1  Production and Materials Management

Production and materials management in forest-based enterprises covers the harvesting, primary processing, storage and value addition of forest produce, along with the systems used to move raw material from the forest floor to a saleable form. The basic features of these functions are discussed in this chapter, first for non-timber forest products (NTFPs) and then for timber.

1.1 The NTFP production-to-consumption system

A detailed value chain study of three non-timber forest products, lac (Kerria lacca), mahua (Madhuca longifolia) and tamarind (Tamarindus indica), in Khunti district, Jharkhand, mapped the entire flow of produce from forest to consumer (Magry et al., 2022). The study surveyed 387 collector households and 33 small traders across 62 villages. It found that each product follows a distinct seasonal harvesting calendar (Table 1.1).

Table 1.1: Harvesting calendar of three NTFPs in Khunti district
Product Harvest season How it is collected
Lac October–November and June–July Scraping lac resin from host trees
Tamarind March–April Shaking branches to release ripe fruit
Mahua March–April Gathering flowers as they fall naturally to the ground

Collection itself requires only traditional skills and labour, and is followed by basic grading and sun-drying at the household level. First-level processing such as deseeding and cleaning happens only once produce passes to traders. Further value addition (into products such as button lac or tamarind powder) occurs only at the wholesale or factory stage (Figure 1.1). Magry et al. (2022) found that this concentration of processing downstream, away from the collector, is a central reason collectors capture only a small share of final value.

flowchart LR
  A["<b>Collector household</b><br/>Collection<br/>Basic grading<br/>Sun-drying"] --> B["<b>Small trader</b><br/>Deseeding<br/>Cleaning"]
  B --> C["<b>Wholesaler / factory</b><br/>Value addition<br/>(button lac, tamarind powder)"]
  C --> D["<b>Consumer</b>"]
Figure 1.1: Where each production step happens in the Khunti NTFP chain. Value addition is concentrated downstream, away from the collector. Drawn from the description in Magry et al. (2022).

1.2 Resource base and yield variation

Forest produce yields vary sharply by administrative block and species. In the Khunti study, mean annual lac yield ranged from zero in some blocks to over 91 kg per collector in others. Mahua and tamarind showed similarly uneven distribution depending on local forest cover and tree density (Magry et al., 2022). This variability has direct implications for production planning: unlike a factory with a fixed input schedule, a forest enterprise must plan around ecological availability that differs block-to-block and year-to-year.

1.3 Materials management: storage, grading and loss

A recurring materials-management failure identified across the NTFP literature is the absence of storage infrastructure at the collector level. Because collectors lack storage facilities, they are frequently forced into distress sales immediately after harvest. They then see traders resell processed or stored produce back to them at inflated prices in the lean season. This pattern is documented for both lac (seed lac needed for the next cropping cycle) and mahua (used for local alcohol production) (Magry et al., 2022). It is a textbook materials-management failure: without storage, the enterprise loses control over the timing of its own market participation.

1.4 The organised alternative: industrial agroforestry in Tamil Nadu

A contrasting model is provided by Tamil Nadu Agricultural University’s industrial agroforestry programme. It addressed the same category of problem (poor productivity, lack of quality planting material and an unorganised supply chain) through deliberate technological investment (Parthiban et al., 2021). Three technological interventions anchor this model:

  • High Yielding Short Rotation (HYSR) clones. Improved genetic stock for species such as Casuarina, Eucalyptus, Melia dubia and teak raised productivity from under 10 m³/ha/year to over 25 m³/ha/year and cut felling rotations dramatically. For example, Casuarina clones are ready for harvest in 3–5 years instead of much longer.
  • Miniclonal propagation technology. Mass multiplication with genetic uniformity replaced seed-based progenies that produced highly variable field growth.
  • Value addition technology. The 5–10 tonnes of plantation residue generated per hectare are converted into fuel briquettes, turning a waste stream into a revenue stream.

The productivity and rotation-length gains were substantial: benefit–cost ratios for plywood and pulpwood species rose from roughly 1.2:1 to 3.5:1 after these interventions were adopted (Parthiban et al., 2021).

1.5 Materials management compared: NTFP collection and industrial agroforestry

Placed side by side, the informal Jharkhand NTFP chain (Section 1.1 to Section 1.3) and the organised, technology-driven Tamil Nadu agroforestry model (Section 1.4) illustrate opposite ends of the materials-management spectrum (Table 1.2).

