scholarly journals SpinSPJ: a novel NMR scripting system to implement artificial intelligence and advanced applications

2021 ◽  
Vol 22 (1) ◽  
Author(s):  
Zao Liu ◽  
Zhiwei Chen ◽  
Kan Song
Keyword(s):  
Data Processing ◽  
Emerging Technologies ◽  
Main Program ◽  
Multivariate Statistical ◽  
Instrument Control ◽  
Nmr Methods ◽  
User Friendly ◽  
Java Native Interface ◽  
Runtime Environments ◽  
Data Processing Methods

Abstract Background Software for nuclear magnetic resonance (NMR) spectrometers offer general functionality of instrument control and data processing; these applications are often developed with non-scripting languages. NMR users need to flexibly integrate rapidly developing NMR applications with emerging technologies. Scripting systems offer open environments for NMR users to write custom programs. However, existing scripting systems have limited capabilities for both extending the functionality of NMR software’s non-script main program and using advanced native script libraries to support specialized application domains (e.g., biomacromolecules and metabolomics). Therefore, it is essential to design a novel scripting system to address both of these needs. Result Here, a novel NMR scripting system named SpinSPJ is proposed. It works as a plug-in in the Java based NMR spectrometer software SpinStudioJ. In the scripting system, both Java based NMR methods and original CPython based libraries are supported. A module has been developed as a bridge to integrate the runtime environments of Java and CPython. The module works as an extension in the CPython environment and interacts with Java via the Java Native Interface. Leveraging this bridge, Java based instrument control and data processing methods of SpinStudioJ can be called with the CPython style. Compared with traditional scripting systems, SpinSPJ better supports both extending the non-script main program and implementing advanced NMR applications with a rich variety of script libraries. NMR researchers can easily call functions of instrument control and data processing as well as developing complex functionality (such as multivariate statistical analysis, deep learning, etc.) with CPython native libraries. Conclusion SpinSPJ offers a user-friendly environment to implement custom functionality leveraging its powerful basic NMR and rich CPython libraries. NMR applications with emerging technologies can be easily integrated. The scripting system is free of charge and can be downloaded by visiting http://www.spinstudioj.net/spinspj.

A Virtual Laboratory for Digital Signal Processing

2008 ◽  
pp. 474-487
Author(s):  
Chyi-Ren Dow ◽  
Yi-Hsung Li ◽  
Jin-Yu Bai
Keyword(s):  
Signal Processing ◽  
Digital Signal Processing ◽  
Mobile Agent ◽  
Source Code ◽  
Digital Signal ◽  
Experimental Results ◽  
Positive Feedbacks ◽  
Network Bandwidth ◽  
Network Capability ◽  
Java Native Interface

This work designs and implements a virtual digital signal processing laboratory, VDSPL. VDSPL consists of four parts: mobile agent execution environments, mobile agents, DSP development software, and DSP experimental platforms. The network capability of VDSPL is created by using mobile agent and wrapper techniques without modifying the source code of the original programs. VDSPL provides human-human and human-computer interaction for students and teachers, and it can also lighten the loading of teachers, increase the learning result of students, and improve the usage of network bandwidth. A prototype of VDSPL has been implemented by using the IBM Aglet system and Java Native Interface for DSP experimental platforms. Also, experimental results demonstrate that our system has received many positive feedbacks from both students and teachers.

Graphics Tablet Embed Java-Applet and Web-Based Tele-Calligraphy of Pneumatic Manipulator

2003 ◽  
Author(s):  
Xudong Hu ◽  
Chuanyu Wu ◽  
Hong Yu
Keyword(s):  
Programming Languages ◽  
Software Package ◽  
Robot Manipulator ◽  
Web Based ◽  
Java Applet ◽  
Client Machine ◽  
First Choice ◽  
Java Native Interface ◽  
Server Machine ◽  
The Web

Java becomes one of the most acceptable programming languages in the Intemet because of the characteristics of distribution, object-orientation, interpretation, and independence of computer platform. An application code programmed in Java can be downloaded and run in any client machine with Java VM through Internet. Most of internet-based application uses Java as the first choice of programming language. The Web-based Tele-calligraphy of pneumatic calligraphic manipulator described in here is one of these applications. In this article, authors will discuss the procedures of how to embed Unispen software package Wintab to Javaapplet using Java native interface (JNI). In the server machine, all communication functions between pneumatic servocontroller SPC-200 and computer had been compiled and linked to a dynamic loaded library in Ch language. Under the C/C++ superset interpreted language Ch, calligraphy handwrote by user in client machine will be formatted, sent, and calligraphed in a far located pneumatic robot manipulator through Internet.

scholarly journals SPICE TOOLS SUPPORTING PLANETARY REMOTE SENSING

2016 ◽  
Vol XLI-B4 ◽  
pp. 357-359 ◽  
Author(s):  
C. Acton ◽  
N. Bachman ◽  
B. Semenov ◽  
E. Wright
Keyword(s):  
Planetary Science ◽  
Science Data ◽  
Export Restrictions ◽  
Planetary Data System ◽  
Scientists And Engineers ◽  
Ancillary Information ◽  
Java Native Interface ◽  
Observation Geometry ◽  
Geometry Engine ◽  
Shape Data

