Módulos estándar blancos y negros para inmunoensayos
Módulos estándar blancos y negros para inmunoensayos
Módulos estándar blancos y negros para inmunoensayos
Módulos estándar blancos y negros para inmunoensayos
Módulos estándar blancos y negros para inmunoensayos
Módulos estándar blancos y negros para inmunoensayos
Módulos estándar blancos y negros para inmunoensayos
Thermo Scientific™

Módulos estándar blancos y negros para inmunoensayos

Realice inmunoensayos basados en la fluorescencia y la luminiscencia, y ensayos de unión mediante los módulos estándar blancos y negros para inmunoensayos.
Have Questions?
Cambiar vistabuttonViewtableView
Número de catálogoColorVolumen del pocillo (métrico)Tratamiento de superficie
437591Blanco350 μlMaxiSorp
437702Blanco350 μlPolySorp
437915Transparente350 μlMaxiSorp
475515Negro400 μlMaxiSorp
475523Negro400 μlPolySorp
7566Blanco380 μlhidrófobos
Número de catálogo 437591
Precio (MXN)
-
Color:
Blanco
Volumen del pocillo (métrico):
350 μl
Tratamiento de superficie:
MaxiSorp

Realice inmunoanálisis basados en la fluorescencia y la luminiscencia, y ensayos de unión mediante los módulos estándar blancos y negros para inmunoensayos Thermo Scientific™.

Características:

  • Disponibles en tiras de 8, 12 o 16 pocillos
  • Con o sin marco para la selección del ensayo óptimo
  • Pocillos de fondo plano o forma de C
  • Selección de tres tipos de superficie para una unión óptima
  • El formato blanco ofrece la más alta reflexión de señal posible con una baja fluorescencia de fondo y se recomienda para la epifluorescencia
  • El formato negro reduce la luz con retrodispersión que se puede detectar en la epifluorescencia
  • Utilice un formato transparente o claro solo en aplicaciones de fluorescencia resuelta en el tiempo

Selección de superficie:

  • Thermo Scientific™ PolySorp™ y Microlite™ 1+ para la adsorción de moléculas hidrófobas.
  • Microlite 2+ es ligeramente hidrófila y une una amplia gama de biomoléculas.
  • Thermo Scientific™ MaxiSorp™ es hidrófilo e ideal para ensayos de tipo sándwich de anticuerpos.

Especificaciones
Propiedad de uniónHidrófilo
Tipo de enlaceAdsorción
BreakApartNo
Los recipientesSí
Método de detecciónQuimioluminiscencia
Para utilizar con (aplicación)Fluorescencia y luminiscencia
TapaSin tapa
N.º por caja60
N.° por paquete5
Envase60 cajas
Bloqueo de placasNinguno
Tipo de productoTira de microplacas
Molécula dianaAnticuerpos (glucoproteínas)
Volumen de trabajo (métrico)250 μl
matriz, red, conjunto8 x 12
ColorBlanco
FormatoEstándar
MaterialPoliestireno
N.° de pocillos96
Tratamiento de superficieMaxiSorp
Volumen del pocillo (métrico)350 μl
Forma del pocilloRedondo
Unit SizeCase of 60

Preguntas frecuentes

What length of peptide is ideal for binding to the Thermo Scientific MaxiSorp surface? What are the detection limitations?

We have tested and found that a 3 amino acid peptide (Pro, Leu, Gly) cannot be detected when passively adsorbed on the MaxiSorp surface. However, this peptide can be detected when covalently immobilized using CovaLink NH Modules and CovaLink NH2 Modules and Plates. Using covalent immobilization of small peptide residues, you can typically obtain a better orientation of the molecule and reduced problems with antibody recognition of the peptide due to masking of the epitope. We have discovered that a 7 amino acid peptide from the MHC Class II antigen can be detected when adsorbed on the MaxiSorp surface. We state that the detection limitation using the MaxiSorp surface is between 3 and 7 amino acid residues.
One additional note is that detection is contingent upon the orientation of the peptide when immobilized. If the active site is inactivated or hidden at the site facing the solid phase, no detection signal is observed.

Can I bind either single- or double-stranded DNA to the Thermo Scientific MaxiSorp surface?

Single-stranded DNA can be adsorbed to our MaxiSorp surface using approximately 10 µg ssDNA per mL PBS, pH 8.2, although the stability is uncertain. Based on our experience, ssDNA immobilized on the MaxiSorp surface is so loosely bound that it can be removed by stringent washing.
Double-stranded DNA will not bind to the MaxiSorp surface. DNA, however, can be covalently bound to Nunc NucleoLink Strips.

For Nunc Immuno plates and modules, what are the advantages of one well geometry type over another? Which types should I use for various applications?

The following list describes the geometries of wells available for Nunc Immuno-plates and modules:
- Flat bottom (F): Allows maximum transmission of light. These plates can be read on a monochromatic reader.
- Round bottom (U): This geometry optimizes washing and coating. These plates can be read using a dual wavelength reader.
- "C" bottom (C): This design of the well is a combination of both flat and round bottoms. Basically, it is a flat bottomed well with curved edges at the bottom. These plates also can be read using a monochromatic reader combining optimal reading and washing.
- StarWell: These wells have a modified "C" shape geometry with eight fins strategically placed at the bottom. This feature increases surface area, allowing more molecules to become immobilized which reduces incubation times.

What is the difference between certified and non-certified MaxiSorp plates and modules?

Both of these surfaces are identical. The only difference between them is that for the certified plates, a representative sample from each manufacturing lot undergoes a Binding Capacity test. This test is an ELISA-like assay used in our quality control laboratories to ensure binding capabilities.

How can I reduce high background readings and non-specific binding, when performing ELISA using Nunc-Immuno MaxiSorp Plates?

Assay sensitivity depends strongly on efficient removal of non-specific reacting molecules. High background readings and coating instability can be minimized by addition of a blocking step after the first coating. The excess surface is then occupied by indifferent molecules.
We recommend washing three times after each coating step by using a solution of 0.15 M phosphate buffer (pH 7.2) with 0.2 M NaCl and 0.05% Tween 20.
For blocking, we recommend using 0.5% BSA, 1% casein or 1% gelatin in 0.15 M phosphate buffer (pH 8.2) or carbonate buffer (pH 9.6).