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System Compatibility

A cutaway view of the combustion and turbine sections of a jet engine. [Pg.266]

Part dimension is just one obvious parameter that can affect system compatibility. If a part shows an altered geometric form, then how well this part can physically fit in the system will immediately cause concern. System compatibility evaluation goes beyond just geometric form and physically fitting in. Engineers are more interested in how well a new part can be integrated into the system to perform the design function. [Pg.266]

Material characteristics such as density, mechanical strength, and environmental degradation resistance all play a role in system compatibility. There are approximately 2 to 3 million fasteners in a large jet aircraft. A slight density variation of the material used for these fasteners can change the total [Pg.266]

Cooling holes on high-pressure turbine vanes. [Pg.267]


Erequendy, the curing equipment available, ie, presses, autoclaves, LCM lines, etc, do not allow the curing conditions to be varied as desired, so the compounder must design a cure system compatible with the existing equipment while also meeting the compound performance requirements. [Pg.234]

Is the production of alternative devices or systems compatible with the capabilities and goals of the producing company ... [Pg.378]

EDS has an important role in the international harmonization of pesticide registrations in facilitating the shared reviews among countries. Since multiple countries will be involved, this presents an expanded aspect to the issue of EDS systems compatibility. [Pg.1081]

Construction of the density operator can also not be achieved without assumption of an additional axiom All quantum states of a system compatible with the knowledge revealed by macroscopic measurement have equal a priori probabilities and random a priori phases. This axiom implies that for a system as defined above all diagonal elements of the density matrix q belonging to the ith cell must be equal. Hence... [Pg.466]

Actual operating conditions can be found in the figure caption. A given limitation of SFC, relative to HPLC, as described is the ability to dissolve samples in a solvent system compatible with the methanol/ carbon dioxide mobile phase. For this particular mobile phase, other compatible sample diluents that worked effectively are pure methanol,... [Pg.575]

PQ System compatibility tests under operational conditions at defined limits. [Pg.304]

The gel media should be hydrated and washed with a buffer system compatible with maintaining the protein target in its native state. To thoroughly remove contaminants present in the gels, multiple washes are necessary. Sephadex beads... [Pg.74]

Many manufacturers now offer other sample injection systems compatible with the vacuum lock used for the solids probe. These include small (e.g., 75-ml) heatable batch inlet systems, usually accessible via syringe (gas syringe or GC microliter syringe for liquids), which can be particularly useful as inlets for mass reference compounds. Other probes are designed as flexible, easily removed connections to a gas chromatograph via some form of interface. [Pg.236]

It is much more popular to use nonaqueous solvents for low-temperature studies. There are two motivations, the more common of which is the desire to make measurements down to the lowest temperature possible using a solvent/ electrolyte system compatible with the chemical properties of the substances to be studied. In other instances, the purpose of the experiments is to study the effect of solvent on a temperature-sensitive parameter (e.g., a heterogeneous electron-transfer rate constant [5]), so a variety of solvents is sought in which low-temperature measurements can be made. [Pg.504]

Fig. 33 SEM micrographs of the foam morphology of the (PPE/PS)/SAN blend systems compat-ibilized with SBM (foaming temperature 180°C, foaming time 10 s)... Fig. 33 SEM micrographs of the foam morphology of the (PPE/PS)/SAN blend systems compat-ibilized with SBM (foaming temperature 180°C, foaming time 10 s)...
In order to use the data for the assessment of respective system, it is necessary to convert them into the indicator. So, the indicator represents the measuring parameter for the comparison between the different states or structure of the system. As example, the efficiency of system is an indicator for the quality of energy use in respective system. Also, we can evaluate different structure of the systems by indicator representing respective entities of the system. In this direction is the assessment of intelligence use in the improvement of the system compatibility with its surrounding is measured by the respective indicators. [Pg.198]

In a recently published work by Bourbigot et al.,63-65 microencapsulation of ammonium phosphate with PU and polyurea shells has been carried out to make an intrinsic intumescent system compatible in normal PU coating for textiles. Microencapsulation of ammonium phosphate helps in reducing the water solubility of the phosphate and hence, increases the durability of the textile back-coating. [Pg.743]

