mhurhangee/ep-ind-claims huggingface dataset:
A solid-state imaging device comprising: a pixel section that has a plurality of pixels; a comparator (31, 200) that compares a pixel signal outputted from the pixels with a reference signal (Vslop, RAMP); and a counter that counts a time of comparison made by the comparator (31, 200), wherein the comparator includes a first amplifier (110, 210) that compares the pixel signal with the reference signal (Vslop, RAMP), a second amplifier (120, 220) that has a first transistor (PT121, NT221) and amplifies an output signal (1stcomp) of the first amplifier (110, 210), and a second transistor (PT150, NT230) that has the same polarity as the first transistor (PT121, NT221), a gate of the second transistor (PT150, NT230) is connected to an output node of the first amplifier (110, 210), and a source and a drain of the second transistor (PT150, NT230) are connected to the same potential (VDD, GND) as a source of the first transistor (PT121, NT221), wherein a gate of the first transistor (PT121, NT221) is connected to the output node of the first amplifier (110, 210). a pixel section that has a plurality of pixels; a comparator (31, 200) that compares a pixel signal outputted from the pixels with a reference signal (Vslop, RAMP); and a counter that counts a time of comparison made by the comparator (31, 200), wherein the comparator includes a first amplifier (110, 210) that compares the pixel signal with the reference signal (Vslop, RAMP), a second amplifier (120, 220) that has a first transistor (PT121, NT221) and amplifies an output signal (1stcomp) of the first amplifier (110, 210), and a second transistor (PT150, NT230) that has the same polarity as the first transistor (PT121, NT221), a gate of the second transistor (PT150, NT230) is connected to an output node of the first amplifier (110, 210), and a source and a drain of the second transistor (PT150, NT230) are connected to the same potential (VDD, GND) as a source of the first transistor (PT121, NT221), wherein a gate of the first transistor (PT121, NT221) is connected to the output node of the first amplifier (110, 210).
Process for preparing an edible fat slurry comprising 60-98% by weight (on the total slurry of oil and fat powder) of an edible oil phase and 2-40% by weight (on the total slurry of oil and fat powder) of fat powder, wherein the fat powder is a powder of a structuring fat, said process comprising the steps of: a) providing the fat powder in a mixing vessel; b) providing the oil phase in an oil vessel; c) reducing the pressure in the mixing vessel comprising the fat powder to a pressure of less than 0.3 bar; d) adding the required amount of oil phase from the oil vessel to the mixing vessel to provide a combined oil phase and fat powder of the above composition; e) mixing the combined oil phase and fat powder to a fat slurry, wherein the fat powder in step a) is provided to the mixing vessel by feeding the structuring fat in melted form to a nozzle, which nozzle is connected to the mixing vessel, and wherein the structuring fat in melted form is cooled to solidify so as to yield the fat powder, and wherein the step of reducing the pressure (step c) and adding the oil phase (step d) at least partially overlap. a) providing the fat powder in a mixing vessel; b) providing the oil phase in an oil vessel; c) reducing the pressure in the mixing vessel comprising the fat powder to a pressure of less than 0.3 bar; d) adding the required amount of oil phase from the oil vessel to the mixing vessel to provide a combined oil phase and fat powder of the above composition; e) mixing the combined oil phase and fat powder to a fat slurry, wherein the fat powder in step a) is provided to the mixing vessel by feeding the structuring fat in melted form to a nozzle, which nozzle is connected to the mixing vessel, and wherein the structuring fat in melted form is cooled to solidify so as to yield the fat powder, and wherein the step of reducing the pressure (step c) and adding the oil phase (step d) at least partially overlap.
