Java User’s Guide

Figures

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Figures

 

 

Figure 1:

Overview

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Figure 2:

Installation of Eclipse ME-Plugin 1.2.3: Dialog box Feature Updates

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Figure 3:

Installation of Eclipse ME-Plugin 1.2.3: Dialog box Updates sites to visit

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Figure 4:

Installation of Eclipse ME-Plugin 1.2.3: dialog box Search Results

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Figure 5:

Installation of Eclipse ME-Plugin 1.2.3: dialog box Restart Eclipse

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Figure 6:

Interface Configuration

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Figure 7:

Data flow of a Java application running on the module

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Figure 8:

Module State 1

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Figure 9:

Module State 2

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Figure 10:

Module State 4

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Figure 11:

Module State 5

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Figure 12:

Module State Transition Diagram

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Figure 13:

Test case for measuring Java command execution throughput

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Figure 14:

Test case for measuring Java MIDlet performance and handling pin-IO

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Figure 15:

Scenario for testing data rates on ASC1

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Figure 16:

Scenario for testing data rates on ASC1 with a voice call in parallel

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Figure 17:

Scenario for testing data rates on ASC1 with GPRS data upload

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Figure 18:

Scenario for testing data rates on ASC1 with GPRS data download

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Figure 19:

OTAP Overview

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Figure 20:

OTAP: Install/Update Information Flow (messages in brackets are optional)

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Figure 21:

OTAP: Delete Information Flow (messages in brackets are optional)

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Figure 22:

Create new Eclipse project: Create a J2ME MIDP Midlet Suite

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Figure 23:

Create new Eclipse project: New J2ME Project

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Figure 24:

Create new Eclipse project: Midlet Suite Properties

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Figure 25:

Create new Eclipse project: work area with new created project

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Figure 26:

Create new Eclipse project: Create a J2ME Midlet

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Figure 27:

Create new Eclipse project: Create a New J2ME Midlet

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Figure 28:

Create new Eclipse project: Edit some Java commands

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Figure 29:

Create new Eclipse project: Edit “deployed” path to Jar file

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Figure 30:

Data flow of a Java application in the debug environment

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Figure 31:

NetBeans IDE 5.0 - installed emulators

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Figure 32:

NetBeans IDE 5.0 - Switching to IMP-NG emulator

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Figure 33:

NetBeans IDE 5.0 - Selecting an IMP-NG MIDlet template

 

 

(e.g. project “Test”)

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Figure 34:

NetBeans IDE 5.0 - selecting sample project “Hello World Sample”

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Figure 35:

NetBeans IDE 5.0 - confirmation of sample project “Hello World Sample” ....

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Figure 36:

NetBeans IDE 5.0 - add emulator option “-noload”

 

 

(e.g. project “HelloSample”)

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Figure 37:

NetBeans IDE 5.0 - Displaying Java “System.out” in NetBeans IDE window

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Figure 38:

Eclipse – Display of different integrated emulators

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Figure 39:

Eclipse – J2ME platform

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Figure 40:

Eclipse with ME Plugin 1.5.0 – Display of different integrated emulators

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Figure 41:

Eclipse with ME Plugin 1.5.0 – J2ME platform

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Figure 42:

Eclipse – Project import

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Figure 43:

Eclipse - Example

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Figure 44:

Eclipse – Create package

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Figure 45:

Eclipse - Configuration

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Figure 46:

Eclipse - Configuration

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wm_java_usersguide_v12

Page 9 of 123

2008-02-25

Confidential / Released

 

 

Page 9
Image 9
Siemens AC65, TC65, XT75, XT65 manual Figures

AC65, XT65, XT75, TC65 specifications

The Siemens TC65 is a compact and powerful GSM/GPRS module designed for a wide range of mobile communication applications. With its robust features, the TC65 perfectly meets the growing demands for connectivity in various industries, including automotive, telematics, and industrial automation.

A standout feature of the TC65 is its compact size, allowing it to be easily integrated into various devices without compromising on performance. The module supports GSM (Global System for Mobile Communications) and GPRS (General Packet Radio Service), providing reliable and efficient voice and data transmission.

One of the key technologies incorporated in the TC65 is its integrated TCP/IP stack, which allows for seamless internet connectivity and enables application developers to create IoT solutions with ease. This capability is essential for remote monitoring, data logging, and other applications that require continuous data exchange.

The TC65 also boasts extensive multimedia capabilities, including support for SMS, MMS, and voice calls. This makes it suitable for applications that require not only data transmission but also communication features. Additionally, it supports various codecs for voice compression, ensuring high-quality audio in voice applications.

Enhanced security features are another highlight of the TC65. It incorporates comprehensive security protocols to safeguard data transmission, making it suitable for sensitive applications in finance, healthcare, and other critical sectors. The module also includes an integrated SIM application toolbox that supports the development of secure and customizable applications.

For developers, the TC65 offers an easy-to-use software development kit (SDK), simplifying the process of application development. This means that businesses can quickly create and deploy solutions tailored to their specific needs.

The module operates across a wide voltage range and is designed to tolerate challenging environmental conditions, making it ideal for industrial use. It supports various interfaces, including UART, GPIO, and I2C, enabling it to connect with a variety of peripherals and sensors, thus expanding its usability.

In summary, the Siemens TC65 combines compact design, versatile communication capabilities, advanced security features, and developer-friendly resources, making it an excellent choice for anyone looking to implement reliable and sophisticated GSM/GPRS communication in their applications. The TC65 is a valuable asset in the evolving landscape of connected devices and IoT solutions.