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1 ns occur in response to prolonged changes in serum calcium.
2 e group had at least one elevated measure of serum calcium.
3 us, low hemoglobin level, and high corrected serum calcium.
4 ncentrations, decreased PTH and no change in serum calcium.
5 ers are responsible for abnormalities in the serum calcium.
6 Henle to sense and respond to alterations in serum calcium.
7 uctions in parathyroid hormone fail to lower serum calcium.
8 ium diet, PTH was suppressed, despite normal serum calcium.
9 centrifuge sediment increased along with the serum calcium.
10 TH play a critical role in the regulation of serum calcium.
11 GS was required because of her low levels of serum calcium.
12 tification factors haemoglobin and corrected serum calcium.
13  analysis of the ePTH patients revealed that serum calcium 1-week after surgery was predictive of rec
14 changes in intestinal calcium absorption and serum calcium, 1alpha,25-dihydroxyvitamin D also repress
15  longitudinal study of the effects of GBP on serum calcium, 25-hydroxy-vitamin-D (vitamin D), and par
16 2)Ca(serum) ratio positively correlated with serum calcium, 25-hydroxyvitamin D and alkaline phosphat
17           In EPIC, nonalbumin-adjusted total serum calcium (a proxy of free calcium) was not associat
18                                              Serum calcium and 1,25-dihydroxyvitamin D(3) levels were
19 administration was associated with increased serum calcium and a lack of increase in body weight in a
20                                              Serum calcium and BMD were measured in NHANES laboratori
21  calcitriol (12.5 microg/d) which normalized serum calcium and improved his rickets.
22                            Treatment reduces serum calcium and improves symptoms, at least transientl
23 his was accompanied by significantly reduced serum calcium and increased PTH levels in patients with
24 pic and phosphaturic hormones, and urine and serum calcium and inorganic phosphorus in mice in which
25    As anticipated, parathyroidectomy reduced serum calcium and intact parathyroid hormone levels.
26                                       Higher serum calcium and lower PTH levels were demonstrated in
27  mice exhibited hypercalciuria and had lower serum calcium and markedly increased serum PTH levels.
28 -heritability (rg = 0.191, P = 0.03) between serum calcium and migraine headache, indicating that the
29                               High levels of serum calcium and OPG are significantly associated with
30 ive factors for hypocalcemia, measurement of serum calcium and parathyroid hormone (PTH) levels, and
31              Sost KO and WT mice had similar serum calcium and parathyroid hormone concentrations.
32 r can cause an abnormal relationship between serum calcium and parathyroid hormone response, as is ty
33 ther markers of mineral metabolism including serum calcium and phosphate showed no significant associ
34 nd meat protein intakes, height, weight, and serum calcium and phosphorus concentrations all independ
35 condary hyperparathyroidism by correction of serum calcium and phosphorus concentrations and the admi
36  no significant between-group differences in serum calcium and phosphorus concentrations or in urine
37 sphocalcic product (the product of the total serum calcium and phosphorus concentrations).
38 with the patients' clinical characteristics, serum calcium and phosphorus concentrations, and other b
39                                              Serum calcium and phosphorus levels were not statistical
40 nalogue, appears to lessen the elevations in serum calcium and phosphorus levels, as compared with ca
41 ndex (LVMI), serum C-reactive protein (CRP), serum calcium and phosphorus, and erythropoietin resista
42 mean ratio of urinary calcium to creatinine, serum calcium and phosphorus, or change in iron status (
43 t parathyroid hormone and elevated levels of serum calcium and phosphorus, situations in which inject
44 abolism, particularly high concentrations of serum calcium and phosphorus, were associated with incre
45 the low potency of this analog in increasing serum calcium and phosphorus.
46 in darker-skinned children), and, inversely, serum calcium and phosphorus.
47 calcet for achieving long-term reductions in serum calcium and PTH concentrations in primary hyperpar
48 idectomy results in greater normalization of serum calcium and PTH levels and significantly improves
49 hyroid tumour development, and elevations in serum calcium and PTH, were similar in males and females
50 notably, a shift in the relationship between serum calcium and PTH.
51 ice exhibit a much wider range of values for serum calcium and renal excretion of calcium than we obs
52 (KO/TG mice) results in the normalization of serum calcium and rescue of rickets.