A liquid foodstuff comprising a. a spirulina-extract comprising phycocyanin, b. at least one multi-sulphated carrageenan and c. a solvent, wherein the amount of multi-sulphated carrageenan is between 0.005 and 0.6 wt%, wherein the weight ratio between multi-sulphated carrageenan and phycocyanin ranges between 1.5:1 and 200:1, wherein the liquid foodstuff has a pH between 2.0 - 4.6, preferably 2.2 - 4.0, more preferably 2.3 - 3.6, most preferably 2.4 - 3.3, wherein the solvent consists of water and optionally ethanol, wherein the amount of solvent ranges between 75-99 wt%, wherein the wt% are relative to the total weight of the liquid foodstuff. a. a spirulina-extract comprising phycocyanin, b. at least one multi-sulphated carrageenan and c. a solvent, wherein the amount of multi-sulphated carrageenan is between 0.005 and 0.6 wt%, wherein the weight ratio between multi-sulphated carrageenan and phycocyanin ranges between 1.5:1 and 200:1, wherein the liquid foodstuff has a pH between 2.0 - 4.6, preferably 2.2 - 4.0, more preferably 2.3 - 3.6, most preferably 2.4 - 3.3, wherein the solvent consists of water and optionally ethanol, wherein the amount of solvent ranges between 75-99 wt%, wherein the wt% are relative to the total weight of the liquid foodstuff. wherein the amount of multi-sulphated carrageenan is between 0.005 and 0.6 wt%, wherein the weight ratio between multi-sulphated carrageenan and phycocyanin ranges between 1.5:1 and 200:1, wherein the liquid foodstuff has a pH between 2.0 - 4.6, preferably 2.2 - 4.0, more preferably 2.3 - 3.6, most preferably 2.4 - 3.3, wherein the solvent consists of water and optionally ethanol, wherein the amount of solvent ranges between 75-99 wt%, wherein the wt% are relative to the total weight of the liquid foodstuff.
Recoating unit for equipping or retrofitting a device for additive manufacturing of a three-dimensional object by selectively solidifying a building material, preferably a powder, layer by layer, wherein the device comprises a recoater movable across a build area for applying a layer (31b, 32b) of the building material within the build area and a solidification device for selectively solidifying the applied layer (31b, 32b) at positions corresponding to a cross-section of the object to be manufactured, and is formed and/or controlled to repeat the steps of applying and selectively solidifying until the object is completed, wherein the recoating unit comprises: at least two recoating rollers (41, 42) spaced apart from each other in a first direction and extending into a second direction transversely, preferably perpendicularly, to the first direction, and a compacting and/or smoothing element arranged between the two recoating rollers (41, 42) in the first direction and extending into the second direction, wherein a lower side of the compacting and/or smoothing element facing the build area is arranged closer to the build area than the lower sides of the two recoating rollers (41, 42) facing the build area, wherein the recoating unit is adapted to: draw-out building material to a regular layer (31a, 32a), depending on the movement of the recoating unit into the first direction or into its reverse direction, using the recoating roller (41, 42) arranged ahead in the respective moving direction (B1, B2), and compact or smoothen the layer (31a, 32a) drawn-out by the recoating roller (41, 42) arranged ahead using the compacting and/or smoothing element. at least two recoating rollers (41, 42) spaced apart from each other in a first direction and extending into a second direction transversely, preferably perpendicularly, to the first direction, and a compacting and/or smoothing element arranged between the two recoating rollers (41, 42) in the first direction and extending into the second direction, wherein a lower side of the compacting and/or smoothing element facing the build area is arranged closer to the build area than the lower sides of the two recoating rollers (41, 42) facing the build area, wherein the recoating unit is adapted to: draw-out building material to a regular layer (31a, 32a), depending on the movement of the recoating unit into the first direction or into its reverse direction, using the recoating roller (41, 42) arranged ahead in the respective moving direction (B1, B2), and compact or smoothen the layer (31a, 32a) drawn-out by the recoating roller (41, 42) arranged ahead using the compacting and/or smoothing element. draw-out building material to a regular layer (31a, 32a), depending on the movement of the recoating unit into the first direction or into its reverse direction, using the recoating roller (41, 42) arranged ahead in the respective moving direction (B1, B2), and compact or smoothen the layer (31a, 32a) drawn-out by the recoating roller (41, 42) arranged ahead using the compacting and/or smoothing element.
