V&P Scientific, Inc. uses the largest and most powerful magnets in our Tumble, Levitation and Horizontal Stirrers. We have developed and patented five unique methods of uniformly mixing the contents of each well of a microplate or rack of tubes regardless of the position of the well or tube within the microplate or rack format. This is a feature that is not possible with conventional magnetic mixers.
V&P holds five unique stirring + suspending patents.
NdFeB Magnets stir inexpensive stainless steel stir elements, facilitating throughput and economy.
Our Stirrers and NdFeB stir elements mix solutions 6.6 times more viscous than honey.
Our stirrers can heat and uniformly mix simultaneously to speed reactions.
Our Stirrers and stir elements can stir vessels from 600 gallons to 10 ul.
Can be located under or on the deck of a Robotic Liquid handler.
The Vertical Tumble Stirrer uses patented Magnetic Stir-Cylinder technology to mix large numbers of samples in microplates, racks of tubes, syringes, and small bottles (USA Patent #6,176,609).
Instead of spinning a magnetic stir bar about the horizontal plane like the standard horizontal magnetic flask stirrer, the Vertical Tumble Stirrer causes stir elements of all sizes and shapes to tumble vertically end-over-end inside each well or vessel. So each microplate well or tube in a rack, syringe, or small bottle receives the same vigorous mixing regardless of the position within the microplate or rack.
The Alligator Vertical Tumble Stirrer will stir all types of microplates of any volume or format. It will also stir V and U bottom microplates, PCR plates, micro-centrifuge tubes, test tubes, syringes, and small bottles, and specially designed Bubble Paddle reservoirs. Perhaps the best way to appreciate how the Vertical Tumble Stirrers function is to see all the videos above and below.
Mix the contents of any Microplate, Tube, Rack, Small Bottle, or Syringe.
Using large and the most powerful permanent magnets manufactured, we make many different models of Vertical Tumble Stirrers to fit the many varied applications and requirements of our customers. Requirements for heating and continuous stirring for a long period of time demand special Vertical Tumble Stirrers that are resistant to heat and with motors capable of working under high loads for extended periods.
We make our Vertical Tumble Stirrers heat resistant using Mica. The Mica deck will accommodate three of our V&P heat blocks operating at 200C. Please check with our knowledgeable staff to help you make the appropriate selection for your application. Our specialty is flexibility- let us know if you have a custom application today!
We offer a large assortment of economical magnetic Stainless Steel Stir Elements from Stir StiXs to Discs to bars and dowels to fit into any well, tube, or syringe.
We also sell Alnico and Rare Earth Magnetic Stir Elements for more viscous solutions.
Check out the Stir Elements page for more information on coatings and dimensions.
The Lateral Tumble Stirrer uses patented Magnetic Stir-Cylinder technology to mix large numbers of samples in microplates, racks of tubes, syringes, multiple large bottles, and carboys.
V&P Scientific, Inc. has invented and built the world’s first Lateral Tumble Stirrer (USA Patent #7,484,880, European Union Patent #1,736,235, and German Patent #60 2006 026 122.5).
Instead of tumbling a Stir Element in the vertical plane like our Vertical Tumble Stirrer, the Lateral Tumble Stirrer spins the stir elements by tumbling them laterally against a sidewall of the vessel. This spinning motion produces a vortex cone in the liquid and efficiently mixes the contents of the liquid. However, unlike the conventional horizontal stirrers which require a unique drive magnetic field under each vessel or well, the Lateral Vortex Tumble Stirrer because of its lateral wall tumbling action only requires one vertically placed drive magnetic cylinder to stir thousands of vessels or wells surrounding it.
The Lateral Tumble Stirrer causes stir elements of all sizes and shapes to tumble laterally and create a vortex cone inside each well or vessel. The Lateral Tumble Stirrer will stir all types of microplates (24, 48, 96, 384, and even 1536 wells, and tubes, multiple large bottles, and even carboys.
