ACCESSORIES |
|
Range of accessories that enhance the applications of our Screen-printed electrodes:
Wall-jet and thin layer flow-cells for flow injection analysis systems.
Cell for batch analysis.
Connectors between our screen-printed electrodes and any kind of potentiostat.
Magnetic support for screen-printed electrodes and microcentrifugue Tubes.
|
|
|
CELLS |
|
DRP-FLWCL |
|
|
Flow-Cell for screen-printed electrodes
It is a methacrylate (transparent) wall-jet flow-cell for Flow Injection Analysis, with an innovative open-close system (no screws needed) and an easy sensors replacement.
Dimensions: 3.3 x 6.0 x 3.3 cm (Lenght x Width x Height).
|
|
|
|
|
|
DRP-FLWCL8X |
|
|
Flow-Cell for 8X screen-printed electrodes
It is a methacrylate (transparent) wall-jet flow-cell for Flow Injection Analysis designed for our 8X format Screen-Printed Electrodes. The bottom part of the Flow-Cell is manufactured in aluminium. The open-close system of the cell consists on two screws that facilitate the sealing of the cell and the easy sensors replacement.
Dimensions: 11.8 x 4.7 x 3.5 cm (Lenght x Width x Height).
|
|
|
|
|
DRP-FLWCL8X1C |
|
|
Flow-Cell for 8X screen-printed electrodes 1 Channel
It is a thin layer flow-cell for Flow Injection Analysis designed for our 8X format Screen-Printed Electrodes. The bottom part of the Flow-Cell is manufactured in aluminium and the top part of the Flow-Cell is manufactured in methacrylate (transparent) . The open-close system of the cell consists on two screws that facilitate the sealing of the cell and the easy sensors replacement.
Dimensions: 11.8 x 4.7 x 3.5 cm (Lenght x Width x Height).
|
|
|
|
|
DRP-HPLCELL |
|
|
HPLC Cell for Screen-Printed Electrodes
Cell for Screen-Printed Electrodes is specially designed for working in High-Performance Liquid Chromatography systems. HPLCELL is a thin layer cell that allows an easy replacement of the electrochemical cell using Screen-Printed Electrodes and a perfect sealing thanks to its innovative design and internal o-ring.
Dimensions: 11.8 x 4.7 x 3.5 cm (Lenght x Width x Height).
|
|
|
|
|
DRP-CELL |
|
|
Cell for screen-printed electrodes
It is a methacrylate (transparent) cell for batch analysis which allows optional stirring and it's recommended for deaerated samples and for standard additions mode.
Dimensions: 4.0 cm (height) x 2.6 cm (diameter).
|
|
|
|
|
|
DRP-TCELL |
|
|
Cell for screen-printed electrodes
This methacrylate Cell is designed to perform batch analysis with large volumes of solutio n (5-8 mL), allowing temperature control. It is a cell vessel with thermostatic jacket suitable for working with deaerated samples and useful to carry out standard additions.
Dimensions: 5.8 cm (height) x 4.5 cm (diameter).
|
|
|
|
|
|
|
Customized Flow-Cells for screen-printed electrodes
DropSens is also able to manufacture tailored flow-cells following customer's specifications, including different designs and materials. We have provided researchers with a number of solutions like a flow-cell with a smaller “O-ring” to enclose working electrode only, a flow-cell associated to an electromagnet, or a cell with a conical well to perform batch analysis.
|
|
|
|
|
BATCH INJECTION ANALYSIS (BIA) CELL |
|
DRP-BIASPE02 |
|
|
Batch Injection Analysis (BIA) cell (200 μL Micropipette)
BIASPE02 is a Batch Injection Analysis (BIA) cell designed to adapt Screen-Printed Electrodes (SPEs) for its use as a robust portable electrochemical analytical system. With this system reproducible flow rate and injection volume (electronically controlled) are ensured.
