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1 nmol or 1150 mg) amounts of sodium for 30 d (crossover design).
2 randomized, double-blind, single-dose, 4-way crossover design.
3 ia using a double-blind, placebo-controlled, crossover design.
4 olol used a double-blind, placebo-controlled crossover design.
5 acebo, on separate mornings, in a randomized crossover design.
6 condition were determined using a randomized crossover design.
7 re fed each of 3 healthy diets for 6 wk in a crossover design.
8 n MC (35% carbohydrate) diet-randomized in a crossover design.
9 tudy used a randomized, double-masked, 2 x 2 crossover design.
10 ouble-blind, placebo-controlled, randomized, crossover design.
11 tered 3 meals in a randomized, double-blind, crossover design.
12 s for 6-wk periods according to a randomized crossover design.
13 andomized, double-blind, placebo-controlled, crossover design.
14 acebo, on separate mornings, in a randomized crossover design.
15 ed with each of 4 diets in random order in a crossover design.
16 mg) or saline in a randomized, double-blind, crossover design.
17 med by using a linear model for a two-period crossover design.
18 vehicle) every 2 weeks for 1 month each in a crossover design.
19 dapiprazole in a double-masked, randomized, crossover design.
20 e occasions in a single-blind, random order, crossover design.
21 ssignments were random and double blind in a crossover design.
22 ts aged 25-56 y participated in a randomized crossover design.
23 rating the treatment periods in a randomized crossover design.
24 tructured critical care elective, by using a crossover design.
25 te (HC) or high-fat (HF) diet according to a crossover design.
26 antarflexion using a prospective, randomized crossover design.
27 disease to consume black tea and water in a crossover design.
28 tmenopausal women in a 4-treatment, 4-period crossover design.
29 ets assigned by using a randomized, balanced crossover design.
30 udents completed the other scenario, using a crossover design.
31 The investigation had a randomized, blinded, crossover design.
32 l meal and a strawberry meal in a randomized crossover design.
33 rs, using a double-blind, placebo-controlled crossover design.
34 low-fiber diet for 4 wk each in a randomized crossover design.
35 iets were consumed for 23 d in a randomized, crossover design.
36 h FTFI and V-CASI techniques in a randomized crossover design.
37 ate occasions in a single-blind, randomized, crossover design.
38 a high-fat (46% fat) diet for 6 wk each in a crossover design.
39 n and nonvegetarian diets for 8 wk each in a crossover design.
40 ed in 15 healthy volunteers in a randomized, crossover design.
41 cebo for 8 wk in a randomized, double-blind, crossover design.
42 dure, separated by 1 week, in a double-blind crossover design.
43 confirm this finding by using a double-blind crossover design.
44 ed two amino acid mixtures in a double-blind crossover design.
45 clinical trial performed with an open-label crossover design.
46 or low glycogen (LG) stores in a randomized crossover design.
47 at two dietary calcium intakes with use of a crossover design.
48 Seven lean, male subjects were studied in a crossover design.
49 rst or the second 15-d residency period in a crossover design.
50 g asthmatics using an open-label, randomized crossover design.
51 high-fat and low-fat diet administered in a crossover design.
52 double-blind, placebo-controlled, randomized crossover design.
53 diet (5% of total daily energy intake) in a crossover design.
54 g pectin/d) in a prospective, single-blind, crossover design.
55 -30 to 240 min) in a double-blind randomized crossover design.
56 ng using a placebo-controlled, double-blind, crossover design.
57 g a double-blind placebo-controlled balanced crossover design.
58 r 0.4 mg doses) in a randomized double-blind crossover design.
59 e of a dual-center, single-blind, randomized crossover design.
60 4 separate days with the use of a randomized crossover design.
61 pram (10 mg) intravenously in a double-blind crossover design.
62 udy was a randomized controlled trial with a crossover design.
63 ate occasions in a double-blind, randomized, crossover design.
64 ented to 98 healthy subjects in a randomized crossover design.
65 diet versus a LOWCAL diet using a randomized crossover design.
