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1 challenges with or without treatments to the perfusate.
2 ximately 20 mM when NAD+ was included in the perfusate.
3 ycle intermediates in tissue versus effluent perfusate.
4 f other transporters were independent of the perfusate.
5 A levels, NSD-1015 20 microM was included in perfusate.
6 rin, and concentration of fibronectin in the perfusate.
7 cence over time after dyes were removed from perfusate.
8  (2.8 +/- 1.0 microM) were identified in the perfusate.
9 1 to 5 micromol/L) was added to the coronary perfusate.
10 essed when SR11302 (100 nM) was added in the perfusate.
11 moval of HCO3-/CO2 from the pulmonary artery perfusate.
12 with reference to biochemical changes in the perfusate.
13  rate of the respective isotope added to the perfusate.
14 nium, an inhibitor of SACs, was added to the perfusate.
15 motic solutions or a reduced level of normal perfusate.
16  g/dL bovine serum albumin or a protein-free perfusate.
17 han twice as fast if HDL was included in the perfusate.
18 by lowering the calcium concentration in the perfusate.
19 sine or 5.0 mM cycloleucine was added to the perfusate.
20 ere studied with and without acivicin in the perfusate.
21 elective beta-adrenergic stimulation) to the perfusate.
22 x-line radical adduct signal was detected in perfusate.
23 ed by addition of atropine (1 microM) to the perfusate.
24 omol/L) or propafenone (1 micromol/L) to the perfusate.
25 ion was performed using an erythrocyte-based perfusate.
26  perfusion with a plasma-free red cell-based perfusate.
27 1 mg/mL) or MnTBAP (0.3 mg/mL), added to the perfusate.
28  < 0.001), and E-selectin (P < 0.001) in the perfusate.
29 educed the ATP concentration detected in the perfusate.
30  were 10-fold higher than that in the kidney perfusates.
31 were increased in the nonstreptokinase group perfusates.
32  total of 51 analytes, 34 were measurable in perfusates.
33  after transplantation and the NMR data from perfusates.
34 opionic acid from [5,6,7-(13)C(3)]heptanoate perfusates.
35 ration of BK stabilised at 378 +/- 48 pg (ml perfusate)(-1), that of trypsin-activated BK precursor w
36 e groups (n = 4 each) were differentiated by perfusate: (1) isolated red blood cells (RBCs) (current
37               Addition of enalaprilat to the perfusate (10 mM) prevented the conversion of exogenousl
38 ction in lactate dehydrogenase levels in the perfusate (333+/-22 vs.103+/-8 U/L) and an increase in b
39              With [U-13C16] palmitate in the perfusate, agmatine significantly increased the output o
40 minutes of ex situ perfusion, at which point perfusate alanine transaminase level was 1152 IU/L and u
41   The use of an autologous whole donor blood perfusate allowed 24H of preservation without functional
42  In whole liver, H/R significantly increased perfusate ALT.
43                                              Perfusate analysis demonstrated reduced fibrin generatio
44 ficial cerebrospinal fluid and the collected perfusate analyzed for ATP and SP content using the fire
45 on permits pharmacologic manipulation of the perfusate and aids in the pretransplant assessment of th
46 s in the interstitial fluid diffuse into the perfusate and are collected.
47  and PCO2 electrodes simultaneously measured perfusate and effluent pH and PCO2.
48              Net flux should equal zero when perfusate and interstitial concentrations are equal.
49 ed increases in proinflammatory cytokines in perfusate and lung lavage fluid, compared to control.
50 rfused rat kidney model using a protein-free perfusate and perfusates containing bovine serum albumin
51 on of indomethacin (30 micromol l-1) to both perfusate and superfusate reduced the positive correlati
52                                              Perfusate and urine samples were obtained at baseline an
53                                      Cl-free perfusate and/or bumetanide (10(-5) M) was used to inhib
54 resence of extracellular histones in machine perfusates and deceased donor kidney viability.
55 tion strategies, and the impact of different perfusates and leukocyte filters.