Table 1.2: Materials management in NTFP collection and industrial agroforestry. Source: compiled from Magry et al. (2022) and Parthiban et al. (2021).
Dimension NTFP collection (Jharkhand) Industrial agroforestry (Tamil Nadu)
Genetic / resource quality Wild, unimproved; yield varies by block Clonal HYSR stock; productivity engineered
Storage Absent at collector level; forces distress sale Organised storage via contract-farming linkage
Processing Occurs only downstream (traders/wholesalers) On-farm and industry-linked processing
Waste utilisation Largely unaddressed Residues converted to briquettes for energy
Outcome Collectors receive lowest share of value Benefit–cost ratio rose from 1.2:1 to 3.5:1

1.6 Climate change as a production risk: the lac yield case

A companion study of the same Khunti collector population shows that the resource base itself, not just its downstream marketing, is under strain. The study analysed meteorological records from 1980–2018 alongside a survey of 387 NTFP collectors across 62 villages. It found a rising temperature trend and a statistically significant decline in rainfall over the period (Magry et al., 2023).

Using a multiple regression model with lac yield as the dependent variable, the researchers found that each unit increase in maximum temperature was associated with a decline in lac yield of approximately 31.60 tonnes per year (p = 0.05) over 1980–2018. Nearly all respondents (97.5%) reported that temperatures had risen and rainfall had become erratic. Declining yields over the preceding decade were reported by 91% of lac collectors, 85% of mahua collectors and 82% of tamarind collectors; collectors themselves estimated the fall at 20–30% for lac.

The mechanism collectors described in focus group discussions was biological rather than purely economic. Rising heat increases mortality among lac insects and stresses their host trees. Unseasonal rain during the insect’s March larval-emergence stage washes larvae away before they can establish on the host (Magry et al., 2023).

Production insight

This extends the resource-base variability from a static spatial problem (yield differs by block) to a dynamic temporal one (yield is declining over time within the same blocks). A production plan built only on historical average yields will systematically overestimate future supply.

1.7 Timber production and sourcing: from silviculture to sawmill

Timber production follows a much longer and more capital-patient cycle than NTFP collection (Figure 1.2). The cycle runs through species or clone selection, nursery raising, plantation establishment, tending over a multi-year rotation, felling, and extraction to a depot or mill. It often takes four to twenty-five years from planting to harvest, depending on species and end use. Two broad sourcing models supply this cycle in India.

flowchart LR
  A[Species or<br/>clone selection] --> B[Nursery<br/>raising] --> C[Plantation<br/>establishment] --> D[Tending over a<br/>multi-year rotation] --> E[Felling] --> F[Extraction to<br/>depot or mill]
Figure 1.2: The timber production cycle. The whole sequence typically takes 4 to 25 years from planting to harvest.

1.7.1 State-managed natural or plantation forestry

The first model is state-managed natural or plantation forestry, where timber is grown and felled on government-owned reserved forest or forest-corporation land. Kerala is a leading example. The state is home to some of the oldest planted teak forests in the world, at Nilambur. The Kerala Forest Research Institute (KFRI), a KSCSTE research institute established in 1975 and headquartered at Peechi, Thrissur, has run a teak improvement programme since the 1980s. It has developed micropropagation and provenance-trial protocols for teak (Tectona grandis) and rosewood (Dalbergia latifolia) aimed at raising growth rate and disease resistance in plantation stock (Kerala Forest Research Institute, n.d.).

1.7.2 Farm or social forestry

The second model is farm or social forestry. Here a private company contracts individual farmers to grow a pulpwood or timber species on their own private or degraded land, outside notified forest, and buys back the mature crop. This model has been developed at large scale by ITC Limited’s Paperboards and Specialty Papers Division (ITC PSPD). The division launched a Tree Improvement Programme on Eucalyptus, Casuarina and Leucaena (subabul) in 1989, and has since supplied farmers with high-yielding ‘Bhadrachalam clones’ (ITC Limited, 2024). The clones gave:

  • planting-stock survival above 95%, against 40–60% for ordinary seedling-origin planting stock; and
  • productivity of 20–58 tonnes/hectare/year, against 6–10 tonnes/hectare/year from seedling-origin plantations.

