Write a function scheduleSalon that takes clientIds, treatments, durations, and availabilityGrid and returns a 2D string array representing the salon's appointment schedule.
The function creates an optimized appointment schedule by mapping clients to available time slots based on their treatment requirements and salon availability.
Logic:
- Use hashing techniques to create quick lookups between client IDs and their treatment information
- Apply arithmetic operations to calculate which time slots each treatment will occupy based on duration
- Process the 2D availability grid to find suitable slots and assign appointments
- Generate a schedule where each occupied slot shows "clientID:treatment" format
Parameters:
- clientIds (int[]): Array of unique client identification numbers
- treatments (String[]): Array of treatment types corresponding to each client
- durations (int[]): Array of treatment durations in time slots for each client
- availabilityGrid (int[][]): 2D grid where 1 indicates available slot, 0 indicates unavailable
Returns: 2D string array representing the appointment schedule. Format: [["101:Haircut", "", "102:Color"], ["", "102:Color", "103:Perm"]]
Create a function named drillArtesianWell that receives earthLayers, initialSkill, and targetDepth as its parameters.
Jason, a novice in Artesian well-drilling, is on a journey to master this art. Your task is to simulate his drilling experience, taking into account his improving skills and occasional moments of self-doubt.
The function should simulate Jason's drilling process through various earth layers, each with its own hardness level. As Jason drills deeper, his skill improves, but he may encounter challenges that make him waver in his confidence. The simulation continues until Jason reaches the target depth, gives up due to low confidence, or drills through all available layers.
Parameters:
- earthLayers (int[]): An array of integers representing the hardness of each earth layer (values range from 1 to 10, where 10 is the hardest).
- initialSkill (int): An integer representing Jason's initial skill level (values range from 1 to 10).
- targetDepth (int): An integer representing the depth Jason needs to reach.
The function should implement the following logic:
- Start drilling from the surface (index 0 of the earthLayers array).
- For each layer, compare Jason's current skill level to the layer's hardness:
- If his skill is higher, he drills through successfully and his skill increases by 1 (maximum 10).
- If his skill is equal, he drills through but his skill doesn't change.
- If his skill is lower, he struggles and has a chance to waver in his confidence.
- When Jason wavers, generate a "perseverance" value:
- If perseverance is high enough, he continues drilling but his skill doesn't increase.
- If perseverance is too low, he stops drilling at that depth.
- The drilling stops when Jason reaches the target depth, gives up, or reaches the end of the array.
To calculate the perseverance value when Jason wavers, use the following formula: int perseverance = (currentDepth * currentSkill) % 10 + 1;
Jason continues drilling if the perseverance value is greater than the difference between the layer's hardness and Jason's current skill.
The function returns an integer array with three elements:
- The depth Jason managed to drill
- Jason's final skill level
- The number of times Jason wavered in his confidence
Write a function updateFruitStand that takes inventory (a 2D array of fruit data) and soldFruits (array of sold fruit names) and returns the updated inventory with new stock levels and total revenue.
The function processes sales by reducing stock for each sold fruit and calculating the total revenue from all sales.
Parameters:
- inventory (String[][]): 2D array where each row contains [fruitName, stock, price]
- soldFruits (String[]): Array of fruit names that were sold Returns: String array with updated inventory and total revenue. Format: ["Apple,4,2.50", "Banana,8,1.20", "Orange,5,3.00", "Total Revenue: 15.40"]
Create a function named analyzeTerrainMap that receives elevationMap and heightDifference as its parameters.
You are a geologist studying rock formations in a mountainous region. Your task is to analyze the terrain using advanced mapping techniques.
The function should perform the following analysis on the elevation map:
- Identify peaks and valleys based on the given height difference
- Calculate the average elevation of the entire region
- Find the highest peak and lowest valley
- Determine the number of peaks and valleys
A point is considered a peak if it's higher than all its adjacent points (up, down, left, right) by at least the heightDifference. Similarly, a point is a valley if it's lower than all adjacent points by at least the heightDifference.
Parameters:
- elevationMap (int[][]): A 2D array representing the elevation of each point in the region.
- heightDifference (int): The minimum height difference to consider a point as a peak or valley.