56  increased ATP concentrations in the bladder perfusate, and also increased voiding frequency; these e
57 eristics, reduced the release of [Ca++] into perfusate, and ameliorated mitochondrial ischemic injury
58 tors VII and X were evaluated in pre-bypass, perfusate, and pericardial wound blood before and during
59  Protein binding was measured in each of the perfusates, and the venous outflow was collected to dete
60 nts of acetic acid and propionic acid in the perfusate are comparable to the labeling pattern of acet
61 ents by removal of bicarbonate ions from the perfusate at this point, which resulted in further swell
62                     Furthermore, we measured perfusate ATP concentration with a luciferin-luciferase
63           Urocortin 10(-8)M was added to the perfusate before I, before I and during R, and during R
64 ion of a specific caspase-9 inhibitor to the perfusate before ischemia prevented endothelial apoptosi
65                            When added to the perfusate, benzamil almost completely inhibited the elev
66 n and conjugates were measured in intestinal perfusates, bile, plasma, and urine.
67                                        These perfusate biomarkers can be potentially used for more pr
68   We analyzed the diagnostic accuracy of the perfusate biomarkers glutathione S-transferase, lactate
69               The diagnostic accuracy of the perfusate biomarkers glutathione S-transferase, LDH, hea
70 viable; however, current tools and urine and perfusate biomarkers to identify these viable kidneys ar
71    Although TTX (1 microm) or a calcium-free perfusate both caused reductions in the power amplitude
72                            PPi levels in the perfusates both in the liver and kidney of Abcc6(-/-) ra
73 to allow the use of biologically appropriate perfusate buffers containing high salt content.
74 s attenuated if calcium was removed from the perfusate but not by external vein stenting.
75 dent on the immediate presence of SIT in the perfusate, but independent of the amount of SIT that had
76 eticulum Ca(2+)-ATPase inhibition or reduced perfusate [Ca(2+)], which indicates a Ca(2+)-mediated me
77 ificantly higher systolic performance at low perfusate [Ca2+] compared with R278C-Tg hearts, which we
78                                  At baseline perfusate calcium of 1.2 mmol/L, myocyte fractional shor
79 ractional shortening in the presence of high-perfusate calcium of 3.5 mmol/L.
80                      In the presence of high-perfusate calcium, both myocyte fractional shortening an
81  similarly increased in the presence of high-perfusate calcium.
82                  The NMR spectroscopy of the perfusate can identify differences in the metabolomic pr
83 lin-dibutyryl cAMP (db-cAMP) cocktail to the perfusate caused no significant change in Jv in either w
84 ne, and the Ca(2+) ionophore) to the myocyte perfusate caused tachycardia, contracture, and fibrillat
85                             With acivicin in perfusate, cellular concentrations were reduced but ther
86 nd hypertonic shock, and rapid withdrawal of perfusate chloride.
87 cretion but replacing bath Na+ with NMDG+ or perfusate Cl- with gluconate- had no effect.
88 he maximum prednisolone concentration in the perfusate (Cmax) by 3.0 and 2.2 fold, respectively.
89       Impermeant CA inhibitors abolished net perfusate CO2 loss and increased net HCO3- gain, whereas
90 quilibrated under flow for 30 min, using the perfusate collected during the final 10 min of the equil
91 jected to push-pull perfusion of the MPA and perfusates collected at 30 min intervals were analyzed f
92                                              Perfusates collected from a separate group of rats were
93                  50% (NH4)2SO4 saturation of perfusates collected from Langendorff rat heart preparat
94 s of the putative algogen endothelin (ET) in perfusates collected from the tumor sites of hyperalgesi
95 a) perfusion increased net CO2 loss from the perfusate compared with controls (pH 6.4 saline, PCO2 ap
96                                  The minimum perfusate concentration of NMDA needed to elicit feeding
97 d not be discarded because of high biomarker perfusate concentration.
98 yclohexyladenosine (10 microM) in the tubule perfusate confirmed the ability of the afferent arteriol
99 ed decorticate rat preparation, hyperosmotic perfusate consisted of either 135 mm NaCl, or a non-NaCl
100                                          The perfusate contained isolated syngeneic red blood cells a
101 minutes with unmodified perfusate (control), perfusate containing 20 nM dopamine, dopamine+2,3-butane
102 ased when 1 micro mol/l GLY was added to the perfusate containing 5 mmol/l glucose.
103                                              Perfusate containing either 4 microM oxyHb or SNO-Hb inc
104    Addition of L-glutamate or sucralose to a perfusate containing low glucose (20 mM) each activated
105              Electroosmosis was used to pull perfusate containing secreted insulin into 4-cm-long rea
106            Excess glutathione (GSH) added to perfusate containing SNO-Hb resulted in a 20 to 40% fall
107         Then 7.5 microM VIP was added to the perfusate containing VIP(10-28) at the three concentrati
108 ney model using a protein-free perfusate and perfusates containing bovine serum albumin.
