41754-10-3

Usage

Uses

Used in Catalysis:
(6Z)-6-[(1-methylethyl)amino]methylidenecyclohexa-2,4-dien-1-one nickel (2:1) is used as a catalyst for facilitating various chemical reactions. The presence of nickel ions and the organic molecule's structure can enhance the rate of reactions and improve the selectivity of certain products, making it a valuable component in the field of catalysis.
Used in Coordination Chemistry:
In coordination chemistry, (6Z)-6-[(1-methylethyl)amino]methylidenecyclohexa-2,4-dien-1-one nickel (2:1) serves as a model compound for studying the interactions between metal ions and organic ligands. Understanding these interactions can provide insights into the design of new coordination complexes with tailored properties and potential applications in various areas.
Used in Material Science:
Used in Pharmaceutical Industry:
(6Z)-6-[(1-methylethyl)amino]methylidenecyclohexa-2,4-dien-1-one nickel (2:1) is used as a precursor or intermediate in the synthesis of pharmaceutical compounds. The complex's unique structure and reactivity can be exploited to produce novel drugs with potential therapeutic applications.
Used in Environmental Applications:

Upstream product

• 36339-86-3 bis(3,6-dimethylsalicylaldehydato)nickel(II) 
• 75-31-0 isopropylamine 
• 5961-35-3 2-{[(1-methylethyl)imino]methyl}phenol 
• 83864-14-6 nickel dichloride 
• 90-02-8 salicylaldehyde 
• 135609-63-1 2-Isopropyliminomethylphenol 

Relevant academic research and scientific papers

Synthesis, characterization, crystal structure and DNA, HSA-binding studies of four Schiff base complexes derived from salicylaldehyde and isopropylamine

Four new Schiff base complexes (NiL2, CoL2, CuL2 and ZnL2) (HL: ((E)-2-((isopropylamino) methyl) phenol) were synthesized and characterized by CHN elemental analysis, FT-IR and single crystal X-ray diffraction t

Steric and conformational effects on the kinetics of ligand substitution in bis(salicylaldiminato)nickel(II) complexes

Stopped-flow spectrophotometry has been used to study the kinetics of ligand substitution in bis(N-R-salicylaldiminato)nickel(II) complexes I (R = Et, i-Pr, t-Bu) by bidentate ligands HB (acetylacetone, benzoylacetone, dibenzoylmethane, trifluoroacetylacetone, 8-hydroxyquinoline, N-ethylsalicylaldimine) in methanol, 2-propanol, and toluene. A two-term rate law, rate = (kS + kHB[HB])[complex], has been found. The substitution of the first ligand in I is rate determining. Rate constant kS, describing the solvent path, and the corresponding activation parameters ΔH≠ and ΔS≠ do not depend on the nature of the entering ligand for I with R = t-Bu studied in methanol. Rate constant kHB is strongly dependent on the nature of the entering ligand HB. The relative contributions of the two pathways to the overall rate are governed by the conformational equilibrium planar ? tetrahedral of complexes I: the planar isomer favors the ligand-dependent path kHB and the tetrahedral one the solvent path kS. For both pathways mechanisms are derived, which have in common the rate-determining rupture of the Ni-O bond. They differ in that the solvent path is initiated by the attack of an alcohol molecule at the donor oxygen of a coordinated ligand through hydrogen bonding, whereas ligand attack occurs at the metal. The factors influencing the ligand path are the donor ability, acid strength, and stereochemical properties of the entering ligand as well as the Lewis acidity of the substrate. The discussion focuses on a comparison of the nickel system studied with corresponding copper(II) systems and with ligand substitution in square-planar d8 complexes. Additional kinetic information is presented from studies carried out in the solvent mixtures toluene/methanol and toluene/pyridine. The equilibrium constant for the addition of pyridine to complexes I (R = Et, n-Pr, i-Pr, allyl, n-Bu, i-Bu, t-Bu, phenyl) has been determined spectrophotometrically in toluene at 298 K. The individual equilibrium constants for the formation of the mono- (K1) and bis(pyridine) (K2) adduct were calculated (K1 ? K2). The effect of the conformational equilibrium and of self-association on K1 and K2 is discussed.