This document provides an overview of building a computer science pathway in schools. It discusses Texas requirements for high schools to offer computer science courses and lists approved courses. It also outlines sample pathways from various school districts and common challenges faced, such as course prerequisites. Additional resources on topics like cybersecurity, programming boards and tools, recruitment clubs, and professional development programs are also referenced. The goal is to help schools develop a computer science curriculum and pathway to meet state requirements.
Making Sense of Texas Computer Science Requirements - June 2017Hal Speed
This document summarizes computer science requirements and pathways in Texas. It discusses:
- Goals of increasing foundational computer science understanding for all students and pursuing digital careers
- Various high school computer science courses that can fulfill technology applications and STEM endorsement requirements
- Allowing computer science courses to count as science or foreign language credits towards graduation
- Recommended computer science pathways for districts including optional introductory courses
- Increasing enrollment in computer science courses from 2014-2017 and additional resources available
This document outlines the course structure and requirements for a Bachelor of Computer Science degree. It is broken into 4 stages. Stage 1 focuses on core programming, algorithms, and math courses. Stage 2 covers more advanced topics like databases, operating systems, and discrete math. Stage 3 introduces artificial intelligence, networks, and software engineering. Stage 4 requires a year-long computer science project and choosing 9 electives covering areas like machine learning, mobile development, and distributed systems.
This document outlines the stages and requirements of a computer science degree program. Stage 1 focuses on core computer science courses and mathematics. Stage 2 covers more advanced topics like databases, algorithms, and programming. Stage 3 includes electives, a research internship, and a group project. Stage 4 requires a long individual project and choosing 9 electives covering areas like artificial intelligence, distributed systems, and mobile development.
The document summarizes the January 10, 2017 webinar of the CS4TX organization. It includes reports on advocacy efforts to promote computer science education legislation in the Texas legislature. It outlines outreach activities including a CS fair at SXSWedu and conferences where CS4TX will have a presence. It also summarizes teacher professional development efforts including an online course to prepare teachers for CS certification and mini-conferences on the AP Computer Science Principles course.
Making Sense of Texas Computer Science RequirementsHal Speed
This document summarizes computer science education requirements and opportunities in Texas. It outlines that high schools must offer Computer Science I and allow students to take two additional computer science courses to fulfill technology application graduation requirements. It also notes that computer science courses can count as mathematics or foreign language credits for university admission. The document discusses the NSF's Computer Science for All initiative to expand K-12 computer science education and train 10,000 new teachers. It provides examples of computer science pathways and course sequences for Texas school districts.
The document is a cover letter, resume, curriculum vitae, and entrance essay submitted by E. Rey Garcia for admission to Colorado Technical University's Doctorate of Computer Science in Enterprise Information Systems program. Garcia has over 20 years of experience in IT and public administration and is seeking to research ways to migrate legacy systems to cloud-based solutions. The attached materials provide details of Garcia's background, qualifications, research interests, and motivation for pursuing this degree.
Making Sense of Texas Computer Science Requirements - June 2017Hal Speed
This document summarizes computer science requirements and pathways in Texas. It discusses:
- Goals of increasing foundational computer science understanding for all students and pursuing digital careers
- Various high school computer science courses that can fulfill technology applications and STEM endorsement requirements
- Allowing computer science courses to count as science or foreign language credits towards graduation
- Recommended computer science pathways for districts including optional introductory courses
- Increasing enrollment in computer science courses from 2014-2017 and additional resources available
This document outlines the course structure and requirements for a Bachelor of Computer Science degree. It is broken into 4 stages. Stage 1 focuses on core programming, algorithms, and math courses. Stage 2 covers more advanced topics like databases, operating systems, and discrete math. Stage 3 introduces artificial intelligence, networks, and software engineering. Stage 4 requires a year-long computer science project and choosing 9 electives covering areas like machine learning, mobile development, and distributed systems.
This document outlines the stages and requirements of a computer science degree program. Stage 1 focuses on core computer science courses and mathematics. Stage 2 covers more advanced topics like databases, algorithms, and programming. Stage 3 includes electives, a research internship, and a group project. Stage 4 requires a long individual project and choosing 9 electives covering areas like artificial intelligence, distributed systems, and mobile development.
The document summarizes the January 10, 2017 webinar of the CS4TX organization. It includes reports on advocacy efforts to promote computer science education legislation in the Texas legislature. It outlines outreach activities including a CS fair at SXSWedu and conferences where CS4TX will have a presence. It also summarizes teacher professional development efforts including an online course to prepare teachers for CS certification and mini-conferences on the AP Computer Science Principles course.
Making Sense of Texas Computer Science RequirementsHal Speed
This document summarizes computer science education requirements and opportunities in Texas. It outlines that high schools must offer Computer Science I and allow students to take two additional computer science courses to fulfill technology application graduation requirements. It also notes that computer science courses can count as mathematics or foreign language credits for university admission. The document discusses the NSF's Computer Science for All initiative to expand K-12 computer science education and train 10,000 new teachers. It provides examples of computer science pathways and course sequences for Texas school districts.
The document is a cover letter, resume, curriculum vitae, and entrance essay submitted by E. Rey Garcia for admission to Colorado Technical University's Doctorate of Computer Science in Enterprise Information Systems program. Garcia has over 20 years of experience in IT and public administration and is seeking to research ways to migrate legacy systems to cloud-based solutions. The attached materials provide details of Garcia's background, qualifications, research interests, and motivation for pursuing this degree.
This document discusses the importance of expanding computer science education in K-12 schools. It provides an overview of recent funding and initiatives at the federal and state level to support computer science education. It also discusses trends showing a shift toward jobs requiring digital skills and the need for more students to learn computer science. The document outlines Texas' computer science curriculum framework and course requirements. It proposes sample high school computer science pathways and provides examples of course sequences from Leander ISD. It concludes by advertising professional development opportunities for teachers through the WeTeachCS program.
Best Engineering Colleges of Computer science – GNIOTGniot group
This document provides information about the B.Tech Computer Science program at Greater Noida Institute of Technology. The 4-year program trains students in both electrical engineering and computer science, with courses in software design, hardware, and their integration. It has an intake of 120 students in the morning batch and 60 in the evening batch for the first year. Eligible students will have a background in physics, math, and chemistry or computer science. The institute provides air conditioned computer labs, servers, high speed internet, software, and equipment to support the program's laboratories in areas like programming, databases, algorithms, graphics, and more. It also has a student-run computer society and research center promoting open source technologies.
This document provides information about the Computer Science department at SDSU, including:
- A list of faculty members in the department.
- Degrees and programs offered, including a B.S. in Computer Science, minor in Computer Science, and certificates.
- An overview of the Computer Science major requirements, including preparation courses, upper division requirements, and electives.
- Details on the impacted status of the major and requirements to complete it.
- Course descriptions for lower and upper division Computer Science courses.
This quarterly webinar slide deck covered past coding events in Austin, upcoming conferences and hackathons, including a May coding event for Texas. It also discussed a state of the states report, next steps such as aligning objectives with state recommendations, and integrating computer science into more plans and curriculums. Finally, it noted upcoming regional and state computer science contests.
Bachelor of science (hons) computer science1haomiao zhang
This document appears to be a transcript or course schedule for Haomiao Zhang's Bachelor of Science (Hons) in Computer Science (DT228) program. It lists the module titles, codes, credits, and semesters for courses taken in each of the four stages (years) of the degree program. The core courses include subjects like algorithms, programming, databases, software engineering, and mathematics, while optional courses cover more specialized topics in areas such as artificial intelligence, security, games, and bioinformatics.
Computer Science Imperative for K-12 and BeyondHal Speed
The document discusses expanding access to computer science (CS) education in K-12 schools. It outlines $4 billion in new funding for states to develop CS curriculum and teacher training. The goal is to teach CS fundamentals to all students and increase the number pursuing digital careers. Charts show growing demand for digital jobs and declining demand for physical labor jobs. The presentation argues for making CS education requirements more robust in Texas schools to better prepare students for future opportunities.
Presentation of research findings into the provision of course in Computer Science in upper second level education internationally at the NCCA Seminar on the introduction Computer Science in the Leaving Certificate. Dublin Castle 21st February 2017.
Research project led by Neil Keane & Clare McInerney of the Irish Software Research Centre.
