22 research outputs found
NT 520 Introduction to the New Testament
A modern translation of the Bible, preferably the New American Standard Bible (NASB), the English Standard Version (ESV), or the New Revised Standard Version (NRSV). Achtemeier, Paul J., Joel B. Green, and Marianne Meye Thompson, Introducing the New Testament: Its Literature and Message. Grand Rapids, Michigan: Wm.B. Eerdmans, 2001. deSilva, David A. Honor, Patronage, Kinship, and Purity: Unlocking New Testament Culture. Downers Grove, Illinois: InterVarsity, 2000. Gorman, Michael J., Elements of Biblical Exegesis: A Basic Guide for Students and Ministers. Peabody, MA: Hendrickson Publishes, 2001. Theissen, Gerd. The Shadow of the Galilean. Minneapolis: Fortress, 1987.https://place.asburyseminary.edu/syllabi/2869/thumbnail.jp
NT 520 New Testament Introduction
A modern translation of the Bible, preferably the New American Standard Bible (NASB), the English Standard Version (ESV), or the New Revised Standard Version (NRSV). Achtemeier, Paul J., Joel B. Green, and Marianne Meye Thompson. Introducing the New Testament: Its Literature and Message. Grand Rapids, Michigan: Wm.B. Eerdmans, 2001. deSilva, David A. Honor, Patronage, Kinship, and Purity: Unlocking New Testament Culture. Downers Grove, Illinois: InterVarsity, 2000. Gorman, Michael J. Elements of Biblical Exegesis: A Basic Guide for Students and Ministers. Peabody, MA: Hendrickson Publishes, 2001. Longenecker, Bruce. The Lost Letters of Pergamum: A Story from the New Testament World. Grand Rapids, MI: Baker Academic, 2002.https://place.asburyseminary.edu/syllabi/2424/thumbnail.jp
Arterial heparan sulfate is negatively associated with hyperglycemia and atherosclerosis in diabetic monkeys
BACKGROUND: Arterial proteoglycans are implicated in the pathogenesis of atherosclerosis by their ability to trap plasma lipoproteins in the arterial wall and by their influence on cellular migration, adhesion and proliferation. In addition, data have suggested an anti-atherogenic role for heparan sulfate proteoglycans and a pro-atherogenic role for dermatan sulfate proteoglycans. Using a non-human primate model for human diabetes, studies examined diabetes-induced changes in arterial proteoglycans that may increase susceptibility to atherosclerosis. METHODS: Control (n = 7) and streptozotocin-induced diabetic (n = 8) cynomolgous monkeys were assessed for hyperglycemia by measurement of plasma glycated hemoglobin (GHb). Thoracic aortas obtained at necropsy, were extracted with 4 M guanidine HCL and proteoglycans were measured as hexuronic acid. Atherosclerosis was measured by enzymatic analysis of extracted tissue cholesterol. Glycosaminoglycan chains of arterial proteoglycans were released with papain, separated by agarose electrophoresis and analysed by scanning densitometry. RESULTS: Tissue cholesterol was positively associated with hexuronic acid content in diabetic arteries (r = .82, p < .025) but not in control arteries. Glycosaminoglycan chain analysis demonstrated that dermatan sulfate was associated with increased tissue cholesterol in both control (r = .8, p < 0.05) and diabetic (r = .8, p < .025) arteries, whereas a negative relationship was observed between heparan sulfate and tissue cholesterol in diabetic arteries only (r = -.7, p < .05). GHb, which was significantly higher in diabetic animals (8.2 ± 0.9 vs 3.8 ± 0.2%, p < .0005) was negatively associated with heparan sulfate in diabetic arteries (r = -.7, p < .05). CONCLUSIONS: These data implicate hyperglycemia induced modifications in arterial proteoglycans that may promote atherosclerosis
The Gospel in the marketplace of ideas : Paul's Mars Hill experience for our pluralistic world
201 p.; 23 cm