Search Results

Project:Sep09
Query:theme containing participant/nonparticipant
Date:Thu Jan 21 11:55:14 2010
Number of hits:992

 

AllText02/Buchla-McLachlan_36.txt
--Information you gather
--Data
--For example,
--the statement "the copper was removed by the chemical reaction with ferric chloride
--the statement
--When
--data
--it
--When
--a quantity
--we
--and
--the information
--because
--more information
--Information about the magnitude or intensity of a physical phenomenon
--the quantity that is being measured
--Instrumentation
--Numerical data
--It
--Values recorded directly from an experiment or observation
--Prior to
--processing
--empirical data
--whereas
--data that has been analyzed
--Data
--Frequently,
--theoretical data
--After
--data
--it
--This procedure
--Data
--or,
--in some cases,
--the measurement instrument
--For example,
--a digital oscilloscope
--As part of the process of data reduction,
--obvious errors or discrepancies
--sometimes
--statistical processing
--After
--the data
--it
--Data analysis
--and
--The data-analysis step
--The combination of these effects
--After
--analysis,
--the data
--Data measured with test equipment
--rather,
--the accuracy of the data
--under which
--the measurement
--we
--Experimental error
--All measurements that do not involve counting
--All measurements
--Error
--A measurement
--if
--the error
--accuracy
--It
--what confidence
--Instrument manufacturers
--but
--the user
--for which
--an accuracy figure
--The number of digits used to describe a measured quantity
--Two other terms associated with the quality of a measurement
--Precision
--The precision of an instrument
--resolution
--Stability
--A precise measurement
--Precision
--It
--However,
--it
--unless
--it
--The resolution of a measurement
--but
--For example,
--a nonlinear meter scale
--Likewise,
--noise
--Temperature changes
--When
--a measurement
--the digits known to be correct
--The number of significant digits in a measurement
--Many measuring instruments
--leaving
--what
--In some cases,
--this
--because
--the instrument
--and
--If
--the instrument
--the instrument
--despite
--the fact that the rightmost digits
--This
--when
--the resolution of the instrument
--as
--the range
--The user
--When
--the least significant uncertain digit
--but
--other uncertain digits
--ignore
--and
--count
--starting with
--All digits counted
--A zero on the right end of a number
--if
--it
--otherwise
--it
--For example.
--43.00
--but
--the whole number 4300
--In the absence of other information,
--the significance of the right-hand zeros
--To
--a number
--For example,
--the number 4.30 x 103
--and
--the number 4.300 x 103
--if
--a reported digit
--Nonzero digits
--Zeros to the left of the first nonzero digit
--Zeros between nonzero digits
--Zeros at the right end of a number
--and the right of the decimal
--Zeros at the right end of a whole number
--Whole numbers
--to
--Since
--measurements
--they
--that
--The number of digits shown
--For this reason,
--you
--The rules for rounding
--If
--the digit dropped
--increase
--If
--the digit dropped
--do not change
--If
--the digit dropped
--increase
--if
--it
--otherwise
--This
--There
--Systematic errors
--These
--Systematic errors
--and
--that
--Sometimes
--a systematic error
--such as
--when
--a voltmeter
--(This
--Another common type of systematic error
--Whenever
--an instrument
--it
--and
--Measurements in high-impedance circuits
--if
--this
--Another possible systematic error
--For example,
--a frequency counter
--to
--If
--this oscillator
--then
--the counter
--giving
--that
--This
--Other systematic errors
--because
--the calibration
--when
--the instrument
--These
--The best way
--using
--If
--the two measurements
--greater confidence
--Random errors
--(also
--These errors
--and
--Random errors
--and
--The best way
--and

AllText02/ID-Coulouris7.txt
--Security measures
--whenever
--they
--This
--In Figure 7.1,
--we
--since
--they
--Today
--the advent of wide-area, open distributed systems
--The need to protect the integrity and privacy of information and other resources belonging to individuals and organizations
--It
--In the physical world,
--organizations
--that
--For example,
--a company
--A security policy for documents
--who
--or
--it
--Security policies
--For example,
--access to a building
--who
--Access to paper documents
--In the electronic world,
--the distinction between security policies and mechanisms
--without it,
--it
--a particular system
--Security policies
--just as
--the provision of a lock on a door
--unless
--there
--whenever
--nobody
--The security mechanisms that we shall describe
--The security mechanisms
--we
--In Section 7.1.2,
--we
--As an initial example,
--consider
--whose interface
--To ensure that access control to files
--there
--that
--all requests
--The provision of mechanisms for the protection of data and other computer- based resources
--for securing networked transactions
--We
--that
--The mechanisms we shall describe
--The mechanisms
--we
--The distinction between security policies and security mechanisms
--but
--it
--that
--a given set of security mechanisms
--In Section 2.3.3,
--we
--that
--We
--- Processes
--Principals
--(users or
--Resources
--- Processes
--Enemies
--(attackers)
--They
--and
--they
--That security model
--In this chapter,
--we