The function returns a formatted string containing the analysis report with the following information:
- Number of peaks and valleys
- Average elevation (rounded to 2 decimal places)
- Coordinates and elevation of the highest peak
- Coordinates and elevation of the lowest valley
Use the following format for the report: "Peaks: %d, Valleys: %d\nAvg Elevation: %.2f\nHighest Peak: (%d,%d) at %d\nLowest Valley: (%d,%d) at %d"
Create a function named processUnsignedCheck that receives checkAmount, checkDimensions, checkAge, geometricShapes, and foldCount as its parameters.
The function simulates a complex financial calculation system for an old-fashioned bank, processing unsigned checks and performing various geometric and arithmetic operations to determine the final value and validity of each check.
Implement the following calculations and validations:
- Convert the check amount to a fraction and multiply it by (checkAge + 1) / checkAge.
- Calculate the surface area and volume of the check using the given dimensions.
- Apply a 2% increase to the check value for each fold.
- Calculate the areas of the geometric shapes drawn on the check and use them to adjust the check value. For simplicity, assume: Triangle area = 0.5 * base * height (use 10 for base and height) Circle area = π * r^2 (use 5 for radius) Square area = side^2 (use 10 for side length)
- Add the total area of shapes to the check value.
- Raise the check value to the power of the number of shapes, then take the nth root where n is the number of folds.
- Implement a validation algorithm: the check is valid if the product of its dimensions is greater than 1,000,000 and the number of shapes is less than 5.
- Format the final adjusted value as a percentage of the original value.
Parameters:
- checkAmount (String): The original amount on the check (e.g., "1234.56").
- checkDimensions (int[]): An array containing the length, width, and height of the check in millimeters.
- checkAge (float): The age of the check in years.
- geometricShapes (String[]): An array of strings representing geometric shapes drawn on the check (e.g., ["triangle", "circle", "square"]).
- foldCount (int): The number of folds in the check.
The function returns a string containing the adjusted check value, validity status, and geometric properties in the following format:
- "Adjusted Value: X%, Valid: true/false, Surface Area: Y mm², Volume: Z mm³"
- Where X is the adjusted value as a percentage of the original (rounded to 2 decimal places), Y is the surface area (rounded to 2 decimal places), and Z is the volume (rounded to 2 decimal places).
Create a function named planRoadTrip that receives towns, attractions, familyPreferences, maxDays, and maxTowns as its parameters.
The Smith family is embarking on an adventure-filled road trip across the countryside in their old wagon. Your task is to help them plan the optimal itinerary using advanced set theory and complex looping structures.
The function should plan and analyze the family's journey through various towns and attractions, using sets to represent different aspects of the trip and loops to process and manipulate this data. The goal is to create an itinerary that maximizes the family's preferences while adhering to the given constraints.
Follow these steps to solve the challenge:
- Generate the power set of towns to consider all possible combinations of towns to visit.
- Use set operations to find the intersection between available attractions and family preferences.
- Implement nested loops to iterate through the power set of towns and calculate the optimal route based on maximizing matched preferences and minimizing travel time.
- Use recursion to generate all possible permutations of the selected towns to find the most efficient route.
- Implement a scoring system using set cardinality and custom weighting to rank different itineraries.
- Use loop control statements to optimize the search process and prune unnecessary iterations.
Parameters:
- towns (String[]): An array of town names the family might visit.
- attractions (String[]): An array of attractions available across all towns.
- familyPreferences (String[]): An array of the family's preferred activities or attractions.
- maxDays (int): The maximum number of days for the trip.
- maxTowns (int): The maximum number of towns to visit.
The function returns a String[] representing the optimal road trip itinerary. Each element in the array should be a String in the format "Day X: Town - Attraction", where X is the day number, Town is the name of the town visited, and Attraction is the attraction visited in that town.
Constraints: 1 ≤ towns.length ≤ 10 1 ≤ attractions.length ≤ 20 1 ≤ familyPreferences.length ≤ attractions.length 1 ≤ maxDays ≤ 14 1 ≤ maxTowns ≤ towns.length
Note: Ensure your solution is efficient and can handle the maximum constraints. The use of advanced set theory concepts and complex looping structures will be essential to creating an efficient and effective solution.
Create a function named optimizeSeating that receives int[][] roomLayout and String[] familyMembers as its parameters.