A rechargeable battery jump starting device, the rechargeable battery jump starting device comprising: a first 12V battery; a second 12V battery; an electrical control switch electrically connected to the first 12V battery and the second 12V battery, the electrical control switch having a parallel switch position for connecting the first 12V battery and the second 12V battery in parallel, the electrical control switch having a series switch position for connecting the first 12V battery and the second 12V battery in series; characterized by the rechargeable jump starting device having a leapfrog charging system and comprising a leapfrog charger (710A,B) connected to the first 12V battery and the second 12V battery, the leapfrog charger (710A,B) is configured for sequentially partially charging the first 12V battery and the second 12V battery in a back-and-forth sequence based upon a voltage increase increment of the first 12V battery and the second 12V battery until the first 12V battery and the second 12V battery are fully charged. a first 12V battery; a second 12V battery; an electrical control switch electrically connected to the first 12V battery and the second 12V battery, the electrical control switch having a parallel switch position for connecting the first 12V battery and the second 12V battery in parallel, the electrical control switch having a series switch position for connecting the first 12V battery and the second 12V battery in series; characterized by the rechargeable jump starting device having a leapfrog charging system and comprising a leapfrog charger (710A,B) connected to the first 12V battery and the second 12V battery, the leapfrog charger (710A,B) is configured for sequentially partially charging the first 12V battery and the second 12V battery in a back-and-forth sequence based upon a voltage increase increment of the first 12V battery and the second 12V battery until the first 12V battery and the second 12V battery are fully charged.
Medicine packaging system, comprising: - a packaging station; - at least one medicine collection system (10; 20; 30) with an exit opening; - transporting means (4; 43) with at least one receptacle, moveable by the transporting means (4; 43; 54) along the exit opening of the at least one medicine collection system (10; 20; 30) and towards the packaging station, wherein the at least one receptacle is slidably arranged in the transporting means (4; 43; 54); - a controller; and - blocking means, controllable by the controller, adjacent to the transporting means (4; 43) and to the at least one medicine collection system (10; 20; 30), for blocking the movement of the receptacle on the transporting means (4; 43) to keep the receptacle registered with the exit opening while moving the transporting means (4; 43) characterized in that a diaphragm shutter is arranged in the bottom of the receptacle. - a packaging station; - at least one medicine collection system (10; 20; 30) with an exit opening; - transporting means (4; 43) with at least one receptacle, moveable by the transporting means (4; 43; 54) along the exit opening of the at least one medicine collection system (10; 20; 30) and towards the packaging station, wherein the at least one receptacle is slidably arranged in the transporting means (4; 43; 54); - a controller; and - blocking means, controllable by the controller, adjacent to the transporting means (4; 43) and to the at least one medicine collection system (10; 20; 30), for blocking the movement of the receptacle on the transporting means (4; 43) to keep the receptacle registered with the exit opening while moving the transporting means (4; 43) characterized in that a diaphragm shutter is arranged in the bottom of the receptacle.
Stabiliser device for wheelchairs equipped with shock absorbers including one or more base plates constituting the load-bearing structure of the wheelchair, on said base plate is hinged a first end of at least one arm, whose second end of this arm supports a wheel of this wheelchair, in an intermediate position between said first end and said second end of the arm is there a protruding pin that can slide, moving within a slot in the load-bearing structure or in the base plate, where the movement of the arm that supports the wheel countered by an actuator, probably a shock absorber, and also said movement of the pin is defined and delimited in its travel within the ends (9, 10) of said slot, characterised by the fact that finally said movement is limited since the gap of the slot is restricted by a latch of a locking plate hinged on said load-bearing structure or on said base plate and made to rotate by the kinematics for lifting the position of the seat and/or by the kinematics for verticalising the wheelchair.
