INSTRUCTION FORMAT a Program Is a Set of Instructions That Describe

Total Page:16

File Type:pdf, Size:1020Kb

INSTRUCTION FORMAT a Program Is a Set of Instructions That Describe INSTRUCTION FORMAT A program is a set of instructions that describe the steps to be performed for carrying out a computational task The program and the data, on which the program operates, are stored in main memory, waiting to be processed by the processor. This is also called the stored program concept. Instruction ● tells perform a task ● is an elementary operation that the processor can do. ● is divided into groups called fields. ● The common fields of an instruction are ○ Operation (op) code ○ Operand code The operation code ● represents action that the processor must execute. ● tells the processor what basic operations to perform. The operand code ● defines the parameters of the action and depends on the operation. ● specifies the locations of the data or the operand on which the operation is to be performed. ● can be data or a memory address. E.g. format of ADD instruction INSTRUCTION SET Instruction set is set of instructions that a processor can understand. An Instruction Set is the set of all the basic operations that a processor can do. ● The instructions in the instruction set are the languages that a processor understands. ● All programs have to communicate with the processor using these instructions. An instruction set is a part of the computer architecture. ● It relates to programming, instructions, registers, addressing modes, memory architecture, etc. Two processors are different if they have different instruction sets. INSTRUCTION CYCLE The primary responsibility of a computer processor is to execute a sequential set of instructions (program) CPU executes each instruction in a series of steps, called instruction cycle. A instruction cycle involves four steps— ● Fetching The processor fetches the instruction from the memory. ○ The fetched instruction is placed in the Instruction Register. ○ Program Counter holds the address of next instruction to be fetched and is incremented after each fetch. ● Decoding The instruction that is fetched is broken down into parts or decoded. ○ The instruction is translated into commands so that they correspond to those in the CPU’s instruction set. ○ The instruction set architecture of the CPU defines the way in which an instruction is decoded. ● Executing The decoded instruction or the command is executed. ○ CPU performs the operation implied by the program instruction. ■ For example, if it is an ADD instruction, addition is performed. ● Storing CPU store the results of execution, to the computer’s memory. Fig. Instruction cycle Fig. Steps in instruction cycle Instructions are of different categories:- ● Memory access or transfer of data between registers. ● Arithmetic operations like addition and subtraction. ● Logic operations such as AND, OR and NOT. ● Control the sequence, conditional connections, etc. INTERCONNECTING THE UNITS OF A COMPUTER BUS ● Bus is a set of electronic signal pathways that allows information and signals to travel between components inside or outside of a computer. ● The different components of computer, i.e., CPU, I/O unit, and memory unit are connected with each other by a bus. ● The data, instructions and the signals are carried between the different components via a bus. Features and functionality of a bus are: ● Bus is a set of wires used for interconnection ● Each wire carry 1 bit data ● Bus width = No. of wires in the bus BUS can be divided into two types:- ● INTERNAL BUS: ○ Connects components inside motherboard (CPU & System memory) ○ Known as SYSTEM BUS ● EXTERNAL BUS: ○ Connects peripherals, expansion slots, I/O ports & drives to the rest of computer. ○ Allows devices to be attached to the computer (Expansion of computer’s capabilities) ○ Known as EXPANSION BUS Fig. Interaction between CPU and memory A system bus or expansion bus comprise of three kinds of buses — data bus, address bus and control bus. Fig. Interaction between CPU, memory and peripheral devices The interaction of CPU with memory and I/O devices involves all the three buses. ● The command to access the memory or the I/O device is carried by the control bus. ● The address of I/O device or memory is carried by the address bus. ● The data to be transferred is carried by the data bus. System Bus Data Bus ● Transfers data between CPU and Memory ● Bus width affect speed of computer ● Size of data bus defines size of processor ● 8-bit processor – 8 wire data bus (carry 1 byte/8bits of data) ● 16-bit processor – 16 wire data bus Address Bus ● Connects CPU and RAM with set of wires similar to data bus ● Width defines maximum number of memory locations the computer can address Control Bus ● Specifies whether data is to be read or written to memory etc. Expansion Bus Data Bus ● Transfers data between CPU and I/O devices. ● EISA: Extended Industry Standard Architecture (32 bit bus architecture) ● PCI: Peripheral Component Interconnect (for hard disks, sound cards, network cards, and