Your task is to create an optimal seating arrangement for a family holiday gathering. The challenge is to maximize seating efficiency, promote conversation, and consider family dynamics, all while working with a complex room layout.
The function should analyze the room layout, determine the best seating arrangement, and place family members accordingly. Your solution should utilize advanced array operations and geometric concepts to solve this real-world problem.
Parameters:
- roomLayout (int[][]): A 2D array representing the dining room. In this array:
- 0 represents empty space
- 1 represents a table section
- -1 represents obstacles or walls
- familyMembers (String[]): An array of strings containing the names of the relatives attending the gathering. The array will contain between 10 and 20 names.
The function should return a 2D string array representing the optimized seating arrangement, with family members' names placed in their assigned seats. Empty seats should be represented by empty strings.
Your solution should consider the following factors:
- Maximize the number of people seated at the table.
- Ensure that no two people are seated directly across from each other to promote conversation.
- Try to seat immediate family members (parents, siblings) closer together. You can assume that family members with the same last name are closely related.
- Distribute "conversation starters" (assume the first 3 names in the familyMembers array are extroverts) evenly around the table.
- Account for any special seating requirements (e.g., place the last 2 names in the familyMembers array in comfortable spots, assuming they are elderly).
Implement your solution using the following techniques:
- Use advanced array operations such as map, filter, and reduce to process family member data and seating preferences.
- Apply slice and splice to modify the seating arrangement as needed.
- Utilize concat to combine different sections of the table if necessary.
- Apply geometric concepts to:
- Calculate distances between seats to optimize conversation potential.
- Determine the shape of the table from the 2D array input.
- Apply transformations to the seating arrangement to improve overall satisfaction.
Note: Ensure your solution is efficient and well-structured, ideally between 50 and 99 lines of code.
Write a function organizeBookSale that takes genres, maxBooksPerTable and returns a string array of table assignments.
The function processes book genres to organize tables at a neighborhood book sale, assigning detective novels to the "Mystery" table and other genres to "General" tables.
Logic:
- Loop through the genres array
- Use logical operators to check if genre contains "Detective" or "Mystery" - assign to "Mystery" table
- Use continue to skip processing when a table reaches maximum capacity
- Use break to stop processing once all books are assigned or maximum tables are filled
- Other genres go to numbered "General" tables
Parameters:
- genres (String[]): Array of book genres to organize
- maxBooksPerTable (int): Maximum books allowed per table
Returns: String array of table assignments for each book. Format: ["Mystery", "General-1", "Mystery", "General-2"]
Create a function named examineAntiques that receives objects and rotations as its parameters.
The function simulates a curious collector examining antique pewter objects on a rotating display in a museum. The collector will examine the objects over several rotation cycles, reversing the display each time and potentially removing objects for closer inspection.
Parameters:
- objects (String[]): An array of strings representing the names of pewter objects on the display.
- rotations (int): The number of rotation cycles to perform. The function should perform the following operations:
For each rotation cycle (up to rotations or until objects is empty):
- Reverse the entire objects array.
- Examine each object in the current order:
- If the object name length is greater than 5, add it to a result array.
- If the object name contains the word "rare", immediately end the current rotation cycle (use break).
- If the object name starts with a vowel (a, e, i, o, u), skip it and move to the next object (use continue).
- After each full rotation, remove the last object from the objects array.
The function returns a String[] containing the names of the objects that the collector decided to examine more closely (added to the result array during the process).
**Write a function catalogMedicalBooks that takes catalogEntries and returns a formatted status report for the medical research library.
The function processes catalog entries to determine book availability and categorizes medical literature types based on title keywords.
