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.

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.

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.

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.

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.

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.

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.

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.; 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.; 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.

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.; 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.; 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.

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.

Janthinobacterium sp. Marseille

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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

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

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

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

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

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

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

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

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; 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; 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

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; 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; 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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

Xanthomonas sp.

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

Ancylobacter polymorphus

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

Azorhizobium sp.

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

Azospirillum lipoferum

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

Bradyrhizobium sp.

molecular biology

use of the frc gene as template for PCR to detect oxalotrophic bacteria; use of the frc gene as template for PCR to detect oxalotrophic bacteria; 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

Cupriavidus oxalaticus

molecular biology

use of the frc gene as template for PCR to detect oxalotrophic bacteria; 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; 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

Herminiimonas saxobsidens

molecular biology

use of the frc gene as template for PCR to detect oxalotrophic bacteria

Janthinobacterium sp. Marseille

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

Methylorubrum extorquens

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

Oxalicibacterium flavum

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

Pandoraea 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

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

Starkeya novella

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

Streptomyces violaceoruber

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

Xanthobacter autotrophicus

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

Xanthomonas sp.

expression in Escherichia coli XL1

Ancylobacter oerskovii

expression in Escherichia coli XL1

Ancylobacter polymorphus

expression in Escherichia coli XL1

Arquibacter sp.

expression in Escherichia coli XL1

Azorhizobium sp.

expression in Escherichia coli XL1

Azospirillum brasilense

expression in Escherichia coli XL1

Azospirillum lipoferum

expression in Escherichia coli XL1

Bradyrhizobium japonicum

expression in Escherichia coli XL1

Bradyrhizobium sp.

expression in Escherichia coli XL1

Cupriavidus oxalaticus

expression in Escherichia coli XL1

Herminiimonas saxobsidens

expression in Escherichia coli XL1

Janthinobacterium sp. Marseille

expression in Escherichia coli XL1

Methylobacterium organophilum

expression in Escherichia coli XL1

Methylorubrum extorquens

expression in Escherichia coli XL1

Methylorubrum thiocyanatum

expression in Escherichia coli XL1

Oxalicibacterium flavum

expression in Escherichia coli XL1

Oxalobacter formigenes

expression in Escherichia coli XL1

Pandoraea sp.

expression in Escherichia coli XL1

Paraburkholderia xenovorans

expression in Escherichia coli XL1

Rhodopseudomonas palustris

expression in Escherichia coli XL1

Shigella flexneri

expression in Escherichia coli XL1

Starkeya novella

expression in Escherichia coli XL1

Streptomyces avermitilis

expression in Escherichia coli XL1

Streptomyces coelicolor

expression in Escherichia coli XL1

Streptomyces violaceoruber

expression in Escherichia coli XL1

Variovorax paradoxus

expression in Escherichia coli XL1

Xanthobacter autotrophicus

expression in Escherichia coli XL1

Xanthobacter flavus

expression in Escherichia coli XL1

Xanthomonas sp.

expression in Escherichia coli XL1; expression in Escherichia coli XL1

Escherichia coli

expression in Escherichia coli XL1; expression in Escherichia coli XL1

Herminiimonas arsenicoxydans

expression in Escherichia coli XL1; expression in Escherichia coli XL1; expression in Escherichia coli XL1

Cupriavidus necator

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

?

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

enrichment culture

oxalate enrichment culture

Ancylobacter oerskovii

enrichment culture

oxalate enrichment culture

Ancylobacter polymorphus

enrichment culture

oxalate enrichment culture

Arquibacter sp.

enrichment culture

oxalate enrichment culture

Azorhizobium sp.

enrichment culture

oxalate enrichment culture

Azospirillum brasilense

enrichment culture

oxalate enrichment culture

Azospirillum lipoferum

enrichment culture

oxalate enrichment culture

Bradyrhizobium japonicum

enrichment culture

oxalate enrichment culture

Bradyrhizobium sp.

enrichment culture

oxalate enrichment culture; oxalate enrichment culture; oxalate enrichment culture

Cupriavidus necator

enrichment culture

oxalate enrichment culture

Cupriavidus oxalaticus

enrichment culture

oxalate enrichment culture; oxalate enrichment culture

Escherichia coli

enrichment culture

oxalate enrichment culture; oxalate enrichment culture

Herminiimonas arsenicoxydans

enrichment culture

oxalate enrichment culture

Herminiimonas saxobsidens

enrichment culture

oxalate enrichment culture

Janthinobacterium sp. Marseille

enrichment culture

oxalate enrichment culture

Methylobacterium organophilum

enrichment culture

oxalate enrichment culture

Methylorubrum extorquens

enrichment culture

oxalate enrichment culture

Methylorubrum thiocyanatum

enrichment culture

oxalate enrichment culture

Oxalicibacterium flavum

enrichment culture

oxalate enrichment culture

Oxalobacter formigenes

enrichment culture

oxalate enrichment culture

Pandoraea sp.