53  UV irradiation of DBP(+/+) animals restored serum calcium and serum 25(OH)D while the same treatment
54           1, 25 dihydroxy vitamin D3, FGF23, serum calcium and urinary phosphorus were significant de
55 completing an allelic series with respect to serum calcium, and alone are responsible for a symptom b
56 in Red and von Kossa stains, by depletion of serum calcium, and by uptake of calcium and phosphate by
57 arction was weighted by its association with serum calcium, and estimates were combined using an inve
58 hosphorus, absence of diabetes, younger age, serum calcium, and female gender.
59 roid hormone, increased vitamin D, increased serum calcium, and normalization of bone markers such as
60  adjusting for age, gender, diabetic status, serum calcium, and phosphorus (P < 0.0001).
61 measurement of hemoglobin, serum creatinine, serum calcium, and serum free light chain levels; serum
62 order, the magnitude of the deviation of the serum calcium, and the severity of symptoms.
63 genase, low serum hemoglobin, high corrected serum calcium, and time from initial RCC diagnosis to st
64 creatinine, C-reactive protein, electrolyte, serum calcium, and troponin T levels, were within normal
65  in parathyroid hormone secretory control by serum calcium, as had been hypothesized.
66  that the analogue 4 significantly increases serum calcium at dose levels similar to 1alpha,25-(OH)2D
67 ms (SNPs)) that independently contributed to serum calcium at genome-wide significance which we appli
68                    Very severe hypocalcemia (serum calcium below 6.5 mg/dL [1.63 mmol/L] or emergent
69 cemia was defined as total albumin-corrected serum calcium below 7.5 mg/dL (1.88 mmol/L) or a primary
70 iazide diuretics were associated with higher serum calcium (beta [SE], 0.051 [0.0092]; P < .001) and
71  CaSR gene SNP rs1801725 was associated with serum calcium but not with risk of diabetes.
72 efined as the multiplication of preoperative serum calcium by preoperative parathyroid hormone (PTH).
73 in EDTA injection alone, such as decrease in serum calcium (Ca), increase in urine Ca, or toxicity to
74                            No differences in serum calcium (Ca), inorganic phosphate (Pi) or 25-hydro
75  started with morphological and biochemical (serum calcium, calcitriol) stabilization.
76 ied in genome- and epigenome-wide studies of serum calcium (CASR), serum calcium-related risk of CHD
77 odels, while not causing toxicity related to serum calcium chelation.
78 d compression), hypercalcemia (symptoms or a serum calcium concentration > or = 12 mg per deciliter [
79 2.31, 2.05-2.60; p<0.0001), and raised total serum calcium concentration (1.43, 1.21-1.69; p<0.0001),
80 ozygous carriers showed significantly higher serum calcium concentration (P=0.01) and a trend for hig
81 pinal cord compression, and hypercalcemia (a serum calcium concentration above 12 mg per deciliter [3
82 the CYP24A1-associated locus correlates with serum calcium concentration and a number of nephrolithia
83 ne as evidenced by a greater increase of the serum calcium concentration and urine deoxypyridinoline
84 r, and safety measures of renal function and serum calcium concentration assessed every 3 months.
85 either unable or only slightly able to raise serum calcium concentration but are nevertheless able to
86 ication of variation in CASR that influences serum calcium concentration confirms the results of earl
87 dministration and the subsequent increase in serum calcium concentration decrease parathyroid hormone
88 ium and active vitamin D while maintaining a serum calcium concentration greater than or the same as
89 f this study was to test the hypothesis that serum calcium concentration is positively and independen
90                                  Uncorrected serum calcium concentration is the first mineral metabol
91 rathyroidism has been described in which the serum calcium concentration is within normal range but p
92                             Abnormalities in serum calcium concentration may have profound effects on
93               At base line, the mean (+/-SE) serum calcium concentration was 10.7+/-0.2 mg per decili
94 have assessed the association of uncorrected serum calcium concentration with clinical outcomes.
95 who did not undergo surgery had no change in serum calcium concentration, urinary calcium excretion,
96  kidney plays a major role in maintenance of serum calcium concentration, which must be kept within a
97 ctions of the native hormone without raising serum calcium concentration.