graphics cards) ● AGP: Accelerated Graphics Port (for 3D and full motion video) ● USB: Universal Serial Bus Address Bus ● Carry address of different I/O devices to be accessed (eg: HDD, CD etc) Control Bus ● Carry read/write commands, status of I/O devices etc. Ports Connections to the bus and peripheral devices are done via ports and sockets at the sides of computer Some standard ports: ● Port for mouse, Keyboard, Monitor, Network, Modem, audio, serial port, parallel port and USB port •Ports are physically distinguishable by their DIFFERENT shapes, size of contact pins, number of pins. The I/O ports are the external interfaces that are used to connect input and output devices like printer, modem and joystick to the computer. The I/O devices are connected to the computer via the serial and parallel ports, Universal Serial Bus (USB) port, Firewire port, etc. Figure Interaction of serial and parallel port interfaces We can connect external devices to the ports and interfaces, which get connected to the computer’s motherboard. ● Serial Port— to connect old peripherals(modems,plotters,barcode reader) ○ A serial port transmits one bit of data through a single wire. ○ Since data is transmitted serially as single bits, serial ports provide slow speed data transmission. ● Parallel Port— to connect old printers. ○ A parallel port is an interface for connecting eight or more data wires. ○ The data flows through the eight wires simultaneously. They can transmit eight bits of data in parallel. As a result, parallel ports provide high speed data transmission ● USB Ports—to connect newer peripherals like cameras, scanners and printers to the computer. ○ Plug and play feature- can use without rebooting ● Firewire is another bus, used today mostly for video cameras and external hard drives. ● RJ45 connector (called LAN or Ethernet port) is used to connect the computer to a network. ○ . Fig Ports at the rear(backside) of computer ● VGA connector for connecting a monitor. This connector interfaces with the built-in graphics card. ● Audio plugs (line-in, line-out and microphone)-.(MIDI Musical Instruments Digital Interface port), for connecting sound speakers and the microphone. This connector interfaces with the built-in sound card ● PS/2 port to connect mouse and keyboard into PC. ● SCSI port for connecting the hard disk drives and network connectors. Expansion Slots They are located on the motherboard. The expansion cards are located in the expansion slots. These cards gives the computer new features or increased performance. Different expansion slots are: ● AGP(Accelerated Graphics port) slot ● PCI(Peripheral Component InterConnect ) slot - to connect audio,video and graphics. Performance of a Computer Factors affecting performance: ● Registers - Bigger the size of register more quickly it can process data ● RAM - Larger the RAM , better Is the performance ● Bus - Higher the bus speed, better s the performance ● System clock - Clock speed defines the frequency with which a processor executes instruction ○ Greater the clock speed, better the speed of computer- greater the performance ● Cache memory - Larger the size of cache better s the performance .
Recommended publications
  • System Buses EE2222 Computer Interfacing and Microprocessors
    System Buses EE2222 Computer Interfacing and Microprocessors Partially based on Computer Organization and Architecture by William Stallings Computer Electronics by Thomas Blum 2020 EE2222 1 Connecting • All the units must be connected • Different type of connection for different type of unit • CPU • Memory • Input/Output 2020 EE2222 2 CPU Connection • Reads instruction and data • Writes out data (after processing) • Sends control signals to other units • Receives (& acts on) interrupts 2020 EE2222 3 Memory Connection • Receives and sends data • Receives addresses (of locations) • Receives control signals • Read • Write • Timing 2020 EE2222 4 Input/Output Connection(1) • Similar to memory from computer’s viewpoint • Output • Receive data from computer • Send data to peripheral • Input • Receive data from peripheral • Send data to computer 2020 EE2222 5 Input/Output Connection(2) • Receive control signals from computer • Send control signals to peripherals • e.g. spin disk • Receive addresses from computer • e.g. port number to identify peripheral • Send interrupt signals (control) 2020 EE2222 6 What is a Bus? • A communication pathway connecting two or more devices • Usually broadcast (all components see signal) • Often grouped • A number of channels in one bus • e.g. 32 bit data bus is 32 separate single bit channels • Power lines may not be shown 2020 EE2222 7 Bus Interconnection Scheme 2020 EE2222 8 Data bus • Carries data • Remember that there is no difference between “data” and “instruction” at this level • Width is a key determinant of performance • 8, 16, 32, 64 bit 2020 EE2222 9 Address bus • Identify the source or destination of data • e.g. CPU needs to read an instruction (data) from a given location in memory • Bus width determines maximum memory capacity of system • e.g.
