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Created async Environment.get_id
method for unique environment ID
#182
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…182 (`env-id`) To optimize the given code, we need to focus on accessing DataFrame elements, as that is typically one of the more time-consuming operations. The main bottleneck here is how we access and use `self.src_df.iloc[idx]`. We should aim to minimize repeated DataFrame operations by potentially caching results or using more efficient means of data access. However, the provided code is already quite straightforward and there's limited room for drastic optimization without major structural changes or multi-threading (which is out of the scope for such a small snippet). Here's an optimized version of the given code. Changes made include. 1. Adding `@lru_cache(maxsize=None)` to cache the results of `get_new_env_by_idx` for repeated indices, which can significantly speed up repeated access. 2. Extracting values from the DataFrame row to variables before creating the `CalculatorEnv` object. This removes some redundant dictionary access overhead. Keep in mind that in order to use `@lru_cache`, the method should be referencing data that does not change between calls for the same index, which in this refactoring, it does. If `self.src_df` can change between calls, you should not use the cache decorator. This approach mainly optimizes data access within the function call.
Environment.__hash__
hook for unique environment IDEnvironment.get_id
method for unique environment ID
⚡️ Codeflash found optimizations for this PR📄 11% (0.11x) speedup for
|
Test | Status |
---|---|
⚙️ Existing Unit Tests | 🔘 None Found |
🌀 Generated Regression Tests | ✅ 21 Passed |
⏪ Replay Tests | 🔘 None Found |
🔎 Concolic Coverage Tests | 🔘 None Found |
📊 Tests Coverage | undefined |
🌀 Generated Regression Tests Details
import pytest # used for our unit tests
# function to test
from aviary.core import Environment
from aviary.envs.gsm8k.env import CalculatorEnv
class CalculatorEnvConfig:
pass # Assuming a dummy config class for testing purposes
from aviary.envs.gsm8k.env import CalculatorEnv
# unit tests
# Basic Functionality
def test_basic_functionality():
codeflash_output = CalculatorEnv.from_task("2 + 2")
# Edge Cases
def test_empty_task_string():
codeflash_output = CalculatorEnv.from_task("")
def test_task_with_special_characters():
codeflash_output = CalculatorEnv.from_task("2 + @")
# Invalid Inputs
def test_long_mathematical_expression():
codeflash_output = CalculatorEnv.from_task("1 + 2 + 3 + 4 + 5 + 6 + 7 + 8 + 9 + 10")
# Performance and Scalability
def test_very_large_task_string():
large_task = " + ".join(["1"] * 10000)
codeflash_output = CalculatorEnv.from_task(large_task)
# Configuration Handling
def test_default_configuration():
codeflash_output = CalculatorEnv.from_task("3 * 3")
def test_consistent_instance_creation():
task = "4 / 2"
codeflash_output = CalculatorEnv.from_task(task)
codeflash_output = CalculatorEnv.from_task(task)
# Large Scale Test Cases
def test_performance_with_large_data_samples():
large_task = " + ".join([str(i) for i in range(1000)])
codeflash_output = CalculatorEnv.from_task(large_task)
# Side Effects and State Verification
def test_no_unintended_side_effects():
global_state = {}
codeflash_output = CalculatorEnv.from_task("2 + 2")
# Miscellaneous
def test_task_with_whitespace_variations():
codeflash_output = CalculatorEnv.from_task(" 2 + 2 ")
codeflash_output = CalculatorEnv.from_task("\t3 * 3\n")
# codeflash_output is used to check that the output of the original code is the same as that of the optimized code.
import pytest # used for our unit tests
# function to test
from aviary.core import Environment
from aviary.envs.gsm8k.env import CalculatorEnv
class CalculatorEnvConfig:
pass # Placeholder for the actual CalculatorEnvConfig class
from aviary.envs.gsm8k.env import CalculatorEnv
# unit tests
def test_basic_functionality():
# Test creating an instance with a simple task string
codeflash_output = CalculatorEnv.from_task("2 + 2")
def test_empty_task_string():
# Test creating an instance with an empty task string
codeflash_output = CalculatorEnv.from_task("")
def test_whitespace_task_string():
# Test creating an instance with a whitespace task string
codeflash_output = CalculatorEnv.from_task(" ")
def test_unicode_task_string():
# Test creating an instance with a Unicode task string
codeflash_output = CalculatorEnv.from_task("π * r^2")
def test_very_long_task_string():
# Test creating an instance with a very long task string
long_task = "2 + 2" * 1000
codeflash_output = CalculatorEnv.from_task(long_task)
def test_default_configuration():
# Test interaction with default configuration
codeflash_output = CalculatorEnv.from_task("2 + 2")
def test_deterministic_behavior():
# Test consistency of returned instance
codeflash_output = CalculatorEnv.from_task("2 + 2")
codeflash_output = CalculatorEnv.from_task("2 + 2")
def test_no_side_effects():
# Test no unexpected side effects
global_state = {}
task = "2 + 2"
codeflash_output = CalculatorEnv.from_task(task)
# codeflash_output is used to check that the output of the original code is the same as that of the optimized code.
@sidnarayanan and I discussed a few things on
So, I reverted to the awaitable |
Resolves #165