AutoCAD Quiz: Tables
10 questions · exam conditions
0:00
TablesQuestion 1 of 10

A long parts schedule must continue to the right in several sections so that it fits on a plotted sheet. The sections must remain associated, and each section should repeat the table's top labels.

Which table feature should be configured?

Merge the data rows by section and enable multiline text within each resulting merged cell.
Explode the schedule, move groups of rows, and copy the heading text above each group.
Create independent copies of the table and erase different rows from each copied table.
Enable table breaks and configure the break settings to repeat the top labels.
← Back to quizzes

AutoCAD Quiz

AutoCAD Quiz: Tables

Practice Tables in AutoCAD with focused quiz questions that help you check what you know, review explanations, and build confidence with test-style prompts.

What this quiz covers

This quiz focuses on Tables, giving you a quick way to practice the rules, question types, and explanations that matter most for AutoCAD.

How to use this quiz

Try each quiz question before looking at the correct answer. Use the explanations to review missed ideas, then come back to similar questions until the pattern feels familiar.

All questions

Question 1

A long parts schedule must continue to the right in several sections so that it fits on a plotted sheet. The sections must remain associated, and each section should repeat the table's top labels.

Which table feature should be configured?

  1. Merge the data rows by section and enable multiline text within each resulting merged cell.
  2. Explode the schedule, move groups of rows, and copy the heading text above each group.
  3. Create independent copies of the table and erase different rows from each copied table.
  4. Enable table breaks and configure the break settings to repeat the top labels. (correct answer)
Explanation: When working with large tables in AutoCAD, you'll sometimes encounter layouts where a single wide table won't fit on a plotted sheet. AutoCAD provides a built-in solution specifically for this scenario through a feature called table breaks, which allows one continuous, associated table to split across multiple sections — all while remaining a single object that updates together. Enabling table breaks (option D) is exactly the right approach here. You configure the break settings to control section width, direction, and — critically — whether header rows repeat at the top of each section. This keeps all sections linked, so editing one row updates the entire table, and the repeated labels make each section independently readable on the plotted sheet. Option A is a misuse of the merge cell feature. Merging data rows doesn't create repeating sections and would destroy your row structure rather than organize it across a sheet. Option B describes a manual, destructive workaround — exploding the table converts it into individual lines and text, permanently severing any associativity. If the schedule updates, you'd have to redo everything by hand. Option C creates separate, independent table copies, which breaks associativity entirely. If the original data changes, each copy must be updated manually, which defeats the purpose of a linked schedule. The key study tip here: whenever a question mentions that sections must remain associated, that's your signal to look for a native AutoCAD feature rather than a manual workaround. Table breaks are designed precisely for this use case — one table, multiple visual sections, shared labels. Know where to find break settings in the Table Properties dialog.

Question 2

A title cell in a drawing table must show the current drawing file name. The displayed name should update if the drawing is saved under a different file name, without the user retyping the cell.

Which type of cell content best meets the requirement?

  1. Plain text containing the current file name, with the cell's content property locked.
  2. A formula that treats the current file name as a referenced numeric cell value.
  3. A field configured to report the drawing file name and update with the drawing. (correct answer)
  4. An Excel data link connected to a workbook cell containing the original drawing name.
Explanation: Whenever you see a question about displaying dynamic drawing information in AutoCAD tables, ask yourself: what mechanism automatically tracks and updates metadata about the drawing itself? That's the core concept being tested here — the difference between static content and live, linked content. AutoCAD's Field feature is purpose-built for exactly this scenario. A field is a special placeholder that reads system properties — like the drawing file name, date, author, or sheet number — directly from the drawing's metadata and refreshes automatically when those values change. When you save the drawing under a new name, the field detects the updated file name and displays it without any manual editing. Choice C is correct because it describes this precise tool: a field configured to the drawing file name property, which updates with the drawing automatically. Choice A fails immediately because plain text is entirely static. Locking the cell's content property only prevents changes — it guarantees the name will never update, which is the opposite of what's needed. Choice B describes a formula referencing a numeric cell value, but file names are not numeric data, and table formulas in AutoCAD operate on cell values within the table — they have no mechanism to read the operating system's file name. Choice D sounds plausible, but an Excel data link pulls values from an external workbook. That workbook cell would still contain whatever name was manually typed into it originally; it doesn't know or track AutoCAD's file name. As a study tip: on AutoCAD questions involving auto-updating drawing metadata, Fields are almost always the answer. They're the bridge between drawing properties and visible content.

Question 3

A designer has a defined range in an Excel workbook and needs to create a new AutoCAD table from that range. Future workbook revisions must be transferable into the table without rebuilding it.

Which insertion workflow should the designer use?