    [Show full text]
  • FW-1804 Firewire Audio-MIDI Interface
    » D00846700A FW-1804 FireWire Audio-MIDI Interface SETUP GUIDE Contents Introduction ...............................2 About the FW-1804 .......................2 Monitor Mixing ...........................2 The IEEE 1394 Standard ...................2 Before Installing the Software ...............3 Installation (Windows 2000 and Windows XP) .....4 Installation (Mac OS X 10.2.8 and above).........6 Installation (Mac OS 9.2)......................7 Connections ...............................8 MIDI Connections ........................8 Analog Audio Connections .................8 Status Indicators .........................9 Clock Source Setting ......................9 Introduction About the FW-1804 • COMPUTER selects the signals from the DAW passed through the FireWire connection. The level of the signals from the computer is set using the master output control The FW-1804 provides your computer with high-quality of the DAW software and the two analog outputs may be audio facilities: eight channels of analog input and two of selected (using the software Control Panel) for output of output, with two channels of digital audio I/O through these signals. coaxial connections and eight channels of digital I/O through optical connections—at up to 96 kHz 24-bit. There • INPUTS selects the stereo mix of the analog, optical and are also two physical MIDI input and four physical output coaxial signals for monitoring. ports. • BOTH allows the computer signals to be monitored It is connected to the host computer using a single 6-pin to mixed with the input signals. 6-pin IEEE 1394 cable (supplied) that carries audio and Individual channels can be set to unity gain by pressing and MIDI information back and forth between the FW-1804 holding the computer's [Shift] key while clicking on the and the computer.
    [Show full text]
  • Control Bus System and Application of Building Electric Zhai Long1*, Tan Bin2, Ren Min3 1.Xi’An Changqing Technology Engineering Co., Ltd., Xi'an 710018 ,China 2
    ORIGINAL ARTICLE Control Bus System And Application of Building Electric Zhai Long1*, Tan Bin2, Ren Min3 1.Xi’an Changqing Technology Engineering Co., Ltd., Xi'an 710018 ,China 2. Xi'an Changqing Technology Engineering Co., Ltd., Xi'an 710018,China 3.The Fifth Oil Production Plant of Changqing Oilfield Company, Xi'an 710018,China ABSTRACT As the most important part of Building construction, the KEYWORDS electric part 's intelligent control is particularly important. the most Building electric important sign of The intelligent intelligent control is the application of Control Bus System control bus system, only select the appropriate control bus system, and CAN protocol achieve intelligent applications in buildings, elevators, fire, visualization, etc., can meet the household needs. Firstly, the design principle of the electrical control system will be described, and then the CAN - based bus system control principle and application are discussed, only used for reference. 1.Design Principles of Electric Control System Introduction As a primary prerequisite for intelligent building, For construction, the electric bus control technology is a Design of electrical control system should meet the relatively new technology. under the trend of the following principles: development of intelligent building in the future, application (1) It is needed to ensure meeting the needs under of control bus system has become the most important normal production environment . the mainstay of component of intelligent building . In the construction of the electrical system is designed to meet the production machinery and production process requirements. (2) building, the control bus system can not only make The overall design concept should be clear.
    [Show full text]
  • United States Patent (19) 11 Patent Number: 6,157,976 Tien Et Al
    USOO6157976A United States Patent (19) 11 Patent Number: 6,157,976 Tien et al. (45) Date of Patent: Dec. 5, 2000 54 PCI-PCI BRIDGE AND PCI-BUS AUDIO OTHER PUBLICATIONS ACCELERATOR INTEGRATED CIRCUIT PCI System Architecture, Tom Shanley/Don Anderson, 75 Inventors: Paul Tien, Fremont; Cheng-Yeuan 1995, pp. 381-382. Tsay, Pleasanton; Rsong-Hsiang Shiao, Fremont, all of Calif. Primary Examiner Ayaz R. Sheikh Assistant Examiner Rupal D. Dharia 73 Assignee: ESS Technology, Fremont, Calif. Attorney, Agent, or Firm-Gray Cary Ware & Freidenrich 57 ABSTRACT 21 Appl. No.: 09/074,657 A semiconductor device with an embedded PCI 2.1 com 22 Filed: May 6, 1998 pliant bridge provides expanded functionality as System 51511 Int. Cl. ............................. GO6F13FOO700; GO6F 13/38/ level implementationsp of a PCI-to-PCI bridge,9. and enhances 52 U.S. Cl. ............................ 710/129, 710/127, 710/64; the level of integration possible. The embedded PCI-to-PCI 345/435; 84/604; 84/621; 84/622; 84/647 bridge allows the creation of multi-function, multimedia 58) Field of Search 345/435: 710/127 add-on cards Supporting multiple devices. Multi-function, 710129,6484/602,604 621 622 647. multimedia Subsystems that provide audio, graphics, MPEG, s w is s s 454. 70425s etc., are mapped into a bridged-to PCI-bus that keeps Such s traffic off the main PCI-bus. The advantage for the system or 56) References Cited add-in card Vendor is that the various multimedia chips that are combined can come from different Sources, providing an U.S. PATENT DOCUMENTS optimized and highly customized combination of functions.
