PHP Programmer Analyst Markham, ON

Total Page:16

File Type:pdf, Size:1020Kb

PHP Programmer Analyst Markham, ON PHP Programmer Analyst Markham, ON PharmaCommunications™ is a leading provider of marketing technology and services to the life sciences industry. Through our offices in Montréal and Toronto, we provide solutions that help the industry manage interactions with stakeholders; improve sales and marketing processes; and identify opportunities for future growth. We have undertaken assignments for virtually all of the industry’s top 100 companies, and have completed projects throughout North America and Europe. We currently have opportunities for Full ‐‐‐Time PHP Programmer Analyst to join our Markham team. Reporting to the Manager, Systems Development this position involves the ongoing development of our marketing technology platforms. Responsibilities PHP LAMP Programming Javascript (JQuery) HTML/CSS and JS/AJAX/SOAP/BOOTSTRAP MySQL and Relational Databases Code Repositories(Subversion) UX design skill set Building professional online web applications Languages: Speak English, Read English, Write English What We’re Looking For Bachelor Degree in Computer Science or related science preferred Fluent in English Minimum of 5 years of related experience with IT and related technologies Must have minimum of 3 years PHP (Object Oriented Programming) Must have UNIX/Linux experience Familiar with SDLC and Agile development methodologies Understand system requirement specifications Experience with creating system documentation and validation documents Good organizational and communication skills In addition to a competitive salary and comprehensive benefits package, we offer a stimulating and challenging work environment, significant opportunities for career development, as well as a close-knit corporate culture that values inclusion, team work and dedication. From flex-time to office lunch events, our goal is to provide our team with both an enriching work environment and a good life-work balance. We also welcome and encourage applications from people with disabilities. Accommodations are available on request for candidates taking part in all aspects of the selection process. If you believe that you could thrive in our environment, and are interested in pursuing this opportunity, please email your résumé to [email protected] in complete confidence. PharmaCommunications Group Inc. www.pharmacommunications.com .
Recommended publications
  • Smart Battery Charging Programmer Software User Manual Smart Battery Charging Programmer Software User Manual
    Smart Battery Charging Programmer Software User Manual Smart Battery Charging Programmer Software User Manual 1. Introduction ............................................................................................................... 1 ................................................................................................... 2. Prerequisites 1 .................................................................................................. 2.1 System requirements 1 .................................................................................................. 2.2 Hardware installation 1 ................................................................................................... 2.3 Software installation 2 3. User Interface ............................................................................................................ 2 .............................................................................................................. 3.1 Basic layout 2 CURVE PROFILE ......................................................................................................... 3.2 2 SETTING ...................................................................................... ............. 3.3 ................ 3 . ...................................................................................................... 4 General Operation 4 ...................................................................................................... 4.1 Connection 4 4.2 .........................................................................
    [Show full text]
  • PHP Programmer Location: North Las Vegas NV, USA
    Batteries ... For Life! PHP Programmer Position Title: PHP Programmer Location: North Las Vegas NV, USA Description: BatterieslnAFlash.com, Inc. has an immediate need for a PH? Web Programmer to join their team full­ time. The ideal candidate will work on development and implementation ofa wide variety of Web-based products using PHP, JavaScript, MySQL and AJAX. Qualified applicants would be initially working on a 90 day probationary period for a growing online battery company. " Responsibilities: • Participate in a team-oriented environment to develop complex Web-based applications. Improve, repair, and manage existing websites and applications. / ( • Maintain existing codebases to include troubieshooting bugs and adding new features. • Convert data from various formats (Excel, ACCESS etc.) into developed databases. • Balance a variety of concurrent projects. Required Experience: • Ability to work independently, take initiative, and contribute to new ideas required in a diverse, fast­ paced, deadline-driven team environment. Self-starter with a professional appearance. • Detailed knowledge of web application development and extensive experience using PHP and Javascript as well as relational databases such a~. PostgreSQL and MySQL. • Proven hands on experience with web applicationfi"."meworks such as CAKE, Kohana, Zend, etc. • Proven hands on experience with JavaScript fral.;cworks such as jQuery and EXT JS • Proven hands on experience with SECURE CODING techniques • Experience developing cross-browser frontends using XHTML, CSS, AJAX, JavaScript. • Organization and analytic skills, with strong problem solving ability. • Excellent written and verbal communications skills • Experience with version control systems such as SVN and CVS • Hands on experience with L1NUX especially using command line tools and writing SHELL scripts (Benefit, not required) • Experience using common business software ~ uch as WORD, PowerPoint, Excel and VISIO to visualize, discuss and present ideas to technical and non-technical audiences.
