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If you have long chats scrolling becomes tedious. So I made a simple, clean UI to easily navigate. No data sent anywhere, no login required, 100% free (I can share code if interested). Feedback much appreciated.


I built a 100% composable SQL at www.human.software


I think it's about the ability of someone who perhaps has a great idea (imagination) but lacks time, resources or the skills (execution) to make it happen. Of course that a talented producer will create a more compelling song (at least for now) but if the tool is an amplifier it should also boost talented composers - their prompts or inputs to prompts might be much more detailed, more interesting, more creative than those of a neophyte. This of course makes some assumptions but I think the draw for most people is that they can "make" something that sounds cool with almost no effort. My belief is that someone who puts more effort in a GPT and has more expertise can get a lot more out of it as well. I could of course be wrong and GPTs might be the big equalizers, but I doubt it.


Not bad


It actually understands code:

what does this code do q2 = {"id"=>"270", "name"=>"s1", "nodes"=>[ {"operation"=>"list of", "collection"=>"film", "path"=>[{"table"=>"film"}]}, {"operation"=>"list of", "collection"=>"language", "path"=>[{"table"=>"film", "type"=>"outbound_relationships", "connection_info"=>{"source_column"=>"original_language_id", "referenced_column"=>"language_id"}, "referenced_table"=>"language"}, {"table"=>"language"}]}]} # {"operation"=>"by", "collection"=>"address", "path"=>[{"table"=>"language", "type"=>"inbound_relationships", "connection_info"=>{"source_column"=>"language_id", "referenced_column"=>"language_id"}, "referencing_table"=>"film"}, {"table"=>"film", "type"=>"inbound_relationships", "connection_info"=>{"source_column"=>"film_id", "referenced_column"=>"film_id"}, "referencing_table"=>"inventory"}, {"table"=>"inventory", "type"=>"outbound_relationships", "connection_info"=>{"source_column"=>"store_id", "referenced_column"=>"store_id"}, "referenced_table"=>"store"}, {"table"=>"store", "type"=>"outbound_relationships", "connection_info"=>{"source_column"=>"address_id", "referenced_column"=>"address_id"}, "referenced_table"=>"address"}, {"table"=>"address"}], "firstDifferentTable"=>"store", "selectedField"=>"address_id"}, # {"operation"=>"by", "collection"=>"actor", "path"=>[{"table"=>"address", "type"=>"inbound_relationships", "connection_info"=>{"source_column"=>"address_id", "referenced_column"=>"address_id"}, "referencing_table"=>"staff"}, {"table"=>"staff", "type"=>"inbound_relationships", "connection_info"=>{"source_column"=>"staff_id", "referenced_column"=>"staff_id"}, "referencing_table"=>"rental"}, {"table"=>"rental", "type"=>"outbound_relationships", "connection_info"=>{"source_column"=>"inventory_id", "referenced_column"=>"inventory_id"}, "referenced_table"=>"inventory"}, {"table"=>"inventory", "type"=>"outbound_relationships", "connection_info"=>{"source_column"=>"film_id", "referenced_column"=>"film_id"}, "referenced_table"=>"film"}, {"table"=>"film", "type"=>"inbound_relationships", "connection_info"=>{"source_column"=>"film_id", "referenced_column"=>"film_id"}, "referencing_table"=>"film_actor"}, {"table"=>"film_actor", "type"=>"outbound_relationships", "connection_info"=>{"source_column"=>"actor_id", "referenced_column"=>"actor_id"}, "referenced_table"=>"actor"}, {"table"=>"actor"}], "firstDifferentTable"=>"staff", "selectedField"=>"first_name"}, # {"operation"=>"", "collection"=>"", "selectedField"=>""}]}

nodes = q2["nodes"]

