Organizational, maintenance, repair parts, and special tools list for satellite communication terminals AN/MSC-64(V)1 (NSN 5895-01-112-5836), AN/MSC-64(V)2 (NSN 5895-01-088-2679), and AN/MSC-64(V)3 (NSN 5895-01-112-5838).

Includes index.

Operator's and organizational maintenance manual, aviation unit maintenance : countermeasures sets AN/ALQ-147A(V)1 and (V)2 : ((V)1-NSN-5865-01-077-6320) ((V)2-NSN-5865-01-077-6321).

"29 January 1980."

Operator and organizational maintenance manual including repair parts and special tool lists : test sets, telegraph, AN/GGM-15(V)1 (NSN 6625-00-464-1702), AN/GGM-15(V)2 (NSN 6625-00-442-6131).

Includes index.

Operators and organizational maintenance manual : test facility kit AN/GRM-95(V)2, (NSN 6625-01-104-8926).

Includes index.

Organizational maintenance repair parts and special tools lists for test sets AN/GGM-15(V)1 (NSN 6625-00-464-1702), AN/GGM-15(V)2 (NSN 6625-00-442-6131), and generator, signal ... analyzer, signal distortion ... oscilloscope ... dolly, test equipment V-434/GGM-15(V) (NSN 6625-00-435-7775).

Includes index.

General support maintenance repair parts and special tools list for test station, electronic equipment AN/USM-410(V)2 (NSN 6625-01-069-4223).

"18 October 1985."

Operator's and organizational maintenance manual : data processing set, AN/UYK-64(V)1 (NSN 7035-01-155-0153), AN/UYK-64(V)1x (NSN 7035-01-155-0154), AN/UYK-64(V)2 (NSN 7035-01-166-7855), AN/UYK-64(V)2x (NSN 7035-01-155-0155), AN/UYK-64(V)3 (NSN 7035-01-155-0156), AN/UYK-64(V)3x (NSN 7035-01-155-0157) ...

Includes index.

Transportability guidance : ROLAND missile system, guided missile, intercept-aerial (less carrier), ROLAND fire units, (NSN 1425-01-146-9213 W/O NBC and NSN 1425-01-144-9802 W/NBC, AN/GSG-11(XO-1)(V)(2)), carrier, air defense (w/module loader mechanism) missile system, XM1058 truck transporter, (NSN 1450-01-134-9359, XM1058 (Lin C10788)), shop equipment ...

"16 September 1985."

Hand receipt covering contents of Components of End Item (COEI), Basic Issue Items (BII), and Additional Authorization List (AAL) for receiving set, radio, AN/TRQ-32(V), including AN/TRQ-32(V)1 NSN 5895-01-167-7655, AN/TRQ-32(V)2 NSN 5895-01-167-7655.

"November 1989."

Organizational maintenance repair parts and special tools list for navigational sets, TACAN, AN/ARN-103(V)1 (FSN 5826-00-167-1027) and AR/ARN-103(V)2 (NSN 5826-00-167-1026).

"11 August 1980."

Wills and inventories illustrative of the history, manners, language, statistics, etc. of the northern counties of England from the eleventh century downwards. [v. 2-4, Wills and inventories from the registry at Durham].

Mode of access: Internet.

Overexpressed Ca-v beta 3 inhibits N-type (Ca(v)2.2) calcium channel currents through a hyperpolarizing shift of "ultra-slow" and "closed-state" inactivation