Supported by an expert research group of Prof. Kevin Ryan, Prof. Tiziana Margaria, Prof. Rory O’Connor, Dr. Chris Exton (from Lero), Dr. Oliver McGarr, Prof. Sibel Erduran (from National STEM Centre at the School of Education University of Limerick)and Mr. Ted Parslow (Third Level Computing Forum).
Building a Computer Science Pathway for EndorsementsHal Speed
This document provides information on building a computer science pathway for high school endorsements in Texas. It discusses trends in digital jobs, computer science courses, and professional development opportunities for teachers. The document outlines potential pathways using both Career and Technical Education (CTE) and Technology Applications (TA) courses to satisfy computer science requirements for high school graduation and endorsements. It also shares data on current computer science course enrollment and teachers in Texas.
Making Sense of Texas Computer Science Requirements - January 2018Hal Speed
This document provides an overview of computer science requirements and pathways in Texas. It discusses how the Texas State Board of Education is working to expand computer science opportunities for all students. Key points include:
- New graduation requirements allow computer science courses to fulfill mathematics and language credits.
- The board is considering allowing additional AP and IB computer science courses to fulfill requirements.
- Endorsements for STEM and business/industry include various computer science and technology application courses.
- Sample pathways from school districts show options like fundamentals of computer science before AP courses.
- The goal is for all students to have foundational understanding of computer science and increased participation in digital careers.
Making Sense of Computer Science Requirements for Texas High Schools -- June ...Hal Speed
The document summarizes computer science requirements and recommendations for Texas. It discusses:
- Current high school graduation requirements that include computer science courses
- Proposed changes to graduation requirements to count more CS courses for math and language credits
- Recommendations for school districts to offer pathways in computer science, including sample pathways from Leander ISD and Georgetown ISD
- Growth in enrollment in courses like AP Computer Science Principles, Computer Science I, and robotics programming between 2014-2018.
This document outlines computer science education initiatives and requirements in Texas. It discusses $4 billion in federal funding for expanding K-12 computer science education. It also outlines Texas' computer science curriculum requirements for high schools, including course pathways and endorsements. The document proposes sample course sequences and shares challenges faced by Georgetown ISD in implementing their computer science program. Finally, it provides an overview of the WeTeachCS professional development opportunities available statewide for computer science teachers.
26 march 2015 muley sir computer science in env science mahesh joshiMahesh Joshi
This is my PPT presented during my M.Sc Environmental Science Course in the year 2014- 2016 at Department of Environmental Science, Dr. Babasaheb Ambedkar Marathwada University, Aurangabad, Maharashtra, India.
This document outlines the regulations, scheme, and syllabus for the Bachelor of Computer Applications (BCA) degree program offered by Bangalore University in India. Some key points:
- The BCA is a 6 semester (3 year) program following a choice based credit system and semester scheme.
- Courses include subjects like problem solving using C, data structures, databases, operating systems, computer networks, and more.
- Each semester has 5 theory and 2 practical papers, except for semesters 5 and 6 which include additional projects.
- Exams are held at the end of each semester for theory and practical papers. Regulations cover attendance requirements, duration of the program, eligibility for admission,
This document summarizes the educational background and qualifications of an individual who earned a BSc in Computer Science from Oxford Brookes University between 2012-2015, achieving a 2:1 overall. During their time at Oxford Brookes, they received mostly A's and B's, with a few C grades. They previously attended Forest Academy Sixth Form from 2010-2012 where they earned B's in Mathematics and Polish and C's and D's in other subjects. Before that, they attended Hainault Forest High School from 2008-2010 and received A's in Mathematics and Polish along with passes in other GCSE subjects.
Ramzi Abbyad attended the American University of Beirut where he received a Bachelor of Science in 2010. He then attended their Graduate School of Arts and Science to pursue a Master of Science in Scientific Computing. Over the course of his graduate studies from Fall 2011 to Spring 2013, Ramzi took courses in programming languages, numerical methods, algorithms, computer graphics, and applied mathematics and received grades ranging from A to B+.
Associate of Applied Science Degree - Information TechnologyDaniel Beaumont
This degree offers an Associate of Applied Science in Information Technology. The degree provides students with a general knowledge of computer hardware, software, operating systems, applications, and networking. Coursework covers topics such as PC and network administration, web design, programming, databases, and security. Successful completion of the program offers students a clear path to understanding today's computer technology.
The document discusses the teaching scheme and contents for the Operating System subject for the fifth semester of the Diploma in Computer Engineering course. It provides an overview of the subject, including its objectives, topics to be covered, teaching scheme with hours and marks allotted to each topic, and list of practical exercises. The subject aims to develop skills in understanding operating system concepts like processes, scheduling, memory management, file systems etc. It also provides an introduction to the UNIX operating system. The teaching scheme allocates 48 hours of theory classes and 18 hours of practical sessions.
Scheme g third semester (co,cm,cd,if, cw)anita bodke
This document outlines the teaching and examination scheme for the third semester of various diploma programs. It includes:
1. The subject Data Structure Using 'C' which has 4 hours of theory and 4 hours of practical classes per week. It will be examined through a theory paper worth 100 marks, a practical exam of 50 marks, and internal assessment of 25 marks.
2. Details of the Applied Mathematics subject including its objectives, learning structure, theory topics and contents across various engineering programs for the third semester.
3. Excerpts from documents providing more context on the Data Structure Using 'C' and Applied Mathematics subjects, including their objectives, importance, and learning outcomes for students.
The document provides information about the School of Information and Communication Technology (ICT) at Gautam Buddha University. It summarizes the academic programs offered including 5-year dual degree programs, 3-year MTech programs for science graduates, 2-year MTech programs for engineering graduates, and PhD programs. It also describes the various specializations and courses offered at the undergraduate and postgraduate level in areas like software engineering, wireless communication, VLSI design, and more. It lists the laboratories and facilities available and provides details about research activities, placements, and the curriculum structure for some of the programs.
Presentation @ #cesicon 2017 on the Provision of Computer Science in Upper Se...Neil Keane
Presentation of research findings into the provision of course in Computer Science in Upper Second Level Education Internationally at the Computers in Education Society
of Ireland (CESI) Conference 4th March 2017 in Dublin City University (DCU).
Research project led by Neil Keane & Clare McInerney of the Irish Software Research Centre.
Supported by an expert research group of Prof. Kevin Ryan, Prof. Tiziana Margaria, Prof. Rory O’Connor, Dr. Chris Exton (from Lero), Dr. Oliver McGarr, Prof. Sibel Erduran (from National STEM Centre at the School of Education University of Limerick)and
Mr. Ted Parslow (Third Level Computing Forum).
Relational Model and Relational Algebra - Lecture 3 - Introduction to Databas...Beat Signer
The document discusses Edgar Codd's relational model for data management. It describes how Codd developed the relational model while working at IBM and published a seminal paper on it in 1970. It also discusses how IBM initially did not implement the model, but later developed prototypes like System R that helped drive commercial relational database management systems. The document provides an introduction to key concepts of the relational model like relational algebra operations, relations, attributes, keys and database schemas.
This document discusses the importance of expanding computer science education in K-12 schools. It provides an overview of recent funding and initiatives at the federal and state level to support computer science education. It also discusses trends showing a shift toward jobs requiring digital skills and the need for more students to learn computer science. The document outlines Texas' computer science curriculum framework and course requirements. It proposes sample high school computer science pathways and provides examples of course sequences from Leander ISD. It concludes by advertising professional development opportunities for teachers through the WeTeachCS program.
Best Engineering Colleges of Computer science – GNIOTGniot group
This document provides information about the B.Tech Computer Science program at Greater Noida Institute of Technology. The 4-year program trains students in both electrical engineering and computer science, with courses in software design, hardware, and their integration. It has an intake of 120 students in the morning batch and 60 in the evening batch for the first year. Eligible students will have a background in physics, math, and chemistry or computer science. The institute provides air conditioned computer labs, servers, high speed internet, software, and equipment to support the program's laboratories in areas like programming, databases, algorithms, graphics, and more. It also has a student-run computer society and research center promoting open source technologies.
This document provides information about the Computer Science department at SDSU, including:
- A list of faculty members in the department.
- Degrees and programs offered, including a B.S. in Computer Science, minor in Computer Science, and certificates.
- An overview of the Computer Science major requirements, including preparation courses, upper division requirements, and electives.
- Details on the impacted status of the major and requirements to complete it.
- Course descriptions for lower and upper division Computer Science courses.