Apparatus for cytological and/or medical applications, wherein the apparatus has at least one surface that, at least in part, has a surface structure (11, 12, 13) produced by electromagnetic radiation, said surface structure having a microstructure on which a nanostructure is overlaid, characterized in that the surface has at least two regions (11, 12, 13) with different surface structuring, wherein at least one of the regions (11, 12, 13) is optimized for laying-in substances, in particular nutrients, growth substances or interleukins, for a cell or bacteria culture.
Multistage process for recovering energy from water vapour-containing vapours, in particular baking vapours, from vapour-liberating installations, in particular baking installations, and exhaust gases of at least one burner of such installations, comprising the steps - introduction of the vapours S into at least one condensation space to form a vapour condensate SK having the temperature T SK1; - introduction of the vapour condensate SK leaving the first condensation space into at least one first heat exchange installation with cooling of the vapour condensate SK to a temperature T SK2; - spraying of at least part of the cooled vapour condensate SK having the temperature T SK2 into at least one quench cooler and quenching of exhaust gases A having a temperature T A introduced into the at least one quench cooler to the dew point temperature TP A; wherein the vapour condensate mixed with the exhaust gas is vaporized and the exhaust gas is cooled at the same time; - introduction of the exhaust gases A which have been cooled in the at least one quench cooler to the dew point temperature TP A and have been mixed with the vaporized vapor condensate into a second condensation space to form an exhaust gas condensate AK having the temperature T AK1, and - introduction of the exhaust gas condensate having the temperature T AK1 leaving the second condensation space into at least one second heat exchange installation with cooling of the exhaust gas condensate AK to a temperature T AK2. - introduction of the vapours S into at least one condensation space to form a vapour condensate SK having the temperature T SK1; - introduction of the vapour condensate SK leaving the first condensation space into at least one first heat exchange installation with cooling of the vapour condensate SK to a temperature T SK2; - spraying of at least part of the cooled vapour condensate SK having the temperature T SK2 into at least one quench cooler and quenching of exhaust gases A having a temperature T A introduced into the at least one quench cooler to the dew point temperature TP A; wherein the vapour condensate mixed with the exhaust gas is vaporized and the exhaust gas is cooled at the same time; - introduction of the exhaust gases A which have been cooled in the at least one quench cooler to the dew point temperature TP A and have been mixed with the vaporized vapor condensate into a second condensation space to form an exhaust gas condensate AK having the temperature T AK1, and - introduction of the exhaust gas condensate having the temperature T AK1 leaving the second condensation space into at least one second heat exchange installation with cooling of the exhaust gas condensate AK to a temperature T AK2.
A bearing device for a roll of a hot dipping bath, in a continuous hot dip coating line comprising: a sleeve fastened to a shaft of the roll of the hot dipping bath; a bush housing having a bush internally fixed to support the sleeve, and a curved annular outer surface; bush housing fixed rings fixed to both inner sides of a fixed ring housing which is associated with a rig of the hot dipping bath roll, each of the bush housing fixed rings having a curved annular inner surface supporting the bush housing at both sides thereof and in abutment with the curved annular outer surface of the bush housing; and, a fixed pin inserted through the fixed ring housing and into a pin hole formed in a central portion of the outer surface of the bush housing to prevent wear resulting from rotation of the bush housing, wherein the bush has dents formed in an inner surface thereof to form a lubricant film for the sleeve. a sleeve fastened to a shaft of the roll of the hot dipping bath; a bush housing having a bush internally fixed to support the sleeve, and a curved annular outer surface; bush housing fixed rings fixed to both inner sides of a fixed ring housing which is associated with a rig of the hot dipping bath roll, each of the bush housing fixed rings having a curved annular inner surface supporting the bush housing at both sides thereof and in abutment with the curved annular outer surface of the bush housing; and, a fixed pin inserted through the fixed ring housing and into a pin hole formed in a central portion of the outer surface of the bush housing to prevent wear resulting from rotation of the bush housing, wherein the bush has dents formed in an inner surface thereof to form a lubricant film for the sleeve.
