Reversed Phase
- 1: Comparison of STYROS™ 1R and 2R with a Silica C4 Stationary Phase.
- 2: Fast Protein Separation on STYROS™ 1R and 2R.
- 3: Comparison of STYROS™ 1R/XP and 1R/XH.
- 4: Separation of Angiotensin Variants at Basic pH.
- 5: High Performance Separation of Proteins on STYROS™ 1R/NB
- 6: Ultra Fast Separation of Proteins on Narrow Bore Columns.
- 25: Fast Detection of XELODA (Capecitabine) in Urine Sample with STYROS™ 2R/XH.
- 33: ADRIAMYCIN: Detection in Urine Sample with STYROS™ 2R/XH
- 35: NAVELBINE: Fast Detection in Urine Sample with STYROS™ 2R/XH.
- 40: Hydrophobic Interaction Chromatography compared with Polymeric Reversed Phase: STYROS™ HIC-Butyl versus STYROS™ 2R.
- 49: STYROS™ 3R Simulated Monolith Polymeric Reversed Phase.
- 50: STYROS™ 3R Simulated Monolith Polymeric Reversed Phase: Standard Separation of 6 Small Molecules
- 58: STYROS™ 3R Simulated Monolith™ Polymeric Reversed Phase: Loadability Study, Comparison with Silica Reversed Phases
- 91: STYROS™ 3R Simulated Monolith™ Polymeric Reversed Phase. Protein Standard Separation at High Linear Velocity
- 108: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Comparing Narrow Bore column with a standard Bore of 4.6 mm ID
- 109: STYROS® Simulated-Monolith™ Polymeric Reversed Phase. Fast convective channels of monolith to separate different size molecules in a mixture
- 110: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Separation of 5 peptides on Narrow Bore column of 2.1 mm ID. Acidic and Basic pH’s
- 111: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Separation of 5 peptides on Micro Bore column of 1 mm ID. Acidic and Basic pH’s
- 112: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Separation of 5 proteins standard on Micro Bore column of 1 mm ID. Comparison with Narrow Bore of 2.1 mm ID
- 113: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Separation of 4 proteins standard on Capillary column of 0.5 mm ID. Comparison with Micro Bore of 1 mm ID
- 114: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Separation of 4 parabens on Capillary column of 0.5 mm ID. Comparison with Micro Bore of 1 mm ID
- 115: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase: Assessment of columns from different manufacturers
- 116: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Separation of 9 Phenones on Capillary column of 0.5 mm ID
- 117: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Separation of 9 Phenones on Micro Bore column of 1 mm ID
- 118: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Separation of 9 Phenones on Narrow Bore column of 2.1 mm ID
- 119: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Use of Micro Bore column of 1 mm ID using high and low pH’s to separate Sulfa drugs and precursor
- 120: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Use of Capillary column of 0.5 mm ID using high and low pH’s to separate Sulfa drugs and precursor
- 121: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Use of Narrow Bore column of 2.1 mm ID using high and low pH’s to separate Sulfa drugs and precursor
- 122: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Use of Narrow Bore column of 2.1 mm ID using high pH’s to separate 5 Chlorophenols
- 123: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Advantages of using Narrow Bore instead of Normal Bore columns for LC separations.
- 125: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase. Advantages of using Narrow Bore instead of Normal Bore columns for LC separations.
- 126: STYROS® 2R Simulated-Monolith™ Polymeric Reversed Phase Narrow Bore: Comparison with the narrow bore column of the leading manufacturer.
Anion Exchanger
- 7: Quality Control of Proteins of Different Lots from the Same Supplier.
- 8: Assessing Proteins Across Grades and Suppliers.
- 9: Polymeric Hard Gel Media-HPLC vs. Soft Gel-FPLC in the Separation of Biomolecules.
- 10: Fast Separation of Protein Isoforms with Fully Porous Hard Gel Media: Hemoglobins.
- 11: Polymeric Gigaporous Strong Anion Exchangers: Bead Size Distribution versus Pore Size Distribution.
- 13: High Speed Resolution: Efficient Use of Long, Narrow-bore Columns.
