solution and/or the extract after the heating step by centrifugation or filtration, the heating time is 10 minutes to 90 minutes in the case of a heating temperature of 45°C or higher and lower than 55°C, or the heating time is 3 minutes to 30 minutes in the case of a heating temperature of 55°C or higher and 60°C or lower.
A high-efficiency rolling process for high-strength and high-ductility magnesium alloy sheets, wherein billets are rolled in a rough rolling step and a high-efficiency hot rolling step, and wherein rolling reduction in each pass of the rough rolling is 10∼30%, and in the high-efficiency hot rolling step rolling speed in each rolling pass is 10∼50 m/min, rolling reduction in each rolling pass is 40∼90%, the billets are preheated 1∼15 min before rolling in each rolling pass, and the temperature of the preheating before rolling and a temperature of rolling in each rolling pass are controlled to be 250∼450 °C.
A pocket and drape system comprising: a base drape material having an upper edge, a lower edge, a first side edge, and a second side edge to define a perimeter, further wherein the base drape material has an inner surface and an outer surface; a first row of pockets configured on the inner surface of the base drape material, wherein the first row of pockets includes a free end and a sealed end; a second row of pockets configured on the inner surface of the base drape material; and a flap covering a portion of the inner surface of the base drape material, wherein the flap has a first surface and an opposing second surface, wherein the flap maintains at least one sterile field, characterised in that a sealed end of the flap is sealed to the sealed end of the first row of pockets or is sealed or attached to the base drape material adjacent the sealed end of the first row of pockets, and the flap further includes a free end, wherein the flap is movable such that the flap covers at least a portion of the second row of pockets in a first position and covers at least a portion of the first row of pockets in a second position. a base drape material having an upper edge, a lower edge, a first side edge, and a second side edge to define a perimeter, further wherein the base drape material has an inner surface and an outer surface; a first row of pockets configured on the inner surface of the base drape material, wherein the first row of pockets includes a free end and a sealed end; a second row of pockets configured on the inner surface of the base drape material; and a flap covering a portion of the inner surface of the base drape material, wherein the flap has a first surface and an opposing second surface, wherein the flap maintains at least one sterile field, characterised in that a sealed end of the flap is sealed to the sealed end of the first row of pockets or is sealed or attached to the base drape material adjacent the sealed end of the first row of pockets, and the flap further includes a free end, wherein the flap is movable such that the flap covers at least a portion of the second row of pockets in a first position and covers at least a portion of the first row of pockets in a second position.
A shock strut, comprising: a strut cylinder; a strut piston operatively coupled to the strut cylinder; a non-metallic orifice plate comprising a body portion having an annular geometry; and a metering pin extending through the non-metallic orifice plate; the body portion of the non-metallic orifice plate comprising: an inner diameter surface; an outer diameter surface; a first side surface extending between the inner diameter surface and the outer diameter surface; and a second side surface extending between the inner diameter surface and the outer diameter surface, the second side surface disposed opposite the non-metallic orifice plate from the first side surface; and a wear-resistant coating disposed on the inner diameter surface of the body portion, wherein the wear-resistant coating defines a wear-resistant inner diameter surface on the non-metallic orifice plate; and wherein the body portion comprises a first material; and wherein the wear-resistant coating comprises a second material; wherein the first material comprises at least one of a thermoplastic and a thermoset carbon fiber reinforced composite. a strut cylinder; a strut piston operatively coupled to the strut cylinder; a non-metallic orifice plate comprising a body portion having an annular geometry; and a metering pin extending through the non-metallic orifice plate; the body portion of the non-metallic orifice plate comprising: an inner diameter surface; an outer diameter surface; a first side surface extending between the inner diameter surface and the outer diameter surface; and a second side surface extending between the inner diameter surface and the outer diameter surface, the second side surface disposed opposite the non-metallic orifice plate from the first side surface; and a wear-resistant coating disposed on the inner diameter surface of the body portion, wherein the wear-resistant coating defines a wear-resistant inner diameter surface on the non-metallic orifice plate; and wherein an inner diameter surface; an outer diameter surface; a first side surface extending between the inner diameter surface and the outer diameter surface; and a second side surface extending between the inner diameter surface and the outer diameter surface, the second side surface disposed opposite the non-metallic orifice plate from the first side surface; and a wear-resistant coating disposed on the inner diameter surface of the body portion, wherein the wear-resistant coating defines a wear-resistant inner diameter surface on the non-metallic orifice plate; and wherein the body portion comprises a first material; and wherein the wear-resistant coating comprises a second material; wherein the first material comprises at least one of a thermoplastic and a thermoset carbon fiber reinforced composite.
