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discoveryspace

Info

If you are not familiar with the concept of a Discovery Space check here

Creating a discoveryspace resource

Pre-requisites

In order to create a discoveryspace you must provide a samplestore that the discoveryspace will use for storage. To see existing samplestores run: 

ado get samplestores
Alternatively, if there is no existing store, when creating the space you can use the ---new-sample-store flag. See the samplestores documentation for more details.

Discovery Space configuration YAML

Info

You can execute 

    ado template space --include-schema`
to output example YAML and full schema information for discoveryspace

An example discoveryspace is given below. Note, the values in this YAML are for illustrative purposes and need to be changed to define a valid space. 

sampleStoreIdentifier: source_abc123 # The id of the sample store to use
entitySpace: #A list of constitutive properties
  - identifier: my_property1 # The id of the first dimension/constitutive property of the space
  - identifier: my_property2 
experiments: # A list of experiments. The measurementspace of this discovery space
  - acuatatorIdentifier: someactuator # The id of the actuator that contains the experiment
    experimentIdentifier: experiment_one # The id of the experiment to execute
metadata:
  description: "This is an example discovery space"
  name: exampleSpace

The describing constitutive properties has more information on the options available for defining constitutive properties.

Once you have your discoveryspace YAML in a file called FILE.yaml create it with

ado create space -f FILE.yaml

If there are errors or inconsistencies in the space definition the create command will output an error. A common reason for inconsistency is that the properties defined in the entity-space do not match the properties required for the experiments in the measurement space. The next section shows a way to handle this issue.

Generating an initial YAML from an Experiment list

Given a list of experiment ids, that you want to use for the measurementspace, you can create an initial compatible discoveryspace which you can then edit. See constitutive properties and domains for more.

Assuming you are interested in the finetune-gptq-lora-dp-r-4-a-16-tm-default-v1.1.0 experiment, you can create your space template using:

ado template space --from-experiment finetune-gptq-lora-dp-r-4-a-16-tm-default-v1.1.0

More in-depth documentation about this feature can be found in the section about ado template

Differences between input configuration YAML and stored configuration YAML

After creating a discoveryspace, if you ado get its YAML you will notice that the information output is different from the one you provided in input. This is because the list of experiment references set in the YAML is expanded into the full experiment definitions and stored with the discoveryspace.

discoveryspaces and shared samplestores

Multiple discoveryspace resources can use the same samplestore resource. In this case you can think of the discoveryspace as a "view" on the samplestore contents, filtering just the entities that match its description.

To be more rigorous, given a discoveryspace you can apply this filter in two ways:

  1. Filter entities that were placed in the samplestore via an operation the discoveryspace
  2. Filter entities in the samplestore that match the discoveryspace

To understand the difference in these two methods imagine two overlapping discoveryspaces, A and B, that use the same samplestore. If someone uses method one on discoveryspace A, they will only see the entities placed there by operations on discoveryspace A. However if someone uses method two on discoveryspace A, they will see entities placed there via operations on both discoveryspace A and space B.

Shared samples stores also allow data to be reused across discoveryspaces, potentially accelerating exploration operations. See the shared sample store documentation for further details.

Accessing Entities

A common task is to see a table of measured entities associated with a discoveryspace

ado cli

The show command is used to show things related to a resource. In this case we want to show the entities related to a discoveryspace so we use:

ado show entities space
By default, this will output the entities as a table. There are various option flags that control this behaviour e.g. output to a CSV file.

Following the above section there are two lists of entities this could show. The command above will use filter (1) - entities that were placed in the samplestore via an operation the discoveryspace.

