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Science is a core subject for the High School Diploma. Most American high-school programmes expect students to take two to three years of Science.
Most high school diplomas include three Science credits, typically spread across four years of high school study. Ideally there should be a science credit included in the last year of the diploma.
How you spread these credits out depends on the young person’s abilities and post-high school plans.
So, as a credit reflects a year of work, a Science credit reflects a combination of the time spent on science-related learning along with the range and depth of material studied and skills developed.
You can work to an externally set curriculum or create your own combinations. The level of work should always be age-appropriate and realistic, particularly for younger high school students.
Remember, a typical 1 credit course means:
Around 120–180 hours of instruction and study over one academic year, for example, this might be:
1 hour a day, 5 days a week, for 30 weeks
An hour of a school lesson may be covered in 30-45 minutes at home due to the intensive and uninterrupted nature of learning at home. One of my highschoolers did a SAT Math prep course with Dumb Ox and I included that as part of that year's credit.
A consistent weekly commitment over a year in a home education context
I included relevant work my children did as part of a local home ed co-op.
Half of a two-year GCSE-level textbook
An externally-led course (like Dumb Ox)
A whole textbook for a course meant for one school year (even if they finish it in less than a year)
Project-based learning
Young people will often deep-dive into a subject once given the time and space to enjoy delight-led learning; this could be anything from an interest in mechanics, a period of scientific development or even animal husbandry and breeding. I have found that it is straightforward to document these credits if you have given your child the space to truly explore the topic. A few well-placed nudges from the parent towards goal setting and objectives can be helpful but even these aren't always needed.
Some student-led project credits my children have completed were based around the following topics: Creating YouTube stop-motion Lego shorts (Transcript title: 'Creative Technology'); 3D printing (Transcript title: 'Design and Technology: 3D Printing'); Researching and building a PC (Transcript title: 'Computer Technology').
Science education can include courses that follow a textbook or they can be adapted around the student’s strengths with consideration given to interests and future plans. The aim is to develop STEM skills, analytical reasoning and problem-solving. Study should ideally be steady show progress in a skills-appropriate way.
Science's technicalities and abstract ideas do not have to be discouraging to less enthusiastic students and so flexibility in how courses are learnt and documented is acceptable.
Biology
Chemistry
Physics
Integrated Chemistry & Physics
Engineering
Anatomy & Physiology
Physical Science
Ecology
Geology
Botany
Zoology
Oceanography
Marine Biology
Forensic Science
Integrated Science
Design & Technology
Astronomy
Biology for Technology
Principles of Technology
Earth Science
Creation Science
Environmental Science (Non-AP)
Life Science
Agri-science
Animal Science
Horticulture
Equine Science
Meteorology
Don't forget that Science books don't just have to be textbooks. There are many interesting books written about Science that can be included in a Science credit once read and narrated.
Some examples include:
A Mind for Numbers: How To Excel at Math and Science, Barbara Oakley;
The Cartoon Guide to Algebra, Larry Gonick
The idea of assessing your child's work and assigning overall grades can be daunting, especially if you are used to exam results being the main benchmark of success. Of course, even though external examinations are not required for the HSD to be valid, you can draw on the College Board SAT and AP exams for standardised assessments. Whether you use them will depend on your end objective.
Thankfully, assessment doesn't have to be stressful or difficult. Parent-assigned grades are normal in the home educating HSD. Grades are typically based on your overall evaluation of a student’s understanding and progress across the course, even the amount of effort can be taken into account.
You are documenting how well s/he has learnt the material set before them, not predicting performance under exam conditions. You are uniquely well placed to make this judgement: You see the day-to-day work, hear your child explain concepts out loud, read the written responses and observe how independently s/he can applies the knowledge learnt.
Grades are intended to reflect effort, progress and achievement over time. The transcript uses letter grades. Some parents find it helpful to think in terms of overall mastery.
Simple grade scale:
A – Excellent understanding and strong engagement with the material
B – Good understanding with minor gaps or areas for growth
C – Satisfactory understanding; key concepts grasped
D – Limited understanding; significant support required
F – Material not adequately covered or understood
High school learning is rarely neat or perfectly linear, especially for home-educated students who may be catching up in some areas while accelerating in others.
Once a child is officially of high school age, remedial or catch-up work still counts toward credits. Grades should reflect the progress and achievement relative to the material covered that year, not how far behind or ahead s/he may have been at the start.
To take pressure off, you could grade later work once skills have stabilised; describe uneven progress in the course description rather than penalising the grade. Remember, it is legitimate to weigh effort and improvement alongside outcomes.
This approach produces transcripts that are honest and accurately reflect your young person’s learning.
As you know by now, the HSD route is hugely flexible and the Science courses I have used or put together for my children so far have included a variety of approaches, each dependent on the stage and ability of the learner.