This quarterly webinar slide deck covered past coding events in Austin, upcoming conferences and hackathons, including a May coding event for Texas. It also discussed a state of the states report, next steps such as aligning objectives with state recommendations, and integrating computer science into more plans and curriculums. Finally, it noted upcoming regional and state computer science contests.
Bachelor of science (hons) computer science1haomiao zhang
This document appears to be a transcript or course schedule for Haomiao Zhang's Bachelor of Science (Hons) in Computer Science (DT228) program. It lists the module titles, codes, credits, and semesters for courses taken in each of the four stages (years) of the degree program. The core courses include subjects like algorithms, programming, databases, software engineering, and mathematics, while optional courses cover more specialized topics in areas such as artificial intelligence, security, games, and bioinformatics.
Computer Science Imperative for K-12 and BeyondHal Speed
The document discusses expanding access to computer science (CS) education in K-12 schools. It outlines $4 billion in new funding for states to develop CS curriculum and teacher training. The goal is to teach CS fundamentals to all students and increase the number pursuing digital careers. Charts show growing demand for digital jobs and declining demand for physical labor jobs. The presentation argues for making CS education requirements more robust in Texas schools to better prepare students for future opportunities.
Presentation of research findings into the provision of course in Computer Science in upper second level education internationally at the NCCA Seminar on the introduction Computer Science in the Leaving Certificate. Dublin Castle 21st February 2017.
Research project led by Neil Keane & Clare McInerney of the Irish Software Research Centre.
Supported by an expert research group of Prof. Kevin Ryan, Prof. Tiziana Margaria, Prof. Rory O’Connor, Dr. Chris Exton (from Lero), Dr. Oliver McGarr, Prof. Sibel Erduran (from National STEM Centre at the School of Education University of Limerick)and Mr. Ted Parslow (Third Level Computing Forum).
Building a Computer Science Pathway for EndorsementsHal Speed
This document provides information on building a computer science pathway for high school endorsements in Texas. It discusses trends in digital jobs, computer science courses, and professional development opportunities for teachers. The document outlines potential pathways using both Career and Technical Education (CTE) and Technology Applications (TA) courses to satisfy computer science requirements for high school graduation and endorsements. It also shares data on current computer science course enrollment and teachers in Texas.
Making Sense of Texas Computer Science Requirements - January 2018Hal Speed
This document provides an overview of computer science requirements and pathways in Texas. It discusses how the Texas State Board of Education is working to expand computer science opportunities for all students. Key points include:
- New graduation requirements allow computer science courses to fulfill mathematics and language credits.
- The board is considering allowing additional AP and IB computer science courses to fulfill requirements.
- Endorsements for STEM and business/industry include various computer science and technology application courses.
- Sample pathways from school districts show options like fundamentals of computer science before AP courses.
- The goal is for all students to have foundational understanding of computer science and increased participation in digital careers.
Making Sense of Computer Science Requirements for Texas High Schools -- June ...Hal Speed
The document summarizes computer science requirements and recommendations for Texas. It discusses:
- Current high school graduation requirements that include computer science courses
- Proposed changes to graduation requirements to count more CS courses for math and language credits
- Recommendations for school districts to offer pathways in computer science, including sample pathways from Leander ISD and Georgetown ISD
- Growth in enrollment in courses like AP Computer Science Principles, Computer Science I, and robotics programming between 2014-2018.
This document outlines computer science education initiatives and requirements in Texas. It discusses $4 billion in federal funding for expanding K-12 computer science education. It also outlines Texas' computer science curriculum requirements for high schools, including course pathways and endorsements. The document proposes sample course sequences and shares challenges faced by Georgetown ISD in implementing their computer science program. Finally, it provides an overview of the WeTeachCS professional development opportunities available statewide for computer science teachers.
26 march 2015 muley sir computer science in env science mahesh joshiMahesh Joshi
This is my PPT presented during my M.Sc Environmental Science Course in the year 2014- 2016 at Department of Environmental Science, Dr. Babasaheb Ambedkar Marathwada University, Aurangabad, Maharashtra, India.
This document outlines the regulations, scheme, and syllabus for the Bachelor of Computer Applications (BCA) degree program offered by Bangalore University in India. Some key points:
- The BCA is a 6 semester (3 year) program following a choice based credit system and semester scheme.
- Courses include subjects like problem solving using C, data structures, databases, operating systems, computer networks, and more.
- Each semester has 5 theory and 2 practical papers, except for semesters 5 and 6 which include additional projects.
- Exams are held at the end of each semester for theory and practical papers. Regulations cover attendance requirements, duration of the program, eligibility for admission,
This document summarizes the educational background and qualifications of an individual who earned a BSc in Computer Science from Oxford Brookes University between 2012-2015, achieving a 2:1 overall. During their time at Oxford Brookes, they received mostly A's and B's, with a few C grades. They previously attended Forest Academy Sixth Form from 2010-2012 where they earned B's in Mathematics and Polish and C's and D's in other subjects. Before that, they attended Hainault Forest High School from 2008-2010 and received A's in Mathematics and Polish along with passes in other GCSE subjects.
Ramzi Abbyad attended the American University of Beirut where he received a Bachelor of Science in 2010. He then attended their Graduate School of Arts and Science to pursue a Master of Science in Scientific Computing. Over the course of his graduate studies from Fall 2011 to Spring 2013, Ramzi took courses in programming languages, numerical methods, algorithms, computer graphics, and applied mathematics and received grades ranging from A to B+.
Associate of Applied Science Degree - Information TechnologyDaniel Beaumont
This degree offers an Associate of Applied Science in Information Technology. The degree provides students with a general knowledge of computer hardware, software, operating systems, applications, and networking. Coursework covers topics such as PC and network administration, web design, programming, databases, and security. Successful completion of the program offers students a clear path to understanding today's computer technology.
The document discusses the teaching scheme and contents for the Operating System subject for the fifth semester of the Diploma in Computer Engineering course. It provides an overview of the subject, including its objectives, topics to be covered, teaching scheme with hours and marks allotted to each topic, and list of practical exercises. The subject aims to develop skills in understanding operating system concepts like processes, scheduling, memory management, file systems etc. It also provides an introduction to the UNIX operating system. The teaching scheme allocates 48 hours of theory classes and 18 hours of practical sessions.
Scheme g third semester (co,cm,cd,if, cw)anita bodke
This document outlines the teaching and examination scheme for the third semester of various diploma programs. It includes:
1. The subject Data Structure Using 'C' which has 4 hours of theory and 4 hours of practical classes per week. It will be examined through a theory paper worth 100 marks, a practical exam of 50 marks, and internal assessment of 25 marks.
2. Details of the Applied Mathematics subject including its objectives, learning structure, theory topics and contents across various engineering programs for the third semester.
3. Excerpts from documents providing more context on the Data Structure Using 'C' and Applied Mathematics subjects, including their objectives, importance, and learning outcomes for students.
The document provides information about the School of Information and Communication Technology (ICT) at Gautam Buddha University. It summarizes the academic programs offered including 5-year dual degree programs, 3-year MTech programs for science graduates, 2-year MTech programs for engineering graduates, and PhD programs. It also describes the various specializations and courses offered at the undergraduate and postgraduate level in areas like software engineering, wireless communication, VLSI design, and more. It lists the laboratories and facilities available and provides details about research activities, placements, and the curriculum structure for some of the programs.
Presentation @ #cesicon 2017 on the Provision of Computer Science in Upper Se...Neil Keane
Presentation of research findings into the provision of course in Computer Science in Upper Second Level Education Internationally at the Computers in Education Society
of Ireland (CESI) Conference 4th March 2017 in Dublin City University (DCU).
Research project led by Neil Keane & Clare McInerney of the Irish Software Research Centre.
Supported by an expert research group of Prof. Kevin Ryan, Prof. Tiziana Margaria, Prof. Rory O’Connor, Dr. Chris Exton (from Lero), Dr. Oliver McGarr, Prof. Sibel Erduran (from National STEM Centre at the School of Education University of Limerick)and
Mr. Ted Parslow (Third Level Computing Forum).
Relational Model and Relational Algebra - Lecture 3 - Introduction to Databas...Beat Signer
The document discusses Edgar Codd's relational model for data management. It describes how Codd developed the relational model while working at IBM and published a seminal paper on it in 1970. It also discusses how IBM initially did not implement the model, but later developed prototypes like System R that helped drive commercial relational database management systems. The document provides an introduction to key concepts of the relational model like relational algebra operations, relations, attributes, keys and database schemas.