109 e reperfused for 120 minutes with unmodified perfusate (control), perfusate containing 20 nM dopamine
110 sulated clodronate, significantly attenuated perfusate cytokine levels, especially tumor necrosis fac
111    In contrast, atelectasis had no effect on perfusate cytokines compared to control but did induce s
112                  In human eyes, hypo-osmotic perfusate decreased C 12%, whereas hyper-osmotic perfusa
113                                  Liver graft perfusate-derived KCs and in vitro-generated monocyte-de
114 r zinc (Zn2+ as 7 micromol l-1 ZnSO4) to the perfusate did not affect reabsorption of water, Na+ or K
115                  Removing magnesium from the perfusate did not affect spontaneous subthreshold oscill
116            Interestingly, IL-6 levels in the perfusate did not increase after the lungs were removed
117 al of NO from Hb via transnitrosation to the perfusate did not reduce augmentation of HPV by SNO-Hb o
118 t rate (HR), coronary perfusion pressure and perfusate distribution to the myocardium.
119                 After 24 hr of preservation, perfusate distribution was assessed, and oxygen consumpt
120 ol or isoprenaline had no effect on coronary perfusate distribution.
121 ive, at least for PO2 levels of carotid body perfusate down to approximately 40 mmHg.
122  (NMR) to predict graft outcome by analyzing perfusates during machine perfusion time.
123 six percent of the dose was recovered in the perfusate either as unchanged (-)-epicatechin (22 mg) or
124 perfusion characteristics (flow, resistance, perfusate electrolytes, and pH) were serially measured.
125                    Responses to increases in perfusate flow (from 0 to 25 microL/min) and to the calc
126 nal allografts has been limited to assessing perfusate flow (PF) during hypothermic perfusion preserv
127  milk-like secretion, which was dependent on perfusate flow and contained a concentration of BK which
128  PP but not NPP significantly improved renal perfusate flow and urine production and significantly in
129 creases in diameter elicited by increases in perfusate flow from 0 to 10 microq/min were similar in a
130 cutoff of 30 kDa in a concentric probe and a perfusate flow rate of 2.0 muL min(-1), microdialysis re
131                           After 10 mins, the perfusate flow was resumed at 20% of baseline flow and m
132                     After 20 mins of VF, the perfusate flow was returned to baseline and a sinus rhyt
133 to the right ventricular endocardium and the perfusate flow was stopped.
134                                          The perfusate flow was then stopped for a 10-min interval an
135 n pressure for 30 minutes (in the absence of perfusate flow).
136 e perfusion pressure was linearly related to perfusate flux between 60 and 210 ml min(-1) and the flo
137 s factor-alpha (300 mug) was injected in the perfusate, followed 5 minutes later by melphalan at 1.5
138 icropipette electrodes and the collection of perfusate for analysis are other possibilities.
139 30 hour period with hourly sampling from the perfusate for measurement of general metabolism and clin
140 e able to (1) perfuse tissue and collect the perfusate for quantitative analysis of the solutes intro
141              High K+ (80 mM) was included in perfusate for two 30 min periods, 2.5 h apart.
142 s in smooth muscle cells downstream from the perfusate from an endothelium-intact arteriole was exami
143 py to examine the metabolomic profile of HMP perfusate from human cadaveric kidneys awaiting transpla
144 ng electrophoresis-based immunoassays of the perfusate from islets.
145 so decreased basal ATP concentrations in the perfusate from non-distended bladders and inhibited incr
146 acid, acetic acid, and propionic acid in the perfusate from rat liver exposed to Krebs-Ringer bicarbo
147                                              Perfusates from HMP kidneys were sampled at 45 min and 4
148 oncentrations in aortic and pulmonary artery perfusates from the working mouse heart before and after
149                                     Although perfusate G1 was the most effective solution for HBD kid
150  solution for HBD kidneys, the TFP additive (perfusate G2) more effectively reversed the vasospastic
151 dynamic variables of circulation, as well as perfusate gases and electrolytes (pH, pCO2, pO2, O2 satu
152      Furthermore, we demonstrated that liver perfusates, generated by isolated liver perfusion system
153      The kidneys were randomly assigned to a perfusate group (G): G1=MPS, G2=MPS+TFP, G3=MPS+AL, and
154 r between or through endothelial cells where perfusate had direct access to the basement membrane.
