Not exact matches
Such risks, uncertainties and other factors include, without limitation: (1) the effect
of economic conditions in the industries and markets in which United Technologies and Rockwell Collins operate in the U.S. and globally and any changes therein, including financial market conditions, fluctuations in commodity prices, interest rates and foreign currency exchange rates, levels
of end market demand in construction and in both the commercial and defense segments
of the aerospace industry, levels
of air travel, financial condition
of commercial airlines, the impact
of weather conditions and natural disasters and the financial condition
of our customers and suppliers; (2) challenges in the development, production, delivery, support, performance and realization
of the anticipated benefits
of advanced technologies and new products and services; (3) the scope, nature, impact or timing
of acquisition and divestiture or restructuring activity, including the pending acquisition
of Rockwell Collins, including among other things integration
of acquired businesses into United Technologies» existing businesses and realization
of synergies and opportunities for growth and innovation; (4) future timing and levels
of indebtedness, including indebtedness expected to be incurred by United Technologies in connection with the pending Rockwell Collins acquisition, and capital spending and research and development spending, including in connection with the pending Rockwell Collins acquisition; (5) future availability
of credit and factors that may affect such availability, including credit market conditions and our capital
structure; (6) the timing and scope
of future repurchases
of United Technologies» common stock, which may be suspended at any time due to various factors, including market conditions and the level
of other investing activities and uses
of cash, including in connection with the proposed acquisition
of Rockwell; (7) delays and disruption in delivery
of materials and services from suppliers; (8) company and customer - directed cost reduction efforts and restructuring costs and savings and other consequences thereof; (9) new business and investment opportunities; (10) our ability to realize the intended benefits
of organizational changes; (11) the anticipated benefits
of diversification and balance
of operations across product lines, regions and industries; (12) the outcome
of legal proceedings, investigations and other contingencies; (13) pension plan assumptions and future contributions; (14) the impact
of the negotiation
of collective bargaining agreements and labor disputes; (15) the effect
of changes in political conditions in the U.S. and other countries in which United Technologies and Rockwell Collins operate, including the effect
of changes in U.S. trade policies or the U.K.'s pending withdrawal from the EU, on general market conditions, global trade policies and currency exchange rates in the near term and beyond; (16) the effect
of changes in tax (including U.S. tax reform enacted on December 22, 2017, which is commonly referred to as the Tax Cuts and Jobs Act
of 2017), environmental, regulatory (including among other things import / export) and other laws and regulations in the U.S. and other countries in which United Technologies and Rockwell Collins operate; (17) the ability
of United Technologies and Rockwell Collins to receive the required regulatory approvals (and the risk that such approvals may result in the imposition
of conditions that could adversely affect the combined company or the expected benefits
of the merger) and to satisfy the other conditions to the closing
of the pending acquisition on a timely basis or at all; (18) the occurrence
of events that may give rise to a right
of one or both
of United Technologies or Rockwell Collins to terminate the merger agreement, including in circumstances that might require Rockwell Collins to pay a termination fee
of $ 695 million to United Technologies or $ 50 million
of expense reimbursement; (19) negative effects
of the announcement or the completion
of the merger on the market price
of United Technologies» and / or Rockwell Collins» common stock and / or on their respective financial performance; (20) risks related to Rockwell Collins and United Technologies being restricted in their operation
of their businesses while the merger agreement is in effect; (21) risks relating to the value
of the United Technologies» shares to be issued in connection with the pending Rockwell acquisition, significant merger costs and / or unknown liabilities; (22) risks associated with third party contracts containing consent and / or other provisions that may be triggered by the Rockwell merger agreement; (23) risks associated with merger - related litigation or appraisal proceedings; and (24) the ability
of United Technologies and Rockwell Collins, or the combined company, to retain and hire key personnel.
Making fusion neutrons efficiently, at a small scale, could lead to
advances in neutron - based imaging, and neutron probes to gain insight on the
structure and properties
of materials.
«The research performed at NSLS - II will probe the fundamental
structure of novel
materials and help drive the development
of low - cost, low - carbon energy technologies, spark
advances in environmental science, and spur medical breakthroughs,» Moniz said.
In the current tests
of the two - story, 22 - foot - tall
structure, the researchers are studying the behavior
of full - scale seismic safety systems made from
advanced wood
materials — including rocking walls, which can rock during a temblor and then re-center back by itself, and a mass timber floor designed to withstand strong earthquakes.
An international team led by researchers from the U.S. Department
of Energy's Lawrence Berkeley National Laboratory (Berkeley Lab) used
advanced techniques in electron microscopy to show how the ratio
of materials that make up a lithium - ion battery electrode affects its
structure at the atomic level, and how the surface is very different from the rest
of the
material.