This document discusses relational database design and normalization. It outlines two major design approaches: top-down design which develops a conceptual model like an ER diagram and maps it to relational schemas, and bottom-up design which uses normalization to iteratively decompose relations. The document then describes how to map different ER model concepts like entities, attributes, and relationships to relational schemas. It also discusses functional dependencies, normalization forms, and how normalization can be used to remove redundancies and anomalies from relational schemas.
This document discusses the field of computer science and IT engineering. It provides an overview of the scope of the field, new and popular programs of study, trends and developments in research, opportunities and benefits of pursuing a degree or career in this area. It also lists some top awards and institutions. The future of the field is said to involve continued growth in areas like artificial intelligence, cloud computing, the internet of things, and more efficient algorithms to solve large and complex problems.
Extended ER Model and other Modelling Languages - Lecture 2 - Introduction to...Beat Signer
The document discusses extensions that have been made to the Entity-Relationship (ER) model, including specialization and generalization relationships, aggregation, and constraints. It provides examples of using these constructs to model real-world domains more expressively. The Extended ER (EER) model and Unified Modeling Language (UML) are then introduced as ways to further enhance conceptual modeling capabilities.
Computer science curriculum based on Program learning outcomes and objectivesJawad Khan
The document outlines a computer science curriculum that meets industry needs and student expectations. It discusses using an outcome-based approach with defined course and program learning objectives. The program learning objectives for computer science include imparting an understanding of basics, developing proficiency in computing practices, and preparing for continued professional development. A case study demonstrates how to design a course on computer programming by discovering real-world applications of the topic, breaking problems down into learnable parts, and developing course content based on the application, programming language, and concepts needed to solve the problems. The goal is to develop a curriculum with industrial applications that cover topics from the computer science discipline.
Structured Query Language (SQL) - Lecture 5 - Introduction to Databases (1007...Beat Signer
The document discusses Structured Query Language (SQL) and its history and components. It notes that SQL is a declarative query language used to define database schemas, manipulate data through queries, and control transactions. The document outlines SQL's data definition language for defining schemas and data manipulation language for querying and modifying data. It also provides examples of SQL statements for creating tables and defining constraints.
This document provides an overview of the OCR GCSE Computer Science course offered at Bartholomew School from 2017 to 2019. It details the three units that make up the course, which cover computer systems, computational thinking and algorithms, and a programming project. It also outlines the topics covered in each unit and assessment details. Resources used include a computer science textbook and Micro:bit devices. The document emphasizes that the course helps develop problem solving and coding skills and prepares students for the future.
This presentation is about a lecture I gave within the "Software Modeling" course of the Computer Science bachelor program, of the Vrije Universiteit Amsterdam.
http://www.ivanomalavolta.com
This document provides an outline for a presentation on CS education. It discusses introducing CS and computational thinking in K-12 education. Computational thinking involves abstraction and automation. Students should learn about software and hardware design, algorithms, and computer capabilities and limitations. The role of CS involves changing the world through logical problem solving and creativity by combining mathematics, science, design and technology. CS concepts include abstraction, logic, algorithms and data representation. Computational thinking can be applied to solve new problems systematically. Examples of computational thinking in daily life are also provided.
This document provides an overview of authorization controls in database management systems. It discusses how different types of privileges can be assigned to users via data definition language statements. It also covers the use of roles to group users and how privileges can be passed to other users. The document contains examples of granting and revoking privileges and roles.
Incremental garbage collection is an efficient way to improve the performance of real-time applications. It divides the full garbage collection process into smaller parts that each execute for a minimal time with very short pauses. The Mark and Sweep algorithm identifies reachable objects in the Mark phase and clears unreachable objects in the Sweep phase. Garbage collection techniques reduce the effort of manual memory management for programmers.
The soul is defined as a “distinguishing mark of living things, responsible for planning and practical thinking”. Logic has been present in the origin and many important developments in Computer Science.
Hilbert’s quest for effective methods to mechanically prove theorems stimulated some of the brightest minds of the 20th century to prove it unfeasible. Eigthy years ago, Church and Turing advanced the thesis that lambda calculus and a-machines formalize the notion of effective method, and displayed sentences which could not be proved or disproved. This was the end of Hilbert’s dream and the birth of Computer Science. The Universal Turing Machine became the abstract model of our current notion of computer.
Since then, we can find logic wired into the electronic devices that make computers alive; providing a communication language with the computer; guiding verification methods to prove programs correct; and providing the basis for the semantic web. We’ll review these epiphanies so you’ll be hopefully ready to agree that Logic is the Soul of Computer Science.
Modern electronic structure codes give relatively consistent equations of state. There remain challenges to fully automating electronic structure calculations, such as developing robust materials analysis software to integrate calculations, detecting and correcting errors, and managing scientific workflows. Frameworks like pymatgen, ASE, the Materials Project, AiiDA and Custodian provide modular, reusable tools for high-throughput electronic structure computations and extensive materials analysis capabilities. FireWorks serves as a workflow manager to automate calculations over diverse supercomputing resources. With automation comes large quantities of materials data that can be leveraged for materials design and discovery.
The Computer Science Imperative for K-12 and BeyondWeTeach_CS
This document provides an overview of computer science education initiatives and professional development opportunities in Texas. It discusses the $4 billion in federal funding for expanding K-12 computer science education and state-level strategic plans. It also outlines the AP Computer Science Principles curriculum and compares it to the AP Computer Science A curriculum. Additionally, it shares details on high school computer science course requirements and pathways in Texas. Finally, it lists numerous professional development opportunities for teachers through programs like WeTeachCS, Keep Calm and Java On, and the Teach CS Certificate Incentive Program.
Building a Computer Science Pathway for EndorsementsWeTeach_CS
A presentation by Hal Speed of TACSE and Carol Fletcher of the University of Texas Center for STEM Education at the T-STEM meeting in January 2016. A presentation on multiple pathways for offering Computer Science endorsements in Texas high schools.
Making Sense of Texas High School Computer Science Requirements and OptionsHal Speed
The document provides information about high school computer science requirements and options in Texas. It discusses the state's foundation high school program requirements, including allowing computer science courses to fulfill the languages other than English requirement. It also details the endorsement options of STEM and Business & Industry, outlining the specific computer science and technology application course requirements to attain each endorsement. The document gives an overview of the Exploring Computer Science and AP Computer Science Principles curricula available through the National Science Foundation's Computing Education for the 21st Century program.
Building a Computer Science Pipeline in Your DistrictWeTeach_CS
Presentation by Hal Speed, Kim Garcia and John Owen at TCEA February 2016. How public school administrators can provide computer science in elementary, middle and high school to prepare students for tomorrow's jobs.
This document provides an overview of computer science education initiatives in Texas. It discusses the need to expand access to computer science courses in K-12 schools given growing jobs in the field. It outlines Code.org curriculum and professional development programs to train teachers. It also summarizes Texas graduation requirements and endorsements that integrate computer science. National programs like Exploring Computer Science and AP Computer Science Principles aimed at broadening participation are presented. The document promotes expanding computer science pathways for all students and increasing diversity in the field.
This document summarizes information presented at a conference on computer science (CS) education in Texas. It discusses:
- The growing demand for CS jobs and lack of graduates to fill them.
- Efforts in Texas to expand CS education, including requiring all high schools to offer CS courses and certifying more teachers.
- Goals of the WeTeach_CS program to increase the number of schools offering CS, student enrollment in CS courses, and participation of underrepresented groups.
- Recommended CS course pathways and upcoming trainings to support CS education.
Preparing Your Students for the Innovation Economy with WeTeach_CS WeTeach_CS
The document discusses preparing students for careers in computer science and the innovation economy through the WeTeach_CS program. It notes that there will be 1 million more computing jobs than graduates by 2020 and that Texas had only 2,103 computer science graduates in 2014. WeTeach_CS provides training to Texas educators, with over 1,350 educators from 697 schools and districts participating. The program aims to increase the number of certified computer science teachers and offers online and in-person professional development courses.
Kentucky's Cybersecurity Pathway for Teens By Ryan DealDawn Yankeelov
Jefferson County Public Schools will be implementing Kentucky's new cybersecurity pathway this Fall. This presentation was made at Techfest Louisville 2017 hosted by the Technology Association of Louisville Kentucky.
