Abstract: A wig drying apparatus and method are provided, the apparatus being adapted to support a wig and which may be used to direct air currents upward such that a wig may be dried quickly and easily without damaging the wig or unduly altering the wig's outer appearance, comprises, a stand adapted to hold a wig, the stand comprising a main body member comprising a base and a neck member, and upper members comprising a central member and side members. The neck member comprises a base tube comprising a base opening. The base opening is adapted to accept a hose/outlet portion of a dryer. In the preferred embodiment, the device's shape is generally that of a human head and neck. In one embodiment, the central member and base tube are removable and may be used to dry a wig not supported by the remaining portions of the stand.

Abstract: Exemplary mobile drying containers and related methods are provided. In one embodiment, the mobile drying container includes a first side wall, a second side wall, a first end wall, a second end wall having a gate, an interior bottom, an upper volume and a lower volume separated by a ventilated floor supported by support members, wheels positioned below the lower volume, and one or more support legs positioned below the lower volume to provide support between the mobile drying container and the ground. The upper volume holds the crop to be dried, and the gate of the second end wall is operable to open and provide a path to dump or remove the crop. The lower volume is operable to receive a flow of air from an opening to assist with the drying of the crop. The present invention also encompasses other embodiments and methods.

Abstract: A drier apparatus for removing water or other liquids from various materials includes a mixer, drying chamber, separator and regenerator and a method for use of the apparatus. The material to be dried is mixed with a heated media to form a mixture which then passes through the chamber. While passing through the chamber, a comparatively cool fluid is passed counter current through the mixture so that the mixture becomes cooler and drier and the fluid becomes hotter and more saturated with moisture. The mixture is then separated into drier material and media. The media is transferred to the regenerator and heated therein by the hot fluid from the chamber and supplemental heat is supplied to bring the media to a preselected temperature for mixing with the incoming material to be dried. In a closed loop embodiment of the apparatus, the fluid is also recycled from the regenerator to the chamber and a chiller is utilized to reduce the temperature of the fluid to a preselected temperature and dew point temperature.

Abstract: An apparatus for enhanced drying of bulk agricultural products is provided in a transport trailer. The apparatus includes a perforated false bottom below the product, an air manifold buried within the product, and baffles for air distribution. Product unloading capabilities are enhanced as well. These capabilities enhance the uniformity and reproducibility of drying, ease of product handling, and greater safety in unloading the product.

Abstract: The present invention harvests and utilizes fluidized bed drying technology and waste heat streams augmented by other available heat sources to dry feedstock or fuel. This method is useful in many industries, including coal-fired power plants. Coal is dried using the present invention before it goes to coal pulverizers and on to the furnace/boiler arrangement to improve boiler efficiency and reduce emissions. This is all completed in a low-temperature, open-air system. Also included is an apparatus for segregating particulate by density and/or size including a fluidizing bed having a particulate receiving inlet for receiving particulate to be fluidized. This is useful for segregating contaminants like sulfur and mercury from the product stream.

Abstract: A method and apparatus for reducing fuel consumption in conveyor ovens by creating a barrier to the infiltration of heated air from a heating section of the oven into a cooling section of the oven thereby reducing the loss of heated air and reducing consumption of fuel otherwise required to maintain the selected oven temperature. The barrier is formed by directing a stream of pressurized air into a transition section between the heating and cooling sections of the oven.

Abstract: The present invention provides: a method of drying metallic waste having pyrophoric tendencies (liable to catch fire and/or explode), said waste being for compacting; an apparatus for drying said waste, the apparatus including a compacting canister and being suitable for implementing said drying method; and a canister for compacting said waste, the canister being particularly adapted to implementing said drying method.

Abstract: An apparatus and method for inhibiting corrosion of an automobile chassis is provided. The method utilizes an apparatus which provides a flow of heated air to the underside of the automobile. The apparatus preferably includes a pair of elongated conduits positioned under and along the length of the automobile having a plurality of spaced apart openings. A flow of heated air from the apparatus housing is directed into the conduits and flows out of the openings outward and upward toward the chassis of the automobile and dries the chassis.

Abstract: The invention concerns an apparatus for the removal of moisture from particulized, solid food products, comprising; a housing (9); a perforated plate (2), creating two chambers (3, 4) in the housing (1), gas-inlets (5, 6), present below the perforated plate (2); an outlet (8) in the perforated plate (2), provided with a removable plug (9); heating means (15, 18) for the gases. The invention further concerns a process for the removal of moisture from solid, small particles, by subjecting these particles, while in an annular, fluidized bed to a heat treatment for a specific time.

Abstract: A method and an apparatus for drying semiconductor wafers by using an IPA drying apparatus. The present invention uses a vapor generator to generate an IPA vapor. The IPA vapor is generated and saved in a closed surrounding and then transferred in a porous hollow plate in the dryer tank by using a quartz pipe. The IPA vapor is diffused evenly from the porous hollow plate. Furthermore, the present invention increases the safety of the process and can easily control the input amount of the IPA vapor.

