def main(): db = _db.Database(fs.path("joblist.db")) data = [ row for row in db.execute("SELECT device,Count(*) AS count\n" "FROM jobs\n" "GROUP BY device\n" "ORDER BY count") ] io.info("Job list:") print(fmt.table(data, columns=("Device", "Jobs"))) print() jobs = [row for row in db.execute("SELECT * FROM jobs")] fs.mkdir("jobs") logs = { "monza": open("jobs/monza.txt", "w"), "whz5": open("jobs/whz5.txt", "w"), "monza": open("jobs/monza.txt", "w"), "cec": open("jobs/cec.txt", "w"), "florence": open("jobs/florence.txt", "w"), } for job in jobs: enum_job(logs, db, *job) lab.exit()
def finalise(output=None, figsize=None, tight=True, **kwargs): """ Finalise a plot. Display or show the plot, then close it. Arguments: output (str, optional): Path to save figure to. If not given, show plot. figsize ((float, float), optional): Figure size in inches. **kwargs: Any additional arguments to pass to plt.savefig(). Only required if output is not None. """ import matplotlib.pyplot as plt # Set figure size. if figsize is not None: plt.gcf().set_size_inches(*figsize) # Set plot layout. if tight: plt.tight_layout() if output is None: plt.show() else: plt.savefig(output, **kwargs) io.info("Wrote", output) plt.close()
def main(): db = _db.Database(fs.path("joblist.db")) data = [row for row in db.execute("SELECT device,Count(*) AS count\n" "FROM jobs\n" "GROUP BY device\n" "ORDER BY count")] io.info("Job list:") print(fmt.table(data, columns=("Device", "Jobs"))) print() jobs = [row for row in db.execute("SELECT * FROM jobs")] fs.mkdir("jobs") logs = { "monza": open("jobs/monza.txt", "w"), "whz5": open("jobs/whz5.txt", "w"), "monza": open("jobs/monza.txt", "w"), "cec": open("jobs/cec.txt", "w"), "florence": open("jobs/florence.txt", "w"), } for job in jobs: enum_job(logs, db, *job) lab.exit()
def cp_loc(path, name): """ Copy database from local filesystem. """ path = fs.path(path) dst = dst_path(name) io.info("Copying", path, "->", name) fs.cp(path, dst)
def cp_rmt(host, path="~/.omnitune/skelcl.db", name=None): """ Copy database from remote filesystem. """ name = name or host dst = dst_path(name) io.info("Copying {host}:{path}".format(host=host, path=path), "->", name) system.scp(host, path, dst)
def migrate_3_to_4(old): """ SkelCL database migration script. Arguments: old (SkelCLDatabase): The database to migrate """ # Create temporary database fs.rm("/tmp/omnitune.skelcl.migration.db") tmp = _db.Database("/tmp/omnitune.skelcl.migration.db") tmp.attach(old.path, "rhs") io.info("Migrating database to version 4.") backup_path = old.path + ".3" io.info("Creating backup of old database at '{0}'".format(backup_path)) fs.cp(old.path, backup_path) tables = [ "kernels", "kernel_lookup", "kernel_names", "devices", "device_lookup", "datasets", "dataset_lookup", "scenarios", "params", "runtimes", "runtime_stats", "oracle_params" ] for table in tables: io.info("Copying data from '{}' ...".format(table)) tmp.execute("INSERT INTO {} SELECT * FROM rhs.{}".format(table, table)) tmp_path = tmp.path old_path = old.path tmp.execute("VACUUM") # Sanity checks bad = False for table in tables: old_count = tmp.num_rows("rhs." + table) tmp_count = tmp.num_rows(table) if old_count != tmp_count: io.error("Bad rows count:", old_count, tmp_count) bad = True if bad: io.fatal("Failed sanity check, aborting.") else: io.info("Passed sanity check.") # Copy migrated database over the original one. fs.cp(tmp_path, old_path) fs.rm(tmp_path) old.close() tmp.close() io.info("Migration completed.")