Addmissions are open to IT Specialist Short-Term Certificate program offered by Northwest State Community College of Ohio. The IT Specialist short-term certificate program develops skills in database management and reporting as well as foundations of computer programming.
Texas is a national leader in K-12 computer science education. It requires all high schools to offer computer science courses, and counts computer science as a math or foreign language credit towards high school graduation. It also requires computer science teachers to be certified in the subject. Upcoming changes will add a cybersecurity pathway and allow more computer science courses to satisfy graduation requirements. Texas has seen large increases in female and underrepresented minority participation in AP Computer Science courses.
In a world of technological innovation, careers in technology are not only on the rise but promising lasting careers as we rely more and more on computers in business and our personal lives. In addition to seeing the number of tech jobs increase, we are also seeing the variety increase as new forms of technology emerge. With this slide show, find out more about some of the typical responsibilities and projected growth for three top tech careers: application development, network administration, and tech support.
This document summarizes Carol Fletcher's presentation on building a K-12 computer science pipeline in Texas. The presentation discusses what computer science is, why it is important, the current state of CS education in Texas, and strategies for growing K-12 CS programs. It provides data on the lack of CS teachers in Texas and efforts through the WeTeachCS program to increase teacher certification. The presentation outlines a proposed pathway for K-12 CS courses and identifies upcoming trainings and opportunities.
The document outlines the Bachelor of Computer Applications (BCA) program which aims to equip students with both software and hardware skills to work in the field of computer science. It recommends students own laptops for personal study. The program encourages students to take additional certification programs in areas like accounting, networking, and software during the course. Eligibility requires completion of 10+2 education. The curriculum spans 6 semesters covering topics in programming, databases, operating systems, visual design, and software engineering, with labs and projects.
This document provides an overview of computer science (CS) education in Texas. It discusses what CS is, why it is important, and the current state of CS education in the state. Key points include that CS leads to economic opportunity and is foundational for all students. However, few Texas high schools offer CS courses and there is a lack of certified CS teachers. The WeTeach_CS program aims to address this by training more teachers and increasing access to introductory CS courses like CS Discoveries and AP Computer Science Principles. The document outlines pathways for growing local CS programs and increasing participation of underrepresented groups.
B.Tech in Computer Science Engineering is one of the most important branches of engineering. B.Tech in CSE is among the top choices for all engineering students. The duration of this course is four years. The programme focuses on the basics of computer programming and networking which is the basic need of modern age. The topics covered under B.Tech in Computer Science Engineering are related to algorithms, computation, programming languages, programme design, computer hardware, computer software etc. It is a detailed course in computer systems and applications.
Texas is a national leader in K-12 computer science education. It requires all high schools to offer computer science courses, and counts computer science courses towards graduation requirements like mathematics and foreign language credits. However, there is a lack of computer science teachers in Texas, with only 23 individuals completing a teaching program for computer science certification in 2017. Various programs exist to help address this shortage, such as workshops to certify existing teachers in computer science and funding for computer science teacher training.
This document provides a curriculum framework for a Web Design program in Florida. The program is designed to prepare students for careers as an Information Technology Assistant, HTML Coder, Web Graphic Designer, and Web Producer. The program consists of four occupational completion points, including an introductory IT course. Coursework covers topics such as operating systems, web document development, design, promotion, and scripting. Upon completing the program, students will be able to perform tasks such as assisting with IT needs, coding in HTML, designing graphics for websites, and producing full websites.
The document discusses Kaufman Independent School District's (KISD) technology plan and E-Rate funding process. It defines E-Rate as a program providing discounts for telecom and internet access to schools. It reviews KISD's teacher technology assessment results, long-range technology plan goals of enhancing teaching/learning and support services, and its three-year $854,173 budget allowing $230.86 per student. The plan aims to meet technology needs on a limited budget with limited personnel.
Similar to Building a Computer Science Pathway in Your High School - Feb 2017 (20)
Teaching Machine Learning with Physical Computing - July 2023Hal Speed
This document provides an overview of resources for teaching machine learning and artificial intelligence concepts to K-12 students. It discusses machine learning concepts and workflows. It then lists and briefly describes various hardware platforms, software tools, curricula, and online resources that can be used to teach machine learning, including platforms for visual programming languages like Scratch and Blockly.
Combining Machine Learning with Physical Computing - June 2023Hal Speed
Machine learning and physical computing can be combined for educational purposes. Several platforms and tools were described that allow students to collect sensor data, train machine learning models, and deploy models to physical devices like microcontrollers to perform tasks. Examples included using micro:bit, Arduino, Raspberry Pi, and smartphones for collecting data from sensors to classify images, sounds, and motions using pre-trained and custom models. Open-source platforms and curricula were provided to help educators incorporate machine learning and physical computing into their lessons.
Combining Machine Learning with Physical Computing - June 2022Hal Speed
This document provides an overview of resources for teaching machine learning and artificial intelligence concepts to K-12 students. It begins with primers on machine learning and the machine learning workflow. It then highlights various hardware platforms, software tools, curricula, and online resources that can be used to teach concepts through hands-on projects involving data collection, model training, and inferences. Examples discussed include platforms like EdX Tiny Machine Learning, Teachable Machine, Microsoft MakeCode, and resources from Code.org, ISTE, and ReadyAI.
Engaging Young Learners with Humanoid Robots - Feb 2022Hal Speed
This document discusses how humanoid robots can engage young learners in education. It notes that humanoid robots have a human form and behavior that helps develop computational thinking in students. They have also been shown to foster greater engagement across subjects due to their human-like qualities invoking a stronger sense of connection. Specifically, humanoid robots are a useful education tool for teaching children on the autistic spectrum. The document introduces Marty, a programmable humanoid robot by Robotical that is full of personality and can walk, dance, and be programmed through an app. It provides example lesson plans that align with curricula and include teaching guides and additional resources to support learning activities with Marty.
This step-by-step setup guide makes it easy to use micro:bit classroom for teachers and students in a virtual or physical classroom setting. Works with both Microsoft MakeCode and Python.
This document appears to be a slide presentation about the Micro:bit Educational Foundation and the micro:bit device. Some key points summarized:
- The micro:bit is a small physical computing device designed for computer science education that has inputs like buttons and sensors and can be programmed for outputs.
- Research has shown the micro:bit helps more students see that anyone can code, increases the number of girls interested in computing, and makes coding easier for students.
- The presentation outlines various curriculum and lesson plans for teaching coding with the micro:bit using platforms like Scratch, MakeCode, Python, and more.
- Accessories are available to expand what students can do with the micro:bit and
Hal Speed gave a presentation about the Micro:bit Educational Foundation. The Foundation aims to get people creative, connected, and coding with its Micro:bit device. The Micro:bit is designed as a learning tool for digital skills and backed by research showing it helps students learn coding. It can be programmed using Blocks, JavaScript, Python, and connected to Scratch. Resources on the Foundation's website include lessons, projects, and ways to get involved with translation.
This document discusses the micro:bit, a small programmable device designed to teach coding and computer science. It provides an overview of the micro:bit's features, various programming languages and tools that can be used with it including Scratch and MakeCode, and curriculum resources aligned to its use. Research findings are presented showing the micro:bit helps students learn coding and girls show more interest in computing. Options for purchasing micro:bit kits and accessories are also mentioned.
Physical Computing: To the U.K. and Beyond! - Sept 2018Hal Speed
1) Hal Speed gave a presentation on using physical computing devices like the micro:bit to teach computer science, highlighting the micro:bit's use in the UK and other countries.
2) The micro:bit was distributed to over 1 million UK students in 2015 and studies found it helped students see coding as approachable and increased their likelihood to study coding.
3) The Micro:bit Educational Foundation was formed in 2016 to expand access globally, partnering with over 140 organizations to distribute micro:bits in over 50 countries.
This document discusses the Micro:bit educational foundation and the Micro:bit device. Some key points:
- The Micro:bit is a small programmable device designed for educational use by students aged 11-12. Over 1 million were distributed in the UK in 2015.
- Studies found 90% of students said the Micro:bit helped show anyone can code, and 70% more girls said they would choose computing.
- The Micro:bit educational foundation was formed in 2016 to make the Micro:bit available globally. It can be programmed through block coding in MakeCode or text coding in JavaScript, Python, and more.
