BlueBoxShow is a graphical software tool that allows users to easily configure the functions and parameters of iDTRONIC's BlueBox RFID devices. It connects to the devices over Ethernet or serial and displays their current settings which can be read, written, or reset to defaults. The interface provides access to configure settings for networking, antennas, RF protocols, I/O, data storage and more.
Chp3 designing bus system, memory & io copymkazree
The document discusses various concepts related to designing bus systems and interfacing memory and I/O devices with the Motorola 68000 microprocessor. It covers the address and data buses of the 68000, addressing modes, designing memory decoders, generating acknowledge signals, direct memory access, and memory-mapped I/O using devices like the 6821 PIA and 6850 ACIA.
The document discusses various aspects of the ARM-7 architecture including its addressing modes, instruction set, and data processing instructions. It describes 9 different addressing modes including immediate, absolute, indirect, register, register indirect, base plus offset, base plus index, base plus scaled index, and stack addressing. It also provides details about the ARM instruction set, Thumb instruction set, and I/O system. Examples are given to illustrate different instructions such as MOV, SUB, ORR, CMP, MUL, branch instructions, LDR, STR, and SWI.
This document summarizes four problems completed in a lab using a Tiva C Series microcontroller. Problem 1 introduced the microcontroller and Code Composer Studio software. Problem 2 described header files used in the code. Problem 3 explored adjusting clock speeds. Problem 4 provided an overview of the microcontroller platform, peripheral drivers library, and GPIO module. The code caused three LEDs to blink by writing pin values using delays timed based on clock speed.
This document discusses computer instructions and addressing modes. It defines an instruction as consisting of an opcode and address. Common instructions like LOAD, STORE, ADD, and SUB are described. Addressing modes like immediate, direct, indirect, register, and displacement are explained with diagrams. Factors that influence instruction set design like instruction length, encoding schemes, and addressing modes are covered at a high level. The goal is to optimize for speed of fetching and decoding instructions while supporting required functionality.
This document discusses the ARM instruction set and ARM-based microcontrollers. It describes load-store instructions for single and multiple register data transfer. It also covers branch instructions and theThumb instruction set. The document then discusses the LPC2148 ARM-based microcontroller, including its architecture, memory mapping, and peripherals. It notes the microcontroller has flash memory for code/data storage and SRAM for volatile storage, and peripherals are controlled via register access. Finally, it lists some hardware and software tools used for labs.
The document discusses timers in the 8051 microcontroller. It covers the following key points:
- The 8051 has two timers, T0 and T1, that can be configured as event counters or timers.
- Special function registers are used to control the timers' modes, counts, flags, and interrupts.
- Timers count up and set flags when they overflow from their maximum count to 0.
- Interrupts must be enabled for the timers and their overflow flags to trigger an interrupt service routine.
- Reading the two bytes that make up a timer's count requires care to avoid inconsistencies due to the counter changing between reads.
The document provides an introduction to assembly language programming. It explains that assembly language uses mnemonics to represent machine instructions, making programs more readable compared to machine code. An assembler is needed to translate assembly code into executable object code. Assembly language provides direct access to hardware and can be faster than high-level languages, though it is more difficult to program and maintain.
This document provides an overview of the ARM architecture. It discusses:
- ARM Ltd, which designs ARM processor cores and licenses them to partners.
- The ARM instruction set, which includes data processing, load/store, and branch instructions. It is a RISC architecture.
- Key aspects of the ARM programmer's model such as the register set, program status registers, operating modes, and exceptions.
- Details of the ARM instruction set such as conditional execution, data sizes/instruction sets, and how the barrel shifter is used.
Chp3 designing bus system, memory & io copymkazree
The document discusses various concepts related to designing bus systems and interfacing memory and I/O devices with the Motorola 68000 microprocessor. It covers the address and data buses of the 68000, addressing modes, designing memory decoders, generating acknowledge signals, direct memory access, and memory-mapped I/O using devices like the 6821 PIA and 6850 ACIA.
The document discusses various aspects of the ARM-7 architecture including its addressing modes, instruction set, and data processing instructions. It describes 9 different addressing modes including immediate, absolute, indirect, register, register indirect, base plus offset, base plus index, base plus scaled index, and stack addressing. It also provides details about the ARM instruction set, Thumb instruction set, and I/O system. Examples are given to illustrate different instructions such as MOV, SUB, ORR, CMP, MUL, branch instructions, LDR, STR, and SWI.
This document summarizes four problems completed in a lab using a Tiva C Series microcontroller. Problem 1 introduced the microcontroller and Code Composer Studio software. Problem 2 described header files used in the code. Problem 3 explored adjusting clock speeds. Problem 4 provided an overview of the microcontroller platform, peripheral drivers library, and GPIO module. The code caused three LEDs to blink by writing pin values using delays timed based on clock speed.
This document discusses computer instructions and addressing modes. It defines an instruction as consisting of an opcode and address. Common instructions like LOAD, STORE, ADD, and SUB are described. Addressing modes like immediate, direct, indirect, register, and displacement are explained with diagrams. Factors that influence instruction set design like instruction length, encoding schemes, and addressing modes are covered at a high level. The goal is to optimize for speed of fetching and decoding instructions while supporting required functionality.
This document discusses the ARM instruction set and ARM-based microcontrollers. It describes load-store instructions for single and multiple register data transfer. It also covers branch instructions and theThumb instruction set. The document then discusses the LPC2148 ARM-based microcontroller, including its architecture, memory mapping, and peripherals. It notes the microcontroller has flash memory for code/data storage and SRAM for volatile storage, and peripherals are controlled via register access. Finally, it lists some hardware and software tools used for labs.
The document discusses timers in the 8051 microcontroller. It covers the following key points:
- The 8051 has two timers, T0 and T1, that can be configured as event counters or timers.
- Special function registers are used to control the timers' modes, counts, flags, and interrupts.
- Timers count up and set flags when they overflow from their maximum count to 0.
- Interrupts must be enabled for the timers and their overflow flags to trigger an interrupt service routine.
- Reading the two bytes that make up a timer's count requires care to avoid inconsistencies due to the counter changing between reads.
The document provides an introduction to assembly language programming. It explains that assembly language uses mnemonics to represent machine instructions, making programs more readable compared to machine code. An assembler is needed to translate assembly code into executable object code. Assembly language provides direct access to hardware and can be faster than high-level languages, though it is more difficult to program and maintain.
This document provides an overview of the ARM architecture. It discusses:
- ARM Ltd, which designs ARM processor cores and licenses them to partners.
