A mixing method using a manufacturing apparatus comprising a mixing machine comprising a support defining a receiving housing having a first receiving location configured to receive a first deformable capsule and a second receiving location configured to receive a second deformable capsule, the first and second capsules fluidly linked and respectively containing a first formulation and a second formulation, the mixing machine comprising an actuation system comprising a first actuation member configured to transmit a pressure force on the first capsule and of a second actuation member configured to transmit a pressure force on the second capsule, the actuation members alternately exerting their force along a respective actuation stroke, the apparatus comprising a heater element for heating at least one of the capsules when received in the mixing machine, the method comprises a preparation phase comprising, successively: setting in motion the second actuation member; setting in motion the first actuation member, along a stroke lower than its actuation stroke; and heating by of the heater element.

A mixing machine comprising: a support defining a receiving housing, the receiving housing comprising a first receiving location configured to receive a first deformable capsule and a second receiving location configured to receive a second deformable capsule, the first and second capsules being intended to be fluidly linked to each other and containing respectively a first formulation and a second formulation, an actuation system movable relative to the support along a nominal stroke, inside the receiving housing,
wherein the actuation system comprises a spring able to be compressed when the actuation system reaches the end of the nominal stroke.

A mixing machine, configured to receive a receiving device in order to form a manufacturing apparatus, the mixing machine comprising: a support defining a receiving housing, able to receive a first capsule and a second capsule both deformable and intended to be fluidly linked to each other, the first and second capsules containing respectively a first formulation and a second formulation, an actuation system, movable in rotation back-and-forth about a pivot axis, a cam movable in rotation along a cam axis of rotation not parallel to the actuation axis of rotation, the cam comprising a drive finger,
wherein the actuation system comprises a drive groove configured to receive said drive finger, so that the rotation of the cam causes a back-and-forth motion of the actuation system, wherein the link between the drive finger and the drive groove comprises a ball joint.

A receiving device for forming a mixing machine when the receiving device is inserted into a manufacturing apparatus, the receiving device includes: a first receiving location configured to receive a first capsule containing a first formulation, a second receiving location configured to receive a second capsule containing a second formulation, the two capsules configured to be fluidly linked to each other, a first actuation face, a second actuation face, opposite to the first actuation face, a heater element configured to heat at least one of capsules when the receiving device equipped with the capsules is received in the mixing machine, a first electrical contact track for the power supply to the heater element, located on a first connection face of the receiving device, and a second contact track for the power supply to the heater element, located on a second connection face of the receiving device.

The present invention relates to a mixing machine configured to receive a receiving device in order to form a manufacturing apparatus, the mixing machine comprising: a support defining a receiving housing, able to receive a receiving device, the receiving device being configured to receive first and second capsules containing respectively a first formulation and a second formulation, the two capsules being fluidly linked to each other, an actuation system, movable inside the receiving housing to exert a pressure force on the receiving device and/or on the first and/or the second capsule(s), a retention mechanism, movable relative to the support and configured: in an insertion position, to authorize the insertion and the withdrawal of the receiving device into/from the receiving housing, and in a retention position, to block the withdrawal of the receiving device from the receiving housing.

A receiving device for forming a mixing machine when the receiving device is inserted into a manufacturing apparatus, includes: a first receiving location configured to receive a first capsule containing a first formulation, a second receiving location configured to receive a second capsule containing a second formulation, the two capsules configured to be fluidly linked to each other, a first actuation face of the receiving device, authorizing a transfer of a pressure force on the first capsule, the first actuation face having a first protective shell, a second actuation face of the receiving device, opposite to the first face, authorizing a transfer of a pressure force on the second capsule, the second actuation face having a second protective shell, and a flap opening outwardly of the receiving device and extending between the two receiving locations, to authorizes insertion of the capsules separately and extraction of the capsules jointly.

Disclosed is an apparatus and method for providing asymmetric oscillations to a container. The container may include a fluid, a particle, and/or a gas. A vibration driver attached to the container provides asymmetric oscillations. A controller connected to the vibration driver controls an amplitude, frequency, and shape of the asymmetric oscillations. An amplifier amplifies the asymmetric oscillations in response to the controller. A sensor disposed on the vibration driver provides feedback to the controller.

A paddle for agitating a plating solution by reciprocating parallel to a surface of a substrate is disclosed. The paddle includes a plurality of vertically-extending agitation rods. Each agitation rod includes: a planar portion perpendicular to a reciprocating direction of the paddle; two slope surfaces extending from side ends of the planar portion in directions closer to each other, the two slope surfaces being symmetric with respect to a center line of the agitation rod, the center line being perpendicular to the planar portion; and a tip portion connected with the two slope surfaces.

Provided are an enclosed stirrer using intermittent resonance and a method. The enclosed stirrer comprises: two pairs of parallel tension springs (1), a fixing bracket (2), an elastic cantilever beam (3), a cantilever beam pressure clamping device (6), an eccentric motor (4), an arc-shaped cushion block (5), and an enclosed container (8). The enclosed container (8) is mounted on the fixing bracket (2) by the tension spring (1). The elastic cantilever beam (3) is installed below the enclosed container (8) and is axially parallel to the enclosed container (8). One end of the elastic cantilever beam (3) is mounted on the fixing bracket (2) as a clamping end, the other end of the elastic cantilever beam (3) is connected to the eccentric motor (4) as a movable end. The arc-shaped cushion block (5) is connected above the eccentric motor (4). The arc-shaped cushion block (5) reciprocally strikes the bottom of the enclosed container (8) during operation of the eccentric motor (4).

An anti-agglomeration device for a nanofluid includes a support module, a motion module, a photoacoustic conversion module and a control module. The support module includes a frame and screws and is configured to support the photoacoustic conversion module and the motion module. The photoacoustic conversion module includes a nanosecond laser, a first clamp, a lens, a silica optical fiber, a second clamp, gold nanoparticles and a container and is configured to realize photoacoustic conversion to generate ultrasonic waves. The motion module includes a servo motor, a dovetailed rail, a guide screw, a fixed plate, a slider and a deep groove ball bearing. The motion module is configured to support the photoacoustic conversion module and realize the combined motions of the photoacoustic conversion module. The control module includes a support plate and a CCD camera and is configured to control the motion module in real time.