A beauty care system is provided. The beauty care system includes a communication module for establishing a communication link with a user terminal; and a beauty-care-solution-mixing control module for receiving control information from the user terminal over the communication link and performing a beauty-care operation on a target object based on the control information from the user terminal. The control information is determined based on at least one of information of an electronic tag of a cosmetic capsule and characteristic information of the target object.

Provided is a fine bubble supply device and a fine bubble analyzing system capable of more stably supplying fine bubbles unstable in a liquid.

A fine bubble generating device generates fine bubbles. A retention vessel stores a liquid therein, and an inlet pipe and an outlet pipe of the fine bubbles are connected to the retention vessel. The fine bubbles generated from the fine bubble generating device are introduced into the liquid in the retention vessel through the inlet pipe to be retained in the liquid. The fine bubbles retained in the liquid are led out to a supply destination (fine bubble characteristic evaluation device) through the outlet pipe.

A wireless sensor measures properties of a substance and transmits the properties to a remote wireless receiver. The wireless sensor can be fully enclosed within a container containing the substance, allowing remote monitoring of the properties of the substance without compromising integrity of a closed system.

A laboratory device, in particular for shaking and/or mixing substances, comprises a base unit, that comprises a drive apparatus, and a pivot unit, that is pivotably connected to the base unit by means of a bearing element about axes oriented perpendicular to a central axis of the base unit. The drive apparatus comprises an arrangement of magnetic elements at an inner side of a roll-off surface of the base unit and a control apparatus that is configured to control the arrangement of magnetic elements for generating a peripheral magnetic field along a closed path at an outer side of the roll-off surface to drive the roll-off section of the pivot unit by means of magnetic attraction and/or repulsion to make a rolling-off along said path.

The present invention relates to a portable liquid mixing device capable of mixing different types of various liquids, and the different types of various liquids may include various beverages. The present invention includes a plurality of containers configured to contain respective specific liquids, a selection unit configured to select any one of the plurality of containers, a control unit configured to control the introduction of a selected liquid into a mixing container, and a mixing unit configured to mix various liquids introduced into the mixing container. According to the present invention, different types of liquids may be mixed together. In particular, beverages having various flavors are put into respective containers, mixed together and then drunk. Furthermore, a scale is marked on the surface of the mixing container, and thus the amount of liquid may be accurately measured, so that liquids may be mixed at an accurate ratio.

Disclosed are a system for pretreatment of sample and a method for controlling the same. The system for pretreatment of sample, including: a holder storage unit having a module holder on which a sample pretreatment module is seated; a cartridge accommodating portion for loading a cartridge therein, wherein the sample accommodated in a chamber of the sample pretreatment module is discharged and loaded into the cartridge; a magnetic force generating unit for generating a magnetic force to rotate the permanent magnet provided in the sample pretreatment module; and a penetration and discharge unit for penetrating the penetration membrane in the sample pretreatment module and discharging the sample by pressing the moving unit of the cap.

A heat exchange module for use in a chemical, pharmaceutical or biological reactor system includes a generally hollow body having an interior space for receiving a replaceable or single use reactant container, and at least one thermally conductive surface adapted to contact the replaceable reactant container to facilitate heat transfer, a fluid circulation path formed within the body between an outer wall of the body and an inner wall of the body through which a heat exchange fluid can be circulated, and at least one baffle protruding from the inner wall of the body into the interior space.

Disclosed are a sample pretreatment module and a sample pretreatment method using the same. The sample pretreatment module including: a body having a chamber for accommodating a sample therein; a cap coupled to one end of the body; a dotting substrate provided to have at least some portion of it dotted with the reagent and be inserted into the chamber; a discharge tip movably coupled to the other end of the body for discharging a sample accommodated in the chamber; a permanent magnet provided to be inserted in the chamber and mix the sample by rotating owing to a magnetic force acting in accordance with a change in a magnetic field externally applied; and a moving unit movably provided in the cap and pressing the sample in the chamber according to the movement to discharge the sample to the outside.

The invention relates to an additive manufacturing device for the layered production of three-dimensional objects from a polymerizable liquid. The device comprises a trough with a bottom for receiving the liquid, a support platform, on which the object is built up and which is height-adjustable relative to the trough, a structural element having a first and a second side, on which the liquid polymerizes on the first side to form an object layer, and a radiation source which irradiates the second side of the beam-permeable structural element. The structural element is disposed above the upper support platform.

A method of using magnetic influence on flow streams of liquids and gases to over excite their atoms, break existing molecular bonds, and from two oppositely charged flow streams cause immediate and permanent bonding of oppositely charged ions to create a new molecular composition. While magnetic influence is predominately responsible for the molecular reorganization produced, induced turbulence disrupts a tendency for laminar flow in the flow streams, creating more chaotic movement and molecule collisions in liquids/gases used and a more complete result. Mixing of the two oppositely charged flow streams is preferred via a venturi. Magnetic influence on flow streams can be applied more than once. Using this method with water having a molecular composition of H.sub.2O in a primary flow stream and ozone gas in a secondary flow stream, and mixing of the oppositely charged flow streams using a venturi, a new molecular composition of H.sub.2O.sub.5 can be created.