- The ARM instruction set, which includes data processing, load/store, and branch instructions. It is a RISC architecture.
- Key aspects of the ARM programmer's model such as the register set, program status registers, operating modes, and exceptions.
- Details of the ARM instruction set such as conditional execution, data sizes/instruction sets, and how the barrel shifter is used.
This document discusses using counters and delays in microprocessors. It explains that counters can be used to specify how many times an instruction is executed in a loop. A loop counter is loaded into a register and decremented or incremented at each iteration. Delays can be implemented using software instructions like NOP, DCR, and DCX that are executed a number of times. Delays are calculated based on the number of T-states, or clock cycles, required by each instruction. Both 8-bit and 16-bit counters can provide timing delays, with 16-bit allowing for longer maximum delays. Nested loops can also extend delay times.
The document discusses various keyboard and video interrupts used in 8086 processors. It explains that interrupts allow efficient processing of I/O without wasting CPU time waiting. INT 21h is used for keyboard and file operations depending on the value in register AH. INT 16h provides keyboard services like reading keys. INT 10h controls video modes and can set pixels, write text, and get display information. Example programs demonstrate using interrupts to get input, output text, and retrieve the date.
Describes ARM7-TDMI Processor Instruction Set. Explains classes of ARM7 instructions, syntax of data processing instructions, branch instructions, load-store instructions, coprocessor instructions, thumb state instructions.
- Serial communication involves transmitting data one bit at a time over a single wire, using shift registers at the transmitter and receiver. This allows data to be sent over long distances or inherently single-wire mediums like phone lines.
- For asynchronous serial communication, start and stop bits are used to synchronize the transmitter and receiver clocks, since they have small mismatches. This results in a 10-bit frame structure.
- The 8051 microcontroller has built-in support for serial communication through its SBUF register and SCON configuration register. It can implement both synchronous and asynchronous serial protocols for transmitting and receiving serial data.
Introduction to Embedded C for 8051 and Implementation of Timer and Interrupt...Sivaranjan Goswami
In this tutorial first an introduction to Embedded C is given. A few examples are shown. Then the implementation of timer and interrupt are discussed.
For more tutorials visit:
https://sites.google.com/site/enggprojectece
The document summarizes interrupts in the 8051 microcontroller. It discusses the five interrupt sources - two external interrupt lines, two timers, and the serial interface. It describes how to enable interrupts from these sources by setting bits in the interrupt enable register. It also discusses interrupt priorities, vector addresses, and the sequence of events that occurs when an interrupt is triggered and then returned from.
CISC processors use complex instructions to complete tasks in fewer lines of code, while RISC processors use only simple instructions that execute in one clock cycle. ARM introduced the Thumb instruction set, where instructions are 16 bits rather than ARM's 32 bits, to reduce memory requirements. Thumb code takes up around 30% less memory than equivalent ARM code. Thumb instructions allow switching between ARM and Thumb modes and provide stack operations like PUSH and POP with 16-bit instructions, improving code density for embedded systems that typically use RISC architectures.
The document describes a project to simulate and implement E1 tapping, which is the process of intercepting and decoding an E1 communication stream. It involves three main parts:
1. An E1 simulator created in MATLAB that generates an E1 stream from audio inputs.
2. A C# application that extracts the payload from the E1 stream, separates it into 30 channels, and writes each channel to a separate file.
3. A voice recovery unit that prepends headers to the channel files to make the voices playable.
The document discusses various topics related to interfacing an 8051 microcontroller, including:
1. Serial communication between an 8051 and PC using RS-232 and a MAX232 chip.
2. Half-duplex and asynchronous serial communication modes.
3. Addressing modes of the 8051 including register, direct, indirect, and indexed addressing.
4. Instructions sets, registers, and programming of the 8051 microcontroller.
The 8085 microprocessor has an 8-bit architecture with 6 general purpose registers and can address up to 64KB of memory. It uses a multiplexed address/data bus and has features like serial I/O, interrupts, and DMA capabilities. The instruction set includes data movement, arithmetic, logic, and control instructions. Memory is used for the program, data, and stack, which all share the same 64KB address space.
This document summarizes key concepts related to digitizing audio/video for transmission over IP networks. It discusses how analog signals are converted to digital, encoding standards that tradeoff quality for size, and protocols like RTP and RTCP that add sequencing and timing to allow reconstruction of signals despite variable network delays. Real-time transmission requires timely delivery, and buffering at receivers can compensate for small jitter but not packet loss. Standards like H.323 and SIP define signaling protocols to set up multimedia sessions and calls over IP networks.
The document provides details about basic assembly language instructions for the 8086 microprocessor. It discusses data transfer instructions like MOV, PUSH, POP, IN and OUT. Arithmetic instructions such as ADD, SUB, INC, DEC, MUL, DIV are described. Bit manipulation and logic instructions including AND, OR, XOR, TEST, SHR and SHL are covered. String manipulation using MOVS, LODS, STOS and CMPS is explained. The lecture also outlines program flow instructions like CALL, RET, LOOP, JMP and conditional jumps. Examples are provided to illustrate the usage of each instruction type.
The document provides an overview of the ARM instruction set, including data processing, branch, load-store, and program status register instructions. It describes common instruction mnemonics and addressing modes. Key points covered include conditional execution, different instruction types for arithmetic, logical, comparison and multiply operations, and single and multiple register transfer instructions for moving data between registers and memory.
This document describes experiments with analog to digital converters (ADCs) using an 8-bit and 10-bit converter to read voltage input and display the results on a 7-segment LED display. It provides algorithms and code for initializing the ADC, taking samples, and performing conversions to extract the digital values for display. Procedures are outlined for 8-bit and 10-bit conversions using interrupts or polling and arithmetic operations to handle the 10-bit values.
This document provides an overview of peripherals and interfacing using various communication protocols. It discusses the I2C bus protocol for accessing peripheral chips. It covers the operation of the I2C bus including start/stop bits and acknowledgement. It then summarizes the use of various peripherals that interface using I2C including EEPROM, analog to digital converters, LCDs, and sensors. It also covers serial communication protocols like UART and interfacing for devices like keyboards.
A 32-Bit Parameterized Leon-3 Processor with Custom Peripheral IntegrationTalal Khaliq
A new descriptive method to use ARM AHB and APB Bus architecture to add new IP Cores and enhance functionality of 32 bit Processor (Leon3). AHB and APB addressing and GUI enhancement is also discussed.