Logic:
- Parse each entry to extract title, author, and checkout status
- Categorize books: "Surgery" (contains "surgical" or "surgery"), "Research" (contains "research" or "methodology"), "General" (all others)
- Determine availability: "Available" if checkout status is "IN", "Checked Out" if "OUT"
Format each book as: "[Category] - [Title] by [Author]: [Status]"
Parameters:
- catalogEntries (String[]): Array of catalog entries in format "Title|Author|Status"
Returns: String with formatted catalog report, each book on a new line. Format: Surgery - Advanced Surgical Techniques by Dr. Smith: Available Research - Clinical Research Methods by Dr. Johnson: Checked Out General - Medical Ethics by Dr. Brown: Available**
- countWildFlowers - loops
- candlelitCountdownPrayer - conditionals
- swapFirstandLastCharacters - string manipulation
- isJailNumber - loops and arithmetic
- simulateSkiPath - arrays
- craftGlimmeringStone - arrays and arithmetic
- isBacterialCode - string manipulation
- aquariumCodeTranslator - string manipulation
- organizeHerbInventory - string manipulation
- conductExperiment - arrays
- stormImpact - arrays
- drawCharacterHead - arrays
- countStars - string manipulation
- debateScorer - arrays
- generateRehearsalSchedule - arrays and loops and conditionals
- reverseArrayExceptMultiplesOfFive - arrays and loops
- slideDown - stringbuilder
- mixPirateBitters - hashset and stringbuilder
- createFlavorMatrix - 2d array
- transformStrings - stringbuilder
- analyzeMineral - arrays
- createRanchSchedule - lists and stringbuilder
- calculateBanquetBudget - conditionals
- preparePicnicBasket - arrays
- reverseChemicalSequence - arrays
- organizeHillsideHouses - arrays and lists and conditionals
- adjustGreenhouseTemperatures - arrays and conditionals
- calculateSchedule - conditional-switch
- mergeDroplets - arraylist
- packCampingContainers - arraylist
- organizeLabCompartments - stringbuilder
- reverseAndCompare - arrays
- reverseElement - stringbuilder
- examineCurio - stringbuilder and sets
- reverseSoupIngredients - arrays
- waterRarePlants - arrays and loops and conditionals
- findTreasure - arrays and loops and conditionals
- findQuietestShelf - conditionals
- simulatePufferfishInflation - stringbuilder
- countStarsInForest - arrays and conditionals
- morningGardenWalk - loops
- countSpecialWaypoints - loops
- tenseBillingConversation - conditionals
- getItemsToPack - lists and conditionals
- checkPicnicBasket - conditionals
- quiltPatchCounter - conditionals
- adjustMultivibratorFrequency - arrays
- gardenPestRemoval - conditionals
- findShellNumbers - lists
- decodeMessage - strings
- identifySeeds - conditionals
- sellExoticPlants - conditionals
- simulateTheologicalDebate - loops and conditionals
- tendToPlants - arrays
- createCheckersBoard - 2d arrays
- reverseTeaArray - arrays
- radiotherapistMutter - stream
- forestHikePathTracker - loops
- findQuietestSpot - conditionals
- divideSandwiches - conditionals
- prepareEquipment - arrays and arraylists
- picnicBasketSorter - arrays
- reverseString - strings
- countBirdTypes - arrays
- calculateDocumentPages - loops and conditionals
- catalogSculptures - arrays
- countPicnicBaskets - conditionals
- analyzeAcornCollection - hashmap
- discussRabbetTechnique - arrays
- countDataInMaze - loops and conditionals
- generateSleepySalesPitch - stringbuilder
- isHarmonyNumber - arrays and loops
- arrangeBotanicalSpecimens - arrays and strings
- mountainTrailAscent - loops and arrays
- calculateTacoOrder - decimalformat
- calculateHarvest - primitives
- generateFortressCode - stringbuilder
- dreamFestivalSorter - arrays
- analyzeSpecimens - arrays
- sortPicnicItems - arrays
- prepareCakeOrder - arrays and arraylists
- parkPlaytime - stringbuilder
- analyzePlantGrowth - arrays and conditionsla
- updateFishPrices - arrays and conditionals
- categorizeCreature - stream and collections
- determineWaterBottleType - conditionals
- findPicnicSpot - conditionals
- createTeaPartyInvitation - Lists and arraylist and stringbuilder
- createFlowerGarland - stringbuilder