The parallel with the Tamil Nadu HYSR clonal model (Section 1.4) is direct. Both substitute engineered planting stock for wild or seedling-origin variability to raise yield predictability, one for solid-wood species, the other for pulpwood.

1.8 Regulatory framework governing timber harvesting and trade

1.8.1 National-level regulation

Timber sits under a denser and more species-specific regulatory layer than most manufactured-goods inputs. At the national level, the Indian Forest Act, 1927 (as amended) and the Forest (Conservation) Act, 1980 restrict the diversion of forest land to non-forest use. They require Central Government clearance for felling connected with such diversion (The Forest (Conservation) Act, 1980 (Act No. 69 of 1980), 1980, The Indian Forest Act, 1927 (Act No. 16 of 1927), 1927).

More recently, the Government of India introduced the Indian Forest and Wood Certification Scheme (IFWCS). It is a national certification covering sustainable forest management, plantation management and chain-of-custody traceability for forest management units, wood-based industries, and timber or NTFP traders alike (Legacy IAS Academy, 2023). It is a domestic counterpart to the voluntary international Forest Stewardship Council (FSC) certification that ITC PSPD holds for its own plantations.

1.8.2 Kerala’s state-specific restrictions

Kerala layers a further, state-specific restriction on top of this national framework. The Kerala Preservation of Trees Act, 1986 prohibits felling or removing a scheduled list of tree species, including teak (Tectona grandis) and sandalwood (Santalum album), without prior written permission from an authorised officer. The prohibition applies on notified private forest land and in specified areas such as the Cardamom Hill Reserve in Idukki district (The Kerala Preservation of Trees Act, 1986 (Act 35 of 1986), 1986).

This means that even a privately owned teak tree in a notified zone cannot legally be felled and sold without a state permit. That is a materially different starting condition from a furniture manufacturer sourcing packaging timber on the open market. The restriction is targeted rather than blanket: Kerala courts have confirmed that an ordinary teak tree standing in a private residential compound, outside a notified private-forest or reserve area, falls outside the Act (Sukumaran v. State of Kerala, 2010). Forest-produce regulation therefore typically turns on the specific species and the specific zone, not on land ownership alone.

1.9 Timber processing and the role of large manufacturers

Downstream processing capacity for solid wood is dominated by a small number of large, often vertically integrated companies. They include Century Plyboards (India) Ltd. (brand CenturyPly, founded 1986) and Greenply Industries Ltd., which is described in industry literature as a ‘multi-national interior infrastructure company’ with operations in several countries. Together with other major manufacturers, they produce plywood, medium-density fibreboard (MDF), particleboard, laminates and decorative veneers at industrial scale (IMARC Group, 2024).

Industry analysis identifies vertical integration as a specific competitive strength in this sector. Here it means a small number of players owning or leasing their own plantations in addition to buying open-market timber. It secures a captive raw-material base and reduces exposure to the price volatility that an unintegrated buyer faces.

ITC PSPD illustrates the same logic at an even larger scale in the pulp-and-paper segment. A single manufacturing unit at Bhadrachalam consumes roughly 1.1–1.2 million tonnes of wood a year. Rather than depend on open-market or natural-forest timber, the company built a captive raw-material pipeline through its Social and Farm Forestry programme. It supplies contracted farmers with free or subsidised clonal saplings, technical extension, interest-free loans, and support in obtaining FSC certification; the farmers then sell the grown pulpwood back to the company (ITC Limited, 2024).

Functionally this is contract farming for wood. It is structurally similar to the contract-farming models used in sugar milling or dairy cooperatives elsewhere in Indian agribusiness, but stretched over a multi-year tree rotation rather than an annual crop cycle. It is the reverse of the short, informal supply-chain logic seen for NTFPs in Section 1.1.

1.10 Kerala’s distinctive timber supply chain: state-controlled depots and e-auction

1.10.1 State-owned and state-managed timber sources

Kerala’s timber supply chain runs on a different governance logic again from both the informal NTFP trader chain (Section 1.1) and the private, vertically integrated manufacturer model just described (Section 1.9). A large share of the state’s commercial timber, especially high-value teak, still originates from state-owned or state-managed sources:

  • Kerala Forest Department (KFD) reserved-forest plantations; and
  • Kerala Forest Development Corporation (KFDC) plantations. Together with pulpwood species such as Acacia and Eucalyptus, bamboo, and cash crops (coffee, cardamom, tea, pepper), these cover roughly 7,000 hectares of the Corporation’s approximately 10,000-hectare landholding (Kerala Forest Development Corporation, n.d.).