If you want to use filter (2) - entities in the samplestore that match the discoveryspace - use. 

ado show entities space --include matching

Info

Note: in both cases measurements on the entity will be filtered to be only those defined by the measurementspace of the discoveryspace

Two other options are

  • --include unsampled which lists entities defined by the discoveryspace but not yet sampled by any operation (as long as the space is finite).
  • --include missing which lists entities defined by the discoveryspace but not in the samplestore

Programmatically

Assuming you have your context in a file "my_context.yaml"

import yaml
from orchestrator.metastore.project import ProjectContext
from orchestrator.core.discoveryspace.space import DiscoverySpace

with open("my_context.yaml") as f:
    c = ProjectContext.model_validate(yaml.safe_load(f))

space = DiscoverySpace.from_stored_configuration(project_context=c, space_identifier='space_abc123')
# Get the sampled and measured entities. Returns a pandas DataFrame
table = space.measuredEntitiesTable()
# Get the matching. Returns a pandas DataFrame
table = space.matchingEntitiesTable()

Target v observed property formats

There are two formats the entities can be output controlled by the --property-format option to show entities

The observed format outputs one row per entity. The columns are constitutive property names and the observed property names i.e. they include both the experiment id and target property id. This ensures that with one row per entity there are no clashing column names.

The target format outputs one row per entity+experiment combination: so if there are two experiments in the Measurement Space then there will be two rows per entity. In this format the columns are constitutive property names and target property names.

Info

With property-format=target if the measurement space contains multiple experiments measuring different target properties, this will result in many empty fields in the table. This is because the column for a given target of one experiment will not have values in the rows corresponding to other experiments.

Defining the domains of constitutive properties in the entityspace

The YAML for the constitutive properties in the entityspace has the following structure

identifier: model_name # The name of the property
propertyDomain: # The domain describes the values the property can take
  variableType: # The type of the variable: CATEGORICAL_VARIABLE_TYPE, DISCRETE_VARIABLE_TYPE, CONTINUOUS_VARIABLE_TYPE or UNKNOWN_VARIABLE_TYPE
                # The type defines what values the next fields can take
  values:   # If the variable is CATEGORICAL_VARIABLE_TYPE this is a list of the categories
    -       # If the variable is DISCRETE_VARIABLE_TYPE this can be a list of discrete float or integer values it can take
  domainRange: # If the variables is DISCRETE_VARIABLE_TYPE or CONTINUOUS_VARIABLE_TYPE this is the min inclusive, max exclusive range it can take
               # If the variable is DISCRETE_VARIABLE_TYPE and values are given this must be compatible with the values
  interval: # If the variable is DISCRETE_VARIABLE_TYPE this is the interval between the values. 
            # If given domainRange is required and values cannot be given

As long as all constitutive properties are not "UNKNOWN_VARAIBLE_TYPE" there is sufficient information to sample new entities from the entityspace description.

Ensuring the entityspace and measurementspace are compatible

This section elaborates on Generating an initial YAML from an Experiment list.

Experiments take entities as inputs and those entities must have values for various properties in order for the experiments to be able to process them. This means the domains of the properties in the entityspace must be compatible with the experiments - if not entities could be sampled that experiments in the measurementspace cannot measure.

For example, to see the input requirements of the experiment finetune_full_benchmark-v1.0.0 you can run:

ado describe experiment finetune-full-fsdp-v1.6.0 --actuator-id SFTTrainer

you will get output like 

Identifier: SFTTrainer.finetune_full_benchmark-v1.0.0

Measures the performance of full-finetuning a model for a given (GPU model, number GPUS, batch_size, model_max_length, number nodes) combination.

Required Inputs:
  Constitutive Properties:
      model_name: The huggingface name or path to the model
      Domain:
        Type: CATEGORICAL_VARIABLE_TYPE
        Values: ['allam-1-13b', 'granite-13b-v2', 'granite-20b-v2', 'granite-3-8b', 'granite-3.1-2b', 'granite-3.1-3b-a800m-instruct', 'granite-3.1-8b-instruct', 'granite-34b-code-base', 'granite-3b-1.5', 'granite-3b-code-base-128k', 'granite-7b-base', 'granite-8b-code-base', 'granite-8b-code-base-128k', 'granite-8b-code-instruct', 'granite-8b-japanese', 'granite-vision-3.2-2b', 'hf-tiny-model-private/tiny-random-BloomForCausalLM', 'llama-13b', 'llama-7b', 'llama2-70b', 'llama3-70b', 'llama3-8b', 'llama3.1-405b', 'llama3.1-70b', 'llama3.1-8b', 'mistral-123b-v2', 'mistral-7b-v0.1', 'mixtral-8x7b-instruct-v0.1', 'smollm2-135m']
        
      
      model_max_length: The maximum context size. Dataset entries with more tokens they are truncated. Entries with fewer are padded
      Domain:
        Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [1, 131073] 
      
      batch_size: The total batch size to use
      Domain:
        Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [1, 4097] 
      
      number_gpus: The total number of GPUs to use
      Domain:
        Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [0, 33] 
      
