48results about How to "Efficiently agitated" patented technology

A fluid agitating plate fin is mounted to a heat exchanger tube to agitate a cooling fluid and to create a turbulent flow. Edges of the plate fins are opposed to each other and the opposed butted blade edges cross each other.

A liquid ejection apparatus which ejects liquid toward a prescribed medium is provided. The apparatus includes a liquid ejection head which has an ejection port ejecting liquid, and an energy application element applying energy to the liquid to be ejected from the ejection port; and a liquid receiving device which is opposite to the ejection port and receives the liquid ejected from the ejection port. The liquid received by the liquid receiving device forms a liquid pool between the liquid receiving device and the ejection port and the liquid is agitated by a driving device which applies a drive signal to the energy application element.

A developing device including a development part for developing latent images to toner images. The developing device also includes an agitation part that agitates developer, and a controller, which controls an agitation strength of an agitator in the agitation part. The developer circulates between the development part and the agitation part.

A cooking apparatus to effectively agitate and evenly distribute high-temperature air into a cooking chamber by use of a single driving fan and a plurality of driven fans. The cooking apparatus includes the cooking chamber, the driving fan arranged at a rear wall of the cooking chamber, a convection heater to surround the driving fan, the plurality of driven fans arranged on a circumference of the driving fan, and a fan cover having a plurality of suction holes and discharge holes. The driving fan is connected with a drive motor to rotate in accordance with an operation of the drive motor. The driven fans rotate by use of air streams generated when the driving fan rotates. The high-temperature air is evenly agitated in accordance with the rotation of the driven fans to be distributed into the cooking chamber via the discharge holes in all directions.

A universal fluid exchange device includes upper and lower reaction vessel supports which include pressure sealed injection and evacuation ports for each supported reaction vessel. Reaction vessels matingly engage through the injection and evacuation ports with fittings which are connected through flexible tubing to respective supplying and receiving vessels. The reaction vessels or fittings are moved into position, as required, so that reactants may be directly supplied from supplying vessels in the order and amount desired without operation of valves that can become contaminated, and so that the reaction vessels may dispel their contents into the appropriate receiving vessels. The system may be highly advantageous in applications such as combinatorial chemistry where myriad combinations of chemicals, solvents and reagents are employed.

A rotatable agitator tool is disclosed for use with a pump mechanism, for agitating production fluid comprising sand or other debris and for breaking out solution gas, comprising an elongate shaft connected to a rotating element such as a rotor, and a plurality of agitation members extending outwardly from the elongate shaft, the agitator tool extending in an upstream direction from the pump mechanism. The agitation members are preferably flexible to allow the agitator tool to be pushed and pulled through a stator (where employed with a progressive cavity pump) without damaging the elastomeric coating on the stator.

The liquid ejection apparatus includes: a liquid ejection head which has an ejection port ejecting liquid, and an energy application element applying energy to the liquid to be ejected from the ejection port; a liquid receiving device which is opposite to the ejection port and receives the liquid ejected from the ejection port, the liquid received by the liquid receiving device forming a liquid pool between the liquid receiving device and the ejection port; and a driving device which applies a drive signal to the energy application element in a state where the liquid pool has been formed, so as to agitate the liquid at least in a vicinity of the ejection port.

A free ink roller ball pen for dispensing low viscosity inks containing pigments that are prone to sedimentation. The instrument contains an ink reservoir chamber, a nib chamber provided with a roller ball socket assembly, a pressure equalization overflow chamber for the low viscosity ink, and a special agitation system for the ink reservoir and nib chamber. The agitation system comprises a weight, with a cross section smaller than the interior of the nib chamber, connected to a wire having a diameter smaller than the back inner diameter of the ball socket assembly. The length of the weight and its confinement are selected to provide for a predetermined stroke, on shaking the pen, that sweeps out the internal space of the nib and also the back of the roller ball assembly, to re-disperse any pigment that has precipitated.