Mix Microplates, Deep Well Microplates, Racks of Tubes, Syringes, multiple large Bottles, or Carboys
Using large and the most powerful permanent magnets manufactured, we make 2 different models of Lateral Tumble Stirrers to fit the many varied applications and requirements of our customers. Requirements for a long run time demand motors that are capable of working under high loads for extended periods. Please check with our knowledgeable staff to help you make the appropriate selection for your application. Our specialty is flexibility- let us know if you have a custom application today
We offer a large assortment of economical magnetic Stainless Steel Stir Elements from Stir StiXs to bars and dowels to fit into any well, tube, syringe large bottle or carboy.
We also sell Alnico and Rare Earth Magnetic Stir Bars for more viscous solutions.
Check out the Stir Elements page for more information on coatings and dimensions.
The Levitation Stirrer uses patented Magnetic Levitation technology to mix large numbers of samples in deep well microplates (48, 96 and 384 microplates) (US patent #6,357,907; EU patent #1064988).
Instead of tumbling a Stir Element in a vessel the Levitation Stirrer uses a very strong magnetic dipole field to levitate stainless steel balls in deep well microplates. After several levitation passes the contents of the well are mixed from top to bottom. However, unlike the conventional horizontal stirrers which require a unique drive magnetic field under each well, the Levitation Stirrer because of its levitation action only requires one large magnetic dipole field to mix up to 4,608 wells (twelve 384 deep well microplates).
The Levitation Stirrer was initially made for Celera Genomics in the race to sequence the human genome. Celera Genomics needed to suspend replicated Human DNA released from bacteria at the bottom of 384 deep well microplates so the DNA could be read by the sequencer. Celera Genomics called the Levitation Stirrer an “enabling technology”.
Other applications include mixing very viscous materials such as paint, toothpaste and lotions with biocides, flavorings, or coloring agents to determine the proper concentration to use. Being able to perform mixing experiments in microplates allows one the ability to test many variables at the same time.
The Carousel style which stirrers 12 deep well microplates (48, 96 and 384 wells) on a carousel plate and passes the microplates between a large and powerful NdFeB dipole magnet to raise magnetic stainless steel balls in the microplate and dropping them by gravity when they leave the magnetic field.
The second style of Levitation Stirrer only moves one deep well microplate back and forth on a linear shuttle and thus in and out of a powerful NdFeB dipole magnetic field to raise the balls and using gravity to drop the balls as they leave the magnetic field.
The third style of Levitation Stirrer also only moves one deep well microplate at a time but it does it by raising and lowering the microplate vertically in a larger and more powerful NdFeB dipole magnetic field so the magnetic stainless steel balls are both lifted up by the magnetic field and pulled down by the magnetic field. This is a very important ability when mixing very viscous fluids such as paint, lotions and toothpaste.
We offer an assortment of economical magnetic Stainless Steel ball bearings of different diameters. We also offer these same ball bearings that are coated with parylene when iron ions may interfere with the assay results. We also offer one Stainless Steel ball bearing that is coated with PTFE and another ALNICO round stir ball that is coated with PTFE. Our Alnico Magnetic Stir Balls are used for more viscous solutions.
Check out the Stir Elements page for more information on coatings and dimensions.
Our large conventional style stirrers are aimed at mixing industrial sized containers from carboys, barrels to 600 gallon containers. Our large NdFeB drive magnet is attached to Nema 34 quad stack servo motor and is capable to generating speeds of 1000 RPM.
The Conventional Horizontal Magnetic Stirrer technology has been around since 1944. This system uses a motor to spin a drive magnet whose moving magnetic field connects with the magnetic field of a stir bar causing the stir bar to spin on a horizontal plane in a vessel above the drive magnet. V&P Scientific has improved that basic system.
Secrets Behind V&P Scientific’s Stirrus Technology:
The MidiStirrus is capable of stirring vessels up to carboy size vessels
The KiloStirrus is capable of stirring vessels up to 600 gallons in size.