This document discusses assembler programming for the Atmega328P microcontroller. It begins by explaining the language options for programming the microcontroller, including higher-level languages like C/C++ and assembly language. It describes why learning assembly language is important, particularly for understanding the microcontroller's architecture and writing optimized code. The facilities needed for assembly language programming are outlined, including a text editor, assembler, debugger/simulator, and programmer. An overview of the Atmega328P's instruction set is provided, including classifications and addressing modes. Examples of several common instructions like LDI, ADD, MOV, COM, and JMP are described.
Here are the key steps for how SPI works:
1. The master device initiates the data transfer by selecting a slave device using the chip select (CS) line. This brings the slave device online.
2. The master outputs the clock signal (SCLK) which is used by both the master and slave devices to synchronize the data transfer.
3. The master sends data on the MOSI (master out, slave in) line which the slave receives on its SDI pin in sync with the clock.
4. In parallel, the slave sends data on the MISO (master in, slave out) line which the master receives on its SDO pin, also in sync with the clock.
Chp6 assembly language programming for pic copymkazree
The document discusses assembly language programming for PIC microcontrollers. It covers number representation in assembler, basic elements of PIC assembly like labels, instructions, operands, and directives. It also discusses assembling and linking a PIC program, subroutines, macros, and local directives. An example program is provided to count from 0 to FF and send the count value to port B using subroutines for displaying and delay.
The document provides an overview of the LPC214x microcontroller family from NXP Semiconductors, which features an ARM7 processor, on-chip flash memory, RAM, analog and digital peripherals like USB, SPI, I2C, and GPIO. It describes the memory architecture and maps as well as the system control block and various peripherals included in the MCU, such as timers, serial interfaces, and an ADC. The document also outlines programming and debugging tools available for the LPC214x family like in-system programming, an embeddedICE logic for debugging, and a trace macrocell for instruction tracing.
The document provides an overview of the Analog Devices Blackfin processor BF532. Some key points:
- The BF532 is a high-performance embedded processor designed for audio, video, automotive and other applications. It combines a 32-bit RISC instruction set with dual 16-bit MAC units and 8-bit video processing.
- It features a maximum clock speed of 600MHz, two 16-bit MACs, two 40-bit ALUs, four 8-bit video ALUs, and 148KB of on-chip memory. It supports interfaces like SPI, parallel ports, UART and has peripherals like timers and DMA.
- The document discusses the Blackfin architecture
The document provides an introduction to the R8C/2A and R8C/2B group of microcontroller units (MCUs) from Renesas. It outlines the key features of the MCUs including their 16-bit CPU core, memory sizes ranging from 48KB to 128KB of ROM and 2.5KB to 7.5KB of RAM, and integrated peripherals such as timers, serial interfaces, A/D converters, and watchdogs. Debugging can be done using a single-wire interface through the MODE pin without using other pins. Contact information is provided for purchasing samples or getting technical support.
This document discusses using counters and delays in microprocessors. It explains that counters can be used to specify how many times an instruction is executed in a loop. A loop counter is loaded into a register and decremented or incremented at each iteration. Delays can be implemented using software instructions like NOP, DCR, and DCX that are executed a number of times. Delays are calculated based on the number of T-states, or clock cycles, required by each instruction. Both 8-bit and 16-bit counters can provide timing delays, with 16-bit allowing for longer maximum delays. Nested loops can also extend delay times.
The document discusses various keyboard and video interrupts used in 8086 processors. It explains that interrupts allow efficient processing of I/O without wasting CPU time waiting. INT 21h is used for keyboard and file operations depending on the value in register AH. INT 16h provides keyboard services like reading keys. INT 10h controls video modes and can set pixels, write text, and get display information. Example programs demonstrate using interrupts to get input, output text, and retrieve the date.
Describes ARM7-TDMI Processor Instruction Set. Explains classes of ARM7 instructions, syntax of data processing instructions, branch instructions, load-store instructions, coprocessor instructions, thumb state instructions.
- Serial communication involves transmitting data one bit at a time over a single wire, using shift registers at the transmitter and receiver. This allows data to be sent over long distances or inherently single-wire mediums like phone lines.
- For asynchronous serial communication, start and stop bits are used to synchronize the transmitter and receiver clocks, since they have small mismatches. This results in a 10-bit frame structure.
- The 8051 microcontroller has built-in support for serial communication through its SBUF register and SCON configuration register. It can implement both synchronous and asynchronous serial protocols for transmitting and receiving serial data.
Introduction to Embedded C for 8051 and Implementation of Timer and Interrupt...Sivaranjan Goswami
In this tutorial first an introduction to Embedded C is given. A few examples are shown. Then the implementation of timer and interrupt are discussed.
For more tutorials visit:
https://sites.google.com/site/enggprojectece
The document summarizes interrupts in the 8051 microcontroller. It discusses the five interrupt sources - two external interrupt lines, two timers, and the serial interface. It describes how to enable interrupts from these sources by setting bits in the interrupt enable register. It also discusses interrupt priorities, vector addresses, and the sequence of events that occurs when an interrupt is triggered and then returned from.
CISC processors use complex instructions to complete tasks in fewer lines of code, while RISC processors use only simple instructions that execute in one clock cycle. ARM introduced the Thumb instruction set, where instructions are 16 bits rather than ARM's 32 bits, to reduce memory requirements. Thumb code takes up around 30% less memory than equivalent ARM code. Thumb instructions allow switching between ARM and Thumb modes and provide stack operations like PUSH and POP with 16-bit instructions, improving code density for embedded systems that typically use RISC architectures.
The document describes a project to simulate and implement E1 tapping, which is the process of intercepting and decoding an E1 communication stream. It involves three main parts:
1. An E1 simulator created in MATLAB that generates an E1 stream from audio inputs.
2. A C# application that extracts the payload from the E1 stream, separates it into 30 channels, and writes each channel to a separate file.
3. A voice recovery unit that prepends headers to the channel files to make the voices playable.
The document discusses various topics related to interfacing an 8051 microcontroller, including:
1. Serial communication between an 8051 and PC using RS-232 and a MAX232 chip.
2. Half-duplex and asynchronous serial communication modes.
3. Addressing modes of the 8051 including register, direct, indirect, and indexed addressing.
4. Instructions sets, registers, and programming of the 8051 microcontroller.
The 8085 microprocessor has an 8-bit architecture with 6 general purpose registers and can address up to 64KB of memory. It uses a multiplexed address/data bus and has features like serial I/O, interrupts, and DMA capabilities. The instruction set includes data movement, arithmetic, logic, and control instructions. Memory is used for the program, data, and stack, which all share the same 64KB address space.
