
The Atlantis family of HPLC columns was created to solve one the most chromatographic problems, retaining polar compunds. Through historical experience and synthetic innovation, Atlantis columns lead the industry in porviding exceptional performance, versatility, retention and chromatographic stability for polar compounds, while also affording balanced retention for broad analtye mixtures. For retention and separation of polar compunds via reversed-phase HPLC, Atlantis T3 columns set the standard for polar compound retention. Atlantis T3 columns are a universal, silica-based, reversed-phase C18 line of HPLC columns that not only retin and separate small, water-soluble polar organic compunds, but also provide superior performance accross a wider pH range. Atlantis columns are the culmination of over 30 years of bonded phase research and are a vast improvement upon the highly successful Atlantis dC18 line of columns. For reversed-phase application, Atlantis T3 columns should be considered the first choice when developing a separation of polar (and non-polar) compounds. The advantages of T3 bonding technology is extended to UPLC in the Acquity UPLC HSS T3 columns.
T3 bonding
The superior performance of Atlantis T3 HPLC columns and the ACQUITY UPLC HSS T3 columns is a result of Waters advanced T3 bonding process. T3 bonding utilizes a trifunctional C18 alkyl phase bonded at a liquid density that promotes polar compound retention and aqueous mobile-phase compatibility. The proprietary T3 endcapping process is much more effective than traditional trimethly-silane (TMS) endcapping.
This unique combination of bonding and endcapping provided superior polar compound retention and aqueous compatibility while also enhancing column performance, lifetime, peak shape and stability.
Long Column Lifetimes at Low pH
The creation of highly retentive, reversed-phase C18 columns for polar compound retention involves bonding at a ligand density that is less hydrophobic and, therefore, more compatible with the weak, highly aqueous mobile phases required for retaining polar compounds. When exposed to strongly acidic mobile phases (i.e.
Atlantis T3 columns resist ligand cleavage by utilizing a trifunctional attachment of the C18 phase to the particle surface, thus providing exceptional column life at low pH.
Improved pH 7 Performance
At pH 7, poor peak shape for amine-containing bases and shortened column lifetimes are encountered when using intermediate ligand density C18 columns designed for polar compound retention. Poor peak shape is due to secondary interactions with unreacted silanols that remain present after bonding and endcapping. The proprietary T3 endcapping procedure reacts with more of these active silanols thereby dramatically improving peak shape for bases. Shortened column lifetimes are due to the dissolution of the silica particle substrate by the high pH mobile phases. The more effective and efficient T3 bonding helps “protect” the silica substrate from dissolution, thus providing longer column lifetime.
Balanced Retention of diverse Analyte mixtures
When faced with the task of analysing a number of compounds encompassing a broad range of popularity, few options exist that will result in adequate retention of polar species without excessive retention of the hydrophic components. In drug discovery, a large number of candidates need to be screened, often with little or no characterisation of their chemical properties. Many polar candidates are often overlooked due to their elution in the void space of the column, while hydrophobic species may be permanently bound to the stationary phase. Atlantis T3 columns are designed to deliver exceptional performance for an expansive range of compound polarities, thus being ideally suited as a universal reversed-phase column for open environments.
ACQUITY UPLC HSS T3 Columns for Polar Compound Retention
ACQUITY UPLC HSS (High Strength Silica) columns contain the first and only 100% silica particle designed, tested and intended for use in applications up to 15000psi/1000bar. The ACQUITY UPLC HSS particle is not an HPLC particle. High pore volume HPLC particle do not possess the operating pressures of UPLC separations. The first ligand chemistry in this new UPLC-certified column family utilises T3 bonding in order t retain and separate polar organic compounds. ACQUITY UPLC HSS T3 columns possess the superior polar-compound retention, aqueous mobile-phase compatibility and ultra-low MS bleed of Atlantis T3 columns.
Easier Method Transfer
Since Atlantis T3 HPLC and ACQUITY UPLC BEH columns is nearly seamless, as the hybrid particle substrates differ only in particle size. However, because of T3 bonding it should be straightforward to make simple adjustments to successfully transfer a separation from an Atlantis T3 HPLC column to an ACQUITY UPLC HSS T3 column.
