take a aqueous solution cupric salt like copper sulfate , add excess of ammonia to it , as the complex will be formed the color will be deep blue , now add chloroform to it as only ammonia will be soluble in it , ammonia will go in the chloroform layer , now separate the layers using a seperatory funnel and titrate both the layers by using a base and indicator , by taking the difference u will no the amount of copmplexed ammonia and can determine the formula of the copmlex , the answer will be near to 4 molecules of ammonia per ion of copper .
Stoichiometry uses coefficient ratios to relate moles of one molecule to moles of another
Stoichiometry uses coefficient ratios to relate moles of one molecule to moles of another
To determine if the derived rate law for a reaction between chlorine and chloroform is acceptable, you would need to confirm its consistency with experimental data. It should also be based on the stoichiometry of the reaction and any proposed mechanisms. Additionally, the rate law should be able to predict the experimental rate of the reaction under various conditions.
Stoichiometry can determine the theoretical yield of CaSO4 by calculating the ratio of reactants and products in a balanced chemical equation. The actual yield can then be compared to the theoretical yield to determine the percent yield of the reaction.
Yes, you can determine the density of chloroform by measuring its mass and volume using water displacement method. You'll need a known volume of water, measure its initial volume in a graduated cylinder, then add chloroform which will displace the water and measure the final volume. By knowing the mass of chloroform and the change in volume of water, you can calculate the density of chloroform.
Stoichiometry uses coefficient ratios to relate moles of one molecule to moles of another
Stoichiometry uses coefficient ratios to relate moles of one molecule to moles of another
To determine if the derived rate law for a reaction between chlorine and chloroform is acceptable, you would need to confirm its consistency with experimental data. It should also be based on the stoichiometry of the reaction and any proposed mechanisms. Additionally, the rate law should be able to predict the experimental rate of the reaction under various conditions.
Stoichiometry can determine the theoretical yield of CaSO4 by calculating the ratio of reactants and products in a balanced chemical equation. The actual yield can then be compared to the theoretical yield to determine the percent yield of the reaction.
Yes, you can determine the density of chloroform by measuring its mass and volume using water displacement method. You'll need a known volume of water, measure its initial volume in a graduated cylinder, then add chloroform which will displace the water and measure the final volume. By knowing the mass of chloroform and the change in volume of water, you can calculate the density of chloroform.
To determine the stoichiometry of a reaction, you must balance the chemical equation by adjusting the coefficients of the reactants and products so that the number of each type of atom is the same on both sides. This helps in determining the mole ratio of reactants and products involved in the reaction. The coefficients in the balanced equation represent the stoichiometry of the reaction.
In the beginning, no you need not cull the special coefficient
The simplified term is 10x2y so that the coefficient is 10.
The activity coefficient in a solution can be determined by measuring the concentration of the solute and the solvent, and using equations that relate the activity coefficient to these concentrations. Experimental methods such as vapor pressure measurements or conductivity measurements can also be used to determine the activity coefficient.
To determine the volume of 5.0 grams of chloroform, you need the density of chloroform. The density of chloroform is about 1.49 g/mL. You can calculate the volume using the formula: volume = mass / density. Therefore, the volume of 5.0 grams of chloroform would be approximately 3.36 mL.
To determine the stoichiometry of a complex ion, you can use experimental data such as the molar ratios of the reactants or products in a chemical reaction. This information can help you determine the number of ligands attached to the central metal ion in the complex. Additionally, techniques like spectrophotometry and chromatography can be used to analyze the complex and determine its composition.
The volume of a substance cannot be determined solely from its mass. The volume of a substance is dependent on its density and the formula used is: volume = mass / density. To determine the volume of 5.0g of chloroform, you would need to know the density of chloroform.