We offer a large assortment of ALNICO, Samarium Cobalt and Neodymium Iron Boron Stir Elements from stir bars to H shapes and suspended stir elements to fit into any Carboy or large vessel. Check out the Stir Elements page for more information on ALNICO and Rare Earth Magnetic Stir Bars for more viscous solutions
Feedback for the Tumble Stirrers is this: enabling technology. I am now enabled to create reaction blocks and customize them to robotic systems with great ease. Why? The narrow deck height of the Tumble stirrers (even my larger strength units) combined with flexibility of alignment for the stirrers to the reaction vessels means I can use them almost anywhere.
The fact that I can use the same stirrer deck with any type/size of reactor simply by changing a mounting plate atop the stirrer deck gives me the kind of flexibility I require for parallel synthetic development of processes. That flexibility enables access to a wider range of projects (smaller scale) and a wider range of reaction conditions. I get more reactions per gram of starting material for evaluation of more diverse conditions, and I generate results faster because I run more of the experiments in parallel using the same amount of starting material. In one word, Tumble Stirring is enabling.
Oh, and the quality of agitation is fantastic for liquid-liquid mixes, slurries, or even oil suspensions.
Thanks again for this terrific product.
D____.”
Unlock the full potential of your experiments with our versatile stirring and mixing products, designed for a wide range of applications. Take our quick Mixing Application Survey and let our expert team provide tailored advice to enhance your workflow efficiency. Find the right solution today and elevate your experiments to the next level!
Contact us if you wish to integrate our patented stirring technology into your liquid handling system. We can tailor our magnets to fit your application.
We have many different accessories associated with our VP Stirrer Series. See the full complement below.
Showing 13–24 of 47 results
Pin | Description | nl Transferred | CV% | |
---|---|---|---|---|
0.229 mm diameter (FP9) | Total Pin | Uncoated | 7.41 | 2.4 |
Hydrophobic | 7.46 | 5.4 | ||
0.229 mm diameter (FP9) | Hanging Drop | Uncoated | N/A | N/A |
Hydrophobic | 2.09 | 3.8 | ||
0.457 mm diameter (FP1) | Total Pin | Uncoated | 33.48 | 3.2 |
Hydrophobic | 28.17 | 7.5 | ||
0.457 mm diameter (FP1) | Hanging Drop | Uncoated | 16.96 | 4.5 |
Hydrophobic | 8.51 | 0.8 | ||
0.787 mm diameter (FP3) | Total Pin | Uncoated | 87.32 | 3.9 |
Hydrophobic | 77.4 | 3.9 | ||
0.787 mm diameter (FP3) | Hanging Drop | Uncoated | 48.77 | 1.2 |
Hydrophobic | 43.05 | 9.4 | ||
1.19 mm diameter (VP 409 & VP 386) | Total Pin | Uncoated | 247.22 | 2.8 |
Hydrophobic | 192.67 | 2.6 | ||
1.19 mm diameter (VP 409 & VP 386) | Hanging Drop | Uncoated | 76.35 | 1.6 |
Hydrophobic | 108.4 | 2.8 | ||
1.58 mm diameter (VP 408 & VP 384) | Total Pin | Uncoated | 273.5 | 4.6 |
Hydrophobic | 259.25 | 3.1 | ||
1.58 mm diameter (VP 408 & VP 384) | Hanging Drop | Uncoated | 201.93 | 5 |
Hydrophobic | 170.04 | 7.5 |
Transfer Of Horseradish Peroxidase In Tris Buffered Saline With Pin Tools
Coating pins will reduce the total amount of liquid transferred and also reduce the amount of non-specific binding to the stainless-steel pins. If the substance you are transferring has high non-specific binding this will be an important factor in selecting your pins.