      
Optional Inputs and Default Values:
  max_steps: The number of optimization steps to perform. Set to -1 to respect num_train_epochs instead
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [-1, 10001] 
  
  Default value: -1
  
  num_train_epochs: How many epochs to run. Ignored if max_steps is greater than 0
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [1.0, 10001.0] 
  
  Default value: 1.0
  
  stop_after_seconds: If set, the optimizer will be asked to stop after the specified time elapses. The check is performed after the end of each training step.
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [-1.0, 1000001.0] 
  
  Default value: -1.0
  
  dataset_id: The identifier of the dataset to use for training
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE
    Values: ['news-chars-1024-entries-1024', 'news-chars-1024-entries-256', 'news-chars-1024-entries-4096', 'news-chars-2048-entries-1024', 'news-chars-2048-entries-256', 'news-chars-2048-entries-4096', 'news-chars-512-entries-1024', 'news-chars-512-entries-256', 'news-chars-512-entries-4096', 'news-tokens-128kplus-entries-320', 'news-tokens-128kplus-entries-4096', 'news-tokens-16384plus-entries-4096', 'vision-384x384-16384plus-entries-4096', 'vision-384x768-16384plus-entries-4096']
    
  
  Default value: news-tokens-16384plus-entries-4096
  
  gradient_checkpointing: If True, use gradient checkpointing to save memory (i.e. higher batchsizes) at the expense of slower backward pass
  Domain:
    Type: BINARY_VARIABLE_TYPE Values: [True, False] 
  
  Default value: 1
  
  torch_dtype: The torch datatype to use
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE Values: ['bfloat16', 'float16', 'float32'] 
  
  Default value: bfloat16
  
  gradient_accumulation_steps: Number of update steps to accumulate before performing a backward/update pass.
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [1, 33] 
  
  Default value: 4
  
  r: The LORA rank
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [1, 33] 
  
  Default value: 4
  
  lora_alpha: LORA Alpha scales the learning weights
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [1, 33] 
  
  Default value: 16
  
  fast_moe: Configures the amount of expert parallel sharding. number_gpus must be divisible by it
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [0, 33] 
  
  Default value: 0
  
  fast_kernels: Switches on fast kernels, the value is a list with strings of boolean values for [fast_loss, fast_rms_layernorm, fast_rope_embeddings]
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE Values: [None, ['True', 'True', 'True']] 
  
  Default value: None
  
  optim: The optimizer to use.
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE
    Values: ['adamw_hf', 'adamw_torch', 'adamw_torch_fused', 'adamw_torch_xla', 'adamw_torch_npu_fused', 'adamw_apex_fused', 'adafactor', 'adamw_anyprecision', 'adamw_torch_4bit', 'ademamix', 'sgd', 'adagrad', 'adamw_bnb_8bit', 'adamw_8bit', 'ademamix_8bit', 'lion_8bit', 'lion_32bit', 'paged_adamw_32bit', 'paged_adamw_8bit', 'paged_ademamix_32bit', 'paged_ademamix_8bit', 'paged_lion_32bit', 'paged_lion_8bit', 'rmsprop', 'rmsprop_bnb', 'rmsprop_bnb_8bit', 'rmsprop_bnb_32bit', 'galore_adamw', 'galore_adamw_8bit', 'galore_adafactor', 'galore_adamw_layerwise', 'galore_adamw_8bit_layerwise', 'galore_adafactor_layerwise', 'lomo', 'adalomo', 'grokadamw', 'schedule_free_adamw', 'schedule_free_sgd']
    