- 16: Polymeric Gigaporous Anion Exchanger: Throughpores versus Superficial Pores.
- 17: Polymeric Gigaporous Anion Exchanger : Performance at Low Flow Rates.
- 18: Separation of Small Molecules on STYROS™ Q/XH.
- 23: Fast Separation of IgG on STYROS™ HQ: High Capacity Polymeric Gigaporous Strong Anion Exchanger.
- 24: Fast Separation of IgG, IgA and IgM on STYROS™ DEAE/NB: Narrow Bore Weak Anion Exchanger.
- 37: Separation of Aprotinin from apo-Transferrin and Hexokinase on Polymeric Hard Gel Anion Exchange Columns.
- 38: Aprotinin Purity Test on STYROS™ Anion and Cation Exchanger. Polymeric Hard Gel Stationary Phase.
- 46: Separation of Hen Egg White Proteins: STYROS™ HQ Compared with Mono Q
- 48: Low Salt Separations on Shielded Weak Anion Exchanger: STYROS™ SWAX
- 59: Quaternary Amino Methyl (HQ) Anion Exchanger: Comparison with Mono Q
- 60: Quaternary Amino Methyl (HQ) Anion Exchanger: Beyond Mono Q
- 61: Quaternary Amino Ethyl (QAE) Anion Exchanger: Column Lenght
- 62: Quaternary Amino Ethyl (QAE) Anion Exchanger: Comparison with Quaternary Amino Methl (HQ)
- 79: STYROS™ HQ Simulated Monolith™ Polymeric: Separation of Protein Mixtures
- 80: STYROS™ HQ Simulated Monolith™ Polymeric: Loading Study
- 81: Practical Use of STYROS™ HQ Simulated Monolith™ Polymeric In the Separation of Hemoglobin Variants
- 82: Separation of Soybean Trypsin Inhibitor wiht STYROS™ HQ Simulated Monolith™ Polymeric
- 83: Practical Use of STYROS™ HQ Simulated Monolith™ Polymeric In the Separation of OVA Variants
- 84: Practical Use of STYROS™ HQ Simulated Monolith™ Polymeric In the Separation of Hemoglobin and Methemoglobin
- 85: Use of STYROS™ HQ Simulated Monolith™ Polymeric in the Quality Control of Incoming Lots
- 86: STYROS™ HQ Simulated Monolith™ Polymeric. Importance of Column Length
- 87: Practical Use of STYROS™ HPA Simulated Monolith™ Polymeric In the Separation of OVA Variants
- 88: Practical Use of STYROS™ HPA Simulated Monolith™ Polymeric In the Separation of Hemoglobin Variants
- 89: Practical Use of STYROS™ HPA Simulated Monolith™ Polymeric In the Separation of Hemoglobin and Methemoglobin
- 90: Comparison of STYROS™ HPA Anion Exchanger with STYROS™ 3R Reversed Phase In the Assessment of Commercial OVA
- 97: Separation of Pancreatin on STYROS™ HPA (High Capacity Weak Anion Exchanger): Column Length
- 98: Separation of Pancreatin on STYROS™ DEAE (Weak Anion Exchanger, Diethyaminoethyl ):Simulated-Monolith™ and Column Length
- 99: Separation of Pancreatin on STYROS™ HQ (Strong Anion Exchanger ): Simulated-Monolith™ and Column Length
- 100: Separation of Pancreatin on STYROS™ QAE (Strong Anion Exchanger ): Simulated-Monolith™ and Column Length
- 101: Separation of Pancreatin on STYROS™ Q (Strong Anion Exchanger ): Simulated-Monolith™ and Column Length
- 102: Separation of Pancreatin on STYROS™ PA (Weak Anion Exchanger ): Simulated-Monolith™ andColumn Length
Cation Exchanger
- 12: Polymeric Gigaporous Strong Cation Exchangers: Bead Size Distribution versus Pore Size Distribution.
- 14: Polymeric Gigaporous Strong Cation Exchangers: Effect of Capacity on Protein Resolution.
- 15: Separation of IgG from Albumins in Commercial Production.
