mhurhangee/ep-ind-claims huggingface dataset:
A biological scanning system comprising: a biological scanner (10,20,30,60) for scanning a biological growth medium, the scanner comprising a transport mechanism (13,35) to draw the biological growth medium into the biological scanner, (10,20,30,60) a platen within the biological scanner, (10,20,30,60) once or more sensors to detect when the biological growth medium is drawn to a scanning position adjacent the platen, an actuator to press the biological growth medium against the platen when the one or more sensors detect that the biological growth medium is drawn to the scanning position, and an imaging device to generate an image of the biological growth medium when the biological growth medium is pressed against the platen, and a computer coupled to the biological scanner and including a processor that counts biological agents in the medium based on the image. a biological scanner (10,20,30,60) for scanning a biological growth medium, the scanner comprising a transport mechanism (13,35) to draw the biological growth medium into the biological scanner, (10,20,30,60) a platen within the biological scanner, (10,20,30,60) once or more sensors to detect when the biological growth medium is drawn to a scanning position adjacent the platen, an actuator to press the biological growth medium against the platen when the one or more sensors detect that the biological growth medium is drawn to the scanning position, and an imaging device to generate an image of the biological growth medium when the biological growth medium is pressed against the platen, and a computer coupled to the biological scanner and including a processor that counts biological agents in the medium based on the image.
A device for the storage and transfer of thermal energy of solar origin, which device comprises: - a containment casing, having an irradiation opening configured to allow the entrance of an incident solar radiation in an irradiation region defined within said casing, which irradiation opening is arranged at a side skirt of said casing; - a bed of fluidizable particles received within said casing; - a plurality of reflecting surfaces (701; 702; 703) arranged within said irradiation region, wherein each of said reflecting surfaces is configured to reflect the solar radiation entering through said irradiation opening directly on a freeboard of said bed of particles or on another reflecting surface of said irradiation region, the overall configuration being such that the inletting radiation hits the freeboard of the bed of particles downwards of multiple reflections on said reflecting surfaces (701; 702; 703), wherein the particles of said bed have higher absorbance than that of said reflecting surfaces (701; 702; 703). - a containment casing, having an irradiation opening configured to allow the entrance of an incident solar radiation in an irradiation region defined within said casing, which irradiation opening is arranged at a side skirt of said casing; - a bed of fluidizable particles received within said casing; - a plurality of reflecting surfaces (701; 702; 703) arranged within said irradiation region, wherein each of said reflecting surfaces is configured to reflect the solar radiation entering through said irradiation opening directly on a freeboard of said bed of particles or on another reflecting surface of said irradiation region, the overall configuration being such that the inletting radiation hits the freeboard of the bed of particles downwards of multiple reflections on said reflecting surfaces (701; 702; 703), wherein the particles of said bed have higher absorbance than that of said reflecting surfaces (701; 702; 703).
A computer-implemented method for operating a printer comprising: providing a controller (112a, 112b), an edge detector, and one or more inline slitters (110a, 110b) attached to a slitter bracket associated with the printer; characterised in that the method further comprises the steps of using the edge detector to determine a lateral position of a print medium along a transport path of the printer; using the controller (112a, 112b) to move the one or more inline slitters (110a, 110b) attached to the slitter bracket to an appropriate position for a desired cut; and using the edge detector to make calibration adjustments in real-time. providing a controller (112a, 112b), an edge detector, and one or more inline slitters (110a, 110b) attached to a slitter bracket associated with the printer; characterised in that the method further comprises the steps of using the edge detector to determine a lateral position of a print medium along a transport path of the printer; using the controller (112a, 112b) to move the one or more inline slitters (110a, 110b) attached to the slitter bracket to an appropriate position for a desired cut; and using the edge detector to make calibration adjustments in real-time.
Aqueous washing or cleaning agent composition containing an amount of particles, opacifying the composition, of one or more waxes, each selected from the group consisting of montan wax, carnauba wax and mixtures thereof, wherein 85% by volume or more of the particles of said waxes have a particle size measured by laser diffraction of < 15 μm, wherein the composition additionally comprises sodium carbonate.
