Table III.
Dataset size | Inputs/variables | Output(s) | Purpose | Reference |
---|---|---|---|---|
125 |
19 variables related to: - the composition of the formulations - the processing conditions |
- Time taken for 10% of the drug to be released - Time taken for 90% of the drug to be released |
Prediction of the most important formulation and processing variables contributing to the in vitro dissolution of sustained-release (SR) minitablets | (70) |
Two datasets: 154 (for synthetic samples) 169 (for pharmaceutical samples) |
- 5 principle components for synthetic samples - 6 principle components for pharmaceutical samples |
Concentrations of 3 vitamins in synthetic and pharmaceutical samples | Prediction of vitamins in synthetic and pharmaceutical samples | (71) |
30 |
3 input variables: - acid concentration - acid solution to chitin ratio - reaction time |
Percentage production yield of glucosamine | Prediction of glucosamine production yield from chitin under various reaction conditions | (72) |
180 |
4 input variables related to different formula ingredients: - Methocel® K100M - xanthan gum - Carbopol® 974P - Surelease® |
In vitro dissolution time profiles at six different sampling times | Development and optimization of sustained-release salbutamol sulfate formulation | (73) |
300 |
5 input variables related to 5 active ingredients and excipients (three physical–chemical properties of active ingredients in addition to two formulation factors): - solubility - mean particle size - specific surface area - the weight ratios of microcrystalline cellulose - the weight ratios of magnesium stearate |
Tablet tensile strength and disintegration time before and after accelerated test | Prediction of responses to differences in quantities of excipients and physical–chemical properties of active ingredients in tablets | (74) |
327 |
6 input variables related to 14 active ingredients: - melting point - solubility - specific surface area - mean particle size - size distribution - contents of APIs |
- Tablet tensile strength - Disintegration time |
Prediction of the contribution of different physicochemical properties of APIs to tablet properties | (75) |
15 |
3 formulation factors: - weight ratio of drug to lipid - the concentration of polymer - the concentration of surfactant |
- Drug loading efficiency - Mean particle size |
Optimization of controlled-release nanoparticle formulation | (76) |
45 |
3 input variables: - chitosan (Cs) concentration - potasodium tripolyphosphate (TPP) concentration - mass ratio of Cs and TPP |
- Nanoparticle size - Percentage yield |
Optimization of formulation parameters of chitosan-tripolyphosphate nanoparticles | (77) |
43 |
7 input variables: - alginate percentage - concentration of CaCl2 solution in the emulsion - percentage of Tween™ 85 in the emulsion - percentage of Tween™ 85 in the receptor bath - flow rates of alginate - flow rates of emulsion - frequency of vibration |
- Shape - Oil content - Oil distribution |
Optimization of encapsulation of active pharmaceutical ingredients (API) for efficient delivery of hydrophobic compounds | (78) |
20 |
3 input variables: - the amounts of drug (pilocarpine hydrochloride) - the amounts of bile salt (sodium deoxycholate) - the amounts of water |
Entrapment efficiency | Optimization of ocular formulation of flexible nano-liposomes containing pilocarpine hydrochloride | (79) |
16 |
3 input variables: - amount of oil - amount of surfactant - amount of co-surfactant |
Minimal globule size | Optimization of self-emulsifying drug delivery system | (80) |
8 |
2 formulation variables: - ratio of carrier to coating - type of solubilizing agent |
Amount of API resealed in 10 min and 30 min | Development of a new liquisolid formulation | (81) |
160 | 160 NIR and Raman spectral data of each of intact tablets | Dissolution of the tablets | Prediction of the in vitro dissolution of pharmaceutical tablets | (82) |
29 |
4 formulation and process variables: - microcrystalline cellulose concentration - sodium starch glycolate concentration - spheronization time - extrusion speed |
- Drug release (at 15 min, 30 min, 45 min, and 60 min) - Aspect ratio - Yield |
Prediction of the effects of formulation and process variables on drug release | (83) |
144 | Amino acid composition of each monoclonal antibody and different formulation conditions (i.e., pH and salt concentrations) |
- Melting temperature - Aggregation onset - Temperature - Interaction parameter |
Prediction of biophysical properties of therapeutic monoclonal antibodies | (84) |
32 |
4 input variables: - concentration of shell material - concentration of core material - type of shell material - type of core material |
- Tensile strength - Brittleness index |
Prediction of powder compact ability of tablets using core/shell technique | (85) |
646 |
24 variables related to: - formulation (including molecular weight, melting point, hydrogen bonding for both drug and polymer) - experimental conditions (including temperature, relative humidity, and storage time) |
Stability results | Prediction of the physical stability of solid dispersions | (86) |