UHD is the free & open-source software driver and API for the
Universal Software Radio Peripheral (USRP(TM)) SDR platform,
created and sold by Ettus Research, LLC.
UHD supports all Ettus Research USRP(TM) hardware, including
all motherboards and daughterboards, and the combinations
thereof.
Changes:
- some gui style fixes for the build against gtk3
- change in the responsibilities of the c code and the JavaScript code for the
hinting
- run hint script as anonymous object to avoid naming collision with opened
pages
- extended hintmode that keeps the hints open until <Esc> is pressed
- added validation for setting of prev- nextpattern
- checkbox and radio-button state is shown in the hint labels
changelog:
0.11.1.0
* New dependency: the scientific package. This allows us to parse
numbers much more efficiently.
* peekWord8', peekChar': new primitive parsers that allow
single-character lookahead.
A Scientific number is an arbitrary-precision floating-point number
represented using scientific notation.
A scientific number with coefficient c and base10Exponent e corresponds to
the Fractional number: fromInteger c * 10 ^^ e
Its primary use-case is to serve as the target of parsing floating point
numbers. Since the textual representation of floating point numbers use
scientific notation they can be efficiently parsed to a Scientific number.
Bessel functions of the first kind, denoted as Ja(x), are solutions of Bessel's
differential equation that are finite at the origin (x = 0) for integer a, and
diverge as x approaches zero for negative non-integer a. The solution type
(e.g.,integer or non-integer) and normalization of Ja(x) are defined by its
properties below. It is possible to define the function by its Taylor series
expansion around x = 0.
A package that lets you define quantities with units, which can
then be used in almost any numerical calculation in any
programming language. Checks that calculations pass dimensional
analysis, performs unit conversions, and defines physical
constants.
This library consists of two sublibraries pyFresnel and pyQW for performing
physics simulations. pyFresnel contains codes for modelling the optical
properties of dielectric layers, starting from a simple interface and finishing
with an optical transfer matrix code. Unlike other optical transfer matrix
codes, this code allows for layers with uniaxial dielectrics which
have their the optical axes normal to the plane of the layers.