A powder container to contain powder used for forming an image and to be attachable to an image forming apparatus that includes: a conveying nozzle to convey the powder; a powder receiving hole of the conveying nozzle to receive the powder from the powder container; an apparatus main-body gear to transmit a driving force to the powder container; and a container receiving section that includes the conveying nozzle and receives the powder container, the powder container comprising: an opening that is at one end of the powder container in the longitudinal direction of the powder container; a nozzle receiving opening to receive the conveying nozzle; a conveyor to convey the powder; and a container gear to drive the conveyor by meshing with the apparatus main-body gear, wherein the container gear is to mesh with the apparatus main-body gear at a position between the opening and the powder receiving hole in the longitudinal direction, and the opening is to mate with the container receiving section, wherein the powder container includes a container body that stores a powder; and a container cover that is rotatable relative to the container gear, characterized in that the powder container further includes a circumferential restrictor that restricts movement of the container cover in a circumferential direction when the powder container is attached to the image forming apparatus. a conveying nozzle to convey the powder; a powder receiving hole of the conveying nozzle to receive the powder from the powder container; an apparatus main-body gear to transmit a driving force to the powder container; and a container receiving section that includes the conveying nozzle and receives the powder container, the powder container comprising: an opening that is at one end of the powder container in the longitudinal direction of the powder container; a nozzle receiving opening to receive the conveying nozzle; a conveyor to convey the powder; and a container gear to drive the conveyor by meshing with the apparatus main-body gear, wherein an opening that is at one end of the powder container in the longitudinal direction of the powder container; a nozzle receiving opening to receive the conveying nozzle; a conveyor to convey the powder; and a container gear to drive the conveyor by meshing with the apparatus main-body gear, wherein the container gear is to mesh with the apparatus main-body gear at a position between the opening and the powder receiving hole in the longitudinal direction, and the opening is to mate with the container receiving section, wherein the powder container includes a container body that stores a powder; and a container cover that is rotatable relative to the container gear, characterized in that the powder container further includes a circumferential restrictor that restricts movement of the container cover in a circumferential direction when the powder container is attached to the image forming apparatus.
Warp knitting loom having a compound needle bar, which comprises a plurality of compound needles, and a drive acting on the compound needle bar, which drive has a linear guide having a first part and a second part moveable relative to the first part, wherein the first part is pivotable with a pivoting movement about a pivot axis and the second part is connected to the compound needle bar, characterized in that the pivot axis is a first pivot axis and the second part is connected articulated with a linkage, which is pivotable about a second pivot axis which is separate from the first pivot axis.
An apparatus comprising a memory system, the memory system comprising: a memory operating according to a wordline, WL, pulse with an associated WL pulse width; a built-in self-test, BIST, unit that interfaces with the memory, the BIST unit being configured to run a self-test of the internal functionality of the memory and provide a signal indicating if the memory passed or failed the self-test; and a WL control loop that interfaces with the BIST unit and the memory, the WL control loop being configured to adjust the WL pulse width of the memory within predetermined maximum and minimum WL pulse width values based on the signal provided by the BIST unit characterized in that: the WL control loop is configured to increase the WL pulse width of the memory, provide an overload signal indicating that the WL pulse width of the memory has reached the predetermined maximum pulse width value and alert that the memory is inoperable based on the overload signal if the memory still fails a subsequent self-test. a memory operating according to a wordline, WL, pulse with an associated WL pulse width; a built-in self-test, BIST, unit that interfaces with the memory, the BIST unit being configured to run a self-test of the internal functionality of the memory and provide a signal indicating if the memory passed or failed the self-test; and a WL control loop that interfaces with the BIST unit and the memory, the WL control loop being configured to adjust the WL pulse width of the memory within predetermined maximum and minimum WL pulse width values based on the signal provided by the BIST unit characterized in that: the WL control loop is configured to increase the WL pulse width of the memory, provide an overload signal indicating that the WL pulse width of the memory has reached the predetermined maximum pulse width value and alert that the memory is inoperable based on the overload signal if the memory still fails a subsequent self-test. the WL control loop is configured to increase the WL pulse width of the memory, provide an overload signal indicating that the WL pulse width of the memory has reached the predetermined maximum pulse width value and alert that the memory is inoperable based on the overload signal if the memory still fails a subsequent self-test.
