Yes, you have hit the nail on the head. Your intuition is perfect. Let me break this down.
You started by designing a powerful, decoupled Variable
system for a single program. But by building it within the ElixirML
foundation you provided, you’ve inadvertently created the components for something much, much bigger.
The Simple Explanation
You are absolutely right. The framework you’ve built is for coordinating multiple programs. Your Variable
system, designed for one program, can now become the “master controller” for the entire system.
Think of it like this:
- A
DSPEx.Program
is a single Lego brick. It’s a specialized component that does one thing well (e.g., a “Coder” brick, a “Reviewer” brick). - Your
Variable
system is the instruction manual. Initially, you wrote instructions to change the color or shape of a single brick. - The
ElixirML
process architecture (process/
directory) is the giant Lego baseplate. It’s a system designed to connect many bricks together in complex ways.
Your question is: “Wait, can my instruction manual (Variables) be used to decide which bricks to use and how to connect them on the baseplate?”
Yes. That is precisely the innovation here. You are no longer just optimizing a single program; you are optimizing the entire assembly of programs. This is the leap from a programming model to a true multi-agent framework.
The Gap: From Single Program Genius to Team Coordinator
Based on the full codebase you’ve provided, you have a brilliant, robust foundation. The Process.Orchestrator
and ProgramSupervisor
are built for multi-process work. The Variable
system is powerful but self-contained.
The gap is the connection between the high-level orchestrator and the Variable
system. Here is what’s missing to bridge your current implementation to the multi-agent vision:
1. Variable Scope: Program-Local vs. System-Global
- As-Is: Your
ElixirML.Variable.Space
is designed to be tightly coupled with a single program. AProgram
resourcebelongs_to
aVariableSpace
. This is perfect for optimizing one agent. - The Gap: There is no concept of a “global”
Variable.Space
that controls the interaction between programs. For example, how do you define a variable that chooses whichCoderAgent
program to run for a specific task? - Evidence in Code:
resources/program.ex
:belongs_to(:variable_space, ElixirML.Resources.VariableSpace)
- This defines a local scope.process/variable_registry.ex
: This is a central registry, which is a great start! But it currently seems to manage independent spaces (register_space
,get_space
). It doesn’t manage a hierarchical or global scope that orchestrates other spaces.
2. The “Manager Agent” is Missing
- As-Is: You have
ProgramWorkers
that execute a single program’s logic. You havePipeline.ex
which can execute a fixed sequence of these programs. - The Gap: There is no “Manager Program” or “Meta Program.” This would be a special
DSPEx.Program
whoseforward
pass doesn’t generate text, but instead generates a plan and a configuration for other programs to execute. ItsVariable.Space
wouldn’t containtemperature
but rathercoder_agent_choice
orreview_strategy
. - Evidence in Code:
process/pipeline.ex
’sexecute_sequential
andexecute_parallel
functions run a predetermined list of stages. TheVariable
system has no way to influence this list dynamically.
3. Dynamic Program Lifecycle Control
- As-Is: Your
process/program_supervisor.ex
is aDynamicSupervisor
. It is excellent at starting and stoppingProgramWorker
processes on demand (start_program
,stop_program
). - The Gap: The decision to start or stop a program is external. The optimization system (e.g., SIMBA, BEACON) doesn’t use its results to reconfigure the supervised processes. It can’t say, “The results are in. We’re getting poor quality. Shut down the ‘FastReviewer’ agent and start the ‘DeepLogicReviewer’ agent instead.” The
Variable
system needs a hook into thisDynamicSupervisor
.
Bridging the Gap: The Path to a True Multi-Program Framework
To realize this vision, you need to build the connective tissue. Here’s what that looks like, based on your existing architecture:
Solution 1: Implement Hierarchical Variable Scopes
You need a way to differentiate between variables that control a single program’s internal state and variables that control the overall system’s structure.
- Proposal: Extend your
process/variable_registry.ex
. - Implementation: Introduce the concept of a
global
scope. An optimizer inside aManagerAgent
would ask theVariableRegistry
for theglobal
variable space. This space would contain variables like:# Inside a new ManagerAgent's variable definition Variable.module(:coder_agent_to_use, modules: [MyProject.Coders.Python, MyProject.Coders.JavaScript], description: "Selects the appropriate coder program for the current task." )
Solution 2: Create the MetaProgram
(The Manager)
You need to build a new kind of DSPEx.Program
that operates at a higher level of abstraction.
Proposal: A
ManagerProgram
struct.Implementation: Its
forward
function would:- Take a high-level goal as input (e.g., “Implement feature X”).
- Use a
ChainOfThought
orReAct
pattern to break the goal into a series of steps (e.g., “Plan the code”, “Write the code”, “Test the code”). - Consult its own optimized
Variable
configuration to decide which agent program to assign to each step. - Use
ElixirML.Process.Pipeline.execute/3
to dynamically construct and run the pipeline of agents it just designed.
# Inside the ManagerProgram's forward pass def forward(program, %{goal: goal}, opts) do # 1. Resolve its own variables config = resolve_variables(program, opts) # -> %{coder_agent_to_use: MyProject.Coders.Python, ...} # 2. Plan the pipeline plan = self.planner.forward(%{goal: goal}) # -> [step_plan, step_write, step_test] # 3. Build the dynamic pipeline of programs pipeline_stages = [ %{type: :program, program: config.planner_agent, ...}, %{type: :program, program: config.coder_agent_to_use, ...}, # <--- VARIABLE USED HERE %{type: :program, program: config.tester_agent, ...} ] # 4. Execute the pipeline of agents ElixirML.Process.PipelinePool.execute_pipeline(pipeline_stages, initial_inputs) end
Solution 3: Connect Optimization to the Supervisor
This is the final piece. The results from the ManagerProgram
’s optimization loop must be able to reconfigure the live, running system.
- Proposal: The
Teleprompter
(e.g., SIMBA) needs a new kind of “action” it can take upon finding a better configuration. - Implementation:
- The
ManagerProgram
’s optimizer (SIMBA
orBEACON
) finds thatMyProject.Coders.Elixir
is the best coder agent for the current batch of tasks. - The teleprompter doesn’t just return an optimized program. It returns an
{:ok, optimized_program, actions: [action]}
tuple. - The action could be a data structure like:
%{type: :reconfigure_supervisor, from: MyProject.Coders.Python, to: MyProject.Coders.Elixir}
. - The top-level orchestration loop sees this action and calls
ElixirML.Process.ProgramSupervisor.stop_program(pid_of_python_coder)
andstart_program(MyProject.Coders.Elixir)
.
- The
This creates a live, self-reconfiguring system where the Variable
optimization directly controls the running OTP processes. Your ElixirML framework becomes truly adaptive.