Diviner pic configuration bits tool

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HFINTOSC; NDIV 2; OSCCON1 = 0x61; // CSWHOLD may proceed; SOSCPWR Low power; OSCCON3 = 0x00; // MFOEN disabled; LFOEN disabled; ADOEN disabled; SOSCEN disabled; EXTOEN disabled; HFOEN disabled; OSCEN = 0x00; // HFFRQ 16_MHz; OSCFRQ = 0x05; // TUN 0; OSCTUNE = 0x00;}This code sets the various SFRs associated with the PIC18F47Q10’s Oscillator Module – covered in Section 4 of the datasheet. Reviewing some of the code, specifically, OSCCON1 = 0x61;sets the OSCCON1 (OSCillator CONtrol Register 1) an SFR at address 0xED3 to 0110 0001b.The processor specific header file pic18f47q10.h contains the symbol definition for OSCCON1:// Register: OSCCON1#define OSCCON1 OSCCON1extern volatile unsigned char OSCCON1 __at(0xED3);#ifndef _LIB_BUILDasm("OSCCON1 equ 0ED3h");#endifThe data sheet shows OSCCON1 contains two setting for the new oscillator, the requested new oscillator source - Bits 6:4 NOSC[2:0] and the requested new the clock divider Bits 3:0 NDIV[3:0]. The values being set for the new oscillator – 110b specify the HFINTOSC (High Frequency INTernal OSCillator):With a Clock Divider of 2 (2:1):This sets the new processor clock to 4MHz / 2 or 2 MHz. There is clearly even more configuration needed to get to the requested clock frequency of 8MHz -16MHz HFINTOSC frequency with a CDIV of 2.Continuing to review the Oscillator Module control registers, the OSCFRQ SFR looks like a good candidate. Looking at how the MCC generated code sets OSCFRQ:OSCFRQ = 0x05;It appears that MCC is setting OSCFREQ Bits 3:0 (HFFRQ[3:0]) to 0101b, which matches the 16MHz configured in the MCC GUI:As can be seen in remainder of the OSCILLATOR_Initialize() implementation, MCC generated code configuring some additional oscillator control registers. As the project’s configuration requirements did not specifically change any of these other values, MCC generated “defaults” for the project. Using the techniques used to dissect how the oscillator control registers were used by MCC to change the clock speed to the configuration specified 8 MHz, investigating the remainder of the generated in OSCILLATOR_Initialize() method is straight forward.SummaryThe post started with a look at PIC memory organization and the concept of registers. After a quick review of project creation detailed in a prior post, this post explored configuration sources, including Configuration Words and SFR, and how the former solves the issue of providing oscillator and clock settings needed as the processor is starting. Finally looking at a code generated through MCC for the specified project configuration demonstrated how Configuration Words values are set via compiler directives for values needed at processor start up as well as how SFRs can update the oscillator configuration with application code to fine tune the processor clock configuration. While not particularly complex, configuring the startup oscillator selection and clock speed is more complex than many configuration tasks due to the need to program flash locations via compiler directives to get the processor started and then through SFRs once the processor is started. It is managing these complexities where MCC can be very helpful in getting a basic project structure in place for getting the processor started. Related searches » ma-config_ma-config download » ma-config.com 64 bits » ma config 64 bits » descargar ma-config.com 64 bits » telecharger ma config com 32 bits » ma config 64 bits win 8 » ma config.com 64 bits » ma config windows 7 64 bits » ma-config 64 bits » telecharger ma-config.com 32 bits ma config.com64 bits at UpdateStar M More Warsaw 64 bits 2.37.0.11 Warsaw 64 bits is a software developed by GAS Tecnologia, a Brazilian technology company specialized in digital certification and security solutions for financial institutions. more info... 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USB Flash/EPROM ProgrammerA memory device programmer (Flash/EPROM/E2PROM) board and software, connected to PC by USB port. ContentsAbout the ProjectCurrent StatusReleasesDownloadsOperating SystemsDocumentationHardware DesignFirmware ProjectSoftware ProjectContributingLicenseContactReferenceAbout The ProjectThe purpose of this board is to allow the programming, reading and verification of writable/rewritable memory devices, such as EPROM, EEPROM, Flash, SRAM, NVRAM – those with parallel bus as well as serial ones (I2C, SPI, Microwire, LPC).In a future release, programming of some microcontroller families (eg. Microchip PIC, or 8051) may also be supported, via firmware and software upgrade.Current StatusThe current status of this project is:ReleasesThe releases of this project are here: Releases of the USB Flash/EPROM Programmer.DownloadsDownloads of the latest version of the project are available here:USB Flash/EPROM Programmer 0.3:Specifications (PDF format, ~2,51MB)Schematics (PDF format, ~148KB)Bill of Materials (PDF format, ~52KB)Firmware Binary (UF2 to Raspberry Pi Pico) (ZIP format, ~215KB)Software Installer - Microsoft Windows© 64 bits (ZIP format, ~10MB)Software Installer - Microsoft Windows© 32 bits (ZIP format, ~10MB)Software