ライフサイエンスコーパス: micromole

1 ose response between approximately 1 and 200 micromole.

2 than 0.4% for acetate samples larger than 5 micromoles.

3 found to more completely remove the nano- to micromole amounts of anions (and cations) in HPAE fracti

4 ivity kept the amount of material limited to micromole amounts, spectra of the highly luminescent com

5 y available precursors on both a microcurie (micromole) and a millicurie (millimole) scale.

6 moderate suction, Gd3+ provided at about 0.5 micromole at the extracellular face of the membrane prom

7 onenal appears inactive at concentrations <1 micromole but displays both stimulatory and inhibitory e

8 xylic acids have the potential to supply 4-5 micromoles C hr(-1)g(-1) fresh weight to the soil soluti

9 crease represent the release of around 10-50 micromoles Ca(2+) per litre cytoplasmic volume from boun

10 biting cytotoxic or apoptotic effects at low micromole concentrations.

11 ibited the activity of alpha-chymotrypsin at micromole concentrations.

12 Thus, low-micromole doses of CDDO-Im induce cytoprotective genes,

13 The catalase activity, in units of micromoles hydrogen peroxide decomposed per minute over

14 -P-GCV during the 12-week period after a 2.8-micromole intravitreal injection.

15 (NOS), NG-monomethyl-L-arginine (L-NMMA; 50 micromoles/kg body weight infused simultaneously with VE

16 Using a <13 vs. > or =13 micromoles/L cutoff point, the sensitivity for detecting

17 Levels > =13 micromoles/L practically rule out moderate or severe rej

18 Citrulline levels <13 micromoles/L should alert the clinical team that a serio

19 CM-DTT), was designed and synthesized at the micromole level by reaction of dithiothreitol with triti

20 A technique to convert micromole levels of sulfate in any form to silver sulfat

21 d-light intensity at the root surface to 100 micromoles m-1 s-1 or supplementing with 6% blue light.

22 roots exposed to constant red light (300-500 micromoles m-2 s-1) did not accumulate chlorophyll in th

23 of UDP-GlcN[1-14C]Ac: an HPLC method handled micromole (microcurie) loads.

24 Barley leaves contained 6 to 8 micromoles NO2-/gram fresh weight x hour of endogenous N

25 of inorganic phosphate was produced for each micromole of maltose transferred to glycogen, and 56% of

26 in a time-efficient manner with less than a micromole of protein.

27 xide-supported catalyst, yield around 22,000 micromoles of acetic acid per gram of catalyst, or aroun

28 Three micromoles of DHA decreased serum creatinine (Scr) from

29 Three-hundred micromoles of intracameral H-7 doubled facility in iride

30 rane potentials the channel requires several micromoles of intracellular Ca(2+) for activation.

31 rane potentials the channel requires several micromoles of intracellular Ca2+ for activation.

32 tic acid per gram of catalyst, or around 230 micromoles of methanol per gram of catalyst, respectivel

33 MMA concentration expressed as the ratio of micromoles of MMA to millimoles of creatinine (uMMA rati

34 The wild-type enzyme gave specific activity (micromoles of Pi per hour per milligram of expressed H+,

35 Up to 1.6 micromoles of rcSso7d-CBD was found to adsorb per gram o

36 = 1.03-1.47, p = 0.022); for each additional micromole per liter unit (mumol/l) of non-Cp copper, the

37 approximately 325 nmol mol(-1) (ppb) but at micromole per mole (ppm) levels as well.

38 n index equals hepatic iron concentration in micromoles per gram divided by age).

39 ctive sulfide concentrations, from 0.5 to 30 micromoles per gram.

40 tolerance (mean 35.4 [SE 4.0] vs 60.6 [7.2] micromoles per kg lean body mass per min; p=0.023) owing

41 ctose) switched net hepatic glucose balance (micromoles per kilogram per minute) from output (11.3 +/

42 take (14.7 +/- 1.7) and net lactate balance (micromoles per kilogram per minute) from uptake (6.5 +/-

43 phosphate (P) was found to be highest (~0.24 micromoles per kilogram per year) in the vicinity of the

44 dissolution rates, ranging from 0.003 to 1.2 micromoles per kilogram per year, are observed beginning

45 The amplitude of the changes reached several micromoles per liter when detected with the low-affinity

46 reatinine value in milligrams per deciliter (micromoles per liter).

47 4 (192.0) ng/mL, respectively (to convert to micromoles per liter, multiply by 0.00489; P = .07).

48 e in dissolved oxygen concentration of 15-20 micromoles per litre.

49 The CO2 concentration was elevated to 1200 micromoles per mole, and water and nutrients were suppli

50 WF plus 12 hours dim incandescent (INC) at 5 micromoles per square meter per second and a control tre

51 sed well under continuous irradiation at 400 micromoles per square meter per second and under 12 hour

52 continuous photosynthetic photon flux of 200 micromoles per square meter per second cool-white fluore

53 a control treatment of 12 hours light at 400 micromoles per square meter per second CWF and 12 hours

54 quare meter per second CWF; (c) 12 hours 400 micromoles per square meter per second CWF plus 12 hours

55 square meter per second; (d) 12 hours [400] micromoles per square meter per second CWF plus 12 hours

56 -white fluorescent (CWF); (b) continuous 400 micromoles per square meter per second CWF; (c) 12 hours

57 24-hour continuous irradiation at 560 to 580 micromoles per square meter per second from either metal

58 onducted under continuous irradiation of 400 micromoles per square meter per second of photosynthetic

59 Continuous irradiation at 200 or 400 micromoles per square meter per second resulted in sever

60 Three levels of PPF (100, 200, and 400 micromoles per square meter per second) and two lamp typ

61 e same photosynthetic photon flux (PPF), 200 micromoles per square meter per second, but with phytoch

62 er per second CWF plus 12 hours dim CWF at 5 micromoles per square meter per second; (d) 12 hours [40

63 photosynthetic photon fluxes (PPF, 400-2080 micromoles per square meter per second; 22-150 moles per

64 Provision at 1-2 micromoles promotes and subsequently inhibits more vigor

65 d requires approximately 60 min and utilizes micromole quantities of the secondary alcohol being test

66 Reproducibilities for micromole sample sizes are (1sigma) 0.5, 0.3, and 0.1% f

67 oligonucleotide pools of >40K complexity at micromole scale are shown.

68 hase methodologies offer rapid assembly on a micromole scale sufficient for biophysical characterizat

69 These methods are suitable for large-scale (micromole to millimole) production of oligonucleotides a

70 t, the mean conversion of 13C-CA to 13C-DCA (micromoles) was greater (P < 0.05) on study days 3, 4, a