ライフサイエンスコーパス: cryogenic

1 low power, high speed data transfer between cryogenic (0.1-4 K) and room temperature environments is

2 In this contribution we present a cryogenic 3D printing method able to produce stable 3D s

3 We compare the performance of two cryogenic amplification circuits: a current-biased heter

4 oving readout fidelity and bandwidth (BW) is cryogenic amplification, where the signal from the qubit

5 Cryogenic and conventional transmission electron microsc

6 olated atoms of Zn and Fe on ferritin, using cryogenic annular dark-field scanning transmission elect

7 uld also provide a guidance to the promising cryogenic application of these new advanced BMG composit

8 gical samples, is crucial for the success of cryogenic applications.

9 Cryogenic boil-off pressure rise and pressure control ve

10 Unfortunately, experiments using cryogenic buffer gases have found that although the mole

11 ques, such as the use of supersonic jets and cryogenic buffer gases, have reached temperatures limite

12 A combination of cryogenic buffer-gas cooling and cavity-enhanced direct

13 tron microscopy, thus expanding the scope of cryogenic cellular imaging.

14 However, cryogenic circulators and isolators are disadvantageous

15 compounds during sample preparation included cryogenic comminution, extraction with acidified ethyl a

16 For promising cryogenic computing schemes utilizing Josephson junction

17 solution transmission electron microscopy at cryogenic conditions (cryo-TEM).

18 prerequisite, samples must be handled under cryogenic conditions below their recrystallization tempe

19 d specifically for imaging cells in 3D under cryogenic conditions by using X-rays and visible light.

20 Under cryogenic conditions sulfate formation might be blocked,

21 The samples were studied under ambient and cryogenic conditions without dehydration or heavy metal

22 ling (SCT) computations indicate that, under cryogenic conditions, 1-methoxycyclopropylmethylcarbene

23 ted by flash vacuum pyrolysis, trapped under cryogenic conditions, and studied by direct spectroscopi

24 for longer than 2 wk while maintained under cryogenic conditions, but disappeared if annealed to roo

25 t physisorbent to exhibit H(2) sieving under cryogenic conditions, could be a prototype for a general

26 , spectroscopic proof is thus far limited to cryogenic conditions, under which thermal reactivity is

27 f chemical fixatives, and imaging them under cryogenic conditions, we are able to obtain images with

28 ls to localize the regions of interest under cryogenic conditions.

29 operation, such materials remain pristine at cryogenic conditions.

30 a tunneling process from the ground state at cryogenic conditions.

31 ctivity for H(2) /CO(2) and H(2) /N(2) under cryogenic conditions.

32 e samples and by working in vacuum and under cryogenic conditions.

33 pped with a cryo-stage for all operations in cryogenic conditions.

34 Cryogenic conductivity measurements indicate intrinsic t

35 The recently developed cryogenic-cooled THz quantum cascade laser (QCL) comb ha

36 elow 150 K in Bi-Te alloys commonly used for cryogenic cooling applications.

37 tures of small crystals without the need for cryogenic cooling.

38 detection sensitivity by nanofabrication and cryogenic cooling.

39 ing cavity, thereby eliminating the need for cryogenic cooling.

40 Here we applied cryogenic correlated light and electron microscopy, comb

41 Recent advances have made cryogenic (cryo) electron microscopy a key technique to

42 Cryogenic (cryo-) cooling reduces the global radiation d

43 tic hydrogenation (C(2)H(2) conversion), and cryogenic distillation (C(2)H(6) separation).

44 ve absorption and adsorption, membranes, and cryogenic distillation are reviewed.

45 Xe is only produced by cryogenic distillation of air, and its availability is l

46 avings when compared with the currently used cryogenic distillation process for ethylene produced thr

47 mation from the traditional energy-intensive cryogenic distillation to the energy-efficient, adsorben

48 from ethane by adsorption, instead of using cryogenic distillation, is a key milestone for molecular

49 at relies largely on energetically demanding cryogenic distillation.

50 l-bound water as well as total soil water by cryogenic distillation.

51 eparation processes rely on energy intensive cryogenic distillation.

