Free cell phone cases software for linux

Ptk Phone is a small program written in Perl/Tk to be used as an address book.

It handles email addresses and comments as well.

OBEX Send to Phone service menu allows for sending any file(s) to a mobile phone equipped with OBEX stack.

It is made for Nokia S60 (6630 to be precise) phone with USB connection. There are no settings, no progress indicator. Files are copied to the memory card (E: drive)

Requires openobex and obexftp.

Hope this script might be useful for someone. Please post fixes, comments and suggestions.

Phone for voice modem is only a simple wrapper for the chat program, which allows you to call some numbers on the hayes-compatible modem.

Number::Phone::IE is a Perl module with Republic of Ireland-specific methods for Number::Phone.
SYNOPSIS
use Number::Phone;
$dermots_phone = Number::Phone->new(IE, 017654321);
METHODS
The following methods from Number::Phone are overridden:
is_valid
The number is valid within the national numbering scheme. It may or may not yet be allocated, or it may be reserved. Any number which returns true for any of the following methods will also be valid.
is_allocated
The number has been allocated to a telco for use. It may or may not yet be in use or may be reserved. Not currently implemented.
is_geographic
The number refers to a geographic area.
is_fixed_line
The number, when in use, can only refer to a fixed line.
is_mobile
The number, when in use, can only refer to a mobile phone.
is_pager
The number, when in use, can only refer to a pager.
is_tollfree
Callers will not be charged for calls to this number under normal circumstances.
is_specialrate
The number, when in use, attracts special rates. For instance, national dialling at local rates, or premium rates for services.
is_adult
The number, when in use, goes to a service of an adult nature, such as porn.
is_network_service
The number is some kind of network service such as a human operator, directory enquiries, emergency services etc
country_code
Returns 353.
regulator
Returns some text in an appropriate character set saying who the telecoms regulator is, with optional details such as their web site or phone number.
areacode
Return the area code - if applicable - for the number. If not applicable, returns undef.
areaname
Return the area name - if applicable - for the number, or undef.
subscriber
Return the subscriber part of the number
operator
Return the name of the telco operating this number, in an appropriate character set and with optional details such as their web site or phone number. Not currently implemented.
format
Return a sanely formatted version of the number, complete with IDD code, eg for the Irish number (021) 765-4321 it would return +353 21 7654321.
country
If the number is_international, return the two-letter ISO country code.
NYI
Version restrictions:
- Strictly sppeaking, this kind of duplication of the Number::Phone::UK class is bad. A tidy-up is in order, though it may emerge that a completely new implemantation is better.
- The results are only as accurate as my own investigations into current allocations. User feedback welcome.
- While the names of the nominal owners of mobile prefixes are given, number portability makes this information unreliable.

Cell Electrophysiology Simulation Environment (CESE) is a comprehensive framework specifically designed to perform computational electrophysiological simulations, for example, simulations of cardiac myocyte electrical activity.
Cell Electrophysiology Simulation Environment is useful for simulations of action potentials, individual ionic currents, and changes in ionic concentrations.
CESE is a cross-platform program, it runs on any system that has Java runtime environment (JRE) version 1.4 or above. It was tested on Windows, Linux, Solaris, MacOS X, and AIX.
CESE users
CESE is an integrated environment for performing computational simulations using a variety of electrophysiological models.
At this stage CESE allows creation and execution of the single-cell models (containing both Hodgkin-Huxley (HH) and Markovian current formulations). Models of electrical activity of cardiac myocytes with source code are included in the CESE distribution. We hope to extend the number of available models, and add certain neuronal models in the future.
The main strength of CESE is in its uniformity ? a program interface remains the same for different types of models. You can easily switch between models and compare simulation outputs. Model parameters can be modified, selected for output and/or clamped in the same, standard way.
CESE extends the conventional electrophysiological meaning of the "voltage clamp". You can clamp virtually any model variable, including voltage (membrane potential), total or individual ionic currents, ionic concentrations, temperature, gating variables, etc. The clamping commands can be complex piece-wise functions, individually set for the model variable of interest. This opens endless possibilities for the exploration of complex model behavior.
CESE provides simple, but efficient data visualizations. Simulation results can be presented in the graphic and tabulated forms. Plots can be customized, and regions of interest zoomed.
Even though CESE was not designed to be a data analysis tool, you can generate current-voltage relationships (I-Vs) and calculate statistical parameters for a given signal within the program. You can export your data to ASCII, Axon Text File (ATF), and NetCDF formats to continue analysis in your favorite package.
CESE developers
CESE was created from the ground up to incorporate the best programming practices available to Java developers, both in terms of user interface consistency and code clarity and reuse. Wherever possible, CESE rely on available Java APIs (for example Java2D, JavaBeans, JAXP) to simplify the code.
Model creation requires a number of house-keeping functions to be coded ? these include ODE integrators, routines for handling model parameters, saving/restoring model state, visualizing simulation results, etc. CESE provides you with implementation for these routines, hence, you can concentrate on writing the code for concrete ionic current(s), and CESE will handle the rest.
CESE is not trying to create complicated programming frameworks on its own ? rather, it utilizes core Java APIs. For example, models are Java components conforming to the JavaBeans specification. We use XML to specify clamping commands, and Java object serialization to save/restore model parameters.
Enhancements:
- This release improves results printing, adds export to the scalable vector graphics (SVG) format, improves support for continuous simulations, and fixes many bugs in plot rendering and model switching.

JTestCase is a 100% pure Java, open-source framework that helps in separating test case data from test case units.

Although the following examples show JTestCase used together with junit, please note that JTestCase has no dependence on junit itself.

A moderately complex java projects may comprise hundreds of junit test case. JTestCase helps you organize your test cases in a rationale and efficient way.

To achieve this goal JTestCase provides:

- A propetary XML format to define your test cases in an abstract way.
- Easy-to-use API to retrieve data from XML file and to do assertion.