|
361 | 361 | "cell_type": "markdown", |
362 | 362 | "metadata": {}, |
363 | 363 | "source": [ |
364 | | - "You can also get float or int values, for example, to get polulations in millions:" |
| 364 | + "You can also get float or int values, for example, to get populations in millions:" |
365 | 365 | ] |
366 | 366 | }, |
367 | 367 | { |
|
400 | 400 | " <tr style=\"text-align: right;\">\n", |
401 | 401 | " <th></th>\n", |
402 | 402 | " <th>city</th>\n", |
403 | | - " <th>polulation_million</th>\n", |
| 403 | + " <th>population_in_millions</th>\n", |
404 | 404 | " </tr>\n", |
405 | 405 | " </thead>\n", |
406 | 406 | " <tbody>\n", |
|
425 | 425 | "</div>[3 rows x 2 columns in total]" |
426 | 426 | ], |
427 | 427 | "text/plain": [ |
428 | | - " city polulation_million\n", |
| 428 | + " city population_in_millions\n", |
429 | 429 | "0 Seattle 0.75\n", |
430 | 430 | "1 New York 19.68\n", |
431 | 431 | "2 Shanghai 26.32\n", |
|
439 | 439 | } |
440 | 440 | ], |
441 | 441 | "source": [ |
442 | | - "result = gemini.predict(df, prompt=[\"what is the population in millions of\", df[\"city\"]], output_schema={\"polulation_million\": \"float64\"})\n", |
443 | | - "result[[\"city\", \"polulation_million\"]]" |
| 442 | + "result = gemini.predict(df, prompt=[\"what is the population in millions of\", df[\"city\"]], output_schema={\"population_in_millions\": \"float64\"})\n", |
| 443 | + "result[[\"city\", \"population_in_millions\"]]" |
444 | 444 | ] |
445 | 445 | }, |
446 | 446 | { |
|
576 | 576 | " <th></th>\n", |
577 | 577 | " <th>city</th>\n", |
578 | 578 | " <th>is_US_city</th>\n", |
579 | | - " <th>polulation_in_millions</th>\n", |
| 579 | + " <th>population_in_millions</th>\n", |
580 | 580 | " <th>rainy_days_per_year</th>\n", |
581 | 581 | " </tr>\n", |
582 | 582 | " </thead>\n", |
|
608 | 608 | "</div>[3 rows x 4 columns in total]" |
609 | 609 | ], |
610 | 610 | "text/plain": [ |
611 | | - " city is_US_city polulation_in_millions rainy_days_per_year\n", |
| 611 | + " city is_US_city population_in_millions rainy_days_per_year\n", |
612 | 612 | "0 Seattle True 0.75 152\n", |
613 | 613 | "1 New York True 8.8 121\n", |
614 | 614 | "2 Shanghai False 26.32 115\n", |
|
622 | 622 | } |
623 | 623 | ], |
624 | 624 | "source": [ |
625 | | - "result = gemini.predict(df, prompt=[df[\"city\"]], output_schema={\"is_US_city\": \"bool\", \"polulation_in_millions\": \"float64\", \"rainy_days_per_year\": \"int64\"})\n", |
626 | | - "result[[\"city\", \"is_US_city\", \"polulation_in_millions\", \"rainy_days_per_year\"]]" |
| 625 | + "result = gemini.predict(df, prompt=[df[\"city\"]], output_schema={\"is_US_city\": \"bool\", \"population_in_millions\": \"float64\", \"rainy_days_per_year\": \"int64\"})\n", |
| 626 | + "result[[\"city\", \"is_US_city\", \"population_in_millions\", \"rainy_days_per_year\"]]" |
627 | 627 | ] |
628 | 628 | }, |
629 | 629 | { |
|
677 | 677 | " <th></th>\n", |
678 | 678 | " <th>city</th>\n", |
679 | 679 | " <th>is_US_city</th>\n", |
680 | | - " <th>polulation_in_millions</th>\n", |
| 680 | + " <th>population_in_millions</th>\n", |
681 | 681 | " <th>rainy_days_per_year</th>\n", |
682 | 682 | " <th>places_to_visit</th>\n", |
683 | 683 | " <th>gps_coordinates</th>\n", |
|
717 | 717 | "</div>[3 rows x 6 columns in total]" |
718 | 718 | ], |
719 | 719 | "text/plain": [ |
720 | | - " city is_US_city polulation_in_millions rainy_days_per_year \\\n", |
| 720 | + " city is_US_city population_in_millions rainy_days_per_year \\\n", |
721 | 721 | "0 Seattle True 0.74 150 \n", |
722 | 722 | "1 New York True 8.4 121 \n", |
723 | 723 | "2 Shanghai False 26.32 115 \n", |
|
741 | 741 | } |
742 | 742 | ], |
743 | 743 | "source": [ |
744 | | - "result = gemini.predict(df, prompt=[df[\"city\"]], output_schema={\"is_US_city\": \"bool\", \"polulation_in_millions\": \"float64\", \"rainy_days_per_year\": \"int64\", \"places_to_visit\": \"array<string>\", \"gps_coordinates\": \"struct<latitude float64, longitude float64>\"})\n", |
745 | | - "result[[\"city\", \"is_US_city\", \"polulation_in_millions\", \"rainy_days_per_year\", \"places_to_visit\", \"gps_coordinates\"]]" |
| 744 | + "result = gemini.predict(df, prompt=[df[\"city\"]], output_schema={\"is_US_city\": \"bool\", \"population_in_millions\": \"float64\", \"rainy_days_per_year\": \"int64\", \"places_to_visit\": \"array<string>\", \"gps_coordinates\": \"struct<latitude float64, longitude float64>\"})\n", |
| 745 | + "result[[\"city\", \"is_US_city\", \"population_in_millions\", \"rainy_days_per_year\", \"places_to_visit\", \"gps_coordinates\"]]" |
746 | 746 | ] |
747 | 747 | } |
748 | 748 | ], |
|
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