During the initial months of In-Tank Precipitation radioactive operation in 1995 the process experienced high rates of tetraphenylborate decomposition with assumed corresponding high rates of benzene generation. In March 1996 after a two month quiescent period, a water addition to Tank 48H resulted in an unexpected benzene release to the tank vapor phase. This was the first time a low energy input resulted in a significant release rate. This led to questions about how benzene, generated in-situ by TPB decomposition, was retained in the surrounding potassium tetraphenylborate slurry. It was postulated the retention mechanism may have changed during the quiescent period prior to March so the benzene present became readily releasable to the va...
The stability of excess amounts of sodium tetraphenylborate (NaTPB) in the In-Tank Precipitation (IT...
This study assessed chemical treatment options for decomposing the tetraphenylborate in High Level W...
During the period from late June to early September of this year, approximately 1,600 gallons of pre...
At the Savannah River Site, the in-tank precipitation (ITP) process uses sodium tetraphenylborate (N...
The Savannah River Technology Center (SRTC) developed a program to investigate various operating par...
Nuclear Magnetic Resonance (NMR) measurements on In-Tank Precipitation (ITP) simulated potassium tet...
Scoping benzene release measurements were conducted on 4 wt percent KTPB `DEMO` formulation slurry u...
In support for the Aggregation option1, researchers performed a series of tests using actual Tank 48...
The Savannah River National Laboratory was tasked with determining the benzene release rates in salt...
Tetraphenylborate solids provide a potentially large source of benzene in the slurries produced in t...
The purpose of the tests was to investigate the effects of operating parameters, such as KTPB concen...
A series of twelve tests examined benzene generation rates with radioactive materials simulating the...
The contents of Tank 48H that include the tetraphenylborate (TPB) precipitates of potassium and cesi...
Radioactive high level wastes (HLW) generated from production of special nuclear materials at the Sa...
In order to assess the effect of extended curing times at elevated temperatures on saltstone contain...
The stability of excess amounts of sodium tetraphenylborate (NaTPB) in the In-Tank Precipitation (IT...
This study assessed chemical treatment options for decomposing the tetraphenylborate in High Level W...
During the period from late June to early September of this year, approximately 1,600 gallons of pre...
At the Savannah River Site, the in-tank precipitation (ITP) process uses sodium tetraphenylborate (N...
The Savannah River Technology Center (SRTC) developed a program to investigate various operating par...
Nuclear Magnetic Resonance (NMR) measurements on In-Tank Precipitation (ITP) simulated potassium tet...
Scoping benzene release measurements were conducted on 4 wt percent KTPB `DEMO` formulation slurry u...
In support for the Aggregation option1, researchers performed a series of tests using actual Tank 48...
The Savannah River National Laboratory was tasked with determining the benzene release rates in salt...
Tetraphenylborate solids provide a potentially large source of benzene in the slurries produced in t...
The purpose of the tests was to investigate the effects of operating parameters, such as KTPB concen...
A series of twelve tests examined benzene generation rates with radioactive materials simulating the...
The contents of Tank 48H that include the tetraphenylborate (TPB) precipitates of potassium and cesi...
Radioactive high level wastes (HLW) generated from production of special nuclear materials at the Sa...
In order to assess the effect of extended curing times at elevated temperatures on saltstone contain...
The stability of excess amounts of sodium tetraphenylborate (NaTPB) in the In-Tank Precipitation (IT...
This study assessed chemical treatment options for decomposing the tetraphenylborate in High Level W...
During the period from late June to early September of this year, approximately 1,600 gallons of pre...