- Many lessons and curricula have been developed to teach concepts like
This document discusses the Micro:bit Educational Foundation and the micro:bit device. It provides an overview of the micro:bit's origins in 2015 as a learning tool for UK students aged 11-12. It describes the various programming languages and curricula available to teach coding concepts using the micro:bit. Examples of lessons and projects are shown. Accessories, books, and ways to purchase micro:bits in the US are also outlined. The presentation concludes with a demonstration of sample micro:bit projects.
Micro:bit Arkansas CS Ed Leadership Summit 4.0 - Oct 2017Hal Speed
1) The micro:bit is a small programmable device designed for educational purposes for students aged 11-12.
2) In 2015, 1 million micro:bit devices were distributed across the UK to students through a BBC initiative.
3) Surveys found that 90% of students said the micro:bit helped show that anyone can code and 70% more girls said they would choose computing.
Micro:bit Maker Faire NY Education Forum - Sept 2017Hal Speed
The document discusses the Micro:bit Educational Foundation and the micro:bit device. It provides details on the initial distribution of 1 million micro:bit devices to 11-12 year old students in the UK in 2015. It also discusses the micro:bit's use in the US starting in 2017 and provides examples of coding lessons and third-party curricula using the micro:bit. Additionally, it outlines the various programming languages and tools used to code the micro:bit as well as accessory packages available.
This document summarizes the objectives and plans of CS4TX, a nonprofit organization working to expand computer science education opportunities across Texas. The objectives are to teach foundational computer science concepts to all students and increase the number pursuing digital careers. CS4TX is taking a collective impact approach, with a shared vision of computer science for all students from K-12. The plan involves grassroots advocacy, teacher training, curriculum/standards work, and establishing CS4TX chapters around the state. Next steps discussed include aligning with state initiatives, adding a dedicated CS position, and developing K-8 computer science standards.
The document provides an introduction to physical computing and robotics, presenting various hardware options for introducing students to computer science concepts through hands-on learning with devices like Microbit, Adafruit Circuit Playground, Arduino, Raspberry Pi, Ozobot, Sphero, and LEGO Mindstorms. It discusses the benefits of physical computing for motivating students and supporting collaboration and creativity. Price ranges and target audiences are provided for the different hardware options.
This document discusses the Micro:bit Educational Foundation and the micro:bit device. It provides the following information:
- The micro:bit is a small programmable device that aims to get students interested in coding. A pilot program in the UK saw over 1 million devices distributed to 11-12 year olds.
- Surveys found that 90% of students said using the micro:bit helped show that anyone can code, and there was a 70% increase in the number of girls interested in computing.
- The micro:bit and its educational resources are now available in the US and Canada. It can be programmed several ways, including block-based languages like Microsoft MakeCode. It has sensors,
Get Creative, Get Connected, Get Coding with micro:bit - June 2017Hal Speed
The document summarizes a presentation about the micro:bit, a small programmable device used to teach coding to children aged 11-12. It discusses how a million micro:bit devices were distributed in the UK in 2015, leading to a 70% increase in girls interested in computing. In 2016, the Micro:bit Educational Foundation was formed to expand distribution globally. The presentation demonstrates how to program the micro:bit using blocks and JavaScript in the Microsoft MakeCode editor. It provides examples of coding lessons and notes the micro:bit can be used across multiple subjects like science, art, and music.
Presentation from the Building State Capacity for Leadership in K-12 Computer Science Education Workshop organized by MassCAN/EDC at Google in Cambridge, MA
Connecting the High-Tech Industry to EducationHal Speed
This document discusses expanding K-12 computer science (CS) education through public and private partnerships. It provides information on the following:
- $4 billion in federal funding for states to expand K-12 CS education programs like Exploring CS and AP CS Principles.
- The importance of developing state-level CS education strategic plans and public-private partnerships to strengthen commitments to CS education.
- Seven steps for building successful school-industry partnerships, including finding shared goals, leadership, funding, formal agreements, communication, long-term commitments, and patience.
- IT-ology, a nonprofit collaboration between businesses, academics and organizations, that works to grow the IT talent pipeline through K-12 out
How to Build a Module in Odoo 17 Using the Scaffold MethodCeline George
Odoo provides an option for creating a module by using a single line command. By using this command the user can make a whole structure of a module. It is very easy for a beginner to make a module. There is no need to make each file manually. This slide will show how to create a module using the scaffold method.
How to Make a Field Mandatory in Odoo 17Celine George
In Odoo, making a field required can be done through both Python code and XML views. When you set the required attribute to True in Python code, it makes the field required across all views where it's used. Conversely, when you set the required attribute in XML views, it makes the field required only in the context of that particular view.
Walmart Business+ and Spark Good for Nonprofits.pdfTechSoup
"Learn about all the ways Walmart supports nonprofit organizations.
You will hear from Liz Willett, the Head of Nonprofits, and hear about what Walmart is doing to help nonprofits, including Walmart Business and Spark Good. Walmart Business+ is a new offer for nonprofits that offers discounts and also streamlines nonprofits order and expense tracking, saving time and money.
The webinar may also give some examples on how nonprofits can best leverage Walmart Business+.
The event will cover the following::
Walmart Business + (https://business.walmart.com/plus) is a new shopping experience for nonprofits, schools, and local business customers that connects an exclusive online shopping experience to stores. Benefits include free delivery and shipping, a 'Spend Analytics” feature, special discounts, deals and tax-exempt shopping.
Special TechSoup offer for a free 180 days membership, and up to $150 in discounts on eligible orders.
Spark Good (walmart.com/sparkgood) is a charitable platform that enables nonprofits to receive donations directly from customers and associates.
Answers about how you can do more with Walmart!"
This slide is special for master students (MIBS & MIFB) in UUM. Also useful for readers who are interested in the topic of contemporary Islamic banking.
LAND USE LAND COVER AND NDVI OF MIRZAPUR DISTRICT, UPRAHUL
This Dissertation explores the particular circumstances of Mirzapur, a region located in the
core of India. Mirzapur, with its varied terrains and abundant biodiversity, offers an optimal
environment for investigating the changes in vegetation cover dynamics. Our study utilizes
advanced technologies such as GIS (Geographic Information Systems) and Remote sensing to
analyze the transformations that have taken place over the course of a decade.
The complex relationship between human activities and the environment has been the focus
of extensive research and worry. As the global community grapples with swift urbanization,
population expansion, and economic progress, the effects on natural ecosystems are becoming
more evident. A crucial element of this impact is the alteration of vegetation cover, which plays a
significant role in maintaining the ecological equilibrium of our planet.Land serves as the foundation for all human activities and provides the necessary materials for
these activities. As the most crucial natural resource, its utilization by humans results in different
'Land uses,' which are determined by both human activities and the physical characteristics of the
land.
The utilization of land is impacted by human needs and environmental factors. In countries
like India, rapid population growth and the emphasis on extensive resource exploitation can lead
to significant land degradation, adversely affecting the region's land cover.
Therefore, human intervention has significantly influenced land use patterns over many
centuries, evolving its structure over time and space. In the present era, these changes have
accelerated due to factors such as agriculture and urbanization. Information regarding land use and
cover is essential for various planning and management tasks related to the Earth's surface,
providing crucial environmental data for scientific, resource management, policy purposes, and
diverse human activities.
Accurate understanding of land use and cover is imperative for the development planning
of any area. Consequently, a wide range of professionals, including earth system scientists, land
and water managers, and urban planners, are interested in obtaining data on land use and cover
changes, conversion trends, and other related patterns. The spatial dimensions of land use and
cover support policymakers and scientists in making well-informed decisions, as alterations in
these patterns indicate shifts in economic and social conditions. Monitoring such changes with the
help of Advanced technologies like Remote Sensing and Geographic Information Systems is
crucial for coordinated efforts across different administrative levels. Advanced technologies like
Remote Sensing and Geographic Information Systems
9
Changes in vegetation cover refer to variations in the distribution, composition, and overall
structure of plant communities across different temporal and spatial scales. These changes can
occur natural.
How to Fix the Import Error in the Odoo 17Celine George
An import error occurs when a program fails to import a module or library, disrupting its execution. In languages like Python, this issue arises when the specified module cannot be found or accessed, hindering the program's functionality. Resolving import errors is crucial for maintaining smooth software operation and uninterrupted development processes.
How to Add Chatter in the odoo 17 ERP ModuleCeline George
In Odoo, the chatter is like a chat tool that helps you work together on records. You can leave notes and track things, making it easier to talk with your team and partners. Inside chatter, all communication history, activity, and changes will be displayed.