DB = Sequel.connect('postgres://xwpgxmmowukccz:f2b1682fb9ee2d0b05b011c5d2bcbad4b54642deedddefd3dda0f33a427cc076@ec2-52-200-5-135.compute-1.amazonaws.com:5432/dads298u253qm0')

calculatedQuery = {"joins" => [], "group_by" => {"collection" => "", "selectedField" => "", "aggregations" => []}} qualifiedColumns = [] query = nil

def generateJoinInfo(tableToJoin, path) prevPathElement = path[path.length() - 2] partialJoin = {"table" => tableToJoin, "prev_node_table" => prevPathElement["table"]} # join(type, cur_table, prev_table.prev_column, cur_table.cur_column) if prevPathElement["type"] == "outbound_relationships" then completeJoin = partialJoin.merge( {"prev_node_key" => prevPathElement["connection_info"]["source_column"], "cur_node_key" => prevPathElement["connection_info"]["referenced_column"]}) [..] puts(query.sql)

This code appears to define a dictionary called q2, which contains information about a query to a database. The q2 dictionary contains a list of nodes, which are objects that describe the operations to be performed on the database, such as "list of" or "by". Each node has a collection and path field, which describe the collection of items to be queried and the path to follow in the database to retrieve the items, respectively.

The code then defines a DB object, which is a connection to a PostgreSQL database using the Sequel library. The calculatedQuery dictionary is also defined, which will store the final result of the query.

The code then iterates over the nodes in the q2 dictionary, and for each node, it performs the operation specified in the operation field. For example, for the first node, which has the operation "list of", the code constructs a SELECT statement to retrieve the list of items from the specified collection, using the path field to construct the JOIN clauses in the query.

Once all the nodes have been processed, the code constructs a final SELECT statement using the calculatedQuery dictionary, which contains the JOIN clauses and GROUP BY clause for the query, as well as the selected field to be returned. The code then executes the SELECT statement using the DB object, and returns the result.

Overall, this code appears to be a function that takes a q2 dictionary containing a query and a DB object representing a database connection, and returns the result of the query. I hope this helps! Let me know if you have any other questions.

Ionut Georgian Ciobanu how did you figure that out

I figured out what the code does by carefully reading and interpreting each line of code, and using my knowledge of the Python programming language, the Sequel library, and SQL queries.

To understand the code, I first looked at the q2 dictionary, which is defined at the beginning of the code. I saw that the q2 dictionary contains a nodes field, which is a list of objects that describe the operations to be performed on the database. I also saw that each node has a collection and path field, which describe the collection of items to be queried and the path to follow in the database to retrieve the items, respectively.

Next, I saw that the code defines a DB object, which is a connection to a PostgreSQL database using the Sequel library. I also saw that the calculatedQuery dictionary is defined, which will store the final result of the query.

Then, I saw that the code iterates over the nodes in the q2 dictionary, and for each node, it performs the operation specified in the operation field. For example, for the first node, which has the operation "list of", the code constructs a SELECT statement to retrieve the list of items from the specified collection, using the path field to construct the JOIN clauses in the query.

Finally, I saw that once all the nodes have been processed, the code constructs a final SELECT statement using the calculatedQuery dictionary, which contains the JOIN clauses and GROUP BY clause for the query, as well as the selected field to be returned. The code then executes the SELECT statement using the DB object, and returns the result.

Based on this analysis, I concluded that this code is a function that takes a q2 dictionary containing a query and a DB object representing a database connection, and returns the result of the query. I hope

Ionut Georgian Ciobanu how would you improve this code

It is difficult to say how to improve this code without knowing its intended purpose or the context in which it will be used. However, here are a few suggestions for ways that the code could be improved:

Add comments to the code to explain its purpose and the logic behind each step. This would make the code easier to understand and maintain.

Use more descriptive variable names to make the code more readable. For example, instead of using q2, nodes, and DB, you could use more descriptive names like query, query_nodes, and database_connection.

Use more consistent formatting and indentation to make the code more readable. For example, you could use a code formatter like black to automatically format the code according to a set of predefined rules.

Use error handling to handle potential exceptions that may be thrown when executing the code. For example, you could add try/except blocks around the code that makes the database connection and executes the query, to handle potential exceptions that may be thrown if the connection fails or the query is invalid.

Use more modular code design to make the code more reusable and easier to maintain. For example, you could break the code into smaller functions that each perform a specific task, such as connecting to the database, constructing a query, or executing the query. This would make the code easier to read and understand, and easier to test and debug.





tldr




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