International Baccalaureate · IB Diploma
Environmental Systems and Societies · HL
Papers, sampel, dan dokumen kurikulum untuk kursus ini.
Lembaran kerja, lembar latihan, dan salindia
Dokumen topik yang dibagikan mempertahankan judul kursus dan topik sumbernya. Gunakan spesifikasi dewan ujian pilihan Anda untuk cakupan, tingkatan, dan persyaratan ujian.
Lembar kerja · International Baccalaureate · IB Diploma · Environmental Systems and Societies · HL (12)
- 1. 1 · Fondasi
- 2. 2 · Ekologi
- 3. 3 · Keanekaragaman hayati dan konservasi
- 4. 4 · Air
- 5. 5 · Tanah
- 6. 6 · Atmosfer dan perubahan iklim
- 7. 7 · Sumber daya alam
- 8. 8 · Populasi manusia dan sistem perkotaan
- 9. HL.a · Hukum lingkungan
- 10. HL.b · Ekonomi lingkungan dan ekologi
- 11. HL.c · Etika lingkungan
- 12. Praktis · Program eksperimental
Lembar latihan · International Baccalaureate · IB Diploma · Environmental Systems and Societies · HL (11)
- 1.1 Environmental systems, feedback and perspectives
- 2.1 Sampling populations without choosing the answer
- 3.1 Biodiversity, conservation and sampling evidence
- 4.1 Water, pollution and management trade-offs
- 5.1 Land, food and resource decisions
- 6.1 Climate evidence, energy budgets and policy
- 8.1 Population, urban systems and indicators
- 9.1 Environmental law: rules, evidence and enforcement
- 10.1 Environmental economics: costs beyond the market price
- 11.1 Environmental ethics: make the value judgement explicit
- 12.1 Uncertainty, gradients and model testing
Salindia presentasi · International Baccalaureate · IB Diploma · Environmental Systems and Societies · HL (12)
- 1. 1 · Fondasi
- 2. 2 · Ekologi
- 3. 3 · Keanekaragaman hayati dan konservasi
- 4. 4 · Air
- 5. 5 · Tanah
- 6. 6 · Atmosfer dan perubahan iklim
- 7. 7 · Sumber daya alam
- 8. 8 · Populasi manusia dan sistem perkotaan
- 9. HL.a · Hukum lingkungan
- 10. HL.b · Ekonomi lingkungan dan ekologi
- 11. HL.c · Etika lingkungan
- 12. Praktis · Program eksperimental
Salindia panduan latihan · International Baccalaureate · IB Diploma · Environmental Systems and Societies · HL (11)
- 1.1 Environmental systems, feedback and perspectives · Walk-through
- 2.1 Sampling populations without choosing the answer · Walk-through
- 3.1 Biodiversity, conservation and sampling evidence · Walk-through
- 4.1 Water, pollution and management trade-offs · Walk-through
- 5.1 Land, food and resource decisions · Walk-through
- 6.1 Climate evidence, energy budgets and policy · Walk-through