155                 Restoring bicarbonate to the perfusate halted this swelling, and the corneas then thi
156 rospinal fluid was used as the microdialysis perfusate, Hcrt-1 no longer produced an increase in glut
157     Our data suggest no superiority of novel perfusates HTK-N and TiProtec in terms of tissue preserv
158 inistration of acriflavine directly into the perfusate immediately before IPC.
159                      The addition of PGE1 to perfusate improved MP characteristics, reduced the relea
160                        Urea was added to the perfusate in concentrations of 0.83, 2.5, 5.0, and 13.33
161  soluble complement receptor 1 (sCR1) to the perfusate in one further group (hDAF(+/-)/AbAbs/sCR1).
162 usate decreased C 12%, whereas hyper-osmotic perfusate increased C 44%.
163  or Bis-Mal-PEGHb (100 micromol/L) to buffer perfusate increased normoxic PAP and augmented HPV in si
164 ihydroguaiaretic acid-containing whole blood perfusate increased the rate of [3H]thymidine incorporat
165 ow-inflow) and the urea concentration in the perfusate (inflow).
166  showed decreasing lactate production in the perfusate (initial: 0.031 +/- 0.004 vs final: 0.007 +/-
167                   Without fatty acids in the perfusate, insulin output in the Lard group (135 +/- 22
168 e (the sink, outer pipet) a buffer solution (perfusate) into each of the two pools.
169         During hypoxia the flow of blood (or perfusate) is maintained and, while there is a substanti
170 synaptic blockade, to identify EBs active at perfusate K(+) concentrations ([K(+)](o)) of 3, 6, and 9
171 ect out contribution of fatty acid uptake, a perfusate-lacking fatty acids was used.
172 ygen efficiency (P = 0.01), with lower blood perfusate lactate (P = 0.007).
173         The vascular flow parameters and the perfusate lactate clearance were similar in both groups.
174                                              Perfusate lactate concentration also decreased (0 hour,
175                                              Perfusate lactate concentration decreased from baseline
176                                              Perfusate lactate level fell from 7.2 to 0.3 mmol/L with
177         The evaluation protocol consisted of perfusate lactate, bile production, vascular flows, and
178  livers displaying good function during NMP, perfusate levels of ALT and D-dimers were low (</=3500 n
179 and significantly increased the reduction of perfusate levels of creatinine and urea during reperfusi
180                                              Perfusate levels of fatty acid binding protein, a marker
181 de synthase, along with significantly higher perfusate levels of the endogenous vasodilator nitric ox
182 air control, exposure to 70% N(2)O increased perfusate levels of the NO metabolites nitrite and nitra
183 ven when DMI (20 microM) was administered in perfusate, LNAA- still lowered DMI-induced DA and NE lev
184 ine in an organ bath, allowing access to the perfusate (luminal) and the bath (serosal) solutions.
185 ter-investigator variability using different perfusates makes comparisons difficult.
186 ggested that the removal of albumin from the perfusate may reduce EC-ECM attachment because hypertoni
187 as present in human aqueous humor and in the perfusate medium of perfusion-cultured human eyes.
188 sothiol], in association with an increase in perfusate [metHb].
189                             When FFAs in the perfusate mimicked the quantity and composition of plasm
190 fusion (MPanox) or active oxygenation of the perfusate (MPox).
191         However, perindoprilat (10 mM in the perfusate, n = 7) significantly decreased RIF AngII conc
192 Interstitial infusion of AngI (100 nM in the perfusate, n = 7) significantly increased the RIF AngII
193 h the microdialysis probe (1 or 10 mM in the perfusate; n = 5 and 8, respectively) significantly incr
194                                    Replacing perfusate Na+ with NMDG+ reversibly inhibited net urea s
195   A significant (P < 0.05) difference in the perfusate nitrate concentration was observed in each loc
196                                              Perfusate of 26 transplanted cadaveric kidneys was analy
197                              Addition to the perfusate of a medium-chain fatty acid (caprylic acid) t
198                        Inclusion in the vein perfusate of drugs that reduce calcium entry (including
199 n to increase glutamate concentration in the perfusate of hippocampal slices and in purified rat hipp
200 rotein was markedly increased in serum or in perfusate of isolated heart following ischemia/reperfusi
201 ong decrease of APAP-GLUC secretion into the perfusate of Mrp3-/- livers.