Atlantis HILIC Silica
Hydrophilic-Interaction Chromatography (HILIC)
HILIC is an alternative chromatographic technique that offers complementary selectivity to RP and often retains very polar species that cannot be retained by traditional means. Atlantis HILIC Silica columns were designed to retain very polar, organic molecules that are too polar to retain by RP. Unlike the highly aqueous mobile phases required for polar retention in RP separations. Atlantis HILIC Silica columns employ highly volatile (>80% organic) mobile phases which are ideal for mass spectrometry (MS) response and sensitivity. Additionally, direct compatibility with high organic SPE elutes dramatically increases the number of samples the can be handled, thus substantially increasing sample throughput. HILIC retention mechanisms are a complex combination of partitioning, ion-exchange and hydrogen bonding, resulting in enhanced retention for polar analytes. Atlantis HILIC Silica columns, used in combination with high organic (>80% acetonitrile) mobile phases, result in retention of analytes that are simply too polar to retain by traditional RP chromatography.
Enhanced Mass Spectrometry Response
Utilisation of HILIC has grown in popularity, primarily due to the extensive adoption of mass spectrometry as a detector and the necessity of improving sensitivity for the quantitation of polar analytes. Unlike reversed-phase which utilises high aqueous mobile phases to induce retention, HILIC employs an aceteonitrile-rich mobile phase. This high organic mobile phase is easily deslovated, resulting in improved ionisation efficiency and mass spectrometry response. For these reasons, HILIC has become a popular technique for bioanalytical laboratories.
| Part No. |
Description |
|
|
|
|
|
|
Price |
| 186003715 |
Atlantis dT3 |
3 |
μm |
2.1 |
x |
20 |
mm; |
Enquire |
| Part No. |
Description |
dc18 |
|
|
|
|
|
Price |
| 186001279 |
Atlantis dC18 |
3 |
μm |
1 |
x |
50 |
mm; |
Enquire |
| 186001283 |
Atlantis dC18 |
3 |
μm |
1 |
x |
150 |
mm; |
Enquire |
| 186001287 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
30 |
mm; |
Enquire |
| 186001291 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
50 |
mm; |
Enquire |
| 186001295 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
100 |
mm; |
Enquire |
| 186001299 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
150 |
mm; |
Enquire |
| 186001303 |
Atlantis dC18 |
3 |
μm |
3 |
x |
100 |
mm; |
Enquire |
| 186001307 |
Atlantis dC18 |
3 |
μm |
3 |
x |
150 |
mm; |
Enquire |
| 186001317 |
Atlantis dC18 |
3 |
μm |
3.9 |
x |
150 |
mm; |
Enquire |
| 186001325 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
30 |
mm; |
Enquire |
| 186001329 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
50 |
mm; |
Enquire |
| 186001333 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
75 |
mm; |
Enquire |
| 186001337 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
100 |
mm; |
Enquire |
| 186001342 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186001385 |
Atlantis dC18 |
3 |
μm |
3.9 |
x |
50 |
mm; |
Enquire |
| 186001389 |
Atlantis dC18 |
3 |
μm |
3 |
x |
50 |
mm; |
Enquire |
| 186001393 |
