Human Glucocorticoid receptor-α ELISA kit (DEIA-BJ1049)

Regulatory status: For research use only, not for use in diagnostic procedures.

Write a review

Size
96T
Sample
Serum, plasma, cell culture supernatants, body fluid and tissue homogenate
Species Reactivity
Human
Intended Use
Human Glucocorticoid receptor-α ELISA kit is a 1.5 hour solid-phase ELISA designed for the quantitative determination of the Glucocorticoid receptor-α. This ELISA kit is for research use only, not for therapeutic or diagnostic applications.
Contents of Kit
1. MICROTITER PLATE: 96 wells
2. ENZYME CONJUGATE: 6.0 mL or 10 ml
3. STANDARD A-F: 1 vial each
4. SUBSTRATE A: 6 mL
5. SUBSTRATE B: 6 mL
6. STOP SOLUTION: 6 mL
7. WASH SOLUTION (100 x): 10 mL
8. BALANCE SOLUTION: 3 mL
Storage
All components of this kit are stable at 2-8°C until the kit's expiration date.
Detection Range
1-25 ng/mL
Sensitivity
0.1 ng/mL

Citations


Have you cited DEIA-BJ1049 in a publication? Let us know and earn a reward for your research.

Related Products


Customer Reviews


Write a review, share your experiences with others and get rewarded !
Product Name Cat. No. Applications Host Species Datasheet Price Add to Basket
Product Name Cat. No. Applications Host Species Datasheet Price Add to Basket

References


Graphene/alpha-tellurene van der Waals heterobilayers: Interlayer coupling and gate-tunable carrier type and Schottky barriers

APPLIED SURFACE SCIENCE

Authors: Liu, Hairui; Gao, Rui; Yang, Jien; Yang, Feng; Wang, Tianxing; Zhang, Zhuxia; Liu, Xuguang; Jia, Husheng; Xu, Bingshe; Ma, Heng

Two-dimensional (2D) graphene/semiconductors van der Waals (vdW) heterostructures possess ultra high carrier mobility and fine mechanical properties, which show potential applications in nanoelectronics. The regulations on interface Schottky barriers and doping concentrations are still important questions. In this work, the electronic properties of graphene/alpha-tellurene (Gr/alpha-Te) van der Waals heterobilayers (vdW HBS) are studied via first-principle calculations. It is found that p-type Schottky contact with a low p-type Schottky barrier height (similar to 0.18 eV) is formed at the graphene-alpha-Te interface. Furthermore, n-type Schottky barrier transforms to p-type when we compress interlayer distance or apply external electric field. Moreover, the hole doping in graphene can be modulated to electron doping via compressing interlayer distance from 3.53 angstrom to 2.70 angstrom or exerting weak negative electric field. These predicted results show that Gr/alpha-Te vdW HBS possesses interlayer-distance and electric-field dependent Schottky barrier height, which is very useful to develop Gr/alpha-Te-based electronic devices.

Highly efficient solar hydrogen production through the use of bifacial photovoltaics and membrane electrolysis

JOURNAL OF POWER SOURCES

Authors: Privitera, S. M. S.; Muller, M.; Zwaygardt, W.; Carmo, M.; Milazzo, R. G.; Zani, P.; Leonardi, M.; Maita, F.; Canino, A.; Foti, M.; Bizzarri, F.; Gerardi, C.; Lombardo, S. A.

The large-scale implementation of solar hydrogen production requires an optimal combination of photovoltaic systems with suitably-designed electrochemical cells, possibly avoiding power electronics for DC-DC conversion, to decrease costs. Here, a stable, solar-driven water splitting system is presented, obtained through the direct connection of a state-of-the-art proton exchange membrane (PEM) electrolyzer to a bifacial silicon heterojunction (SHJ) solar module of three cells in series with total area of 730 cm(2). The bifaciality of the solar module has been optimized through modeling in terms of the number of cells, module height and inclination. During outdoor operation in the standard monofacial configuration, the system is able to produce 3.7 gr of H-2 h(-1)m(-2) with an irradiation of 1000 W m(-2) and a solar-to-hydrogen efficiency (STH) of 11.55%. The same system operating in bifacial mode gives rise to a higher H-2 flux and STH efficiency, reaching values of 4.2 gr of H-2 h(-1)m(-2) and STH of 13.5%. Such a noticeable difference is achieved through the collection of albedo radiation from the ground by the bifacial PV system. The system has been tested outdoors for more than 55 h, exhibiting very good endurance, with no appreciable change in production and efficiency.

Online Inquiry

Name:
Phone: *
E-mail Address: *
Technology Interest:
Type of Organization:
Service & Products Interested: *
Project Description:

Related Products

Related Resources

Ordering Information

Payment methods we support:
Invoice / Purchase Order
Credit card

Inquiry Basket