Learning doesn’t always have to be planned in advance to 'count'. Many home-educated young people, particularly when they learn in a self-directed way, build substantial knowledge and skills organically over time. This learning can be recognised afterwards by looking back over what they’ve explored, identifying the concepts they’ve covered and then grouping that work into a coherent course at an appropriate level.
In practice, this means acknowledging what has already been achieved and giving it a clear shape and description. Occasionally, you may find there are one or two gaps; these can be easily filled with some focused study to round out the course. You faithfully reflect your child’s learning journey while presenting it in a way that makes sense academically and stands up with confidence.
When recording on the transcript, the most essential element is to have a clear, concise title (see below) as titles are what inform the 6th form college, university or future employer of the depth, breadth and interest of the young person's studies.
There is no 'one right way.' You can adjust accelerate or slow down based on confidence and goals.
Think of where your student is hoping to go after the HSD and plan accordingly for that.
Does your child need a broad foundation of science? Or cold be led only by current interests? What "sparks joy" for him/her in the vast field of science?
My older son has always shown an inclination for engineering and planned to apply for engineering apprenticeships post-16. Therefore, he did something engineering-related every year, whether led by a textbook or autodidactic learning through interest-led project. He chose engioneering-heavy topics rather than going down the biological route.
For most students, Science credits are appropriately pitched at UK Key Stages 4/5, aligning with US Grades 9–12.
Remedial level work can be counted if your child is the age that is equivalent to UK years 10-13. Progression should reflect his/her readiness, not an external timetable.
There is no requirement to move into advanced (AP level) or honours-level work early, or even at all.
Titles are important. The list of titles on the transcript illustrate the depth, breadth and interest of the young person's studies.
You should choose concise, descriptive course titles for each maths credit. The title should aim to reflect with consistency and clarity what was studied, rather than the name of the textbook or programme used.
Typical examples include:
Biology
Physics
Chemistry
Integrated Science (This is the title I would use to cover any GCSE module work.)
Computer Science
Engineering
These can be "with lab" if your student has carried out a series of practical experiments.
Humanities-focused daughter
Three and a half science credits: General Science (0.5); Chemistry; Data Literacy & IT Science; Digital Tech & Ethics in IT.
Engineering-focused son
Five science credits: Design & Technology-3D Printing; Applied Engineering; Engineering I; Physics; Engineering II.
A course description is a short written summary explaining what your child studied and how the course was structured.
They are typically one short paragraph (3–6 sentences) per course, often written after the course is completed and are included to clarify and support the title shown on the transcript.
Course descriptions are nice to have but not essential for the transcript.
If using, you could include: the main topics or themes covered; the types of materials used (books, projects, discussions, etc.) the skills developed (for example, analysis, writing, problem-solving); and the overall level of the course.
If someone unfamiliar with your child needed to understand what this course actually was, this paragraph should tell them.
An example from my son's portfolio:
Design & Technology: 3D Printing
Student-led, project-based course to proficiently use and navigate 3D printers, overcome the challenges encountered, tackle software and techniques and learn a thorough overview of the entire 3D printing process. Various practical printing projects aid this process.
Topics include:
• Research of 3D printer to purchase
• Assembly
• Bed Levelling
• Printer Calibration
• Importing files
• Slicing process
• Printing prototypes
• Refining models
• Final Prints
• Machine Maintenance
• Part Replacement
• Problem-solving
Material used:
Creality Ender 3 Pro printer
Onshape 3D Design software
Creality 3D Slicer
Prusa Slicer
Thingiverse 3D Model Library
3D printing course (10 episodes, YouTube)
Humanities-focused daughter
I did not need to write course descriptions at all because I was able to enter details of the materials used directly into our umbrella school's record-keeping system.
Engineering-focused son
I used course descriptions extensively for my older son's essential portfolio. A portfolio was particularly important for two reasons:
1) Evidence to show during the engineering apprenticeship application process;
2) I hadn't yet discovered the weight that an umbrella school lends to the validity of your HSD.
Science is an essential subject but not all students find it straightforward. Thankfully, there are many ways to help if your child finds Science challenging.
Remember, remedial or catch-up work still counts once your child is of actual high school age (14-18, Grade 9-12, Years 10-13). Progress does not need to be linear to count. Late bloomers need not be left behind!
Things to consider for children who lack confidence or struggle with Science include:
Review foundational concepts at a gentle pace before progressing
Read and scribe so that reading and writing challenges do not slow the student's ability to access the material.
Oral work from discussions or narrations is particularly valuable and can be used to assess understanding (a method helpful for those who struggle with writing).
I recorded some of my son's verbal narrations on my phone at the start of several early courses to enable him to share his growing knowledge without the protracted pain of handwriting. I then had the option to compare them to narrations later in the course to see progress over time.
Use real-life contexts (animals, measurements, patterns) to make ideas concrete
Include applied courses that build knowledge without unnecessary pressure
Titles for SEN young people can include: Modified Biology, Modified General Science, Modified Astronomy, Modified Life Science
Like with all high school credits, Science credits are about documenting real learning, not about meeting a narrow or idealised standard.