Atlantis dC18 |
3 |
μm |
3.9 |
x |
100 |
mm; |
Enquire |
| 186002058 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
20 |
mm; |
Enquire |
| 186002060 |
Atlantis dC18 |
3 |
μm |
3 |
x |
20 |
mm; |
Enquire |
| 186002062 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186002064 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
15 |
mm |
Enquire |
| 186002312 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186001313 |
Atlantis dC18 |
3 |
μm |
3.9 |
x |
20 |
mm; |
Enquire |
| 186001321 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186001377 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
10 |
mm; |
Enquire |
| 186001381 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
20 |
mm; |
Enquire |
| 186001281 |
Atlantis dC18 |
5 |
μm |
1 |
x |
50 |
mm; |
Enquire |
| 186001285 |
Atlantis dC18 |
5 |
μm |
1 |
x |
150 |
mm; |
Enquire |
| 186001289 |
Atlantis dC18 |
5 |
μm |
2.1 |
x |
30 |
mm; |
Enquire |
| 186001293 |
Atlantis dC18 |
5 |
μm |
2.1 |
x |
50 |
mm; |
Enquire |
| 186001297 |
Atlantis dC18 |
5 |
μm |
2.1 |
x |
100 |
mm; |
Enquire |
| 186001301 |
Atlantis dC18 |
5 |
μm |
2.1 |
x |
150 |
mm; |
Enquire |
| 186001305 |
Atlantis dC18 |
5 |
μm |
3 |
x |
100 |
mm; |
Enquire |
| 186001309 |
Atlantis dC18 |
5 |
μm |
3 |
x |
150 |
mm; |
Enquire |
| 186001311 |
Atlantis dC18 |
5 |
μm |
3 |
x |
250 |
mm; |
Enquire |
| 186001319 |
Atlantis dC18 |
5 |
μm |
3.9 |
x |
150 |
mm; |
Enquire |
| 186001327 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
30 |
mm; |
Enquire |
| 186001331 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
50 |
mm; |
Enquire |
| 186001335 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
75 |
mm; |
Enquire |
| 186001340 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
100 |
mm; |
Enquire |
| 186001344 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186001346 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
250 |
mm; |
Enquire |
| 186001361 |
Atlantis dC18 |
5 |
μm |
19 |
x |
10 |
mm; |
Enquire |
| 186001387 |
Atlantis dC18 |
5 |
μm |
3.9 |
x |
50 |
mm; |
Enquire |
| 186001391 |
Atlantis dC18 |
5 |
μm |
3 |
x |
50 |
mm; |
Enquire |
| 186001395 |
Atlantis dC18 |
5 |
μm |
3.9 |
x |
100 |
mm; |
Enquire |
| 186002059 |
Atlantis dC18 |
5 |
μm |
2.1 |
x |
20 |
mm; |
Enquire |
| 186002061 |
Atlantis dC18 |
5 |
μm |
3 |
x |
20 |
mm; |
Enquire |
| 186002063 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186002065 |
Atlantis dC18 |
5 |
μm |
2.1 |
x |
15 |
mm; |
Enquire |
| 186002298 |
Atlantis dC18 |
5 |
μm |
10 |
x |
50 |
mm; |
Enquire |
| 186002299 |
Atlantis dC18 |
5 |
μm |
10 |
x |
100 |
mm; |
Enquire |
| 186002300 |
Atlantis dC18 |
5 |
μm |
10 |
x |
10 |
mm; |
Enquire |
| 186002311 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186002313 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
250 |
mm; |
Enquire |
| 186001315 |
Atlantis dC18 |
5 |
μm |
3.9 |
x |
20 |
mm; |
Enquire |
| 186001323 |
Atlantis dC18 |
5 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186001379 |
Atlantis dC18 |
5 |
μm |
2.1 |
x |
10 |
mm; |
Enquire |
| 186001383 |
Atlantis dC18 |
5 |
μm |
2.1 |
x |
20 |
mm; |
Enquire |
| 186001363 |
Atlantis dC18 |
10 |
μm |