    [Show full text]
  • Dissertation Submitted in Partial Fulfillment of the Requirements for The
    ON THE HUMAN FACTORS IMPACT OF POLYGLOT PROGRAMMING ON PROGRAMMER PRODUCTIVITY by Phillip Merlin Uesbeck Master of Science - Computer Science University of Nevada, Las Vegas 2016 Bachelor of Science - Applied Computer Science Universit¨at Duisburg-Essen 2014 A dissertation submitted in partial fulfillment of the requirements for the Doctor of Philosophy { Computer Science Department of Computer Science Howard R. Hughes College of Engineering The Graduate College University of Nevada, Las Vegas December 2019 c Phillip Merlin Uesbeck, 2019 All Rights Reserved Dissertation Approval The Graduate College The University of Nevada, Las Vegas November 15, 2019 This dissertation prepared by Phillip Merlin Uesbeck entitled On The Human Factors Impact of Polyglot Programming on Programmer Productivity is approved in partial fulfillment of the requirements for the degree of Doctor of Philosophy – Computer Science Department of Computer Science Andreas Stefik, Ph.D. Kathryn Hausbeck Korgan, Ph.D. Examination Committee Chair Graduate College Dean Jan Pedersen, Ph.D. Examination Committee Member Evangelos Yfantis, Ph.D. Examination Committee Member Hal Berghel, Ph.D. Examination Committee Member Deborah Arteaga-Capen, Ph.D. Graduate College Faculty Representative ii Abstract Polyglot programming is a common practice in modern software development. This practice is often con- sidered useful to create software by allowing developers to use whichever language they consider most well suited for the different parts of their software. Despite this ubiquity of polyglot programming there is no empirical research into how this practice affects software developers and their productivity. In this disser- tation, after reviewing the state of the art in programming language and linguistic research pertaining to the topic, this matter is investigated by way of two empirical studies with 109 and 171 participants solving programming tasks.
    [Show full text]
  • Intermittent Computation Without Hardware Support Or Programmer
    Intermittent Computation without Hardware Support or Programmer Intervention Joel Van Der Woude, Sandia National Laboratories; Matthew Hicks, University of Michigan https://www.usenix.org/conference/osdi16/technical-sessions/presentation/vanderwoude This paper is included in the Proceedings of the 12th USENIX Symposium on Operating Systems Design and Implementation (OSDI ’16). November 2–4, 2016 • Savannah, GA, USA ISBN 978-1-931971-33-1 Open access to the Proceedings of the 12th USENIX Symposium on Operating Systems Design and Implementation is sponsored by USENIX. Intermittent Computation without Hardware Support or Programmer Intervention Joel Van Der Woude Matthew Hicks Sandia National Laboratories∗ University of Michigan Abstract rapid changes drive us closer to the realization of smart As computation scales downward in area, the limi- dust [20], enabling applications where the cost and size tations imposed by the batteries required to power that of computation had previously been prohibitive. We are computation become more pronounced. Thus, many fu- rapidly approaching a world where computers are not ture devices will forgo batteries and harvest energy from just your laptop or smart phone, but are integral parts their environment. Harvested energy, with its frequent your clothing [47], home [9], or even groceries [4]. power cycles, is at odds with current models of long- Unfortunately, while the smaller size and lower cost of running computation. microcontrollers enables new applications, their ubiqui- To enable the correct execution of long-running appli- tous adoption is limited by the form factor and expense of cations on harvested energy—without requiring special- batteries. Batteries take up an increasing amount of space purpose hardware or programmer intervention—we pro- and weight in an embedded system and require special pose Ratchet.
