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Guidance
Types of apprenticeships that you can apply for in the surveying sector.
There are different types of surveying and in this apprenticeship you can cover one of 5 pathways.
The nature of your learning will depend on your employer’s scope of operations. Depending on the pathway you choose you could learn:
You may have the option to learn other skills such as cost-control, solving disputes and building regulations.
These are advanced level apprenticeships.
After successful completion of an advanced apprenticeship, you will be well placed in a varied profession with excellent prospects.
Published: 12 April 2012


Hi there, my name is Brigham Andersen and I develop efficient and passionate projects to help solve problems and create memorable experiences. I love working with a team but can also self-motivate to get a project done.
I use a myriad of technologies such as HTML5 and Rust, and I'm always looking to learn something new. I currently study at Western Governors University, obtaining a BS in Software Development.
Versilian Studios is a music production company specializing in digital instruments and recordings. From 2014 to 2016 I created and deployed a web-based product distribution system for their products.
Visit SiteAtlas Graphics is a graphic arts company dedicated to creating modifications for games. I volunteer as a Web Designer and System Administrator for Atlas, helping create their website and maintain their delivery systems.
Visit Site


This class implements a force algorithms for handling all haptic effects associated with objects.
More...
#include <CAlgorithmPotentialField.h>
|
| virtual void | render (cRenderOptions &a_options) |
| | This method renders the force algorithms graphically in OpenGL. (For debug purposes) More...
|
| |
|
| static unsigned int | m_IDNcounter = 0 |
| | Static IDN counter for all algorithms of this class. More...
|
| |
This class implements a force algorithms for handling all haptic effects (cGenericEffect)associated with objects.
| chai3d::cAlgorithmPotentialField::cAlgorithmPotentialField |
( |
| ) |
|
| virtual chai3d::cAlgorithmPotentialField::~cAlgorithmPotentialField |
( |
| ) |
|
|
inlinevirtual |
| void chai3d::cAlgorithmPotentialField::initialize |
( |
cWorld * |
a_world, |
|
|
const cVector3d & |
a_initialPos |
|
) |
| |
|
inlinevirtual |
This method computes forces for all haptic effects associated with the objects includes in the world and the haptic tool handled by this algorithms.
- Parameters
-
| a_toolPos | Position of tool. |
| a_toolVel | Velocity of tool. |
Reimplemented from chai3d::cGenericForceAlgorithm.
| virtual void chai3d::cAlgorithmPotentialField::render |
( |
cRenderOptions & |
a_options | ) |
|
|
inlineprotectedvirtual |
| unsigned int chai3d::cAlgorithmPotentialField::m_IDN |
|
protected |
| unsigned int chai3d::cAlgorithmPotentialField::m_IDNcounter = 0 |
|
staticprotected |
The documentation for this class was generated from the following files:


|
libcbor
0.5.0
libcbor is a C library for parsing and generating CBOR, the general-purpose schema-less binary data format.
|
Go to the source code of this file.
Functions | |
| size_t | cbor_encode_uint8 (uint8_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_uint16 (uint16_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_uint32 (uint32_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_uint64 (uint64_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_uint (uint64_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_negint8 (uint8_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_negint16 (uint16_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_negint32 (uint32_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_negint64 (uint64_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_negint (uint64_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_bytestring_start (size_t length, unsigned char *buffer, size_t buffer_size) |
| size_t | _cbor_encode_byte (uint8_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_indef_bytestring_start (unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_string_start (size_t length, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_indef_string_start (unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_array_start (size_t length, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_indef_array_start (unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_map_start (size_t length, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_indef_map_start (unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_tag (uint64_t value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_bool (bool value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_null (unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_undef (unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_half (float value, unsigned char *buffer, size_t buffer_size) |
| Encodes a half-precision float. More... | |
| size_t | cbor_encode_single (float value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_double (double value, unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_break (unsigned char *buffer, size_t buffer_size) |
| size_t | cbor_encode_ctrl (uint8_t value, unsigned char *buffer, size_t buffer_size) |
| size_t _cbor_encode_byte | ( | uint8_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 67 of file encoding.c.
| size_t cbor_encode_array_start | ( | size_t | length, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 91 of file encoding.c.
| size_t cbor_encode_bool | ( | bool | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 116 of file encoding.c.
| size_t cbor_encode_break | ( | unsigned char * | buffer, |
| size_t | buffer_size | ||
| ) |
Definition at line 178 of file encoding.c.
| size_t cbor_encode_bytestring_start | ( | size_t | length, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 62 of file encoding.c.
| size_t cbor_encode_ctrl | ( | uint8_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 183 of file encoding.c.
| size_t cbor_encode_double | ( | double | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 173 of file encoding.c.
| size_t cbor_encode_half | ( | float | , |
| unsigned char * | , | ||
| size_t | |||
| ) |
Encodes a half-precision float.
Since there is no native representation or semantics for half floats in the language, we use single-precision floats, as every value that can be expressed as a half-float can also be expressed as a float.
This however means that not all floats passed to this function can be unambiguously encoded. The behavior is as follows:
| value | |
| buffer | Target buffer |
| buffer_size | Available space in the buffer |
Definition at line 131 of file encoding.c.
| size_t cbor_encode_indef_array_start | ( | unsigned char * | buffer, |
| size_t | buffer_size | ||
| ) |
Definition at line 96 of file encoding.c.
| size_t cbor_encode_indef_bytestring_start | ( | unsigned char * | buffer, |
| size_t | buffer_size | ||
| ) |
Definition at line 76 of file encoding.c.
| size_t cbor_encode_indef_map_start | ( | unsigned char * | buffer, |
| size_t | buffer_size | ||
| ) |
Definition at line 106 of file encoding.c.
| size_t cbor_encode_indef_string_start | ( | unsigned char * | buffer, |
| size_t | buffer_size | ||
| ) |
Definition at line 86 of file encoding.c.
| size_t cbor_encode_map_start | ( | size_t | length, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 101 of file encoding.c.
| size_t cbor_encode_negint | ( | uint64_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 57 of file encoding.c.
| size_t cbor_encode_negint16 | ( | uint16_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 42 of file encoding.c.
| size_t cbor_encode_negint32 | ( | uint32_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 47 of file encoding.c.
| size_t cbor_encode_negint64 | ( | uint64_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 52 of file encoding.c.
| size_t cbor_encode_negint8 | ( | uint8_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 37 of file encoding.c.
| size_t cbor_encode_null | ( | unsigned char * | buffer, |
| size_t | buffer_size | ||
| ) |
Definition at line 121 of file encoding.c.
| size_t cbor_encode_single | ( | float | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 167 of file encoding.c.
| size_t cbor_encode_string_start | ( | size_t | length, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 81 of file encoding.c.
| size_t cbor_encode_tag | ( | uint64_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 111 of file encoding.c.
| size_t cbor_encode_uint | ( | uint64_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 31 of file encoding.c.
| size_t cbor_encode_uint16 | ( | uint16_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 16 of file encoding.c.
| size_t cbor_encode_uint32 | ( | uint32_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 21 of file encoding.c.
| size_t cbor_encode_uint64 | ( | uint64_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 26 of file encoding.c.
| size_t cbor_encode_uint8 | ( | uint8_t | value, |
| unsigned char * | buffer, | ||
| size_t | buffer_size | ||
| ) |
Definition at line 11 of file encoding.c.
| size_t cbor_encode_undef | ( | unsigned char * | buffer, |
| size_t | buffer_size | ||
| ) |
Definition at line 126 of file encoding.c.


It all started with an idea of simplicity. What happens when you tell two aviation professionals, and a JavaScript genius to create a website... TraveLux. We wanted to create the ultimate travelers guide. Put in a location and BAM! Food, Hotels, Weather, and attractions. Why check 4 sites , when you can TraveLux?
Hello, my name is Cristian. I am the project manager for the group. I am in charge of keeping the team on their toes and making sure we are on top of all of our tasks at hand for the day. I am also in charge of the javascript of this website.
Hello, My name is Joe. I am the github guru of the group. I keep tabs on all of the git hub pull requests as well as work on the css portion of this website as well as some HTML.
Hello, my name is Melanie. I am the Demo Day POC of the group. I am responsible for the HTML and a portion of css from time to time.


INSTRUCTIONS
Only Graduated & Withdrawal Students can Apply
Step 1: Pay an amount of Rs. 350/- towards fees for Migration Certificate
through the following link:
SBI
Collect Link
Note : Incase you have already taken a Migration Certificate from the Institute and you
are applying for a Duplicate Migration Certificate than pay the fees of Rs. 400/- through the following
link:
SBI Collect Link
Step 2: Fill the application form in the below link and email a scanned
copy of the same to<EMAIL_ADDRESS>Form