|
|
|
|
|
|
DRP-BIASPE10 |
|
|
Batch Injection Analysis (BIA) cell (1000 μL Micropipette)
BIASPE10 is a Batch Injection Analysis (BIA) cell designed to adapt Screen-Printed Electrodes (SPEs) for its use as a robust portable electrochemical analytical system. With this system reproducible flow rate and injection volume (electronically controlled) are ensured.
|
|
|
DRP-BIASTIR |
|
|
Stirrer for Batch Injection Analysis Systems
An accessory for BIASPE02 and BIASPE10 that allows stirring the solution while measuring. A quickly returns to baseline is obtained and electrode fouling is avoid.
|
|
|
|
FIA SYSTEM WITH ELECTROCHEMICAL DETECTION |
|
DRP-FIAEC200 DRP-FIAEC400 |
|
|
FIAEC200/400 is a pack including all the necessary components to set up a continuous electrochemical analysis system. Flow-Injection Analysis (FIA) system with Electrochemical Detection (FIA-ED) has many applications in the laboratory and in process control as it is a powerful tool for analysis.
|
|
|
|
PERISTALTIC PUMP |
|
DRP-PPUMP |
|
|
DropSens Peristaltic Pump has a 12 roller pump head for 4 liquid flow channels adjustable from 0.005 ml/min to 30 ml/min. It is very easy to use, since pump tubing is placed around the pump head. Up to 4 tubes with similar or different diameters can be used at the same time, so up to 4 liquids cand be pumped at similar or different flow rates. Rollers configurtation in the pump head allows an extremely reliable adjustment of liquid flow rate
|
|
|
|
CONNECTORS |
|
DRP-CONNECTOR96X |
|
MANUAL |
|
|
Acts as an interface between the screen-printed electrodes 96X format and any kind of (multi) potentiostat. Up to eight wells of the same column can be measured at the same time. Also, independent analysis of any well can be developed. Two manual rotating selectors allow to select the row letter (from A to H) and the column number (from 1 to 12) identifiers of the wells to be analysed.
Dimensions: 26 x 25 x 9 cm (Lenght x Width x Height).
|
|
|
DRP-SYNCONN96X |
|
|
SYNCONN96X will allow you to control the CONNECTOR96X executing the assays sequentially without employing the manual rotating selectors.
|
|
|
|
DRP-CAST |
|
|
Acts as interface between our screen-printed electrodes and our bipotentiostats μSTAT 200 y μSTAT 400.
Flexible cable of 1 m length.
|
|
|
|
|
DRP-CAC |
|
|
Acts as an interface between the screen-printed electrode and any kind of potentiostat.
Flexible cable of 1 m length.
|
|
|
|
|
DRP-DSC |
|
|
Acts as an interface between the screen-printed electrode and any kind of potentiostat.
Dimensions 6.5 x 6.5 x 4.0 cm (Lenght x Widht x Height).
|
|
|
|
|
DRP-BICAST |
|
|
Acts as interface between the dual screen-printed electrodes (refs. C1110, C1110CNT, C1110SWCNT, C1110GNP) and and our bipotentiostats μSTAT 200 y μSTAT 400.
Flexible cable of 1 m length.
|
|
|
|
|
DRP-BICAC |
|
|
Acts as an interface between dual screen-printed electrodes (refs. C1110, C1110CNT, C1110SWCNT, C1110GNP) and any kind of bipotentiostat.
Flexible cable of 1 m length.
|
|
|
DRP-CAST-TLFCL |
|
|
Acts as interface between our TLFCL Screen-Printed Electrodes and our potentiostats.
|
|
|
|
DRP-CABSTAT1 |
|
|
Acts as interface between any conventional electrode and our Multichannels μSTAT 8000 and μSTAT 8000P.
Flexible cable of 1 m length.
|
|
|
|
|
DRP-CAST8X |
|
|
Acts as interface between our 8X format screen-printed electrodes and our Multichannel Potentiostat μSTAT 8000 and μSTAT 8000P.