- 8.1 Population, urban systems and indicators · Walk-through
- 9.1 Environmental law: rules, evidence and enforcement · Walk-through
- 10.1 Environmental economics: costs beyond the market price · Walk-through
- 11.1 Environmental ethics: make the value judgement explicit · Walk-through
- 12.1 Uncertainty, gradients and model testing · Walk-through
Panduan pengajaran · International Baccalaureate · IB Diploma · Environmental Systems and Societies · HL (1)
Lembar kerja · AP Sains Lingkungan (9)
Lembar latihan · AP Sains Lingkungan (99)
- 1.1 Pengantar Ekosistem
- 1.2 Bioma Terrestrial
- 1.3 Bioma Akuatik
- 1.4 Siklus Karbon
- 1.5 Siklus Nitrogen
- 1.6 Siklus Fosfor
- 1.7 Siklus Hidrologis (Air)
- 1.8 Produktivitas Primer
- 1.9 Tingkat Trofik
- 1.10 Aliran Energi dan Aturan 10%
- 1.11 Rantai Makanan dan Jaring-Jaring Makanan
- 2.1 Pengenalan Keanekaragaman Hayati
- 2.2 Layanan Ekosistem
- 2.3 Biogeografi Pulau
- 2.4 Toleransi Ekologis
- 2.5 Gangguan Alamiah pada Ekosistem
- 2.6 Adaptasi
- 2.7 Sukses Ekologi
- 3.1 Spesies Generalis dan Spesialis
- 3.2 Spesies Terpilih-K dan Terpilih-r
- 3.3 Kurva Kelangsungan Hidup
- 3.4 Daya Dukung
- 3.5 Pertumbuhan Populasi dan Ketersediaan Sumber Daya
- 3.6 Diagram Struktur Usia
- 3.7 Tingkat Fertilitas Total
- 3.8 Dinamika Populasi Manusia
- 3.9 Transisi Demografis
- 4.1 Tektonika Lempeng
- 4.2 Pembentukan dan Erosi Tanah
- 4.3 Komposisi dan Sifat Tanah
- 4.4 Atmosfer Bumi
- 4.5 Pola Angin Global
- 4.6 Daerah Aliran Air
- 4.7 Radiasi Matahari dan Musim Bumi
- 4.8 Geografi dan Iklim Bumi
- 4.9 El Nino dan La Nina
- 5.1 Tragedi Kepemilikan Bersama
- 5.2 Penebangan serentak (clearcutting)
- 5.3 Revolusi Hijau
- 5.4 Dampak Praktik Pertanian
- 5.5 Metode Irigasi
- 5.6 Metode Pengendalian Hama
- 5.7 Metode Produksi Daging
- 5.8 Dampak Penangkapan Ikan Berlebih
- 5.9 Dampak Pertambangan
- 5.10 Dampak Urbanisasi
- 5.11 Jejak Ekologi
- 5.12 Pengenalan Keberlanjutan
- 5.13 Metode Mengurangi Aliran Permukaan Perkotaan
- 5.14 Pengendalian Hama Terpadu
- 5.15 Pertanian Berkelanjutan
- 5.16 Akuakultur
- 5.17 Perhutanan Berkelanjutan
- 6.1 Sumber Daya Terbarukan dan Tak Terbarukan
- 6.2 Konsumsi Energi Global
- 6.3 Jenis dan Penggunaan Bahan Bakar
- 6.4 Distribusi Sumber Energi Alam
- 6.5 Bahan Bakar Fosil
- 6.6 Tenaga Nuklir
- 6.7 Energi dari Biomassa
- 6.8 Energi Surya
- 6.9 Listrik Tenaga Air
- 6.10 Energi Geothermal
- 6.11 Baterai Hidrogen
- 6.12 Energi Angin
- 6.13 Konservasi Energi
- 7.1 Polutan primer atau sekunder?