66 K561679 (high-GSK), and 1 mg alprazolam in a crossover design.
67 ing after short-term SSRI exposure by a case-crossover design.
68 -5 (BACE inhibitor) or vehicle in a four-way crossover design.
69 lic syndrome patients following a randomized crossover design.
70 scanned repeatedly in a placebo-controlled, crossover design.
71 TANOC and (68)Ga-DOTATATE using a randomized crossover design.
72 ch (hyperhedonia) using functional MRI and a crossover design.
73 ndomized, counter-balanced, within-subjects, crossover design.
74 efully consider the length of washout within crossover designs.
75 at incorporate noninferiority, factorial and crossover designs.
77 double-blind, randomized, repeated measures, crossover design, 11 cyclists consumed a placebo or caff
84 mol/L, patients consumed, in a double-blind, crossover design, 250 mg caffeine or matched placebo.
87 Utilizing a double-blind, placebo-controlled crossover design, 35 fathers and their 5-month-old infan
91 ns in clinical trial design such as parallel crossover design, alternative endpoints, or adaptive tri
92 l studies-3 with a randomized, double-masked crossover design and 1 with 4 parallel crossover studies
99 reatments were administered to subjects in a crossover design, and diets contained 1 of 3 almond dose
100 /kg, 2 mg/kg) in a double-blind, randomized, crossover design, and exercise challenge was performed 4
103 -controlled case series method, and the case-crossover design, are described and summarized in tabula
104 ation was a randomized clinical trial with a crossover design at a nonprofit eye research institute.
105 tACS was applied using a sham-controlled crossover design at individualized intensity for 20 min
106 This study used a morning x evening light crossover design balanced by parallel-group controls, in
107 , placebo-controlled design; 2) absence of a crossover design between patient groups; 3) mean follow-
109 were studied in a randomized, double-blind, crossover design comparing tryptophan depletion to a pla
110 4) were then tested twice, in a double-blind crossover design, comparing either: (1) placebo vs 10 mg
111 in a 2-drug, double-blind placebo-controlled crossover design conducted from January 21, 2009, to Sep
112 eived four breakfasts following a randomised crossover design consisting of different oils (virgin ol
114 eg, randomized controlled trials, randomized crossover designs), could revolutionize the conduct of r
115 andomized, double-blind, placebo-controlled, crossover design, drug-free OCD adults (n=15) with near-
116 loric LF, LGI, and VLC diets in a randomized crossover design, each for a 4-week period of weight los
117 stradiol and progesterone in a double-blind, crossover design, each for four weeks, during continued
118 ents to one of four treatment sequences in a crossover design, each involving two 16-week treatment p
120 domized to the following 7-day regimens in a crossover design: enteric-coated aspirin 100 mg twice da
123 e 3-month periods (randomized, double-blind, crossover design), followed by 6 additional pacing-on mo
124 twice in a double-blind, placebo-controlled crossover design, following either placebo or 40-mg oral
127 outcome-indexed self-controlled (i.e., case-crossover) designs for active surveillance and evaluate
132 ment used a double-blind, placebo-controlled crossover design in which 50 mg of oral DHEA was adminis
135 ETTING, AND PARTICIPANTS: A controlled 3-way crossover design involving 21 overweight and obese young
137 breakfast meals were tested in a randomized crossover design: low fiber, low fat; high fiber, low fa
138 ronic medication exposure by means of a case-crossover design may result in an upward-biased odds rat
140 dental research application, the equivalence/crossover design methodology is shown to be an efficient
143 DESIGN, STUDY, AND PARTICIPANTS: A case-crossover design of 13,860 Medicare patients with AMI fr
145 alance and kinetic modeling in a randomized, crossover design of three 1-mo controlled dietary interv
147 randomization or change in dose assignment, crossover design, or protocol amendment, were included.
