1.34 “GCP” means the Good Clinical Practices officially published by EMA, FDA and the International Conference on Harmonisation of Technical Requirements for Registration of Pharmaceuticals for Human Use (ICH) that may be in effect from time to time and are applicable to the testing of the Compounds.
1.35 “Government Official” means: (a) any officer or employee of a government or any department, agency or instrument of a government; (b) any Person acting in an official capacity for or on behalf of a government or any department, agency, or instrument of a government; (c) any officer or employee of a company or business owned in whole or part by a government; (d) any officer or employee of a public international organization such as the World Bank or United Nations; (e) any officer or employee of a political party or any Person acting in an official capacity on behalf of a political party; and/or (f) any candidate for political office; who, when such Government Official is acting in an official capacity, or in an official decision-making role, has responsibility for performing regulatory inspections, government authorizations or licenses, or otherwise has the capacity to make decisions with the potential to affect the business of either of the Parties.
1.37 “IND” means any Investigational New Drug Application filed or to be filed with the FDA as described in Title 21 of the U.S. Code of Federal Regulations, Part 312, and/or the equivalent application in the jurisdictions outside the United States, including an “Investigational Medicinal Product Dossier” filed or to be filed with Regulatory Authorities in the European Union.
1.39 “Inventions” means all inventions and discoveries, whether or not patentable, that are made, conceived, or first actually reduced to practice by or on behalf of a Party, or by or on behalf of the Parties together, (i) in the design or performance of the Study, or in the design or performance of any Phase III registration study for the Combination performed pursuant to Section 3.14, or (ii) through use of any unpublished Clinical Data or Sample Testing Results.
1.44 “Know-How” means any proprietary invention, innovation, improvement, development, discovery, computer program, device, trade secret, method, know-how, process, technique or the like, including manufacturing, use, process, structural, operational and other data and information, whether or not written or otherwise fixed in any form or medium, regardless of the media on which contained and whether or not patentable or copyrightable, that is not generally known or otherwise in the public domain.
HOLLYWOOD, Fla., Aug. 31, 2017 (GLOBE NEWSWIRE) -- NV5 Global, Inc. (the “Company” or “NV5”) (Nasdaq:NVEE), a provider of professional and technical engineering and consulting solutions, announced today that it was selected to perform geotechnical engineering and foundation design services for Amazon’s 2.5 million square foot warehouse near Miami, Florida, which will employ more than 1,000 people and is expected to open in 2018.
Eric Stern, PE, Vice President and NV5 Project Manager, said, “The Opa-Locka warehouse is Amazon’s largest site in Miami. Our team is providing the client a full range of services, including geotechnical engineering and design services, construction materials testing services, and building, mechanical, electrical, and plumbing inspection services.”
Dickerson Wright, PE, Chairman and CEO of NV5, said, “We are seeing more high-tech companies like Amazon expand their presence along the Eastern seaboard, where we are a dominant presence in the infrastructure, construction quality assurance, and MEP engineering spaces. This expansion represents a reoccurring revenue stream for us.”
NV5 Global, Inc. (NASDAQ:NVEE) is a provider of professional and technical engineering and consulting solutions to public and private sector clients in the infrastructure, energy, construction, real estate and environmental markets. NV5 primarily focuses on five business verticals: construction quality assurance, infrastructure, engineering and support services, energy, program management, and environmental solutions. The Company operates out of more than 100 locations nationwide and abroad in Macau, Shanghai, Hong Kong, and Vietnam. For additional information, please visit the Company’s website at www.NV5.com. Also visit the Company on Twitter, LinkedIn, Facebook, and Vimeo.
Combining iron (Fe) and tungsten (W) as a bimetallic catalyst, we synthesized high-yield single-wall carbon nanotubes (SWCNTs) of narrow diameter distribution by a hydrogen-argon arc discharge method. Raman spectra indicate that the diameters of SWCNTs prepared using the Fe-W catalysts are about 0.5 nm smaller than those using Fe catalyst alone. The transmission electron microscopy and X-ray diffraction studies show that the SWCNTs prepared by the bimetallic catalyst coexist with few graphite fl ...More
Combining iron (Fe) and tungsten (W) as a bimetallic catalyst, we synthesized high-yield single-wall carbon nanotubes (SWCNTs) of narrow diameter distribution by a hydrogen-argon arc discharge method. Raman spectra indicate that the diameters of SWCNTs prepared using the Fe-W catalysts are about 0.5 nm smaller than those using Fe catalyst alone. The transmission electron microscopy and X-ray diffraction studies show that the SWCNTs prepared by the bimetallic catalyst coexist with few graphite flakes and other amorphous carbon. At the W content of 2-4 at%, tungsten cannot be found in the SWCNT samples. Thus by using a simple two-step purification process, high-purity SWCNT samples can be obtained. We have demonstrated the growth mechanism for the high melting metal (such as W, Mo)-Fe catalyst synthesis of SWCNTs by the arc discharge method. ? 2013 Elsevier B.V. ...Hide
The resolution of conventional optical microscopy is only similar to 200 nm, which is becoming less and less sufficient for a variety of applications. In order to surpass the diffraction limited resolution, super-resolution microscopy (SRM) has been developed to achieve a high resolution of one to tens of nanometers. The techniques involved in SRM can be assigned into two broad categories, namely "true" super-resolution techniques and "functional" super-resolution techniques. In "functional" sup ...More
The resolution of conventional optical microscopy is only similar to 200 nm, which is becoming less and less sufficient for a variety of applications. In order to surpass the diffraction limited resolution, super-resolution microscopy (SRM) has been developed to achieve a high resolution of one to tens of nanometers. The techniques involved in SRM can be assigned into two broad categories, namely "true" super-resolution techniques and "functional" super-resolution techniques. In "functional" super-resolution techniques, stochastic super-resolution microscopy (SSRM) is widely used due to its low expense, simple operation, and high resolution. The principle process in SSRM is to accumulate the coordinates of many diffraction-limited emitters (e.g., single fluorescent molecules) on the object by localizing the centroids of the point spread functions (PSF), and then reconstruct the image of the object using these coordinates. When the diffraction-limited emitters take part in a catalytic reaction, the activity distribution and kinetic information about the catalysis by nanoparticles can be obtained by SSRM. SSRM has been applied and exhibited outstanding advantages in several fields of catalysis, such as metal nanoparticle catalysis, molecular sieve catalysis, and photocatalysis. Since SSRM is able to resolve the catalytic activity within one nanoparticle, it promises to accelerate the development and discovery of new and better catalysts. This review will present a brief introduction to SRM, and a detailed description of SSRM and its applications in nano-catalysis. ...Hide