Literature summary for 2.8.3.16 extracted from

Khammar, N.; Martin, G.; Ferro, K.; Job, D.; Aragno, M.; Verrecchia, E.
Use of the frc gene as a molecular marker to characterize oxalate-oxidizing bacterial abundance and diversity structure in soil (2008), J. Microbiol. Methods, 76, 120-127.

Application

Application	Comment	Organism
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Escherichia coli
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Starkeya novella
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Azospirillum brasilense
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Streptomyces violaceoruber
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Xanthomonas sp.
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Xanthobacter flavus
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Cupriavidus oxalaticus
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Methylorubrum extorquens
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Methylobacterium organophilum
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Variovorax paradoxus
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Azospirillum lipoferum
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Oxalobacter formigenes
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Cupriavidus necator
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Rhodopseudomonas palustris
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Shigella flexneri
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Streptomyces avermitilis
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Streptomyces coelicolor
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Xanthobacter autotrophicus
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Ancylobacter polymorphus
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Ancylobacter oerskovii
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Bradyrhizobium japonicum
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Methylorubrum thiocyanatum
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Pandoraea sp.
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Oxalicibacterium flavum
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Bradyrhizobium sp.
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Arquibacter sp.
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Herminiimonas saxobsidens
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Azorhizobium sp.
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Paraburkholderia xenovorans
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Herminiimonas arsenicoxydans
environmental protection	bacterial oxalate-degrading function, microbiological processes are considered as the main oxalate sinks in natural environments, in soil oxalate from fungi, plant root exudates and decaying plant tissues display powerful metal chelating properties. Oxalate takes part in plant nutrition status by increasing the availability of phosphate and other poorly soluble micro-nutriments, through its ability to complex and remove excess metal cations. It also plays an important role in the detoxification of heavy metals in the vicinity of plant roots.	Janthinobacterium sp. Marseille
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Escherichia coli
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Starkeya novella
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Azospirillum brasilense
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Streptomyces violaceoruber
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Xanthomonas sp.
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Xanthobacter flavus
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Cupriavidus oxalaticus
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Methylorubrum extorquens
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Methylobacterium organophilum
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Variovorax paradoxus
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Azospirillum lipoferum
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Oxalobacter formigenes
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Cupriavidus necator
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Rhodopseudomonas palustris
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Shigella flexneri
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Streptomyces avermitilis
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Streptomyces coelicolor
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Xanthobacter autotrophicus
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Ancylobacter polymorphus
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Ancylobacter oerskovii
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Bradyrhizobium japonicum
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Methylorubrum thiocyanatum
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Pandoraea sp.
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Oxalicibacterium flavum
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Bradyrhizobium sp.
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Arquibacter sp.
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Herminiimonas saxobsidens
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Azorhizobium sp.
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Paraburkholderia xenovorans
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Herminiimonas arsenicoxydans
medicine	bacterial oxalate-degrading function, in humans an accumulation of oxalic acid can result in a number of pathologic conditions, including hyperoxaluria, urolithiasis, renal failure, cardiomyopathy and cardiac conductance disorders	Janthinobacterium sp. Marseille
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Escherichia coli
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Starkeya novella
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Azospirillum brasilense
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Streptomyces violaceoruber
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Xanthomonas sp.
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Xanthobacter flavus
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Cupriavidus oxalaticus
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Methylorubrum extorquens
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Methylobacterium organophilum
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Variovorax paradoxus
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Azospirillum lipoferum
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Oxalobacter formigenes
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Cupriavidus necator
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Rhodopseudomonas palustris
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Shigella flexneri
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Streptomyces avermitilis
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Streptomyces coelicolor
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Xanthobacter autotrophicus
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Ancylobacter polymorphus
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Ancylobacter oerskovii
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Bradyrhizobium japonicum
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Methylorubrum thiocyanatum
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Pandoraea sp.
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Oxalicibacterium flavum
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Bradyrhizobium sp.
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Arquibacter sp.
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Herminiimonas saxobsidens
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Azorhizobium sp.
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Paraburkholderia xenovorans
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Herminiimonas arsenicoxydans
molecular biology	use of the frc gene as template for PCR to detect oxalotrophic bacteria	Janthinobacterium sp. Marseille

Cloned(Commentary)