150 Unexpectedly, ketamine's effects within the crossover design showed significant (p<0.005) carryover
153 naurally in a planned comparison, randomized crossover design study with binaural broadband hearing i
154 randomized double-blinded placebo-controlled crossover design study, 12 patients received either a si
156 dults in a double-blind, placebo-controlled, crossover designed study and then assessed memories of c
157 ects completed a randomized, double-blinded, crossover-design study in which they consumed either 5 o
158 ere randomized into a 16-week, double-blind, crossover-design study of clomipramine, a potent seroton
163 e the treatment response objectively and the crossover design that allows estimating the treatment ef
168 ese participants were randomly assigned in a crossover design to 2 periods of a 4-wk hypocaloric diet
169 in cornstarches were fed for 14 wk each in a crossover design to 24 men [10 control, 14 hyperinsuline
170 This study used a prospective nested case-crossover design to compare the risk of ICD shock for VT
171 descent (n = 53) were randomly assigned in a crossover design to consume a Mexican or US diet for 24
172 aging in a double-blind, placebo-controlled, crossover design to determine how intranasally administe
174 nistered in a randomized, placebo-controlled crossover design to eight type 2 diabetic subjects and s
176 1992 through 2006 in a time-stratified case-crossover design to estimate the association between hos
177 on) + /- hydrocortisone (HC) in a randomised crossover design to produce low, medium and high glucoco
178 ess test were randomized in a double-masked, crossover design to receive a titrated intravenous infus
179 , patients were randomized in a double-blind crossover design to stimulation ON or OFF for 1-month pe
180 rial used a double-blind, placebo-controlled crossover design to study 73 children and adolescents ag
183 NA or combination therapy in an open-label, crossover design trial to assess the effects on serum li
184 ffects were consistent in parallel group and crossover design trials, and in analyses of dose-respons
185 tion age, population health, parallel versus crossover design, type of control oil, or study quality
186 was assessed by using a time-stratified case-crossover design using 11 677 emergency medical service-
187 re administered using a randomized, blinded, crossover design via a face mask and an inspiratory dema
197 A single-blind, randomized, within-subject crossover design was used to study the effects of palm o
204 le-blind, placebo-controlled, within-subject crossover design we aimed to determine the effect of a s
207 double-blind, placebo-controlled, randomized crossover design, we determined the effects of dietary N
209 Using a double-blind placebo-controlled crossover design, we pharmacologically increased synapti
210 In this open-label, multicenter trial with crossover design, we randomly assigned patients with new
211 randomized, double blind, placebo-controlled crossover design, we show that OT administration in ASD
215 r time-controlled studies with nonrandomized crossover design were selected for diabetic nephropathy.
216 gression models under a time-stratified case-crossover design were used to study the relationship bet
217 sly (18.4 micromol) to 6 healthy adults in a crossover design with > or =2 wk between each biotin adm
218 retention was tested in a randomized-order, crossover design with 2 concentrations of sodium-1.30 g/
219 5 human subjects were tested in a randomized crossover design with 4 breads: white-wheat bread low in
220 or a green tea extract supplement in a 3 x 3 crossover design with a 1-wk washout period in between t
221 of leptin (Wt(-10%leptin)) in a single-blind crossover design with a 2-wk washout period between trea
224 ontrolled trials have used a within-subject, crossover design with an inactive placebo as the control
225 a double-blind randomized placebo-controlled crossover design with an integrated Stop-Signal and NoGo
226 y for 1 month, compared in a random-sequence crossover design with an otherwise identical 2 h of indu
227 a maintenance diet, they were provided in a crossover design with either a vegetarian HPWL (Soy-HPWL
228 aging study used a double-blinded randomized crossover design with low-frequency inhibition trials di
229 ouble-blind placebo-controlled, three-period crossover design with naltrexone (NTX; 25 mg OD for 2 da
231 y-old youth were studied in a within-subject crossover design with three 3-wk phases: baseline, incre
232 randomized, double-blind, placebo-controlled crossover design with two 4-week periods of treatment, s
234 andomized, double-blind, placebo-controlled, crossover design with two separate experimental sessions
235 ouble-blind, placebo-controlled, parallel or crossover designs with benzodiazepines or zolpidem in ad
236 rasted, and comparisons between parallel and crossover designs with equivalence testing are discussed
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