This document summarizes key concepts related to digitizing audio/video for transmission over IP networks. It discusses how analog signals are converted to digital, encoding standards that tradeoff quality for size, and protocols like RTP and RTCP that add sequencing and timing to allow reconstruction of signals despite variable network delays. Real-time transmission requires timely delivery, and buffering at receivers can compensate for small jitter but not packet loss. Standards like H.323 and SIP define signaling protocols to set up multimedia sessions and calls over IP networks.
The document provides details about basic assembly language instructions for the 8086 microprocessor. It discusses data transfer instructions like MOV, PUSH, POP, IN and OUT. Arithmetic instructions such as ADD, SUB, INC, DEC, MUL, DIV are described. Bit manipulation and logic instructions including AND, OR, XOR, TEST, SHR and SHL are covered. String manipulation using MOVS, LODS, STOS and CMPS is explained. The lecture also outlines program flow instructions like CALL, RET, LOOP, JMP and conditional jumps. Examples are provided to illustrate the usage of each instruction type.
The document provides an overview of the ARM instruction set, including data processing, branch, load-store, and program status register instructions. It describes common instruction mnemonics and addressing modes. Key points covered include conditional execution, different instruction types for arithmetic, logical, comparison and multiply operations, and single and multiple register transfer instructions for moving data between registers and memory.
This document describes experiments with analog to digital converters (ADCs) using an 8-bit and 10-bit converter to read voltage input and display the results on a 7-segment LED display. It provides algorithms and code for initializing the ADC, taking samples, and performing conversions to extract the digital values for display. Procedures are outlined for 8-bit and 10-bit conversions using interrupts or polling and arithmetic operations to handle the 10-bit values.
This document provides an overview of peripherals and interfacing using various communication protocols. It discusses the I2C bus protocol for accessing peripheral chips. It covers the operation of the I2C bus including start/stop bits and acknowledgement. It then summarizes the use of various peripherals that interface using I2C including EEPROM, analog to digital converters, LCDs, and sensors. It also covers serial communication protocols like UART and interfacing for devices like keyboards.
A 32-Bit Parameterized Leon-3 Processor with Custom Peripheral IntegrationTalal Khaliq
A new descriptive method to use ARM AHB and APB Bus architecture to add new IP Cores and enhance functionality of 32 bit Processor (Leon3). AHB and APB addressing and GUI enhancement is also discussed.
This document discusses assembler programming for the Atmega328P microcontroller. It begins by explaining the language options for programming the microcontroller, including higher-level languages like C/C++ and assembly language. It describes why learning assembly language is important, particularly for understanding the microcontroller's architecture and writing optimized code. The facilities needed for assembly language programming are outlined, including a text editor, assembler, debugger/simulator, and programmer. An overview of the Atmega328P's instruction set is provided, including classifications and addressing modes. Examples of several common instructions like LDI, ADD, MOV, COM, and JMP are described.
Here are the key steps for how SPI works:
1. The master device initiates the data transfer by selecting a slave device using the chip select (CS) line. This brings the slave device online.
2. The master outputs the clock signal (SCLK) which is used by both the master and slave devices to synchronize the data transfer.
3. The master sends data on the MOSI (master out, slave in) line which the slave receives on its SDI pin in sync with the clock.
4. In parallel, the slave sends data on the MISO (master in, slave out) line which the master receives on its SDO pin, also in sync with the clock.
Chp6 assembly language programming for pic copymkazree
The document discusses assembly language programming for PIC microcontrollers. It covers number representation in assembler, basic elements of PIC assembly like labels, instructions, operands, and directives. It also discusses assembling and linking a PIC program, subroutines, macros, and local directives. An example program is provided to count from 0 to FF and send the count value to port B using subroutines for displaying and delay.
The document provides an overview of the LPC214x microcontroller family from NXP Semiconductors, which features an ARM7 processor, on-chip flash memory, RAM, analog and digital peripherals like USB, SPI, I2C, and GPIO. It describes the memory architecture and maps as well as the system control block and various peripherals included in the MCU, such as timers, serial interfaces, and an ADC. The document also outlines programming and debugging tools available for the LPC214x family like in-system programming, an embeddedICE logic for debugging, and a trace macrocell for instruction tracing.
The document provides an overview of the Analog Devices Blackfin processor BF532. Some key points:
- The BF532 is a high-performance embedded processor designed for audio, video, automotive and other applications. It combines a 32-bit RISC instruction set with dual 16-bit MAC units and 8-bit video processing.
- It features a maximum clock speed of 600MHz, two 16-bit MACs, two 40-bit ALUs, four 8-bit video ALUs, and 148KB of on-chip memory. It supports interfaces like SPI, parallel ports, UART and has peripherals like timers and DMA.
- The document discusses the Blackfin architecture
The document provides an introduction to the R8C/2A and R8C/2B group of microcontroller units (MCUs) from Renesas. It outlines the key features of the MCUs including their 16-bit CPU core, memory sizes ranging from 48KB to 128KB of ROM and 2.5KB to 7.5KB of RAM, and integrated peripherals such as timers, serial interfaces, A/D converters, and watchdogs. Debugging can be done using a single-wire interface through the MODE pin without using other pins. Contact information is provided for purchasing samples or getting technical support.
The document provides an overview of the key features and architecture of NXP Semiconductors' LPC213x microcontroller family. The LPC213x MCUs are based on an ARM7TDMI-S CPU with on-chip flash memory and RAM. They include features such as GPIO ports, UARTs, I2C interfaces, SPI, PWM, ADC, DAC, RTC, and watchdog timer. The MCUs also support in-system programming, debugging via EmbeddedICE, and instruction tracing with an embedded trace macrocell.
The document provides an overview of the STM32 MCU family from STMicroelectronics. It discusses the key features such as an ARM Cortex-M3 core, Flash memory up to 512KB, SRAM up to 64KB, low power modes, timers, and communication peripherals. It also outlines the applications for industrial equipment, appliances, low power devices, and consumer electronics. Finally, it gives a high-level description of the system architecture and various peripherals including DMA, ADC, DAC, communication interfaces, and watchdogs.