19 |
x |
10 |
mm; |
Enquire |
| 186002452 |
Atlantis dC18 |
10 |
μm |
10 |
x |
10 |
mm; |
Enquire |
| 186002453 |
Atlantis dC18 |
10 |
μm |
10 |
x |
150 |
mm; |
Enquire |
| 186002454 |
Atlantis dC18 |
10 |
μm |
10 |
x |
250 |
mm; |
Enquire |
| 186004030 |
Atlantis dC18 |
5 |
μm |
19 |
x |
250 |
mm; |
Enquire |
| Part No. |
Description |
hilic |
|
|
|
|
|
Price |
| 186002003 |
Atlantis HILIC |
3 |
μm |
1 |
x |
50 |
mm; |
Enquire |
| 186002009 |
Atlantis HILIC |
3 |
μm |
2.1 |
x |
30 |
mm; |
Enquire |
| 186002011 |
Atlantis HILIC |
3 |
μm |
2.1 |
x |
50 |
mm; |
Enquire |
| 186002013 |
Atlantis HILIC |
3 |
μm |
2.1 |
x |
100 |
mm; |
Enquire |
| 186002015 |
Atlantis HILIC |
3 |
μm |
2.1 |
x |
150 |
mm; |
Enquire |
| 186002017 |
Atlantis HILIC |
3 |
μm |
3 |
x |
50 |
mm; |
Enquire |
| 186002019 |
Atlantis HILIC |
3 |
μm |
3 |
x |
100 |
mm; |
Enquire |
| 186002025 |
Atlantis HILIC |
3 |
μm |
4.6 |
x |
30 |
mm; |
Enquire |
| 186002027 |
Atlantis HILIC |
3 |
μm |
4.6 |
x |
50 |
mm; |
Enquire |
| 186002029 |
Atlantis HILIC |
3 |
μm |
4.6 |
x |
100 |
mm; |
Enquire |
| 186002031 |
Atlantis HILIC |
3 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186002005 |
Atlantis HILIC |
3 |
μm |
2.1 |
x |
10 |
mm; |
Enquire |
| 186002021 |
Atlantis HILIC |
3 |
μm |
3.9 |
x |
20 |
mm; |
Enquire |
| 186002023 |
Atlantis HILIC |
3 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186002007 |
Atlantis HILIC |
3 |
μm |
2.1 |
x |
15 |
mm; |
Enquire |
| 186002315 |
Atlantis HILIC |
3 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186002004 |
Atlantis HILIC |
5 |
μm |
1 |
x |
50 |
mm; |
Enquire |
| 186002010 |
Atlantis HILIC |
5 |
μm |
2.1 |
x |
30 |
mm; |
Enquire |
| 186002012 |
Atlantis HILIC |
5 |
μm |
2.1 |
x |
50 |
mm; |
Enquire |
| 186002014 |
Atlantis HILIC |
5 |
μm |
2.1 |
x |
100 |
mm; |
Enquire |
| 186002016 |
Atlantis HILIC |
5 |
μm |
2.1 |
x |
150 |
mm; |
Enquire |
| 186002018 |
Atlantis HILIC |
5 |
μm |
3 |
x |
50 |
mm; |
Enquire |
| 186002020 |
Atlantis HILIC |
5 |
μm |
3 |
x |
100 |
mm; |
Enquire |
| 186002026 |
Atlantis HILIC |
5 |
μm |
4.6 |
x |
30 |
mm; |
Enquire |
| 186002028 |
Atlantis HILIC |
5 |
μm |
4.6 |
x |
50 |
mm; |
Enquire |
| 186002030 |
Atlantis HILIC |
5 |
μm |
4.6 |
x |
100 |
mm; |
Enquire |
| 186002032 |
Atlantis HILIC |
5 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186002033 |
Atlantis HILIC |
5 |
μm |
4.6 |
x |
250 |
mm; |
Enquire |
| 186003959 |
Atlantis HILIC |
5 |
μm |
19 |
x |
150 |
mm; |
Enquire |
| 186003960 |
Atlantis HILIC |
5 |
μm |
30 |
x |
50 |
mm; |
Enquire |
| 186003961 |
Atlantis HILIC |
5 |
μm |
30 |
x |
100 |
mm; |
Enquire |
| 186003962 |
Atlantis HILIC |
5 |
μm |
30 |
x |
150 |
mm; |
Enquire |
| 186002006 |
Atlantis HILIC |
5 |
μm |
2.1 |
x |
10 |
mm; |
Enquire |
| 186002022 |
Atlantis HILIC |
5 |
μm |
3.9 |
x |
20 |
mm; |
Enquire |
| 186002024 |
Atlantis HILIC |
5 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186003956 |
Atlantis HILIC |
5 |
μm |
19 |
x |
10 |
mm; |
Enquire |
| 186003957 |
Atlantis HILIC |
5 |
μm |
19 |
x |
50 |
mm; |
Enquire |
| 186003958 |
Atlantis HILIC |
5 |
μm |
19 |
x |
100 |
mm; |
Enquire |
| 186002008 |
Atlantis HILIC |
5 |
μm |