enrichment culture

oxalate enrichment culture

Paraburkholderia xenovorans

enrichment culture

oxalate enrichment culture

Rhodopseudomonas palustris

enrichment culture

oxalate enrichment culture

Shigella flexneri

enrichment culture

oxalate enrichment culture

Starkeya novella

enrichment culture

oxalate enrichment culture

Streptomyces avermitilis

enrichment culture

oxalate enrichment culture

Streptomyces coelicolor

enrichment culture

oxalate enrichment culture

Streptomyces violaceoruber

enrichment culture

oxalate enrichment culture

Variovorax paradoxus

enrichment culture

oxalate enrichment culture

Xanthobacter autotrophicus

enrichment culture

oxalate enrichment culture

Xanthobacter flavus

enrichment culture

oxalate enrichment culture

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

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

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

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

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

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

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

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

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; soil samples are collected below the Ca-oxalate producing trees Milicia excelsa and Afzelia africana and in a similar soil distant from trees; 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

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; 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; 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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

Xanthomonas sp.

formyl-CoA + oxalate

693608

Escherichia coli

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Starkeya novella

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Azospirillum brasilense

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Streptomyces violaceoruber

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Xanthomonas sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Xanthobacter flavus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Cupriavidus oxalaticus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Methylorubrum extorquens

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Methylobacterium organophilum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Variovorax paradoxus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Azospirillum lipoferum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Oxalobacter formigenes

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Cupriavidus necator

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Rhodopseudomonas palustris

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Shigella flexneri

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Streptomyces avermitilis

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Streptomyces coelicolor

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Xanthobacter autotrophicus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Ancylobacter polymorphus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Ancylobacter oerskovii

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Bradyrhizobium japonicum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Methylorubrum thiocyanatum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Pandoraea sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Oxalicibacterium flavum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Bradyrhizobium sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Arquibacter sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Herminiimonas saxobsidens

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Azorhizobium sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Paraburkholderia xenovorans

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Herminiimonas arsenicoxydans

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

Janthinobacterium sp. Marseille

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

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

693608

Cupriavidus necator JMP 134-1

formate + oxalyl-CoA

?

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

Janthinobacterium sp. Marseille

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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.

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

Xanthomonas sp.

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

Ancylobacter polymorphus

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

Azorhizobium sp.

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

Azospirillum lipoferum

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

Bradyrhizobium sp.

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

Cupriavidus oxalaticus

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

Herminiimonas arsenicoxydans

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

Janthinobacterium sp. Marseille

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

Methylorubrum extorquens

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

Oxalicibacterium flavum

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

Pandoraea 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

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

Starkeya novella

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

Streptomyces violaceoruber

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

Xanthobacter autotrophicus

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

Xanthomonas sp.

expression in Escherichia coli XL1

Ancylobacter oerskovii

expression in Escherichia coli XL1

Ancylobacter polymorphus

expression in Escherichia coli XL1

Arquibacter sp.

expression in Escherichia coli XL1

Azorhizobium sp.

expression in Escherichia coli XL1

Azospirillum brasilense

expression in Escherichia coli XL1

Azospirillum lipoferum

expression in Escherichia coli XL1

Bradyrhizobium japonicum

expression in Escherichia coli XL1

Bradyrhizobium sp.

expression in Escherichia coli XL1

Cupriavidus necator

expression in Escherichia coli XL1

Cupriavidus oxalaticus

expression in Escherichia coli XL1

Escherichia coli

expression in Escherichia coli XL1

Herminiimonas arsenicoxydans

expression in Escherichia coli XL1

Herminiimonas saxobsidens

expression in Escherichia coli XL1

Janthinobacterium sp. Marseille

expression in Escherichia coli XL1

Methylobacterium organophilum

expression in Escherichia coli XL1

Methylorubrum extorquens

expression in Escherichia coli XL1

Methylorubrum thiocyanatum

expression in Escherichia coli XL1

Oxalicibacterium flavum

expression in Escherichia coli XL1

Oxalobacter formigenes

expression in Escherichia coli XL1

Pandoraea sp.

expression in Escherichia coli XL1

Paraburkholderia xenovorans

expression in Escherichia coli XL1

Rhodopseudomonas palustris

expression in Escherichia coli XL1

Shigella flexneri

expression in Escherichia coli XL1

Starkeya novella

expression in Escherichia coli XL1

Streptomyces avermitilis

expression in Escherichia coli XL1

Streptomyces coelicolor

expression in Escherichia coli XL1

Streptomyces violaceoruber

expression in Escherichia coli XL1

Variovorax paradoxus

expression in Escherichia coli XL1

Xanthobacter autotrophicus

expression in Escherichia coli XL1

Xanthobacter flavus

expression in Escherichia coli XL1

Xanthomonas sp.