Pin | Description | nl Transferred | CV% | |
---|---|---|---|---|
0.229 mm diameter (FP9) | Total Pin | Uncoated | 7.41 | 2.4 |
Hydrophobic | 7.46 | 5.4 | ||
0.229 mm diameter (FP9) | Hanging Drop | Uncoated | N/A | N/A |
Hydrophobic | 2.09 | 3.8 | ||
0.457 mm diameter (FP1) | Total Pin | Uncoated | 33.48 | 3.2 |
Hydrophobic | 28.17 | 7.5 | ||
0.457 mm diameter (FP1) | Hanging Drop | Uncoated | 16.96 | 4.5 |
Hydrophobic | 8.51 | 0.8 | ||
0.787 mm diameter (FP3) | Total Pin | Uncoated | 87.32 | 3.9 |
Hydrophobic | 77.4 | 3.9 | ||
0.787 mm diameter (FP3) | Hanging Drop | Uncoated | 48.77 | 1.2 |
Hydrophobic | 43.05 | 9.4 | ||
1.19 mm diameter (VP 409 & VP 386) | Total Pin | Uncoated | 247.22 | 2.8 |
Hydrophobic | 192.67 | 2.6 | ||
1.19 mm diameter (VP 409 & VP 386) | Hanging Drop | Uncoated | 76.35 | 1.6 |
Hydrophobic | 108.4 | 2.8 | ||
1.58 mm diameter (VP 408 & VP 384) | Total Pin | Uncoated | 273.5 | 4.6 |
Hydrophobic | 259.25 | 3.1 | ||
1.58 mm diameter (VP 408 & VP 384) | Hanging Drop | Uncoated | 201.93 | 5 |
Hydrophobic | 170.04 | 7.5 |
Transfer Of Horseradish Peroxidase In Tris Buffered Saline With Pin Tools
Although the slots in the pin are a precise volume, the liquid that is transferred is usually more. The reason for this is due to the surface tension of the liquid causing the liquid in the slot to “bow out” thus increasing the volume of the liquid in the slot. If is important for you to transfer exactly a certain volume we can make custom slots to match the surface tension characteristics of your liquid
Solvent/Sample | Concentration | CV% | nl FITC Transferred | CV% | nl FITC Transferred |
---|---|---|---|---|---|
Uncoated | Uncoated | Hydrophobic Coated | Hydrophobic Coated | ||
DMSO (-) | 0 | 8.1 | 353.42 | 7.5 | 298.72 |
DMSO + DNA (mg/ml) | 0.5 | 6.6 | 497.21 | 6.6 | 435.86 |
0.25 | 9 | 432.49 | 4.1 | 391.93 | |
0.125 | 8.9 | 363.64 | 0.9 | 344.75 | |
0.0625 | 2.3 | 381.86 | 2 | 331.68 | |
0.0313 | 1.5 | 378.03 | 4.4 | 331.71 | |
0.0156 | 1.2 | 357.52 | 1.4 | 329.03 | |
Tris (-) | 0 | 4.9 | 577.31 | 7.2 | 493.53 |
Tris + DNA (mg/ml) | 0.5 | 4.5 | 540.53 | 1.1 | 477.5 |
0.25 | 4.6 | 518.21 | 6.1 | 456.75 | |
0.125 | 15.8 | 583.25 | 4.1 | 438.82 | |
0.0625 | 4.2 | 551.17 | 3.1 | 433.69 | |
0.0313 | 4.4 | 536.66 | 2.3 | 458.37 | |
0.0156 | 2.9 | 528.53 | 1.2 | 441.1 | |
Tris + BSA (%) | 4 | 5.4 | 462.13 | 11 | 409.27 |
1 | 4 | 452.86 | 2.7 | 426.58 | |
0.25 | 11.7 | 456.45 | 1.3 | 408.72 | |
0.0625 | 1.1 | 445.22 | 6.5 | 393.07 | |
0.0156 | 3.7 | 462.85 | 3.9 | 430.2 | |
0.0039 | 1.5 | 493.54 | 2.2 | 437.29 | |
0.001 | 2.9 | 504.25 | 0.7 | 475.96 |
1. Increasing the concentration of DNA (sheared salmon sperm) to .25 mg/ml significantly increases the volume of DMSO liquid transferred for both coated and uncoated FP3S500 Slot Pins.
2. Increasing the concentration of DNA does not significantly increase the volume of Tris buffer (aqueous) transferred by both coated and uncoated FP3S500 Slot Pins.
3. Increasing the concentration of BSA (Bovine Serum Albumin) significantly decreases the volume of Tris buffer transferred by both coated and uncoated FP3S500 Slot Pins.