- 7.2 Kabut Asam Foto-kimia
- 7.3 Inversi Termal
- 7.4 CO2 Atmosferik dan Partikulat
- 7.5 Polutan Udara Dalam Ruangan
- 7.6 Pengurangan Polutan Udara
- 7.7 Hujan Asam
- 7.8 Polusi Suara
- 8.1 Sumber Polusi
- 8.2 Dampak Manusia pada Ekosistem
- 8.3 Pengganggu Endokrin
- 8.4 Dampak Manusia pada Rawa dan Hutan Bakau
- 8.5 Eutrofikasi
- 8.6 Polusi Termal
- 8.7 Polutan Organik Persisten (POP)
- 8.8 Akumulasi Hayati dan Biomagnifikasi
- 8.9 Pembuangan Limbah Padat
- 8.10 Metode Pengurangan Limbah
- 8.11 Pengolahan Air Limbah
- 8.12 Dosis Lethal 50% (LD50)
- 8.13 Kurva Dosis-Respon
- 8.14 Polusi dan Kesehatan Manusia
- 8.15 Patogen dan Penyakit Infeksius
- 9.1 Penipisan Lapisan Ozon Stratosfer
- 9.2 Mengurangi Penipisan Ozon
- 9.3 Efek Rumah Kaca
- 9.4 Peningkatan Gas Rumah Kaca
- 9.5 Perubahan Iklim Global
- 9.6 Pemanasan Laut
- 9.7 Asidifikasi Laut
- 9.8 Spesies Invasif
- 9.9 Spesies Terancam Punah
- 9.10 Dampak Manusia terhadap Keanekaragaman Hayati
Salindia presentasi · AP Sains Lingkungan (9)
Salindia panduan latihan · AP Sains Lingkungan (182)
- 1.1 Pengantar Ekosistem · Walk-through
- 1.2 Bioma Terrestrial · Walk-through
- 1.2 Bioma Terrestrial · Past-paper walk-through
- 1.3 Bioma Akuatik · Walk-through
- 1.4 Siklus Karbon · Walk-through
- 1.4 Siklus Karbon · Past-paper walk-through
- 1.5 Siklus Nitrogen · Walk-through
- 1.5 Siklus Nitrogen · Past-paper walk-through
- 1.6 Siklus Fosfor · Walk-through
- 1.6 Siklus Fosfor · Past-paper walk-through
- 1.7 Siklus Hidrologis (Air) · Walk-through
- 1.8 Produktivitas Primer · Walk-through
- 1.9 Tingkat Trofik · Walk-through
- 1.9 Tingkat Trofik · Past-paper walk-through
- 1.10 Aliran Energi dan Aturan 10% · Walk-through
- 1.10 Aliran Energi dan Aturan 10% · Past-paper walk-through
- 1.11 Rantai Makanan dan Jaring-Jaring Makanan · Walk-through
- 1.11 Rantai Makanan dan Jaring-Jaring Makanan · Past-paper walk-through
- 2.1 Pengenalan Keanekaragaman Hayati · Walk-through
- 2.1 Pengenalan Keanekaragaman Hayati · Past-paper walk-through
- 2.2 Layanan Ekosistem · Walk-through
- 2.2 Layanan Ekosistem · Past-paper walk-through
- 2.3 Biogeografi Pulau · Walk-through
- 2.3 Biogeografi Pulau · Past-paper walk-through
- 2.4 Toleransi Ekologis · Walk-through
- 2.4 Toleransi Ekologis · Past-paper walk-through
- 2.5 Gangguan Alamiah pada Ekosistem · Walk-through
- 2.5 Gangguan Alamiah pada Ekosistem · Past-paper walk-through
- 2.6 Adaptasi · Walk-through
- 2.6 Adaptasi · Past-paper walk-through
- 2.7 Sukses Ekologi · Walk-through
- 2.7 Sukses Ekologi · Past-paper walk-through
- 3.1 Spesies Generalis dan Spesialis · Walk-through
- 3.1 Spesies Generalis dan Spesialis · Past-paper walk-through
- 3.2 Spesies Terpilih-K dan Terpilih-r · Walk-through
- 3.2 Spesies Terpilih-K dan Terpilih-r · Past-paper walk-through
- 3.3 Kurva Kelangsungan Hidup · Walk-through
- 3.3 Kurva Kelangsungan Hidup · Past-paper walk-through
- 3.4 Daya Dukung · Walk-through
- 3.4 Daya Dukung · Past-paper walk-through
- 3.5 Pertumbuhan Populasi dan Ketersediaan Sumber Daya · Walk-through