2.1 |
x |
15 |
mm; |
Enquire |
| 186002314 |
Atlantis HILIC |
5 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186002316 |
Atlantis HILIC |
5 |
μm |
4.6 |
x |
250 |
mm; |
Enquire |
| Part No. |
Description |
obd |
|
|
|
|
|
Price |
| 186001365 |
Atlantis OBD |
5 |
μm |
19 |
x |
50 |
mm; |
Enquire |
| 186001367 |
Atlantis OBD |
5 |
μm |
19 |
x |
100 |
mm; |
Enquire |
| 186001373 |
Atlantis OBD |
5 |
μm |
30 |
x |
50 |
mm; |
Enquire |
| 186001375 |
Atlantis OBD |
5 |
μm |
30 |
x |
100 |
mm; |
Enquire |
| 186002455 |
Atlantis OBD |
5 |
μm |
30 |
x |
75 |
mm; |
Enquire |
| 186002800 |
Atlantis OBD |
5 |
μm |
19 |
x |
150 |
mm; |
Enquire |
| 186002801 |
Atlantis OBD |
5 |
μm |
30 |
x |
150 |
mm; |
Enquire |
| 186003696 |
Atlantis OBD |
5 |
μm |
19 |
x |
50 |
mm; |
Enquire |
| 186003697 |
Atlantis OBD |
5 |
μm |
19 |
x |
100 |
mm; |
Enquire |
| 186003698 |
Atlantis OBD |
5 |
μm |
19 |
x |
150 |
mm; |
Enquire |
| 186003700 |
Atlantis OBD |
5 |
μm |
30 |
x |
50 |
mm; |
Enquire |
| 186003701 |
Atlantis OBD |
5 |
μm |
30 |
x |
75 |
mm; |
Enquire |
| 186003702 |
Atlantis OBD |
5 |
μm |
30 |
x |
100 |
mm; |
Enquire |
| 186003703 |
Atlantis OBD |
5 |
μm |
30 |
x |
150 |
mm; |
Enquire |
| 186001369 |
Atlantis OBD |
10 |
μm |
19 |
x |
150 |
mm; |
Enquire |
| 186001371 |
Atlantis OBD |
10 |
μm |
19 |
x |
250 |
mm; |
Enquire |
| 186002417 |
Atlantis OBD |
10 |
μm |
30 |
x |
150 |
mm; |
Enquire |
| 186002418 |
Atlantis OBD |
10 |
μm |
30 |
x |
250 |
mm; |
Enquire |
| 186003707 |
Atlantis OBD |
10 |
μm |
19 |
x |
50 |
mm; |
Enquire |
| 186003708 |
Atlantis OBD |
10 |
μm |
19 |
x |
150 |
mm; |
Enquire |
| 186003709 |
Atlantis OBD |
10 |
μm |
19 |
x |
150 |
mm; |
Enquire |
| 186003711 |
Atlantis OBD |
10 |
μm |
30 |
x |
150 |
mm; |
Enquire |
| 186003712 |
Atlantis OBD |
10 |
μm |
30 |
x |
250 |
mm; |
Enquire |
| Part No. |
Description |
prep |
|
|
|
|
|
Price |
| 186003691 |
Atlantis Prep |
5 |
μm |
10 |
x |
50 |
mm; |
Enquire |
| 186003692 |
Atlantis Prep |
5 |
μm |
10 |
x |
100 |
mm; |
Enquire |
| 186003693 |
Atlantis Prep |
5 |
μm |
10 |
x |
150 |
mm; |
Enquire |
| 186003694 |
Atlantis Prep |
5 |
μm |
10 |
x |
250 |
mm; |
Enquire |
| 186003695 |
Atlantis Prep |
5 |
μm |
10 |
x |
10 |
mm; |
Enquire |
| 186003699 |
Atlantis Prep |
5 |
μm |
19 |
x |
10 |
mm; |
Enquire |
| 186004026 |
Atlantis Prep |
5 |
μm |
19 |
x |
250 |
mm; |
Enquire |
| 186004080 |
Atlantis Prep |
5 |
μm |
50 |
x |
50 |
mm; |
Enquire |
| 186004081 |
Atlantis Prep |
5 |
μm |
50 |
x |
100 |
mm; |
Enquire |
| 186004082 |
Atlantis Prep |
5 |
μm |
50 |
x |
150 |
mm; |
Enquire |
| 186003704 |
Atlantis Prep |
10 |
μm |
10 |
x |
150 |
mm; |
Enquire |
| 186003705 |
Atlantis Prep |
10 |
μm |
10 |
x |
250 |
mm; |
Enquire |
| 186003706 |
Atlantis Prep |
10 |
μm |
10 |
x |
10 |
mm; |
Enquire |
| 186003710 |
Atlantis Prep |
10 |
μm |
19 |
x |
10 |
mm; |
Enquire |
| 186004083 |
Atlantis Prep |
10 |
μm |
50 |
x |
50 |
mm; |
Enquire |
| 186004084 |
Atlantis Prep |
10 |
μm |
50 |
x |
100 |
mm; |
Enquire |
| 186004085 |
Atlantis Prep |
10 |
μm |
50 |
x |
150 |
mm; |
Enquire |
| 186004086 |
Atlantis Prep |
10 |
μm |
50 |
x |
250 |
mm; |
Enquire |
| 186004712 |
Atlantis Prep |