Cloned (Comment)	Organism
expression in Escherichia coli XL1	Escherichia coli
expression in Escherichia coli XL1	Starkeya novella
expression in Escherichia coli XL1	Azospirillum brasilense
expression in Escherichia coli XL1	Streptomyces violaceoruber
expression in Escherichia coli XL1	Xanthomonas sp.
expression in Escherichia coli XL1	Xanthobacter flavus
expression in Escherichia coli XL1	Cupriavidus oxalaticus
expression in Escherichia coli XL1	Methylorubrum extorquens
expression in Escherichia coli XL1	Methylobacterium organophilum
expression in Escherichia coli XL1	Variovorax paradoxus
expression in Escherichia coli XL1	Azospirillum lipoferum
expression in Escherichia coli XL1	Oxalobacter formigenes
expression in Escherichia coli XL1	Cupriavidus necator
expression in Escherichia coli XL1	Rhodopseudomonas palustris
expression in Escherichia coli XL1	Shigella flexneri
expression in Escherichia coli XL1	Streptomyces avermitilis
expression in Escherichia coli XL1	Streptomyces coelicolor
expression in Escherichia coli XL1	Xanthobacter autotrophicus
expression in Escherichia coli XL1	Ancylobacter polymorphus
expression in Escherichia coli XL1	Ancylobacter oerskovii
expression in Escherichia coli XL1	Bradyrhizobium japonicum
expression in Escherichia coli XL1	Methylorubrum thiocyanatum
expression in Escherichia coli XL1	Pandoraea sp.
expression in Escherichia coli XL1	Oxalicibacterium flavum
expression in Escherichia coli XL1	Bradyrhizobium sp.
expression in Escherichia coli XL1	Arquibacter sp.
expression in Escherichia coli XL1	Herminiimonas saxobsidens
expression in Escherichia coli XL1	Azorhizobium sp.
expression in Escherichia coli XL1	Paraburkholderia xenovorans
expression in Escherichia coli XL1	Herminiimonas arsenicoxydans
expression in Escherichia coli XL1	Janthinobacterium sp. Marseille

Natural Substrates/ Products (Substrates)

Natural Substrates	Organism	Comment (Nat. Sub.)	Natural Products	Comment (Nat. Pro.)	Rev.
formyl-CoA + oxalate	Escherichia coli	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Starkeya novella	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Azospirillum brasilense	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Streptomyces violaceoruber	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Xanthomonas sp.	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Xanthobacter flavus	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Cupriavidus oxalaticus	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Methylorubrum extorquens	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Methylobacterium organophilum	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Variovorax paradoxus	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Azospirillum lipoferum	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Oxalobacter formigenes	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Cupriavidus necator	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Rhodopseudomonas palustris	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Shigella flexneri	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Streptomyces avermitilis	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Streptomyces coelicolor	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Xanthobacter autotrophicus	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Ancylobacter polymorphus	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Ancylobacter oerskovii	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Bradyrhizobium japonicum	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Methylorubrum thiocyanatum	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Pandoraea sp.	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Oxalicibacterium flavum	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Bradyrhizobium sp.	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Arquibacter sp.	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Herminiimonas saxobsidens	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Azorhizobium sp.	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Paraburkholderia xenovorans	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Herminiimonas arsenicoxydans	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Janthinobacterium sp. Marseille	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	Cupriavidus necator JMP 134-1	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	formate + oxalyl-CoA	-	?

Organism

Organism	UniProt	Comment	Textmining
Ancylobacter oerskovii	-	-	-
Ancylobacter polymorphus	B3VMH8	fragment	-
Arquibacter sp.	-	-	-
Azorhizobium sp.	-	-	-
Azospirillum brasilense	-	-	-
Azospirillum lipoferum	-	-	-
Bradyrhizobium japonicum	Q89QH2	USDA 110, gene frc, no detection of the frc-gene in Klebsiella oxytoca, Bacillus subtilis, Micrococcus luteus, Microvirgula aerodenitrificans, Paracoccus denitrificans, Rhodococcus opacus, Xanthobacter agilis and Pseudomonas aeruginosa	-
Bradyrhizobium sp.	A5EGD7	BTAi1, frc gene	-
Cupriavidus necator	Q0K0H8	H16 gene	-
Cupriavidus necator	Q46S66	JMP134, Reut_B4669 gene	-
Cupriavidus necator	Q46S72	JMP 134	-
Cupriavidus necator JMP 134-1	Q46S72	JMP 134	-
Cupriavidus oxalaticus	-	-	-
Escherichia coli	-	B, frc gene, but no Ca-oxalat utilization	-
Escherichia coli	P69902	K12, frc gene	-
Herminiimonas arsenicoxydans	A4G241	frcA gene	-
Herminiimonas arsenicoxydans	A4G242	frcB gene	-
Herminiimonas saxobsidens	-	-	-
Janthinobacterium sp. Marseille	A6T0J2	caiB3 gene	-
Methylobacterium organophilum	-	-	-
Methylorubrum extorquens	-	-	-
Methylorubrum thiocyanatum	-	-	-
Oxalicibacterium flavum	-	-	-
Oxalobacter formigenes	O06644	frc gene	-
Pandoraea sp.	-	-	-
Paraburkholderia xenovorans	Q13RQ4	LB400, frc gene	-
Rhodopseudomonas palustris	Q6N8F8	CGA009, frc gene	-
Shigella flexneri	P69903	2a strain 301, frc gene	-
Starkeya novella	-	-	-
Streptomyces avermitilis	Q82M40	MA-4680, frc gene	-
Streptomyces coelicolor	O87838	A3, frc gene	-
Streptomyces violaceoruber	-	-	-
Variovorax paradoxus	-	-	-
Xanthobacter autotrophicus	A7ICK2	Py2, Xaut_0487 gene	-
Xanthobacter flavus	-	-	-
Xanthomonas sp.	-	frc gene, but no Ca-oxalate utilization	-