def main(): jobs = get_jobs() io.info("Loaded", len(jobs), "jobs") # Build example programs. fs.cd(experiment.EXAMPLES_BUILD) make.make() for i,job in enumerate(jobs): run_job(i, len(jobs), *job.split("\t")) lab.exit()
def main(): dbus.mainloop.glib.DBusGMainLoop(set_as_default=True) bus = dbus.SystemBus() name = dbus.service.BusName(SESSION_NAME, bus) io.info("Launched session %s ..." % SESSION_NAME) # Launch server. Server(bus, OBJECT_PATH) mainloop = gobject.MainLoop() try: mainloop.run() except KeyboardInterrupt: lab.exit()
def merge(old_oracle, dbs, path): """ Merge databases into one. Arguments: dbs (list of Database): Databases to merge. path (str): Path to merged database. Returns: Database: merged database instance. """ print("Merging {n} databases:".format(n=len(dbs) + 1)) print(" ", old_oracle) for db in dbs: print(" ", db) print() # Make a copy of the old oracle database to work from. io.info("Coping", old_oracle, "->", fs.basename(path)) fs.cp(old_oracle, path) target = migrate(_db.Database(path=path)) for db in dbs + [target]: try: db.num_rows("runtimes") except sqlite3.DatabaseError as e: io.error("Broken db:", db.path) io.fatal(e) num_runtimes = [db.num_rows("runtimes") for db in dbs] expected_total = target.num_rows("runtimes") + sum(num_runtimes) target.merge(dbs) total = target.num_rows("runtimes") if total != expected_total: io.fatal("Expected total", expected_total, "!= actual total", total) io.info(("Merged {num_db} databases, {n} rows" .format(num_db=len(dbs), n=total))) return target
def main(): """ Evaluate dataset and omnitune performance. """ # Get the latest dataset from the oracle. db = migrate(_db.Database(experiment.ORACLE_PATH)) backup_path = db.path + ".unprune" io.info("Writing backup to", backup_path) fs.cp(db.path, backup_path) # Strip scenarios for which there isn't enough unique workgroup # sizes. db.prune_min_params_per_scenario(25) # Strip scenarios so that there are at least a certain number of # safe parameters. db.prune_safe_params(3)
def merge(old_oracle, dbs, path): """ Merge databases into one. Arguments: dbs (list of Database): Databases to merge. path (str): Path to merged database. Returns: Database: merged database instance. """ print("Merging {n} databases:".format(n=len(dbs) + 1)) print(" ", old_oracle) for db in dbs: print(" ", db) print() # Make a copy of the old oracle database to work from. io.info("Coping", old_oracle, "->", fs.basename(path)) fs.cp(old_oracle, path) target = migrate(_db.Database(path=path)) for db in dbs + [target]: try: db.num_rows("runtimes") except sqlite3.DatabaseError as e: io.error("Broken db:", db.path) io.fatal(e) num_runtimes = [db.num_rows("runtimes") for db in dbs] expected_total = target.num_rows("runtimes") + sum(num_runtimes) target.merge(dbs) total = target.num_rows("runtimes") if total != expected_total: io.fatal("Expected total", expected_total, "!= actual total", total) io.info(("Merged {num_db} databases, {n} rows".format(num_db=len(dbs), n=total))) return target
def __init__(self, *args, **kwargs): """ Construct a SkelCL server. """ # Fail if we can't find the path if not fs.isdir(self.LLVM_PATH): io.fatal("Could not find llvm path '{0}'".format(self.LLVM_PATH)) super(Server, self).__init__(*args, **kwargs) io.info("Registered server %s/SkelCLServer ..." % SESSION_NAME) # Setup persistent database. self.db = migrate(Database()) self.db.status_report() # Create an in-memory sample strategy cache. self.strategies = cache.TransientCache()
def run_example_prog(prog, args): """ Run a SkelCL example program. Arguments: prog (str): The name of the program to run args (list of str): Any arguments """ fs.cd(fs.path(experiment.EXAMPLES_BUILD, prog)) cmd = ["./" + prog] + args cmd_str = " ".join(cmd) io.info("COMMAND:", io.colourise(io.Colours.RED, cmd_str)) ret, _, _ = system.run(cmd, stdout=system.STDOUT, stderr=system.STDERR) if ret: system.echo(cmd_str, "/tmp/naughty.txt", append=True) return ret