NetSim Technology Library- Military radio-tdma-and-dtdmaVishal Sharma
This document describes the features and usage of NetSim's military radio module, which supports TDMA and DTDMA protocols. It discusses how to set up a simulation scenario in NetSim, configure node and environment properties, run the simulation, and view results. Key features covered include node join/leave functionality, DTDMA packet size limits, and using the DTDMA slot planner to allocate slots to nodes in a predefined pattern. Example simulations demonstrate TDMA slot allocation and analyzing results, as well as DTDMA packet size analysis and round robin slot allocation.
Summer training project report on embedded system at BSNL ALTTC Ghaziabad. Submitted by RAM AVTAR (ECE Department of IMSEC) of 2016 Batch. Submitted in IMS Engineering College, Gaziabad
The document summarizes a technical workshop on wireless sensor networks. It provides an overview of the hardware and software used, including the Tmote Sky and EE sensor nodes, the iNode embedded PCs, and the TinyOS software platform. It also describes the Job scheduling system and iPlatform that are used to define and run experiments on the testbed.
A data acquisition system consists of components to sense physical phenomena using transducers, condition the electrical signals, convert the analog signals to digital format, and process the data using software. Transducers sense phenomena and produce analog electrical signals, which are then conditioned and amplified. An analog-to-digital converter samples the analog signals at a rate and resolution and converts them to digital format. Data acquisition software transforms the computer and hardware into a system that can analyze, store, and display the acquired data. Factors to consider in designing such a system include the type of input signals, frequency, resolution, and compatibility of hardware and software components.
This document describes the measurement configurations and procedures for DAB receiver testing using National Instruments PXI Vector Signal Generators and MaxEye DAB/DABPlus/T-DMB Signal Generation software.
The document summarizes the DS28EA00 digital thermometer sensor. It can measure temperatures from -40°C to +85°C with 9-12 bit resolution. It uses a 1-Wire interface requiring just one port pin and has a unique 64-bit ID number. It contains two general purpose pins that can be used to detect the physical sequence of devices in a network. Target applications include temperature monitoring in servers, data centers, and wireless basestations.
This document provides instructions for using demo software to test RFID tags. It allows the user to:
1. Open communication ports and set parameters to connect to an RFID reader.
2. Configure the reader's work mode and test operations such as querying tags, reading and writing tag data, and setting access permissions.
3. Explain key concepts like tag memory organization and data display formats.
4. Provide step-by-step examples for common tag operations including reading EPC and TID, password setting, and filtering tagged items.
This document provides instructions for configuring IEC 61850, GOOSE, FTP, and HTTP communication for Easergy P3 devices. It describes setting the main IEC 61850 configuration parameters such as IED name, logical nodes, data sets, and redundancy protocol. It also explains how to configure GOOSE publishing and subscribing, as well as file transfer using FTP. The document contains step-by-step examples for common configuration tasks.
This document discusses the development of a low-cost target board based on the AT89C52 microcontroller for embedded system design. It provides an overview of the target board configuration, development tools used like the SDCC cross-compiler and PAULMON monitor program, and the testing process to test minimal hardware boot, program download to RAM, and peripheral functions. The target board aims to provide students free and open access to embedded design.
This document outlines the course content for EEE226 Microprocessor course taught by Dr. Zaini Abdul Halim. The course aims to help students understand microprocessor architecture, assembly language programming, and interfacing microprocessors to external devices. It will be evaluated based on hands-on tests, theoretical tests, lab reports, and a final project. Topics covered include the 8085 microprocessor architecture, programming, and applications. The syllabus lists weekly labs and activities covering concepts like I/O devices, ADCs, DACs, and interrupts.
Protected Addressing Mode allows the operating system to use virtual memory, paging, and multi-tasking features to increase control over applications. It enables access to memory above 1MB by changing from a segment+offset scheme to logical to physical address translation using descriptor tables and paging. Paging organizes physical memory into pages of 4KB each that are mapped to linear addresses using page directories and page tables controlled by CPU registers like CR3 for the page directory base address.
The maintenance is an important process within productions in Industry 4.0. The analysis of past data is important for proper testing and measurement. Our G3 RFID Tablets are an optimal RFID tablet computer solution for maintenance of machines and devices. The integrated RFID HF NFC function reads important data stored on the RFID tags. We offer a tablet computer solution for Windows and Android users.
Link: https://en.idtronic-rfid.com/white-paper-2/maintenance/
Die TTR-10AK | TTR-10AT Tripod Drehsperre ist eine platzsparende Sperrvorrichtung für Ihre Zutrittskontroll-bereiche. Dieses motorisierte Zutrittssystem wurde speziell für öffentliche Transportmittel, Flughäfen, Bürogebäude, Bahnhöfe oder Banken mit geringem Platzbedarf entwickelt. Die TTR-10AK ist durch die glatte Oberfläche für die Montage an Wänden geeignet. TTR-10AT ist speziell für Handläufe in Bussen oder für Geländer konzipiert worden. Sie wird im Transportwesen im Rahmen von automatischen Fahrgeldmanagementsystemen eingesetzt.
Press Release: iDTRONIC‘s C9 RFID Handheld Computer Series - RFID Mobile Term...iDTRONIC Marketing
Our proven Android 7 RFID handheld series has evolved into our new Android 9 RFID handheld series. The latest Android 9 ”Pie“ Version has been adapted to the current IoT requirements. The new operating system focuses on performance, stability and energy efficiency — ensuring longer battery life. This is primarily achieved using artificial intelligence. Android 9 also improves the security of smartphones. The background activities of apps will be more limited with the new version. As a rule, applications will now only have access to the camera and microphone if they are running in the foreground. The new C9 RFID Handhelds are available in 3 different versions. We offer an C9 Handheld, a related GUN Version and a C9 Tablet. The smart devices are designed for the latest Industry 4.0 and IoT applications.
iDTRONICs RFID Desktop Reader EVO HF 2.0: HID oder VCP – Einstellbare Datenau...iDTRONIC Marketing
Neueste Industrie 4.0 und IoT Applikationen erfordern modernde Anbindungsmöglichkeiten. Fortschrittliche Technologien benötigen valide und funktionierende Systeme und Kommunikationsmöglichkeiten. Der EVO Desktop Reader HF 2.0 von iDTRONIC ist ein RFID Reader & Writer und verknüpft Komponenten neuester Technik und bewährter Standards.
iDTRONIC, the leading manufacturer of embedded RFID products in Germany, now delivers the RFID Embedded Module M900 on a Tape & Reel roll. This SMD solution was developed to simplify large-volume production of electronics with RFID components. It is ideally suited for industry 4.0 applications in highly automated production environments.