    [Show full text]
  • Profire Lightbridge User Guide | 2 Introduction 1
    34-in/36-out FireWire Lightpipe Interface User Guide English Table of Contents English . 2 Introduction . 2 What’s in the Box . 2 About ProFire Lightbridge . 3 ProFire Lightbridge Features . 4 System Requirements . 5 Controls and Connectors . 6 Front Panel . 6 Rear Panel . 7 Driver Installation . 8 Hardware Connections . 8 Audio . 8 MIDI . 9 Word Clock . 9 Using ProFire Lightbridge . 9 The Software Control Panel . 10 Hardware Page . 10 About Page . 13 Word Clock Synchronization . 14 Understanding Word Clock . 14 Specifications . 18 Warranty . 19 Warranty Terms . 19 Warranty Registration . 19 M-Audio ProFire Lightbridge User Guide | 2 Introduction 1 hank you for purchasing M-Audio’s ProFire Lightbridge interface. ProFire Lightbridge uses the ADAT optical T I/O standard to bring extensive digital connectivity to your studio. With its four ADAT optical inputs, four ADAT optical outputs, S/PDIF coaxial input and output, and stereo analog outputs, ProFire Lightbridge lets you connect a variety of devices to your FireWire-equipped digital audio workstation. Using the high-bandwidth, industry-standard FireWire (IEEE1394) protocol, ProFire Lightbridge gives your DAW up to 34 audio inputs and 36 outputs while connecting to your computer via a single cable. This makes it perfect for multi-channel transfers to and from external multitrack recorders. ProFire Lightbridge is also ideal for linking your DAW to an external digital mixer, or for connecting to another computer hosting soft synths and signal processors. This manual will explain the features and operation of ProFire Lightbridge. Even if you are an experienced recording enthusiast, please take a moment to read this guide and familiarize yourself with all of the unique features of your ProFire Lightbridge.
    [Show full text]
  • US-16X08 Reference Manual
    D01247020B US-16x08USB2.0 Audio Interface/Mic Preamp Reference Manual Before connecting this unit to a computer, you must download and install a dedicated driver. Contents 1 – Introduction ..............................................3 Windows 8 ....................................................................23 Features ..................................................................................3 Windows 7 ....................................................................23 Conventions used in this manual ..................................3 Mac OS X and iTunes ........................................................24 iOS ..........................................................................................24 2 – Names and functions of parts ..................4 Front panel ............................................................................4 9 – MIDI Implementation Chart ...................25 Rear panel ..............................................................................5 10 – Troubleshooting ...................................26 3 – Installation ................................................6 Troubleshooting ................................................................26 System requirements.........................................................6 11 – Specifications ........................................28 Windows ..........................................................................6 Specifications .....................................................................28 Mac OS X..........................................................................6
    [Show full text]
  • 3.4.1 SPI - Serial Peripheral Interface
    DIPLOMARBEIT Herr Axel Schneider Entwicklung einer updatefähigen Embedded-Linux-Hardwareplattform zum Einsatz in einer speziellen Gerätesteuerung Mittweida, 2012 Fakultät Elektro- und Informationstechnik DIPLOMARBEIT Entwicklung einer updatefähigen Embedded-Linux-Hardwareplattform zum Einsatz in einer speziellen Gerätesteuerung Autor: Herr Axel Schneider Studiengang: Elektrotechnik Schwerpunkt Energiesystemtechnik Seminargruppe: ET07wE-D Erstprüfer: Prof. Dr.-Ing. Thomas Beierlein Zweitprüfer: Dipl.