AllText02/ID-RAF-full01.txt
--For many years
--fixed wing aircraft
--Over the years,
--advancements in design
--the introduction of new materials
--Increased flying speeds
--Without some form of additional assistance in retarding the aircraft,
--the wheel brakes
--or
--runways
--To help reduce brake and tyre wear
--to maintain runways at an acceptable length,
--additional retardation methods based on the principle of aerodynamic braking
--Methods of emergency retardation
--where
--normal braking methods
--Wheel brakes
--and,
--in common with most braking systems,
--they
--In this method,
--friction
--which
--Wheel brakes and their associated operating systems
--The term aerodynamic braking
--This increase in drag
--The flying control surfaces
--the airbrakes, flaps or spoilers
--they
--The further into the airflow
--they
--the greater
--the drag
--and,
--just as in flight,
--any increase in drag
--It
--only the airbrake
--for the other controls
--this
--The flying control surfaces
--which
--Thrust reversal
--On propeller driven aircraft,
--thrust reversal
--so that
--the thrust generated by the propeller
--the degree of braking assistance
--Thrust reversal on turbo-jet aircraft
--One method of deflecting the exhaust gas stream
--During flight
--the bucket-type doors
--When
--braking assistance
--the doors
--through which
--the gas
--Brake parachutes
--A typical brake parachute installation
--The parachute assembly
--A ring on the free end of the streamer cable
--The drogue
--which
--The main parachute and streamer cable
--whilst
--the drogue
--The main parachute canopy
--A typical brake parachute housing
--The housing
--which
--Control of the brake parachute
--but
--it
--Cockpit selection for both the release and jettison of the brake parachute
--where
--the parachute
--The cockpit control
--When
--'release' or 'stream'
--the brake parachute
--The drag of the drogue parachute
--as
--the cable
--the main parachute
--On brake parachute installations fitted with a door,
--the door
--when
--the parachute release control
--On those installations where the parachute housing is closed off by a cap,
--On those installations
--where
--the parachute housing
--the cap
--When
--the parachute release control
--the cap
--it
--it
--which
--Once
--the aircraft
--where
--the brake parachute
--it
--On some aircraft types,
--during landing,
--the pilot of the aircraft
--This high angle of attack
--which
--Large aircraft
--This area
--both types
--Small, fast jet aircraft
--The undercarriage of small aircraft
--two factors
--which
--To overcome these problems,
--many small aircraft
--which
--Many airfields from which fast jet aircraft operate
--from which
--fast jet aircraft
--As a last resort
--some aircraft
--The arrestor hook
--who
--The arrestor hook
--The arm
--Control of an arrestor hook system
--In these installations
--the arrestor hook
--The cockpit control
--which
--When
--the cockpit control
--the release unit
--and
--the hook
--The spring jack
--or a torque tube acting at the arm pivot
--it
--The hook
--When
--a hook down selection
--the solenoid of the release unit
--which
--The jaws
--when
--the hook
--All types of arrestor hook installation
--which
--when
--the arrestor hook
--The light
--the hook
--On some aircraft
--there
--which
--when
--the release unit
--On aircraft fitted with mechanically or electrically operated hooks
--the hook
--This
--after
--the cockpit control lever
--so that
--it
--On installations where the arrestor hook has to be raised manually,
--On installations
--where
--the arrestor hook
--it
--the hook
--Bulb filaments
--therefore
--it
--A visual check of the up-lock
--To prevent the accidental release of the arrestor hook,
--a safety device
--or
--as a safety bar
--This safety device
--whilst
--the aircraft
--A secondary safety pin
--A warning pennant
--The RHAG
--There
--both of which
--A typical RHAG installation
--(Fig 6)
--As shown,
--each end of the cable
--which
--The tape
--Each energy- absorbing unit
--Normally,
--the cable
--its arrestor hook
--the pull on the tape
--The resulting oil turbulence created
--An electrically powered retrieve system
--This
--after
--it
--The crash barrier
--Fig 7)
--which
--because of
--some emergency,
--The crash barrier
--The barrier
--The upper cable
--and
--the ends of the extended lower cable
--At each end of the barrier
--a suspension cable
--The suspension cables
--which
--the barrier
--The stanchions
--when
--there
--that
--it
--When
--the barrier
--its lower cable
--and
--its upper cable
--The nylon barrier ropes
--then
--The continuing pull on the barrier
--Rotation of the drums

