Abstract:
A mixing apparatus is configured to efficiently input noodles coated with an additive to a receiving tray, with no need to perform weighing again after the noodles are input to the receiving tray. The mixing apparatus includes at least two hoppers that each house falling noodles and that allows the noodles to fall through rotation of the hoppers. A supply device supplies a sauce to the noodles in the hoppers, and the two hoppers are spaced from one another in the falling direction.
Abstract:
Apparatus to make decorations on a prefabricated water-proofing bitumen-mix membrane, wherein the decorations are made by depositing solid particles, in the form of flakes, grains, sand or grit, suitable to adhere to at least one surface of said prefabricated water-proofing bitumen-mix membrane. The apparatus includes at least one transfer member provided with a support surface suitable to receive, support and transfer the solid particles toward the surface to be enhanced of the prefabricated water-proofing bitumen-mix membrane. The support surface is provided with a plurality of cavities suitable to receive the solid particles. The cavities are made inside at least one surface portion of the support surface and the surface portion, essentially reproducing the shape and sizes of at least one of the decorations.
Abstract:
A dipping station is provided for coating bee hive frame members with a coating of wax. The dipping station comprises a housing having a reservoir for receiving a supply of melted wax. The reservoir approximates the dimension of a frame member. The dipping station is provided with a heating element to melt the wax placed in the reservoir. Water is added to the reservoir to avoid overheating the wax. Individual frame members are dipped into the reservoir containing the melted wax whereby they are coated with melted wax as they are dipped into and removed from the reservoir.
Abstract:
Apparatuses for increasing the effective size of gas-entrained particles in a particle detector are disclosed. In one embodiment, an apparatus comprises an evaporation chamber, a condenser in fluid communication with the evaporation chamber, and an inlet in fluid communication with the condenser for receiving a stream of sample gas containing gas-entrained particles. The evaporation chamber includes a heating element and a porous support surrounding the heating element. The porous support carries thereon a working fluid, and the heating element vaporizes the working fluid to form vapor within the evaporation chamber. The porous support may include a portion which extends into a working fluid reservoir.
Abstract:
A valve arrangement for applying fluid media, in particular glue, to surfaces, comprising a plurality of individual modules detachably connected to form a row, wherein in the row and between the adjacent individual modules is respectively formed a dividing plane, in which the respectively adjacent individual modules bear one against another, and at least one dividing plane is assigned a heating member for warming the valve arrangement, preferably a plurality of or all dividing planes are respectively assigned a heating member, which is seated in appropriate, mutually opposing receptacles, arranged to both sides of the dividing plane, of the two adjacent individual modules, and cooperates in such a way with those walls of the individual modules which delimit the receptacles that relative movements of the two individual modules in at least one spatial direction are limited or prevented.
Abstract:
An apparatus for dipping a substrate includes: a body having an internal plate formed therein, and including a backing plate provided over the internal plate; a crucible accommodating an aqueous solution therein and provided over the backing plate; a crucible driving unit provided in the body and connected to the crucible to move the crucible in a horizontal direction or a vertical direction of the body; a support having a lower end to which a substrate is fixed; a support driving unit provided to an upper side of the body and connected to the support to drive the support in a length direction of the support or rotate the support in the vertical direction of the body; and a controlling unit connected to the crucible driving unit and the support driving unit to control driving of the crucible driving unit and the support driving unit.
Abstract:
The present invention provides a system for manufacturing a therapeutic microneedle configured to regulate an air environment within a coating chamber for manufacturing a therapeutic microneedle by coating a microneedle with a coating liquid containing a drug, the system for manufacturing a therapeutic microneedle comprising an air compressor, a humidity regulator configured to regulate humidity of air supplied from the air compressor, and an air filter configured to eliminate microorganisms from air to be supplied to the inside of the coating chamber.
Abstract:
Provided is a dye adsorption unit including a processing tank of which the upper surface is opened, in order to perform a batch dye adsorption process for a predetermined number of substrates. The dye adsorption unit further includes, as a moving system around the processing tank, a boat capable of going in and out of the processing tank from the upper opening, a boat transport unit that serves for the boat to go in and out of the processing tank, and a top cover for detachably closing the upper opening. Further, the dye adsorption unit includes a dye solution supply unit for supplying the dye solution into the processing tank, and a flow control unit for controlling the flow of the dye solution in the processing tank during the dye adsorption processing.
Abstract:
A substrate processing apparatus includes one or more substrate processing units 11 to 18 each processing a substrate 3 with a processing fluid; processing fluid supply units 19 and 20 supplying the heated processing fluid to the substrate processing units 11 to 18; and a controller 21 controlling the processing fluid supply units 19 and 20. The processing fluid supply units 19 and 20 include a storage tank 35 storing the processing fluid; a heating heat exchanger 51 heating the processing fluid; and a supply path 52 supplying the processing fluid to the substrate processing units 11 to 18. The supply path 52 includes a bypass path 71 bypassing the heating heat exchanger 51 at an upstream of the substrate processing units 11 to 18. The processing fluid heated by the heating heat exchanger 51 and the processing fluid supplied from the bypass path 71 are mixed to be supplied.
Abstract:
Technologies are generally described for method and systems effective to at least partially alter a defect in a layer including graphene. In some examples, the methods may include receiving the layer on a substrate where the layer includes at least some graphene and at least some defect areas in the graphene. The defect areas may reveal exposed areas of the substrate. The methods may also include reacting the substrate under sufficient reaction conditions to produce at least one cationic area in at least one of the exposed areas. The methods may further include adhering graphene oxide to the at least one cationic area to produce a graphene oxide layer. The methods may further include reducing the graphene oxide layer to produce at least one altered defect area in the layer.