An aggregate-removing filter material for removing an aggregate in a blood product, comprising: a fiber having a fiber length of 100 to 1000 mm and a fineness of 0.7 to 4.0 dtex,wherein a content of a fiber having a fiber length of 100 to 1000 mm is 70% or more, wherein a basis weight is 20 to 100 g/m 2, and a no-load bulk density is 0.03 to 0.10 g/cm 3. a fiber having a fiber length of 100 to 1000 mm and a fineness of 0.7 to 4.0 dtex,wherein a content of a fiber having a fiber length of 100 to 1000 mm is 70% or more, wherein a basis weight is 20 to 100 g/m 2, and a no-load bulk density is 0.03 to 0.10 g/cm 3.
A printing stamp for imprint lithography comprising a pliable stamp layer having a contoured surface carrying a relief pattern that is exposed for patterning of a contoured surface of a substrate and a support layer adhered to the pliable stamp layer and comprising a plurality of pores filled with a filler material.
A computer-implemented method for decompacting a 3D model of the subsurface geology of the Earth at an intermediate restoration time in the past τ, the method comprising: receiving a 3D model of present-day geometry of the subsurface geology; selecting a value of a restoration time in the past τ before the present day and after a time an oldest horizon surface in the 3D model of the subsurface was deposited; restoring the 3D model from the present day measured geometry to the predicted past geometry at the restoration time in the past τ using a 3D transformation; and decompacting the vertical dimension of the restored 3D model to elongate vertical lengths of geological layers below a horizon layer deposited at the restoration time in the past τ, characterized in that the method further comprises receiving a measure of present-day porosity experimentally measured within the subsurface geology of the Earth and wherein the vertical lengths are elongated based on a relationship between a depositional porosity of the geological layers at the time sediment in those layers was deposited, restoration porosity of the geological layers at the restoration time in the past τ, and the present-day porosity of the geological layers experimentally measured in the present-day. receiving a 3D model of present-day geometry of the subsurface geology; selecting a value of a restoration time in the past τ before the present day and after a time an oldest horizon surface in the 3D model of the subsurface was deposited; restoring the 3D model from the present day measured geometry to the predicted past geometry at the restoration time in the past τ using a 3D transformation; and decompacting the vertical dimension of the restored 3D model to elongate vertical lengths of geological layers below a horizon layer deposited at the restoration time in the past τ, characterized in that the method further comprises receiving a measure of present-day porosity experimentally measured within the subsurface geology of the Earth and wherein the vertical lengths are elongated based on a relationship between a depositional porosity of the geological layers at the time sediment in those layers was deposited, restoration porosity of the geological layers at the restoration time in the past τ, and the present-day porosity of the geological layers experimentally measured in the present-day.
An image forming apparatus comprising: an image carrier; a latent-image forming unit configured to form a latent image on the image carrier; a developing unit configured to develop the latent image on the image carrier with a developer applied onto a developer carrier; a temperature detector configured to detect an internal temperature or an ambient temperature of the developing unit, the internal temperature and ambient temperature varying depending on a temperature of the developer carrier; and a control unit configured to control restriction on number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector, wherein the control unit controls the restriction on the number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector and a plurality of predetermined temperature thresholds (T1, T2; TT0, TT1, TT2, TT3). an image carrier; a latent-image forming unit configured to form a latent image on the image carrier; a developing unit configured to develop the latent image on the image carrier with a developer applied onto a developer carrier; a temperature detector configured to detect an internal temperature or an ambient temperature of the developing unit, the internal temperature and ambient temperature varying depending on a temperature of the developer carrier; and a control unit configured to control restriction on number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector, wherein the control unit controls the restriction on the number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector and a plurality of predetermined temperature thresholds (T1, T2; TT0, TT1, TT2, TT3). a temperature detector configured to detect an internal temperature or an ambient temperature of the developing unit, the internal temperature and ambient temperature varying depending on a temperature of the developer carrier; and a control unit configured to control restriction on number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector, wherein the control unit controls the restriction on the number of pages on which image formation is allowed to be performed continuously and cancellation of the restriction, based on the temperature detected by the temperature detector and a plurality of predetermined temperature thresholds (T1, T2; TT0, TT1, TT2, TT3).