98 nitiates an endocrine cascade that regulates serum calcium concentration.
99 isk of kidney stone disease is by increasing serum calcium concentration.
100 f kidney stone disease by elevating adjusted serum calcium concentrations (beta=0.12 mmol/L); WHR med
101                                              Serum calcium concentrations also decreased by 5 to 10%
102  or without symptoms led to normalization of serum calcium concentrations and a mean (+/-SE) increase
103 um-based binders led to significantly higher serum calcium concentrations and an increased incidence
104 go parathyroid surgery include monitoring of serum calcium concentrations and bone density.
105                        However, the roles of serum calcium concentrations and vitamin D status have y
106               Our prior work indicated lower serum calcium concentrations are associated with longer
107 e-aged population of European-ancestry where serum calcium concentrations are likely stable and chron
108 th the Dunnett procedure was used to compare serum calcium concentrations at different time points af
109               Sevelamer, however, maintained serum calcium concentrations closer to the lower end of
110                                              Serum calcium concentrations lowered from 9.46 +/- 0.02
111  and Cdc73(L/L)/PTH-Cre mice had higher mean serum calcium concentrations than wild-type littermates,
112                                      GWAS of serum calcium concentrations was performed in 20 611 ind
113                              Higher adjusted serum calcium concentrations were also associated with a
114 dicates that visceral adipose depots elevate serum calcium concentrations, resulting in increased ris
115                                        Total serum calcium concentrations, which had ranged from 3.5
116 he calcium-sensing receptor (CaSR) regulates serum calcium concentrations.
117 ] and accounted for 0.54% of the variance in serum calcium concentrations.
118 ese mutations had hypercalciuria even at low serum calcium concentrations.
119                                        While serum calcium correction effectively treats papilledema,
120 hundred ninety-six inpatients with available serum calcium data obtained before and after gadodiamide
121  serum PTH levels, regardless of high or low serum calcium, demonstrated that PTH/PTH1R signaling exe
122 esults: Forty-one of the 127 men (32%) had a serum calcium drop, and 6 (5%) developed clinical hypoca
123 was then maintained for another 18 wk unless serum calcium exceeded 11.5 mg/dL or Ca x P product exce
124  76 226 participants not contributing to the serum calcium genome-wide association study.
125 s (recurrence < 12 months after nephrectomy, serum calcium &gt; 10 mg/dL, hemoglobin < lower limit of no
126 us criteria were examined, age <50 (P<0.01), serum calcium &gt;11.3 mg/dL (P < 0.01), and hypercalciuria
127  (< lower limit of normal), high "corrected" serum calcium (&gt; 10 mg/dL), and absence of prior nephrec
128                                     Elevated serum calcium has been associated with a variety of meta
129                                              Serum calcium has been associated with cardiovascular di
130   RF analysis of serum biomarkers identified serum calcium, hemoglobin and red blood cell (RBC) count
131 ong-term black carbon [BC] and PM2.5 levels, serum calcium homeostasis biomarkers (parathyroid hormon
132 ic bone disease, as a consequence of reduced serum calcium, hypoproteinuria, and hypoglycemia leading
133  performed genome-wide association study for serum calcium in >300 000 European-ancestry participants
134                           66.5% patients had serum calcium in target range (8.4-10.2 mg/dl), 41.5% pa
135 diverged thereafter with significantly lower serum calcium in the 19-norD(2)-treated rats by 5 d.
136 nce-daily treatment with PTH 1-34 maintained serum calcium in the normal range with decreased urine c
137                                 In contrast, serum calcium in the VD(3) group was significantly eleva
138 substitute for vitamin D in the elevation of serum calcium in vitamin D-deficient rats.
139                                              Serum calcium indexes were taken throughout the study, a
140                   Outcomes measures included serum calcium, intact parathyroid hormone (iPTH), and th
141                 Here, we investigate whether serum calcium is a causal risk factor for changes in ECG
142                    Maintenance of the normal serum calcium is a result of tightly regulated ion trans
143 ntrol of serum phosphorus without increasing serum calcium is an important goal for patients with ESR
144 f PTH secretion in response to variations in serum calcium is mediated by G-protein coupled, calcium-
145 thyroidism of renal failure, where a rise in serum calcium is undesirable.
