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Average Ratings 0 Ratings
Description
DPKG serves as a utility for managing Debian packages, allowing users to install, build, and remove them efficiently. Aptitude acts as the primary and more intuitive interface for DPKG. The functionality of DPKG is accessed solely through command line parameters, which include a single action paired with zero or more options that modify the action's behavior. The action parameter indicates the specific task DPKG should perform, while options adjust how this task is executed. Additionally, DPKG can function as a front-end for DPKG-deb(1) and DPKG-query. A detailed list of supported actions is provided in the actions section. When an action is called, DPKG executes either DPKG-deb or DPKG-query with the supplied parameters, but without passing any specific options; to utilize those options, the back-ends must be directly invoked. DPKG also keeps track of relevant information about available packages, categorizing it into three types: states, selection states, and flags, which are primarily managed using dselect. This organization of information aids in the effective management of package statuses within the Debian ecosystem.
Description
Electromagnetic sensors are composed of two main components: a "front-end" that both generates and detects electromagnetic waves via a subsystem known as the Receiver/Exciter (REX), and a "back-end" responsible for signal and data processing, which is generally carried out through software. Each of these subsystems must be developed independently before they can be seamlessly integrated. The process of creating the complete sensor becomes increasingly complex and time-consuming due to unforeseen challenges that arise during integration testing. This complexity largely stems from the interdependencies between the subsystems that are not easily testable during their individual development phases. As a result, any necessary software updates, configuration adjustments, waveform modifications, and technology upgrades can incur significantly higher costs since they often require on-site verification with the actual front-end hardware. To mitigate these issues, the Virtual Receiver/Exciter (VREX) utilizes a simulated front-end, thus streamlining the testing and integration process. By employing a virtual model, developers can identify and address potential integration issues much earlier in the development cycle.
API Access
Has API
API Access
Has API
Integrations
Debian
Fink
Pricing Details
Free
Free Trial
Free Version
Pricing Details
No price information available.
Free Trial
Free Version
Deployment
Web-Based
On-Premises
iPhone App
iPad App
Android App
Windows
Mac
Linux
Chromebook
Deployment
Web-Based
On-Premises
iPhone App
iPad App
Android App
Windows
Mac
Linux
Chromebook
Customer Support
Business Hours
Live Rep (24/7)
Online Support
Customer Support
Business Hours
Live Rep (24/7)
Online Support
Types of Training
Training Docs
Webinars
Live Training (Online)
In Person
Types of Training
Training Docs
Webinars
Live Training (Online)
In Person
Vendor Details
Company Name
Ubuntu
Country
United States
Website
manpages.ubuntu.com/manpages/xenial/en/man1/dpkg.1.html
Vendor Details
Company Name
FishEye
Website
fisheye.net/products/vrex/
Product Features
Product Features
Simulation
1D Simulation
3D Modeling
3D Simulation
Agent-Based Modeling
Continuous Modeling
Design Analysis
Direct Manipulation
Discrete Event Modeling
Dynamic Modeling
Graphical Modeling
Industry Specific Database
Monte Carlo Simulation
Motion Modeling
Presentation Tools
Stochastic Modeling
Turbulence Modeling