Kev hloov kho Peptide

C-terminal hloov kho

C-terminal modification can increase the bio-activity, rise the stability, prolong shelf life.

What is C-terminal modification?

C-terminal modifications play a crucial role in peptide chemistry, enabling researchers to tailor peptide function to a variety of scientific and pharmaceutical applications. These modifications primarily affect peptide stability, charge, binding affinity and biological activity.The MOL Changes team offers a wide range of C-terminal modification services to provide researchers with highly customised peptides for research and therapeutic use.

Common C-terminal modifications

Hloov kho hom

MOL Changes offers a variety of C-terminal modification options to help scientists choose the best chemical structure for their specific research goals.

AFC
MAPS Asymmetric 2 branches
CMK

AMC

MAPS Asymmetric 4 branches

Lys(Biotin)

Amidation

MAPS Asymmetric 8 branches

Lys(5-FAM)

BSA (-COOH of C terminal)

Kuv

Lys(TMR)

Bzl

NHEt

Lys(Dansyl)

Cysteamide

NHisopen

DABCYL/Glu-NH2

Ester (OEt)

NHMe

-

Ester (OMe)

OSU

-

Ester (OtBu)

OVA (-COOH of C terminal)

-

Ester (OTBzl)

p-Nitroanilide

-

KLH (-COOH of C terminal)

tBu

-

Cov Lus Qhia Tshwj Xeeb

C-Terminal Peptide Modifications Reveal Direct and Indirect Roles of Hedgehog Morphogen Cholesteroylation

Hedgehog (Hh) morphogens are involved in embryonic development and stem cell biology and, if misregulated, can contribute to cancer. One important post-translational modification with profound impact on Hh biofunction is its C-terminal cholesteroylation during biosynthesis. The current hypothesis is that the cholesterol moiety is a decisive factor in Hh association with the outer plasma membrane leaflet of producing cells, cell-surface Hh multimerization, and its transport and signaling. Yet, it is not decided whether the cholesterol moiety is directly involved in all of these processes, because their functional interdependency raises the alternative possibility that the cholesterol initiates early processes directly and that these processes can then steer later stages of Hh signaling independent of the lipid. We generated variants of the C-terminal Hh peptide and observed that these cholesteroylated peptides variably impaired several post-translational processes in producing cells and Hh biofunction in Drosophila melanogaster eye and wing development. We also found that substantial Hh amounts separated from cholesteroylated peptide tags in vitro and in vivo and that tagged and untagged Hh variants lacking their C-cholesterol moieties remained bioactive. Our approach thus confirms that Hh cholesteroylation is essential during the early steps of Hh production and maturation but also suggests that it is dispensable for Hh signal reception at receiving cells.

Cov Kev Pabcuam Hloov Kho Peptide ntsig txog

peptide glycosylation

peptide glycosylation

Peptide glycosylation yog kev hloov kho covalent uas tuaj yeem txhim kho lub zog ntawm lub cev ntawm peptides

Nyeem ntxiv

peptide Phosphorylation

peptide Phosphorylation

Phosphoralation yuav tshwm sim ntawm Serine (S, Ua), Threonine (T, Thr) thiab Tyrosine (Y, Tyr) sab chains los ntawm phosphoester bond tsim

Nyeem ntxiv

Stapled Peptides

Stapled Peptides

Kev taw qhia txog ob qhov tsis zoo ntawm cov amino acids uas muaj α-methyl, α-alkenyl pawg thaum lub sij hawm solid-phase synthesis ntawm peptide chains.

Nyeem ntxiv

Cyclic Peptide

Cyclic Peptide

Peptide cyclisation txhim khu kev ruaj ntseg ntawm peptides (piv rau lawv cov linear analogues) thiab yog ib lub tswv yim zoo hauv kev txhim kho peptide.

Nyeem ntxiv

kev hloov kho peptide

Kev paub dav dav hauv kev hloov pauv peptide, muab ntau txoj hauv kev zoo rau kev tshawb fawb peptide.

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