Pierce™ EDC, No-Weigh™ Format
Pierce™ EDC, No-Weigh™ Format
Pierce™ EDC, No-Weigh™ Format
Pierce™ EDC, No-Weigh™ Format
Pierce™ EDC, No-Weigh™ Format
Thermo Scientific™

Pierce™ EDC, No-Weigh™ Format

Thermo Scientific Pierce EDC is a carboxyl- and amine-reactive zero-length crosslinker. EDC reacts with a carboxyl group first and formsRead more
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Catalog NumberQuantity
2298125 g
A3539110 x 1 mg
7714910 mg
229805 g
Catalog number 22981
Price (EUR)
488,65
Online Exclusive
650,00
Save 161,35 (25%)
Each
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Quantity:
25 g
Recurring order eligible. Learn more »
Price (EUR)
488,65
Online Exclusive
650,00
Save 161,35 (25%)
Each
Add to cart
Ask our AI about this Product
Thermo Scientific Pierce EDC is a carboxyl- and amine-reactive zero-length crosslinker. EDC reacts with a carboxyl group first and forms an amine-reactive O-acylisourea intermediate that quickly reacts with an amino group to form an amide bond with release of an isourea by-product. The intermediate is unstable in aqueous solutions and so two-step conjugation procedures rely on N-hydroxysuccinimide (NHS) for stabilization. Failure to react with an amine will result in hydrolysis of the intermediate, regeneration of the carboxyl, and release of an N-substituted urea. A side reaction is the formation of an N-acylurea, which is usually restricted to carboxyls located in hydrophobic regions of proteins.

Thermo Scientific No-Weigh products are specialty reagents provided in a pre-aliquoted format. The pre-weighed packaging prevents the loss of reagent reactivity and contamination over time by eliminating the repetitive opening and closing of the vial. The format enables use of a fresh vial of reagent each time, eliminating the hassle of weighing small amounts of reagents and reducing concerns over reagent stability.

Characteristics of EDC:

Reactive group: carbodiimide
Reaction target: activates carboxyl groups to conjugate to amino groups (primary amines)
Several conjugation strategies—react EDC alone with target groups or include NHS or Sulfo-NHS to increase reaction efficiency or to stabilize active intermediate for later reaction to amines
Neutral linkage—forms neutral amide bonds between carboxyls and amines
Water-soluble reagent—add directly to reactions in aqueous, physiological buffers
Soluble reaction byproducts—easily removed by washing with water or dilute acid
High-purity, crystalline reagent—use to create high-quality, activated derivatives

Properties of EDC
• Molecular formula: C8H17N3·HCl
• Molecular weight: 191.7
• Spacer arm length: 0 Å
• CAS Number: 25952-53-8
• Reactive groups: carbodiimide
• Reactivity: Forms active intermediate with carboxyl groups at pH 4.7–6.0 (optimum), then intermediate reacts with primary amines

1-Ethyl-3-[3-dimethylaminopropyl]carbodiimide hydrochloride (EDC or EDAC) is a zero-length crosslinking agent used to couple carboxyl groups to primary amines. This crosslinker has been used in diverse applications such as forming amide bonds in peptide synthesis, attaching haptens to carrier proteins to form immunogens, labeling nucleic acids through 5' phosphate groups and creating amine-reactive NHS-esters of biomolecules. EDC reacts with a carboxyl to form an amine-reactive O-acylisourea intermediate. If this intermediate does not encounter an amine, it will hydrolyze and regenerate the carboxyl group. In the presence of N-hydroxysulfosuccinimide (Sulfo-NHS), EDC can be used to convert carboxyl groups to amine-reactive Sulfo-NHS esters. This is accomplished by mixing the EDC with a carboxyl containing molecule and adding Sulfo-NHS.

Applications:
• Conjugate carboxyl and amino groups among peptides and proteins
• Couple haptens to immunogenic carrier proteins (e.g., attach a peptide to KLH)
Immobilize peptide antigens to affinity-purify antibodies
• Create NHS-activated, amine-reactive labeling compounds
• Crosslink proteins to carboxyl coated beads or surfaces
• Activate nanoparticles with amine-reactive Sulfo-NHS esters
• DNA labeling through 5' phosphate groups (see Tech Tip #30)

Product References:
Crosslinker Application Guide -- search for recent literature references for this product
For Research Use Only. Not for use in diagnostic procedures.
Specifications
Cell PermeabilityNo
DescriptionEDC
FormPowder
Labeling MethodChemical Labeling
Molecular Weight (g/mol)191.7
PEGylatedNo
Product LinePierce™
Quantity25 g
Reactive MoietyCarbodiimide
Shipping ConditionWet Ice
SolubilityWater
Spacer Arm Length0.0 Å
Water SolubleYes
Chemical ReactivityAmine-Carboxyl
CleavableNo
Crosslinker TypeHeterobifunctional
FormatStandard, Single-use, Premium-grade
Product TypeCrosslinker
SpacerShort (<10 Å)
Unit SizeEach
Contents & Storage
Upon receipt store desiccated at -20°C.
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Certificates

Lot #Certificate TypeDateCatalog Number(s)
3215140Certificate of AnalysisJun 27, 2025A35391
3215294Certificate of AnalysisJun 25, 2025A35391
3216537Certificate of AnalysisJun 25, 202577149
3214536Certificate of AnalysisJun 25, 2025A35391
3214412Certificate of AnalysisJun 17, 2025A35391
5 results displayed, search above for a specific certificate

Safety Data Sheets

Frequently asked questions (FAQs)

No. EDC is very unstable in aqueous environments and must be dissolved immediately before use. NHS and Sulfo-NHS are relatively stable in solution but best results are obtained when they are dissolved immediately before use. Store these compounds desiccated at 4°C.

