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Amplite® West ECL HRP Substrate *Femto Sensitivity*

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H-phraseH303, H313, H333
Hazard symbolXN
Intended useResearch Use Only (RUO)
R-phraseR20, R21, R22

OverviewpdfSDSpdfProtocol


Amplite® West ECL HRP Substrate is an ultra-sensitive chemiluminescent (ECL) substrate formulated for highest sensitivity and stability. It is used for detection of peroxidase activity from HRP-conjugated antibodies and probes on nitrocellulose or PVDF membranes. The substrate provides a quick and efficient way for detecting proteins expressed at femtogram levels. It does not require any expensive instruments and consumables and is compatible with the existing instruments commonly used for western blots. When combined with very diluted and optimized antibody concentrations and blocking buffers, Amplite® West ECL HRP Substrate enables detection of target proteins in small amounts.

Components


Example protocol


AT A GLANCE

Protocol Summary
  1. Prepare working solution by mixing equal parts of Solution A and Solution B
  2. Incubate membrane with working solution
  3. Image with an imaging system or X-ray film 

SAMPLE EXPERIMENTAL PROTOCOL

  1. After incubating with the HRP enzyme conjugated antibody, wash the membrane 6 times for 5 minutes each inproper wash buffer to remove any unbounded conjugates.
  2. Prepare the developing working solution by mixing equal parts of Solution A and Solution B. Note: Use a sufficient volume to ensure the blot is completely wetted and will not dry out during development (0.1 mL/cm2)
  3. Incubate the membrane with the working solution for 5 minutes.
  4. Remove membrane from the working solution and wash briefly with wash buffer, remove excess liquid with an absorbent tissue if necessary.
  5. Image the blot using an imaging system or X-ray film. 

References


View all 50 references: Citation Explorer
Self-luminescent photodynamic therapy and pathogen detection for infectious diseases.
Authors: Zhang, Endong and Huang, Yiming and Wang, Shu
Journal: Drug delivery and translational research (2021): 1451-1455
A versatile and ultrasensitive molecularly imprinted electrochemiluminescence sensor with HRP-encapsulated liposome labeled by light-triggered click reaction for pesticide residues.
Authors: Liu, Guangyan and Li, Shiyu and Jiang, Zejun and Li, Jianping
Journal: Mikrochimica acta (2021): 33
Functional metabolomics reveal the role of AHR/GPR35 mediated kynurenic acid gradient sensing in chemotherapy-induced intestinal damage.
Authors: Wang, Di and Li, Danting and Zhang, Yuxin and Chen, Jie and Zhang, Ying and Liao, Chuyao and Qin, Siyuan and Tian, Yuan and Zhang, Zunjian and Xu, Fengguo
Journal: Acta pharmaceutica Sinica. B (2021): 763-780
Human platelets display dysregulated sepsis-associated autophagy, induced by altered LC3 protein-protein interaction of the Vici-protein EPG5.
Authors: Schwertz, Hansjörg and Rowley, Jesse W and Portier, Irina and Middleton, Elizabeth A and Tolley, Neal D and Campbell, Robert A and Eustes, Alicia S and Chen, Karin and Rondina, Matthew T
Journal: Autophagy (2021): 1-17
One-step grain pretreatment for ochratoxin A detection based on bipolar electrode-electrochemiluminescence biosensor.
Authors: Lu, Lixia and Yuan, Wei and Xiong, Qiang and Wang, Minhui and Liu, Yuanjian and Cao, Min and Xiong, Xiaohui
Journal: Analytica chimica acta (2021): 83-90
Analysis of Proteins by Immunoblotting.
Authors: Kielkopf, Clara L and Bauer, William and Urbatsch, Ina L
Journal: Cold Spring Harbor protocols (2021): pdb.prot102251
Raft-like lipid microdomains drive autophagy initiation via AMBRA1-ERLIN1 molecular association within MAMs.
Authors: Manganelli, Valeria and Matarrese, Paola and Antonioli, Manuela and Gambardella, Lucrezia and Vescovo, Tiziana and Gretzmeier, Christine and Longo, Agostina and Capozzi, Antonella and Recalchi, Serena and Riitano, Gloria and Misasi, Roberta and Dengjel, Joern and Malorni, Walter and Fimia, Gian Maria and Sorice, Maurizio and Garofalo, Tina
Journal: Autophagy (2021): 2528-2548
Platelet autophagic machinery involved in thrombosis through a novel linkage of AMPK-MTOR to sphingolipid metabolism.
Authors: Lee, Tzu-Yin and Lu, Wan-Jung and Changou, Chun A and Hsiung, Yuan-Chin and Trang, Nguyen T T and Lee, Cheng-Yang and Chang, Tzu-Hao and Jayakumar, Thanasekaran and Hsieh, Cheng-Ying and Yang, Chih-Hao and Chang, Chao-Chien and Chen, Ray-Jade and Sheu, Joen-Rong and Lin, Kuan-Hung
Journal: Autophagy (2021): 4141-4158
Fe-MOGs-based enzyme mimetic and its mediated electrochemiluminescence for in situ detection of H2O2 released from Hela cells.
Authors: Zong, Li-Ping and Ruan, Ling-Yu and Li, Junji and Marks, Robert S and Wang, Jun-Song and Cosnier, Serge and Zhang, Xue-Ji and Shan, Dan
Journal: Biosensors & bioelectronics (2021): 113216
Essential meiotic structure-specific endonuclease1 (EME1) promotes malignant features in gastric cancer cells via the Akt/GSK3B/CCND1 pathway.
Authors: Guo, Zhiguo and Liang, Erbo and Li, Wei and Jiang, Leilei and Zhi, Fachao
Journal: Bioengineered (2021): 9869-9884