SUM VISUM™VISIONS INTERLINKED
Irrigation infrastructure in Senegal’s Podor Department. Africa Rice Center, 2013.
Infrastructure in context

Irrigation infrastructure in Senegal’s Podor Department. Africa Rice Center, 2013. Africa Rice Center · CC BY-SA 3.0

External editorial reference; not a SUM VISUM facility or project. Credits & changes

SUMAGRI

Begin with the realities of the field.

A useful agricultural tool must fit the way producers record, plan and exchange information. SUMAGRI works on farm records, cooperative workflows, agricultural data and the technical requirements of field tools.

Discuss Your Project →Active professional service

01 / Purpose

Give producers and agricultural organizations a clearer record of their work and the information needed to plan it.

The operating context

The product brief connects farming systems rather than treating agriculture as a single crop question. Soil, water, climate, crop health, livestock, labour and markets interact. Local practice and producer knowledge must remain visible alongside digital information. The division also encompasses equipment, connected observation, agricultural infrastructure and the food system beyond production. Its application is one product within that broader architecture.

SUMAGRI / Professional services

Services and deliverables

  1. 01

    Digital farming solutions

    Farm records, field activity logs and operation dashboards designed around actual work practices and seasonal constraints.

    Deliverable
    Farm-record workflow/data model and scoped field-log or dashboard prototype.

    Active professional service

    Discuss this service
  2. 02

    Agricultural advisory technologies

    Organize agricultural knowledge and expert-reviewed information workflows. Agronomic recommendations require qualified, location-specific validation.

    Deliverable
    Reviewed knowledge-source structure and advisory-tool prototype; agronomic validation remains separate.

    Active professional service

    Discuss this service
  3. 03

    Agribusiness management systems

    Scope inventory, input purchasing, cooperative administration and supply management with clear roles, data ownership and reporting definitions.

    Deliverable
    Inventory/operations requirements, scoped management workflow and handover documentation.

    Active professional service

    Discuss this service
  4. 04

    Agricultural market intelligence

    Structure market data collection, source comparison and reporting. Price freshness, geography and uncertainty must remain visible.

    Deliverable
    Source-dated market dataset/report, assumptions and data-quality limitations.

    Active professional service

    Discuss this service
  5. 05

    Supply chain & traceability

    Design batch records, movement logs and digital commerce workflows. Traceability evidence depends on reliable capture, not software labels alone.

    Deliverable
    Batch/event data model, traceability workflow and agreed test scenarios.

    Active professional service

    Discuss this service
  6. 06

    Precision agriculture & connected technologies

    Assess sensors, irrigation data, drones and equipment integration with specialists. Connectivity, calibration, maintenance and local operating permissions shape feasibility.

    Deliverable
    Connected-system feasibility, sensor/data specification and partner/maintenance requirements.

    Active professional service

    Discuss this service
  7. 07

    Farmer training & digital inclusion

    Design practical training and multilingual, offline-first field workflows for farmers and cooperatives. Synchronization and device constraints must be tested.

    Deliverable
    Multilingual practical training plan, offline-friendly materials and learner feedback summary.

    Active professional service

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Delivery / evidence

Client value and delivery

The customer problem

Field records, inventory and reporting that break down across locations or weak connectivity.

Intended outcome

A scoped agricultural information workflow with locally validated assumptions.

How acceptance is agreed

Agree crop or operation context, units and data ownership. Test capture, validation, sync conflicts and reporting with synthetic records; validate field or agronomic assumptions with relevant experts.

Delivery prerequisites

Local agronomic expertise, device/connectivity constraints, calibration and specialist availability must be confirmed where relevant. SUMAGRI’s multilingual, offline-first application remains in development.

Example: offline record acceptance case

Synthetic farm record: save an observation offline, reconnect and detect a duplicate before synchronization. This illustrates a proposed test; it is not evidence that the developing application already performs it.

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View service scope

A closer reading

A field is a physical operating system.

Water delivery, soil variability, machinery, labour and storage determine what a digital recommendation can achieve. SUMAGRI considers the full production system, from field observation to processing, with an application in development as one part of that architecture.

Irrigation infrastructure in Senegal’s Podor Department. Africa Rice Center, 2013.
Infrastructure in context

Irrigation infrastructure in Senegal’s Podor Department. Africa Rice Center, 2013. Africa Rice Center · CC BY-SA 3.0

External editorial reference; not a SUM VISUM facility or project. Credits & changes

Field architecture / strategic scope

Observe the resource. Follow the production system.

A measurement becomes useful only when it can be related to a place, a time, the condition of the instrument and a practical decision. The application in development must remain one component of this wider field architecture.

Design relationships between resources, observations, human decisions and productionRESOURCESWater · soil · energyOBSERVATIONSPlace · date · instrumentHUMAN DECISIONReview · act · recordPRODUCTIONCrops · livestock · processing
  1. RESOURCESWater · soil · energy
  2. OBSERVATIONSPlace · date · instrument
  3. HUMAN DECISIONReview · act · record
  4. PRODUCTIONCrops · livestock · processing
Design relationship schematic, not a deployed system. Resources and observations inform a human decision; production records provide feedback.