  
  Default value: adamw_torch
  
  bf16: Whether to use bf16 (mixed) precision instead of 32-bit. Requires Ampere or higher NVIDIA add bf16 mixed precision support for NPU architecture or using CPU (use_cpu) or Ascend NPU. This is an experimental API and it may change.
  Domain:
    Type: BINARY_VARIABLE_TYPE Values: [False, True] 
  
  Default value: 0
  
  gradient_checkpointing_use_reentrant: Specify whether to use the activation checkpoint variant that requires reentrant autograd. This parameter should be passed explicitly. Torch version 2.5 will raise an exception if use_reentrant is not passed. If use_reentrant=False, checkpoint will use an implementation that does not require reentrant autograd. This allows checkpoint to support additional functionality, such as working as expected with torch.autograd.grad and support for keyword arguments input into the checkpointed function.
  Domain:
    Type: BINARY_VARIABLE_TYPE Values: [False, True] 
  
  Default value: 0
  
  dataset_text_field: Training dataset text field containing single sequence. Either the dataset_text_field or data_formatter_template need to be supplied. For running vision language model tuning pass the column name for text data.
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE Values: ['output', 'messages'] 
  
  Default value: output
  
  dataset_image_field: For running vision language model tuning pass the column name of the image data in the dataset.
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE Values: [None, 'images'] 
  
  Default value: None
  
  remove_unused_columns: Remove columns not required by the model when using an nlp.Dataset.
  Domain:
    Type: BINARY_VARIABLE_TYPE Values: [True, False] 
  
  Default value: 1
  
  dataset_kwargs_skip_prepare_dataset: When True, configures trl to skip preparing the dataset.
  Domain:
    Type: BINARY_VARIABLE_TYPE Values: [True, False] 
  
  Default value: 0
  
  flash_attn: Use Flash attention v2 from transformers
  Domain:
    Type: BINARY_VARIABLE_TYPE Values: [True, False] 
  
  Default value: 1
  
  gpu_model: The GPU model to use
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE
    Values: [None, 'NVIDIA-A100-SXM4-80GB', 'NVIDIA-A100-80GB-PCIe', 'Tesla-T4', 'L40S', 'Tesla-V100-PCIE-16GB', 'NVIDIA-H100-PCIe', 'NVIDIA-H100-80GB-HBM3']
    
  
  Default value: None
  
  distributed_backend: Which pytorch backend to use when training with multiple GPU devices
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE Values: ['DDP', 'FSDP', 'None'] 
  
  Default value: FSDP
  
  number_nodes: If set, actuator distributes tasks on multiple nodes. Each Node will use number_gpus/number_nodes GPUs. Each Node will use 1 process for each GPU it uses
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1 Range: [1, 9] 
  
  Default value: 1
  
  fms_hf_tuning_version: The version of fms-hf-tuning to use - controls which wrapper to use as well as python dependencies
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE
    Values: ['2.0.1', '2.1.0', '2.1.1', '2.1.2', '2.2.1', '2.3.1', '2.4.0', '2.5.0', '2.6.0', '2.7.1', '2.8.2']
    
  
  Default value: 2.1.2
  
  enable_roce: This setting is only in effect for multi-node runs. It controls whether RDMA over Converged Ethernet (RoCE) is switched on or not
  Domain:
    Type: BINARY_VARIABLE_TYPE Values: [False, True] 
  
  Default value: 0
  
  fsdp_sharding_strategy: [1] FULL_SHARD (shards optimizer states, gradients and parameters), [2] SHARD_GRAD_OP (shards optimizer states and gradients), [3] NO_SHARD (DDP), [4] HYBRID_SHARD (shards optimizer states, gradients and parameters within each node while each node has full copy), [5] HYBRID_SHARD_ZERO2 (shards optimizer states and gradients within each node while each node has full copy). For more information, please refer the official PyTorch docs.
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE
    Values: ['FULL_SHARD', 'SHARD_GRAD_OP', 'NO_SHARD', 'HYBRID_SHARD', 'HYBRID_SHARD_ZERO2']
    