146 weeks after treatment, PTX resulted in lower serum calcium level (9.28 mg/dL) compared with CIN (10.2
147 vs 23 [79.3%] female; P = .78), preoperative serum calcium level (mean [SD], 11.1 [0.9] vs 10.8 [0.8]
148                         Associations between serum calcium level and baseline hematoma volume and bet
149 vel and baseline hematoma volume and between serum calcium level and ICH expansion were investigated
150            PTX led to a greater reduction in serum calcium level and lower chance of persistent hyper
151                 Despite the normalization of serum calcium level and pulses of steroid treatment for
152 identified initial AVA, current smoking, and serum calcium level as the independent predictors of amo
153             Hypocalcemia is a derangement in serum calcium level due to a vast spectrum of disorders,
154 ecreased by 52% from 92 to 44 pg/mL, and the serum calcium level increased from 7.8 to 8.5 mg/dL.
155      Objective: To investigate whether a low serum calcium level is associated with an increase in th
156  15 mg/dL (normal level, <20 mg/dL), a total serum calcium level of 2.46 mmol/L (reference range, 2.1
157 admission, and hypocalcemia was defined as a serum calcium level of less than 8.4 mg/dL.
158                   In this subgroup, a higher serum calcium level was associated with reduced risk of
159                                  A decreased serum calcium level was the only risk factor found to di
160                                          The serum calcium level was very low (3 mg/dl) due to damage
161 idectomy may be considered depending on age, serum calcium level, and kidney or skeletal involvement.
162                                              Serum calcium level, parathyroid hormone (PTH) level, an
163 valuating tumor growth, CD44 expression, and serum calcium level.
164 ,285 cases, 95,425 controls) and circulating serum calcium levels (39,400 subjects).
165 p and 10 in the placebo group), and elevated serum calcium levels (6 in the vitamin D3 + calcium grou
166 m a genome-wide association meta-analysis of serum calcium levels (N = up to 61079 individuals) and f
167     This lead SNP was associated with higher serum calcium levels [0.06 mg/dl (0.015 mmol/l) per copy
168                                              Serum calcium levels and change in serum creatinine leve
169  CaR is necessary for the fine regulation of serum calcium levels and renal calcium excretion indepen
170 between genetic variants related to elevated serum calcium levels and risk of coronary artery disease
171 -Fc > or =100 microg suppressed elevation of serum calcium levels and suppressed the bone turnover ma
172                                              Serum calcium levels and the Ca x P ion product increase
173                                    Corrected serum calcium levels and Voice Analog Score defined and
174  and 123504 noncases), the 6 SNPs related to serum calcium levels and without pleiotropic association
175                                              Serum calcium levels are tightly controlled by an integr
176                                              Serum calcium levels are tightly regulated.
177  hormone (iPTH) > or = 400 pg/ml, normalized serum calcium levels between 8.0 and 10.0 mg/dl, and cal
178          Finally, we found that elevation of serum calcium levels by 1 mg/dl resulting from our genet
179  with lifelong genetic exposure to increased serum calcium levels can be translated to a risk associa
180                                  The maximum serum calcium levels did not change (P = 0.15).
181                                  FBP lowered serum calcium levels during the first 24 h after the ins
182                         Furthermore, raising serum calcium levels in Cyp27b1-depleted mice directly i
183                                              Serum calcium levels in the analogue group were not elev
184   The introduction of routine measurement of serum calcium levels led to a sharp increase in the inci
185         In patients older than 50 years with serum calcium levels less than 1 mg above the upper norm
186                            The early rise in serum calcium levels observed with treatment may have co
187 imaging-guided MIP combined with uncorrected serum calcium levels of 2.55 mmol/l or less 1 month afte
188    These analyses support a causal effect of serum calcium levels on ventricular repolarization, in a
189 ectrochemical sensor that can measure bovine serum calcium levels on-site, providing an opportunity f
190          We found that the rate of change in serum calcium levels varied as a function of transmural
191           A genetic predisposition to higher serum calcium levels was associated with increased risk
192 crease (about 1 SD) in genetically predicted serum calcium levels were 1.25 (95% CI, 1.08-1.45; P = .
