Catalogue Number
BN-O1075
Analysis Method
Specification
98%(HPLC)
Storage
2-8°C
Molecular Weight
180.16
Appearance
Botanical Source
Structure Type
Category
SMILES
C1C(OC2=CC=CC=C2O1)C(=O)O
Synonyms
2,3-Dihydrobenzo[b][1,4]dioxine-2-carboxylic acid/1,4-Benzodioxan-2-carboxylic acid/RAC 1,4-BENZODIOXANE-2-CARBOXYLIC ACID/1,4-Benzodioxin-2-carboxylicacid,2,3-dihydro/2,3-Dihydro-1,4-benzodioxine-2-carboxylic acid/1,4-Benzodioxin-2-carboxylic acid, 2,3-dihydro-/2,3-dihydro-1,4-benzodioxin-2-carboxylic acid/1,4-Benzodioxane-2-carboxylic acid/1,4-Benzodiozane-2-caboxylic acid
IUPAC Name
2,3-dihydro-1,4-benzodioxine-3-carboxylic acid
Density
1.4±0.1 g/cm3
Solubility
Flash Point
145.4±21.1 °C
Boiling Point
347.2±41.0 °C at 760 mmHg
Melting Point
126-130 °C(lit.)
InChl
InChl Key
HMBHAQMOBKLWRX-UHFFFAOYSA-N
WGK Germany
RID/ADR
HS Code Reference
Personal Projective Equipment
Correct Usage
For Reference Standard and R&D, Not for Human Use Directly.
Meta Tag
provides coniferyl ferulate(CAS#:3663-80-7) MSDS, density, melting point, boiling point, structure, formula, molecular weight etc. Articles of coniferyl ferulate are included as well.>> amp version: coniferyl ferulate
No Technical Documents Available For This Product.
16453812
The functions of type 1 and 2 carbohydrates of the contact site A (csA) glycoprotein of Dictyostelium discoideum have been investigated using mutants lacking type 2 carbohydrate. In two mutant strains, HG220 and HG701, a 68-kd glycoprotein was synthesized as the final product of csA biosynthesis. This glycoprotein accumulated to a much lower extent on the surfaces of mutant cells than the mature 80-kd glycoprotein did in wild-type cells. There was also no accumulation of the 68-kd glycoprotein observed within the mutant cells nor was a precursor of lower molecular mass detected, in accordance with previous findings that indicated cotranslational linkage of type 1 carbohydrate by N-glycosylation. Pulse-chase labelling showed that a 50-kd glycopeptide was cleaved off from the mutant 68-kd glycoprotein and released into the medium, while the fully glycosylated 80-kd glycoprotein of the wild type was stable. These results assign a function to type 2 carbohydrate in protecting the cell-surface-exposed csA glycoprotein against proteolytic cleavage. HG220 cells were still capable of forming EDTA-stable contacts to a reduced extent, consistent with the low amounts of the 68-kd glycoprotein present on their surfaces. Thus type 1 rather than type 2 carbohydrate appears to be directly involved in intercellular adhesion that is mediated by the csA glycoprotein. Tunicamycin-treated wild-type and mutant cells produce a 53-kd protein that lacks both type 1 and 2 carbohydrates. While this protein is stable and not transported to the cell surface in the wild type, it is cleaved in the mutants and fragments of it are released into the extracellular medium. These results suggest that the primary defect in the two mutants studied is relief from a restriction in protein transport to the cell surface, and that the defect in type 2 glycosylation is secondary.
Post-translational glycosylation of the contact site A protein of Dictyostelium discoideum is important for stability but not for its function in cell adhesion
Hans-Peter Hohmann,1 Salvatore Bozzaro,2 Rainer Merkl, Eva Wallraff, Motonobu Yoshida,3 Ulrike Weinhart, and Gunther Gerisch
1987 Dec 1
3119991
The expression of the genes for several histones and beta A-globin was examined in the chicken erythroid cells lineage. During the transition from CFU-(E) to the mature erythrocyte, histone H5 gradually increased fourfold in nuclei with little concomitant displacement of the H1 histones. This resulted in a 70% net increase in linker histone (H1 plus H5) content. The differential accumulation of H5 reflected (i) an increase in the transcriptional activity of the H5 gene occurring at the erythroblast stage, (ii) an apparent longer half-life of H5 mRNA, and (iii) a higher stability of the protein. Although the transcriptional activity of the histone genes (except H5) decreased with cell age, it was not tightly coupled to the S phase. On the other hand, the mRNA levels for these histones were tightly regulated during the cell cycle. Use of protein and DNA synthesis inhibitors indicated that the content of H5 mRNA was regulated at the posttranscriptional level by a control mechanism(s) differing from those for the other histones. Although the transcription rates of the H5 and beta A-globin genes were comparable, differential accumulation of beta A-globin mRNA led to a 30- to 170-fold-higher copy number of the beta A-globin mRNA as the cell matured.
Regulation of histone and beta A-globin gene expression during differentiation of chicken erythroid cells.
M Affolter, J Côte, J Renaud, and A Ruiz-Carrillo
1987 Oct;
1694015
A novel cDNA clone (20.5) which is differentially expressed between two closely related T-lymphoma cell clones was isolated by subtraction-enriched differential screening. SL12.4 cells, from which the cDNA was isolated, have characteristics of thymocytes at an intermediate stage in development. A sister cell clone derived from the same tumor, SL12.3, does not express this mRNA, has a distinct phenotype, and expresses fewer genes required for mature T-cell function. The cDNA sequence predicts a highly hydrophobic protein (approximately 49.5 kilodaltons) which contains seven putative membrane spanning domains. The gene was expressed on concanavalin A-activated T lymphocytes and was designated Tea (T-cell early activation gene). The Tea gene mapped to chromosome 8 and appeared to be conserved among mammalian and avian species. The Tea gene is distinct from, but bears extensive amino acid and DNA sequence similarity with, the murine ecotropic retroviral receptor which is encoded by the Rec-1 gene. Neither gene product displayed significant homology with other known transmembrane-spanning proteins. Thus, the Tea and Rec-1 genes establish a new family encoding multiple membrane-spanning proteins.
Activated T cells express a novel gene on chromosome 8 that is closely related to the murine ecotropic retroviral receptor.
C L MacLeod, K Finley, D Kakuda, C A Kozak, and M F Wilkinson
1990 Jul;
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