  
  Default value: FULL_SHARD
  
  fsdp_state_dict_type: [1] FULL_STATE_DICT, [2] LOCAL_STATE_DICT, [3] SHARDED_STATE_DICT
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE
    Values: ['FULL_STATE_DICT', 'LOCAL_STATE_DICT', 'SHARDED_STATE_DICT']
    
  
  Default value: FULL_STATE_DICT
  
  fsdp_use_orig_params: If True, allows non-uniform `requires_grad` during init, which means support for interspersed frozen and trainable parameters. (useful only when `use_fsdp` flag is passed).
  Domain:
    Type: BINARY_VARIABLE_TYPE Values: [False, True] 
  
  Default value: 1
  
  accelerate_config_mixed_precision: Whether or not to use mixed precision training. Choose from 'no', 'fp16', 'bf16' or 'fp8'. 'fp8' requires the installation of transformers-engine.
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE Values: ['no', 'fp16', 'bf16', 'fp8'] 
  
  Default value: no
  
  accelerate_config_fsdp_transformer_layer_cls_to_wrap: List of transformer layer class names (case-sensitive) to wrap, e.g, BertLayer, GraniteDecoderLayer, GPTJBlock, T5Block ... (useful only when using FSDP)
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE
    Values: [None, 'GraniteDecoderLayer', 'LlamaDecoderLayer', 'MistralDecoderLayer', 'GPTJBlock', 'T5Block']
    
  
  Default value: None
  
  
Outputs:
  finetune_full_benchmark-v1.0.0-gpu_compute_utilization_min
  finetune_full_benchmark-v1.0.0-gpu_compute_utilization_avg
  finetune_full_benchmark-v1.0.0-gpu_compute_utilization_max
  finetune_full_benchmark-v1.0.0-gpu_memory_utilization_min
  finetune_full_benchmark-v1.0.0-gpu_memory_utilization_avg
  finetune_full_benchmark-v1.0.0-gpu_memory_utilization_max
  finetune_full_benchmark-v1.0.0-gpu_memory_utilization_peak
  finetune_full_benchmark-v1.0.0-gpu_power_watts_min
  finetune_full_benchmark-v1.0.0-gpu_power_watts_avg
  finetune_full_benchmark-v1.0.0-gpu_power_watts_max
  finetune_full_benchmark-v1.0.0-gpu_power_percent_min
  finetune_full_benchmark-v1.0.0-gpu_power_percent_avg
  finetune_full_benchmark-v1.0.0-gpu_power_percent_max
  finetune_full_benchmark-v1.0.0-cpu_compute_utilization
  finetune_full_benchmark-v1.0.0-cpu_memory_utilization
  finetune_full_benchmark-v1.0.0-train_runtime
  finetune_full_benchmark-v1.0.0-train_samples_per_second
  finetune_full_benchmark-v1.0.0-train_steps_per_second
  finetune_full_benchmark-v1.0.0-train_tokens_per_second
  finetune_full_benchmark-v1.0.0-train_tokens_per_gpu_per_second
  finetune_full_benchmark-v1.0.0-dataset_tokens_per_second
  finetune_full_benchmark-v1.0.0-dataset_tokens_per_second_per_gpu
  finetune_full_benchmark-v1.0.0-is_valid
You can see the required inputs under the section Required Inputs and the optional inputs under Optional Inputs and Default Values. The next section explains how to use optional properties.

Note

The experiment gives the full domains it supports for each required and optional constitutive property. However, when constructing the entityspace you usually only want to use a sub-domain.

Parameterizing Experiments

If an experiment has optional properties you can define equivalent properties in the entity space. If you don't, the default value for the property will be used.