4. Hydrophobic coated FP3S500 Slot Pins transferred less DMSO – DNA and less Tris DNA and less Tris BSA than the uncoated FP3S500 Slot Pins.
5. Both coated and uncoated FP3S500 pins transfer significantly more aqueous solution than DMSO.
Solvent/Sample | Concentration | CV% | nl FITC Transferred | CV% | nl FITC Transferred |
---|---|---|---|---|---|
Uncoated | Uncoated | Hydrophobic Coated | Hydrophobic Coated | ||
DMSO (-) | 0 | 4.2 | 49.38 | 2.1 | 49.31 |
DMSO + DNA (mg/ml) | 0.5 | 4.9 | 51.24 | 2.6 | 56.79 |
0.25 | 1.7 | 50.2 | 1.2 | 49.53 | |
0.125 | 1.5 | 51.27 | 2.3 | 49.77 | |
0.0625 | 2.2 | 49.34 | 4.1 | 48.19 | |
0.0313 | 1.2 | 49.03 | 0.2 | 50.23 | |
0.0156 | 2.4 | 45.9 | 1.4 | 46.64 | |
Tris (-) | 0 | 2.6 | 89.51 | 2.9 | 91.34 |
Tris + DNA (mg/ml) | 0.5 | 7 | 77.11 | 0.6 | 84.62 |
0.25 | 3.9 | 82.22 | 1.6 | 84.89 | |
0.125 | 3.9 | 85.42 | 1 | 85.08 | |
0.0625 | 1.5 | 85.36 | 2.8 | 85.03 | |
0.0313 | 2 | 84.52 | 3 | 88.19 | |
0.0156 | 2.6 | 82.92 | 2.8 | 83.2 |
1. In contrast to the FP3S500 data, increasing the concentration of DNA to .25 mg/ml does not significantly increase the volume of DMSO liquid transferred for both coated and uncoated FP1S50 Slot Pins.
2. Increasing the concentration of DNA does not significantly increase the volume of Tris buffer (aqueous) transferred by both coated and uncoated FP1S50 Slot Pins.
3. In contrast to the FP3S500 data, FP1S50 coated pins transferred about the same volume of DNA at all concentrations as did uncoated pins.
4. Both coated and uncoated FP1S50 pins transfer significantly more aqueous solution than DMSO.
5. The differences between the FP3S500 and the FP1S50 pin may be due to the different pin diameter’s effect on contact angle and therefore on the “wetting” of the pin. See the diagram on the link to / ah energy system.
Pin | Description | nl Transferred | CV% | |
---|---|---|---|---|
0.229 mm diameter (FP9) | Total Pin | Uncoated | 7.41 | 2.4 |
Hydrophobic | 7.46 | 5.4 | ||
0.229 mm diameter (FP9) | Hanging Drop | Uncoated | N/A | N/A |
Hydrophobic | 2.09 | 3.8 | ||
0.457 mm diameter (FP1) | Total Pin | Uncoated | 33.48 | 3.2 |
Hydrophobic | 28.17 | 7.5 | ||
0.457 mm diameter (FP1) | Hanging Drop | Uncoated | 16.96 | 4.5 |
Hydrophobic | 8.51 | 0.8 | ||
0.787 mm diameter (FP3) | Total Pin | Uncoated | 87.32 | 3.9 |
Hydrophobic | 77.4 | 3.9 | ||
0.787 mm diameter (FP3) | Hanging Drop | Uncoated | 48.77 | 1.2 |
Hydrophobic | 43.05 | 9.4 | ||
1.19 mm diameter (VP 409 & VP 386) | Total Pin | Uncoated | 247.22 | 2.8 |
Hydrophobic | 192.67 | 2.6 | ||
1.19 mm diameter (VP 409 & VP 386) | Hanging Drop | Uncoated | 76.35 | 1.6 |
Hydrophobic | 108.4 | 2.8 | ||
1.58 mm diameter (VP 408 & VP 384) | Total Pin | Uncoated | 273.5 | 4.6 |
Hydrophobic | 259.25 | 3.1 | ||
1.58 mm diameter (VP 408 & VP 384) | Hanging Drop | Uncoated | 201.93 | 5 |
Hydrophobic | 170.04 | 7.5 |
Hydrophobic coating pins will reduce the total amount of aqueous HRP liquid transferred and also reduce the amount of non-specific binding to the stainless-steel pins. If the substance you are transferring has high non-specific binding this will be an important factor in selecting your pins.