AllText02/IDBlakMill02.txt
--The main elements of a typical knee-and-column horizontal milling machine
--The elements of a vertical machine
--except that
--the spindle head
--The column and base
--Both
--The base,
--upon which
--the column
--The column
--The spindle
--The gearbox
--In the model shown,
--twelve spindle speeds from 32 to 1400rev/min
--The front of the column
--upon which
--the knee
--The knee,
--Power feed
--providing
--Drive
--whose
--bottom end
--Provision
--The knee
--A lock
--The saddle,
--Power feed
--A range of twelve feeds
--Alternative hand movement
--Clamping of the saddle to the knee
--The saddle
--The table
--A series of tee slots
--The dovetail guides on the undersurface
--Power feed
--Alternative hand feed
--Stops at the front of the table
--The spindle,
--Cutters
--which
--Spindles of milling machines
--The bore of the nose
--the angle of taper
--The diameter of the taper
--Due to
--their steepness of angle,
--these tapers
--Two driving keys
--Cutters
--which
--and
--four tapped holes
--The two keys
--The spindle of a horizontal machine
--On vertical machines,
--provision
--which
--The spindle
--which
--see
--A locking bolt
--The majority of cutters used on horizontal machines
--The majority of cutters
--which
--Due to
--the length of the arbors used
--support
--when
--cutting
--Support
--which
--The overarm
--arbor support
--Two clamping bolts
--The arbor support
--A solid bearing
--in which
--the arbor

AllText02/IDCoulouris31.txt
--The architecture of a system
--The overall goal
--that
--the structure
--Major concerns
--The architectural design of a building
--it
--its general structure
--and architectural style
--(gothic, neo-classical, modern
--In this section,
--we
--We
--An architectural model of a distributed system
--and
--then
--it
--An initial simplification
--- the latter
--that
--This classification of processes
--The results of this analysis
--that
--Some more dynamic systems
--The possibility of moving code from one process to another
--for example,
--clients
--and
--Objects and the code that accesses them
--Objects and the code
--that
--and
--- Some distributed systems
--There
--that
--The actual placement of the processes that make up a distributed system in a network of computers
--The actual placement of the processes
--that
--The architectural models described here

AllText02/IDampnz03.txt
--In almost every area of measurement
--the ultimate limit of detectability of weak signals
--Even if
--the quantity being measured
--the presence of noise
--Some forms of noise
--they
--which
--we
--Other forms of noise
--radiofrequency interference and
--"ground loops")
--Finally,
--there
--and
--it
--Although
--the techniques of signal averaging
--it
--We
--Then
--we
--After
--a short discussion of noise in differential [amplifiers] and feedback amplifiers,
--we
--Since
--the term noise
--noise
--most often,
--however,
--we
--Noise

AllText02/IDbroadnet01.txt
--Chapter 12
--(section 12.3.2)
--broadcast networks
--to which
--all the users
--so
--all the users
--The only wide area broadcast networks
--all
--Section 14.2.1
--The most common examples of broadcast networks
--These
--(see
--Comparison between twisted pair and coaxial cable
--because
--there
--In general,
--coaxial cable
--but
--the cable
--whether
--it
--Both types
--but
--coaxial cable
--Optical fibre
--which
--or
--However,
--it
--which
--LAN protocols
--which
--In addition,
--the LLC layer
--For a particular LLC protocol
--there
--since
--this
--in which
--the differences
--in topology
--The major standards activity for LAN networks
--Their work
--of which
--some