Find additional tips, troubleshooting help, and resources within our Protein Assays and Analysis Support Center.

These compounds are used to modify a carboxyl group to form an amine-reactive ester. This is accomplished by mixing NHS with a carboxyl-containing molecule and the carbodiimide EDC (Cat. No. 22980, 22981, 77149, A35391). EDC causes a dehydration reaction between the carboxyl and the NHS hydroxyl group, giving rise to an NHS-ester-activated molecule. The activated molecule can then be reacted spontaneously with a primary amine-containing molecule. Although the carboxyl-molecules can be made to react directly with amines using EDC, the reaction is much more efficient with NHS because a stable intermediate is created. In fact, molecules that are activated as NHS esters can be dried and stored for later reaction to amine-containing targets.

Find additional tips, troubleshooting help, and resources within our Protein Assays and Analysis Support Center.

These compounds are used in conjunction with the crosslinker EDC (Cat. No. 22980, 22981, 77149, A35391) to synthesize amine-reactive labeling reagents, crosslinkers and conjugation compounds. Any compound containing a carboxylic acid (-COOH), such as a protein, or biotin or peptide, can be activated with NHS or Sulfo-NHS to form an NHS ester that will spontaneously react to form covalent amide linkages with proteins and other molecules that contain primary amines (-NH2).

Find additional tips, troubleshooting help, and resources within our Protein Assays and Analysis Support Center.

The CarboxyLink Resin is for immobilizing carboxyl-containing biomolecules after EDC activation. CarboLink Resin is hydrazide-activated and immobilizes glycoproteins. Carbolink has been replaced with glycolink immobilization kits and resins. Glycolink can also be used to immobilize steroids or other molecules containing ketones. Both resins are capable of coupling ligands via carboxylic acids using EDC (Cat. No. 22980). Both immobilization chemistries are available on UltraLink Resin as UltraLink Hydrazide (glycoproteins) and UltraLink DADPA (carboxyl) Resins.

Find additional tips, troubleshooting help, and resources within our Protein Purification and Isolation Support Center.

These resins are derivatized with diaminodipropylamine (DADPA). DADPA has a terminal primary amine that enables covalent immobilization of peptides or other carboxyl-containing (-COOH) molecules. When incubated with the resin and the carbodiimide crosslinker EDC (included in the CarboxyLink Immobilization Kit), carboxyl-containing molecules become permanently attached to the resin by stable amide bonds. The immobilized molecules can then be used in affinity purification procedures. CarboxyLink/DADPA UltraLink Coupling Resins can also be used to immobilize other kinds of molecules using alternative amine-reactive crosslinking chemistries.

Find additional tips, troubleshooting help, and resources within our Protein Purification and Isolation Support Center.

Citations & References (7)

Citations & References
Abstract
Solid phase DNA amplification: characterisation of primer attachment and amplification mechanisms.
Authors:Adessi C, Matton G, Ayala G, Turcatti G, Mermod JJ, Mayer P, Kawashima E
Journal:Nucleic Acids Res
PubMed ID:11024189
Different chemical methods used to attach oligonucleotides by their 5'-end on a glass surface were tested in the framework of solid phase PCR where surface-bound instead of freely-diffusing primers are used to amplify DNA. Each method was first evaluated for its capacity to provide a high surface coverage of oligonucleotides ... More
Metabolism of vertebrate amino sugars with N-glycolyl groups: elucidating the intracellular fate of the non-human sialic acid N-glycolylneuraminic acid.
Authors:Bergfeld AK, Pearce OM, Diaz SL, Pham T, Varki A
Journal:J Biol Chem
PubMed ID:22692205
'The two major mammalian sialic acids are N-acetylneuraminic acid and N-glycolylneuraminic acid (Neu5Gc). The only known biosynthetic pathway generating Neu5Gc is the conversion of CMP-N-acetylneuraminic acid into CMP-Neu5Gc, which is catalyzed by the CMP-Neu5Ac hydroxylase enzyme. Given the irreversible nature of this reaction, there must be pathways for elimination or ... More
Surface modification, functionalization and bioconjugation of colloidal inorganic nanoparticles.
Authors:Sperling RA, Parak WJ
Journal:Philos Trans A Math Phys Eng Sci
PubMed ID:20156828
Inorganic colloidal nanoparticles are very small, nanoscale objects with inorganic cores that are dispersed in a solvent. Depending on the material they consist of, nanoparticles can possess a number of different properties such as high electron density and strong optical absorption (e.g. metal particles, in particular Au), photoluminescence in the ... More
Extensive terminal and asymmetric processing of small RNAs from rRNAs, snoRNAs, snRNAs, and tRNAs.
Authors:Li Z, Ender C, Meister G, Moore PS, Chang Y, John B
Journal:Nucleic Acids Res
PubMed ID:22492706
Deep sequencing studies frequently identify small RNA fragments of abundant RNAs. These fragments are thought to represent degradation products of their precursors. Using sequencing, computational analysis, and sensitive northern blot assays, we show that constitutively expressed non-coding RNAs such as tRNAs, snoRNAs, rRNAs and snRNAs preferentially produce small 5' and ... More
The conserved His-144 in the PsbP protein is important for the interaction between the PsbP N-terminus and the Cyt b559 subunit of photosystem II.
Authors:Ido K, Kakiuchi S, Uno C, Nishimura T, Fukao Y, Noguchi T, Sato F, Ifuku K
Journal:J Biol Chem
PubMed ID:22707728
The PsbP protein regulates the binding properties of Ca(2+) and Cl(-), and stabilizes the Mn cluster of photosystem II (PSII); however, the binding site and topology in PSII have yet to be clarified. Here we report that the structure around His-144 and Asp-165 in PsbP, which is suggested to be ... More
7 total citations

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