Protect your downstream catalysts
The diverse feedstocks in use today have made variations in gas composition and concentration commonplace, and technologies that protect downstream catalysts from poisoning are increasingly important.
DownloadChloride in feedstocks can pose a serious threat to ammonia and hydrogen plant productivity if allowed to poison downstream catalysts or harm equipment. Our HTG-10 chloride absorbent eliminates this risk and safeguards your operations.
Ideally positioned between your hydrogenation catalyst and your zinc oxide sulfur absorbent, the HTG-10 effectively absorbs any inorganic chloride your feedstocks might contain, thanks to its high-capacity potassium active sites and special alumina carrier.
An optimized chemical and structural design makes the HTG-10 uniquely capable of removing chloride under a wide range of operating temperatures. Compounding the advantages of potassium active sites and the alumina carrier, the HTG-10 features an optimized pore system that can handle approximately 10% more chloride per cubic meter of reactor volume compared to its predecessor – while also removing other halogens, such as fluorides, bromides and iodides.
The HTG-10 normally operates in conjunction with and under the same operating conditions as your desulfurization catalysts, with operating temperatures dictated by your hydrogenation catalyst (normally between 300 and 400°C).
As a plug-and-play absorbent, the HTG-10 does not require any special procedures during loading or start-up.
Thanks to its steep absorption front, the HTG-10 ensures maximum utilization of the absorbent and reactor volume – and the full benefit of effective chloride removal.
Uniform absorption of chloride, thanks to an even distribution of active sites throughout the spherical pellet, is another feature of HTG-10 that ensures full absorbent utilization. The spherical shape of HTG-10 has the additional advantage of maximizing packing density and mechanical strength, resulting in long-lasting and superior chloride removal per unit volume of the reactor.
The diverse feedstocks in use today have made variations in gas composition and concentration commonplace, and technologies that protect downstream catalysts from poisoning are increasingly important.
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