10 |
μm |
30 |
x |
75 |
mm; |
Enquire |
| Part No. |
Description |
t3 |
|
|
|
|
|
Price |
| 186003713 |
Atlantis T3 |
3 |
μm |
1 |
x |
50 |
mm; |
Enquire |
| 186003714 |
Atlantis T3 |
3 |
μm |
1 |
x |
150 |
mm; |
Enquire |
| 186003716 |
Atlantis T3 |
3 |
μm |
2.1 |
x |
30 |
mm; |
Enquire |
| 186003717 |
Atlantis T3 |
3 |
μm |
2.1 |
x |
50 |
mm; |
Enquire |
| 186003718 |
Atlantis T3 |
3 |
μm |
2.1 |
x |
100 |
mm; |
Enquire |
| 186003719 |
Atlantis T3 |
3 |
μm |
2.1 |
x |
150 |
mm; |
Enquire |
| 186003720 |
Atlantis T3 |
3 |
μm |
3 |
x |
20 |
mm; |
Enquire |
| 186003721 |
Atlantis T3 |
3 |
μm |
3 |
x |
50 |
mm; |
Enquire |
| 186003722 |
Atlantis T3 |
3 |
μm |
3 |
x |
100 |
mm; |
Enquire |
| 186003723 |
Atlantis T3 |
3 |
μm |
3 |
x |
150 |
mm; |
Enquire |
| 186003724 |
Atlantis T3 |
3 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186003725 |
Atlantis T3 |
3 |
μm |
4.6 |
x |
30 |
mm; |
Enquire |
| 186003726 |
Atlantis T3 |
3 |
μm |
4.6 |
x |
50 |
mm; |
Enquire |
| 186003727 |
Atlantis T3 |
3 |
μm |
4.6 |
x |
75 |
mm; |
Enquire |
| 186003728 |
Atlantis T3 |
3 |
μm |
4.6 |
x |
100 |
mm; |
Enquire |
| 186003729 |
Atlantis T3 |
3 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186003730 |
Atlantis T3 |
5 |
μm |
1 |
x |
50 |
mm; |
Enquire |
| 186003731 |
Atlantis T3 |
5 |
μm |
1 |
x |
150 |
mm; |
Enquire |
| 186003732 |
Atlantis T3 |
5 |
μm |
2.1 |
x |
20 |
mm; |
Enquire |
| 186003733 |
Atlantis T3 |
5 |
μm |
2.1 |
x |
30 |
mm; |
Enquire |
| 186003734 |
Atlantis T3 |
5 |
μm |
2.1 |
x |
50 |
mm; |
Enquire |
| 186003735 |
Atlantis T3 |
5 |
μm |
2.1 |
x |
100 |
mm; |
Enquire |
| 186003736 |
Atlantis T3 |
5 |
μm |
2.1 |
x |
150 |
mm; |
Enquire |
| 186003737 |
Atlantis T3 |
5 |
μm |
3 |
x |
20 |
mm; |
Enquire |
| 186003738 |
Atlantis T3 |
5 |
μm |
3 |
x |
50 |
mm; |
Enquire |
| 186003739 |
Atlantis T3 |
5 |
μm |
3 |
x |
100 |
mm; |
Enquire |
| 186003740 |
Atlantis T3 |
5 |
μm |
3 |
x |
150 |
mm; |
Enquire |
| 186003741 |
Atlantis T3 |
5 |
μm |
3 |
x |
250 |
mm; |
Enquire |
| 186003742 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186003743 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
30 |
mm; |
Enquire |
| 186003744 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
50 |
mm; |
Enquire |
| 186003745 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
75 |
mm; |
Enquire |
| 186003746 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
100 |
mm; |
Enquire |
| 186003747 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186003748 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
250 |
mm; |
Enquire |
| 186003756 |
Atlantis T3 |
3 |
μm |
2.1 |
x |
10 |
mm; |
Enquire |
| 186003757 |
Atlantis T3 |
3 |
μm |
3.9 |
x |
20 |
mm; |
Enquire |
| 186003758 |
Atlantis T3 |
3 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186003759 |
Atlantis T3 |
5 |
μm |
2.1 |
x |
20 |
mm; |
Enquire |
| 186003760 |
Atlantis T3 |
5 |
μm |
3.9 |
x |
20 |
mm; |
Enquire |
| 186003761 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
20 |
mm; |
Enquire |
| 186003751 |
Atlantis T3 |
3 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186003754 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
| 186003755 |