AllText02/Rappaport_255.txt
--Modulation
--It
--called
--The bandpass signal
--and
--the baseband message signal
--Modulation
--Demodulation
--so that
--it
--This chapter
--Analog modulation schemes that are employed in first generation mobile radio systems,
--as well as digital modulation schemes proposed for use in present and future systems,
--Since
--digital modulation
--and
--the primary emphasis of this chapter
--However,
--since
--analog systems
--and
--they
--Modulation
--Here,
--the coverage
--as
--it
--A large variety of modulation techniques
-*Given
--the hostile fading and multipath conditions in the mobile radio channel,
--designing a modulation scheme that is resistant to mobile channel impairments
--designing
--Since
--the ultimate goal of a modulation technique
--while
--new advances in digital signal processing
--This chapter
--Frequency modulation
--(FM)
--In FM,
--the amplitude of the modulated carrier signal
--while
--its frequency
--Thus,
--FM signals
--As shown subsequently,
--this
--once
--a certain minimum received signal level, called the FM threshold
--called
--In amplitude modulation (AM) schemes,
--there
--since
--AM signals
--Thus,
--AM signals
--FM
--which
--Frequency modulation
--when
--Since
--signals
--FM signals
--which
--Also,
--message amplitude variations
--so
--burst noise
--provided that
--the FM received signal
--Chapter 5
--small-scale fading
--thus
--FM
--when
--Also,
--in an FM system,
--it
--Unlike AM,
--in an FM system
--and hence bandwidth occupancy,
--It
--under certain conditions,
--the FM signal-to-noise ratio
--This ability of an FM system to trade bandwidth for SNR
--However,
--AM signals
--since
--the transmission system
--In modern AM systems,
--susceptibility to fading
--which
--The modern AM receiver
--and
--An FM signal
--due to
--the fact that
--the envelope of the carrier
--Hence
--the transmitted power of an FM signal
--The constant envelope of the transmitted signal
--In AM,
--however,
--it
--thus
--linear Class .A or
--AB amplifiers,
--which
--The issue of amplifier efficiency
--when
--since
--the battery life of the portable
--Typical efficiencies for Class C amplifiers
--that 70% of the applied DC power to the final amplifier circuit
--Class A or
--.AB amplifiers
--This
--for the same battery,
--constant envelope FM modulation
--Frequency modulation
--The capture effect
--If
--two signals in the same frequency band
--the one appearing at the higher received signal level
--while
--the weaker one
--This inherent ability to pick up the strongest signal
--and reject the rest
--and
--In AM systems,
--on the other hand,
--all of the interferers
--and
--While
--FM systems
--they
--FM systems
--that
--in order to
--FM transmitter and receiver equipment
--that
--Although
--frequency modulation systems
--special attention
--Both AM and FM
--using
--AM
--using
--whereas
--FM
--using
--AM
--and
--in such cases
--AM
--since
--FM

AllText02/Tannenbaum246.txt
--For any file service,
--whether for a single processor or for a distributed system,
--the most fundamental issue
--What
--In many systems,
--such as UNIX and MS-DOS,
--a file
--The meaning and structure of the information in the files
--the operating system
--On mainframes,
--however,
--many types of files
--A file
--The record
--In the latter case,
--the operating system
--or
--Since
--most distributed systems
--most file servers
--A file
--which
--but
--which
--Typical attributes
--The file service
--For example,
--it
--In a few advanced systems,
--it
--Another important aspect of the file model
--whether
--files
--after
--they
--Normally,
--they
--but
--in some distributed systems,
--the only file operations
--Once
--a file
--it
--Such a file
--Having files be immutable
--because
--it
--whenever
--it
--Protection in distributed systems
--With capabilities,
--each user
--called
--to which
--it
--The capability
--reading
--but
--writing
--All access control list schemes
--who
--The UNIX scheme,
--with bits for controlling reading, writing, and executing each file separately for the owner, the owner's group, and everyone else
--File services
-*depending on
--whether
--they
--In the upload/download model,
--shown in
--the file service
--The former operation
--The latter operation
--Thus
--the conceptual model
--The files
--The advantage of the upload/download model
--Application programs
--then
--or newly created files
--when
--the program
--No complicated file service interface
--Furthermore,
--whole file transfer
--However,
--enough storage
--Furthermore,
--if only
--a fraction of a file
--moving the entire file
--The other kind of file service
--In this model,
--the file service
--Whereas
--in the upload/download model,
--the file service
--here
--the file system
--It
--as well as
--when
--only small pieces