52 Purifying alkenes from alkanes requires cryogenic distillation.

53 ve these radioactive noble gases is a costly cryogenic distillation; alternatively, porous materials

54 n for the development of a new generation of cryogenic, efficient scintillation detectors with nanose

55 rminal subunits are consistent with existing cryogenic electron microscopic (cryo-EM) maps, limit bin

56 ts local microstructure and nanostructure by cryogenic electron microscopy (both scanning and transmi

57 ply both crystallography and single-particle cryogenic electron microscopy (cryo-EM) analyses to prob

58 Cryogenic electron microscopy (cryo-EM) analysis confirm

59 Here, using cryogenic electron microscopy (cryo-EM) and small-angle

60 cles required for structure determination by cryogenic electron microscopy (cryo-EM) can be provided

61 We show here that cryogenic electron microscopy (cryo-EM) can be used to d

62 Cryogenic electron microscopy (cryo-EM) enables structur

63 Cryogenic electron microscopy (cryo-EM) has become one o

64 Cryogenic electron microscopy (cryo-EM) maps are now at

65 Starting from the recently reported cryogenic electron microscopy (cryo-EM) open-state chann

66 structure of the L302A mutant determined by cryogenic electron microscopy (cryo-EM) reveals a partia

67 technical and methodological improvements in cryogenic electron microscopy (cryo-EM) single-particle

68 Most information loss in cryogenic electron microscopy (cryo-EM) stems from parti

69 Here we present (i) a cryogenic electron microscopy (cryo-EM) structure of a c

70 A 4.86- angstrom-resolution cryogenic electron microscopy (cryo-EM) structure of M12

71 We report the 3.2 angstrom resolution cryogenic electron microscopy (cryo-EM) structure of pal

72 Here, we present the cryogenic electron microscopy (cryo-EM) structure of S.

73 Here, we describe crystal and cryogenic electron microscopy (cryo-EM) structures of NA

74 As high-resolution cryogenic electron microscopy (cryo-EM) structures of ri

75 uctures remained elusive until the advent of cryogenic electron microscopy (cryo-EM) techniques.

76 articles in vitro and employ single particle cryogenic electron microscopy (cryo-EM) to determine str

77 uclear magnetic resonance (NMR) imaging, and cryogenic electron microscopy (cryo-EM).

78 ric modulator Ro 25-6981 (Ro), determined by cryogenic electron microscopy (cryo-EM).

79 ral model for tubular CA assemblies based on cryogenic electron microscopy (cryoEM), the dimerization

80 rred specimen orientation in single-particle cryogenic electron microscopy by employing tilts during

81 Cryogenic electron microscopy has previously shown that

82 Recent advances in single-particle cryogenic electron microscopy have not only delivered cr

83 nd capsid-associated tegument complexes from cryogenic electron microscopy images of just 2,048 EBV v

84 advances in the use of environmental TEM and cryogenic electron microscopy in probing clean-energy ma

85 truction approaches originally developed for cryogenic electron microscopy of single particles.

86 followed a hybrid approach by performing new cryogenic electron microscopy reconstruction of myosin-S

87 ctural basis of neutralization, we generated cryogenic electron microscopy reconstructions of Fab:CHI

88 Here, we report the cryogenic electron microscopy structure of NHE isoform 9

89 Here we report the cryogenic electron microscopy structure of the neutral a

90 pace inside the coiled coil according to the cryogenic electron microscopy structure of TRPM8.

91 Patched1 "switch helix," as revealed by our cryogenic electron microscopy structure.

92 Here we determine cryogenic electron microscopy structures of ferroportin

93 the structure of human RFC bound to PCNA by cryogenic electron microscopy to an overall resolution o

94 sults demonstrate the power of time-resolved cryogenic electron microscopy to determine how a time-or

95 Here we use time-resolved cryogenic electron microscopy to reveal 33 ribosomal sta

96 Here, using time-resolved cryogenic electron microscopy(9), we report the near-ato

97 ermediates and is supported by turbidimetry, cryogenic electron microscopy, and solid-state NMR measu

98 We use direct cilia electrophysiology, cryogenic electron microscopy, and superresolution imagi

99 High-resolution cryogenic electron microscopy, combined with scanning el

100 The structure of PfCRT, solved by cryogenic electron microscopy, shows mutations surroundi

101 Using cryogenic electron microscopy, we analyzed the non-AAA s

102 small angle X-ray and neutron scattering and cryogenic electron microscopy-we report unambiguous evid

103 nant expression of the capsid protein, using cryogenic electron microscopy.