An induction heating apparatus heats content efficiently while measuring a temperature of the heated content accurately. The induction heating apparatus includes a can holder, a heating coil disposed around the can holder, and a temperature measuring unit. A resealable metal beverage can having a thread formed on a neck portion and a cap screwed onto the neck portion is held by the can holder. The can holder holds the metal beverage can in a manner such that the cap of the can inserted thereto is exposed on an axially upper side. The temperature measuring unit measures a surface temperature of the cap of the metal beverage can held in the can holder.

A method for restoration of a metallic coating (2) of a component (1), in which the coating includes a consumed portion (3, 4), includesa. identifying the consumed portion (3, 4) as a function of the location on the component (1);b. removing at least the consumed portion (3, 4) as a function of the location as identified in step a.;c. applying new metallic coating (7) in a manner at least compensating for the coating removed in step b.; andd. optionally verifying the quality of the restored metallic coating (2).

The liquid ejection apparatus includes: a liquid ejection head which has an ejection port ejecting liquid, and an energy application element applying energy to the liquid to be ejected from the ejection port; and a driving device which applies a drive signal having a frequency changing with time to the energy application element so as to agitate the liquid in the liquid ejection head.

A cooking apparatus to effectively agitate and evenly distribute high-temperature air into a cooking chamber by use of a single driving fan and a plurality of driven fans. The cooking apparatus includes the cooking chamber, the driving fan arranged at a rear wall of the cooking chamber, a convection heater to surround the driving fan, the plurality of driven fans arranged on a circumference of the driving fan, and a fan cover having a plurality of suction holes and discharge holes. The driving fan is connected with a drive motor to rotate in accordance with an operation of the drive motor. The driven fans rotate by use of air streams generated when the driving fan rotates. The high-temperature air is evenly agitated in accordance with the rotation of the driven fans to be distributed into the cooking chamber via the discharge holes in all directions.

The present disclosure relates to the treatment of agitation or signs of agitation in certain human subjects, including subjects with a neurodegenerative, neuropsychiatric or opioid withdrawal disorder, by administering dexmedetomidine hydrochloride by the intravenous route.

A method for preparing a sample solution, which is a step preceding a process for separating and purifying a nucleic acid by extracting a nucleic acid from the sample solution, the method comprising: injecting a sample solution into a container for preparation; subjecting the sample solution to a treatment of agitation by shaking in which the sample solution is agitated by applying a light vibration to the container; and subjecting the sample solution to a treatment of agitation by pipetting in which the sample solution is agitated by pipetting the sample solution in the container.

A heat exchange tube is constructed by forming, on a cylindrical tube peripheral wall, a plurality of projecting portions which project to an inside of the tube peripheral wall, and which are formed by pushing. The plurality of projecting portions are formed, respectively, into conical shapes across a tube axis, and are arranged along virtual spirals on the tube peripheral wall. Accordingly, it is possible to provide a heat exchange tube which facilitates formation of a plurality of projecting portions with the thickness hardly changed and without formation of protruded portions, and which is capable of contributing to enhancement of heat exchanging efficiency.

There is provided a developer conveyance member that conveys a contained developer from one end side of a delivery region to other end of the delivery region while agitating the contained developer in a developer container, in which the developer is contained. Around a rotation shaft of the developer conveyance member, a spiral wing toward from one end side to other end side is formed. A plurality of paddle parts for conveying the developer in a direction that is perpendicular to a shaft core are formed around the rotation shaft in a delivery region. The paddle parts are arranged with their positions deviated in a circumferential direction.

Multiple piezoelectric elements 35 are arranged in a row along the top of liquid level in the reaction vessel 11. An ultrasonic reflecting material 38 is installed on the bottom of the portion of the heat insulating bath 12 where heat insulating medium 13 is stored. A lateral ultrasonic wave 9b is generated on the lower side is generated by actuation of the piezoelectric element 35. Wave 9b is reflected by the ultrasonic reflecting material 38. As a lower ultrasonic wave 8 advances along the wall surface of the reaction vessel, it collides with the specimen liquid level, thereby causing a portion of the liquid level closer to the piezoelectric element 35 to be raised. When the lateral ultrasonic wave 9a is applied to this portion, it reaches the inclined portion of the raised liquid level of the specimen. Swirling flow by agitation 36 is produced by the acoustic radiation pressure of the ultrasonic wave. The specimen and reagent are mixed and agitated by this swirling flow.