- 3.5 Pertumbuhan Populasi dan Ketersediaan Sumber Daya · Past-paper walk-through
- 3.6 Diagram Struktur Usia · Walk-through
- 3.7 Tingkat Fertilitas Total · Walk-through
- 3.7 Tingkat Fertilitas Total · Past-paper walk-through
- 3.8 Dinamika Populasi Manusia · Walk-through
- 3.8 Dinamika Populasi Manusia · Past-paper walk-through
- 3.9 Transisi Demografis · Walk-through
- 4.1 Tektonika Lempeng · Walk-through
- 4.1 Tektonika Lempeng · Past-paper walk-through
- 4.2 Pembentukan dan Erosi Tanah · Walk-through
- 4.2 Pembentukan dan Erosi Tanah · Past-paper walk-through
- 4.3 Komposisi dan Sifat Tanah · Walk-through
- 4.3 Komposisi dan Sifat Tanah · Past-paper walk-through
- 4.4 Atmosfer Bumi · Walk-through
- 4.5 Pola Angin Global · Walk-through
- 4.6 Daerah Aliran Air · Walk-through
- 4.6 Daerah Aliran Air · Past-paper walk-through
- 4.7 Radiasi Matahari dan Musim Bumi · Walk-through
- 4.7 Radiasi Matahari dan Musim Bumi · Past-paper walk-through
- 4.8 Geografi dan Iklim Bumi · Walk-through
- 4.8 Geografi dan Iklim Bumi · Past-paper walk-through
- 4.9 El Nino dan La Nina · Walk-through
- 4.9 El Nino dan La Nina · Past-paper walk-through
- 5.1 Tragedi Kepemilikan Bersama · Walk-through
- 5.1 Tragedi Kepemilikan Bersama · Past-paper walk-through
- 5.2 Penebangan serentak (clearcutting) · Walk-through
- 5.2 Penebangan serentak (clearcutting) · Past-paper walk-through
- 5.3 Revolusi Hijau · Walk-through
- 5.4 Dampak Praktik Pertanian · Walk-through
- 5.4 Dampak Praktik Pertanian · Past-paper walk-through
- 5.5 Metode Irigasi · Walk-through
- 5.5 Metode Irigasi · Past-paper walk-through
- 5.6 Metode Pengendalian Hama · Walk-through
- 5.6 Metode Pengendalian Hama · Past-paper walk-through
- 5.7 Metode Produksi Daging · Walk-through
- 5.7 Metode Produksi Daging · Past-paper walk-through
- 5.8 Dampak Penangkapan Ikan Berlebih · Walk-through
- 5.8 Dampak Penangkapan Ikan Berlebih · Past-paper walk-through
- 5.9 Dampak Pertambangan · Walk-through
- 5.9 Dampak Pertambangan · Past-paper walk-through
- 5.10 Dampak Urbanisasi · Walk-through
- 5.10 Dampak Urbanisasi · Past-paper walk-through
- 5.11 Jejak Ekologi · Walk-through
- 5.11 Jejak Ekologi · Past-paper walk-through
- 5.12 Pengenalan Keberlanjutan · Walk-through
- 5.12 Pengenalan Keberlanjutan · Past-paper walk-through
- 5.13 Metode Mengurangi Aliran Permukaan Perkotaan · Walk-through
- 5.13 Metode Mengurangi Aliran Permukaan Perkotaan · Past-paper walk-through
- 5.14 Pengendalian Hama Terpadu · Walk-through
- 5.14 Pengendalian Hama Terpadu · Past-paper walk-through
- 5.15 Pertanian Berkelanjutan · Walk-through
- 5.15 Pertanian Berkelanjutan · Past-paper walk-through
- 5.16 Akuakultur · Walk-through
- 5.16 Akuakultur · Past-paper walk-through
- 5.17 Perhutanan Berkelanjutan · Walk-through
- 5.17 Perhutanan Berkelanjutan · Past-paper walk-through
- 6.1 Sumber Daya Terbarukan dan Tak Terbarukan · Walk-through
- 6.1 Sumber Daya Terbarukan dan Tak Terbarukan · Past-paper walk-through
- 6.2 Konsumsi Energi Global · Walk-through
- 6.2 Konsumsi Energi Global · Past-paper walk-through
- 6.3 Jenis dan Penggunaan Bahan Bakar · Walk-through