104 e structure of an intact GluA2/3 receptor by cryogenic electron microscopy.

105 lectrophoresis, atomic force microscopy, and cryogenic electron microscopy.

106 Superresolution fluorescence microscopy and cryogenic electron tomography (CET) are powerful imaging

107 Transmission electron microscopy (TEM) and cryogenic electron tomography (cryo-ET) results indicate

108 Cryogenic electron tomography provides complementary nan

109 Cryogenic Electron-Microscopy offers the unique potentia

110 amics simulations based on a recently solved cryogenic-electron microscopy structure of an active alp

111 We report here a 2.8 angstrom cryogenic-electron microscopy structure of native gB rec

112 nal spin-torque devices are well suited to a cryogenic environment, while at room temperature they ha

113 erroelectric crystals using a combination of cryogenic experiments and phase-field simulations.

114 nitrogen (SN2) cooling system as a valuable cryogenic feature, which is targeted for easy usability

115 Here, we demonstrate that cryogenic FIB milling can effectively prevent undesired

116 ample fixations (e.g., chemical fixation and cryogenic fixation methods) are necessary to adapt biolo

117 However, cryogenic fluorescence localization methods are, in thei

118 nsional soft X-ray tomography, combined with cryogenic fluorescence, confocal and electron microscopy

119 enhance superresolution precision is to use cryogenic fluorescent imaging, reported to reduce fluore

120 cilitates thermo-electric coolers instead of cryogenics for trapping and resistive on-column heating

121 ter-soluble nanoparticles that are robust to cryogenic freezing and processing into the solid-state.

122 uous enclosed duct system, which may include cryogenic fuel-filling, and shell curing, to produce rea

123 experimental results deploying a continuous cryogenic hydrogen jet as a debris-free, renewable laser

124 by recording iSC activity during reversible cryogenic inactivation of the FEF in four male nonhuman

125 As recently demonstrated, cryogenic infrared (IR) spectroscopy is a promising tech

126 Applying cryogenic infrared and electron paramagnetic resonance s

127 Here, we employ cryogenic infrared spectroscopy on mass-selected ions to

128 Cryogenic infrared spectroscopy provides an additional d

129 The findings demonstrate the potential of cryogenic infrared spectroscopy to extend the mass spect

130 es for lossless ion manipulation (SLIM) with cryogenic infrared spectroscopy.

131 mass spectrometry and was directly probed by cryogenic ion IR predissociation spectroscopy.

132 re consistent with the results obtained from cryogenic ion mobility-mass spectrometry (cryo-IM-MS) me

133 little as 0.2% before injecting them into a cryogenic ion trap for IR spectral analysis.

134 A cryogenic ion trap vibrational spectrometer is combined

135 We show that the cryogenic IR spectra of the cleaved glycans are highly s

136 that combines ultrahigh-resolution IMS with cryogenic IR spectroscopy for glycan analysis.

137 tion of ion mobility spectrometry (IMS) with cryogenic IR spectroscopy has demonstrated promise as a

138 to isolate individual components, measure a cryogenic IR spectrum, and identify them using a spectro

139 is work, we combine enzymatic digestion with cryogenic IR-spectroscopy and demonstrate how it can be

140 frequency oscillator is similar to that of a cryogenic JJ oscillator, with the energy of the easy-pla

141 ure triggered expansion of bulk h-BN and the cryogenic L-N2 gasification to exfoliate the h-BN.

142 Cryogenic land surface processes (LSPs) control landscap

143 conditions and related atmospheric feedbacks.Cryogenic land surface processes characterise the perigl

144 results offer the possibility of developing cryogenic linear actuation technologies with a high prec

145 an electron beam ion trap and retrapped in a cryogenic linear radiofrequency trap by means of sympath

146 n response even at the micrometer scale, and cryogenic linear shape memory effects near 50 K.

147 Compound 2 is only stable at cryogenic (liquid N2) temperatures, and frozen solutions

148 rotomers was confirmed using high resolution cryogenic localization microscopy, with ca. 9 nm between

149 r cells are currently the most sensitive non-cryogenic magnetic field sensors.

150 The application of conventional cryogenic magnetoencephalography (MEG) to the study of c

151 gas phase and subsequently characterized in cryogenic matrices (Ar and N2 ).

152 which was characterized spectroscopically in cryogenic matrices.