def run_job(i, n, wgsize, program, args): wg_c, wg_r = unhash_params(wgsize) # Set environment variable. os.environ["OMNITUNE_OFFLINE_TRAINING"] = "1" os.environ["OMNITUNE_STENCIL_WG_C"] = str(wg_c) os.environ["OMNITUNE_STENCIL_WG_R"] = str(wg_r) fs.cd(fs.path(experiment.EXAMPLES_BUILD, program)) cmd_str = "./{} {}".format(program, args.rstrip()) cmd = cmd_str.split() io.info(i, "of", n, " - ", wgsize, "COMMAND:", io.colourise(io.Colours.RED, cmd_str)) ret, _, _ = system.run(cmd, stdout=system.STDOUT, stderr=system.STDERR) if ret: print(ret, wgsize, program, args, sep="\t", file=errlog) else: print(ret, wgsize, program, args, sep="\t", file=runlog)
def gather(): benchmarks = { "canny": {}, "fdtd": {}, "gol": {}, "gaussian": {}, "heat": {}, "simple": {}, "simplecomplex": {} } for benchmark in benchmarks: io.info("Benchmark %s" % benchmark) fs.cd("/home/chris/src/msc-thesis/scraps/05-12/kernels/%s" % benchmark) instcounts = [] for file in fs.ls(): instcounts.append(get_instcount(file)) benchmarks[benchmark] = merge_counts(instcounts) return benchmarks
def migrate_5_to_6(db): """ SkelCL database migration script. Database version 5 adds an additional "param_stats" table. Arguments: old (SkelCLDatabase): The database to migrate """ io.info("Migrating database to version 6.") backup_path = db.path + ".5" io.info("Creating backup of old database at '{0}'".format(backup_path)) fs.cp(db.path, backup_path) db.execute("DELETE FROM version") db.execute("INSERT INTO version VALUES (6)") db.execute(""" CREATE TABLE IF NOT EXISTS scenario_stats ( scenario CHAR(40), -- Key for scenarios num_params INTEGER, -- The number of parameters in W_legal for scenario oracle_param VARCHAR(255), -- The best parameter oracle_runtime REAL, -- The runtime of the best parameter worst_param VARCHAR(255), -- The worst parameter worst_runtime REAL, -- The runtime of the worst parameter mean_runtime REAL, -- The mean runtime of all parameters PRIMARY KEY (scenario) ) """) db.populate_scenario_stats_table() # Sanity checks bad = False if db.num_rows("scenario_stats") != len(db.scenarios): io.error("Bad row count in scenario_stats table! Expected", len(db.scenarios), "Observed:", db.num_rows("scenario_stats")) bad = True if bad: io.fatal("Failed sanity check, aborting.") else: io.info("Passed sanity check.") # Copy migrated database over the original one. db.close() io.info("Migration completed.")
def migrate_4_to_5(db): """ SkelCL database migration script. Database version 5 adds an additional "param_stats" table. Arguments: old (SkelCLDatabase): The database to migrate """ io.info("Migrating database to version 5.") backup_path = db.path + ".4" io.info("Creating backup of old database at '{0}'".format(backup_path)) fs.cp(db.path, backup_path) db.execute("DELETE FROM version") db.execute("INSERT INTO version VALUES (5)") db.execute(""" -- Parameter stats table CREATE TABLE IF NOT EXISTS param_stats ( params VARCHAR(255), -- Key for params num_scenarios INTEGER, -- Number of scenarios for which param is legal, 0 < num_scenarios coverage REAL, -- num_scenarios / total number of scenarios, 0 < coverage <= 1 performance REAL, -- Geometric mean of performance relative to the oracle for all scenarios for which param was legal, 0 < performance <= 1 PRIMARY KEY (params) ) """) db.populate_param_stats_table() # Sanity checks bad = False if db.num_rows("param_stats") != len(db.params): io.error("Bad row count in params table! Expected", len(db.params), "Observed:", db.num_rows("param_stats")) bad = True if bad: io.fatal("Failed sanity check, aborting.") else: io.info("Passed sanity check.") # Copy migrated database over the original one. db.close() io.info("Migration completed.")