Related work:
Model Checking Large Network Protocol Implementations
Madanlal Musuvathi and Dawson R. Engler, Stanford University
foo
From the Mar 2004 IETF meeting:
IETF04
New IEFT WG: TCP Maintenance and Minor Extensions (tcpm)
foo
` * The WG will write a document that outlines "what is TCP". This
document will be a roadmap of sorts to the various TCP specifications
in the RFC series.'
See also the old WG:
2.7.17 Transport Area Working Group (tsvwg)
Identifying the TCP Behavior of Web Servers
Jitendra Padhye and Sally Floyd
tr-01-002.pdf
February 2001
Abstract
Most of the traffic in today's Internet is carried by the TCP
protocol. Since web traffic forms the majority of the TCP traffic, TCP
implementations in web servers are of particular interest. TCP has
many user-configurable parameters and a wide range of
implementations. New congestion control mechanisms and TCP options
continue to be developed. Hence, it is necessary to trace the
deployment of various TCP mechanisms in the Internet. Also, stability
and fairness of the Internet relies on the voluntary use of congestion
control mechanisms by end hosts. Therefore, it is important to test
TCP implementations for conformant congestion control. We have
developed a tool called TCP Behavior Identification Tool (TBIT) to
characterize the TCP behavior of web servers. Here, we describe TBIT,
and present results about the TCP behaviors of major web servers. We
also describe the use of TBIT to detect bugs and non-compliance in TCP
implementations.
RFC2398
FYI0033
Some Testing Tools for TCP Implementors S. Parker, C. Schmechel
August 1998
Available tools for testing TCP implementations are catalogued by
this memo. Hopefully disseminating this information will encourage
those responsible for building and maintaining TCP to make the best
use of available tests. The type of testing the tool provides, the
type of tests it is capable of doing, and its availability is
enumerated. This document lists only tools which can evaluate one or
more TCP implementations, or which can privde some specific results
which describe or evaluate the TCP being tested.
Orgs:
Conferences:
- NSDI 2004 (first
one?) (USENIX)
(PAST) Sub: Sep 15, 2003
- SIGCOMM 2004 (ACM)
(PAST) Sub: Feb 6 2004, Notif: Apr 30, Conf: Aug 30
- PODC 2004
(PAST) Sub: Feb 15, 2004, Notif: May 9, Conf: Jul 25, Newfoundland
- INFOCOM 2005 (IEEE)
(SUB PAST) Sub: Jul 7 2004, Notif: Nov 1, Conf: Mar 13 2005, Miami
- ICNP 2004
(SUB PAST) Sub: May 7 2004, Notif: Jul 7, Conf: Oct 5, Berlin
- NSDI 2005 (second
one?) (USENIX)
(SUB PAST) Sub: Oct 8 2004, Notif: Jan 15 2005, Conf May 2, Boston
- ETAPS 2005
(SUB PAST) Sub: 8 Oct 2004, Notif: 10 Dec, Conf: Apr 2, 2005, Edinburgh
- SIGCOMM 2005
Sub: 30 Jan 2005 (abstract) and 6 Feb 2005 (Paper), Notif 30 April 30,
2005, Conf 20-26 Aug 2005, Philadelphia
- TPHOLs 2005
Sub: Feb 2005??, Notif: ?, Conf: Aug 22, 2005, Oxford
- SOSP 2005
Sub: Mar 25 2005, Notif: Jun 15, Conf: Oct 23, Brighton
-


Motorola Razr 2019 Depicted In More Seemingly Official Images
The Motorola Razr 2019 flood gates have opened. In the last 24 hours or so, quite a few images of the Motorola Razr 2019 itself appeared. Basically all those images arrived from Evan Blass, and they show off the company's first foldable smartphone in detail.
We've already shared three of those images, but quite a few more popped up in the meantime. In the gallery down below, you'll be able to find eight images in total.
Considering how accurate Evan Blass usually is, this is almost certainly a final design of the phone. That is even more obvious considering that the device is expected to arrive before the end of the year, more on that later.
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The Motorola Razr 2019 resembles the original Razr V3 quite a bit
As you can see, this phone is extremely reminiscent of the original Motorola Razr. The original Motorola Razr V3 was announced back in 2004, and it was your regular cellphone.
It did offer extremely eye-catching design, and managed to become extremely popular. That phone was actually amongst the most popular devices Motorola ever released.
That being said, Motorola is keeping that design intact, to a degree. The large chin is present on the bottom. When the phone is folded, it will fold above that chin, and the fit will be seamless.
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A secondary display will be included on the outside, when the phone is folded, and will be larger than on the original Motorola Razr. On the inside, the Motorola Razr 2019 will feature a large display, with a display notch at the top.
That inner display will look rather odd. Its top and bottom sides will not be straight, the top one will have an up-facing curvature, while the opposite will be the case for the bottom. That's actually quite interesting. The display itself, however, will be flat.
The device will include a single camera
This phone will include a rather tall display aspect ratio, it seems. Based on these images, the device will include a single camera, and that camera will be used as both a front-facing and a rear-facing unit.
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You will also notice a rather interesting hinge on this smartphone. It is quite noticeable, but it doesn't seem to be distracting based on these images.
All in all, the Motorola Razr 2019 looks really nice in these images. This design was expected, though, as it's extremely similar to the design patent Motorola submitted a while back.
The phone is expected to arrive by the end of this year. That information was shared by CNET in September, and received from someone "familiar with the situation". Motorola did not confirm anything just yet, though.
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