193 ization (MR) design to determine if elevated serum calcium levels were associated with risk of migrai
194                                              Serum calcium levels were increased only with vitamin D3
195                                              Serum calcium levels were measured with inductively coup
196                           Postoperative mean serum calcium levels were similar (8.78 mg/dL, NIH group
197 aused a transient artifact in measurement of serum calcium levels with an OCP assay but not with an a
198 litate optimal bone mineralization, preserve serum calcium levels within a narrow range, and support
199 pt mean ages, 55 versus 65, and preoperative serum calcium levels, 11.5 mg/dL versus 11.0 mg/dL (NIH
200 ion of gadoversetamide caused no decrease in serum calcium levels, as measured with inductively coupl
201 orphological response and a normalization of serum calcium levels, confirming the hypothesis of a cal
202                                              Serum calcium levels, however, were unaffected by nephre
203 D3 and parathyroid hormone levels, decreased serum calcium levels, hyperplasia of the parathyroid, an
204 s that calcium supplementation, which raises serum calcium levels, may increase the risk of cardiovas
205 rathyroidism is typically diagnosed with low serum calcium levels, often requiring patients to remain
206      Feature importance analyses highlighted serum calcium levels, temperature, age, lymphocyte count
207 their ability to act in vivo without raising serum calcium levels, they may be of considerable intere
208 parathyroid hormone levels and low-to-normal serum calcium levels, were younger, and were receiving a
209 ould be achieved without adversely affecting serum calcium levels.
210 mon genetic variations associated with total serum calcium levels.
211 type, were able to reproduce, and had normal serum calcium levels.
212 hanisms that maintain skeletal integrity and serum calcium levels.
213 l in the blood did not affect measurement of serum calcium levels.
214  wk of treatment, concomitant with a rise in serum calcium levels.
215 tions, both in the context of high or normal serum calcium levels.
216 ed to explain about 0.8% of the variation in serum calcium levels.
217 arathyroid hormone in response to changes in serum calcium levels.
218 ased on genetic variants related to elevated serum calcium levels.
219 e was 100%, as evidenced by normalization of serum calcium levels.
220 tment for potential confounders, uncorrected serum calcium &lt;8.5 and >/=10.2 mg/dl were associated wit
221  of renin-angiotensin system inhibitors, low serum calcium (&lt; 8.4 mg/dL), and high uric acid levels (
222 th the experimental evidence, suggest higher serum calcium may increase the risk of CAD.
223                                   Changes in serum calcium measurements following gadodiamide adminis
224 lowing 42 gadodiamide-enhanced examinations, serum calcium measurements spuriously decreased by more
225  were in active follow-up, including regular serum calcium measurements.
226               The combined model of NEWS and serum calcium (NEWS-Calcium) is hypothesized to enhance
227  hypercalcemic that became undetectable when serum calcium normalized.
228 erformed to approximate the causal effect of serum calcium on QT, JT, and QRS intervals using an inve
229                At the multivariate analysis, serum calcium, OPG, and estimated glomerular filtration
230  of DBP(-/-) animals failed to show either a serum calcium or 25(OH)D response despite having normal
231 patient age, renal function, or preoperative serum calcium or parathyroid hormone levels.