- 6.3 Jenis dan Penggunaan Bahan Bakar · Past-paper walk-through
- 6.4 Distribusi Sumber Energi Alam · Walk-through
- 6.4 Distribusi Sumber Energi Alam · Past-paper walk-through
- 6.5 Bahan Bakar Fosil · Walk-through
- 6.5 Bahan Bakar Fosil · Past-paper walk-through
- 6.6 Tenaga Nuklir · Walk-through
- 6.6 Tenaga Nuklir · Past-paper walk-through
- 6.7 Energi dari Biomassa · Walk-through
- 6.7 Energi dari Biomassa · Past-paper walk-through
- 6.8 Energi Surya · Walk-through
- 6.8 Energi Surya · Past-paper walk-through
- 6.9 Listrik Tenaga Air · Walk-through
- 6.9 Listrik Tenaga Air · Past-paper walk-through
- 6.10 Energi Geothermal · Walk-through
- 6.11 Baterai Hidrogen · Walk-through
- 6.11 Baterai Hidrogen · Past-paper walk-through
- 6.12 Energi Angin · Walk-through
- 6.12 Energi Angin · Past-paper walk-through
- 6.13 Konservasi Energi · Walk-through
- 6.13 Konservasi Energi · Past-paper walk-through
- 7.1 Polutan primer atau sekunder? · Walk-through
- 7.1 Polutan primer atau sekunder? · Past-paper walk-through
- 7.2 Kabut Asam Foto-kimia · Walk-through
- 7.2 Kabut Asam Foto-kimia · Past-paper walk-through
- 7.3 Inversi Termal · Walk-through
- 7.4 CO2 Atmosferik dan Partikulat · Walk-through
- 7.4 CO2 Atmosferik dan Partikulat · Past-paper walk-through
- 7.5 Polutan Udara Dalam Ruangan · Walk-through
- 7.5 Polutan Udara Dalam Ruangan · Past-paper walk-through
- 7.6 Pengurangan Polutan Udara · Walk-through
- 7.6 Pengurangan Polutan Udara · Past-paper walk-through
- 7.7 Hujan Asam · Walk-through
- 7.7 Hujan Asam · Past-paper walk-through
- 7.8 Polusi Suara · Walk-through
- 7.8 Polusi Suara · Past-paper walk-through
- 8.1 Sumber Polusi · Walk-through
- 8.1 Sumber Polusi · Past-paper walk-through
- 8.2 Dampak Manusia pada Ekosistem · Walk-through
- 8.2 Dampak Manusia pada Ekosistem · Past-paper walk-through
- 8.3 Pengganggu Endokrin · Walk-through
- 8.3 Pengganggu Endokrin · Past-paper walk-through
- 8.4 Dampak Manusia pada Rawa dan Hutan Bakau · Walk-through
- 8.4 Dampak Manusia pada Rawa dan Hutan Bakau · Past-paper walk-through
- 8.5 Eutrofikasi · Walk-through
- 8.5 Eutrofikasi · Past-paper walk-through
- 8.6 Polusi Termal · Walk-through
- 8.6 Polusi Termal · Past-paper walk-through
- 8.7 Polutan Organik Persisten (POP) · Walk-through
- 8.7 Polutan Organik Persisten (POP) · Past-paper walk-through
- 8.8 Akumulasi Hayati dan Biomagnifikasi · Walk-through
- 8.8 Akumulasi Hayati dan Biomagnifikasi · Past-paper walk-through
- 8.9 Pembuangan Limbah Padat · Walk-through
- 8.9 Pembuangan Limbah Padat · Past-paper walk-through
- 8.10 Metode Pengurangan Limbah · Walk-through
- 8.10 Metode Pengurangan Limbah · Past-paper walk-through
- 8.11 Pengolahan Air Limbah · Walk-through
- 8.11 Pengolahan Air Limbah · Past-paper walk-through
- 8.12 Dosis Lethal 50% (LD50) · Walk-through
- 8.13 Kurva Dosis-Respon · Walk-through
- 8.14 Polusi dan Kesehatan Manusia · Walk-through
- 8.14 Polusi dan Kesehatan Manusia · Past-paper walk-through
- 8.15 Patogen dan Penyakit Infeksius · Walk-through
- 8.15 Patogen dan Penyakit Infeksius · Past-paper walk-through
