Sample output

Note that the response in Figure 7.15 is constructed solely from the knowledge of the two previous sampled outputs and the two previous sampled inputs. 

The disk contains over 120 models in files that may contain source and executable code, sample input lilcs, other data files, sample output files, and in many cases, model documentation in WordPerfect, ASCII text or other formats. The disk contains IMES with information on >clecting tin appropriate model, literature citations on validation of models in actual applications, and a demonstration of a model uncertainty protocol. 

The following is a program, complete except for output, for solving Example 13.10. Sample output is given at the end and in Figure 13.9. 

To achieve these goals, the analysis scheme which involved sample preparation, irradiation, sample counting, and data reduction was optimized to achieve maximum sample output with minimum manpower expended. 

Symbols with bar represent the Laplace transform of the variable (e.g. is the Laplace transform of 0). Starred symbols represent a sampled output (e.g. f (t) is the sampled data equivalent of the continuous signal f(0). 

It is weliknown that all static polarizations of a beam of radiation, as well as all static rotations of the axis of that beam, can be represented on a Poincare sphere [25] (Fig. la). A vector can be centered in the middle of the sphere and pointed to the underside of the surface of the sphere at a location on the surface that represents the instantaneous polarization and rotation angle of a beam. Causing that vector to trace a trajectory over time on the surface of the sphere represents a polarization modulated (and rotation modulated) beam (Fig. lb). If, then, the beam is sampled by a device at a rate that is less than the rate of modulation, the sampled output from the device will be a condensation of two components of the wave, which are continuously changing with respect to each other, into one snapshot of the wave, at one location on the surface of the sphere and one instantaneous polarization and axis rotation. Thus, from the viewpoint of a device sampling at a rate less than the modulation rate, a two-to-one mapping (over time) has occurred, which is the signature of an SU(2) field. 

Volumetric flow rate was adjusted working with three different flow rates 0.47,0.9, and 3.6 mL/min. Figure 6 shows the profiles obtained for the lower (0.47 mL/min, Fig. 6A) and the higher (3.6 mL/min, Fig. 6B) flow applied to the integrated biosensor-FIA system. Concerning the 0.5 g of ethanol/L sample, output signal with a short response time was achieved when the system worked with 3.6 mL/min. 

Note also that although the Pearson option has been included, it is not really needed here. CN does not oscillate with the constant current start. A sample output follows, again using A = 3 as for Cottrell above. 

Table 9.14 Sample Output File "INVERT.MX" Produced by FORTRAN Program File "MYMX.DAT" "INVERT" from the Input...

Table 9.17 Sample Output File "MYOUTPUT.DAT" Program "INVERT" from the Input File "MYMX.DAT Produced by C++ n...

Gas-liquid chromatography following reduction of paraquat to the mono- and diunsaturated derivatives (21) is of adequate sensitivity for most work when N-selective detectors are employed. Seiber and Woodrow (22.) modified this method for assaying paraquat in air samples. The method is time consuming and labor intensive, involving acid extraction and many concentration and evaporation steps. The maximum sample output per analyst per day is 6-8 with no duplicates. The reported recovery efficiency was 75% (22). although an efficiency closer to 50% is frequently encountered in practice. A modified acid extraction combined with analysis by the ELISA provides recoveries of 75% (Figure 3). This... 

Force/Displacement-Temperature Experiments. Force as a function of temperature was obtained by placing a sample in a vertical glass oven and gripping both ends, with one end attached to a load cell and the other to an adjustable mount. A slow nitrogen flow was introduced through the bottom and an RTD probe was placed near the middle of the sample. Output from the probe and load cell was recorded on a Bascom-Turner Instrument model 4000. With a sample in place several heating and cooling cycles were performed at various loads. 

Fig. 1 Sample output from a material inventory system.

Fig. 9 A sample output from a quality assurance information system.

Sample output from Program A. Continued on next page. 

---