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point decrease » point increase (Expand Search)
we decrease » _ decrease (Expand Search), nn decrease (Expand Search), teer decrease (Expand Search)
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20001
DataSheet1_FFAR1/GPR40 Contributes to the Regulation of Striatal Monoamine Releases and Facilitation of Cocaine-Induced Locomotor Activity in Mice.doc
Published 2021“…Interestingly, local application of a FFAR1 agonist, GW9508, markedly augmented the striatal 5-HT release in FFAR1 wild-type (+/+) mice, whereas topical application of a FFAR1 antagonist, GW1100, significantly reduced the 5-HT release. …”
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20002
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20003
Liquid Crystalline Features in a Polyolefin of Poly(methylene-1,3-cyclopentane)
Published 2008“…A liquid crystalline phase has been discovered in a polyolefin of poly(methylene-1,3-cyclopentane) (PMCP) having low molecular weight, which was obtained with cyclization polymerization of 1,5-hexadiene (HD) using a zirconocene catalyst in the presence of chain transfer reagents. …”
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20004
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20005
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20006
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20007
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20008
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20009
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20010
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20011
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20012
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20013
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20014
Bridging Thermodynamics, Antimicrobial Activity, and pH Sensitivity of Cationic Membranolytic Heptapeptides–A Computational and Experimental Study
Published 2023“…Understanding the thermodynamics of peptide:membrane binding and the factors that alter the stability is the key to designing potent and selective small antimicrobial peptides. Here, we report the thermodynamics, antimicrobial activity, and mechanism of a de novo designed seven residue long cationic antimicrobial peptide (P4: NH<sub>3</sub><sup>+</sup>-LKWLKKL-CONH<sub>2</sub>, Charge +4) and its analogs (P5: Lysine’s → Arginine’s; P6: Lysine’s → Uncharged-Histidine’s; P7: Tryptophan → Leucine) by combining computation and experiments. …”
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20015
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20016
Image_2_Lung Neutrophilic Recruitment and IL-8/IL-17A Tissue Expression in COVID-19.tiff
Published 2021“…However, the G allele (GG and GA) of rs3819025 was correlated with higher tissue expression of IL-17A in the COVID-19 group. SARS-CoV-2 virus evokes an exacerbated response of the host’s immune system but differs from that observed in the H1N1pdm09 infection since the IL-8/IL-17A tissue expression, and lung neutrophilic recruitment may be decreased. …”
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20017
Image_1_Lung Neutrophilic Recruitment and IL-8/IL-17A Tissue Expression in COVID-19.tiff
Published 2021“…However, the G allele (GG and GA) of rs3819025 was correlated with higher tissue expression of IL-17A in the COVID-19 group. SARS-CoV-2 virus evokes an exacerbated response of the host’s immune system but differs from that observed in the H1N1pdm09 infection since the IL-8/IL-17A tissue expression, and lung neutrophilic recruitment may be decreased. …”
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20018
Table_1_Lung Neutrophilic Recruitment and IL-8/IL-17A Tissue Expression in COVID-19.docx
Published 2021“…However, the G allele (GG and GA) of rs3819025 was correlated with higher tissue expression of IL-17A in the COVID-19 group. SARS-CoV-2 virus evokes an exacerbated response of the host’s immune system but differs from that observed in the H1N1pdm09 infection since the IL-8/IL-17A tissue expression, and lung neutrophilic recruitment may be decreased. …”
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20019
Data_Sheet_1_Diagnostic value of cardiac miR-126-5p, miR-134-5p, and miR-499a-5p in coronary artery disease-induced sudden cardiac death.docx
Published 2022“…The expressions of cardiac miR-126-5p, miR-134-5p, and miR-499a-5p were analyzed by real-time quantitative polymerase chain reaction (RT-qPCR).…”
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20020