Pressemitteilung der iDTRONIC GmbH vom 26. Februar 2019 | TTR-04CW: Outdoor D...iDTRONIC Marketing
Wir freuen uns, Ihnen heute eine Drehsperre aus unserem Produktportfolio vorstellen zu dürfen: Die TTR-04CW Dreiarm Drehsperre.
Die Dreiarm Drehsperre TTR-04CW ist eine optimale Zutrittskontrolllösung für Ski-Resorts.
Die speziell für den Einsatz im Außenbereich konzipierte schmale Drehsperre ist eine platzsparende Lösung.
Die große Zutrittstiefe eignet sich optimal für den barrierefreien Zugang mit Skiern und weiterem Ski-Equipment.
Press Release: iDTRONIC‘s RFID Polyester Laundry Tag - Reliably Identify Text...iDTRONIC Marketing
The UHF Polyester Laundry Tag has been developed specifically for professional cleaning of linen and textiles.
The label is flat and compact, with dimensions of 60 × 20 mm and a depth of 2.1 mm.
The UHF Polyester Laundry Tag is suitable for many applications within laundries, textile cleaning services, hotels, cruise ships and hospitals.
iDTRONIC GmbH is a leading supplier of RFID hardware with 4 business units and products for all typical RFID applications. It was founded in 2003 in Ludwigshafen, Germany and has 15 employees. In 2015 it generated revenue of approximately 3.1 million Euros, selling 40% of products in Germany, 50% in other European countries, and 10% in the rest of the world through sales partners, distributors, resellers and system integrators. One of its products is the C4 TABLET L, an industrial RFID tablet with an 8-inch touchscreen, internal RFID reader, Android operating system, and features making it suitable for applications in warehousing, retail, logistics
iDTRONIC stands for identification electronics.
Get to know our core competences here:
- INNOVATIVE RFID Products
- WIDE-RANGING for a lot of applications
- Latest Technology for long lasting lifetime
- STRONG performance for the most advanced applications
- POWERFUL SDK’s for easy integration
- UNIQUE devices developed for your individual needs
- RELIABLE due to more than 15 years experience
- HIGH PRODUCT QUALITY due to robust design
This document provides information about iDTRONIC Professional RFID, a supplier of RFID hardware products. It discusses iDTRONIC's core competencies in RFID technology, its BLUEBOX Professional RFID product line which includes RFID controllers, readers and antennas, and various applications of RFID technology such as retail, factory automation, and logistics where iDTRONIC's products provide benefits like optimized processes and increased efficiency.
Industry 4.0 refers to the current trend of automation and data exchange in manufacturing technologies. It involves cyber-physical systems where physical processes are monitored and controlled by interconnected computing devices. The document discusses the evolution of industry from water and steam power to modern information technologies. It also describes how iDTRONIC offers RFID devices that are well-suited for Industry 4.0 applications through features that help minimize costs, simplify development, and reduce lead times of RFID and Auto-ID solutions.
Complex terms such as UHF, HF or LF are nowadays made compact and easy to fit in to match the #DayofSimplicity. Become an #UHF #HF and #LF expert with our overview.
All our iDTRONIC blueboxes support UHF, HF and LF frequencies. Therefore you are well prepared for all requirements in the following areas:
- Industrial Automation
- Asset Tracking
- Animal Identification
- Waste Management
- Retail
- Access Control
Further information:
https://www.en.idtronic-rfid.com/industrial-reader
https://www.en.idtronic-rfid.com/industrial-readers
Using recycled concrete aggregates (RCA) for pavements is crucial to achieving sustainability. Implementing RCA for new pavement can minimize carbon footprint, conserve natural resources, reduce harmful emissions, and lower life cycle costs. Compared to natural aggregate (NA), RCA pavement has fewer comprehensive studies and sustainability assessments.
KuberTENes Birthday Bash Guadalajara - K8sGPT first impressionsVictor Morales
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Batteries -Introduction – Types of Batteries – discharging and charging of battery - characteristics of battery –battery rating- various tests on battery- – Primary battery: silver button cell- Secondary battery :Ni-Cd battery-modern battery: lithium ion battery-maintenance of batteries-choices of batteries for electric vehicle applications.
Fuel Cells: Introduction- importance and classification of fuel cells - description, principle, components, applications of fuel cells: H2-O2 fuel cell, alkaline fuel cell, molten carbonate fuel cell and direct methanol fuel cells.
Electric vehicle and photovoltaic advanced roles in enhancing the financial p...IJECEIAES
Climate change's impact on the planet forced the United Nations and governments to promote green energies and electric transportation. The deployments of photovoltaic (PV) and electric vehicle (EV) systems gained stronger momentum due to their numerous advantages over fossil fuel types. The advantages go beyond sustainability to reach financial support and stability. The work in this paper introduces the hybrid system between PV and EV to support industrial and commercial plants. This paper covers the theoretical framework of the proposed hybrid system including the required equation to complete the cost analysis when PV and EV are present. In addition, the proposed design diagram which sets the priorities and requirements of the system is presented. The proposed approach allows setup to advance their power stability, especially during power outages. The presented information supports researchers and plant owners to complete the necessary analysis while promoting the deployment of clean energy. The result of a case study that represents a dairy milk farmer supports the theoretical works and highlights its advanced benefits to existing plants. The short return on investment of the proposed approach supports the paper's novelty approach for the sustainable electrical system. In addition, the proposed system allows for an isolated power setup without the need for a transmission line which enhances the safety of the electrical network
Literature Review Basics and Understanding Reference Management.pptxDr Ramhari Poudyal
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Understanding Inductive Bias in Machine LearningSUTEJAS
This presentation explores the concept of inductive bias in machine learning. It explains how algorithms come with built-in assumptions and preferences that guide the learning process. You'll learn about the different types of inductive bias and how they can impact the performance and generalizability of machine learning models.
The presentation also covers the positive and negative aspects of inductive bias, along with strategies for mitigating potential drawbacks. We'll explore examples of how bias manifests in algorithms like neural networks and decision trees.
By understanding inductive bias, you can gain valuable insights into how machine learning models work and make informed decisions when building and deploying them.
TIME DIVISION MULTIPLEXING TECHNIQUE FOR COMMUNICATION SYSTEMHODECEDSIET
Time Division Multiplexing (TDM) is a method of transmitting multiple signals over a single communication channel by dividing the signal into many segments, each having a very short duration of time. These time slots are then allocated to different data streams, allowing multiple signals to share the same transmission medium efficiently. TDM is widely used in telecommunications and data communication systems.
