Myjor myjor.site
ID EN
Home/ Programs/ Agricultural Technology
Agriculture

Agricultural Technology

Agroteknologi

Agricultural Technology covers crop cultivation, soil science, pest and disease management, plant breeding, and agricultural production technology from field to harvest.

Compare programs
Level S1 · 4 years
Market demand Stable, continuously growing
Mid salary Rp 6–12 million /mo
01

Big Picture

DATA

Developing effective, productive, and sustainable crop production through the science of cultivation, soil, plant breeding, plant protection, and agricultural technology.

Core courses

  • ›Fundamentals of Agronomy
  • ›Soil Science
  • ›Plant Physiology
  • ›Plant Breeding
  • ›Crop Pests and Diseases
  • ›Crop Cultivation Technology
  • ›Food Crop, Horticulture, and Plantation Production
WHO THIS FITS

A good fit if you are interested in plants, fieldwork, experiments, solving production problems, and applying science to address food and environmental challenges.

Education levels

how does it differ from other levels?
S2
A master's program deepens theory, research methodology, and the development of agroteknologi innovations. The typical duration is about 1.5–2 years after an S1, with the main outputs being a thesis and more specific research or professional development skills.
S3
A doctoral program focuses on original research that makes a new contribution to agricultural science or technology. The duration is usually longer than an S2, with the outputs being a dissertation and readiness to become a researcher or academic.

Often confused with…

what's the difference?
vsAgribisnis (Agribusiness)
Agroteknologi focuses more on crop production and on-farm processes; Agribisnis covers business management, markets, supply chains, and the business aspects of agriculture.
vsAgronomi (Agronomy)
Agronomi focuses on the principles and practices of crop management; Agroteknologi typically combines agronomy with technology, soil science, plant protection, breeding, and production systems.
vsIlmu Tanah (Soil Science)
Agroteknologi studies crop production systems more broadly; Ilmu Tanah goes deeper into soil properties, fertility, classification, and management.
vsProteksi Tanaman (Plant Protection)
Agroteknologi covers crop production comprehensively; Proteksi Tanaman is more specialized in the diagnosis and control of pests, diseases, and weeds.

Myth vs Fact

MYTH Agroteknologi only means manual farming in rice paddies.
FACT This field combines biology, plant science, soil, breeding, plant protection, and production technology.
MYTH Agroteknologi graduates can only become farmers.
FACT Career options also include agronomist, researcher, extension officer, field supervisor, seed specialist, plant protection specialist, and agricultural product development.
MYTH Technology in Agroteknologi always means building machines.
FACT Technology can include cultivation techniques, seeds, soil management, pest control, production data, and input efficiency.
02

Toolkit & Prep

GUIDE

Personal hardware & software you need to prepare before classes start — requirements vary by program. Expensive, heavy-duty equipment is usually provided by the campus.

MINIMUM LAPTOP SPEC

Laptop: minimum Core i5/Ryzen 5, RAM 8 GB, SSD 256 GB. Choose 16 GB RAM if you frequently process data, images, or statistical software.

ESTIMATED STARTUP BUDGET
Rp 7–14 million

A one-time purchase that lasts through your studies.

Laptop
For reports, data processing, statistics, presentations, and fieldwork notes.
Required
Microsoft Office or LibreOffice
For reports, spreadsheets, basic data processing, and presentations.
Required
Statistical software
Use software available from the campus for experiment analysis and research data.
Optional
External storage
To back up practicum data, field photos, and research results.
Optional
Field shoes and work clothing
Choose equipment that complies with field activity safety regulations.
Required
Camera or camera phone
Document plant symptoms, field conditions, and experiment stages.
Optional
03

Facility Checklist

GUIDE

Questions specific to Agricultural Technology to bring to an open house or campus visit. Important facilities vary by program — these matter most.

Note: Myjor doesn't maintain a facilities database per campus. This is a tool for you to assess it yourself.

