PME011 Microdialysis Catheter Microeye
Microdialysis catheter is provided with a special membrane which produces a “plasma-like” sample without the need for blood centrifugation.
It enables “plasma-like” samples taking and continuous monitoring of low-molecular substances in circulating blood without withdrawing blood from the patient. It offers virtually real-time information. Samples can be collected for off-line analysis if required. This catheter is easy to use and reduces risks of contact with blood borne pathogens. The MicroEye is intended for intravenous use for periods up to 48 hours and is inserted via 18G blood catheter.
The range of substances that can be monitored using this catheter
- Electrolytes (such as potassium, magnesium etc.)
- Energy metabolites (glucose, lactate, pyruvate, etc.)
- Amino acids (glutamate, GABA, etc.)
- Hormones and neurotransmitters (dopamine, serotonin, etc.)
- Inflammatory mediators and growth factors (cytokines, etc.)
- Drugs and their metabolites (unbound “free fractions and /or total
You may also like…
-
FC4.TL.* PEEK Flow Cell
Read moreThe FC4.TL flow cell is made of PEEK and enables the use of Screen printed sensors in a flow through arrangement.
It has teflon endings permitting a fully compatible connection to chromatography tubing.
The flow cell is suitable for sensors of type AC1, AC2, CC1, CC2 and CC3.
The Screen printed sensor is inserted into the slit of cell and tightened by closing of the door. The cell ensures the wall-jet flow around the working electrode and it is optimised so that no air bubbles cumulate in the cell. The cell contains also the contact and output cable.
With the sensors enclosed in a flow cell, it is possible to measure semi-automatically or automatically using a pump or liquid switch for sample supply. Under such conditions, maximum measurement reproducibility is ensured.
-
FC2.TL.* PMMA Flow Cell
Read moreThe flow cell enables the use of Screen printed sensors in a flow through arrangement.
The flow cell is suitable for sensors of type AC1, AC2, CC1, CC2 and CC3.
The Screen printed sensor is inserted into the slit of cell and tightened by closing of the door. The cell ensures the wall-jet flow around the working electrode and it is optimised so that no air bubbles cumulate in the cell. The cell contains also the contact and output cable.
With the sensors enclosed in a flow cell, it is possible to measure semi-automatically or automatically using a pump or liquid switch for sample supply. Under such conditions, maximum measurement reproducibility is ensured.
-
2PP.T Dual Channel Peristaltic Pump
Read moreThe peristaltic pump 2PP.T* is simple device for routine laboratory use. The pump has two channels. The flow is in one direction.
The lifetime of tubing is optimized to maximal value. The pulsation is minimized for flow cell FC2.
The integrated shaft enables fastening by standard laboratory clamps. The pump is supplied by max 12V. The rotation speed is controlled by voltage. The control unit is delivered with pump.
The force on the tubing is adjusted by screw a spring. The pulsation damper can be ordered separately.
Related products
-
Basic Sample Holder – metal contact, 4 mm max. thickness (redox.me)
Read moreBasic Sample Holder with a metal contact works as an electrical conductor between an electrode material (free-standing or deposited on a substrate) and an external circuit. This holder consists of PEEK body, pure Tantalum, Stainless Steel 316L, Titanium, Copper or Nickel metal electrical contact, and PEEK screw to fix the electrode. It is compatible with most of inorganic and organic based plates, free-standing membranes or thin films deposited on flexible and rigid substrates. A maximum thickness of the sample is 4 mm. Tantalum is known to be inert to practically all organic and inorganic compounds. Tantalum’s corrosion resistance is very similar to that of glass, as both are unsuitable for use in hydrofluoric acid and strong hot alkali applications. Therefore, in those cases, we recommend the other wire contact variant. The metal contact can be fully immersed in the electrolyte.