153 e heavier atom involved in a QMT reaction in cryogenic matrices.

154 werful approach is to use a combination of a cryogenic matrix environment and a tunable narrowband ra

155 on of UV/vis, IR, and ESR spectroscopy under cryogenic matrix isolation conditions to investigate the

156 yet any terminal thorium nitrides outside of cryogenic matrix isolation conditions.

157 ceeded only by An-An pairings prepared under cryogenic matrix isolation conditions.

158 bonding interactions, hitherto restricted to cryogenic matrix isolation experiments, and the AnAs(H)A

159 optical modes, by coupling them to the same, cryogenic mechanical system.

160 demonstration is a first step towards a full cryogenic memory architecture targeting energy and perfo

161 Here we demonstrate an array of cryogenic memory cells consisting of a non-volatile thre

162 We combine ion mobility spectrometry with cryogenic, messenger-tagging, infrared spectroscopy and

163 ns using various transition-metal catalysts, cryogenic metalation strategies, and metal-free methods.

164 improving maps from single-particle electron cryogenic microscopy (cryo-EM) is presented.

165 Cryogenic microscopy methods have gained increasing popu

166 t, and sectioned (40-100 mum length) using a cryogenic microtome.

167 A new liquid nitrogen-based single-stage cryogenic modulator was developed and characterized.

168 Here we describe a low-power cryogenic near-field scanning microwave microscope (NSMM

169 n a minimal stray field and requires neither cryogenics nor external power.

170 decoherence and the current requirement for cryogenic operation(4), as well as the limited many-body

171 of energy between two vibrational modes of a cryogenic optomechanical device using topological operat

172 ysics studies of excised neurons probed with cryogenic or bulky detectors that do not provide single-

173 Here, we describe an approach to cryogenic photoactivated localization microscopy (cPALM)

174 ite at 12 K using a novel approach involving cryogenic photoinduced electron transfer from the [4Fe-4

175 However, cryogenic photoinduced S-C bond cleavage has regioselect

176 Although E(4)(H(2),2H) has not been trapped, cryogenic photolysis of E(4)(4H) provides a means to add

177 at natural abundance in groundwater, using a cryogenic probe, demonstrates the viability of NMR spect

178 radiation damage can be partly mitigated by cryogenic protection, it is still present in these condi

179 Moreover, DMSO works as a cryogenic protector avoiding solidification at the tempe

180 ic radicals are added to the sample, require cryogenic sample cooling and are not selective for the i

181 y using an OrbiSIMS instrument equipped with cryogenic sample handling and a high-pressure freezing p

182 hycene molecule on a Ag(110) surface using a cryogenic scanning tunneling microscope (STM).

183 ner vesicle compartments were analyzed using cryogenic-scanning electron microscopy (cryo-SEM), confo

184 have different transcriptomic states, while cryogenic-scanning-electron-microscopy and micro-X-ray d

185 functions is highly limited because typical cryogenic sensor arrays are far away from the cerebellum

186 ction appears as a viable alternative to the cryogenic separation process, the primary purification m

187 e is not restricted to ultra-high vacuum and cryogenic settings.

188 e describe an imaging scheme that correlates cryogenic single-molecule fluorescence localizations wit

189 Cryogenic single-particle photoluminescence (PL) spectro

190 ful implementation and characterization of a cryogenic solid hydrogen target in experiments on high-p

191 ich is unexpectedly similar to that found in cryogenic, spectroscopically observed phosphinidene spec

192 e developed a platform for three-dimensional cryogenic SR and focused ion beam-milled block-face EM a

193 isothermal vitrification methodology for non-cryogenic stabilization and storage of liquid biospecime

194 xenon-plasma FIB microscope equipped with a cryogenic stage reaching -135 degrees C.

195 For example, cryogenic storage imposes very harsh chemical, physical,

196 strains by propagation on agar media and by cryogenic storage, (2) identify mutagenic insertion site

197 safe, efficient, and low-cost alternative to cryogenic storage.

198 Here, we introduce cryogenic super-resolution optical fluctuation imaging (

199 g logic, this obstacle is exacerbated by the cryogenic system requirements that expose the technology

200 Comparable discrimination for traditional cryogenic systems require more channels by these same me

201 In this work, we used cryogenic TEM to image U60 and secondary and tertiary as

202 used transmission electron microscopy (TEM), cryogenic TEM, and (55)Fe as an isotope tracer to observ

203 nts, is minimized by operating the device at cryogenic temperature (500 mK).