202 orbic acid (0.2 mM) was administrated in the perfusate of the ascorbic acid + electrical shock and as
203                                      Machine perfusates of 390 donations after circulatory death kidn
204  concentrations were significantly higher in perfusates of kidneys with posttransplant graft dysfunct
205        Dynorphin B was collected from spinal perfusates of rats pretreated with Delta(9)-THC, CP55,94
206 tly reduced, but the PPi levels in the liver perfusates of wild-type rats were 10-fold higher than th
207 omized to receive 3.0 mM supplemental GSH to perfusate or no supplementation (control) and were prese
208        Stimulus was then added to either the perfusate or the bath and the perfusate was collected fo
209 erfusate), to inhibit (hyperoxic, hypocapnic perfusate) or to stimulate (hypoxic, normocapnic perfusa
210     The first 6 livers were perfused at high perfusate oxygen tensions, and the subsequent 6 at near-
211          The effect of HOPE was dependent on perfusate oxygenation in the cold.
212                                       At 50% perfusate oxygenation, APD and LVDP were significantly h
213 n metabolism at hypothermia to the design of perfusates, perfusion machine technology, and drug thera
214 o influence MP characteristics when added to perfusate: PGE1, trifluoperazine, verapamil, and papaver
215                                   Increasing perfusate pH buffers decreased surface pH toward perfusa
216 en consumption and significantly neutralized perfusate pH.
217 activated in wound, but not in pre-bypass or perfusate plasma (monocyte chemotactic protein-1 = 29.5
218   Theophylline also improved the increase in perfusate PO(2) on transit through the lung after storag
219 nfusion time: 80.8+/-18.2 min; mean coronary perfusate pO(2): 631+/-235 mm Hg).
220  lungs with anoxic gas for 5 minutes reduced perfusate PO2 to 11+/-1.0 Torr.
221 on enhanced the outflow facility and lowered perfusate pressure in biomimetic TM scaffolds populated
222 fter 4 h of perfusion was independent of the perfusate, probably because normal kidneys can maintain
223 th tBHQ (10 micro M), both outflow rates and perfusate proMMP-3 level increased significantly within
224 ddition of 13-HODE to the LA-deficient blood perfusate promoted tumor 13-HODE uptake and a dose-depen
225                                              Perfusate protein expression during EVLP can differentia
226   The protein binding of MAG3 in the albumin perfusates ranged from 87% to 95%, significantly higher
227                   An appreciable increase in perfusate recovery due to a shift in the directionality
228 ory clearance, so an appreciable increase in perfusate recovery of these metabolites was not observed
229 /-); La3+ (1 micromol/L) addition to wt lung perfusate reduced the agonist effect to that observed in
230 ing superoxide dismutase and catalase in the perfusate reduced the ESR signals.
231 ion of dmLSB (10 micromol/L) to the coronary perfusate restored the epicardial AP dome, reduced EDR a
232 ine-methyl ester (L-NAME, 5 mM) to the probe perfusate resulted in an inhibition of the histamine-ind
233       The addition of GSH supplementation to perfusate resulted in no significant differences in graf
234 NO-cyanometHb) on HPV, expired NO (eNO), and perfusate S-nitrosothiol (SNO) concentration in isolated
235 esulted in an approximately 50% reduction in perfusate [S-nitrosothiol], in association with an incre
236 r the collection of a pretreatment blood and perfusate sample, rats were injected (i.p.) with the veh
237 c bead array assay, we evaluated analytes in perfusate samples collected at 1 hour and 4 hours of EVL
238                                              Perfusate samples from the MPA were collected at the rat
239                                          The perfusate samples were analyzed for NE and dopamine (DA)
240                                    Blood and perfusate samples were collected at 30-min intervals for
241                                              Perfusate samples were collected every 30 min and analyz
242 o cortical cups 35 min prior to ischemia and perfusate samples were obtained prior to, during and fol
243 an NMDA receptor antagonist was added to the perfusate shortly before and during LTP induction.
244 g SNO-Hb resulted in a 20 to 40% fall in the perfusate SNO concentration, with a concomitant increase
245 in UW or machine perfused (MP) in UW-machine perfusate solution (MPS).
246 se (80 U/mL), but not catalase alone, in the perfusate solution prevented the reduction in dilation o
247 abbit TNF-alpha antibody to cardioplegia and perfusate solutions restored postischemic function.