- 9.1 Penipisan Lapisan Ozon Stratosfer · Walk-through
- 9.2 Mengurangi Penipisan Ozon · Walk-through
- 9.3 Efek Rumah Kaca · Walk-through
- 9.4 Peningkatan Gas Rumah Kaca · Walk-through
- 9.4 Peningkatan Gas Rumah Kaca · Past-paper walk-through
- 9.5 Perubahan Iklim Global · Walk-through
- 9.5 Perubahan Iklim Global · Past-paper walk-through
- 9.6 Pemanasan Laut · Walk-through
- 9.6 Pemanasan Laut · Past-paper walk-through
- 9.7 Asidifikasi Laut · Walk-through
- 9.7 Asidifikasi Laut · Past-paper walk-through
- 9.8 Spesies Invasif · Walk-through
- 9.8 Spesies Invasif · Past-paper walk-through
- 9.9 Spesies Terancam Punah · Walk-through
- 9.9 Spesies Terancam Punah · Past-paper walk-through
- 9.10 Dampak Manusia terhadap Keanekaragaman Hayati · Walk-through
- 9.10 Dampak Manusia terhadap Keanekaragaman Hayati · Past-paper walk-through
Unit kursus dan tujuan pembelajaran
Pelajaran ini mengajarkan tujuan kursus tertentu. Periksa kesenjangan cakupan yang tersisa; materi ini bukan program persiapan lengkap.
1 · Dasar
- An amount held within a system.
- Separate physical evidence from value judgements. A stock is an amount at a time; a flow is an amount per time. Sustainability decisions require ecological, social and economic evidence and a stated scale.
- Draw the system boundary before calculating a budget. Identify inflows, outflows and possible unmeasured terms. Compare stakeholder claims using the same evidence, then explain where values lead to different choices.
- stok
- Jumlah yang disimpan dalam sebuah sistem
- aliran
- Transfer jumlah per satuan waktu
2 · Ekologi
- A defined area used for sampling.
- Estimate total abundance by multiplying mean density by area, with consistent units. This assumes sampled areas represent the habitat. Patchiness and too few samples widen uncertainty.
- Choose coordinates with random numbers before visiting the patches. Record quadrat area and counting rules. For a transect, use fixed distances and measure a relevant abiotic variable. Do not damage habitats or sample unsafe locations.
- An amount held within a system.
- Separate physical evidence from value judgements. A stock is an amount at a time; a flow is an amount per time. Sustainability decisions require ecological, social and economic evidence and a stated scale.
- Draw the system boundary before calculating a budget. Identify inflows, outflows and possible unmeasured terms. Compare stakeholder claims using the same evidence, then explain where values lead to different choices.
- kuadrat
- Area terdefinisi yang digunakan untuk pengambilan sampel
- populasi
- Organisme satu spesies dalam area terdefinisi
- stok
- Jumlah yang disimpan dalam sebuah sistem
- aliran
- Transfer jumlah per satuan waktu
3 · Keanekaragaman hayati dan konservasi
- The number of species recorded.
- Compare surveys with similar area, effort, season and identification rules. A diversity index is meaningful only with its formula and conventions specified. Habitat fragmentation can affect movement and gene flow even when total area changes little.