-Ing. (FH) Jan Färber Einreichung: Mittweida, 17.08.2012 Bibliografische Angaben: Schneider, Axel: Entwicklung einer updatefähigen Embedded-Linux-Hardwareplatt- form für den Einsatz in einer speziellen Gerätesteuerung - 2012 – 74 Seiten, 43 Abbildungen, 13 Tabellen, 3 Anlagen , Mittweida, Hochschule Mittweida (FH), University of Applied Sciences, Fakultät Elektro- und Informationstechnik Diplomarbeit, 2012 Referat: Das Projekt „Pfeifen-Orgel mit dynamischer Stimmung“ ist ein Steuerungssystem zur Verbesserung der Klangqualität einer Orgel. Das System besteht aus dezentralen Elementen und einer zentralen Steuerung. Diese Arbeit befasst sich mit der Entwicklung der zentralen Einheit, der Zentralen Ak- tor-Steuerung. Ihre Aufgabe umfasst grundlegend die Mikrocontroller gestützte Da- tenverarbeitung und Kommunikation über spezielle, im Projekt benötigte Peripherie. Für die an diese Arbeit angrenzende Entwicklung der Steuerungssoftware, verfügt die Hardwareplattform über ein angepasstes Embedded Linux. Inhaltsverzeichnis Inhaltsverzeichnis...............................................................................................I
    [Show full text]
  • Apogee Ensemble Thunderbolt Audio Interface
    Apogee Ensemble Thunderbolt Audio Interface User’s Guide Fall 2014 Contents Overview!...........................................................................................................5 Introduction!................................................................................................................5 Features!.......................................................................................................................5 Package Contents!......................................................................................................6 Ensemble Thunderbolt Panel Tour!...........................................................................7 Front Panel!.................................................................................................................7 Rear Panel!..................................................................................................................8 Display!........................................................................................................................9 Input Settings Display Screen!..................................................................................9 Getting Started!...............................................................................................10 Precautions when powering Ensemble On/Off!......................................................10 Thunderbolt Notes!....................................................................................................10 Ensemble Software!..................................................................................................11
    [Show full text]
  • User's Guide M-Audio Ozone
    M-Audio Ozone version: MA-Ozone_052803 User’s Guide Introduction . .2 M-Audio Ozone Features . .2 M-Audio Ozone Overview . .2 What’s in the Box . .3 Guide to Getting Started . .4 M-Audio Ozone Panel Features . .4 Top Panel . .4 Rear Panel . .6 M-Audio Ozone Driver Installation . .7 Driver Installation for Windows . .7 Windows XP: . .8 Windows 2000: . .12 Windows ME: . .16 Windows 98SE: . .18 M-Audio Ozone and the Windows Sound System . .23 Macintosh Driver Installation . .23 OMS Installation . .24 M-Audio Ozone Driver Installation . .24 OMS Configuration (Mac OS9 only) . .25 M-Audio Ozone and the Mac OS 9 Sound Manager . .27 M-Audio Ozone and Mac OS X . .27 The M-Audio Ozone Control Panel . .28 Application Software Setup . .30 M-Audio Ozone Hardware Installation . .31 M-Audio Ozone Audio Setup and Control . .31 Using the Mic and Instrument Inputs . .33 Setting Input Gain . .34 Phantom Power . .34 Using the Aux Inputs . .35 Using Direct Monitor . .36 M-Audio Ozone MIDI Setup and Control . .37 MIDI Functions In Standalone Mode . .39 Utilizing the Programming Assignment Keys . .39 Technical Support & Contact Information . .44 M-Audio Ozone Warranty Information . .45 M-Audio Ozone Technical Specifications . .46 Appendix A - MIDI Controller Information . .47 Appendix B - M-Audio Ozone Block Diagram . .48 Introduction Congratulations on your purchase of the M-Audio Ozone. The M-Audio Ozone is an innovative product—a powerful combination of MIDI controller and audio interface with microphone and instrument preamps that will turn your computer into a virtual music production studio. You may use your M-Audio Ozone in conjunction with a USB-equipped PC or Macintosh computer and appropriate music software to enter a full range of MIDI note and controller information, as well as record and play back your voice, guitar, or external sound modules.