In addition, you can define your own custom parameterization of the experiment. For example, take the following experiment:

Identifier: robotic_lab.peptide_mineralization

Measures adsorption of peptide lanthanide combinations

Required Inputs:
  Constitutive Properties:
      peptide_identifier
      Domain:
        Type: CATEGORICAL_VARIABLE_TYPE
        Values: ['test_peptide', 'test_peptide_new']
        
      
      peptide_concentration
      Domain:
        Type: DISCRETE_VARIABLE_TYPE
        Values: [0.1, 0.4, 0.6, 0.8]
        Range: [0.1, 1.8]
        
      
      lanthanide_concentration
      Domain:
        Type: DISCRETE_VARIABLE_TYPE
        Values: [0.1, 0.4, 0.6, 0.8]
        Range: [0.1, 1.8]
        
      
      
Optional Inputs and Default Values:
  temperature
  Domain:
    Type: CONTINUOUS_VARIABLE_TYPE Range: [0, 100] 
  
  Default value: 23.0
  
  replicas
  Domain:
    Type: DISCRETE_VARIABLE_TYPE Interval: 1.0 Range: [1, 4] 
  
  Default value: 1.0
  
  robot_identifier
  Domain:
    Type: CATEGORICAL_VARIABLE_TYPE Values: ['harry', 'hermione'] 
  
  Default value: hermione
  
  
Outputs:
  peptide_mineralization-adsorption_timeseries
  peptide_mineralization-adsorption_plateau_value

It has three optional properties: temperature, robot_identifier and replicas.

Example: Customizing an experiment

The default temperature is 23 degrees C, however imagine you want to run this experiment at 30 degrees C. You can define a discoveryspace like:

sampleStoreIdentifier: c04713 
entitySpace:
- identifier:  peptide_identifier
  propertyDomain:
    values: ['test_peptide']
- identifier: peptide_concentration
  propertyDomain:
    values: [0.1,0.4,0.6,0.8]
- identifier: lanthanide_concentration
  propertyDomain:
    values: [ 0.1,0.4,0.6,0.8 ]
experiments:
- actuatorIdentifier: robotic_lab
  experimentIdentifier: peptide_mineralization
  parameterization:
    - value: 30
      property:
        identifier: 'temperature'
metadata:
  description: Space for exploring the absorption properties of test_peptide

Example: Multiple customizations of the same experiment

You can add the multiple custom parameterizations of the same experiment e.g. one experiment that runs at 30 degrees C and another at 25 degrees. 

sampleStoreIdentifier: c04713 # PUT REAL ID HERE
entitySpace:
- identifier:  peptide_identifier
  propertyDomain:
    values: ['test_peptide']
- identifier: peptide_concentration
  propertyDomain:
    values: [0.1,0.4,0.6,0.8]
- identifier: lanthanide_concentration
  propertyDomain:
    values: [ 0.1,0.4,0.6,0.8 ]
experiments:
- actuatorIdentifier: robotic_lab
  experimentIdentifier: peptide_mineralization
  parameterization:
    - value: 30
      property:
        identifier: 'temperature'
- actuatorIdentifier: robotic_lab
  experimentIdentifier: peptide_mineralization
  parameterization:
    - value: 25
      property:
        identifier: 'temperature'
metadata:
  description: Space for exploring the absorption properties of test_peptide

Example: Using an optional property in the entityspace

Finally, if you want to scan a range of temperatures in your discovery space, the best would be to move this parameter into the entityspace:

sampleStoreIdentifier: c04713 # PUT REAL ID HERE
entitySpace:
- identifier:  peptide_identifier
  propertyDomain:
    values: ['test_peptide']
- identifier: peptide_concentration
  propertyDomain:
    values: [0.1,0.4,0.6,0.8]
- identifier: lanthanide_concentration
  propertyDomain:
    values: [ 0.1,0.4,0.6,0.8 ]
- identifier: temperature
  propertyDomain:
    domainRange: [20,30]
    interval: 1
experiments:
- actuatorIdentifier: robotic_lab
  experimentIdentifier: peptide_mineralization
metadata:
  description: Space for exploring the absorption properties of test_peptide

Here entities will be generated with a temperatures property that ranges from 20 to 30 degrees. When the experiment is run on the entity it will retrieve the value of the temperature from it rather than the Experiment.

Our toy example actuator contains the above examples. You can use it to experiment and explore custom parameterization.