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Chapter wise All Notes of First year Basic Civil Engineering.pptxDenish Jangid
Chapter wise All Notes of First year Basic Civil Engineering
Syllabus
Chapter-1
Introduction to objective, scope and outcome the subject
Chapter 2
Introduction: Scope and Specialization of Civil Engineering, Role of civil Engineer in Society, Impact of infrastructural development on economy of country.
Chapter 3
Surveying: Object Principles & Types of Surveying; Site Plans, Plans & Maps; Scales & Unit of different Measurements.
Linear Measurements: Instruments used. Linear Measurement by Tape, Ranging out Survey Lines and overcoming Obstructions; Measurements on sloping ground; Tape corrections, conventional symbols. Angular Measurements: Instruments used; Introduction to Compass Surveying, Bearings and Longitude & Latitude of a Line, Introduction to total station.
Levelling: Instrument used Object of levelling, Methods of levelling in brief, and Contour maps.
Chapter 4
Buildings: Selection of site for Buildings, Layout of Building Plan, Types of buildings, Plinth area, carpet area, floor space index, Introduction to building byelaws, concept of sun light & ventilation. Components of Buildings & their functions, Basic concept of R.C.C., Introduction to types of foundation
Chapter 5
Transportation: Introduction to Transportation Engineering; Traffic and Road Safety: Types and Characteristics of Various Modes of Transportation; Various Road Traffic Signs, Causes of Accidents and Road Safety Measures.
Chapter 6
Environmental Engineering: Environmental Pollution, Environmental Acts and Regulations, Functional Concepts of Ecology, Basics of Species, Biodiversity, Ecosystem, Hydrological Cycle; Chemical Cycles: Carbon, Nitrogen & Phosphorus; Energy Flow in Ecosystems.
Water Pollution: Water Quality standards, Introduction to Treatment & Disposal of Waste Water. Reuse and Saving of Water, Rain Water Harvesting. Solid Waste Management: Classification of Solid Waste, Collection, Transportation and Disposal of Solid. Recycling of Solid Waste: Energy Recovery, Sanitary Landfill, On-Site Sanitation. Air & Noise Pollution: Primary and Secondary air pollutants, Harmful effects of Air Pollution, Control of Air Pollution. . Noise Pollution Harmful Effects of noise pollution, control of noise pollution, Global warming & Climate Change, Ozone depletion, Greenhouse effect
Text Books:
1. Palancharmy, Basic Civil Engineering, McGraw Hill publishers.
2. Satheesh Gopi, Basic Civil Engineering, Pearson Publishers.
3. Ketki Rangwala Dalal, Essentials of Civil Engineering, Charotar Publishing House.
4. BCP, Surveying volume 1
4. CSforAll Pledge
4
http://www.csforall.org/pledge/
Over 3000 schools across 39 states have signed
District administrators and school principals pledge to:
Support professional development for CS teachers, administrators
and guidance counselors
Encourage all students to learn CS
Offer a variety of opportunities throughout the grades for CS
learning
Assign a primary point of contact in the school/district for CS
Ask your district or school to sign today!
7. 74.3(b)(2)(I) Tech App Curriculum Requirement – every district must offer, and
74.3(b)(4) each student must have the opportunity to participate in the following:
Computer Science I
AP Computer Scienceor
At least two (2) of the following:
• Computer Science III
• Digital Art and Animation
• Digital Communications in the
21st Century
• Digital Design and Media
Production
• Digital Forensics
• Digital Video and Audio Design
• Discrete Mathematics for
Computer Science
• Fundamentals of Computer
Science
• Game Programming and Design
• Independent Study in
Evolving/Emerging Technologies
• Independent Study in Technology
Applications
• Mobile Application Development
• Robotics Programming and Design
• 3-D Modeling and Animation
• Web Communications
• Web Design
• Web Game Development
Computer Science II
Curriculum Requirement
7 Source: http://ritter.tea.state.tx.us/rules/tac/chapter074/ch074a.html
8. 74.12(b) A student must demonstrate proficiency in the following:
74.12(b)(2) Mathematics—three credits
Graduation Requirement
8 Source: http://ritter.tea.state.tx.us/rules/tac/chapter074/ch074b.html
Algebra I
A list of many courses including:
Robotics Programming and Design
Robotic II*
AP Computer Science A**
Discrete Mathematics for Computer Science
Geometry
* effective August 28, 2017 **added “A”
9. 74.12(b) A student must demonstrate proficiency in the following:
74.12(b)(5) Languages other than English (LOTE)—two credits—foreign language,
sign language or computer programming language
Graduation Requirement
9 Source: http://ritter.tea.state.tx.us/rules/tac/chapter074/ch074b.html
Note: The expiration period in section 74.12(b)(5)(A)(iii) was removed effective August 22, 2016:
(iii) The provision relating to Computer Science I, II, and III in clause (ii) of this
subparagraph applies to credits earned before September 1, 2016. Credits earned for
Computer Science I, II, and III may not satisfy LOTE credit requirements on or after
September 1, 2016, and may not be used to comply with this paragraph. The provision
relating to Computer Science I, II, and III in clause (ii) of this subparagraph expires
September 1, 2017.
Two credits in computer programming languages
selected from Computer Science I, II and III
10. Texas Public University Uniform Admission Policy
http://catalog.utexas.edu/general-information/admission/undergraduate-
admission/#freshmanadmissiontext
Public high school applicants must graduate under the state's Foundation High
School Program with a distinguished level of achievement, or the Recommended
or Advanced High School Program; the Distinguished Program is also an option.
The Uniform Admission Policy is defined in sections 51.801 through 51.809 of the
Texas Education Code.
No student is exempt from the University’s minimum coursework requirements:
four units of language arts, two units of a single foreign language, three units of
mathematics at the level of Algebra I or higher, two units of science, three units
of social studies, one and one-half units of electives, and one-half unit of fine
arts.
http://www.statutes.legis.state.tx.us/Docs/ED/htm/ED.51.htm
Sec. 51.805. OTHER ADMISSIONS. (a) A graduating student who does not qualify
for admission under Section 51.803 or 51.804 may apply to any general
academic teaching institution if the student:
(1) successfully completed:
(A) at a public high school, the curriculum requirements established under
Section 28.025 for the foundation high school program; or
10
* Note: On 21 February 2017 the UT-Austin Undergraduate Admissions Center confirmed two units of computer science
meets the university’s minimum coursework requirements for a language other than English
11. 74.11(h) AP and IB courses may be substituted as appropriate for required courses, but
may not count toward more than one credit required for graduation
Graduation Requirement
11 Source: http://ritter.tea.state.tx.us/rules/tac/chapter074/ch074b.html
AP Computer Science Principles
AP Computer Science A
IB Computer Science SL
IB Computer Science HL
Computer Science I
AP Computer Science A
IB Computer Science SL
IB Computer Science HL
Computer Science II
IB Computer Science HLComputer Science III
Required LOTE Course – two credits Suggested Appropriate Substitution
12. Texas High School Certification Requirement
12
Source: http://ritter.tea.state.tx.us/sbecrules/tac/chapter231/ch231e.html#division8
effective December 27, 2016
§231.251. Computer Science, Grades 9-12.
An assignment for Computer Science I, II, and III; Digital Forensics; or Robotics Programming and
Design, Grades 9-12, is allowed with one of the following certificates.
(1) Computer Science: Grades 8-12.
§231.257. Fundamentals of Computer Science; Advanced Placement Computer Science Principles;
Game Programming and Design or Mobile Application Development, Grades 9-12.
An assignment for Fundamentals of Computer Science; Advanced Placement Computer Science Principles;
Game Programming and Design or Mobile Application Development, Grades 9-12, is allowed with one of
the following certificates.
(1) Computer Science: Grades 8-12.
(5) Technology Applications: Early Childhood-Grade 12.
(6) Technology Applications: Grades 8-12.
