Search results for "alk gene"

showing 4 items of 4 documents

Exploring long chain n-alkane metabolism in Gordonia sp. strain SoCg

2009

Many microorganisms are able to degrade aliphatic hydrocarbons and a relationship between n-alkane utilization and storage compound synthesis has been described in bacteria. The Gram positive GC-rich n-alkane degrader Gordonia sp. strain SoCg, isolated from a long-term accidentally contaminated beach in Sicily, is able to grow on long n-alkanes up to. It carries a single copy of the alkane hydroxylase gene alkB on its chromosome and its alk cluster revealed a genomic organization similar to other alk clusters of alkane-degrading Gram positive bacteria. The alk gene expression, analysed by Real-time RT-PCR, is induced by n-hexadecane and n-triacontane and coupled to alkane consumption. Inter…

Gordonia sp.n-alkanelong chain n-alkanes; Gordonia; biodegradation; alkane-monoxigenase; alk genes;
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Exploring long chain n-alkane metabolism in Gordonia sp. strain SoCg

2009

Many microorganisms are able to degrade aliphatic hydrocarbons and a relationship between n-alkane utilization and storage compound synthesis has been described in bacteria. The Gram positive GC-rich n-alkane degrader Gordonia sp. strain SoCg, isolated from a long-term accidentally contaminated beach in Sicily, is able to grow on long n-alkanes up to. It carries a single copy of the alkane hydroxylase gene alkB on its chromosome and its alk cluster revealed a genomic organization similar to other alk clusters of alkane-degrading Gram positive bacteria. The alk gene expression, analysed by Real-time RT-PCR, is induced by n-hexadecane and n-triacontane and coupled to alkane consumption. Inter…

alk genelong chain n-alkanealkane-monoxigenaseGordoniabiodegradation
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Gordonia sp. SoCg alkB gene confers the ability to degrade and use n-alkanes as carbon source in Gram positive bacteria

2010

Gordonia sp. SoCg, a Gram positive strain able to grow on long chain n-alkanes1, possess a single copy of alkB2 gene, whose product is required for n-alkane hydroxylation3. An analysis of alkB flanking regions revealed five ORFs which were designed as orf1, rubA3, rubA4, rubB and alkU, according to the sequence 14 homology with that of known alk clusters3. In G. sp. SoCg the transcription of these genes was induced by long-chain and solid n-alkanes as revealed by quantitative RT-PCR, and the essential role of alkB in nalkane degradation was demonstrated by the construction of an alkB disruption mutant strain3. The SoCg alkB gene was successfully expressed in Streptomyces coelicolor M145 (M1…

long-chain n-alkanes Gordonia sp. Streptomyces sp. 2D-DIGEalk genesSettore BIO/19 - Microbiologia Generaleproteomic
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Prevalence and Clinical Outcomes for Patients With ALK Gene Rearrangement in Europe: Preliminary Results from the European Thoracic Oncology Platform…

2012

ABSTRACT Background The prevalence of ALK gene rearrangement (ALK+) in European patients with non-small cell lung cancer (NSCLC) is unknown. The Lungscape project provides a platform to evaluate its expression and clinical significance in a large cohort of patients with resected NSCLC from 13 European sites in 11 countries. Methods Participating sites retrospectively identified cases of NSCLC with clinical demographic and outcome data, and available tissue for research according to predefined protocol criteria. Local ethical and regulatory approvals were adhered to. Clinical data were entered to a central, secure database. Accepted cases on the basis of completeness of clinical data were as…

medicine.medical_specialtyTissue microarrayClinical pathologyALK Gene Rearrangementbusiness.industryHematologymedicine.diseaseOncologyInternal medicineThoracic OncologyCohortmedicineAdenocarcinomaImmunohistochemistryClinical significancebusinessAnnals of Oncology
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