-Director A film director is a person who directs the making or production of a film.

-Script a small program written for a command interpreter or another scripting language

-Dialogue Dialogue is a literary form, the most notable examples of which in Western literature are the dialogues of Plato.

-Storyboard Storyboards are graphic organizers such as a series of illustrations or images displayed in sequence for the purpose of pre-visualizing a motion picture, animation, motion graphic or interactive media sequence, including website interactivity.

-Editor A text editor is a type of program used for editing plain text files.

-Film Studio A movie studio is, in the established sense of the term, a company that distributes films.

-Cinematographer A cinematographer is one photographing with a motion picture camera.

Hard drive: The hard drive is where all of your programs and files are stored
I use a hard drives to holed all my info and images on.

Mouse: a mouse s a pointing device that functions by detecting two-dimensional motion relative to its supporting surface. Physically, a mouse consists of an object held under one of the user's hands, with one or more buttons.
I use a mouse to click and drag things to other folders.

RAM: a ram is a form of computer data storage.


Laptop: A laptop is a personal computer designed for mobile use and small and light enough to sit on a person's lap while in use.
I use a laptop all the time to do work and job application.

Netbook: Netbooks are a branch of subnotebooks, a rapidly evolving[1] category of small, lightweight, and inexpensive laptop computers suited for general computing and accessing Web-based applications; they are often marketed as "companion devices
I have never used a netbook be for but I want to.

USB: A USB flash drive consists of a flash memory data storage device integrated with a USB.
I use a USB to stor my work so I can tacet to computer to computer.

IBM: International Business Machines (NYSE: IBM), abbreviated IBM, is a multinational computer, technology and IT consulting corporation headquartered in Armonk, North Castle, New York, United States.

.jpeg: In computing, JPEG (pronounced /ˈdʒeɪpɛɡ/, jay-peg) is a commonly used method of lossy compression for photographic images.

APPLE MAC: The Macintosh (pronounced /ˈmækɪntɒʃ/ or MAK-in-tosh),[1] or Mac, is a series of several lines of personal computers.

Digital: A digital system[1] is a data technology that uses discrete (discontinuous) values.

Memory Card: A memory card or flash card is an electronic flash memory data storage device used for storing digital contents.

Graphics Card: A graphics processing unit or GPU (also occasionally called visual processing unit or VPU) is a specialized processor that offloads 3D or 2D graphics rendering from the microprocessor.

Network: A computer network, often simply referred to as a network, is a collection of computers and devices connected by communications channels that facilitates communications among users and allows users to share resources with other users.

DVD: DVD, also known as Digital Video Disc or Digital Versatile Disc, is an optical disc storage media format, and was invented and developed by Philips, Sony, TOSHIBA, and Time Warner in 1995.

Internet: The Internet is a global system of interconnected computer networks that use the standard Internet Protocol Suite (TCP/IP) to serve billions of users worldwide.

Virus: A virus is a small infectious agent that can replicate only inside the living cells of organisms

Interactive: Accepting input from a human. Interactive computer systems are programs that allow users to enter data or commands. Most popular programs, such as word processors and spreadsheet applications, are interactive.

Multimedia: Multimedia is media and content that uses a combination of different content forms.

Keyboard: in computing, a keyboard is an input device, partially modeled after the typewriter keyboard, which uses an arrangement of buttons or keys, to act as mechanical levers or electronic switches.

Wi-Fi: Wi-Fi (pronounced /ˈwaɪfaɪ/) is a trademark of the Wi-Fi Alliance that manufacturers may use to brand certified products that belong to a class of wireless local area network (WLAN) devices based on the IEEE 802.11 standards.

Motherboard: A motherboard is the central printed circuit board (PCB) in many modern computers and holds many of the crucial components of the system, while providing connectors for other peripherals.

Bluetooth: Bluetooth is a proprietary open wireless technology standard for exchanging data over short distances (using short length radio waves) from fixed and mobile devices, creating personal area networks (PANs) with high levels of security.

what is mp4?
An ISO/IEC standard 14496 developed by the Moving Picture Experts Group (MPEG).MP4 is a new container format, a container format allows you to combine different multimedia streams into one single file. MP4 is streamable and supports all kinds of multimedia content.

What is MPEG?
MPEG stands for Moving Pictures Expert Group.
MPEG-1 is the video format that has had some extremely popular spin-offs and side products, most notably MP3 and Video CD.
MPEG-2 is not a successor for MPEG-1, but an addition instead. MPEG-2 is used in digital TVs, DVD-Videos and in SVCDs. An ISO/IEC standard 14496 developed by the Moving Picture Experts Group (MPEG).MP4 is a new container format, a container format allows you to combine different multimedia streams into one single file. MP4 is streamable and supports all kinds of multimedia content.

what is AVI?
AVI is an acronym for Audio Video Interleave. This is basically a multimedia container format and was first released by software giant Microsoft in November 1992.

