Si cierra, no se guardará su personalización salvo que haya añadido el artículo a su carrito de la compra o a favoritos.
Pulse OK para cerrar la herramienta MILLIPLEX® MAP o Cancelar para volver a su selección.
Elija paneles personalizables y kits premezclos - O - MAPmates™ de señalización celular
Diseñe y calcule el precio de sus kits MILLIPLEX® MAP.
Paneles personalizados y kits premezclados
Nuestra amplia cartera de productos consta de paneles multiplex que le permiten elegir, dentro del panel, los analitos que mejor se ajustan a sus requisitos. En una pestaña distinta puede elegir el formato de citocina premezclada o un kit single plex.
Kits de señalización celular y MAPmates™
Elija los kits preparados para poder explorar las vías o los procesos enteros. O diseñe sus propios kits eligiendo single plex MAPmates™ según las directrices proporcionadas.
No deben combinarse los siguientes MAPmates™: -MAPmates™ que requieren un tampón de ensayo diferente. -Pares MAPmate™ fosfoespecíficos y totales, por ejemplo, GSK3β y GSK3β (Ser 9). -MAPmates™ con panTyr y específicos de sitio; por ejemplo, receptor del fosfo-EGF y fosfo-STAT1 (Tyr701). -Más de 1 fosfo-MAPmate™ para una sola diana (Akt, STAT3). -La GAPDH y la β-tubulina no pueden combinarse con kits o MAPmates™ que contengan panTyr.
.
Número de referencia
Descripción para pedidos
Cant./Env.
Lista
Este artículo se ha añadido a favoritos.
Seleccione una especie, un tipo de panel, un kit o un tipo de muestra
Para empezar a diseñar su kit MILLIPLEX® MAP, seleccione una especie, un tipo de panel o un kit de interés.
Custom Premix Selecting "Custom Premix" option means that all of the beads you have chosen will be premixed in manufacturing before the kit is sent to you.
Catalogue Number
Ordering Description
Qty/Pack
List
Este artículo se ha añadido a favoritos.
Especie
Tipo de panel
Kit seleccionado
Cant.
Número de referencia
Descripción para pedidos
Cant./Env.
Precio de catálogo
96-Well Plate
Cant.
Número de referencia
Descripción para pedidos
Cant./Env.
Precio de catálogo
Añadir más reactivos (Se necesita tampón y un kit de detección para usar con MAPmates)
Cant.
Número de referencia
Descripción para pedidos
Cant./Env.
Precio de catálogo
48-602MAG
Buffer Detection Kit for Magnetic Beads
1 Kit
Opción para ahorrar espacio Los clientes que adquieran múltiples kits pueden optar por ahorrar espacio de almacenamiento retirando el embalaje del kit y recibiendo los componentes de sus ensayos multiplex en bolsas de plástico para un almacenamiento más compacto.
Este artículo se ha añadido a favoritos.
El producto se ha añadido a su carrito
Ahora puede personalizar otro kit, elegir un kit premezclado, tramitarlo o cerrar la herramienta de pedidos.
Atomic absorption (AA) is one of the oldest and most well established of the analytical methods, with roots tracing back to the very early observations in which the presence of specific salts in a chemical sample imparted characteristic colors to a luminous flame. AA is perhaps the most prominent and widely used of the family of methods employed for elemental analysis. As the name implies, it uses the absorption of light to measure the concentration of gas-phase atoms. The samples are usually liquids or solids, so the analyte atoms or ions must be vaporized in a flame or graphite furnace. If flame is used to desolvate and vaporize the analyte, the technique is called Flame Atomic Absorption Spectroscopy (FAA). If a graphite furnace is used, the technique is known as Graphite Furnace Absorption Spectroscopy (GFAA), also called electrothermal atomic absorption spectroscopy. Numerous methods from the United States Environmental Protection Agency (EPA) for the determination of metals use AA. Examples are shown in Table 1.
Metal
Method Number
Atomic Absorption Method
Cobalt
219.1
Flame atomic absorption (FAA)
219.2
Graphite furnace atomic absorption (GFAA)
Lead
239.1
FAA
239.2
GFAA
Zinc
289.1
FAA
289.2
GFAA
Copper
220.1
FAA
220.2
GFAA
Iridium
235.1
FAA
235.2
GFAA
Table 1: Examples of EPA methods that employ atomic absorption methods
The environmental field is not the only area where AA is commonly used. In clinical analysis, it is used in analyzing metals in biological fluids such as blood and urine. In some pharmaceutical manufacturing processes, trace amounts of a metal catalyst used in the process are sometimes present in the final product. AA is used to determine the amount of catalyst present in that final product. In the manufacturing industry, many raw materials are examined and AA is widely used to check that the major elements are present and that toxic impurities are lower than specified. For instance in concrete, where calcium is a major constituent, the level of lead should be low because it is toxic. In mining, AA is used to determine the amount of metals such as gold in rocks, to see whether it is worth mining.
Figure 1 is a simplified schematic of a basic atomic absorption system. The light source is usually a hollow-cathode lamp of the element that is being measured. When a ground state atom absorbs energy in the form of light of a specific wavelength, it is promoted to a higher energy level. The amount of energy absorbed at this wavelength is proportional to the number of atoms of a particular element. AA requires that the analyte atoms be in the gas phase, so the ions or atoms in a sample must undergo desolvation and vaporization in a high-temperature source such as a flame (FAA) or graphite furnace (GFAA). The main purpose of the monochromator in the AA instrument is to isolate the absorption line from background light due to interferences. Simple dedicated AA instruments often replace the monochromator with a bandpass interference filter. Photomultiplier tubes are the most common detectors for AA. GFAA has several advantages over FAA. The burner-nebulizer system in FAA is a relatively inefficient sampling device. Only a small fraction of the sample reaches the flame, and the atomized sample passes quickly through the light path. The graphite furnace is a much more efficient atomizer because all of the analyte is atomize and the atoms are retained within the light path, hence significantly improving sensitivity and detection limits. Additionally, GFAA can directly accept very small absolute quantities of sample.