A dry refractory particulate composition comprising: 5% to 95% by weight of aggregate, 1% to 8% by weight of silica fume, 0.1% to 1.5% by weight of hydratable alumina, 0.1% to 1% by weight of a calcium source, and 0.01% to 1% by weight of dispersant, wherein the calcium source is selected from calcium aluminate cement, Portland cement, hydrated lime, calcium sulfate, calcium acetate, calcium chloride, calcium chlorate or mixtures thereof; wherein the hydrated lime, calcium sulfate, calcium acetate, calcium chloride, calcium chlorate have a particle size of up to 200 microns, and the calcium aluminate cement and Portland cement have a particle size of up to 80 microns, determined by sieving as described in the description; wherein the calcium oxide content is no greater than 0.3% by weight and all percentages by weight are based on the total dry weight of the dry refractory composition. 5% to 95% by weight of aggregate, 1% to 8% by weight of silica fume, 0.1% to 1.5% by weight of hydratable alumina, 0.1% to 1% by weight of a calcium source, and 0.01% to 1% by weight of dispersant, wherein the calcium source is selected from calcium aluminate cement, Portland cement, hydrated lime, calcium sulfate, calcium acetate, calcium chloride, calcium chlorate or mixtures thereof; wherein the hydrated lime, calcium sulfate, calcium acetate, calcium chloride, calcium chlorate have a particle size of up to 200 microns, and the calcium aluminate cement and Portland cement have a particle size of up to 80 microns, determined by sieving as described in the description; wherein the calcium oxide content is no greater than 0.3% by weight and all percentages by weight are based on the total dry weight of the dry refractory composition.
A medical instrument cleaning device consisting of: a rod member comprised of a flexible polymer having a first straight end and a second looped end wherein the first straight end is longer in length than the second looped end; and a swab member attached to the second looped end. a rod member comprised of a flexible polymer having a first straight end and a second looped end wherein the first straight end is longer in length than the second looped end; and a swab member attached to the second looped end.
A pharmaceutical composition comprising an antibody-drug conjugate having formula I: or a pharmaceutically acceptable salt thereof; and a pharmaceutically acceptable carrier; wherein: mAb is an anti-CD30 antibody, S is a sulfur atom of the antibody A- is a Stretcher unit, and p is from about 3 to about 5; for use in treating a CD30 expressing hematologic cancer in a subject, wherein the administered dose of antibody-drug conjugates is 1-1.8 mg/kg of the subject's body weight and the pharmaceutical composition is administered as a maintenance therapy once every two weeks. or a pharmaceutically acceptable salt thereof; and a pharmaceutically acceptable carrier; wherein: mAb is an anti-CD30 antibody, S is a sulfur atom of the antibody A- is a Stretcher unit, and p is from about 3 to about 5; for use in treating a CD30 expressing hematologic cancer in a subject, wherein the administered dose of antibody-drug conjugates is 1-1.8 mg/kg of the subject's body weight and the pharmaceutical composition is administered as a maintenance therapy once every two weeks. mAb is an anti-CD30 antibody, S is a sulfur atom of the antibody A- is a Stretcher unit, and p is from about 3 to about 5; for use in treating a CD30 expressing hematologic cancer in a subject, wherein the administered dose of antibody-drug conjugates is 1-1.8 mg/kg of the subject's body weight and the pharmaceutical composition is administered as a maintenance therapy once every two weeks.
A fuel and air system for an aircraft comprising: a pressurized fuel tank containing a pressurized fuel; a turbo expander configured to receive the pressurized fuel from the pressurized fuel tank, the turbo expander configured to decrease a pressure of the pressurized fuel to generate low pressure fuel, wherein the low pressure fuel has a pressure that is less than the pressurized fuel; a fuel-to-air heat exchanger configured to receive the low pressure fuel from the turbo expander as a first working fluid and air as a second working fluid, the heat exchanger configured to cool the air and warm the low pressure fuel to generate treated fuel; a space configured to receive the cooled air; and a fuel consumption system configured to consume the treated fuel to generate power; wherein the turbo expander is part of a turbo-compressor comprising a compressor operably coupled to the turbo expander by a shaft, and the compressor is configured to receive ram air and compress said ram air and increase pressure thereof, the increased pressure ram air being directed to the fuel-to-air heat exchanger. a pressurized fuel tank containing a pressurized fuel; a turbo expander configured to receive the pressurized fuel from the pressurized fuel tank, the turbo expander configured to decrease a pressure of the pressurized fuel to generate low pressure fuel, wherein the low pressure fuel has a pressure that is less than the pressurized fuel; a fuel-to-air heat exchanger configured to receive the low pressure fuel from the turbo expander as a first working fluid and air as a second working fluid, the heat exchanger configured to cool the air and warm the low pressure fuel to generate treated fuel; a space configured to receive the cooled air; and a fuel consumption system configured to consume the treated fuel to generate power; wherein the turbo expander is part of a turbo-compressor comprising a compressor operably coupled to the turbo expander by a shaft, and the compressor is configured to receive ram air and compress said ram air and increase pressure thereof, the increased pressure ram air being directed to the fuel-to-air heat exchanger.