204 based bulk metallic glass (BMG) composite at cryogenic temperature (77 K).

205 itored by periodically cooling the sample to cryogenic temperature for EPR analysis.

206 ueous layer are rapidly frozen and imaged at cryogenic temperature in the transmission electron micro

207 cent 1.95 A resolution structure of PS II at cryogenic temperature using an XFEL provided a damage-fr

208 ing a pure hydrogen moderator, maintained at cryogenic temperature, a cold neutron ([Formula: see tex

209 al synchrotron rotation crystallography at a cryogenic temperature, and at 1.8 angstrom by LCP-serial

210 The reaction rate is independent of the cryogenic temperature, in contradiction to the rules inf

211 The cryogenic-temperature scanning electron microscopy (cryo

212 anical decoherence rates already at moderate cryogenic temperatures (10 K).

213 s photolyzed from the heme iron by X-rays at cryogenic temperatures (100 K).

214 ein, a high figure of merit, ZT, near 0.6 at cryogenic temperatures (100-150 K) has been achieved in

215 square centimeters remain unchanged down to cryogenic temperatures and allow some of the lowest p-ty

216 r spinning-disk confocal light microscopy at cryogenic temperatures and describe the incorporation of

217 ure dependence of the dielectric constant at cryogenic temperatures and showed that the cage shields

218 the dimerized quantum magnet SrCu2(BO3)2 at cryogenic temperatures and through a quantum-phase trans

219 imental realization to date has been at deep cryogenic temperatures and under strong magnetic fields.

220 inductively coupled plasma (ICP) etching at cryogenic temperatures and we find it to be suitable for

221 Cryogenic temperatures are usually required to observe t

222 ing effect in individual carbon nanotubes at cryogenic temperatures as previously observed in quantum

223 yphenyl)carbene is the first carbene that at cryogenic temperatures can be isolated in both its lowes

224 nd indicating that bond shifting is rapid at cryogenic temperatures despite a 10 kcal/mol barrier.

225 um thin films through thermal evaporation at cryogenic temperatures for fabrication of high-performan

226 atalysts could be active for CO oxidation at cryogenic temperatures has ignited much excitement in na

227 nd s-cis,s-trans (1ct) product conformers at cryogenic temperatures in a N(2) matrix, and subsequent

228 ters detecting plasmonically induced heat at cryogenic temperatures in a unique interplay of excitons

229 odynamically stable isotopomer rearranges at cryogenic temperatures in the dark to the more stable on

230 lectron lasers, and quantum cascades require cryogenic temperatures or/and complex setups, preventing

231 faces, in contrast to bulk materials, at non-cryogenic temperatures represents a formidable challenge

232 ing that occur due to sample freezing at the cryogenic temperatures required for DNP.

233 re-toughness values above 200 MPa m(1/2); at cryogenic temperatures strength, ductility and toughness

234 ization, nuclear spins are hyperpolarized at cryogenic temperatures using radicals and microwave irra

235 oporphyrin derivatives were characterized at cryogenic temperatures via ESI-MS and UV-vis, (2)H NMR,

236 ump, we demonstrate coherent interactions at cryogenic temperatures via the observation of efficient

237 he expansion of NV-based magnetic imaging to cryogenic temperatures will enable future studies of pre

238 perconducting and optomechanical elements at cryogenic temperatures with sufficiently strong interact

239 mperature, picocavities can be stabilized at cryogenic temperatures, allowing single atomic cavities

240 harge conversion remains stable for hours at cryogenic temperatures, allowing spatial and persistent

241 solid-state refrigerator capable of reaching cryogenic temperatures, and now the first solid-state co

242 the proposed technologies operate at room or cryogenic temperatures, due to their dependence on mater

243 lated phenomena to date have often relied on cryogenic temperatures, high excitation densities and we

244 re as a nanoscale scanning magnetic probe at cryogenic temperatures, however, where many solid-state

245 ar number of cycles in crystalline solids at cryogenic temperatures, it has not been possible to achi

246 ate Cope rearrangement of semibullvalenes at cryogenic temperatures, monodeuterated 1,5-dimethylsemib

247 encies presents a challenge because, even at cryogenic temperatures, thermal fluctuations are appreci

248 However, at cryogenic temperatures, where the reverse intersystem cr

249 harp emission features have been observed at cryogenic temperatures, which act as single photon sourc

250 derived from conventional crystallography at cryogenic temperatures, which we also report here.