The research team verified that the electronic
structure of the nickelate resembles that
of cuprate
materials by taking X-ray absorption spectroscopy measurements at the
Advanced Photon Source, a DOE Office
of Science User Facility, and by performing density functional theory calculations.
The first step in understanding a
material's crystallographic
structure is bombarding a sample
of the
material with electrons, photons or other subatomic particles, using technology such as the Spallation Neutron Source at ORNL or the
Advanced Photon Source at Argonne National Laboratory.
The extraordinary diversity
of todays
advanced materials is based on better knowledge
of how to attain novel
structures displaying new properties that lead to improved performance
He is the Abraham Harris Professor
of Materials Science and Engineering in McCormick and the founding director
of the NUANCE center, which houses the
advanced patterning, lithography and characterization used in the DNA - programmed
structures.
«We have presented a remarkably simple route to 3D that starts with planar precursor
structures formed in nearly any type
of material, including the most
advanced ones used in photonics and electronics.
In a publication presented in RSC
Advances, researchers from the division
of Nanotechnology and Functional
Materials at Uppsala University in collaboration with researchers from Stockholm University for the first time show that it is possible to tailor the pore
structure of a mesoporous
material, Upsalite ®, without using organic templates or swelling agents, and instead by merely controlling the energy input in the production process.
As reported last week in
Advanced Energy
Materials, they showed the effectiveness
of their catalyst's nanomesh - like
structure by testing it in a zinc - air battery, demonstrating its capability
of being depleted and recharged many times.
«In this instance, the development
of advanced structures to enable leap - ahead Army aviation capabilities not currently feasible due to limitations in mechanical properties
of current
materials,» Glaz said.
Central to the team's
advanced device is the development
of a spatial light modulator constructed from a unique metamaterial
structure by researchers at the University
of New Mexico's Center for High Technology
Materials.
Research problems that are just out
of reach today but that could be made accessible by
advances in electron microscopy include studies
of the little pores that form in our cells walls and which are centrally important in the regulation
of all life processes as well as new nano -
structured materials that are ultra-light yet strong, allowing reduced energy consumption in vehicles.
Utilizes
advanced electron microscopy techniques to study nanoscale
structure and defects that determine the utility
of functional
materials, such as superconductors, multiferroics, and other energy related systems including thermoelectrics, photovoltaics, and batteries.
«The JEOL Center for Nanoscale Solutions will be the most
advanced electron microscopy cluster available for probing the atomic
structure and properties
of materials,» says JEOL USA President Peter Genovese.
A combinatorial approach is employed to evaluate / develop
advanced electrode
materials, ranging from single perovskites to double and triple layered perovskites, and to modify the surface
of existing electrodes with more active nano -
structured catalysts.
In research published today (Jan. 16) in
Advanced Materials, a group
of researchers led by the University
of California Riverside's David Kisailus has identified a unique
structure that wraps around the mantis shrimp's club to protect it from self - inflicted damage as it crushes hard - shelled prey.
«This work makes significant
advances in characterization capabilities and expands our fundamental understanding
of structure - property relationships, which is expected to find broad applications in physics, chemistry,
materials science, nanoscience and nanotechnology,» Miao said.
The LLNL team has built a strong foundation
of coupling spectroscopy experiments with
advanced simulations and has recently extended their work to include electrochemical systems [1] and surface / interface electronic
structure of hydrogen storage
materials.
Over more than five decades, Dresselhaus has made multiple
advances in helping to explain why the properties
of materials structured at the nanoscale can vary so much from those
of the same
materials at larger dimensions.
Understanding the
structure of glasses is more than an intellectual exercise —
materials scientists stand to
advance from the knowledge, which could lead to better control
of the aging
of glasses.
In these studies, hands - on activities were employed in combination with other types
of structured activities to
advance participant learning, such as discussions (Freeman et al., 1994), lectures (Fortner & Boyd, 1995), the use
of «exemplary» instructional
materials (Khourey - Bowers et al., 2005) and research reviews (Even, 1999).
As part
of FCA US's ongoing and continuous efforts to proliferate the most
advanced materials engineering, the Ram 1500 frame and body
structures feature 98 and 54 percent high - strength steel respectively.
Advanced composite
materials in the body
structure and a lightweight aluminum frame, as well as aluminum and magnesium suspension components, support the Corvette's efficiency with a low curb weight
of only 3,298 pounds / 1,499 kg (Stingray coupe).
The
advanced body
structure, which comprises high - tech
materials and new - generation design techniques, maximises strength and minimises weight to give the XF superb performance, refinement and efficiency across its range
of V6 and V8 engines.