There is provided a developer conveyance member that conveys a contained developer from one end side of a delivery region to other end of the delivery region while agitating the contained developer in a developer container, in which the developer is contained. Around a rotation shaft of the developer conveyance member, a spiral wing toward from one end side to other end side is formed. A plurality of paddle parts for conveying the developer in a direction that is perpendicular to a shaft core are formed around the rotation shaft in a delivery region. The paddle parts are arranged with their positions deviated in a circumferential direction.

A method for obtaining a P type GaN compound semiconductor in a GaN compound semiconductor element. An N type GaN compound semiconductor layer is formed on a substrate. A GaN compound semiconductor layer to which a P type impurity is doped is formed on the N type GaN compound semiconductor layer. The GaN compound semiconductor layer to which the P type impurity is doped is irradiated with electromagnetic radiation of a predetermined wavelength to selectively agitate hydrogen bonds to dissociate H, and activate P type impurity as an acceptor.

An injection nozzle 21 for injecting a combustible gas into an annular combustion chamber 10 formed above a driving cylinder 4 is formed so as to face the interior of the combustion chamber 10, is which a rotary fan 24 for mixing a combustion gas supplied into the combustion chamber 10 and air is provided. A vortex generator 33 is formed in an upstream side of the injection nozzle 21 in an air flow formed in the combustion chamber 10 by the rotary fan. Vortexes are generated near the injection nozzle 21 in the combustion chamber 10 by the vortex generator 33, so that the mixing of the combustion gas and air is promoted.

A liquid-feeding pump that feeds liquid, which is sucked out from a liquid container, into an ejection nozzle is provided. In addition, a circulation pump that discharges the liquid, which is sucked out from the liquid container, to the liquid container is provided. Moreover, a decompression pump, which generates a pressure for operating the liquid-feeding pump, is used as a drive source of the circulation pump. Therefore, a driving mechanism for the circulation pump need not be additionally provided. Accordingly, it is possible to simplify a configuration of a liquid ejecting apparatus while being capable of agitating the inner portion of the liquid container by using the circulation pump.

A method for controlling a thick matter pump comprising two delivery cylinders (10) emerging, via two openings (12), into a material reservoir (14), associated with two delivery pistons (26), symmetrically synchronized relative to said cylinders, and a branch pipe 18 arranged inside the material reservoir (14), capable of being connected, on the input side, alternatively to one of the openings of the delivery cylinders with exposing of the other opening, the output side connected to a conveyance conduit (20). When the pumping is interrupted, thick matter, liquid concrete for example, is sucked up, via the delivery cylinder temporarily communicating with the reservoir, and is delivered, via the other cylinder (10), connected to the branch pipe (18), so as to form a column of thick matter through the delivery pipe (20), towards its output. In order to avoid problems of deposit, condensation and solidification, the invention is characterized in that the thick matter column is maintained, at least temporarily, in movement, when pumping is interrupted, in the delivery pipe (20) and / or the branch pipe (18) and / or the delivery cylinders (10), while not allowing the thick matter to escape from said delivery pipe (20) on the output side. The invention is further characterized in that, when the pumping is stopped, the thick matter in the matter reservoir is maintained in movement by the back and forth oscillation of the feeding pipe (18) and / or at least one stirrer (34).

A recording apparatus having a diaphragm valve disposed between an ink tank and a recording head, in which closing and opening the valve produces a flow of ink. The ink tank includes two independent connection ports adjacent to one end at the bottom and a structure being configured to restrict an upward flow of ink and being located above the connection ports. Restricting the upward flow allows a small amount of ink flowing in and out to produce an entire flow of ink within the ink tank. Therefore, variations in concentration caused by precipitation of ink can be reduced.