1. Was the feedback you recieved from your Peer Assessments valuable? WHY?
yes it was because it toiled us that there was to much colour.
2. Where the comments general or specific? Which were more helpful?
some of the comments were general and some was specific. The most help fall feedback was saying there was to much colour.
3. How can the group's improve the quality of their feedback?
they can't because it was really good feedback.
4. What changes will you make to improve the quality of the feedback you give?
I will try to tell them nicely if I am going to give them bad feedback.
5. Do you value other group's feedback and opinions? why or why not?
yes because it was good feedback and then bad and then good feedback.

mpl other technology answers

1. I have not done introduce to the device what the technology device is used for. I haven't done the time line for my device or who manufactured the device who is the Audion's
2. intro to the device, the time line and the manufacturer of the device.
3. yes but no I have not done all of it.
4. getting all of the information I don't know where to find it.
5. yes I have got a bibliography and keeping track of all the web sites that I have gone on.
6. I don't think I will be able to finish on time because I cant find all the information.

I need a hand to making it easy to read

info for it home work

The Global Positioning System (GPS) is a U.S. space-based global navigation satellite system. It provides reliable positioning, navigation, and timing services to worldwide users on a continuous basis in all weather, day and night, anywhere on or near the Earth which has an unobstructed view of four or more GPS satellites.
GPS is made up of three segments: Space, Control and User. The Space Segment is composed of 24 to 32 satellites in Medium Earth Orbit and also includes the boosters required to launch them into orbit. The Control Segment is composed of a Master Control Station, an Alternate Master Control Station, and a host of dedicated and shared Ground Antennas and Monitor Stations. The User Segment is composed of hundreds of thousands of U.S. and allied military users of the secure GPS Precise Positioning Service and tens of millions of civil, commercial and scientific users of the Standard Positioning Service (see GPS navigation devices). GPS satellites broadcast signals from space that GPS receivers use to provide three-dimensional location (latitude, longitude, and altitude) plus precise time.
GPS has become a widely used aid to navigation worldwide, and a useful tool for map-making, land surveying, commerce, scientific uses, tracking and surveillance, and hobbies such as geocaching and waymarking. Also, the precise time reference is used in many applications including the scientific study of earthquakes and as a time synchronization source for cellular network protocols.
GPS has become a mainstay of transportation systems worldwide, providing navigation for aviation, ground, and maritime operations. Disaster relief and emergency services depend upon GPS for location and timing capabilities in their life-saving missions. The accurate timing that GPS provides facilitates everyday activities such as banking, mobile phone operations, and even the control of power grids. Farmers, surveyors, geologists and countless others perform their work more efficiently, safely, economically, and accurately using the free and open GPS signals.
The design of GPS is based partly on similar ground-based radio navigation systems, such as LORAN and the Decca Navigator developed in the early 1940s, and used during World War II. In 1956 Friedwardt Winterberg[1] proposed a test of General Relativity using accurate atomic clocks placed in orbit in artificial satellites. To achieve accuracy requirements, GPS uses principles of general relativity to correct the satellites' atomic clocks. Additional inspiration for the GPS came when the Soviet Union launched the first man-made satellite, Sputnik in 1957. A team of U.S. scientists led by Dr. Richard B. Kershner were monitoring Sputnik's radio transmissions. They discovered that, because of the Doppler effect, the frequency of the signal being transmitted by Sputnik was higher as the satellite approached, and lower as it continued away from them. They realized that since they knew their exact location on the globe, they could pinpoint where the satellite was along its orbit by measuring the Doppler distortion (see Transit (satellite)).
The first satellite navigation system, Transit, used by the United States Navy, was first successfully tested in 1960. It used a constellation of five satellites and could provide a navigational fix approximately once per hour. In 1967, the U.S. Navy developed the Timation satellite which proved the ability to place accurate clocks in space, a technology that GPS relies upon. In the 1970s, the ground-based Omega Navigation System, based on phase comparison of signal transmission from pairs of stations,[2] became the first worldwide radio navigation system. However, limitations of these systems drove the need for a more universal navigation solution with greater accuracy.
While there were wide needs for accurate navigation in military and civilian sectors, almost none of those were seen as justification for the billions of dollars it would cost in research, development, deployment and operation for a complex constellation of navigation satellites. However during the Cold War arms race, the nuclear threat to the very existence of the United States was the one need that did justify this cost in the view of the US Congress. And this deterrent effect is why GPS was funded. The nuclear triad consisted of the US Navy's Submarine Launched Ballistic Missiles (SLBMs) along with the US Air Force's strategic bombers and Intercontinental Ballistic Missiles (ICBMs). Considered vital to the nuclear deterrence posture, accurate determination of the SLBM launch position was a force multiplier. Precise navigation would enable US submarines to get an accurate fix of their positions prior to launching their SLBMs.[3] The US Air Force with two-thirds of the nuclear triad also had requirements for a more accurate and reliable navigation system. The Navy and Air Force were developing their own technologies in parallel to solve what was essentially the same problem. To increase the survivability of ICBMs, there was a proposal to use mobile launch platforms so the need to fix the launch position had similarity to the SLBM situation. In 1960, the Air Force proposed a radio-navigation system called MOSAIC (Mobile System for Accurate ICBM Control) that was essentially a 3-D LORAN. A follow-on study called Project 57 was worked in 1963 and it was "in this study that the GPS concept was born." That same year the concept was pursued as Project 621B, which had "many of the attributes that you now see in GPS"[4] and promised increased accuracy for Air Force bombers as well as ICBMs. Updates from the Navy Transit system were too slow for the high speeds that the Air Force operated at. The Navy Research Laboratory continued advancements with their Timation (Time Navigation) satellites, first launched in 1967, and with the third one in 1974 carrying the first atomic clock put into orbit.[5]