1. A work vehicle comprising a variable geometry supercharger with variable boost pressure, and a working device driven by pressure oil discharged from a working hydraulic pump, the work vehicle further comprising: a supercharger control device adapted to control the supercharger; a temperature detection device adapted to detect temperature of the supercharger control device; a main control device adapted to limit at least one of maximum rotational speed of an engine and maximum vehicle speed of the work vehicle in case the temperature of the supercharger control device is above a predetermined temperature as compared to case the temperature of the supercharger control device is below the predetermined temperature, and a heat exchanger adapted to cool refrigerant for the engine; characterized in further comprising a cooling fan adapted to generate cooling air of the heat exchanger; a hydraulic pump for a fan, the hydraulic pump being driven by the engine; and a hydraulic motor for a fan, the hydraulic motor (ll) being driven by pressure oil discharged from the hydraulic pump for a fan and being adapted to rotate the cooling fan, wherein in case the temperature of the supercharger control device is above a predetermined temperature, the main control device limits the maximum rotational speed of the engine between a lower limit and an upper limit, and maximum rotational speed of the cooling fan is maintained even if the maximum rotational speed of the engine is limited to the lower limit. a supercharger control device adapted to control the supercharger; a temperature detection device adapted to detect temperature of the supercharger control device; a main control device adapted to limit at least one of maximum rotational speed of an engine and maximum vehicle speed of the work vehicle in case the temperature of the supercharger control device is above a predetermined temperature as compared to case the temperature of the supercharger control device is below the predetermined temperature, and a heat exchanger adapted to cool refrigerant for the engine; characterized in further comprising a cooling fan adapted to generate cooling air of the heat exchanger; a hydraulic pump for a fan, the hydraulic pump being driven by the engine; and a hydraulic motor for a fan, the hydraulic motor (ll) being driven by pressure oil discharged from the hydraulic pump for a fan and being adapted to rotate the cooling fan, wherein in case the temperature of the supercharger control device is above a predetermined temperature, the main control device limits the maximum rotational speed of the engine between a lower limit and an upper limit, and maximum rotational speed of the cooling fan is maintained even if the maximum rotational speed of the engine is limited to the lower limit.
A method for operating a combustor, the method comprising: introducing fuel into a furnace configured to combust the fuel; introducing a mineral additive blend comprising (i) an aluminosilicate and/or aluminum containing compound and (ii) a functional mineral into the furnace, wherein the mineral additive blend comprises 70-98 % by weight of (i) and 2-30 % by weight of (ii), based on the total weight of the mineral additive blend; and heating at least a portion of the fuel and mineral additive blend; wherein the functional mineral is a magnesium containing mineral; and wherein in the furnace the elemental molar ratio (Si + K + Na + P):(Ca + Mg + Al) is no greater than 1.25. introducing fuel into a furnace configured to combust the fuel; introducing a mineral additive blend comprising (i) an aluminosilicate and/or aluminum containing compound and (ii) a functional mineral into the furnace, wherein the mineral additive blend comprises 70-98 % by weight of (i) and 2-30 % by weight of (ii), based on the total weight of the mineral additive blend; and heating at least a portion of the fuel and mineral additive blend; wherein the functional mineral is a magnesium containing mineral; and wherein in the furnace the elemental molar ratio (Si + K + Na + P):(Ca + Mg + Al) is no greater than 1.25.
Assembly for connecting to a high-voltage grid, having a plurality of single-phase transformers (2, 3, 4), each of which comprises a fluid-filled transformer tank, in which a core having at least one winding is arranged, wherein said windings of the single-phase transformers (2, 3, 4) are at least partly interconnected to constitute a neutral point, characterized in that the windings are interconnected by means of a neutral point conductor to constitute the neutral point, wherein the neutral point conductor is retained on a transformer tank in an insulated arrangement. wherein said windings of the single-phase transformers (2, 3, 4) are at least partly interconnected to constitute a neutral point, characterized in that the windings are interconnected by means of a neutral point conductor to constitute the neutral point, wherein the neutral point conductor is retained on a transformer tank in an insulated arrangement.
Method for determining a quantitative result CT parameter map (V-CT-QPK(t max)) in a region of interest of an object under examination, having the following steps: - acquiring a sequence (S CT) of quantitative input CT parameter maps (CT-QPK(t 1), CT-QPK(t 2)) for at least two predetermined points in time (t 1, t 2, t 3, t 4), wherein the sequence (S CT) was generated in a contrast-enhanced manner by spectral multiphase CT of the region of interest, - receiving a sequence (S MR) of MRI datasets (BD(t)) generated in a contrast-enhanced manner which has a higher temporal resolution compared to the sequence (S CT) of input CT parameter maps (CT-QPK(t 1), CT-QPK(t 2), CT-QPK(t 3), CT-QPK(t 4)), - determining a relation between the MRI image datasets (BD(t)) and the input CT parameter maps (CT-QPK(t 1), CT-QPK(t 2), CT-QPK(t 3), CT-QPK(t 4)), - determining the result CT parameter map (V-CT-QPK(t max)) based on the determined relation and the MRI image datasets (BD(t)) for at least one additional point in time (t max) which is different from the predetermined points in time (t 1, t 2, t 3, t 4). - acquiring a sequence (S CT) of quantitative input CT parameter maps (CT-QPK(t 1), CT-QPK(t 2)) for at least two predetermined points in time (t 1, t 2, t 3, t 4), wherein the sequence (S CT) was generated in a contrast-enhanced manner by spectral multiphase CT of the region of interest, - receiving a sequence (S MR) of MRI datasets (BD(t)) generated in a contrast-enhanced manner which has a higher temporal resolution compared to the sequence (S CT) of input CT parameter maps (CT-QPK(t 1), CT-QPK(t 2), CT-QPK(t 3), CT-QPK(t 4)), - determining a relation between the MRI image datasets (BD(t)) and the input CT parameter maps (CT-QPK(t 1), CT-QPK(t 2), CT-QPK(t 3), CT-QPK(t 4)), - determining the result CT parameter map (V-CT-QPK(t max)) based on the determined relation and the MRI image datasets (BD(t)) for at least one additional point in time (t max) which is different from the predetermined points in time (t 1, t 2, t 3, t 4).