### How TDM Works
1. **Time Slots Allocation**: The core principle of TDM is to assign distinct time slots to each signal. During each time slot, the respective signal is transmitted, and then the process repeats cyclically. For example, if there are four signals to be transmitted, the TDM cycle will divide time into four slots, each assigned to one signal.
2. **Synchronization**: Synchronization is crucial in TDM systems to ensure that the signals are correctly aligned with their respective time slots. Both the transmitter and receiver must be synchronized to avoid any overlap or loss of data. This synchronization is typically maintained by a clock signal that ensures time slots are accurately aligned.
3. **Frame Structure**: TDM data is organized into frames, where each frame consists of a set of time slots. Each frame is repeated at regular intervals, ensuring continuous transmission of data streams. The frame structure helps in managing the data streams and maintaining the synchronization between the transmitter and receiver.
4. **Multiplexer and Demultiplexer**: At the transmitting end, a multiplexer combines multiple input signals into a single composite signal by assigning each signal to a specific time slot. At the receiving end, a demultiplexer separates the composite signal back into individual signals based on their respective time slots.
### Types of TDM
1. **Synchronous TDM**: In synchronous TDM, time slots are pre-assigned to each signal, regardless of whether the signal has data to transmit or not. This can lead to inefficiencies if some time slots remain empty due to the absence of data.
2. **Asynchronous TDM (or Statistical TDM)**: Asynchronous TDM addresses the inefficiencies of synchronous TDM by allocating time slots dynamically based on the presence of data. Time slots are assigned only when there is data to transmit, which optimizes the use of the communication channel.
### Applications of TDM
- **Telecommunications**: TDM is extensively used in telecommunication systems, such as in T1 and E1 lines, where multiple telephone calls are transmitted over a single line by assigning each call to a specific time slot.
- **Digital Audio and Video Broadcasting**: TDM is used in broadcasting systems to transmit multiple audio or video streams over a single channel, ensuring efficient use of bandwidth.
- **Computer Networks**: TDM is used in network protocols and systems to manage the transmission of data from multiple sources over a single network medium.
### Advantages of TDM
- **Efficient Use of Bandwidth**: TDM all
2. BlueBoxShow
BlueBoxShow, free of charge and included in the BlueBox SDK, is the graphical testing
and configuration tool that with just few clicks customizes the functions of any BlueBox
RFID devices.
Please note that not all the functions included in this guide will be displayed in any
BlueBox. The software itself will show only the parameters that are meant to be
managed. This guide refers to BlueBox CX series, but can be used with any BlueBox
device.
3. Connection
MAIN BAR MENU
File: load or save a configuration (functionality not yet implemented)
Edit: activate/deactivate «beep» on tag event.
Open Engineering mode (only for soltec developers)
Engineering Mode: reserved for manufacturer
Upgrade: safely upgrade the firmware
Demos: spontaneous mode demo
About: shows information about firmware and hardware
INTERFACE
In order to connect the device to the BlueBoxShow first of all it is necessary to choose the
proper interface between Ethernet (TCP) or Serial (RS232 / RS485).
For TCP connection the default IP address is 192.168.4.200 (Port 3000). For serial the defaults
are baud rate 19200 bps, 8 data bits, 1 stop bit and no parity check. Indeed the correct serial
port must be selected first.
Address
Default is 255, but any number between 1-255 can be assigned to a a device part of a RS485
network.
SHORTCUT ICONS
4. Configuration
Right after the connection the device version is shown in the highlighted blue panel
(in the picture BLUEBOX CX UHF LONG RANGE DUAL CHANNEL)
The Commands colon contains all the parameters controlled by the BlueBoxShow.
Read: reads the stored values, Write: saves the values in the memory (a reboot may be required)
Default: calls the factory default values
Configuration:
This panel allows to set network Address node of the device, and the
serial communication parameters.
Filter Time:
It is used to avoid multiple detections of the same tag. The Filter time
says the device to ignore the tag after the detection for the specified
time.
Buzzer activation on new
tag event:
enables/disable the buzzer on tag detection
Relay 1 activation on tag
present:
activate the Relay1, the behaviour is controlled in the I/O configuration
section.
Reading antenna
Information:
upon tag detection, enables/disables adding
the antenna information together with the tag ID
Tag type information:
upon tag detection, enables/disables adding
the tag information together with the tag ID
Spontaneous mode: enables/disables the spontaneous mode
Continuos mode
triggered by inputs:
by enabling this option the continuos mode
is controlled in the I/O configuration panel
Continuos mode: enables/disables the continous mode
5. Ethernet configuration –
Remote IP configuration
Ethernet Configuration: view/change the IP address, TCP Port,
Subnet Mask and Gateway Address
Remote IP Configuration: it is possible to stream the readings
to a remote server by specifing the
IP address and the TCP listening Port
Read: reads the stored values, Write: saves the values in the memory (a reboot may be required)
Default: calls the factory default values
6. Wiegand configuration –
Can Bus configuration
Wiegand Configuration: set the Wiegand parameters
(it applies only to Wiegand versions)
Can Bus Configuration: set the Can Bus parameters
(it applies only to Can Bus versions)
Read: reads the stored values, Write: saves the values in the memory (a reboot may be required)
Default: calls the factory default values
7. I/O Configuration –
Spontaneous Configuration
Input mode 1: sets the behaviour when Input 1 is in ON or OFF state
Input mode 2: not yet implemented in the firmware
Antibump input time: sets the time to manage the antibump
(default time is 50 msec)
Trigger mode extend time: extends the reaction time of the input
Gate mode cross time: when enabled the device, for the specified
time, is set to idenfy the crossing gate direction
Output 1 activation time: sets the oper relay time
Interfaces: it is possible to choose through the checkboxes, the
interfaces where to send the spontaneous message to
Read: reads the stored values, Write: saves the values in the memory (a reboot may be required)
Default: calls the factory default values
8. RF Configuration
RF geographical region: Europe (ETSI) or North America (FCC)
RF output power: from 0dBM to the Max supported
(27 for 500mW, 30 for 1W)
RF input sensitivity: the lower, the more tags are detected
RF Channel: it is possible to choose between 10 channels for ETSI and
50 for FCC. Very useful to avoid interferences where more
readers are working simultaneously
Antennas: the checkboxes control which antenna is active
RF Channel max allocation time: according to the application it is
possible to specify the max
allocation time of the specific channel
RF Channel min pause time: according to the application it is possible to
specify the pause time of the specific channel
RF chip standby mode: puts the RF chip in standby
Read: reads the stored values, Write: saves the values in the memory (a reboot may be required)
Default: calls the factory default values
9. EPC C1G2 Configuration
Inventory mode: Fast take the tag to the acknowleged mode, Standard to the Opened
mode. The first is faster the second is more secure. Multi does anticollision procedure,
Single no.