251 to anomalous transport properties well above cryogenic temperatures.

252 reactive premade organometallic reagents at cryogenic temperatures.

253 cellent mechanical properties at ambient and cryogenic temperatures.

254 under EPR distance measurement conditions at cryogenic temperatures.

255 aterials, and polaritonic systems at room or cryogenic temperatures.

256 oom temperature, but about 5 times faster at cryogenic temperatures.

257 cur in the inverted region, at both room and cryogenic temperatures.

258 emporal orders of magnitude both at room and cryogenic temperatures.

259 harge carriers, typically pronounced only at cryogenic temperatures.

260 ruling out the option of storing methane at cryogenic temperatures.

261 catalyst shows activity for CO oxidation at cryogenic temperatures.

262 react with the CO adsorbed on TiO2 sites at cryogenic temperatures.

263 ially their effect on phonon transport above cryogenic temperatures.

264 bolometers, which however need to operate at cryogenic temperatures.

265 aintaining outstanding fracture toughness at cryogenic temperatures.

266 r (Q > 10(5)) mechanical systems operated at cryogenic temperatures.

267 ost if not all TFETs are operational only at cryogenic temperatures.

268 on of the mechanical losses both at room and cryogenic temperatures.

269 nce in their light emitting diodes (LEDs) at cryogenic temperatures.

270 iton and other exciton complexes obtained at cryogenic temperatures.

271 perties of CsPbBr(3) crystals when cooled to cryogenic temperatures.

272 ic non-linear systems in lattices, demanding cryogenic temperatures.

273 The novel cryogenic tensile plasticity is related to the effective

274 Here we explore the effects of cryogenic thermal cycling on glasses, specifically metal

275 pex of a sharp pipette: it provides scanning cryogenic thermal sensing that is four orders of magnitu

276 istically significant experimental data from cryogenic to high temperatures, we show that the average

277 immobilized it in the microstructure with a cryogenic transfer protocol before atom probe tomography

278 ray scattering (SAXS/WAXS), atomic force and cryogenic transmission electron microscopies (AFM and cr

279 ng amyloid morphological polymorphism, using cryogenic transmission electron microscopy (cryo-EM).

280 an apparatus that allows the correlation of cryogenic transmission electron microscopy (cryo-TEM) an

281 Cryogenic transmission electron microscopy (cryo-TEM) re

282 Detailed cryogenic transmission electron microscopy (cryo-TEM) st

283 rature-controlled flow tube, and imaged with cryogenic transmission electron microscopy (cryo-TEM).

284 eneral morphological features of the VLPs by cryogenic transmission electron microscopy (cryo-TEM).

285 By using fluorescence microscopy, cryogenic transmission electron microscopy and super-res

286 Here, utilizing in-situ cryogenic transmission electron microscopy combined with

287 Moreover, cryogenic transmission electron microscopy images sugges

288 c in nature including even the most advanced cryogenic transmission electron microscopy techniques.

289 1), X-ray photoelectron spectroscopy(12) and cryogenic transmission electron microscopy(13,14) can di

290 ombination of sequence-controlled synthesis, cryogenic transmission electron microscopy, and molecula

291 rmed spontaneously and were characterized by cryogenic transmission electron microscopy, nanoparticle

292 ts in nanosheets were directly visualized by cryogenic transmission electron microscopy, revealing at

293 orimetry (ITC), dynamic light scattering and cryogenic transmission electron microscopy.

294 ing was confirmed by additional imaging with cryogenic transmission electron microscopy.

295 at the precisely controllable junction of a cryogenic ultrahigh-vacuum scanning tunnelling microscop

296 For volatile DBPs, cryogenic vacuum distillation performed unsatisfactorily

297 volved in remote participation reactions via cryogenic vibrational spectroscopy and first principles

298 We report a cryogenic workflow for OrbiSIMS (Cryo-OrbiSIMS) that imp

299 Single-crystal cryogenic X-ray diffraction at 6 K, electron paramagneti

300 Five cryogenic X-ray structures were solved of the monomeric