def migrate_1_to_2(old): """ SkelCL database migration script. Arguments: old (SkelCLDatabase): The database to migrate """ # Create temporary database fs.cp(old.path, "/tmp/omnitune.skelcl.migration.db") tmp = _db.Database("/tmp/omnitune.skelcl.migration.db") io.info("Migrating database to version 2.") backup_path = old.path + ".1" io.info("Creating backup of old database at '{0}'".format(backup_path)) fs.cp(old.path, backup_path) # Update database version tmp.drop_table("version") tmp.create_table("version", (("version", "integer"),)) tmp.execute("INSERT INTO version VALUES (2)") # Rename table "data" to "datasets" tmp.create_table("datasets", (("id", "text primary key"), ("width", "integer"), ("height", "integer"), ("tin", "text"), ("tout", "text"))) tmp.execute("INSERT INTO datasets SELECT * FROM data") tmp.drop_table("data") # Rename column "scenarios.data" to "scenarios.dataset" tmp.execute("ALTER TABLE scenarios RENAME TO old_scenarios") tmp.create_table("scenarios", (("id", "text primary key"), ("host", "text"), ("device", "text"), ("kernel", "text"), ("dataset", "text"))) tmp.execute("INSERT INTO scenarios SELECT * FROM old_scenarios") tmp.drop_table("old_scenarios") tmp.commit() old_path = old.path tmp_path = tmp.path # Copy migrated database over the original one. fs.cp(tmp_path, old_path) fs.rm(tmp_path) old.close() tmp.close() io.info("Migration completed.")
def run_eval(db, dataset, eval_fn, eval_type="", nfolds=10): # Cross validation using both synthetic and real data. folds = dataset.folds(nfolds, seed=SEED) print() io.info("CROSS VALIDATION") io.info("Size of training set:", folds[0][0].num_instances) io.info("Size of testing set: ", folds[0][1].num_instances) for i,fold in enumerate(folds): training, testing = fold io.debug("Cross-validating", eval_type, "- fold", i + 1, "of", nfolds) eval_fn("xval", training, testing)
def table(rows, columns=None, output=None, data_args={}, **kwargs): """ Return a LaTeX formatted string of "list of list" table data. See: http://pandas.pydata.org/pandas-docs/dev/generated/pandas.DataFrame.html Requires the "booktabs" package to be included in LaTeX preamble: \\usepackage{booktabs} Examples: >>> fmt.print([("foo", 1), ("bar", 2)]) 0 1 0 foo 1 1 bar 2 >>> fmt.print([("foo", 1), ("bar", 2)], columns=("type", "value")) type value 0 foo 1 1 bar 2 Arguments: rows (list of list): Data to format, one row per element, multiple columns per row. columns (list of str, optional): Column names. output (str, optional): Path to output file. data_args (dict, optional): Any additional kwargs to pass to pandas.DataFrame constructor. **kwargs: Any additional arguments to pass to pandas.DataFrame.to_latex(). Returns: str: Formatted data as LaTeX table. Raises: Error: If number of columns (if provided) does not equal number of columns in rows; or if number of columns is not consistent across all rows. """ import pandas # Number of columns. num_columns = len(rows[0]) # Check that each row is the same length. for i,row in enumerate(rows[1:]): if len(row) != num_columns: raise Error("Number of columns in row {i_row} ({c_row}) " "does not match number of columns in row 0 ({z_row})" .format(i_row=i, c_row=len(row), z_row=num_columns)) # Check that (if supplied), number of columns matches number of # columns in rows. if columns is not None and len(columns) != num_columns: raise Error("Number of columns in header ({c_header}) does not " "match the number of columns in the data ({c_rows})" .format(c_header=len(columns), c_rows=num_columns)) # Default arguments. if "index" not in kwargs: kwargs["index"] = False data_args["columns"] = columns string = pandas.DataFrame(list(rows), **data_args).to_latex(**kwargs) if output is None: return string else: print(string, file=open(output, "w")) io.info("Wrote", output)