Flexible cable of 1 m length.
|
|
|
|
|
DRP-CAST1X8 |
|
|
Acts as interface between our screen-printed electrodes (up to 8 units) and our Multichannel Potentiostat μSTAT 8000 and μSTAT 8000P.
Flexible cable of 1 m length.
|
|
|
|
|
DRP-CONNECT4W |
|
|
Acts as an interface between 4W format screen-printed electrodes and any kind of potentiostat.
|
|
|
|
|
DRP-CONNECT8W |
|
|
Acts as an interface between 8W format screen-printed electrodes and any kind of potentiostat.
|
|
|
|
|
DRP-CABSTATMULTI |
|
|
Acts as interface between any kind of electrochemical cell formed by up to eight working electrodes, one auxiliary and one reference electrode and our Multichannels μSTAT 8000 and μSTAT 8000P.
|
|
|
|
|
DRP-CACIDE |
|
|
Acts as an interface between the interdigitated electrodes in glass or ceramic substrate and any kind of potentiostat
Flexible cable of 1 m length.
|
|
|
|
|
DRP-CACIDEP |
|
|
Acts as interface between the interdigitated electrodes DRP-P-IDEAU100 and DRP-IDEPD100 and any kind of potentiostat.
Flexible cable of 1 m length.
|
|
|
|
|
DRP-CAC-TLFCL |
|
|
Acts as an interface between the thin-layer flow cells with integrated electrodes and any kind of potentiostat.
|
|
|
|
|
DRP-TLFCL-FLOWFITTINGS |
DRP-INLINEPORT |
|
|
Fittings suitable to work with TLFCL format SPEs simplifying the operability and effectiveness of working in FIA Systems.
|
|
|
|
|
DRP-TLFCL-HOLDER |
|
|
Holder for a robust set-up of references TLFCL when are connected through DRP-CAC-TLFCL to the potentiostat.
|
|
|
|
MAGNETIC SUPPORT |
|
DRP-MAGNETOEC |
|
|
Magnetoelectrochemistry Support
Support with variable magnet pole gaps that allows performing magnetoelectrochemical experiments with Screen-Printed Electrodes and also with conventional electrochemical cells.
|
|
|
|
|
DRP-MAGNET1TUBE05 |
DRP-MAGNET1TUBE15 |
DRP-MAGNET2TUBE05 |
DRP-MAGNET2TUBE15 |
DRP-MAGNET16TUBE05 |
DRP-MAGNET16TUBE15 |
|
Manual |
|
|
Magnetic support for microcentrifuge Tubes (0.5 mL and 1.5 mL)
Magnetic support for microcentrifuge Tubes to be employed in the isolation of magnetic beads from different matrices samples. Magnetic beads can be modified with a wide range of biomolecules being a perfect candidate for solid-magnetic based assays.
|
|
|
|
|
DRP-MAGNET96X |
|
|
Magnetic support for 96-well (ELISA) plates Inspired by the magnetic bead-based separation technology , this magnetic stand is designed to attract and capture the magnetic beads on the bottom of each of the 96 wells.
Compatible with any standard 96-well plate.
|
|
|
|
|
DRP-MAGNET |
|
|
Magnetic support for Screen-printed Electrodes
Designed to perform analysis with magnetic beads. Inspired by the magnetic bead-based separation technology, the magnet holding stand is able to entrap and better localize the magnetic beads onto the working electrode surface achieving lower variability and more reproducible results.
|
|
|
|
|
|
DRP-MAGNET8X |
|
|
Magnetic support for 8X Screen-printed electrodes
Designed to perform analysis with magnetic beads. Inspired by the magnetic bead-based separation technology, the magnet holding stand is able to entrap and better localize the magnetic beads onto the working electrode surface of 8X format Screen-printed Electrodes achieving lower variability and more reproducible results.
|
|
|
|