232 with any sex hormone or reproductive factor, serum calcium, or circulating 25-hydroxyvitamin D concen
233 che diagnoses, and that genetically elevated serum calcium over lifetime appears to increase risk for
234  a decrease of heartrate by 9.9 bpm/mM total serum calcium (p < 0.001) with intact autonomic control
235 in D intakes were positively associated with serum calcium (P < 0.005) and calcidiol (P < 0.01) conce
236 ntributed significantly to the prediction of serum calcium (P < 0.009) and calcidiol (P < 0.0001), th
237 D concentration was the primary outcome, and serum calcium, parathyroid hormone (PTH), 1,25-dihydroxy
238                Patients were followed up for serum calcium, parathyroid hormone levels, and symptomat
239                                 In contrast, serum calcium, parathyroid hormone, and 25-hydroxyvitami
240 sted to achieve consistent albumin-corrected serum calcium, patients were randomly assigned (2:1) via
241 pletely rescued the hypercalciuric and lower serum calcium phenotype in Ksp-cre;Pth1r(fl/fl) mice, em
242              Laboratory evaluations included serum calcium, phosphate, alkaline phosphatase, 25-hydro
243                                              Serum calcium, phosphate, and vitamin D levels were norm
244                Runx2 deletion did not affect serum calcium, phosphate, fibroblast growth factor-23, o
245         There were no significant changes in serum calcium, phosphate, or intact parathyroid hormone
246                                              Serum calcium, phosphate, urea nitrogen, and creatinine
247 us; higher body mass index; higher levels of serum calcium, phosphorous, and parathyroid hormone; and
248     In sensitivity analyses, the addition of serum calcium, phosphorus, 25-hydroxyvitamin D, intact p
249  gender, age, diabetic status, and levels of serum calcium, phosphorus, alkaline phosphatase, and alu
250                                              Serum calcium, phosphorus, alkaline phosphatase, and par
251 ion to the more widely recognized changes in serum calcium, phosphorus, and 1alpha,25-dihydroxyvitami
252        Cinacalcet also significantly reduced serum calcium, phosphorus, and Ca x P levels compared wi
253 l excretion of calcium; and no difference in serum calcium, phosphorus, and PTH levels.
254 rly, the hematocrit, white blood cell count, serum calcium, phosphorus, cholesterol, triglycerides, t
255                        No change occurred in serum calcium, phosphorus, intact parathyroid hormone, o
256                                     Baseline serum calcium, phosphorus, magnesium, and PTH levels wer
257                                              Serum calcium, phosphorus, osteocalcin, and alkaline pho
258                                          The serum calcium-phosphorus product declined by 15 percent
259 genome-wide studies of serum calcium (CASR), serum calcium-related risk of CHD (CASR), coronary arter
260      FHH3 probands had significantly greater serum calcium (sCa) and magnesium (sMg) concentrations w
261 cluded age, sex, estimated GFR, albuminuria, serum calcium, serum phosphate, serum bicarbonate, and s
262                       Changes in plasma PTH, serum calcium, serum phosphorus, and calcium x phosphoru
263                                        Total serum calcium showed a null association in EPIC.
264 mmortalizes human keratinocytes and inhibits serum/calcium-stimulated differentiation.
265 ee made 1 strong recommendation for baseline serum calcium testing, 13 conditional recommendations, a
266 in patients with an asymptomatic increase in serum calcium to >12.0 mg/dl persisting for >1 year afte
267 ys showed a significant (P <.05) decrease in serum calcium values after administration of gadoverseta
268 s, as well as intact parathyroid hormone and serum calcium values obtained 1 d after surgery and on f
269                              The decrease in serum calcium values peaked immediately after injection,
270 lues peaked immediately after injection, and serum calcium values quickly returned to baseline.
271 adoteridol produced no significant change in serum calcium values, regardless of analytic method.
272                                              Serum-calcium values were similar (2.1 +/- 0.3 vs 2.1 +/
273 a were compiled to determine how GBP affects serum calcium, vitamin D, and PTH.
274                     A decrease of 0.1 mmol/L serum calcium was associated with longer QT (3.01 ms [95
275                                              Serum calcium was corrected for serum albumin.
276                                              Serum calcium was elevated and endogenous PTH was suppre
277 ent with 3 previous cohort studies, elevated serum calcium was found to be associated with a greater
278  and U/HP mice versus sham controls, whereas serum calcium was increased in the U/HP group, and no di
279                                              Serum calcium was measured at baseline and corrected for
280                                              Serum calcium was measured in an 8% subsample of partici
281 quintiles, in both cohorts, higher levels of serum calcium were associated with reduced CRC risk (EPI
282  19-norD(2) or 1,25(OH)(2)D(3), increases in serum calcium were identical 24 h after the first inject
283 ar between groups except that hemoglobin and serum calcium were lower and serum phosphorus was higher
284 nical performance measures including monthly serum calcium were obtained through linkage to the Conso
285 ignificant (P <.05) decrease in the value of serum calcium when analyzed with the OCP technique but n
286 ase in dietary calcium for 10 days increased serum calcium, with an associated increase in FGF23, dec

 
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