- copyMachineGlitch - array and arraylist
- rearrangeSeating - loops
- organizeCustomerQueue - arrays and comparator
- analyzePlantDNA - stringbuilder
- analyzeSpecimen - conditionals
- shepherdCall - stream
- analyzeCrystals - conditionals
- countFlowersAndPainLevel - arrays
- decodeHeistMessage - stringbuilder
- generateBowlingMessage - conditionals
- realignEquipment - 2d arrays
- feedDucks - primitive variables
- decipherAncientMessage - string manipulation
- analyzeInsectCode - stringbuilder
- decodeArtifactLabels - sets
- decodeThiefMessage - stringbuilder
- courtDebateIntensity - loops
- createTrailMessage - stringbuilder
- maxFillingsPerPerson - loops
- harvestCotton - array matrix
- isLuckyYear - exception handling
- countCircularObjects - conditionals
- reversePathSections - stringbuilder
- calculateMineralEssence - binary conversion
- mistForestRunners - loops and arrays
- countSeashells - loops
- countCraters - loops
- ancientNumeralConverter - arrays and collections
- countSheep - loops
- calculatePicnicSupplies - strings
- duckPondVisit - loops and arraylist
- ancientGatewayCode - loops and arrays
- findShortestQueue - arrays
- createSetlist - Arraylist and hashmap
- calculateDebateScore - strings
- protectSandcastles - loops
- convertToBinaryCountOnes - Stringbuilder
- findTreeInPark - loops
- colcannonCalculator - arrays and loops and Stringbuilder
- reverseScaleAndCheckPalindrome - arrays and loops
- haveEnoughSandwiches - loops
- navigateTerrain - loops
- reverseSelectedTents - arraylist
- findHiddenTreasure - arrays
- countSteps - arrays and loops
- findCommonWords - hashset
- prepareSupplyPackages - arrays
- isPackedSafely - arrays and conditionals
- tuneInstruments - arrays and conditionals
- findInsect - arraylist
- upgradeCartWheel - arrays
- decipherText - string manipulation
- vampireBatCode - hashmaps
- selectChalcedonyGemstones - lists and arraylists
- organizeFlowerCollection - sets
- analyzeDefoliation - arraylist and lists
- findTool - arrays
- prepareCheckroll - classes and hashmaps
- bazaarInventory - matrix and hashtable
- createFieldNotes - arrays and stringbuilder
- findMisplacedItems - arrays and arraylists
- analyzePlantSpecimens - arrays
- vampireNightOut - map and hashmap
- extractJournalInfo - list and arraylist
- assignWorkshopStorage - arrays
- conductSolubilityExperiment - arrays
- exploreApothecaryShop - arraylist
- calculateCabinRenovation - array
- analyzeBirdWatchingExperience - map and hashmap
- formatHarvestDistribution - Stringbuilder
- natureWalkRecorder - linkedlist
- organizeHealthPosts - arrays and lists
- organizeOfficeSupplies - arrays and loops
- analyzeColumnistStyle - sets
- rearrangeDisplay - arrays
- manageAntiques - maps and lists
- mirrorNeurons - 2D arrays
- analyzeVetClinicArgument - hashmap
- formatAnimalDescriptions - arrays
- analyzeWildflowerHeights - arrays
- plumpCushions - arrays
- simulateGrowth - arrays
- organizeWorkshopInventory - nodes
- classifyHandBones - hashmaps
- analyzeCranberrySap - arrays
- categorizeSpecimens - arraylist
- summarizeFuelTransactions - lists and collections
- generateFestivalSeating - 2d arrays
- manageReservations - lists
- processRenovationTasks - stringbuilder
- countRarePlants - arrays
- mergeInventories - array lists
- geothermalDescent - arrays
- picnicBlanketPattern - 2d arrays
- generateExhibitLabels - 2d arrays
- mergeInventories - arraylist
- manageCoffeeShopOrders - arraylist
- simulateFibonacciInNature - arrays
- modifySpeech - arrays
- yogaSessionAnalyzer - stringbuilder
- organizeFairLayout - lists and 2d arrays
- generateComplianceReport - lists and sets
- documentMedicalProcedure - arrays
- geometricOdyssey - Arrays
- hillsidePicnic - arraylist
- exploreHabitat - stringbuilder
- createJournalEntry - conditionals
- analyzeEventImpact - streams
- processWeatherData - stringbuilder ascii
- organizeFiles - lists
- culturalFestivalAnalyzer - arrays
- analyzeJungleEcology - arrays
- organizeFestivalProduce - arraylist
- analyzePeatBogLayers - sets and maps
- organizeEquipment - maps
- illuminateStreet - ArrayList