semi Equipment Co.   

semiconductor dryers

Phone: 817-946-0584

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       IPA Vapor Dryers

       Marangoni Dryers

           Specs for 300mm

           Specs for 200mm

           Consumption

           Foot-print

           Utilities for RD

           Utilities for FRD

           Utilities for DHF

           Particle performance

           60 nanometer node

       DI Water Heaters

       External Torches

       Quartz Glass    

       

 OTHER PRODUCTS

       Flow Totalizer

LOCAL INSTANTANEOUS FLOWMETER OF-ZAF,OF-ZZF / LOCAL INTEGRATING FLOWMETER OF-ZAQ,OF-ZZQ

       Gas Meters

        Water Meters

        HeCd Lasers

Used reconditioned four sets of IPA vapor dryer available

6" Dryers for Lease

Quartz DI water heaters for Lease

Marangoni style ambient IPA dryers your dream of flawless surface free from watermarks and particles. Advanced Processing Equipment Technology has been preparing for the 300mm under 0.090 technology’s surface to be even more perfect. The most adequate usage of Le Chatellier’s principle during the rinsing and drying procedure enables the finest control of wafer surface as no system could have done before.

IPA vapor dryers Kimmon design and precision manufacturing produce IPA vapor dryers with rapid recovery times. This eliminates a common source of contamination - water spots formed from longer recovery times allowing wafers to dry before IPA vapor is generated. [IPA Vapor Dryer Picture]

DI water heaters This design eliminates DI water contamination from water heater system induced impurities such as metallic ions, organic compounds, and microbes.

[DI Water Heater Picture] HTC+ Oxide free surface up to seven days

ARTICLES

Ultra pure N2 and gas heaters for reducing by-product deposition in wafer processing equipment. To be used for drying FPD, deposition, dry and wet etch, photolithography, test and back-end assembly in CVD or PVD process. CVD is a widely used method for depositing thin films of a large variety of materials. Applications of CVD range from the fabrication of microelectronic devices to the deposition of protective coatings. In a typical CVD process, reactant gases (often diluted in a carrier gas) at room temperature enter the reaction chamber. The gas mixture is heated as it approaches the deposition surface, heated radiatively or placed upon a heated substrate. CVD can give very uniform films even on rough surfaces providing that the process is controlled by surface kinetics (the mobility of atoms on the surface). One of the most common methods to activate a CVD process is to use heat. This requires a high temperature and for many technological applications it is important to be able to deposit films also at low temperatures.

Characteristics

Check out my comment for Water Spots: The Scourge of Wafer Dryers

External torches The hydrogen is ignited by the halogen lamp heating a non-doped silicon target to over 850 degrees centigrade. This ignition process prevents devitrification of the quartz chamber and assures no particulate contamination into the process tube.

[External Torch Picture]

Quartz glass repairs, reconditioning, acid treatment.

[Maximum Quartz Picture]  
 
Chemical process, rinsing, and drying can be performed in a single module enabling fabs to meet the requirements of sub-90-nm technology nodes.

While 90-nm technologies ramping up to full production, the ability to perform a particle-neutral and water spot–free dry during wafer surface preparation has been identified as a technology enabler. Such capability is especially important for devices with high-aspect-ratio attributes such as vias, contacts, deep trenches, and poly-Si features, where water spots form easily at hydrophilic/hydrophobic interfaces. Spots that are large enough to overlap more than one die will result in a definite yield loss, and even smaller water spots can cause killer defects, high leakage currents, critical-dimension variations, and film adhesion problems, all of which also may contribute to yield loss.

 
The ability to achieve those ambitious surface-preparation goals hinges on the ability to combine process steps in order to minimize the number of air-liquid interfaces that the wafer experiences, which will, in turn, reduce the number of surface defects. It will also be important to combine chemical process steps with rinsing and drying operations in a single process vessel, especially in the case of hydrofluoric acid (HF)–last cleaning processes, which are becoming more widespread with the use of sub-30-Å gate oxides. Performing a true HF-last process in a single vessel will help to reduce exposure to the oxidizing ambient, achieve ideal surface passivation (i.e., hydrogen-terminated silicon), and minimize particle addition to the sensitive hydrophobic surface.

APET NEO cleaner/dryer configured as one bath to do all to solve all mentioned problems.

 

 

 

 

 

 

 

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