Source Tissue

Source Tissue	Comment	Organism	Textmining
enrichment culture	oxalate enrichment culture	Escherichia coli	-
enrichment culture	oxalate enrichment culture	Starkeya novella	-
enrichment culture	oxalate enrichment culture	Azospirillum brasilense	-
enrichment culture	oxalate enrichment culture	Streptomyces violaceoruber	-
enrichment culture	oxalate enrichment culture	Xanthomonas sp.	-
enrichment culture	oxalate enrichment culture	Xanthobacter flavus	-
enrichment culture	oxalate enrichment culture	Cupriavidus oxalaticus	-
enrichment culture	oxalate enrichment culture	Methylorubrum extorquens	-
enrichment culture	oxalate enrichment culture	Methylobacterium organophilum	-
enrichment culture	oxalate enrichment culture	Variovorax paradoxus	-
enrichment culture	oxalate enrichment culture	Azospirillum lipoferum	-
enrichment culture	oxalate enrichment culture	Oxalobacter formigenes	-
enrichment culture	oxalate enrichment culture	Cupriavidus necator	-
enrichment culture	oxalate enrichment culture	Rhodopseudomonas palustris	-
enrichment culture	oxalate enrichment culture	Shigella flexneri	-
enrichment culture	oxalate enrichment culture	Streptomyces avermitilis	-
enrichment culture	oxalate enrichment culture	Streptomyces coelicolor	-
enrichment culture	oxalate enrichment culture	Xanthobacter autotrophicus	-
enrichment culture	oxalate enrichment culture	Ancylobacter polymorphus	-
enrichment culture	oxalate enrichment culture	Ancylobacter oerskovii	-
enrichment culture	oxalate enrichment culture	Bradyrhizobium japonicum	-
enrichment culture	oxalate enrichment culture	Methylorubrum thiocyanatum	-
enrichment culture	oxalate enrichment culture	Pandoraea sp.	-
enrichment culture	oxalate enrichment culture	Oxalicibacterium flavum	-
enrichment culture	oxalate enrichment culture	Bradyrhizobium sp.	-
enrichment culture	oxalate enrichment culture	Arquibacter sp.	-
enrichment culture	oxalate enrichment culture	Herminiimonas saxobsidens	-
enrichment culture	oxalate enrichment culture	Azorhizobium sp.	-
enrichment culture	oxalate enrichment culture	Paraburkholderia xenovorans	-
enrichment culture	oxalate enrichment culture	Herminiimonas arsenicoxydans	-
enrichment culture	oxalate enrichment culture	Janthinobacterium sp. Marseille	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Escherichia coli	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Starkeya novella	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Azospirillum brasilense	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Streptomyces violaceoruber	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Xanthomonas sp.	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Xanthobacter flavus	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Cupriavidus oxalaticus	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Methylorubrum extorquens	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Methylobacterium organophilum	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Variovorax paradoxus	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Azospirillum lipoferum	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Oxalobacter formigenes	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Cupriavidus necator	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Rhodopseudomonas palustris	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Shigella flexneri	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Streptomyces avermitilis	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Streptomyces coelicolor	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Xanthobacter autotrophicus	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Ancylobacter polymorphus	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Ancylobacter oerskovii	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Bradyrhizobium japonicum	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Methylorubrum thiocyanatum	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Pandoraea sp.	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Oxalicibacterium flavum	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Bradyrhizobium sp.	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Arquibacter sp.	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Herminiimonas saxobsidens	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Azorhizobium sp.	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Paraburkholderia xenovorans	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Herminiimonas arsenicoxydans	-
soil	soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees	Janthinobacterium sp. Marseille	-