Abstract: In a method for controlling airflow on a backside of a semiconductor wafer during spin processing, a wafer backing plate is first disposed below a semiconductor wafer. Air is then supplied to the volume defined by the wafer backing plate and the semiconductor wafer. The air may be supplied to the volume through a hollow core spindle, a rotary union, or apertures in the wafer backing plate. The separation distance between the wafer and the wafer backing plate and the flow rate of air supplied to the volume may be controlled to avoid any substantial recirculation of contaminated air into the volume. In addition to serving as one of the boundaries that define the volume, the wafer backing plate reduces particle recontamination on the backside of the wafer by preventing particles from contacting the backside of the wafer during spin processing.

Abstract: In a method for controlling airflow on a backside of a semiconductor wafer during spin processing, a wafer backing plate is first disposed below a semiconductor wafer. Air is then supplied to the volume defined by the wafer backing plate and the semiconductor wafer. The air may be supplied to the volume through a hollow core spindle, a rotary union, or apertures in the wafer backing plate. The separation distance between the wafer and the wafer backing plate and the flow rate of air supplied to the volume may be controlled to avoid any substantial recirculation of contaminated air into the volume. In addition to serving as one of the boundaries that define the volume, the wafer backing plate reduces particle recontamination on the backside of the wafer by preventing particles from contacting the backside of the wafer during spin processing.

Abstract: In the present method of drying iron ore pellets, e.g., magnetite pellets, moisture-containing iron ore pellets are formed into a bed comprising a multiplicity of the pellets. A current of drying gas is forced through the bed of pellets to at least partially dry some of the pellets. At least one jet of a drying gas that contains added oxygen is directed onto the bed of pellets so to impinge upon a surface of the pellet bed thereby providing kinetic energy for directing oxygen including the added oxygen into the pellets so as to enhance the conversion of magnetite to hematite. Moisture can be added to heated air that is then blown through jet nozzles onto the pellet bed or circulated back to an earlier drying stage and passed through the bed.

Abstract: An apparatus and method for dehydrating solid products containing moisture, particularly food products, includes a hot gas stream device for creating a hot gas stream over the products to be dehydrated and an ultrasonic wave emitting system for directing ultrasonic waves over the products. The dehydrating apparatus includes a closed housing and at least one conveyor mounted in the housing for transporting the products. The ultrasonic wave emitting system includes a plurality of ultrasonic diffusing plates which are connected to sound wave generators and are in direct contact with the products.

Abstract: A method and apparatus for drying grain in which a plurality of conveyors are mounted one above the other. The discharge end of one conveyor feeds the input end of the next lower conveyor. The conveyors have a porous top surface and are vibrated to move the grain. Warm air is conveyed beneath the top conveyor and every other conveyor thereafter. Cool air is conveyed beneath the conveyor beneath the top conveyor and every other conveyor thereafter. The warm and cool air passes through the porous top surfaces of the conveyors. Thus the conveyors alternately heat and cool the grain to remove moisture to the desired level. The apparatus can be free standing or mounted as part of a combine or harvester.

Abstract: In a process and apparatus for drying small articles in a process container, such as closure elements of pharmaceutical vessels after a treatment of the closure elements, an air-permeable support is arranged beneath the articles to support them and prepared preheated air is fed to the interior of the process container and through the support to dry the articles while they are resting on the support. An additional air mass flow is at least once briefly passed under the support during the drying operation, to lift and thereby turn the small articles to ensure at least substantially complete drying thereof.

Abstract: A pellet conditioning device (10) for the cooling and/or drying of preformed discrete pellets (148) is provided which includes an upright pellet-receiving bin (12) with a dual grate assembly (18) therein. The assembly (18) includes a stationary first grate comprising a plurality of upright, apertured grate wall members (86), and a shiftable second grate including a plurality of elongated, obliquely oriented plates (106) located between and in spanning relationship to adjacent pairs of the wall members (86). Shifting structure (20) is provided for selective and sequential translational, rectilinear shifting movement of the lower margins (110) of the plates (106) so as to successively open and close a pellet passageway (117) adjacent each lower margin (110). A duct and fan arrangement (38) is also provided with the bin (12) so as to draw cooling air currents through the grate assembly (18) and pellets (148) therein.

Abstract: Environmental enhancement by controlling volatile organic compound (VOC) and NO.sub.x emissions in a flatline wafer drying system. The method is characterized by advancing the wafers of the type used in manufacture of oriented strand board (OSB) on a flatline conveyor embodying a plurality of dryer zones. Particularly, heating the dryer zones in successive lower temperatures in the range 500.degree. F. to 200.degree. F. by flowing heated air upwardly through the flatline wafer drying conveyor; removing VOC-rich exhaust air from a primary dryer zone while flowing heated air upwardly therein and removing VOC-rich exhaust air from a secondary dryer zone while flowing heated air from therein.