    [Show full text]
  • The PHP Programmer's Guide to Secure Code
    School of Mathematics and Systems Engineering Reports from MSI - Rapporter från MSI The PHP programmer’s guide to secure code Richard Clarinsson Samuel Magnusson Maj MSI Report 05046 2005 Växjö University ISSN 1650-2647 SE-351 95 VÄXJÖ ISRN VXU/MSI/IV/E/--05046/--SE Abstract Authors: Richard Clarinsson, Samuel Magnusson Title: The PHP programmer’s guide to secure code Course: IVC730 – Bachelor thesis University: Växjö Universitet Institution: School of Mathematics and Systems Engineering Date: 2005-05-24 Content: Security threats against computer systems are a big problem today which also includes PHP made applications. The report is focused on protection with the help of code and not how you protect a web server. Its purpose is not to educate the readers of the thesis how to make a PHP application, the purpose is how to program a safer PHP application. The thesis contains information about common security threats against PHP scripts. It contains in most cases examples of what an attack can look like and how a protection for that example can be achieved. We have tested all code examples if they work by installing our own server with the configurations according to the delimitations of the thesis and putting up small PHP applications, which we have attacked and then protected. The contents and result of this thesis can benefit developers that use PHP as a programming language for creating web applications, by giving them information about common threats and protection. Keywords: security, PHP, security threats, programming, code, protection Preface This thesis has been very interesting and educational to write, but also a challenge.
    [Show full text]
  • CSC 272 - Software II: Principles of Programming Languages
    CSC 272 - Software II: Principles of Programming Languages Lecture 1 - An Introduction What is a Programming Language? • A programming language is a notational system for describing computation in machine-readable and human-readable form. • Most of these forms are high-level languages , which is the subject of the course. • Assembly languages and other languages that are designed to more closely resemble the computer’s instruction set than anything that is human- readable are low-level languages . Why Study Programming Languages? • In 1969, Sammet listed 120 programming languages in common use – now there are many more! • Most programmers never use more than a few. – Some limit their career’s to just one or two. • The gain is in learning about their underlying design concepts and how this affects their implementation. The Six Primary Reasons • Increased ability to express ideas • Improved background for choosing appropriate languages • Increased ability to learn new languages • Better understanding of significance of implementation • Better use of languages that are already known • Overall advancement of computing Reason #1 - Increased ability to express ideas • The depth at which people can think is heavily influenced by the expressive power of their language. • It is difficult for people to conceptualize structures that they cannot describe, verbally or in writing. Expressing Ideas as Algorithms • This includes a programmer’s to develop effective algorithms • Many languages provide features that can waste computer time or lead programmers to logic errors if used improperly – E. g., recursion in Pascal, C, etc. – E. g., GoTos in FORTRAN, etc. Reason #2 - Improved background for choosing appropriate languages • Many professional programmers have a limited formal education in computer science, limited to a small number of programming languages.
    [Show full text]
  • How to Become a Programmer Everything (Non-Technical) You Need to Know to Start Making Money Writing Code Rob Walling V1.0
    How to Become a Programmer Everything (Non-Technical) You Need to Know to Start Making Money Writing Code www.SoftwareByRob.com Rob Walling v1.0 Contents Introduction .................................................................................................................................... 4 What is Computer Programming? .................................................................................................. 5 Why Should I Become a Programmer? ........................................................................................... 7 What Are Some Reasons Not to Become a Programmer? ........................................................... 10 What are the Different “Worlds” of Programming? ..................................................................... 11 What Programming Language Should I Learn? ............................................................................ 13 Where Do I Start?.......................................................................................................................... 16 I’ve Built a Project and Decided I Like Programming, What Next? .............................................. 18 I Just Graduated from School, How Can I Get Experience? .......................................................... 20 How Can I Become a Programmer Without Going to College? .................................................... 22 What About Offshoring – Will I have a Job in 5 years? ................................................................ 23 Do I Have to Know Math to be a Programmer?