Substrates and Products (Substrate)

Substrates	Comment Substrates	Organism	Products	Comment (Products)	Rev.
formyl-CoA + oxalate	-	Escherichia coli	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Starkeya novella	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Azospirillum brasilense	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Streptomyces violaceoruber	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Xanthomonas sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Xanthobacter flavus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Cupriavidus oxalaticus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Methylorubrum extorquens	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Methylobacterium organophilum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Variovorax paradoxus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Azospirillum lipoferum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Oxalobacter formigenes	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Cupriavidus necator	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Rhodopseudomonas palustris	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Shigella flexneri	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Streptomyces avermitilis	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Streptomyces coelicolor	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Xanthobacter autotrophicus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Ancylobacter polymorphus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Ancylobacter oerskovii	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Bradyrhizobium japonicum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Methylorubrum thiocyanatum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Pandoraea sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Oxalicibacterium flavum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Bradyrhizobium sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Arquibacter sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Herminiimonas saxobsidens	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Azorhizobium sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Paraburkholderia xenovorans	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Herminiimonas arsenicoxydans	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Janthinobacterium sp. Marseille	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Escherichia coli	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Starkeya novella	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Azospirillum brasilense	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Streptomyces violaceoruber	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Xanthomonas sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Xanthobacter flavus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Cupriavidus oxalaticus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Methylorubrum extorquens	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Methylobacterium organophilum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Variovorax paradoxus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Azospirillum lipoferum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Oxalobacter formigenes	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Cupriavidus necator	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Rhodopseudomonas palustris	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Shigella flexneri	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Streptomyces avermitilis	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Streptomyces coelicolor	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Xanthobacter autotrophicus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Ancylobacter polymorphus	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Ancylobacter oerskovii	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Bradyrhizobium japonicum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Methylorubrum thiocyanatum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Pandoraea sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Oxalicibacterium flavum	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Bradyrhizobium sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Arquibacter sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Herminiimonas saxobsidens	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Azorhizobium sp.	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Paraburkholderia xenovorans	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Herminiimonas arsenicoxydans	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Janthinobacterium sp. Marseille	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	-	Cupriavidus necator JMP 134-1	formate + oxalyl-CoA	-	?
formyl-CoA + oxalate	oxalate is a highly oxidized compound that may be used as C- and energy sources by oxalotrophic bacteria	Cupriavidus necator JMP 134-1	formate + oxalyl-CoA	-	?

Synonyms

Synonyms	Comment	Organism
formyl-CoA-transferase	-	Escherichia coli
formyl-CoA-transferase	-	Starkeya novella
formyl-CoA-transferase	-	Azospirillum brasilense
formyl-CoA-transferase	-	Streptomyces violaceoruber
formyl-CoA-transferase	-	Xanthomonas sp.
formyl-CoA-transferase	-	Xanthobacter flavus
formyl-CoA-transferase	-	Cupriavidus oxalaticus
formyl-CoA-transferase	-	Methylorubrum extorquens
formyl-CoA-transferase	-	Methylobacterium organophilum
formyl-CoA-transferase	-	Variovorax paradoxus
formyl-CoA-transferase	-	Azospirillum lipoferum
formyl-CoA-transferase	-	Oxalobacter formigenes
formyl-CoA-transferase	-	Cupriavidus necator
formyl-CoA-transferase	-	Rhodopseudomonas palustris
formyl-CoA-transferase	-	Shigella flexneri
formyl-CoA-transferase	-	Streptomyces avermitilis
formyl-CoA-transferase	-	Streptomyces coelicolor
formyl-CoA-transferase	-	Xanthobacter autotrophicus
formyl-CoA-transferase	-	Ancylobacter polymorphus
formyl-CoA-transferase	-	Ancylobacter oerskovii
formyl-CoA-transferase	-	Bradyrhizobium japonicum
formyl-CoA-transferase	-	Methylorubrum thiocyanatum
formyl-CoA-transferase	-	Pandoraea sp.
formyl-CoA-transferase	-	Oxalicibacterium flavum
formyl-CoA-transferase	-	Bradyrhizobium sp.
formyl-CoA-transferase	-	Arquibacter sp.
formyl-CoA-transferase	-	Herminiimonas saxobsidens
formyl-CoA-transferase	-	Azorhizobium sp.
formyl-CoA-transferase	-	Paraburkholderia xenovorans
formyl-CoA-transferase	-	Herminiimonas arsenicoxydans
formyl-CoA-transferase	-	Janthinobacterium sp. Marseille