A cooling pad for use in a non-invasive medical cooling process to cool at least one portion of the body of a person by means of a cooling fluid flowing through said cooling pad in use, comprising: - a bottom sheet and a top sheet of flexible and fluid-tight material; - an outer wall extending along the edges of the bottom and top sheets (10, 11); - an inlet opening for receiving a flow of fluid and an outlet opening for exiting a flow of fluid; - at least one inner wall extending within the outer wall, wherein said inner wall is arranged such that a continuous flow channel for conveying fluid in a flow direction from the inlet opening to the outlet opening is formed between the outer wall, the inner wall and the bottom and top sheets (10, 11), and; - a plurality of flow guides, each flow guide for guiding a portion of a flow of fluid in the flow channel towards one of the inner wall or outer wall, wherein each flow guide comprises a first end and a second end, wherein the flow guides are arranged on opposite sides of a centre axis extending through the flow channel and wherein each flow guide is arranged in the flow channel such that the second end is directed towards one of the inner wall or the outer wall of the flow channel and such that the second end is arranged downstream of the first end with respect to the flow direction characterised in that each flow guide is an elongate straight element and each flow guide forms an acute angle with the centre axis extending through the flow channel to allow a homogenous fluid flow across the flow channel. - a bottom sheet and a top sheet of flexible and fluid-tight material; - an outer wall extending along the edges of the bottom and top sheets (10, 11); - an inlet opening for receiving a flow of fluid and an outlet opening for exiting a flow of fluid; - at least one inner wall extending within the outer wall, wherein said inner wall is arranged such that a continuous flow channel for conveying fluid in a flow direction from the inlet opening to the outlet opening is formed between the outer wall, the inner wall and the bottom and top sheets (10, 11), and; - a plurality of flow guides, each flow guide for guiding a portion of a flow of fluid in the flow channel towards one of the inner wall or outer wall, wherein each flow guide comprises a first end and a second end, wherein the flow guides are arranged on opposite sides of a centre axis extending through the flow channel and wherein each flow guide is arranged in the flow channel such that the second end is directed towards one of the inner wall or the outer wall of the flow channel and such that the second end is arranged downstream of the first end with respect to the flow direction characterised in that each flow guide is an elongate straight element and each flow guide forms an acute angle with the centre axis extending through the flow channel to allow a homogenous fluid flow across the flow channel.
A composition comprising: (i) a rigid thermoplastic resin comprising structural units derived from a (C 1 -C 12)alkyl (meth)acrylate monomer, and optionally a second monomer selected from the group consisting of a vinyl aromatic monomer, a monoethylenically unsaturated nitrile monomer and mixtures thereof, and (ii) a fluoropolymer additive comprising 30 wt.% to 70 wt.% of a fluoropolymer and 70 wt.% to 30 wt.% of a carrier polymer comprising structural units derived from a vinyl aromatic monomer, a monoethylenically unsaturated nitrile monomer, or mixtures thereof, wherein the amount of fluoropolymers present in the composition is in a range of 2 parts by weight to 25 parts by weight based on 100 parts by weight of the composition, and wherein the composition is free of both any rubber component and any filler, (i) a rigid thermoplastic resin comprising structural units derived from a (C 1 -C 12)alkyl (meth)acrylate monomer, and optionally a second monomer selected from the group consisting of a vinyl aromatic monomer, a monoethylenically unsaturated nitrile monomer and mixtures thereof, and (ii) a fluoropolymer additive comprising 30 wt.% to 70 wt.% of a fluoropolymer and 70 wt.% to 30 wt.% of a carrier polymer comprising structural units derived from a vinyl aromatic monomer, a monoethylenically unsaturated nitrile monomer, or mixtures thereof, wherein the amount of fluoropolymers present in the composition is in a range of 2 parts by weight to 25 parts by weight based on 100 parts by weight of the composition, and wherein the composition is free of both any rubber component and any filler,