Pin diameter also has an effect on the degree of reduction of liquid transfer with hydrophobic coating as the smaller the diameter the less the reduction of transfer. This is most likely due to the curvature of the pin affecting the wetting contact angle
Pin | Description | nl Transferred | CV% | ||
---|---|---|---|---|---|
0.457 mm diameter (FP1) | 6 nl Slot | Total Pin* | Uncoated | 25.6 | 10.8 |
Hydrophobic | N/A | N/A | |||
10 nl Slot | Total Pin* | Uncoated | 23.36 | 6.1 | |
Hydrophobic | 25.85 | 6.9 | |||
50 nl Slot | Total Pin* | Uncoated | 67.83 | 2.5 | |
Hydrophobic | N/A | N/A | |||
0.787 mm diameter (FP3) | 100 nl Slot | Total Pin* | Uncoated | 180.32 | 7.2 |
Hydrophobic | 205.84 | 5.5 | |||
200 nl Slot | Total Pin* | Uncoated | 277.82 | 4.9 | |
Hydrophobic | 287.3 | 3.8 | |||
500 nl Slot | Total Pin* | Uncoated | 581.16 | 5.2 | |
Hydrophobic | 555.69 | 3 |
Hydrophobic coating pins will slightly increase the total amount of DMSO FITC liquid transferred.
Pin | Description | nl Transferred | CV% | |
---|---|---|---|---|
0.787 mm diameter (FP3) | 100 nl Slot Total Pin, Including Slot | Uncoated | 195.69 | 1.6 |
Hydrophobic | 170.2 | 2.9 | ||
0.787 mm diameter (FP3) | 100 nl Slot, Slot Only | Uncoated | 149.67 | 4.9 |
Hydrophobic | 129.61 | 7.6 | ||
0.787 mm diameter (FP3) | 200 nl Slot Total Pin, Including Slot | Uncoated | 269.77 | 1.9 |
Hydrophobic | 228.62 | 17.1 | ||
0.787 mm diameter (FP3) | 200 nl Slot, Slot Only | Uncoated | 237.52 | 8.9 |
Hydrophobic | 186.9 | 5.9 |
Although the slots in the pin are a precise volume, the liquid that is transferred is usually more because of the volume carried on the sides of the pins.
As seen with other aqueous data the amount transferred on hydrophobic coated Slot pins is less than on uncoated Solid or Slot pins. Thus Hydrophobic coating has the most effect on aqueous transfers.
Note: Same volume (200ul for 96 Format and 74 ul for 384 Format) in recipient plates and same pin withdrawal speed for all pins. Changes to pin withdrawal speed or volume in the source plate can result in different volumes being transferred.
Transfer volumes should always be confirmed by customers for their assay conditions and automated system.