Is a practice field or experimental garden available, and do students actually use it?
How often do students do field practice, rather than just attending theory lectures?
Are facilities available for observing soil, plants, pests, and diseases?
Can students use nursery or greenhouse facilities for experiments?
What is the procedure for borrowing practicum equipment and materials?
Does each group get enough time to maintain and observe plant experiments?
Is there access to the data analysis tools or statistical software needed?
Do field activities have work safety standards and personal protective equipment?
Does the campus provide partnered fields or practice locations off campus?
Ask for examples of student practicum projects or reports to see the depth of field activities.

Tip: ask for a tour of the relevant labs/studios, not just the main building. Ask about access hours and whether undergrads can use the equipment.

04

Academic Quality

GUIDE

Three objective ways to assess a program's academic quality — including how to check them yourself.

A

Program accreditation status

Check the program's own accreditation rating (not just the campus's) on official sites. International accreditation is a plus for certain fields.

Unggul / A — top tier Baik Sekali / B Baik / C

Check at: BAN-PT (banpt.or.id) or the relevant LAM, & PDDIKTI (pddikti.kemdikbud.go.id).

B

Student–faculty ratio & how to calculate it

ratio = active students ÷ full-time faculty
Example: 600 students ÷ 25 faculty = 1 : 24
✓Ideal: ≈1:20 for STEM/science fields, ≈1:30 for social sciences/humanities (per Ministry of Education guidance).
!The smaller the second number, the more attention each student gets. Above 1:40 is worth flagging.
!Also check faculty qualifications (Master's/PhD) and whether there are industry practitioner lecturers.
C

Faculty research — relevant & current?

Look up faculty profiles and publications (Google Scholar / SINTA). For Agricultural Technology, look for those researching currently relevant topics:

Productivity and efficiency of food crop cultivationSustainable horticulture cultivationDevelopment and evaluation of crop varietiesSoil fertility and managementCrop pest and disease controlSeed technology and plant propagationPrecision agriculture and use of production dataUrban agriculture and intensive production systemsCrop adaptation to climate changeImprovement of crop yield quality and postharvest handling

E.g., is there faculty researching AI, or cancer-related topics? Active research topics signal the program keeps up with the field.

ASK AT THE OPEN HOUSE

"What's this program's student–faculty ratio? What research topics are faculty currently working on? What percentage of graduates find field-relevant jobs within 6 months?"

05

Partnerships

GUIDE

Campus partnerships heavily shape internship, research, and career paths. Which partners matter varies by program — here's what's relevant for Agricultural Technology.

Seed, fertilizer, and crop protection companies
Ask about practical training, field trials, internships, certifications, and access to equipment; request a list of active MoUs, not just logos.
Plantation, horticulture, and food companies
Ask about internship pathways, cultivation projects, agronomic mentoring, and the number of students actually placed each year.
Farmer groups and agricultural cooperatives
Ask whether students are involved in demonstration plots, extension work, data collection, or solving production problems.
Agricultural research and assessment institutes
Ask about joint research opportunities, facility usage, research mentoring, and access to experimental data.
Agriculture agencies and extension institutions
Ask about extension practice activities, mapping agricultural issues, and student involvement in field programs.
Agritech startups and agricultural technology companies
Ask about precision farming projects, crop monitoring, production data, or supply chain technology that students could work on.
Joint industry research
Ask about partner-funded research topics, data ownership, publications, and the outputs that students receive.

Ask for a list of official partners with active MoUs — not just logos in a brochure. Ask how many students are actually placed each year.

06

Career & Salary

DATA
Entry
0–2 years
Rp 3–6 million
per month
Mid
3–6 years
Rp 6–12 million
per month
Senior
7+ years
Rp 12–25 million
per month
Career pathsSalary range /mo
Agronomist Rp 3.67–6 million
Field assistant or supervisor Rp 2.75–4.72 million
Seed, fertilizer, or crop protection specialist Rp 4–10 million
Researcher or agricultural product development staff Rp 5–12 million
Estate or production manager Rp 9–20 million
Agricultural extension officer or advisor Rp 3–8 million

Sources: Myjor 2024 industry salary survey (n=4,200), BPS, and job portals. Figures are medians, influenced by city, company, and experience.

Sources & References

The career & salary data above traces back to its sources. Click to expand/collapse the source list.