With these parallel developments out of the 1960s, it was realized that a superior system could be developed by synthesizing the best technologies from 621B, Transit, Timation and SECOR in a multi-service program. Over the Labor Day weekend in 1973, a meeting of about 12 military officers at the Pentagon discussed the creation of a Defense Navigation Satellite System (DNSS). It was at this meeting that "the real synthesis that became GPS was created." Later that year, the DNSS program was named Navstar. With the individual satellites being associated with the name Navstar (as with the predecessors Transit and Timation), a more fully encompassing name was used to identify the constellation of Navstar satellites. This more complete name was Navstar-GPS which was later shortened simply to GPS.[6]
After Korean Air Lines Flight 007, carrying 269 people, was shot down in 1983 after straying into the USSR's prohibited airspace,[7] in the vicinity of Sakhalin and Moneron Islands, President Ronald Reagan issued a directive making GPS freely available for civilian use, once it was sufficiently developed, as a common good.[8] The first satellite was launched in 1989, and the 24th and last satellite was launched in 1994.
Initially, the highest quality signal was reserved for military use, and the signal available for civilian use intentionally degraded ("Selective Availability", SA). This changed in 2000, with U.S. President Bill Clinton ordering Selective Availability (SA) turned off at midnight May 1, 2000, improving the precision of civilian GPS from about 1000 feet to about 65 feet.
You could let your heart be your guide. But when you're hiking through unfamiliar wilderness, a GPS receiver is probably a better lead. This magical little device provides its user with four main things: location, distance and directional information, tracking and route creation. With this information, hikers and travelers learn where they are and, more importantly, how to reach where they want to go. The information provided by the GPS system is constantly updated, which helps you to stay on track.
Between 24 and 32 satellites orbit the Earth, and these satellites provide the answer to the GPS receiver's aching question, "Where am I?" The satellites calculate this through a process called trilateration. Receivers lock signals with several different satellites orbiting the Earth, and based on the time it took those signals to reach the different satellites, a calculation is made about the receiver's location on Earth. Long story short, you look down at your receiver and see exactly where you are on a digital map.
It wasn't that long ago that GPS technology was used only by the military. But in recent years, that has changed dramatically. Receivers are now very affordable. For less than the cost of a quality tent and not much more than a pair of sturdy hiking books, outdoor enthusiasts can find a functional GPS that floats, is waterproof and is durable enough to withstand the rigors of a rough trail.
Although GPS receivers are affordable, many consumers still wonder if they have the skill to use one. When you consider that the GPS must send a signal to satellites orbiting the Earth, wait to receive a signal back, and then convert that signal to not only your location but the speed at which you're traveling and how long it will take you to reach a particular destination, the gadget can seem pretty fantastical and intimidating. But the truth is, the receiver does the bulk of the work itself. If you can navigate by map and compass, reading a GPS will be an easy skill for you to learn. Let's get started.

technology investigation Q.1

1. Yes I have looked at the criteria. I am doing how dose it work and the pictures.
2. The how dose it work and all the picketers that I need. hopefully I will get the time line done too.
3. YES!!! it is awesome it is heps better than power point. it is the best program.
4. No troubles at all it is all working perfect. for now.
5. Yes I have been keeping track of my bibliography.
6. That the GPS system was used by the army be for they used them in cars.