Pin Type | Pin Diameter(mm) | Shape | 96 Format Low Range(nL)² | 96 Format High Range(nL)² |
---|---|---|---|---|
FP9 | 0.229 | Solid | 13 | 39 |
FP8 | 0.356 | Solid | 15 | 37 |
FP1 | 0.457 | Solid | 22 | 61 |
FP1S6 | 0.457 | 6nL Slot | 34 | 67 |
FP1S10 | 0.457 | 10nL Slot | 39 | 74 |
FP1S50 | 0.457 | 50nL Slot | 90 | 124 |
FP3 | 0.787 | Solid | 93 | 213 |
FP3S100 | 0.787 | 100nL Slot | 213 | 334 |
FP3S200 | 0.787 | 200nL Slot | 311 | 449 |
FP3S500 | 0.787 | 500nL Slot | 515 | 671 |
FP4 | 0.914 | Solid | 126 | 289 |
Footnotes: (1) Delivery volume range is determined by speed of withdrawal from source liquid: Z-Speed Range = 1.5-30 mm/sec, slow speed = low volume delivery range, fast speed = high volume delivery range (2) 200ul source plate volume per well |
Pin Type | Pin Diameter(mm) | Shape | 96 Format Low Range(nL)² | 96 Format High Range(nL)² |
---|---|---|---|---|
FP9 | 0.229 | Solid | 13 | 38 |
FP8 | 0.356 | Solid | ||
FP1 | 0.457 | Solid | 23 | 60 |
FP1S6 | 0.457 | 6nL Slot | 33 | 67 |
FP1S10 | 0.457 | 10nL Slot | 40 | 75 |
FP1S50 | 0.457 | 50nL Slot | 86 | 119 |
FP3 | 0.787 | Solid | 76 | 209 |
FP3S100 | 0.787 | 100nL Slot | 188 | 324 |
FP3S200 | 0.787 | 200nL Slot | 288 | 436 |
FP3S500 | 0.787 | 500nL Slot | 473 | 649 |
FP4 | 0.914 | Solid | ||
Footnotes: (1) Delivery volume range is determined by speed of withdrawal from source liquid: Z-Speed Range = 1.5-30 mm/sec, slow speed = low volume delivery range, fast speed = high volume delivery range (2) 200ul source plate volume per well |
Pin Type | Pin Diameter(mm) | Shape | Low Range(nL)² | High Range(nL)² |
---|---|---|---|---|
FP | 1.58 | Solid Pointed | 175 | 594 |
FPS.5 | 1.58 | 500nL Slot | 524 | 962 |
FPS | 1.58 | 1000nL Slot | 1056 | 1476 |
FPS2 | 1.58 | 2000nL Slot | 1739 | 2174 |
FPS5 | 1.58 | 5000nL Slot | 5150 | 4953 |
FP6 | 1.58 | Solid Flat | 465 | 960 |
FP6S.5 | 1.58 | 500nL Slot | 934 | 1445 |
FP6S | 1.58 | 1000nL Slot | 1396 | 1930 |
FP6S2 | 1.58 | 2000nL Slot | 2072 | 2637 |
FP6S5 | 1.58 | 5000nL Slot | 4820 | 4693 |
Footnotes:(1) Delivery volume range is determined by speed of withdrawal from source liquid: Z-Speed Range = 1.5-30 mm/sec, slow speed = low volume delivery range, fast speed = high volume delivery range (2) 200ul source plate volume per well for 96 Format and 75ul source plate volume per well for 384 Format |
Pin Type | Pin Diameter(mm) | Shape | 96 Format Low Range(nL)² | 96 Format High Range(nL)² | 384 Format Low Range(nL)³ | 384 Format High Range(nL)³ |
---|---|---|---|---|---|---|
FP9 | 0.229 | Solid | 4 | 10 | 3 | 8 |
FP8 | 0.35 | Solid | 13 | 26 | 6 | 18 |
FP1 | 0.457 | Solid | 18 | 43 | 11 | 31 |
FP1S6 | 0.457 | 6nL Slot | 24 | 49 | 15 | 34 |
FP1S10 | 0.457 | 10nL Slot | 30 | 54 | 21 | 40 |
FP1S20 | 0.457 | 20nL Slot | 37 | 61 | 27 | 46 |
FP1S30 | 0.457 | 30nL Slot | 46 | 68 | 35 | 54 |
FP1S40 | 0.457 | 40nL Slot | 57 | 78 | 45 | 63 |
FP1S50 | 0.457 | 50nL Slot | 70 | 90 | 56 | 75 |