An air conditioner control system comprising: a plurality of air conditioners comprising outdoor units (1a,1b) and indoor units (2a,2b); a plurality of central remote controllers (5a,5b) for handling operation of the air conditioners and for collecting operation information of the air conditioners; first and second facility devices (33a,33b) placed together with the air conditioners; a third facility device to be added and placed after installation of the air conditioner control system; and a facility management device, connected to the central remote controllers (5a,5b) through a branch means, for controlling operation of the third facility device; characterized in that the facility management device is arranged to transmit to the air conditioner a request to monitor the first facility device through the central remote controllers (5a,5b) based on facility device control procedure stored in the facility management device, and to control the operation of the second facility device, the third facility device, and the air conditioners according to a state of the first facility device informed from the air conditioner. a plurality of air conditioners comprising outdoor units (1a,1b) and indoor units (2a,2b); a plurality of central remote controllers (5a,5b) for handling operation of the air conditioners and for collecting operation information of the air conditioners; first and second facility devices (33a,33b) placed together with the air conditioners; a third facility device to be added and placed after installation of the air conditioner control system; and a facility management device, connected to the central remote controllers (5a,5b) through a branch means, for controlling operation of the third facility device;
A method for producing a sulphided copper sorbent, comprising the steps of: (i) contacting a sorbent precursor material containing one or more sulphidable copper compounds, with a sulphiding gas stream comprising hydrogen sulphide and an inert gas selected from nitrogen, argon, helium, carbon dioxide, methane, and mixtures thereof to form a sulphided sulphur-containing sorbent material, and (ii) subjecting the sulphided sulphur-containing sorbent material to a heating step in which it is heated to a temperature above that used in the sulphiding step and ≥ 110 °C, under an inert gas selected from nitrogen, argon, helium, carbon dioxide, methane, and mixtures thereof, or an inert gas selected from nitrogen, argon, helium, carbon dioxide, methane, and mixtures thereof, further comprising hydrogen sulphide. (i) contacting a sorbent precursor material containing one or more sulphidable copper compounds, with a sulphiding gas stream comprising hydrogen sulphide and an inert gas selected from nitrogen, argon, helium, carbon dioxide, methane, and mixtures thereof to form a sulphided sulphur-containing sorbent material, and (ii) subjecting the sulphided sulphur-containing sorbent material to a heating step in which it is heated to a temperature above that used in the sulphiding step and ≥ 110 °C, under an inert gas selected from nitrogen, argon, helium, carbon dioxide, methane, and mixtures thereof, or an inert gas selected from nitrogen, argon, helium, carbon dioxide, methane, and mixtures thereof, further comprising hydrogen sulphide.
A seal assembly comprising: a sealing element having an inside flange with a sealing lip, an outside flange with a sealing lip, and a center channel section defining a spring cavity, said outside flange extending in a first direction a longer distance than said inside flange; a V-spring located in the spring cavity, said V-spring comprising a plurality of V-bodies and wherein each V-body comprises a long leg extending in the first direction a longer distance than a short leg; wherein said short leg has a terminal end edge and wherein said short leg is biased against an inside surface of said inside flange; Characterized in that wherein said short leg has a bend and said bend forming a terminal end section having a different profile than a base section of the short leg; and wherein the terminal end section is pressed against the inside surface of the inside flange at a single point to form a point contact or a reduced line contact that is less than 25% of the inside surface of the inside flange. a sealing element having an inside flange with a sealing lip, an outside flange with a sealing lip, and a center channel section defining a spring cavity, said outside flange extending in a first direction a longer distance than said inside flange; a V-spring located in the spring cavity, said V-spring comprising a plurality of V-bodies and wherein each V-body comprises a long leg extending in the first direction a longer distance than a short leg; wherein said short leg has a terminal end edge and wherein said short leg is biased against an inside surface of said inside flange; Characterized in that wherein said short leg has a bend and said bend forming a terminal end section having a different profile than a base section of the short leg; and wherein the terminal end section is pressed against the inside surface of the inside flange at a single point to form a point contact or a reduced line contact that is less than 25% of the inside surface of the inside flange.