Installer - Apple macOS© 64 bits (ZIP format, ~21MB)Software Installer - GNU/Linux 64 bits (ZIP format, ~647KB)Software Installer - FreeBSD 64 bits (ZIP format, ~241KB)Operating SystemsThe USB Flash/EPROM Programmer has compiled installation packages for the following Operating Systems:Microsoft Windows©Windows 7, or above (32 or 64 bits)GNU/LinuxUbuntu Linux 20.04, or above (64 bits)RedHat/CentOS 8, or above (64 bits)Apple macOS©macOS 10.13, or above (Intel)FreeBSDFreeBSD 13.2, or above (64 bits)DocumentationThe most up-to-date project documentation can be accessed here: Documentation of the USB Flash/EPROM Programmer.Hardware DesignThe most up-to-date hardware design can be accessed here: Hardware design of the USB Flash/EPROM Programmer.Firmware ProjectThe most up-to-date firmware project can be accessed here: Firmware Project of the USB Flash/EPROM Programmer.Instructions on how to build the firmware are described in following document: Firmware Build Instructions.Software ProjectThe most up-to-date software project can be accessed here: Software Project of the USB Flash/EPROM Programmer.Instructions on how to build the software are described in following document: Software Build Instructions.ContributingPlease read CONTRIBUTING for more information.LicenseDistributed under the Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.See LICENSE file for more information.Some components used in this project are available under other licenses. Check each license file distributed with third-party components.Some brands mentioned are registered and are the property of the respective deteiners/manufacturers.The same "Terms and Conditions" and "Privacy Policy" of the Robson Martins Home Page apply here:Terms and ConditionsPrivacy PolicyContact ReferenceEzoFlash+ - Parallel Port EPROM/Flash Programmer.MPSP - Microchip© PIC Serial Port Programmer.PK2C - Microchip© PIC Kit 2 Clone Programmer.This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.. Diviner - PIC Configuration Bits Tool, free download. Diviner - PIC Configuration Bits Tool 1.7.6: Create, generate, and calculate code for PIC microcontrollers.

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Free29Osama's LabSpark Loader is a boot loader for AVR microcontrollers that can be used for programming flash and EEPROM...boot loader for AVR microcontrollers that can...computer and the microcontroller throughfree16,152Atmel CorporationAtmel Studio is an integrated development platform for Atmel AVR and ARM microcontrollers. You can easily get...Atmel AVR and ARM microcontrollers. You can easily get9,963New Wave Concepts LimitedNew Wave Concepts Limited developed Circuit Wizard with the purpose of making electronic engineers job less demanding...comprehensive support for GENIE microcontroller programming37,306Labcenter ElectronicsProteus combines ease-of-use with powerful features to help you design, test and layout professional PCBs...PCBs. Main features: - 800 microcontrollerfree29,544Simon BridgerRealterm is a terminal program specially designed for capturing, controlling and debugging...Realterm is a terminal program specially designed for capturing, controlling and debuggingfree180,537ArduinoThe open-source Arduino Software (IDE) makes it easy to write code and upload...The open-source Arduino Software (IDE) makes it easy to write code and upload it to the boardfree78MicrochipWith Microchip’s powerful MPLAB Integrated Development Environment (IDE) the PICkit™ 2 enables in-circuit debugging...Flash families of microcontrollers...on most PIC® microcontrollers. 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The program4,054Matrix Technology Solutions LtdFlowcode is a development environment for electronic and electro-mechanical systems using Arduino...Flowcode is a development environment for electronic and electro-mechanical systems usingfree1BiPOM Electronics, Of the timer. Revisiting MPLAB X Project CreationA quick highlight of the steps enumerated in the first post of this series creating the MPLAB X project for the PIC18F47Q10 isprovided below. For more details around the steps to create an MPLAB Xproject and even installing the IDE if you have not yet done so,please see the first post in this series . The following steps were completed with v6.00 ofthe IDE. 1. Launch MPLAB X 2. Create a new Standalone Project type 3. Select the correct device - the 8-bit PIC18F47Q10 and programming / debugging tool – the PICkit 4 in-circuit debugger 5. Select a version of the 8-bit compiler to use 6. Enter a project name 7. Immediately after the project is created, ensure Use lowvoltage programming mode entry is selected (project properties /PICKit4 / PICKit4 Tool Options) – if low voltage programming is not selected,processor damage can result!After creating the project, MCC (MPLAB Code Configurator) is used to configure the clocksystem of the PIC18F47Q10 to use the on chip (internal) highfrequency oscillator running at 16MHz with a 2:1 clock divider resultingin a processor clock speed of 8 MHz. Additionally, theconfiguration routes the clock output to Port / Pin A6 of the 40 pin PDIP PIC18F47Q10 package. The first project additionally configured Port/PinA4 