- 19: Resolving Efficiency of Longer Columns: case application with medium capacity cation exchanger.
- 22: Separation of Cytochrome c Isoform on STYROS™ SE: Strong cation exchanger.
- 38: Aprotinin Purity Test on STYROS™ Anion and Cation Exchanger. Polymeric Hard Gel Stationary Phase.
- 92: STYROS™ SP Simulated Monolith™ Strong Cation Exchangers: Loadability and Linear Velocity
- 93: STYROS™ SP Simulated Monolith™ Strong Cation Exchangers: Longer Columns for Added Resolution
- 94: STYROS™ SP Simulated Monolith™ Strong Cation Exchanger Compared to CM Simulated Monolith™ Weak Cation Exchanger
- 95: STYROS™ SP Simulated Monolith™ Strong Cation Exchanger Compared to CM Simulated Monolith™ Weak Cation Exchanger. Sequence of Protein Elution
- 96: STYROS™ Simulated-Monolith.. Choice of the Right Column.
Affinity
- 20: Metal Chelate Liquid Chromatography on Hard Gel Gigaporous Polymeric Media: Comparison with Soft Gel.
- 21: Metal Chelate Liquid Chromatography on Hard Gel Gigaporous Polymeric Media: Tri-dentate IDA versus Five-dentate TED
- 32: Rapid isolation of IgG From Human Serum on STYROS™ rA (Immobilized Recombinant Protein A on Simulated Monolith™ Polymeric Stationary Phase).
- 34: Immobilized Protein rA on Polymeric Porous Hard Gel (STYROS™ rA): Comparison with Sepharose rA.
- 65: Quantitation of Monoclonal Antibodies with Immobilized Protein rA on Simulated Monolith™ Polymeric STYROS™
- 66: Assessing Monoclonal Antibodies (mAB) with Immobilized Protein rA on Simulated Monolith™ Polymeric STYROS™: Dynamic Capacity.
Enzyme Columns
- 26: StyrosZyme™ TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Stationary Phase: Online Digestion of Lysozyme in 5 minutes.
- 27: StyrosZyme™ TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Stationary Phase: Online Digestion of Insulin Oxidized B-chain in 16 minutes.
- 28: StyrosZyme™ Pepsin, Immobilized Enzyme on Polymeric Hard Gel Stationary Phase: On line digestion of Cytochrome c From Horse Heart and Bovine Heart.
- 31: StyrosZyme™ Papain, Immobilized Enzyme on Simulated Monolith Polymeric Stationary Phase: Effect of Temperature and Linear Velocity on Online Digestion.
- 36: On Line Affinity capture of APROTININ on StyrosZyme™ TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Stationary Phase.
- 39: StyrosZyme™ Pepsin. Immobilized Enzyme on Polymeric Hard Gel Stationary Phase: On line digestion at 0 °C and pH 2.5.
- 63: StyrosZyme™ Pepsin, Immobilized Enzyme on Polymeric Hard Gel Stationary Phase: On line digestion of Cytochrome c From Horse Heart and Bovine Heart. Alternative
- 64: StyrosZyme™ Pepsin, Immobilized Enzyme on Polymeric Hard Gel Stationary Phase: On line digestion of Cytochrome c and Myoglobin From Horse Heart.
- 124: StyrosZyme® Pepsin, Immobilized Enzyme on Simulated-Monolith™ Polymeric Hard Gel: Full on line digestion of a of solution of 10 µl of 10 mg/ml protein.
- 132: StyrosZyme® TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Simulated-Monolith™. Automation of the Digestion and Mapping of Cytochrome c.
- 133: StyrosZyme® TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Simulated-Monolith™. Effect of Different Variables on Automated Digestion.
- 134: Automated Digestion with StyrosZyme® TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Simulated-Monolith™. Effect of Linear Velocity and Column Length on the Digestion of Oxidized Insulin B Chain.
- 135: Automated Digestion with StyrosZyme® TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Simulated-Monolith™. Stability of the Enzyme Reactor in Yielding Reproducible Results in Automation.
- 136:Automated Digestion with StyrosZyme® TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Simulated-Monolith™. Digestion and mapping of 3 µg of protein on Narrow Bore column.
