Methods and systems for filling a muffler body with a fibrous material prior to completing assembly of the muffler body are disclosed. The muffler body is composed of two half shells and the fibrous material is injected between the shells by a filling nozzle.

A pipe for the aeraulic transport of a loose-fill insulation product for a machine for blowing the insulating product, the pipe extending along a longitudinal main elongation direction and including at least one cylindrical wall which delimits a space configured for the circulation at least of the loose-fill insulating product, wherein, in the pipe, the cylindrical wall includes a plurality of sections, at least two of the sections each including at least one evacuation orifice so as to form at least two perforated sections, the pipe including at least two shutoff devices that are movable in translation along the longitudinal direction about the cylindrical wall, each of the shutoff devices being able to cover specifically one of the perforated sections.

Methods and systems for filling a muffler body with a fibrous material prior to completing assembly of the muffler body are disclosed.

Methods and systems for filling a muffler body with a fibrous material prior to completing assembly of the muffler body are disclosed. The muffler body is composed of two half shells and the fibrous material is injected between the shells by a filling nozzle.

Methods and systems for filling a muffler body with a fibrous material prior to completing assembly of the muffler body are disclosed.

A confluent system includes an internal venturi; an open hopper in gaseous communication with the internal venturi, the open hopper being configured to receive solid large particles; and a fluid bed in gaseous communication with the internal venturi. The method includes a set of coatings and composite structures formed from a portion of the solid large particles applied to workpieces by gas-supported transfer then fused together by heating that comprise large-scale variations in structure provided by the inclusion of particles that are larger in at least one dimension than conventional powder coating particles.

Provided is a flocking processing device which includes: a processing unit, and injector is installed around the processing object to inject the fibers; a dust collection unit having an inlet; a supply unit; a separation unit scattering the fibers while passing through the filter installed on an outer surface of a separation tank; and a distribution unit in which distribution members is installed below partitioned distribution pipes in the lower portion of the collection tank. Air is input into the respective distribution members to evenly supply the fibers to the injectors.

A hot melt adhesive supply system includes a container configured to receive a supply of unmelted hot melt adhesive pieces, and an agitation device configured to agitate the supply of hot melt adhesive pieces situated in the container. The hot melt adhesive supply system further includes a transfer conduit configured to communicate hot melt adhesive pieces from the container to a hot melt adhesive melter.

A method for preparing an insulating product based on wool includes an aeration step inside a device, the device including a chamber and at least one structure capable of generating a turbulent gaseous flow, during the aeration step. A stream of carrier gas is introduced into the chamber and a wool in the form of nodules or flakes is subjected to the turbulent flow of this carrier gas with entrainment in one sense in a direction A and in the opposite sense in a direction B that is the opposite to the direction A so that within the chamber there is at least in one plane perpendicular to the direction A in which the wool entrained in the direction A crosses the wool entrained in the direction B.

A device may include a chamber configured to aerate a wool suitable for an insulating product; an air jet configured to introduce a turbulent gaseous flow into the chamber and entrain the wool within the chamber an entrainment of the wool in one sense in a direction A, and in a direction B that is the opposite of the direction A, such that within the chamber there is at least one plane perpendicular to the direction A in which the wool entrained in the direction A crosses the wool entrained in the direction B.