    [Show full text]
  • ACCEPT: a Programmer-Guided Compiler Framework for Practical Approximate Computing
    ACCEPT: A Programmer-Guided Compiler Framework for Practical Approximate Computing Adrian Sampson Andre´ Baixo Benjamin Ransford Thierry Moreau Joshua Yip Luis Ceze Mark Oskin University of Washington Abstract sion [Rubio-Gonzalez´ et al. 2013]; using special low-power Approximate computing trades off accuracy for better perfor- hardware structures that produce wrong results probabilisti- mance and energy efficiency. It offers promising optimization cally [Esmaeilzadeh et al. 2012b; Liu et al. 2011]; and train- opportunities for a wide variety of modern applications, from ing hardware neural networks to mimic the behavior of costly mobile vision to data analytics. Recent approaches to ap- functions [Esmaeilzadeh et al. 2012a; St. Amant et al. 2014]. proximate computing have relied on either manual program These proposals share an important distinction from tra- modification, based exclusively on programmer reasoning, ditional program optimizations: they have subtle and broad- or opaque automatic transformations, which sacrifice pro- ranging effects on safety, reliability, and output quality. Some work relies on programmers for manual reasoning to con- grammer control. We describe ACCEPT, a comprehensive framework for approximation that balances automation with trol these effects [Esmaeilzadeh et al. 2012a; Liu et al. 2011; programmer guidance. It includes C/C++ type qualifiers for Renganarayanan et al. 2012; Sidiroglou-Douskos et al. 2011], constraining approximation, a compiler analysis library that while other work proposes automated transformation based identifies regions of approximable code, an autotuning system on code patterns or exhaustive search [Baek and Chilimbi that automatically chooses the best approximation strategies, 2010; Samadi et al. 2014, 2013]. Manual code editing can and a feedback mechanism that explains how annotations can be tedious and error-prone, especially since important safety invariants are at stake.
    [Show full text]
  • Towards Applying Complexity Metrics to Measure Programmer Productivity in High Performance Computing
    Towards Applying Complexity Metrics to Measure Programmer Productivity in High Performance Computing Catalina Danis, John Thomas, John Richards, Jonathan Brezin, Cal Swart, Christine Halverson, Rachel Bellamy, Peter Malkin IBM, TJ Watson Research Center PO Box 704 Yorktown Heights, New York 10598 USA 1 914 784 7300 {danis, jcthomas, ajtr, brezin, cals, krys, rachel, malkin} @us.ibm.com ABSTRACT involved. Types of codes developed range from so-called In this paper, we motivate and position a method for measuring “kleenex codes” which are typically developed by a single the complexity of programming-related tasks. We describe this individual in a short period of time in order to try out an idea for method, Complexity Metrics (CM), and give a brief worked an analysis and so are used only once, to multi-module codes example from the domain of High Performance Computing developed over decades by large teams distributed in time and (HPC). We are using the method to help determine the space. The large HPC codes are typically developed by multi- productivity impact of new tools being developed for HPC by disciplinary teams that include both domain scientists, for IBM. Although we argue that the CM method has certain virtues, example climate scientists knowledgeable about the atmosphere we acknowledge that it is a work in progress. We discuss our or about the behavior of clouds, and computational scientists, such strategy of complementing the CM method with knowledge we as experts in data structures or in the communications derive from applying other methods to better explore the complex characteristics of a particular HPC system.