1.10.2 The e-auction system

Rather than selling this timber to private wholesalers or processors at negotiated prices, KFD sells the majority of it through public e-auction, run in partnership with MSTC Limited, a Government of India public-sector trading company. The agreement was signed on 30 September 2014 and e-auctions went live on 19 November 2014. They replaced the earlier physical-auction system conducted at 35 government timber depots across six Timber Sales Divisions (Kerala Forest Department, 2014).

Buyers register and bid online. A concessional registration category exists specifically for individuals buying timber for their own house construction (subject to a purchase ceiling). High-value produce such as sandalwood from the Marayoor Sandal Division has achieved dramatic price gains under e-auction: one reported sale realised over 50% above the starting price, with a record rate of INR 14,710 per kg.

1.10.3 Retail outlets for small buyers

KFD also operates five dedicated retail timber outlets, at Pathanapuram, Parampuzha, Chalakudy, Chaliyam and Walayar. They sell lower-grade (Class II/III) teak directly to individual house-builders outside the auction system altogether, subject to a monthly quota and a 5 cubic-metre ceiling per applicant. This small-buyer carve-out has no equivalent in the MNC-dominated open timber market.

1.11 Discussion questions

  1. Why does value addition tend to concentrate downstream in informal NTFP chains, and what would it take to move even one processing step (e.g., grading, storage) upstream to the collector level?
  2. ITC PSPD’s Social and Farm Forestry programme and Kerala’s state-run e-auction system both aim to secure a stable timber supply, but through opposite ownership models. Compare the risk each model transfers to the raw-material producer: the contract farmer in ITC’s case, the state exchequer in Kerala’s case.

1.12 Chapter Summary

Fill in the blanks

Answers are given at the end of the chapter.

  1. The Khunti value chain study covered lac, mahua and __________.
  2. A sale forced on collectors immediately after harvest because they have nowhere to store produce is called a __________ sale.
  3. HYSR stands for High Yielding Short __________ clones.
  4. Under TNAU’s industrial agroforestry model, the benefit–cost ratio rose from about 1.2:1 to __________.
  5. Plantation residue in the TNAU model is converted into fuel __________.
  6. ITC PSPD supplies its contracted farmers with high-yielding ‘__________ clones’.
  7. The Kerala Preservation of Trees Act was passed in __________.
  8. Since 2014, the Kerala Forest Department sells most of its timber through e-auctions run with __________ Limited.
  9. KFD’s retail outlets sell lower-grade teak to house-builders with a ceiling of __________ cubic metres per applicant.

Short-answer questions

  1. Describe the production-to-consumption system for lac, mahua and tamarind in Khunti district. At which stage does value addition happen?
  2. Why is the absence of storage at the collector level called a materials-management failure?
  3. Explain the three technological interventions in TNAU’s industrial agroforestry programme.
  4. Distinguish between state-managed plantation forestry and farm or social forestry as timber-sourcing models.
  5. How does climate change turn NTFP yield variability from a spatial problem into a temporal one?
  6. Outline Kerala’s state-controlled timber supply chain, including e-auctions and retail outlets.

Quick revision

  • NTFP chain → collection, grading and sun-drying at household; deseeding at trader; value addition at wholesaler or factory.
  • Yields → vary by block, species and year; plan around ecological availability.
  • No storage → distress sale → loss of control over market timing.
  • TNAU model → HYSR clones + miniclonal propagation + residue briquettes → B:C ratio 1.2:1 to 3.5:1.
  • Climate → rising maximum temperature linked to falling lac yield; historical averages overestimate supply.
  • Timber sourcing → state plantation forestry (Kerala, KFRI) or farm/social forestry (ITC PSPD contract farming).
  • Regulation → Indian Forest Act 1927, Forest (Conservation) Act 1980, IFWCS; Kerala Preservation of Trees Act 1986 is species- and zone-specific.
  • Kerala timber → KFD and KFDC sources, MSTC e-auction since 2014, five retail outlets for house-builders.

Answers to fill in the blanks

1. tamarind 2. distress 3. Rotation 4. 3.5:1 5. briquettes 6. Bhadrachalam 7. 1986 8. MSTC 9. 5