T=>R link frequency: defaults suggested, refer to the product manual.
T=>R bit coding: defaults suggested, refer to the product manual.
Q tuning section
Q tells the reader informations about the number of tags that could be expected in the field
according with the equation n=2Q so, if the Q value is set to 0 and the Q algorithm to fixed
the reader expects 1 tag in the field. When the Q algorithm is set to Dynamic, the reader
changes automatically the values to match the actual scenario.
Tags singulation search mode: according to the EPC C1G2 specifications, an UHF tag
when energized puts its state from A to B, when selected Dual Target the reader looks for
tags that are in A and B state, when selected Single Target the reader looks for tags that are
in the specified Target
Session: indicates which is the session managed by the reader. For further informations
refers to EPC C1G2 specifications
EPC size: indicates the amount of EPC memory that will be used.
ReadAfterDetect (RAD) info: tells the reader what to read after the tag detection (TID, or
custom)
RAD Bank: if Custom is selected then it is possible to specify which memory bank to read
from, between EPC, TID or User
RAD blocks: when Custom is selected then it is possible to specify the number of blocks to
read
ReadAfter Detec EPC info: select The EPC bank info to include in the tag’s ID in
ReadAfterDetect mode
Read: reads the stored values, Write: saves the values in the memory (a reboot may be required)
Default: calls the factory default values
10. Dynamic Power Configuration -
Temperature
Dynamic Power Configuration:
when set to ‘on’ the reader changes the power according to the
specified parameters. While changing its power, it changes the shape of
the lobe as well. This could increase the reading range of the device.
Temperature
Internal Temperature of the device is shown.
Read: reads the stored values, Write: saves the values in the memory (a reboot may be required)
Default: calls the factory default values
11. Data request – Queue request
Data Request:
when Request button is pressed the panel shows the tag in the reading
range, if infinite request is flagged the reader keep searching until
stopped.
Clear: clears the panel.
Export: exports in .csv file the Data Request panel content.
Queue Request:
when Request button is pressed the panel shows all the tags red by the
device since the last request. Due to memory limit a total of approx
1000 readings are stored
Export: exports in .csv file the Queue Request panel content
Read: reads the stored values, Write: saves the values in the memory (a reboot may be required)
Default: calls the factory default values
12. Records - Output
Records:
In this panel are shown the stored readings (for BlueBox with Real Time
Clock, time stamp is added)
Number of: returns the number of readings stored in the flash memory
Read All: reads the content of the memory
Re-read: updates and reads the content of the memory
Reset All: clears the flash memory and the panel
Clear: clears the panel only
Export: saves the content as .csv file
Output:
Within this panel it is possible to test the output activating countinuosly
or impulsively Relay1 and Relay2
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
13. Reader Status – Reading Test
Reader Status
panel that shows what’s on and what’s off in the BlueBox
Reading Test:
when set to ON, the readers beeps continuosly when a tag is in the
field. This functionality is useful when testing reading ranges.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
14. RF Power Test – RF Sensitivity Test
RF Power Test
This test Panel returns the RF Power
RF Sensitivity Test
This test Panel returns the RF Sensitivity
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
15. RF ON/OFF
For test and lab purpose only. It switches the RF power on the selected
channel.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
16. Inventory – Program EPC
Inventory:
When Request is pressed, each tag in the reading range appears in the panel. Additionally
by flagging the Get the RSSI of the transponders it is also possible to have, for each tag,
the indication of the Receive Signal Strenght Indicator that shows the signal strenght.
If Infinite Request is flagged the reader keeps looking for the TAGs in the field.
Program EPC
In order to write the EPC area of a tag it is necessary to select a tag by pressing the
magnifier Icon. Once selected, please fill in the blanks and press write.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
17. Read – Write
Read
By pressing the magnifier, please choose between the tags within the reading range
the one to operate with. Then from the scroll down menu select which memory bank
read from, the starting address and the number of blocks. End the operation by
pressing ‘Read’ so that the values will be displayed in the panel.
Write
By pressing the magnifier choose between the tags within the reading range the one
to operate with. Then from the scroll down menu select which memory bank write
to, the starting address and the number of blocks. End the operation by pressing
‘write’ so that the values will be stored in the tag.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
18. Blockwrite – Lock
Blockwrite
By pressing the magnifier choose between the tags within the reading range the one
to operate with. Then from the scroll down menu select which memory bank write
to, the starting address and the number of blocks. End the operation by pressing
‘write’ so that the values will be stored in the tag. While ‘write’ writes one block at a
time, blockwrite writes all the blocks in one operation, so its faster, but it is not
supported by all the tags.
Lock
By pressing the magnifier, choose between the tags within the reading range the
one to operate with. Then from the scroll down menu select which memory bank to
lock. End the operation by pressing ‘Lock’.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
19. Kill
Kill
By pressing the magnifier, choose between the tags within the reading
range the one to operate with. Then input the kill Password. End the
operation by pressing ‘Kill’.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
20. Monza 4QT
Monza 4QT
Bluebox UHF CX series, manage the double memory profile of Impinj
Monza QT chips. Please refers to the Monza 4QT manual.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
21. Magnus S2
Magnus S2
Bluebox UHF CX series, manage the RFMicron Magnus Sensor Tags. For further
details please refer to the RFMicron Magnus Sensor Tags manual.
Press the magnifier in order to select the tag to operate with. From the scroll down
menu it is possible to set reading criteria (up or under the threesold), the threesold.
After pressing the sent button, the readings are graphically shown in the ‘Read
Sensor Code’ menu.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values
22. Magnus S3
Magnus S3
Bluebox UHF CX series, manage the RFMicron Magnus Sensor Tags. For further
details please refer to the RFMicron Magnus Sensor Tags manual.
Press the magnifier in order to select the tag to operate with. From the scroll down
menu it is possible to set reading criteria (up or under the threesold), the threesold.
After pressing the sent button, the readings are graphically shown in the ‘Read
Sensor Code’ and Read Temperature menus.
Read: reads the stored values, Write: saves the values in the memory
(a reboot may be required) Default: calls the factory default values