- 137: Automated Digestion with StyrosZyme® TPCK-Trypsin, Immobilized Enzyme on Polymeric Hard Gel Simulated-Monolith™. Digestion and mapping of 10 µg of Lysozyme on Narrow Bore column.
HIC (Hydrophobic Interaction Chromatography)
- 29: SIMULATED MONOLITH™: Fast Separations with HIC (Hydrophobic Interaction Chromatography)
- 30: SIMULATED MONOLITH™: Comparison With Non Covalently Coated Polymeric Hard Gel.
- 40: Hydrophobic Interaction Chromatography compared with Polymeric Reversed Phase: STYROS™ HIC-Butyl versus STYROS™ 2R.
- 41: Hydrophobic Interaction Chromatography : Comparison of STYROS™ HIC-Phenyl with Shodex HIC PH-818.
- 42: Reversed Phase Polymeric: Comparison of STYROS™ 2R with Commercial Non Porous Polymeric.
- 43: Hydrophobic Interaction Chromatography: Comparison of STYROS™ HIC-Phenyl with TSKgel Phenyl-5PW from TOSOH.
- 44: Hydrophobic Interaction Chromatography: Comparison of STYROS™ HIC-Butyl with TSKgel Butyl-NPR from TOSOH.
- 45: Hydrophobic Interaction Chromatography: Comparison of STYROS™ HIC-Ether with TSKgel Ether-5PW from TOSOH.
- 67: Hydrophobic Interaction Chromatography: Facts
- 68: Hydrophobic Interaction Chromatography: With Limited Sample.
- 69: Hydrophobic Interaction Chromatography: Desalting and Concentration
- 70: Hydrophobic Interaction Chromatography: Separation of Various Snake Venom.
HILIC & Amino-HILIC (Hydrophylic Interaction Liquid Chromatography)
- 51: STYROS™ Amino HILIC Simulated Monolith Polymeric Normal Phase: Standard Separations.
- 52: STYROS™ Amino HILIC Simulated Monolith™ Polymeric: Separation of Benzoic Acid and Derivatives
- 53: STYROS™ Amino HILIC Simulated Monolith™ Polymeric: Effect of Ionic Strength and Temperature on the Separation of Aromatic Acids
- 54: STYROS™ Amino HILIC Simulated Monolith™ Polymeric: Separation of Angiotensins I, II and III
- 55: STYROS™ HILIC Simulated Monolith™ Polymeric Normal Phase: Standard Separations
- 56: STYROS™ HILIC Simulated Monolith Polymeric Normal Phase: Separation of Aliphatic and Aromatic Acids
- 57: STYROS™ HILIC Simulated Monolith Polymeric Normal Phase: Separation of Nucleotides
- 71: STYROS™ HILIC Simulated Monolith™ Polymeric Normal Phase: Separation of Nucleotdes Intended for MS. No Bleed
- 72: STYROS™ Amino-HILIC Simulated Monolith™ Polymeric Normal Phase: Separation of Purines and Pyrimidines Intended for MS. No Bleed
- 73: STYROS™ Amino-HILIC Simulated Monolith™ Polymeric Normal Phase: Separation of Purines and Pyrimidines on Narrow Bore Columns Intended for MS. No Bleed
- 74: STYROS™ Amino-HILIC Simulated Monolith™ Polymeric Normal Phase: Separation of Uracil and 5-Fluorouracil. Narrow Bore and Normal Bore Columns
- 75: STYROS™ Amino-HILIC Simulated Monolith™ Polymeric Normal Phase: Separation Nucleosides Intended for MS. No Bleed
- 76: STYROS™ HILIC Simulated Monolith™ Polymeric Normal Phase: Separation of Adrenaline and Noradrenaline Intended for MS. No Bleed
- 77: STYROS™ HILIC Simulated Monolith™ Polymeric Normal Phase: Separation of Dopamine and L-Dopa for MS. No Bleed
- 78: STYROS™ HILIC Simulated Monolith™ Polymeric Normal Phase: Separation of Methyladrenaline and Methyldopa Intended for MS.No Bleed