A vehicle furniture system having an article of furniture and a carriage configured to carry the article of furniture between first and second positions within a body portion of a vehicle when the carriage is coupled to the body portion of the vehicle, the vehicle furniture system comprising a first actuator configured to deploy the article of furniture from the carriage when the carriage is in at least one of the first and second positions.
A method for producing an oxide catalyst comprising antimony, wherein the oxide catalyst is represented by following formula: Mo 1 V a Nb b Sb c X d Z e O n wherein X represents at least one element selected from the group consisting of W, Bi, Mn, and Ti; Z represents at least one element selected from the group consisting of La, Ce, Pr, Yb, Y, Sc, Sr, and Ba; a, b, c, d, e, and n represent atomic ratios of respective elements, and 0.01 ≤ a ≤ 1.00, 0.01 ≤ b ≤ 1.00, 0.01 ≤ c ≤ 1.00, 0.00 ≤ d ≤ 1.00, 0.00 ≤ e ≤ 1.00; and n is a value satisfying balance among a valence, said method comprising a step of dissolving or dispersing a starting material comprising a source of the antimony and a source of Mo, V, Nb, Sb, X and Z in a liquid composed of water to obtain a formulated starting material liquid, using an antimony particle comprising a diantimony trioxide as the source of the antimony; a step of drying the formulated starting material liquid obtained in the step to obtain a dried material; and a step of calcining the dried material obtained in the step to obtain a calcined material, wherein, based on the total amount of trivalent antimony and pentavalent antimony in the surface layer of the antimony particles, the abundance of pentavalent antimony in the surface layer of the antimony particle, to be measured in XPS analysis, is less than 70 atom%, wherein the surface layer has a thickness of 2 nm, and the antimony particle has a median size, measured by laser diffraction method, of 1.2 μm or less. a step of dissolving or dispersing a starting material comprising a source of the antimony and a source of Mo, V, Nb, Sb, X and Z in a liquid composed of water to obtain a formulated starting material liquid, using an antimony particle comprising a diantimony trioxide as the source of the antimony; a step of drying the formulated starting material liquid obtained in the step to obtain a dried material; and a step of calcining the dried material obtained in the step to obtain a calcined material, wherein, based on the total amount of trivalent antimony and pentavalent antimony in the surface layer of the antimony particles, the abundance of pentavalent antimony in the surface layer of the antimony particle, to be measured in XPS analysis, is less than 70 atom%, wherein the surface layer has a thickness of 2 nm, and the antimony particle has a median size, measured by laser diffraction method, of 1.2 μm or less.
A method for powder coating or producing composite materials, preferably plastics, by processing, preferably extruding or injection moulding in which, during production, metered quantities of additives, preferably nanopowders and/nanofibres, are admixed to form a homogeneous matrix of the composite material to be produced, wherein, prior to the powder being coated or the additives being admixed, same are present at least partially in an agglomerated state in at least one container with an inlet pipe, and subsequently deagglomerated and added to the coating or the composite material being processed by a pressure pump, characterised in that, before aspiration of the powder or of the at least one additive by the pressure pump, a pneumatic recoil is produced in the inlet pipe and/or in the container in order to deagglomerate and/or pre-fluidise the powder or the at least one additive.
An applicator device for applying a fluid or pasty type product to keratin fibres, comprising a central core elongated in shape which extends along a longitudinal axis XX, at least one row of elongated spikes comprising a first end embedded on the central core and a second free end, the spikes and the central core being integral, formed in one piece, characterised in that all or part of the spikes forming part of the row of spikes have a face (a) belonging to a curved plane (b) spiralling around the axis XX.