    [Show full text]
  • Serial Communication Buses
    Computer Architecture 10 Serial Communication Buses Made wi th OpenOffi ce.org 1 Serial Communication SendingSending datadata oneone bitbit atat oneone time,time, sequentiallysequentially SerialSerial vsvs parallelparallel communicationcommunication cable cost (or PCB space), synchronization, distance ! speed ? ImprovedImproved serialserial communicationcommunication technologytechnology allowsallows forfor transfertransfer atat higherhigher speedsspeeds andand isis dominatingdominating thethe modernmodern digitaldigital technology:technology: RS232, RS-485, I2C, SPI, 1-Wire, USB, FireWire, Ethernet, Fibre Channel, MIDI, Serial Attached SCSI, Serial ATA, PCI Express, etc. Made wi th OpenOffi ce.org 2 RS232, EIA232 TheThe ElectronicElectronic IndustriesIndustries AllianceAlliance (EIA)(EIA) standardstandard RS-232-CRS-232-C (1969)(1969) definition of physical layer (electrical signal characteristics: voltage levels, signaling rate, timing, short-circuit behavior, cable length, etc.) 25 or (more often) 9-pin connector serial transmission (bit-by-bit) asynchronous operation (no clock signal) truly bi-directional transfer (full-duplex) only limited power can be supplied to another device numerous handshake lines (seldom used) many protocols use RS232 (e.g. Modbus) Made wi th OpenOffi ce.org 3 Voltage Levels RS-232RS-232 standardstandard convertconvert TTL/CMOS-levelTTL/CMOS-level signalssignals intointo bipolarbipolar voltagevoltage levelslevels toto improveimprove noisenoise immunityimmunity andand supportsupport longlong cablecable lengthslengths TTL/CMOS → RS232: 0V = logic zero → +3V…+12V (SPACE) +5V (+3.3V) = logic one → −3V…−12V (MARK) Some equipment ignores the negative level and accepts a zero voltage level as the "OFF" state The "dead area" between +3V and -3V may vary, many receivers are sensitive to differentials of 1V or less Made wi th OpenOffi ce.org 4 Data frame CompleteComplete one-byteone-byte frameframe consistsconsists of:of: start-bit (SPACE), data bits (7, 8), stop-bits (MARK) e.g.
    [Show full text]
  • PDP-11 Bus Handbook (1979)
    The material in this document is for informational purposes only and is subject to change without notice. Digital Equipment Corpo­ ration assumes no liability or responsibility for any errors which appear in, this document or for any use made as a result thereof. By publication of this document, no licenses or other rights are granted by Digital Equipment Corporation by implication, estoppel or otherwise, under any patent, trademark or copyright. Copyright © 1979, Digital Equipment Corporation The following are trademarks of Digital Equipment Corporation: DIGITAL PDP UNIBUS DEC DECUS MASSBUS DECtape DDT FLIP CHIP DECdataway ii CONTENTS PART 1, UNIBUS SPECIFICATION INTRODUCTION ...................................... 1 Scope ............................................. 1 Content ............................................ 1 UNIBUS DESCRIPTION ................................................................ 1 Architecture ........................................ 2 Unibus Transmission Medium ........................ 2 Bus Terminator ..................................... 2 Bus Segment ....................................... 3 Bus Repeater ....................................... 3 Bus Master ........................................ 3 Bus Slave .......................................... 3 Bus Arbitrator ...................................... 3 Bus Request ....................................... 3 Bus Grant ......................................... 3 Processor .......................................... 4 Interrupt Fielding Processor .........................
    [Show full text]
  • EXB-FW for M3 Manual
    EXB-FW for M3 Manual EXB-FW option (FireWire board) If you install the optional EXB-FW in the M3, you’ll be application. For details, refer to the manual of the able to use its Virtualized Hardware functionality. software you’re using. Virtualized Hardware is functionality that allows For more about the EXB-FW, refer to the manual audio signals and MIDI messages from a Korg included with the EXB-FW. hardware device supporting this functionality to be routed via a dedicated Korg editor running in your DAW software or other host application and sent to tracks in your host application, letting you use your EXB-FW parameters Korg hardware device as though it were a plug-in software instrument. When you install the EXB-FW, the following M3 In order to use the Virtualized Hardware functionality, parameters will become available. For details on the you’ll need to connect the M3 to your computer via a parameters, refer to the corresponding pages of the M3 FireWire (IEEE 1394) cable, and use the M3 Editor/ Parameter Guide. Plug-In Editor version compatible with the EXB-FW. Program mode With this setup, you’ll be able to perform various types • Prog P0: Play– Sampling/Audio In of control including total recall, as follows. “Input” (→ PG p.9) • Edit and set up the M3’s various mode parameters → via MIDI. “Source Bus” ( PG p.10) • Send and receive the M3’s 2-in and 6-out digital The menu command “Auto Sampling Setup” REC → audio signals. Audio Input ( PG p.110) You can send the M3’s audio signals to tracks in • Prog P0: Play– Control Surface, Mixer Input your host application using the Virtualized Hard- “Audio Play/Mute,” “Audio Solo,” “Audio Vol- ware functionality.
    [Show full text]