    [Show full text]
  • Programming Languages
    Copyright R.A. van Engelen, FSU Department of Computer Science, 2000 Note: the on-line syllabus allows you to access more detailed information about the course Programming Languages Syllabus Objectives Prerequisites Some familiarity with a contemporary programming language Improve the background for choosing appropriate programming Textbook languages for certain classes of programming problems Michael L. Scott Programming Language Pragmatics Be able in principle to program in an imperative (or procedural), Other material an object-oriented, a functional, and a logical programming class notes and handouts language Web site Understand the significance of an implementation of a Home page http://www.cs.fsu.edu/~engelen/courses/COP4020 and programming language in a compiler or interpreter UniversalClass.com Increase the ability to learn new programming languages http://home.universalclass.com/technology/viewclasses.htm Increase the capacity to express programming concepts and Class times choose among alternative ways to express things MWF: 1:25 - 2:15 pm Simulate useful features in languages that lack them Class location Be able in principle to design a new programming language 101 J. Love Building Make good use of debuggers and related tools Recitations Wed; sec 1 = 2:30 - 3:20 pm, sec 2 = 3:35 - 4:50 pm, sec 3 = 6:45 - 8:00 pm, sec 4 = 8:15 - 9:30 pm Contact Instructor Dr. Robert van Engelen Email [email protected] Phone 850 644 9661 Programming Language History Programming Language Genealogy 1940s: The first electronic computers were monstrous
    [Show full text]
  • Programmer Defined Functions
    CS 1023 Intro to Engineering Computing 3: Computer Programming LM4 – Programmer Defined Functions Mark Kerstetter Department of Computer Science Western Michigan University © Fall 2015 Learning about Functions What do you already know? o Built-in functions & How to Use Them h = sqrt ( a*a + b*b ) ; The parameters that are printf ( “sin(%f) = %f\n”, theta, sin( theta ) ) ; actually used when a function is called or used are known as the scanf ( “%lf %lf”, &a, &b ) ; actual parameters. You already know how to use functions! Three things you need to learn about The parameters that are named and writing your own functions used within both a function declaration programmer-defined functions and definition are known as the 1. Declare a function before you use it formal parameters. 2. How to use a function (Already doing this!) 3. Define what a function does These formal parameters act like by writing code for it placeholders and are used to receive the values or addresses of the actual Now you will learn how to parameters when the function is called write your own functions. (i.e., actually used). You need to do five things. Programmer-Defined Functions 1. Understand the Function & Sketch Solution – What is it supposed to do? 2. Name the Function 3. Decide What Kind of Data the Function Returns – Return Type o Function performs activity, but does not return a single value E.g., printf and openVatDoor (perform activities) Return type void o Function returns a single value – What type? E.g., sqrt, sin, max, firstChar (return int, double, char, etc.) Return type int, double, or char o Function returns multiple values E.g., scanf, sort, swap, reverse Return type void (changes returned through parameters) 4.
    [Show full text]
  • IT Programmer/Analyst
    MICHIGAN CIVIL SERVICE COMMISSION JOB SPECIFICATION INFORMATION TECHNOLOGY PROGRAMMER/ANALYST JOB DESCRIPTION Employees in this job function as information technology professionals, participating in or overseeing a variety of analytical and programming assignments that provide for the development, enhancement, and maintenance of automated data, voice, or video application programs, application systems, and operating systems software within mainframe, network, and client server environments. There are two classifications in this job. Position Code Title - Info Tech Prgmr Analyst-E Information Technology Programmer/Analyst 9 This is the entry/training level. The employee performs an increasing range of professional assignments in a developing capacity while continuing to learn the methods of the work. Information Technology Programmer/Analyst P11 The employee performs a range of professional assignments. Independent judgment is required to carry out assignments that have significant impact on services or programs. Guidelines may be available, but require adaptation or interpretation to determine appropriate courses of action. Position Code Title - Info Tech Prgmr Analyst-A Information Technology Programmer/Analyst 12 This is the advanced level. The employee may function as a lead or senior worker. At this level, employees are responsible for overseeing the work assignments of other information technology professionals or have regular assignments which have been recognized by Civil Service as having significantly greater complexity than those assigned at the experienced level. JOB DUTIES NOTE: The job duties listed are typical examples of the work performed by positions in this job classification. Not all duties assigned to every position are included, nor is it expected that all positions will be assigned every duty.
    [Show full text]