- Use non-destructive field sampling approved by the school. Identify organisms with a suitable key and record uncertain identifications rather than inventing species. Combine ecological evidence with stakeholder perspectives on land use.
- kekayaan spesies
- Jumlah spesies yang tercatat
- keseragaman
- Seberapa merata individu terdistribusi di antara spesies
4 · Air
- Nutrient enrichment with ecological consequences.
- Distinguish concentration from total pollutant load. Dilution can reduce concentration without removing the pollutant mass. A management plan should consider upstream causes, users and effects on other parts of the catchment.
- Collect approved water-quality observations at matched sites and times. Use calibrated instruments and consistent sampling depth. Avoid contact with contaminated water and do not infer potability from clarity.
- eutrofikasi
- Pengayaan nutrisi dengan konsekuensi ekologis
- beban polutan
- Massa polutan yang ditransfer per waktu
5 · Tanah
- Removal and transport of soil or rock.
- Distinguish total yield from yield per area and energy input. Sustainable management must consider regeneration rates and impacts beyond the farm boundary. Different stakeholders may rank food security, biodiversity and income differently.
- Compare management options using a stated functional unit and the same timescale. Use approved secondary datasets or non-destructive soil observations. Explain trade-offs instead of claiming a method has no disadvantages.
- erosi
- Pengangkatan dan transportasi tanah atau batuan
- sumber
- Bahan atau layanan yang digunakan untuk memenuhi kebutuhan
6 · Atmosfer dan perubahan iklim
- Actions addressing causes of environmental change.
- Distinguish mitigation, which addresses drivers, from adaptation, which reduces harm from impacts. A policy assessment needs evidence about effectiveness, cost, equity and uncertainty; one criterion is not the entire decision.
- Compare multi-year data using consistent baselines. State the region, timescale and uncertainty. At HL, connect a management decision to law, economics and ethics rather than treating these lenses as extra definitions only.
- mitigasi
- Tindakan yang menargetkan penyebab perubahan lingkungan
- adaptasi
- Tindakan yang mengurangi dampak buruk dari pengaruh lingkungan
7 · Sumber daya alam
- Removal and transport of soil or rock.
- Distinguish total yield from yield per area and energy input. Sustainable management must consider regeneration rates and impacts beyond the farm boundary. Different stakeholders may rank food security, biodiversity and income differently.
- Compare management options using a stated functional unit and the same timescale. Use approved secondary datasets or non-destructive soil observations. Explain trade-offs instead of claiming a method has no disadvantages.
- erosi
- Pengangkatan dan transportasi tanah atau batuan
- sumber
- Bahan atau layanan yang digunakan untuk memenuhi kebutuhan
8 · Populasi manusia dan sistem perkotaan
- Movement into a population.
- Compare rates with a common denominator and interval. An average can hide unequal access to services. At HL, evaluate how economic incentives, legal responsibilities and ethical priorities change an urban management proposal.
- Use published demographic and city-service data with dates and definitions. Protect privacy when collecting local opinions. Compare the same geographical boundary rather than mixing an urban core with a whole metropolitan region.
- imigrasi
- Pergerakan masuk ke dalam populasi
- indikator
- Ukuran dari kondisi tertentu
HL.a · Hukum lingkungan
- Implementation of rules through monitoring and consequences.
- Distinguish the legal instrument from the evidence about its effect. A concentration limit can be satisfied while total pollutant load rises if flow increases. Evaluate monitoring coverage, detection probability, incentives, access to justice and effects on different groups. An observed change after a policy is compatible with an effect but also with rainfall, industrial changes or other interventions.
- Use an attributed historical or clearly fictional permit and paired monitoring data. Identify the regulated activity, responsible authority, geographical boundary and date. Compare upstream/downstream and before/after observations where available, document sampling gaps, and discuss whose evidence or costs are excluded. Do not present this classroom model as advice about current local law.