FP3 | 0.787 | Solid | 67 | 139 | 29 | 79 |
FP4 | 0.91 | Solid | 94 | 197 | 34 | 98 |
FP3S100 | 0.787 | 100nL Slot | 175 | 241 | 114 | 163 |
FP3S200 | 0.787 | 200nL Slot | 280 | 332 | 203 | 250 |
FP3S500 | 0.787 | 500nL Slot | 535 | 559 | 427 | 464 |
FP4S1000 | 0.91 | 1000nL Slot | 940 | 1011 | 704 | 800 |
FP4S2000 | 0.91 | 2000nL Slot | 1518 | 1608 | 1277 | 1362 |
Footnotes: (1) Delivery volume range is determined by speed of withdrawal from source liquid: Z-Speed Range = 1.5-30 mm/sec, slow speed = low volume delivery range, fast speed = high volume delivery range (2) 200ul source plate volume per well (3) 75ul source plate volume per well |
Pin Type | Pin Diameter (mm) | Shape | 96 Format Low Range(nL)² | 96 Format High Range(nL)² | 384 Format Low Range(nL)³ | 384 Format High Range(nL)³ |
---|---|---|---|---|---|---|
FP9H | 0.229 | Solid | 4 | 10 | 3 | 8 |
FP8H | 0.35 | Solid | 9 | 24 | 6 | 17 |
FP1H | 0.457 | Solid | 15 | 39 | 9 | 27 |
FP1S6H | 0.457 | 6nL Slot | 23 | 49 | 14 | 32 |
FP1S10H | 0.457 | 10nL Slot | 29 | 53 | 20 | 38 |
FP1S20H | 0.457 | 20nL Slot | 35 | 59 | 26 | 43 |
FP1S30H | 0.457 | 30nL Slot | 47 | 69 | 35 | 53 |
FP1S40H | 0.457 | 40nL Slot | 54 | 75 | 41 | 58 |
FP1S50H | 0.457 | 50nL Slot | 69 | 90 | 57 | 73 |
FP3H | 0.787 | Solid | 67 | 134 | 27 | 76 |
FP4H | 0.91 | Solid | 95 | 189 | 32 | 102 |
FP3S100H | 0.787 | 100nL Slot | 170 | 227 | 108 | 164 |
FP3S200H | 0.787 | 200nL Slot | 266 | 320 | 190 | 239 |
FP3S500H | 0.787 | 500nL Slot | 520 | 542 | 416 | 456 |
FP4S1000H | 0.91 | 1000nL Slot | 932 | 1000 | 741 | 805 |
FP4S2000H | 0.91 | 2000nL Slot | 1571 | 1638 | 1351 | 1423 |
Footnotes: (1) Delivery volume range is determined by speed of withdrawal from source liquid: Z-Speed Range = 1.5-30 mm/sec, slow speed = low volume delivery range, fast speed = high volume delivery range (2) 200ul source plate volume per well (3) 75ul source plate volume per well |
Pin Type | Diameter (mm) | Shape | 96 Format Low Range(nL)² | 96 Format High Range(nL)² | 384 Format Low Range(nL)³ | 384 Format High Range(nL)³ |
---|---|---|---|---|---|---|
FP | 1.58 | Solid Pointed | 147 | 411 | 168 | 395 |
FPS.5 | 1.58 | 500nL Slot | 442 | 704 | 631 | 843 |
FPS | 1.58 | 1000nL Slot | 893 | 1130 | 1343 | 1498 |
FPS2 | 1.58 | 2000nL Slot | 1911 | 2038 | 2607 | 2767 |
FPS5 | 1.58 | 5000nL Slot | 3908 | 4296 | 5180 | 5253 |
FP6 | 1.58 | Solid Flat | 323 | 674 | 154 | 398 |
FP6S.5 | 1.58 | 500nL Slot | 734 | 1042 | 855 | 1053 |
FP6S | 1.58 | 1000nL Slot | 1210 | 1500 | 1638 | 1717 |
FP6S2 | 1.58 | 2000nL Slot | 2299 | 2384 | 2787 | 3068 |
FP6S5 | 1.58 | 5000nL Slot | 4329 | 4656 | 5237 | 5245 |
Footnotes:(1) Delivery volume range is determined by speed of withdrawal from source liquid: Z-Speed Range = 1.5-30 mm/sec, slow speed = low volume delivery range, fast speed = high volume delivery range (2) 200ul source plate volume per well (3) 75ul source plate volume per well |