|
|
 |
|
Pioneers in the industry, we offer Tetrafluoborate Chemical such as Ammonium Tetrafluoborate, Ferrous Tetrafluoborate, Iron Tetrafluoborate, Lithium Tetrafluoborate, Potassium Tetrafluoborate, Sodium Tetrafluoborate and many more items from India.
|
|
| 
| Ammonium Tetrafluoborate CAS No 1303-96-4 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Ferrous Tetrafluoborate CAS No 15283-51-9 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Iron Tetrafluoborate CAS No 15283-51-9 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Lithium Tetrafluoborate CAS No 14283-07-9 Application / Uses Preparation Lithium tetrafluoborate is a chemical compound with the formula LiBF4. It can be dissolved in propylene carbonate, dimethoxyethane, and/or gamma-butyrolactone for use as an electrolyte in lithium batteries.
| 
| 
| Potassium Tetrafluoborate CAS No 14075-53-7 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Sodium Tetrafluoborate CAS No 13755-29-8 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Zinc Tetrafluoborate CAS No 13826-88-5 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Ammonium Tetrafluoroborate CAS No 13826-83-0 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Ferrous Tetrafluoroborate CAS No 15283-51-9 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Iron Tetrafluoroborate CAS No 15283-51-9 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Lithium Tetrafluoroborate CAS No 14283-07-9 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Potassium Tetrafluoroborate CAS No 14075-53-7 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Sodium Tetrafluoroborate CAS No 13755-29-8 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
| 
| Zinc Tetrafluoroborate CAS No 13826-88-5 Application / Uses Preparation The utility of BF4− arises because its salts are often more soluble in organic solvents than the related nitrate or halide salts. Furthermore, BF4− is less nucleophilic and basic than nitrates and halides. Thus, when using salts of BF4−, one can usually assume that the cation is the reactive agent and this tetrahedral anion is inert.
| 
|