From observation to food systems

The unit of design is a working agricultural system.

An irrigation decision depends on water availability, soil conditions, equipment and labour. A digital observation is valuable when it can be connected to those physical constraints, then carried through storage, processing and distribution.

  1. 01

    Observe

    Soil · water · weather · sensors

  2. 02

    Operate

    Machinery · crops · livestock

  3. 03

    Coordinate

    Records · cooperatives · logistics

  4. 04

    Sustain

    Storage · processing · food systems

Field architecture / offline records, connected services when available

02 / Access by design

Work locally. Synchronise deliberately.

Selected knowledge and field records belong on the device when the signal is absent. Synchronisation must handle conflicts, show freshness and protect shared-device privacy. Live weather, market feeds and remote AI remain connected functions. Language development must incorporate agricultural terminology and local farming practice.

Relevant to

  • Farmers, livestock keepers and producer groups
  • Cooperatives and agricultural organisations
  • Extension teams and research institutions
  • Field-validation, language and technology partners
  • Machinery, irrigation and agricultural infrastructure partners
  • Agro-processors, storage operators and food-system organisations

03 / Domain architecture

Strategic scope describes the division’s field. Products and initiatives have their own development status; no unannounced service or product is offered.

  1. 01

    The production system

    Knowledge modules cover crop cycles, soil management, water use, climate exposure, crop health and livestock. Location, season and production method provide the context needed to distinguish a useful reference from a generic answer.

  2. 02

    The field record

    Offline-first workflows cover observations, activity logs, reference access and later synchronisation. Cooperative use introduces shared records, permissions and the practical task of preserving data when several people work with limited connectivity.

  3. 03

    The route to market

    Market information, cooperative coordination and agricultural knowledge exchange extend the scope beyond the plot. Weather, prices and other external feeds require identified sources, timestamps and explicit freshness limits before they can support a decision.

  4. 04

    Precision begins with a reliable observation

    The strategic scope spans precision agriculture, agricultural machinery, irrigation, IoT sensors and drones. Soil-moisture measurements, field maps and remote imagery answer different questions and require calibration, timestamps and ground verification. An image anomaly is an observation to investigate, not an automatic diagnosis or instruction to apply a treatment.

  5. 05

    Machines, water and agricultural infrastructure

    Mechanisation must fit plot size, terrain, energy supply, maintenance capacity and operator training. Irrigation architecture connects water availability, pumping, distribution, soil conditions and scheduling. Future sensor or equipment integration needs interoperable interfaces, local repair options and manual override; drone operations also require jurisdiction-specific permissions and competent operators.

  6. 06

    Crop and livestock systems

    Crop planning, pest observations, soil management and harvest records belong beside livestock identification, feed, welfare and veterinary escalation. AI research can organise observations and retrieve relevant knowledge, but seasonal variation, local breeds and production methods limit transfer between settings. Agronomic and veterinary decisions require the appropriate qualified judgement.

  7. 07

    From production to the food system

    Agro-processing, storage, cold chains, traceability, cooperatives and market information extend the remit beyond the field. Infrastructure and data must follow the product through collection, quality assessment, transformation and distribution. Future forecasting tools need verified inputs, explicit uncertainty and evaluation against local conditions; no yield gain, price forecast or food-safety certification is asserted.

04 / Product status

In Development

The field does not wait for a signal.

Strategic scope — precision agriculture, machinery, irrigation, IoT, drones, crop and livestock systems, agro-processing and agricultural infrastructure. Hardware and AI integrations require separate feasibility and release decisions. In Development — the SUMAGRI application prioritises Android, other suitable platforms, multilingual access and offline-first field workflows; these remain development goals.

Read the development brief

Product in development

SUMAGRI Yoruba interface; unverified demonstration counters.
Interface in development. Displayed counters are demonstration data, without verified user adoption.

05 / Intelligence in practice

Practical assistance, with the context attached.

Research use cases include interpreting local-language questions, retrieving agronomic references and structuring field observations. Image-assisted crop-health triage is a research topic, requiring region-specific validation and agronomist review. The system must expose uncertainty, protect producer and location data, and avoid turning an unverified observation into a treatment instruction. Future equipment and irrigation research can compare sensor readings with field observations and flag missing or inconsistent data. Any control loop needs calibrated inputs, operational limits and a safe manual fallback before automation is considered.

06 / Evidence & evaluation

From definition to validation

A field evaluation needs more than a successful demonstration. It must assess device performance, seasonal context, terminology, shared-device use, agronomic relevance and synchronisation failures. Yield, income and forecast accuracy require evidence; they are not promised outcomes.

01

Define farming contexts, priority languages and cooperative workflows.

02

Prototype Android records, local knowledge packages and synchronisation.

03

Test agronomic relevance, usability and data governance in context.

07 / System relationships

Connected divisions

SUMTECH addresses devices and infrastructure. SUMMENSA covers multilingual retrieval and AI evaluation. SUM LABS connects prototypes with test protocols, while agronomic expertise determines whether a result is useful in the field.

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VISIONS INTERLINKED

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