248 red from donor urine at procurement and from perfusate soon after pump perfusion) were not different
249      PO2, PCO2 and pH in the venous effluent perfusate stabilised at 157 +/- 10 mmHg, 50.1 +/- 2.4 mm
250 responds to changes in the properties of the perfusate, such as the ionic strength ( ), pH, and catio
251 dition of copper or manganese to the luminal perfusate suggesting that these ions may compete with ir
252 depending on the Ca(2+) concentration of the perfusate; systolic function was significantly increased
253 etabolic perturbations, including changes in perfusate temperature, electromechanical uncoupling, and
254 usate) or to stimulate (hypoxic, normocapnic perfusate) the CB chemoreflex, while the systemic circul
255                      In the 2.5 g/dL albumin perfusate, the EF of MAG3 was 44%, significantly less th
256                 However, in the protein-free perfusate, the EF of MAG3 was 64%, equal to or higher th
257 F of the three EC complexes; in the 7.5 g/dL perfusate, the MAG3 EF fell to 18% versus 39%-45% for th
258                         Recirculation of the perfusate through the support rat diminishes the need to
259 l of both dissolved gas and pH levels in the perfusate thus demonstrating applicability for a wide ra
260 ls, lowering the temperature of the coronary perfusate to induce mild hypothermia (32 degrees C-34 de
261 parative responses to cellular and acellular perfusates to identify these benefits.
262 normal CB blood gases (normoxic, normocapnic perfusate), to inhibit (hyperoxic, hypocapnic perfusate)
263                  Addition of acivicin to the perfusate, to inhibit activity of the y-glutamyltransfer
264 significant increases in alveolar lavage and perfusate tumor necrosis factor-alpha, inflammatory cell
265 1)) or two (U(m+2)) (15)N was generated from perfusate [U-(15)N(4)]arginine.
266 d aspartate, respectively, were derived from perfusate [U-(15)N(4)]arginine.
267 ring release of acetylcholinesterase in cell perfusates using the Ellman reagent.
268 usate pH buffers decreased surface pH toward perfusate values.
269   Using fluorescence recovery, we determined perfusate velocity to calculate diameter changes under d
270                               Increasing the perfusate viscosity improves speed by slowing dissipatio
271 nd loading conditions (varying extracellular perfusate viscosity).
272                                          The perfusate was collected and scleral permeability calcula
273  to either the perfusate or the bath and the perfusate was collected for another 30 min to measure th
274                                          The perfusate was continuously sampled by electroosmotic flo
275   Hearts were paced to increase workload and perfusate was deoxygenated to study the effects of myoca
276 )I-labelled albumin efflux into the vascular perfusate was determined.
277     Although the magnitude of the radical in perfusate was increased by ethanol, it was not derived d
278 NO(x) (NO(-)(2) + NO(-)(2) production in the perfusate was measured by chemiluminescence.
279                SAAP using an oxygen-carrying perfusate was more effective in this study than non-oxyg
280                                              Perfusate was plasma-based with a hemoglobin concentrati
281               The complement activity of the perfusate was reduced by CAB-2, as was the generation of
282  With the use of overlapping injections, the perfusate was sampled every approximately 10 s.
283                                       The WB perfusate was superior (vs RBC) for maintaining stabilit
284                                     Mucin in perfusates was quantified by periodic acid-Schiff's base
285 nality of metabolite excretion, from bile to perfusate, was noted in knockout mice only for conjugate
286                     H+ and CO2 loss from the perfusate were accompanied by increases of PV H+ and tra
287      Enzyme biomarkers present in the kidney perfusate were all significantly reduced by the use of s
288 in (IL)-6 levels in the lung grafts and EVLP perfusate were also significantly lower after EVLP with
289 with isotonic solution and hourly samples of perfusate were collected and analyzed.
290                 Ten-minute fractions of aCSF perfusate were collected from separate groups of room ai
291                       Fractions of choroidal perfusate were collected, and fluorescence was measured
292 zure-like events (SLEs) in low-Mg2+/ high-K+ perfusate were measured in the CA3 region of the intact
293  and outflow facility and cAMP levels in the perfusate were measured simultaneously.
294                     NE concentrations in the perfusate were measured using HPLC-EC and corticosterone
295 r pressure (IOP), and proMMP-3 levels in the perfusate were monitored.
296 ables flow and resistance, and the [Ca++] in perfusate, were significantly associated with delayed gr
297  or by isotonic replacement of sodium in the perfusate with choline or tetramethylammonium greatly at
298 Pike Laboratories Inc, Eagle, PA) is a novel perfusate with enhanced vasodilatory and antioxidant cap
299 rther reduced on combination of calcium-free perfusate with octanol (1 mM) and was abolished using a
300                                              Perfusates with modified osmolarity were used to cause a

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