NASA's "SPICE"<sup>*</sup> ancillary information system has gradually become the de facto international standard for providing scientists the fundamental observation geometry needed to perform photogrammetry, map making and other kinds of planetary science data analysis. SPICE provides position and orientation ephemerides of both the robotic spacecraft and the target body; target body size and shape data; instrument mounting alignment and field-of-view geometry; reference frame specifications; and underlying time system conversions. <br><br> SPICE comprises not only data, but also a large suite of software, known as the SPICE Toolkit, used to access those data and subsequently compute derived quantities–items such as instrument viewing latitude/longitude, lighting angles, altitude, etc. <br><br> In existence since the days of the Magellan mission to Venus, the SPICE system has continuously grown to better meet the needs of scientists and engineers. For example, originally the SPICE Toolkit was offered only in Fortran 77, but is now available in C, IDL, MATLAB, and Java Native Interface. SPICE calculations were originally available only using APIs (subroutines), but can now be executed using a client-server interface to a geometry engine. Originally SPICE "products" were only available in numeric form, but now SPICE data visualization is also available. <br><br> The SPICE components are free of cost, license and export restrictions. Substantial tutorials and programming lessons help new users learn to employ SPICE calculations in their own programs. The SPICE system is implemented and maintained by the Navigation and Ancillary Information Facility (NAIF)–a component of NASA's Planetary Data System (PDS). <br><br> <sup>*</sup> Spacecraft, Planet, Instrument, Camera-matrix, Events

Evaluating the Java Native Interface (JNI)

2018 ◽  
Vol 9 (2) ◽  
pp. 27-38 ◽  
Author(s):  
Stelios Sotiriadis ◽  
Oladotun Omosebi ◽  
Assem Ayapbergenova ◽  
Nurbek P. Saparkhojayev
Keyword(s):  
Internet Of Things ◽  
Programming Languages ◽  
Exception Handling ◽  
Mobile Internet ◽  
Java Programming ◽  
Disruptive Technologies ◽  
Programming Framework ◽  
Native Code ◽  
Java Platform ◽  
Java Native Interface

This article describes how the java native interface (JNI) is a powerful feature of the java platform that started to draw attention in the latter years as an efficient programming framework for building and delivering innovative technological applications based on disruptive technologies such as mobile, Internet of Things and embedded systems. Developers use it to incorporate native code written in programming languages such as C, C++, python etc., into java. JNI is particularly useful when java applications need to access existing native libraries or code blocks written in other languages to increase performance, avoid recoding and expand interoperability between programming languages for processes that reside in the same process. This article aims to explore JNI features and to discover fundamental operations of the Java programming language, such as arrays, objects, classes, threads and exception handling, and to illustrate these by using various algorithms and code samples.

A Virtual Laboratory for Digital Signal Processing

2011 ◽  
pp. 180-193
Author(s):  
Chyi-Ren Dow ◽  
Yi-Hsung Li ◽  
Jin-Yu Bai
Keyword(s):  
Signal Processing ◽  
Digital Signal Processing ◽  
Mobile Agent ◽  
Source Code ◽  
Digital Signal ◽  
Positive Feedbacks ◽  
Network Bandwidth ◽  
Load Increase ◽  
Network Capability ◽  
Java Native Interface

This work designs and implements a virtual digital signal processing laboratory (VDSPL). VDSPL consists of four parts: mobile agent execution environments, mobile agents, DSP development software, and DSP experimental platforms. The network capability of VDSPL is created by using mobile agent and wrapper techniques without modifying the source code of the original programs. VDSPL provides human-human and human-computer interaction for students and teachers, and it also can lighten the teacher’s load, increase the learning result of students, and improve the usage of network bandwidth. A prototype of VDSPL has been implemented by using the IBM Aglet system and Java Native Interface for DSP experimental platforms. Also, experimental results demonstrate that our system has received many positive feedbacks from both students and teachers.

A Virtual Laboratory for Digital Signal Processing

2007 ◽  
pp. 171-188
Author(s):  
Chyi-Ren Dow ◽  
Yi-Hsung Li ◽  
Jin-Yu Bai
Keyword(s):  
Signal Processing ◽  
Digital Signal Processing ◽  
Mobile Agent ◽  
Source Code ◽  
Digital Signal ◽  
Experimental Results ◽  
Positive Feedbacks ◽  
Network Bandwidth ◽  
Network Capability ◽  
Java Native Interface

This work designs and implements a virtual digital signal processing laboratory, VDSPL. VDSPL consists of four parts: mobile agent execution environments, mobile agents, DSP development software, and DSP experimental platforms. The network capability of VDSPL is created by using mobile agent and wrapper techniques without modifying the source code of the original programs. VDSPL provides human-human and human-computer interaction for students and teachers, and it can also lighten the loading of teachers, increase the learning result of students, and improve the usage of network bandwidth. A prototype of VDSPL has been implemented by using the IBM Aglet system and Java Native Interface for DSP experimental platforms. Also, experimental results demonstrate that our system has received many positive feedbacks from both students and teachers.

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