as GPIO output, starting with an output set to logic high (1), however, GPIO is covered in-depth in a subsequent post and not addressed here.Once configured in the MCC GUI, The System Module-Easy Setup tab should appear as:And the System Module-Register CONFIG1H should match the following configuration:Once the configuration is set within MCC, click Generate to have MCC generate the necessary code to implement the requestedconfiguration and add the code to the current project.Understanding the Specified MCC ConfigurationThe project configuration above used MCC to graphically configurethe oscillator selection, final clock configuration, and routing ofthe clock signal to an output pin of the PIC18F47Q10. This is asubset of the full suite of MCC’s capabilities. MCC can alsomanage basic GPIO port configuration, interrupt configuration and enable and configure peripherals such as SPI, I2C and USART. The oscillator selection and the related clock configuration are someof the more complicated configurations with the 8-bit controllers as some of thatconfiguration needs to be in place and available to the processoras it starts up. Without at least an initial clockconfiguration the processor cannot run. While the vastmajority of configuration – such as setting up GPIO or serialcommunications can be completed as part of application codeexecuting after the processor starts, the processorimplementation needs a means to provide some configurationstatically for reading during startup. Understanding the code generated via MCC can help shed some light on the more complex pre-code execution oscillator configuration and selection functionality as well as initial clock configuration. PIC Configuration SourcesThe PIC18F47Q10 has two sources for configuration – ConfigurationWords and SFRs. Both methods rely on SFR registers,the difference lies in where the registers are in memory and how /when the registers are written. Configuration WordsOn the PIC 8-bit family, a

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Understaning PIC ConfigurationThis second in a series of five blog posts continues exploring getting started with Microchip’s 8-bit PIC family ofmicrocontrollers by delving into basic processor memory organization and how this family of microcontrollers initialize, specifically: PIC Memory & Registers PIC Configuration Sources Revisiting MPLAB X Project Creation MCC Generated Code ExplorationPIC®, MPLAB® X, and PICkit™ 4 are trademarks of Microchip Technology Inc.All data sheet references are to Microchip document PIC18F27_47Q10-data-sheet-40002043C, © 2019 - Microchip Technology Inc, available at the time of post publishing here.PIC Memory & RegistersWhile this post does not attempt to completely explore the memory architecture of the processor family, a basic understanding of memory types and basic organization within the processor helps to understand the broad role registers play. On chip memory of the PIC18 high-end devices comes in two primaryflavors, static RAM and flash memory. Contents of flash memory persists after thepower to the microcontroller is removed; it is where application code is stored when the application is compiled and uploaded to the microcontroller via the PICkit 4 programmer /debugger. Unlike flash memory, static RAM does not persist when the power to themicrocontroller is removed; it is “working” memory whosecontent changes frequently through reads and writes as part ofprogram execution.The Data Memory Organization (heading 10.3 of section 10 Memory Organization) of the PIC18F47Q10 datasheet refers to the static RAM in the controller as data memory. This data memory isbroken up into 256-byte banks. As the PIC18 family is based on an8-bit architecture, the smallest atomic unit of memory is 8 bitswide – one byte, hence the bank consisting of 256 bytes, an amount evenly divisible by 8. This data memory element can be thought of as consisting of memoryfor two purposes, registers and application memory.The registers always occupy a specific address in data memory. Application memory contents are managed by the executingapplication. The PIC18 family has two types of 8-bitregisters, from the datasheet they are Special Function Registers(SFRs) and General-Purpose Registers (GPRs). GPRs can bethought of as scratch pads for the processor. An example ofGPR use would be when the current instruction is adding two bytes– the two operand bytes would typically be placed in GPRs and thenmoved into the ALU for the addition operation; most likely the output ofthe ALU operation would then be placed in yet another, or perhaps oneof the same GPRs. Three instructions later those same GPRscould hold two completely different values. The primary registers of interest in this post are SpecialFunction Registers – SFRs. A primary use of SFRs is control andstatus of processor peripherals. As mentioned previously, SFRs, likeall registers in the family, are 8 bits wide. The processormanaged GPIO (General Purpose Input-Output ) SFRs providefunctionality such as holding the logic value (0/1) of processorpins, determining if a particular set of pins (a port) are inputs oroutputs, or if the pins have weak pull up resistors enabled. Other SFRs configure how communication busses such as SPI and I2C operate or how a timer behaves aswell as the current count