Application note
Generally, the electrode is fabricated by fixing the electrochemical active sample into the holder using a screw. Such electrode is immersed in the ion-conducting solution as a working electrode or counter electrode. An electric current is passed between the working electrode and the counter electrode for a certain amount of time. Metal wire contact is permanently installed in the PEEK body. The holder is designed to be used multiple times. The holder should be cleaned prior to the installation of electrode material.Specification
holder body material: PEEK
rod diameter: 6 mm
contact material: Ta, SS 316L, Ti, Cu or Ni
contact wire diameter: 0.6 mm
contact wire total length: 110 mm
holder length: 70 mm
maximum sample thickness: 4 mmIntrastat data
HS Code: 90309000
Country of Origin: Sweden
NET weight: 100 gProduct includes
1 x Basic Sample Holder
1 x PEEK M3 screw
1 O-Ring (FKM for aqueous or FFKM for organic electrolytes) -
Sample Holder 25 mm x 25 mm (redox.me)
Read moreThe sample holder (known also as flat specimen holder) is used for holding flat, circular or square/rectangular samples. It enables contacting the sample from the front (e.g. ITO/FTO glass, Monolayer Graphene on SiC, or Boron-Doped Diamond thin film on various substrates) and from the back (e.g. metal specimen, Glassy Carbon plate, Boron-Doped Diamond plate). The default nominal aperture is 1cm2, but other value can be provided on request. The large electrical contact with Tantalum (formerly Copper) foil surface (not being in contact with an electrolyte) ensures optimal current collection by minimizing electrical resistance and unifying current distribution. The rod with electrical connection has a diameter of 6 mm, which makes the sample holder compatible with our voltammetry cells and jacketed cells, as long as it fits in. We may also provide an adapter to install this sample holder in openings larger than 6 mm dia.
The sample holder elements are constructed with materials that are inert to the electrochemical system (PEEK, Fluorocarbons). It well fits aqueous (FKM/EPDM O-Rings) and organic solvent (FFKM O-Rings) electrolyte requirements. The construction is well sealed which prevents the electrolyte to leak inside.
Application note
The sample holder is used largely for corrosion studies. It can be installed in a beaker type cell as well as in testing environments such as open water reservoirs, cans, tanks etc. It can also be used wherever it is necessary to make an electrode using a thin layer of an active material deposited on a flat substrate (conducting or insulating).Specification
nominal aperture range: 0.008 cm2 (1 mm dia.) – 4.155 cm2 (23 mm dia.)
minimum aperture: 0.008 cm2 (1 mm dia.)
maximum aperture: 4.9 cm2 (23 mm dia.)
electrical connection diameter (rod): 6 mm
minimum substrate size:nominal aperture minimum substrate size 0.008 cm2 (1 mm dia.) 10 x 10 mm2 (square) or 12 mm dia. (circular). 0.196 cm2 (5 mm dia.) 7 x 7 mm2 (square) or 10 mm dia. (circular). 0.283 cm2 (6 mm dia.) 8 x 8 mm2 (square) or 11 mm dia. (circular). 0.385 cm2 (7 mm dia.) 9 x 9 mm2 (square) or 12 mm dia. (circular). 1 cm2 (11.3 mm dia.) 13 x 13 mm2 (square) or 16 mm dia. (circular). 1.76 cm2 (15 mm dia.) 17 x 17 mm2 (square) or 20 mm dia. (circular). 3 cm2 (19.5 mm dia.) 22 x 22 mm2 (square) or 24 mm dia. (circular). 3.5 cm2 (21 mm dia.) 23 x 23 mm2 (square) or 25 mm dia. (circular). 4.155 cm2 (23 mm dia.) 25 x 25 mm2 (square only) maximum substrate size: 25 x 25 mm2
maximum sample thickness: 4 mm
contact type: front or backIntrastat data
HS Code: 90309000
Country of Origin: Sweden
NET weight: 100 gProduct includes
1 x chamber
1 x lid
1 x contact (Tantalum foil)
1 x rod with electrical connection -
Activation furnance for electrochemical sensors
Read moreThe activation furnance is a device used for curing individual sensors of the AC1 type. At a defined temperature (up to 1000 °C) depending on the electrode and sensor materials. When the sensor is cured, the surface of the electrodes is cleaned from surface oxides and organic impurities, which results in regeneration of the sensor or its activation. In this way, for example, old sensors with immobilized enzyme layers can be cured for reuse – see example at the end ot the document.