It has been shown that P auxiliary subunits increase current amplitude in voltage-dependent calcium channels. In this study, however, we found a hovel inhibitory effect of beta3 Subunit on macroscopic Ba2+ currents through recombinant N- and R-type calcium channels expressed in Xenopus oocytes. Overexpressed beta3 (12.5 ng/ cell cRNA) significantly suppressed N- and R-type, but not L-type, calcium channel currents at physiological holding potentials (HPs) of -60 and -80 mV At a HP of -80 mV, coinjection of various concentrations (0-12.5 ng) of the beta3 with Ca,.2.2alpha(1) and alpha(2)delta enhanced the maximum conductance of expressed channels at lower beta3 concentrations but at higher concentrations (>2.5 ng/cell) caused a marked inhibition. The beta3-induced Current suppression was reversed at a HP of - 120 mV, suggesting that the inhibition was voltage dependent. A high concentration of Ba-2divided by (40 mM) as a charge carrier also largely diminished the effect of P3 at -80 mV Therefore, experimental conditions (HP, divalent cation concentration, and P3 subunit concentration) approaching normal physiological conditions were critical to elucidate the full extent of this novel P3 effect. Steady-state inactivation curves revealed that N-type channels exhibited closed-state inactivation without P3, and that P3 caused an similar to40 mV negative shift of the inactivation, producing a second component with an inactivation midpoint of approximately -85 mV The inactivation of N-type channels in the presence of a high concentration (12.5 ng/cell) of P3 developed slowly and the time-dependent inactivation curve was best fit by the sum of two exponential functions with time constants of 14 s and 8.8 min at -80 mV Similar ultra-slow inactivation was observed for N-type channels Without P3. Thus, P3 can have a profound negative regulatory effect on N-type (and also R-type) calcium channels by Causing a hyperpolarizing shift of the inactivation without affecting ultra-slow and closed-state inactivation properties.

V(2)O(5)-Anchored Carbon Nanotubes for Enhanced Electrochemical Energy Storage

Functionalized multiwalled carbon nanotubes (CNTs) are coated with a 4-5 nm thin layer of V(2)O(5) by controlled hydrolysis of vanadium alkoxide. The resulting V(2)O(5)/CNT composite has been investigated for electrochemical activity with lithium ion, and the capacity value shows both faradaic and capacitive (nonfaradaic) contributions. At high rate (1 C), the capacitive behavior dominates the intercalation as 2/3 of the overall capacity value out of 2700 C/g is capacitive, while the remaining is due to Li-ion intercalation. These numbers are in agreement with the Trasatti plots and are corroborated by X-ray photoelectron spectroscopy (XPS) studies on the V(2)O(5)/CNTs electrode, which show 85% of vanadium in the +4 oxidation state after the discharge at 1 C rate. The cumulative high-capacity value is attributed to the unique property of the nano V(2)O(5)/CNTs composite, which provides a short diffusion path for Lit-ions and an easy access to vanadium redox centers besides the high conductivity of CNTs. The composite architecture exhibits both high power density and high energy density, stressing the benefits of using carbon substrates to design high performance supercapacitor electrodes.

Template-free coordination-driven self-assembly of discrete hexanuclear prismatic cages employing half-sandwich octahedral Ru-2(II) acceptors and triimidazole donors

Coordination-driven self-assembly of dinuclear half-sandwich p-cymene ruthenium(II) complexes Ru-2(mu-eta(4)-C2O4)(CH3OH)(2)(eta(6)-p-cymene)(2)](O3SCF3)(2) (1a) and Ru-2(mu-eta(4)-C6H2O4)(CH3OH)(2)(eta(6)-p-cymene)(2)](O3SCF3)(2) (1b) separately with imidazole-based tritopic donors (L-1-L-2) in methanol yielded a series of hexanuclear 3+2] trigonal prismatic cages (2-5), respectively L-1 = 1,3,5-tris(imidazole-1-yl) benzene; L-2 = 4,4',4 `'-tris(imidazole-1-yl) triphenylamine]. All the self-assembled cages 2-5 were characterized by various spectroscopic techniques (multinuclear NMR, Infra-red and ESI-MS) and their sizes, shapes were obtained through geometry optimization using molecular mechanics universal force field (MMUFF) computation. Despite the possibility due to the free rotation of donor sites of imidazole ligands, of two different atropoisomeric prismatic cages (C-3h or C-s) and polymeric product, the self-selection of single (C(3)h) conformational isomeric cages as the only product is a noteworthy observation. (C) 2015 Elsevier B.V. All rights reserved.