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Delivery devices for delivering solid precursor compounds in the vapor phase to reactors are provided. Such devices include a precursor composition of a solid precursor compound with a layer of packing material disposed thereon. Also provided are methods for transporting a carrier gas saturated with

Delivery devices for delivering solid precursor compounds in the vapor phase to reactors are provided. Such devices include a precursor composition of a solid precursor compound with a layer of packing material disposed thereon. Also provided are methods for transporting a carrier gas saturated with the precursor compound for delivery into such CVD reactors.

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What is claimed is: 1. A vapor phase delivery device for solid precursor compounds comprising an outlet chamber and an inlet chamber comprising a precursor composition comprising a single layer of solid precursor compound and a single layer of packing material disposed on the solid precursor compou

What is claimed is: 1. A vapor phase delivery device for solid precursor compounds comprising an outlet chamber and an inlet chamber comprising a precursor composition comprising a single layer of solid precursor compound and a single layer of packing material disposed on the solid precursor compound. 2. The vapor phase delivery device of claim 1 wherein the solid precursor compound is chosen from: trialkyl indium compounds; trialkyl indium-amine adducts; dialkyl haloindium compounds; alkyl dihaloindium compounds; cyclopentadienyl indium; trialkyl indium-trialkyl arsine adducts; trialkyl indium-trialkyl-phosphine adducts; alkyl zinc halides; cyclopentadienyl zinc; ethylcyclopentadienyl zinc; alkyl dihaloaluminum compounds; alane-amine adducts; alkyl dihalogallium compounds; dialkyl halogallium compounds; biscyclopentadienyl magnesium; silicon compounds; germanium compounds; carbon tetrabromide; metal dialkylamides; and metal beta-diketonates. 3. The vapor phase delivery device of claim 1 wherein the packing material is chosen from ceramics, glasses, clays and organic polymers. 4. The vapor phase delivery device of claim 1 having an elongated cylindrical shaped portion, a top closure portion, a bottom closure portion, and the inlet and the outlet chambers in fluid communication and separated by a porous element, the top closure portion having a fill plug and a gas inlet opening, the fill plug and gas inlet opening communicating with the inlet chamber, an outlet opening communicating with the outlet chamber, the porous element being spaced apart from the bottom closure portion, the porous element contained in a floor of the inlet chamber, and the precursor composition being contained within the inlet chamber. 5. The vapor phase delivery device of claim 1 wherein the solid precursor compound is fitted. 6. The vapor phase delivery device of claim 1 wherein the delivery device does not contain a dip tube. 7. A method of depositing a film comprising the steps of: a) providing a vapor phase delivery device comprising an outlet chamber and an inlet chamber comprising a precursor composition comprising a single layer of a solid precursor compound and a single layer of packing material disposed on the solid precursor compound, wherein the delivery device has a gas inlet and a gas outlet; b) introducing a carrier gas into the delivery device through the gas inlet; c) flowing the carrier gas through the layer of packing material and then through the layer of solid precursor compound to substantially saturate the carrier gas with the precursor compound; d) the precursor compound saturated carrier gas exiting from the delivery device through the gas outlet; e) delivering the precursor compound saturated carrier gas to a reaction vessel containing a substrate; and f) subjecting the precursor compound saturated carrier gas to conditions sufficient to decompose the precursor compound to form a film on the substrate. 8. The method of claim 7 wherein the delivery device further comprises an elongated cylindrical shaped portion, a top closure portion, a bottom closure portion, and the inlet and the outlet chambers in fluid communication and separated by the porous element, the top closure portion having a fill plug and a gas inlet opening, the fill plug and gas inlet opening communicating with the inlet chamber, an outlet opening communicating with the outlet chamber, the porous element being spaced from the bottom closure portion, the porous element contained in a floor of the inlet chamber, and the precursor composition being contained within the inlet chamber. 9. The method of claim 7 wherein the packing material comprises a stabilizing agent. 10. The method of claim 9 wherein the stabilizing agent is chosen from oxygen scavengers, thermal stabilizers, antioxidants, anti-static agents, free-radical scavengers, and tagging agents. 11. The method of claim 7 wherein the packing material is chosen from ceramics, glasses, clays and organic polymers. 12. The method of claim 11 wherein the packing material is chosen from alumina, silica, silicon carbide, silicon nitride, borosilicates, and alumina silicates. 13. The method of claim 7 wherein the solid precursor compound is chosen from: trialkyl indium compounds; trialkyl indium-amine adducts; dialkyl haloindium compounds; alkyl dihaloindium compounds; cyclopentadienyl indium; trialkyl indium-trialkyl arsine adducts; trialkyl indium-trialkyl-phosphine adducts; alkyl zinc halides; cyclopentadienyl zinc; ethylcyclopentadienyl zinc; alkyl dihaloaluminum compounds; alane-amine adducts; alkyl dihalogallium compounds; dialkyl halogallium compounds; biscyclopentadienyl magnesium; silicon compounds; germanium compounds; carbon tetrabromide; metal dialkylamides; and metal beta-diketonates.