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

?

enrichment culture

oxalate enrichment culture

Ancylobacter oerskovii

enrichment culture

oxalate enrichment culture

Ancylobacter polymorphus

enrichment culture

oxalate enrichment culture

Arquibacter sp.

enrichment culture

oxalate enrichment culture

Azorhizobium sp.

enrichment culture

oxalate enrichment culture

Azospirillum brasilense

enrichment culture

oxalate enrichment culture

Azospirillum lipoferum

enrichment culture

oxalate enrichment culture

Bradyrhizobium japonicum

enrichment culture

oxalate enrichment culture

Bradyrhizobium sp.

enrichment culture

oxalate enrichment culture

Cupriavidus necator

enrichment culture

oxalate enrichment culture

Cupriavidus oxalaticus

enrichment culture

oxalate enrichment culture

Escherichia coli

enrichment culture

oxalate enrichment culture

Herminiimonas arsenicoxydans

enrichment culture

oxalate enrichment culture

Herminiimonas saxobsidens

enrichment culture

oxalate enrichment culture

Janthinobacterium sp. Marseille

enrichment culture

oxalate enrichment culture

Methylobacterium organophilum

enrichment culture

oxalate enrichment culture

Methylorubrum extorquens

enrichment culture

oxalate enrichment culture

Methylorubrum thiocyanatum

enrichment culture

oxalate enrichment culture

Oxalicibacterium flavum

enrichment culture

oxalate enrichment culture

Oxalobacter formigenes

enrichment culture

oxalate enrichment culture

Pandoraea sp.

enrichment culture

oxalate enrichment culture

Paraburkholderia xenovorans

enrichment culture

oxalate enrichment culture

Rhodopseudomonas palustris

enrichment culture

oxalate enrichment culture

Shigella flexneri

enrichment culture

oxalate enrichment culture

Starkeya novella

enrichment culture

oxalate enrichment culture

Streptomyces avermitilis

enrichment culture

oxalate enrichment culture

Streptomyces coelicolor

enrichment culture

oxalate enrichment culture

Streptomyces violaceoruber

enrichment culture

oxalate enrichment culture

Variovorax paradoxus

enrichment culture

oxalate enrichment culture

Xanthobacter autotrophicus

enrichment culture

oxalate enrichment culture

Xanthobacter flavus

enrichment culture

oxalate enrichment culture

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

Xanthomonas sp.

formyl-CoA + oxalate

693608

Escherichia coli

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Starkeya novella

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Azospirillum brasilense

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Streptomyces violaceoruber

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Xanthomonas sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Xanthobacter flavus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Cupriavidus oxalaticus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Methylorubrum extorquens

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Methylobacterium organophilum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Variovorax paradoxus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Azospirillum lipoferum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Oxalobacter formigenes

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Cupriavidus necator

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Rhodopseudomonas palustris

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Shigella flexneri

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Streptomyces avermitilis

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Streptomyces coelicolor

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Xanthobacter autotrophicus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Ancylobacter polymorphus

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Ancylobacter oerskovii

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Bradyrhizobium japonicum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Methylorubrum thiocyanatum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Pandoraea sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Oxalicibacterium flavum

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Bradyrhizobium sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Arquibacter sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Herminiimonas saxobsidens

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Azorhizobium sp.

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Paraburkholderia xenovorans

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

Herminiimonas arsenicoxydans

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

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

693608

Janthinobacterium sp. Marseille

formate + oxalyl-CoA

?

formyl-CoA + oxalate

693608

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

693608

Cupriavidus necator JMP 134-1

formate + oxalyl-CoA

?

739759

Herve

Diversity and ecology of oxalo ...

World J. Microbiol. Biotechnol.

726452

Mullins

Formyl-coenzyme A (CoA):oxalat ...

Protein Sci.

692851

Toyota

Differential substrate specifi ...

J. Bacteriol.

693216

Berthold

Reinvestigation of the catalyt ...

J. Biol. Chem.

674225

Turroni

Oxalate consumption by lactoba ...

J. Appl. Microbiol.

692373

Lewanika

Lactobacillus gasseri Gasser A ...

FEMS Microbiol. Ecol.

692677

Ye

Stable expression of the oxc a ...

Int. J. Mol. Med.

671452

Azcarate-Peril

Transcriptional and functional ...

Appl. Environ. Microbiol.

662253

Jonsson

Kinetic and mechanistic charac ...

J. Biol. Chem.

645962

Ricagno

Crystallization and preliminar ...

Acta Crystallogr. Sect. D

645963

Ricagno

Formyl-CoA transferase enclose ...

EMBO J.

645961

Sidhu

DNA sequencing and expression ...

J. Bacteriol.

645960

Baetz

Localization of oxalyl-coenzym ...

Syst. Appl. Microbiol.

645959

Baetz

Purification and characterizat ...

J. Bacteriol.