- penegakan
- Penerapan aturan melalui pemantauan dan konsekuensi
- yurisdiksi
- Cakupan geografis atau institusional dari sebuah otoritas
HL.b · Ekonomi lingkungan dan ekologis
- A transaction effect on a third party not fully reflected in its price.
- In a simplified model, marginal social cost equals marginal private cost plus marginal external cost. A pollution charge can alter incentives, but selecting a charge requires evidence and a stated objective. Monetary totals do not by themselves settle distribution, irreversibility, uncertainty or whether a service can be substituted.
- Construct a transparent table with a common currency, time period and system boundary. Separate measured expenditure from estimated environmental damage. Compare at least two valuation assumptions, identify who pays and who benefits, and consider a non-monetary indicator such as habitat condition. Label these as classroom scenarios rather than forecasts.
- eksternalitas
- Efek transaksi pada pihak ketiga yang tidak sepenuhnya tercermin dalam harganya
- biaya sosial
- Biaya privat ditambah biaya eksternal dalam model yang disebutkan
HL.c · Etika lingkungan
- Value considered independent of usefulness to another party.
- Separate descriptive claims from normative claims. A species count is evidence about the sampled community; deciding that every species has intrinsic value is a value position. Compare consequences, rights, duties and fairness across generations. A defensible argument states its values, uses accurate evidence and acknowledges competing claims rather than disguising a value choice as a calculation.
- Use a fictional planning dispute or an attributed historical case. Build an argument table: stakeholder, factual claim, evidence, value principle and possible response. Include affected communities and future generations without pretending to speak for them. Use voluntary anonymous classroom positions; assess the reasoning rather than agreement with a preferred worldview.
- nilai intrinsik
- Nilai yang dianggap independen dari kegunaan bagi pihak lain
- keadilan lingkungan
- Perlakuan adil dalam beban lingkungan, manfaat, dan pengambilan keputusan
Practical · Program eksperimen
- A quantified limitation on a measured result.
- For a product or quotient, adding fractional uncertainties is a common maximum-uncertainty approximation. For a difference, add absolute uncertainties. A nonzero intercept can reveal an offset or an incomplete model.
- Show units on axes and choose a sensible scale. Plot uncertainty bars where justified, draw a best-fit line rather than joining every point, and estimate steepest and shallowest plausible gradients when the course method calls for them.
- ketidakpastian
- Keterbatasan terkuantifikasi pada hasil pengukuran
- kesalahan sistematis
- Bias pengukuran yang konsisten
Menyiapkan diri untuk kualifikasi ini
- ESS integrates ecological evidence with human values, systems and sustainability; it is not a generic Biology course.
- HL adds environmental law, environmental/ecological economics and ethics as lenses integrated with topic evidence, alongside deeper topic coverage.
- Both levels have practical work 30 h, collaborative sciences project 10 h and individual investigation 10 h. Use school-approved fieldwork and ethical social-data collection.
- Written assessment and investigation details are recorded from the 2026 brief; the old SL-only 2017 brief is not the current course.
- 2026 assessment: SL Paper 1 is 1 h/25%, Paper 2 is 2 h/50%, investigation 25%; HL Paper 1 is 2 h/30%, Paper 2 is 2.5 h/50%, investigation 20%. Paper 1 uses an unseen case study; Paper 2 has short/data questions and structured essays. The individual investigation is a real student-formulated inquiry, 10 h and a maximum 3,000-word report.
Cakupan pengajaran masih diperlukan
- Exact topic statements and HL extensions/lenses require the current full ESS guide; focus cases are partial.
Spesifikasi dan dokumen contoh
- Environmental Systems and Societies — Subject brief · 2026 ↗
First assessment: 2026
Materi kursus
Persiapan kursus
Dokumen tersedia. Catatan spesifik dewan, penilaian, dan latihan soal masa lalu interaktif belum tersedia untuk setiap kursus.
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