13. 74.13(f) A student may earn any of the following endorsements
A. CTE (Ch. 130)
B. Computer Science (Ch. 126)
C. Mathematics
Endorsement Requirement
13 Source: http://ritter.tea.state.tx.us/rules/tac/chapter074/ch074b.html
D. Science
E. A combination of two of the above
A. CTE (Ch. 130)
B. English
C. Technology Applications (Ch. 126)
D. A combination of the above
1. STEM 2. Business and Industry
15. TAC Chapter 130: Career and Technical Education
C. Arts, A/V Technology
and Communications
K. Information Technology O. STEM
Video Game Design I Computer Programming Robotics and Automation
Video Game Design II Advanced Computer
Programming
Video Game Design III Web Technologies
Database Programming
15
Note: Computer Programming and Advanced Computer Programming
being renamed to Computer Programming I and II
16. 16
STEM Endorsement – Computer Science
Course Endorsement Teaching Certification
Fundamentals of Computer Science STEM CS or Tech App
Computer Science I STEM CS
Computer Science II STEM CS
Computer Science III STEM CS
Digital Forensics STEM CS
Discrete Mathematics for Computer Science STEM CS or Math
Game Programming and Design STEM CS or Tech App
Mobile Application Development STEM CS or Tech App
Robotics Programming and Design STEM CS
Independent Study in Technology Applications STEM Tech App
AP Computer Science A STEM Matches subject
AP Computer Science Principles STEM* CS or Tech App
IB Computer Science SL STEM Matches subject
IB Computer Science HL STEM Matches subject
Certification - http://ritter.tea.state.tx.us/sbecrules/tac/chapter231/
AP CSP
PEIMS
number
A3580300
* effective August 28, 2017
17. Business & Industry Endorsement – Tech App
17
Course Endorsement Teaching Certification
Digital Design & Media Production B&I Tech App
Digital Art and Animation B&I Tech App
3D Modeling & Animation B&I Tech App
Digital Communications in the 21st Century B&I Tech App
Digital Video & Audio Design B&I Tech App
Web Communications B&I Tech App
Web Design B&I Tech App
Web Game Development B&I Tech App
Independent Study in Evolving/Emerging Tech B&I Tech App
Certification - http://ritter.tea.state.tx.us/sbecrules/tac/chapter231/
18. 18
TEA PEIMS Course TEKS Teacher FTE Student Enroll YoY Change (%)
N1300993 Video Game Design I CTE - A/V 37.60 4,451 +17
N1300994 Video Game Design II CTE - A/V 2.04 145 +314
13027600 Computer Programming CTE - IT 76.68 9,818 +15
13027700 Advanced Computer Programming CTE - IT 20.06 1,270 +35
13027900 Web Technologies CTE - IT 92.33 10,174 -5
13037000 Robotics & Automation CTE - STEM 58.84 5,444 +15
N1303768 CS and Software Engineering CTE - STEM 15.41 2,092 +211
03580140 Fundamentals of CS Tech App 17.48 2,374 +74
03580200 CS I Tech App 116.45 15,594 +12
03580300 CS II Tech App 21.08 1,868 +110
03580350 CS III Tech App 8.79 534 +39
03580380 Game Programming & Design Tech App 16.37 2,553 +35
03580390 Mobile App Development Tech App 7.53 920 +44
03580395 Robotics Programming & Design Tech App 9.86 929 +29
03580820 Web Design Tech App 27.12 3,548 -8
03580830 Web Game Development Tech App 0.93 84 -49
A3580100 AP CS A Tech App 61.47 7,179 +14
I3580200 IB CS (SL/HL) Tech App 2.45/2.10 173/115 +2/+37
Source: https://rptsvr1.tea.texas.gov/adhocrpt/adfte.html (2015-16)
19. General Computer Science High School Concept
Survey Course(s)
Mobile-Cloud
• Mobile Web
• Mobile Apps
• Cloud Apps
Game Design/
Development
Robotics
Programming
Cybersecurity
Machine
Learning/AI
19
Data Analytics
20. Fundamentals of Computer Science (optional)
AP Computer Science Principlesand/or
Up to two (2) of the following:
• Computer Science III
• Digital Forensics
• Discrete Mathematics for
Computer Science
• Game Programming and
Design
• Independent Study in
Technology Applications
• Mobile Application
Development
• Robotics Programming and
Design
• IB Computer Science SL
• IB Computer Science HL
Computer Science I
Computer Science Pathway Recommendation
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AP Computer Science AorComputer Science II
22. Georgetown ISD
Computer Science
Pathway 2016-2017
Kim Garcia
Digital Learning Coordinator
Former High School Computer Science Teacher
http://texascomputerscience.weebly.com/
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Georgetown ISD Computer Science Pathway 2016-2017
4th Course
Independent Study in Technology Applications (126.49)
2nd & 3rd Courses
Game Programming and Design (126.38) AP Computer Science A (126.62)
1st Course
Computer Science I (126.33)
Prerequisite
Algebra I (111.39)
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Challenges: Georgetown ISD Computer Science
Prerequisite for 1st Course (Computer Science I) is Algebra I
Many 9th graders not completed Algebra I, cannot enroll in CS I until 10th grade
GISD students cannot earn for LOTE credit
Opted to add Game Programming and Design in 2015-2016, requested by students
Not offering AP Computer Science Principles in its first year (2016-2017)
College Board presenters said at CSTA: ‘It’s not a 9th grade course’
4th Course
Independent Study in Technology Applications (126.49)
2nd & 3rd Courses
Game Programming and Design (126.38) AP Computer Science A (126.62)
1st Course
Computer Science I (126.33)
Prerequisite
Algebra I (111.39)
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Opportunities: Georgetown ISD Computer Science
Computer Science Enrollment Growth in 2015-2016
Planning to Offer AP Computer Science Principles in 2017-2018
4th Course
Independent Study in Technology Applications
2nd & 3rd Courses
Game Programming &
Design
AP Computer Science A
1st Course
Computer Science I
Prerequisite
Algebra I
3rd & 4th Courses
Game Programming
& Design
AP Computer Science A
Independent Study in
Technology Applications
2nd Course
Computer Science I
1st Course
AP Computer Science Principles
Prerequisite
Algebra I
Proposed 2017-2018 Georgetown ISD Computer Science Pathways: Two Entry Points
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Recruitment and Clubs
ncwit.org
yeswecode.org
starsalliance.org
madewithcode.com
cs-first.com
blackgirlscode.com
loftcsl.org
girlswhocode.com
girlstart.org
coderdojo.com
ngcproject.org
codenow.org
techgirlz.org
girlsintech.org
tech-girls.org
code2040.org
projectcsgirls.com
girldevelopit.com
chicktech.org
Code as a Second Language
32. TEALS
www.tealsk12.org
TEALS (Technology Education And Literacy in Schools) is a
grassroots program that recruits, trains, mentors, and places
high tech professionals from across the country who are
passionate about computer science education into high
school classes as volunteer teachers
TEALS volunteers team-teach with ISD teachers
Two courses: Introductory and AP
Embedded PD that builds teacher capacity
Recruiting schools and industry volunteers
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37. Computing Education for the 21st Century
Federal program through the National Science Foundation
Three tracks:
Computing Education Research
CS 10K – cs10kcommunity.org
Train 10,000 computer science teachers by fall 2015
25,000 teachers to teach computer science by fall 2016
Two courses:
Exploring Computer Science
AP Computer Science Principles
Broadening Participation
Many projects – cs10kcommunity.org/projects
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38. Exploring Computer Science
Human Computer Interaction
Introduction to the concepts of computing
Problem Solving
Computational thinking
Web Design
Web page design
Introduction to Programming
Design programming solutions to a variety of problems
Computer and Data Analysis
Use computers to translate, process and visualize data
Robotics
Build and program a robot
exploringcs.org
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39. AP CS Principles
Computational Thinking
Practices
1. Connecting Computing
2. Creating Computational
Artifacts
3. Abstracting
4. Analyzing Problems and
Artifacts
5. Communicating
6. Collaborating
apcsprinciples.org
collegeboard.org/apcsp
Big Ideas
1. Creativity
2. Abstraction
3. Data and Information
4. Algorithms
5. Programming
6. The Internet
7. Global Impact
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40. AP Computer Science A AP Computer Science Principles
Curriculum is focused on object-oriented
programming and problem solving
Curriculum is built around fundamentals of
computing including problem solving, working
with data, understanding the internet, cyber
security, and programming
Java is the designated programming language Teachers choose the programming language(s)
Encourages skill development among students
considering a career in computer science and
other STEM fields
Encourages a broader participation in the
study of computer science and other STEM
fields
AP assessment experience
• Multiple-choice and free-response questions
(written exam)
AP assessment experience:
• Two performance tasks students complete
during the course to demonstrate the skills
they have developed (digital artifacts)
• Multiple-choice questions (written exam)
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