def test_info(self): out = StringIO() io.info("foo", file=out) self._test("INFO", re.search("INFO", out.getvalue()).group(0))
def migrate_0_to_1(old): """ SkelCL database migration script. Arguments: old (SkelCLDatabase): The database to migrate """ def get_source(checksum): query = old.execute("SELECT source FROM kernels WHERE checksum = ?", (checksum,)) return query.fetchone()[0] def get_device_attr(device_id, name, count): query = old.execute("SELECT * FROM devices WHERE name = ?", (name,)) attr = query.fetchone() # Splice into the new newattr = (device_id, attr[0], count) + attr[2:] return newattr def process_row(tmp, row): # Get column values from row. host = row[0] dev_name = row[1] dev_count = row[2] kern_checksum = row[3] north = row[4] south = row[5] east = row[6] west = row[7] data_width = row[8] data_height = row[9] max_wg_size = row[10] wg_c = row[11] wg_r = row[12] runtime = row[13] type_in = "float" type_out = "float" # Lookup source code. source = get_source(kern_checksum) user_source = get_user_source(source) kernel_id = hash_kernel(north, south, east, west, max_wg_size, source) device_id = hash_device(dev_name, dev_count) data_id = hash_data(data_width, data_height, type_in, type_out) scenario_id = hash_scenario(host, device_id, kernel_id, data_id) params_id = hash_workgroup_size(wg_c, wg_r) device_attr = get_device_attr(device_id, dev_name, dev_count) # Add database entries. tmp.execute("INSERT OR IGNORE INTO kernels VALUES (?,?,?,?,?,?,?)", (kernel_id, north, south, east, west, max_wg_size, user_source)) placeholders = ",".join(["?"] * len(device_attr)) tmp.execute("INSERT OR IGNORE INTO devices VALUES (" + placeholders + ")", device_attr) tmp.execute("INSERT OR IGNORE INTO data VALUES (?,?,?,?,?)", (data_id, data_width, data_height, type_in, type_out)) tmp.execute("INSERT OR IGNORE INTO params VALUES (?,?,?)", (params_id, wg_c, wg_r)) tmp.execute("INSERT OR IGNORE INTO scenarios VALUES (?,?,?,?,?)", (scenario_id, host, device_id, kernel_id, data_id)) tmp.execute("INSERT INTO runtimes VALUES (?,?,?)", (scenario_id, params_id, runtime)) # Create temporary database tmp = _db.Database("/tmp/omnitune.skelcl.migration.db") # Clear anything that's already in the database. for table in tmp.tables: tmp.drop_table(table) io.info("Migrating database to version 1.") backup_path = old.path + ".0" io.info("Creating backup of old database at '{0}'".format(backup_path)) fs.cp(old.path, backup_path) io.debug("Migration: creating tables ...") # Create table: kernels tmp.create_table("version", (("version", "integer"),)) # Set database version tmp.execute("INSERT INTO version VALUES (1)") # Create table: kernels tmp.create_table("kernels", (("id", "text primary key"), ("north", "integer"), ("south", "integer"), ("east", "integer"), ("west", "integer"), ("max_wg_size", "integer"), ("source", "text"))) # Create table: devices tmp.create_table("devices", (("id", "text primary key"), ("name", "text"), ("count", "integer"), ("address_bits", "integer"), ("double_fp_config", "integer"), ("endian_little", "integer"), ("execution_capabilities", "integer"), ("extensions", "text"), ("global_mem_cache_size", "integer"), ("global_mem_cache_type", "integer"), ("global_mem_cacheline_size", "integer"), ("global_mem_size", "integer"), ("host_unified_memory", "integer"), ("image2d_max_height", "integer"), ("image2d_max_width", "integer"), ("image3d_max_depth", "integer"), ("image3d_max_height", "integer"), ("image3d_max_width", "integer"), ("image_support", "integer"), ("local_mem_size", "integer"), ("local_mem_type", "integer"), ("max_clock_frequency", "integer"), ("max_compute_units", "integer"), ("max_constant_args", "integer"), ("max_constant_buffer_size", "integer"), ("max_mem_alloc_size", "integer"), ("max_parameter_size", "integer"), ("max_read_image_args", "integer"), ("max_samplers", "integer"), ("max_work_group_size", "integer"), ("max_work_item_dimensions", "integer"), ("max_work_item_sizes_0", "integer"), ("max_work_item_sizes_1", "integer"), ("max_work_item_sizes_2", "integer"), ("max_write_image_args", "integer"), ("mem_base_addr_align", "integer"), ("min_data_type_align_size", "integer"), ("native_vector_width_char", "integer"), ("native_vector_width_double", "integer"), ("native_vector_width_float", "integer"), ("native_vector_width_half", "integer"), ("native_vector_width_int", "integer"), ("native_vector_width_long", "integer"), ("native_vector_width_short", "integer"), ("preferred_vector_width_char", "integer"), ("preferred_vector_width_double", "integer"), ("preferred_vector_width_float", "integer"), ("preferred_vector_width_half", "integer"), ("preferred_vector_width_int", "integer"), ("preferred_vector_width_long", "integer"), ("preferred_vector_width_short", "integer"), ("queue_properties", "integer"), ("single_fp_config", "integer"), ("type", "integer"), ("vendor", "text"), ("vendor_id", "text"), ("version", "text"))) # Create table: data tmp.create_table("data", (("id", "text primary key"), ("width", "integer"), ("height", "integer"), ("tin", "text"), ("tout", "text"))) # Create table: params tmp.create_table("params", (("id", "text primary key"), ("wg_c", "integer"), ("wg_r", "integer"))) # Create table: scenarios tmp.create_table("scenarios", (("id", "text primary key"), ("host", "text"), ("device", "text"), ("kernel", "text"), ("data", "text"))) # Create table: runtimes tmp.create_table("runtimes", (("scenario", "text"), ("params", "text"), ("runtime", "real"))) i = 0 for row in old.execute("SELECT * from runtimes"): process_row(tmp, row) i += 1 if not i % 2500: io.debug("Processed", i, "rows ...") if not i % 5000: tmp.commit() tmp.commit() old_path = old.path tmp_path = tmp.path # Copy migrated database over the original one. fs.cp(tmp_path, old_path) fs.rm(tmp_path) old.close() tmp.close() io.info("Migration completed.")
def migrate_2_to_3(old): """ SkelCL database migration script. Arguments: old (SkelCLDatabase): The database to migrate """ def _old_kernel2new(old_id): kernel = old.execute("SELECT north,south,east,west,max_wg_size,source " "FROM kernels WHERE id=?", (old_id,)).fetchone() if kernel: return tmp.kernel_id(*kernel) def _old_scenario2new(old_id): device, old_kernel, dataset = old.execute("SELECT device,kernel,dataset " "FROM scenarios WHERE id=?", (old_id,)).fetchone() kernel = _old_kernel2new(old_kernel) return tmp.scenario_id(device, kernel, dataset) # TODO: Un-comment out code! # Create temporary database fs.rm("/tmp/omnitune.skelcl.migration.db") tmp = _db.Database("/tmp/omnitune.skelcl.migration.db") tmp.attach(old.path, "rhs") io.info("Migrating database to version 3.") backup_path = old.path + ".2" io.info("Creating backup of old database at '{0}'".format(backup_path)) fs.cp(old.path, backup_path) tmp_path = tmp.path old_path = old.path tmp.run("create_tables") # Populate feature and lookup tables. for row in old.execute("SELECT * FROM devices"): features = row[1:] id = hash_device(*features) io.debug("Features extracted for device", id) row = (id,) + features tmp.execute("INSERT INTO devices VALUES " + placeholders(*row), row) row = (features[0], features[1], id) tmp.execute("INSERT INTO device_lookup VALUES " + placeholders(*row), row) tmp.commit() for row in old.execute("SELECT * FROM kernels"): args = row[1:] tmp.kernel_id(*args) for row in old.execute("SELECT * FROM datasets"): features = row[1:] id = hash_dataset(*features) io.debug("Features extracted for dataset", id) row = (id,) + features tmp.execute("INSERT INTO datasets VALUES " + placeholders(*row), row) row = features + (id,) tmp.execute("INSERT INTO dataset_lookup VALUES " + placeholders(*row), row) tmp.commit() # Populate kernel_names table. for row in old.execute("SELECT * FROM kernel_names"): old_id = row[0] synthetic, name = row[1:] kernel = _old_kernel2new(old_id) if kernel: row = (kernel, synthetic, name) tmp.execute("INSERT OR IGNORE INTO kernel_names VALUES " + placeholders(*row), row) tmp.commit() # Populate scenarios table. for row in old.execute("SELECT * FROM scenarios"): old_id, _, device, old_kernel, dataset = row kernel = _old_kernel2new(old_kernel) new_id = hash_scenario(device, kernel, dataset) row = (new_id, device, kernel, dataset) tmp.execute("INSERT OR IGNORE INTO scenarios VALUES " + placeholders(*row), row) tmp.commit() # Populate params table. tmp.execute("INSERT INTO params SELECT * from rhs.params") tmp.commit() scenario_replacements = { row[0]: _old_scenario2new(row[0]) for row in old.execute("SELECT * FROM scenarios") } tmp.execute("INSERT INTO runtimes SELECT * from rhs.runtimes") for old_id, new_id in scenario_replacements.iteritems(): io.info("Runtimes", old_id, "->", new_id) tmp.execute("UPDATE runtimes SET scenario=? WHERE scenario=?", (new_id, old_id)) tmp.commit() # Sanity checks bad = False for row in tmp.execute("SELECT DISTINCT scenario FROM runtimes"): count = tmp.execute("SELECT Count(*) FROM scenarios WHERE id=?", (row[0],)).fetchone()[0] if count != 1: io.error("Bad scenario count:", row[0], count) bad = True if bad: io.fatal("Failed sanity check, aborting.") else: io.info("Passed sanity check.") # Copy migrated database over the original one. fs.cp(tmp_path, old_path) fs.rm(tmp_path) old.close() tmp.close() io.info("Migration completed.")
def test_info(): out = StringIO() io.info("foo", file=out) assert "INFO" == re.search("INFO", out.getvalue()).group(0)
def migrate_0_to_1(old): """ SkelCL database migration script. Arguments: old (SkelCLDatabase): The database to migrate """ def get_source(checksum): query = old.execute("SELECT source FROM kernels WHERE checksum = ?", (checksum,)) return query.fetchone()[0] def get_device_attr(device_id, name, count): query = old.execute("SELECT * FROM devices WHERE name = ?", (name,)) attr = query.fetchone() # Splice into the new newattr = (device_id, attr[0], count) + attr[2:] return newattr def process_row(tmp, row): # Get column values from row. host = row[0] dev_name = row[1] dev_count = row[2] kern_checksum = row[3] north = row[4] south = row[5] east = row[6] west = row[7] data_width = row[8] data_height = row[9] max_wg_size = row[10] wg_c = row[11] wg_r = row[12] runtime = row[13] type_in = "float" type_out = "float" # Lookup source code. source = get_source(kern_checksum) user_source = get_user_source(source) kernel_id = hash_kernel(north, south, east, west, max_wg_size, source) device_id = hash_device(dev_name, dev_count) data_id = hash_data(data_width, data_height, type_in, type_out) scenario_id = hash_scenario(host, device_id, kernel_id, data_id) params_id = hash_workgroup_size(wg_c, wg_r) device_attr = get_device_attr(device_id, dev_name, dev_count) # Add database entries. tmp.execute("INSERT OR IGNORE INTO kernels VALUES (?,?,?,?,?,?,?)", (kernel_id,north,south,east,west,max_wg_size,user_source)) placeholders = ",".join(["?"] * len(device_attr)) tmp.execute("INSERT OR IGNORE INTO devices VALUES (" + placeholders + ")", device_attr) tmp.execute("INSERT OR IGNORE INTO data VALUES (?,?,?,?,?)", (data_id, data_width, data_height, type_in, type_out)) tmp.execute("INSERT OR IGNORE INTO params VALUES (?,?,?)", (params_id, wg_c, wg_r)) tmp.execute("INSERT OR IGNORE INTO scenarios VALUES (?,?,?,?,?)", (scenario_id, host, device_id, kernel_id, data_id)) tmp.execute("INSERT INTO runtimes VALUES (?,?,?)", (scenario_id, params_id, runtime)) # Create temporary database tmp = _db.Database("/tmp/omnitune.skelcl.migration.db") # Clear anything that's already in the database. for table in tmp.tables: tmp.drop_table(table) io.info("Migrating database to version 1.") backup_path = old.path + ".0" io.info("Creating backup of old database at '{0}'".format(backup_path)) fs.cp(old.path, backup_path) io.debug("Migration: creating tables ...") # Create table: kernels tmp.create_table("version", (("version", "integer"),)) # Set database version tmp.execute("INSERT INTO version VALUES (1)") # Create table: kernels tmp.create_table("kernels", (("id", "text primary key"), ("north", "integer"), ("south", "integer"), ("east", "integer"), ("west", "integer"), ("max_wg_size", "integer"), ("source", "text"))) # Create table: devices tmp.create_table("devices", (("id", "text primary key"), ("name", "text"), ("count", "integer"), ("address_bits", "integer"), ("double_fp_config", "integer"), ("endian_little", "integer"), ("execution_capabilities", "integer"), ("extensions", "text"), ("global_mem_cache_size", "integer"), ("global_mem_cache_type", "integer"), ("global_mem_cacheline_size", "integer"), ("global_mem_size", "integer"), ("host_unified_memory", "integer"), ("image2d_max_height", "integer"), ("image2d_max_width", "integer"), ("image3d_max_depth", "integer"), ("image3d_max_height", "integer"), ("image3d_max_width", "integer"), ("image_support", "integer"), ("local_mem_size", "integer"), ("local_mem_type", "integer"), ("max_clock_frequency", "integer"), ("max_compute_units", "integer"), ("max_constant_args", "integer"), ("max_constant_buffer_size", "integer"), ("max_mem_alloc_size", "integer"), ("max_parameter_size", "integer"), ("max_read_image_args", "integer"), ("max_samplers", "integer"), ("max_work_group_size", "integer"), ("max_work_item_dimensions", "integer"), ("max_work_item_sizes_0", "integer"), ("max_work_item_sizes_1", "integer"), ("max_work_item_sizes_2", "integer"), ("max_write_image_args", "integer"), ("mem_base_addr_align", "integer"), ("min_data_type_align_size", "integer"), ("native_vector_width_char", "integer"), ("native_vector_width_double", "integer"), ("native_vector_width_float", "integer"), ("native_vector_width_half", "integer"), ("native_vector_width_int", "integer"), ("native_vector_width_long", "integer"), ("native_vector_width_short", "integer"), ("preferred_vector_width_char", "integer"), ("preferred_vector_width_double", "integer"), ("preferred_vector_width_float", "integer"), ("preferred_vector_width_half", "integer"), ("preferred_vector_width_int", "integer"), ("preferred_vector_width_long", "integer"), ("preferred_vector_width_short", "integer"), ("queue_properties", "integer"), ("single_fp_config", "integer"), ("type", "integer"), ("vendor", "text"), ("vendor_id", "text"), ("version", "text"))) # Create table: data tmp.create_table("data", (("id", "text primary key"), ("width", "integer"), ("height", "integer"), ("tin", "text"), ("tout", "text"))) # Create table: params tmp.create_table("params", (("id", "text primary key"), ("wg_c", "integer"), ("wg_r", "integer"))) # Create table: scenarios tmp.create_table("scenarios", (("id", "text primary key"), ("host", "text"), ("device", "text"), ("kernel", "text"), ("data", "text"))) # Create table: runtimes tmp.create_table("runtimes", (("scenario", "text"), ("params", "text"), ("runtime", "real"))) i = 0 for row in old.execute("SELECT * from runtimes"): process_row(tmp, row) i += 1 if not i % 2500: io.debug("Processed", i, "rows ...") if not i % 5000: tmp.commit() tmp.commit() old_path = old.path tmp_path = tmp.path # Copy migrated database over the original one. fs.cp(tmp_path, old_path) fs.rm(tmp_path) old.close() tmp.close() io.info("Migration completed.")