The compatibility, mechanical properties, and segmental orientation characteristics of poly-e-caprolactone (PCL) blended with poly (vinyl chloride) (PVC) and nitrocellulose (NC) are described in this study. In PVC blends, the amorphous components were compatible from 0-100% PCL concentration, while in the NC system compatibility teas achieved in the range 50-100% PCL. Above 50% PCL concentration, PCL crystallinity was present in both blend systems. Differential IR dichroism was used to follow the dynamic strain-induced orientation of the constituent chains in the blends. It was found for amorphous compatible blends that the PCL oriented in essentially the same manner as NC and the isotactic segments of PVC. Syndio-tactic PVC segments showed higher orientation functions, implying a microcrystalline PVC phase. [Pg.507]

Laboratory automation doesn t begin when the first computer is planned or delivered. Limits on your flexibility in lab automation began to appear the day you ordered your first piece of lab equipment. Thinking about lab automation should occur when you purchase instruments. How can they be interfaced Are there data systems for them Are those systems compatible with a range of computer systems or have you (knowingly or not) locked yourself into a particular approach ... [Pg.9]

Benzenoid (chemical) isomers are, in a strict sense, the benzenoid systems compatible with a formula C HS. Several invariants, including the Dias parameter, are treated and relations between them are given. Many of the relations involve upper and lower bounds. The periodic table for benzenoid hydrocarbons is revisited and new aspects of it are pointed out. In this connection some new classes of benzenoids are defined extreme-left, protrusive and circular. Extensive tables of enumeration data for benzenoid isomers are presented. Some of their forms are displayed in figures. [Pg.182]

In the present chapter the studies of benzenoid isomers, or benzenoid systems compatible with a formula C Hj, are reviewed. On one hand the emphasis is laid on precise definitions and relations. Some of the relations, especially for certain upper and lower bounds, have not been published before. On the other hand a comprehensive collection of enumeration data with documentations is presented. [Pg.218]

Benzenoid (chemical) isomers are, in a strict sense, the benzenoid systems compatible with a formula C H, = (n s). The cardinality of C HS, viz. C HS = n, s is the number of isomers pertaining to the particular formula. The generation of benzenoid isomers (aufbau) is treated and some fundamental principles are formulated in this connection. Several propositions are proved for special classes of benzenoids defined in relation to the place of their formulas in the Dias periodic table (for benzenoid hydrocarbons). Constant-isomer series for benzenoids are treated in particular. They are represented by certain C HS formulas for which n s = In Sjl = n2 52 =. .., where (nk sk) pertains to the k times circumscribed C HS isomers. General formulations for the constant-isomer series are reported in two schemes referred to as the Harary-Harborth picture and the Balaban picture. It is demonstrated how the cardinality n s for a constant-isomer series can be split into two parts, and explicit mathematical formulas are given for one of these parts. Computational results are reported for many benzenoid isomers, especially for the constant-isomer series, both collected from literature and original supplements. Most of the new results account for the classifications according to the symmetry groups of the benzenoids and their A values (color excess). [Pg.66]

Integrator. Automatic digital integrator or chromatography data system compatible with the gas chromatograph. [Pg.62]

Used in detergent and fabric softener systems compatible with non-ionics to form clear liquid detergent/softener blends. Typical use levels 5-10%. [Pg.221]

INTEX CARRIER 60 is designed for use in atmosphere, low and high pressure beck dyeing. It has good levelling properties and gives excellent color yields. The unique surfactant system developed for INTEX CARRIER 60 prevents the formation of any "resist" spots on the fabric and makes the carrier system compatible with all dye bath additives. [Pg.412]


See other pages where System Compatibility is mentioned: [Pg.802]    [Pg.78]    [Pg.1081]    [Pg.66]    [Pg.430]    [Pg.217]    [Pg.71]    [Pg.81]    [Pg.202]    [Pg.419]    [Pg.260]    [Pg.357]    [Pg.183]    [Pg.103]    [Pg.224]    [Pg.544]    [Pg.70]    [Pg.604]    [Pg.104]    [Pg.142]    [Pg.264]    [Pg.69]    [Pg.7]    [Pg.110]    [Pg.322]   


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Compatibility with existing computer systems

Ethanol systems, compatibility

Experimental data illustrating effect of compatibility on plasticized systems

Gasoline systems, compatibility

Part Performance and System Compatibility

Poly polystyrene system compatibility

Poly system compatibility studies

Systems functional group compatibility with

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