Atlantis T3 |
5 |
μm |
4.6 |
x |
150 |
mm; |
Enquire |
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The Atlantis family of HPLC columns was created to solve one the most chromatographic problems, retaining polar compunds. Through historical experience and synthetic innovation, Atlantis columns lead the industry in porviding exceptional performance, versatility, retention and chromatographic stability for polar compounds, while also affording balanced retention for broad analtye mixtures. For retention and separation of polar compunds via reversed-phase HPLC, Atlantis T3 columns set the standard for polar compound retention. Atlantis T3 columns are a universal, silica-based, reversed-phase C18 line of HPLC columns that not only retin and separate small, water-soluble polar organic compunds, but also provide superior performance accross a wider pH range. Atlantis columns are the culmination of over 30 years of bonded phase research and are a vast improvement upon the highly successful Atlantis dC18 line of columns. For reversed-phase application, Atlantis T3 columns should be considered the first choice when developing a separation of polar (and non-polar) compounds. The advantages of T3 bonding technology is extended to UPLC in the Acquity UPLC HSS T3 columns.
T3 bonding
The superior performance of Atlantis T3 HPLC columns and the ACQUITY UPLC HSS T3 columns is a result of Waters advanced T3 bonding process. T3 bonding utilizes a trifunctional C18 alkyl phase bonded at a liquid density that promotes polar compound retention and aqueous mobile-phase compatibility. The proprietary T3 endcapping process is much more effective than traditional trimethly-silane (TMS) endcapping.
This unique combination of bonding and endcapping provided superior polar compound retention and aqueous compatibility while also enhancing column performance, lifetime, peak shape and stability.
Long Column Lifetimes at Low pH
The creation of highly retentive, reversed-phase C18 columns for polar compound retention involves bonding at a ligand density that is less hydrophobic and, therefore, more compatible with the weak, highly aqueous mobile phases required for retaining polar compounds. When exposed to strongly acidic mobile phases (i.e.
Atlantis T3 columns resist ligand cleavage by utilizing a trifunctional attachment of the C18 phase to the particle surface, thus providing exceptional column life at low pH.
Improved pH 7 Performance
At pH 7, poor peak shape for amine-containing bases and shortened column lifetimes are encountered when using intermediate ligand density C18 columns designed for polar compound retention. Poor peak shape is due to secondary interactions with unreacted silanols that remain present after bonding and endcapping. The proprietary T3 endcapping procedure reacts with more of these active silanols thereby dramatically improving peak shape for bases. Shortened column lifetimes are due to the dissolution of the silica particle substrate by the high pH mobile phases. The more effective and efficient T3 bonding helps “protect” the silica substrate from dissolution, thus providing longer column lifetime.
