Present invention relates to a new soft/bag packaging mixing system and method that allows the mixing of materials contained in soft/bag packages and obtaining of a homogeneous mixture by utilizing the physical characteristics of said packages through applying different types of forces.

Method, system, and apparatus to facilitate mixing of at least one colour to achieve a desired colour consistency to perform one or more activities. Particularly, the present system includes multiple user devices, a cloud server, and a colour mixing dispensing apparatus. In operation, multiple user devices are accessible to a user via a user interface to input data by the user to select at least one colour coding parameter. The cloud server includes at least one memory adapted to store data for the at least one colour coding parameter in a colour database and at least one processor that is adapted to execute processor-executable code. In practice, the colour mixing dispensing apparatus is configured to provide instant colour mixing to the user by receiving a set of instructions from the cloud server via a communication network.

An automatic charging and mixing device for an ointment is provided, comprising a box body, and a platform provided with a rotating seat. The center of the rotating seat is provided with a through hole. The interior of the box body is provided with a stepping motor, and the stepping motor matches the through hole through a coupler. A plurality of feed ports and a plurality of material feeding assemblies are provided on the platform at intervals circumferentially with the through hole as the circle center. The material feeding assembly comprises a telescopic cylinder, a plunger pump, a limiting rod, and a lifting assembly. The device is used to prepare the ointment by placing all raw materials into a mixing drum in sequence according to a set time and sequence

Methods for handling bulk material in a manner that reduces dust, noise, and emissions are provided. The presently disclosed techniques use portable containers to transfer bulk material from a transportation unit to a blender inlet. The containers may be carried to the location on the transportation unit, where a hoisting mechanism is used to remove the container from the transportation unit and place it in a desired location. When bulk material is needed at the blender inlet, the hoisting mechanism may position the container of bulk material onto an elevated support structure. Once on the support structure, the container may be opened to release bulk material to a gravity feed outlet, which routes the bulk material from the container directly into the blender inlet. The disclosed containerized bulk material transfer system and method allows for reduced dust, noise, and emissions on location.

A hydrogen supply apparatus includes: an air path having an inlet and an outlet; a fan that is disposed in the air path and produces a flow of air from the inlet to the outlet; a first pipe having an end that forms a first supply port through which to supply hydrogen gas to the air path; a flow control device that is attached to the first pipe and adjusts a flow rate of the hydrogen gas; and a hydrogen gas sensor, disposed downstream of the fan or the end in a direction of flow of the air that detects a concentration of the hydrogen gas in the air path, where the end is disposed between the fan and the outlet or between the fan and the inlet in the air path.

An appliance for preparing animal feed, includes a housing, a mixing chamber designed to receive a portion of dehydrated feed and a liquid portion, mobile mixer arranged in the mixing chamber, a consumption chamber, wherein the mixing chamber is removable from the preparation appliance, wherein the mixing chamber, once mounted on the preparation appliance: is rotatable in order to pass from a position mixing the feed ration to a position dispensing the feed ration, and has a gripping portion which protrudes from the housing.

High accuracy mixing of fluids in a disposable fluid processing system with at least two pumps is provided by a method where a calibration fluid volume is pumped through each pump via a flow meter at at least one calibration pump speed while registering the flow rate using data output from the flow meter, a pump calibration function is calculated from the calibration pump speed and flow rate data and two or more operation fluids are mixed to a predetermined mixture ratio and predetermined flow rate by controlling the pump speed of the respective pumps in accordance with the pump calibration functions.

The present invention relates to a production module (1) for producing solid medicaments (22) in individual batches (37, 38, 39, 40), comprising a supplying device (2) for supplying powdered starting materials, a mixing device (3), which is connected to the feeding device (2) and is intended for working the supplied powdered starting materials into a product, a final working device (4), which is connected to the mixing device (3) and is intended for the final production of an end product from the worked starting materials, and a control device (5) for automatically controlling the supplying device (2) and the mixing device (3) and the final working device (4), characterized in that diverters (6, 7, 9, 12) allow a batch (37, 38, 39, 40) to be passed on from the supplying device (2) to the mixing device (3) and from the mixing device (3) to the final working device (4) without any backmixing, and in that data of all the process sensors and quality sensors of the production module (1) are linked with the respective batch (37, 38, 39, 40) by the control device (5), and in this way tracking and tracing of the batches is made possible.

Provided are a system for manufacturing dispersion liquid of carbon nanotubes and a method of manufacturing a dispersion liquid of carbon nanotubes using the same. The system includes; a mixing device supplied with solvent and carbon nanotubes, and storing a admixture of the solvent and the carbon nanotubes; a first dispersion device connected to the mixing device, performing a primary dispersion of the carbon nanotubes by an operation of a rotor and a stator, and then performing a secondary dispersion to form bent portions in the carbon nanotubes while discharging the carbon nanotubes through penetration holes of the stator; and a second dispersion device performing a tertiary dispersion of the carbon nanotubes to selectively cut the bent portions of the carbon nanotubes by irradiating a laser when the secondarily dispersed admixture recirculates to the mixing device.

The disclosure features a system that includes a plurality of material tanks, each of which includes at least one material for forming a chemical composition and includes a first recirculation loop; at least one mixing tank in which the materials from the material tanks are mixed to form a chemical composition, the mixing tank including a second recirculation loop; and at least one holding tank configured to continuously receive the chemical composition from the mixing tank, the holding tank including a third recirculation loop. The system may further include a plurality of fluid flow controller units and be configured to form material and chemical composition flows in an in-process steady state.