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A different pin; this proved that communication in both directions is possible.The code on the PIC microcontroller sits and waits for a packet from the USB host (e.g. PC) and then checks to see if it is a command to toggle an LED, or to send data with the status of another pin. It should be easy to modify this to do more advanced things.The code is attached to the post. If you wish to modify it, you can see where the code for the LED and button press and high-level USB packet handling for them resides here in a file called app_device_custom_hid.c:The command definitions are in that same file. The LED and buttons are defined in a file called io_mapping.h and the actual low-level port input/output for them occurs in files called led.c and buttons.c respectively – nice and simple!SummaryI’m excited to see that the PIC 18F devices have vastly more functionality than the early PICs of yesterday.Nevertheless it would be a nice gesture for Microchip to release a no-support (e.g. community edition) of their full XC8 compiler with no restrictions but we can assume this will not occur.This was just a short review; I certainly will re-visit PIC devices and as mentioned the PIC 18F could well become a popular part for me for general microcontroller use where I may want USB and other basic bits of functionality and not have to redo effort. The 28-pin SOIC and DIP availability of the microcontroller is handy.The MikroElektronika StartUSB for. Diviner - PIC Configuration Bits Tool, free download. Diviner - PIC Configuration Bits Tool 1.7.6: Create, generate, and calculate code for PIC microcontrollers.

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Word size is 16 bits. As all PIC18F47Q10 registers are 8-bits, the 16 bit wide configuration words are realized by two 8-bit registers occupying consecutive physical memory locations.As the elements managed through configuration words are valuesthe processor needs to be available upon startup, those values need to persist across power cycles. Therefore these values reside inflash. Recall that flash memory is written as part of thechip programming managed by MPLAB X and the PICkit 4 programmer/ debugger (or the tool being used to program theprocessor).Turning to the processor datasheet, Section 3 – DeviceConfiguration , the processor has six Configuration Words, ConfigurationWord 1 through Configuration Word 6 residing at memorylocations 300000h through 30000Bh. The memoryoccupied by these six 16 bit long (word) registers is 0x0B (12d)bytes – validating the previous statement of 8 bit registerarchitecture in general, with a word being two 8-bit bytes.Section 3.6 of the datasheet presents a summary of the six Configuration Words.The CONFIG1 configuration word contains those settings related to oscillator and clock management of interest in the application. Theother configuration words deal with settings such as memoryprotection, watchdog timer, code protection, etc. Looking at data sheet’s CONFIG1 definition (section 3.7.1):Bits 2:0 control / configure the external oscillator selection. The project uses the High FrequencyInternal Oscillator which equates to not needing to enable any externaloscillator. The value to use is 100b - Oscillator not enabled. The lowercase 'b' after the value indicated the value is expressed as binary.Bits 6:4 control / configure the CurrentOscillator multiplexer select bits which determines which oscillator is used on reset. The how and where this multiplexer fits into the clocksource can be found in the datasheet section 4 - Oscillator Module, specifically Figure 4.1 COSC:To select the High Frequency Internal Oscillator(HFINTOSC) for this project the RSTOSC (ReSeT OSCillator) value should be 110b. Note that with that value, the initial frequency of the oscillator is also set to 4 MHz(HFFREQ) and the clock divider is set to 4:1 (CDIV). Thesevalues start the processor with a 1MHz clock. Without a subsequent configuration the processor runs with a1MHz system clock. However, the actual final speed of the high frequency internaloscillator and clock divider required by the application can be further configured in user code once the processor isrunning; the CONFIG1 configuration word sets a defaultinternal high frequency oscillator configuration to get thingsstarted.Bit 8 configures the clock signal output to OSC2 unless FEXTOSC = HS, XT or LP. As thisproject is using HFINTOSC, setting this bit to 0b (note that thedata sheet indicates this pin is driven via inverted logic levels)routes FOSC/4 at OSC2.As the CONFIG1H (as well as the other configuration word values)is written to flash to be to be available at processor startup, the compiler must provide a means to specify, as partof the project source code, those values which need to be written to processor flash during the microcontroller memory programming step. Theconfiguration word settings are included as part of the source via #pragma statements. Within C programs, such statementsspecify compiler directives which