Balanced Retention of diverse Analyte mixtures
When faced with the task of analysing a number of compounds encompassing a broad range of popularity, few options exist that will result in adequate retention of polar species without excessive retention of the hydrophic components. In drug discovery, a large number of candidates need to be screened, often with little or no characterisation of their chemical properties. Many polar candidates are often overlooked due to their elution in the void space of the column, while hydrophobic species may be permanently bound to the stationary phase. Atlantis T3 columns are designed to deliver exceptional performance for an expansive range of compound polarities, thus being ideally suited as a universal reversed-phase column for open environments.
ACQUITY UPLC HSS T3 Columns for Polar Compound Retention
ACQUITY UPLC HSS (High Strength Silica) columns contain the first and only 100% silica particle designed, tested and intended for use in applications up to 15000psi/1000bar. The ACQUITY UPLC HSS particle is not an HPLC particle. High pore volume HPLC particle do not possess the operating pressures of UPLC separations. The first ligand chemistry in this new UPLC-certified column family utilises T3 bonding in order t retain and separate polar organic compounds. ACQUITY UPLC HSS T3 columns possess the superior polar-compound retention, aqueous mobile-phase compatibility and ultra-low MS bleed of Atlantis T3 columns.
Easier Method Transfer
Since Atlantis T3 HPLC and ACQUITY UPLC BEH columns is nearly seamless, as the hybrid particle substrates differ only in particle size. However, because of T3 bonding it should be straightforward to make simple adjustments to successfully transfer a separation from an Atlantis T3 HPLC column to an ACQUITY UPLC HSS T3 column.
Atlantis HILIC Silica
Hydrophilic-Interaction Chromatography (HILIC)
HILIC is an alternative chromatographic technique that offers complementary selectivity to RP and often retains very polar species that cannot be retained by traditional means. Atlantis HILIC Silica columns were designed to retain very polar, organic molecules that are too polar to retain by RP. Unlike the highly aqueous mobile phases required for polar retention in RP separations. Atlantis HILIC Silica columns employ highly volatile (>80% organic) mobile phases which are ideal for mass spectrometry (MS) response and sensitivity. Additionally, direct compatibility with high organic SPE elutes dramatically increases the number of samples the can be handled, thus substantially increasing sample throughput. HILIC retention mechanisms are a complex combination of partitioning, ion-exchange and hydrogen bonding, resulting in enhanced retention for polar analytes. Atlantis HILIC Silica columns, used in combination with high organic (>80% acetonitrile) mobile phases, result in retention of analytes that are simply too polar to retain by traditional RP chromatography.
Enhanced Mass Spectrometry Response
Utilisation of HILIC has grown in popularity, primarily due to the extensive adoption of mass spectrometry as a detector and the necessity of improving sensitivity for the quantitation of polar analytes. Unlike reversed-phase which utilises high aqueous mobile phases to induce retention, HILIC employs an aceteonitrile-rich mobile phase. This high organic mobile phase is easily deslovated, resulting in improved ionisation efficiency and mass spectrometry response. For these reasons, HILIC has become a popular technique for bioanalytical laboratories.
| Part No. |
Description |
|
|
|
|
|
|
Price |
| 186003715 |
Atlantis dT3 |
3 |
μm |
2.1 |
x |
20 |
mm; |
Enquire |
| Part No. |
Description |
dc18 |
|
|
|
|
|
Price |
| 186001279 |
Atlantis dC18 |
3 |
μm |
1 |
x |
50 |
mm; |
Enquire |
| 186001283 |
Atlantis dC18 |
3 |
μm |
1 |
x |
150 |
mm; |
Enquire |
| 186001287 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
30 |
mm; |
Enquire |
| 186001291 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
50 |
mm; |
Enquire |
| 186001295 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
100 |
mm; |
Enquire |
| 186001299 |
Atlantis dC18 |
3 |
μm |
2.1 |
x |
150 |
mm; |
Enquire |
| 186001303 |
Atlantis dC18 |
3 |
μm |
3 |
x |
100 |
mm; |
Enquire |
| 186001307 |
Atlantis dC18 |
3 |
μm |
3 |
x |
150 |
mm; |
Enquire |
| 186001317 |
Atlantis dC18 |
3 |
μm |
3.9 |
x |
150 |
mm; |
Enquire |
| 186001325 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
30 |
mm; |
Enquire |
| 186001329 |
Atlantis dC18 |
3 |
μm |
4.6 |
x |
50 |
mm; |
|