  1. Start the TABLE command, choose an empty table, and paste the workbook values as unlinked text.
  2. Start the TABLE command, choose a data-link source, and create or select the Excel data link and range. (correct answer)
  3. Import the workbook as linework, then convert the resulting grid and text into a table style.
  4. Attach the workbook as an external reference, then bind it to convert its cells into table data.
Explanation: Whenever you see a question about linking Excel data into AutoCAD, the key concept is the difference between a live data link and a static paste. The scenario specifically requires that future workbook revisions transfer into the table without rebuilding it — that word "future" is your signal that a persistent, updateable connection is needed. The correct workflow is B. AutoCAD's TABLE command includes an option to create a table from a data-link source. When you create or select an Excel data link and specify the named range, AutoCAD builds the table with a live connection to that workbook. Whenever the Excel file is updated, you can refresh the table in AutoCAD to reflect those changes — no manual rebuilding required. A is wrong because pasting values as unlinked text severs any connection to the source workbook. You'd end up with a static snapshot; future revisions in Excel would never reach the AutoCAD table automatically. C describes importing the workbook as linework, which is not a legitimate AutoCAD workflow for this purpose. Excel data doesn't import as geometry that can be cleanly converted into a functional, updateable table object. D is a tempting distractor because XREFs (external references) are a real AutoCAD feature for linking external files. However, XREFs apply to DWG files, not Excel workbooks. Binding an XREF also permanently embeds it, destroying the live-update relationship — the opposite of what the scenario requires. As a study tip, watch for scenarios that describe ongoing updates or revisions; they almost always point toward a data link solution rather than a one-time import or paste operation.

Question 4

A formula cell in a cost schedule must be protected from accidental replacement. However, the CAD manager still wants users to be able to adjust the cell's text height, alignment, and other formatting.

Which cell-locking choice most closely satisfies both conditions?

  1. Leave both properties unlocked and instead lock the table's drawing layer.
  2. Lock the cell formatting but leave the cell content unlocked.
  3. Lock both the cell content and the cell formatting.
  4. Lock the cell content but leave the cell formatting unlocked. (correct answer)
Explanation: When working with AutoCAD tables, you can independently control two distinct properties of any cell: its content (the data, formula, or text stored inside) and its formatting (text height, alignment, color, etc.). Questions like this test whether you understand that these two properties can be locked or unlocked separately — they are not an all-or-nothing toggle. The scenario needs formula protection without restricting visual adjustments. That points directly to D: locking the cell content preserves the formula from accidental edits or deletion, while leaving the formatting unlocked lets the CAD manager and users freely adjust text height, alignment, and other display properties. Both conditions are satisfied simultaneously. Choice A is tempting but misguided — locking the drawing layer would prevent all edits to everything on that layer, including formatting changes, which directly violates the second requirement. It also affects far more than just that one cell. Choice B has the logic exactly backwards. Locking formatting while leaving content unlocked protects the visual style but leaves the formula completely exposed to accidental replacement — the opposite of what the scenario demands. Choice C over-locks the cell. Locking both content and formatting does protect the formula, but it also prevents users from making any formatting adjustments, failing the second condition. Study tip: On AutoCAD exam questions involving table cells, always identify what needs protection versus what needs flexibility. The key pattern here is that content and formatting locks are independent — lock only what the scenario explicitly asks you to protect, and leave everything else accessible.

Question 5

Three adjacent schedule columns have different widths. They must be made equal without converting the table to lines and text, and the combined width occupied by the selected columns should remain distributed among those columns.

Which editing method best accomplishes this requirement?

  1. Select the three columns and use the command that sizes or distributes the selected columns equally. (correct answer)
  2. Select the entire table and apply a uniform scale factor until the three columns appear equal.
  3. Drag the outside table-width grip, which automatically assigns equal widths to every internal column.
  4. Explode the table and use equal linear dimensions to reposition the resulting vertical line objects.
Explanation: When working with AutoCAD tables, it helps to think of them as intelligent objects with built-in editing commands — not just grids of lines. The exam frequently tests whether you know how to use table-specific tools rather than workarounds that destroy the table's structure. AutoCAD's table editor includes a dedicated command to equalize column widths across a selection. When you select only the three target columns and apply this "equally space columns" operation, AutoCAD redistributes the combined width of those columns evenly among them — exactly what the passage requires. That makes A the correct answer: it respects both constraints (equal widths, preserved total span) without dismantling the table. B is wrong because scaling the entire table changes every column and row proportionally — it doesn't make unequal columns equal, it just resizes all of them by the same factor while preserving their differences. C is a trap: dragging the outer table-width grip stretches or compresses the table as a whole but does not independently equalize internal columns. The column proportions stay skewed. D violates the explicit requirement in the passage — exploding the table converts it to lines and text, which the scenario specifically forbids. It also turns a single editing operation into a tedious manual repositioning task. A useful study tip: on AutoCAD table questions, always check whether the scenario requires preserving the table object. Any answer that involves exploding, scaling, or grip-dragging the outer boundary should raise a red flag, because those methods either destroy the table structure or apply changes globally rather than targeting specific columns.

Question 6

Cells B2 through B5 contain four item costs. Cell B6 must display their total and must recalculate when any of those four costs changes.

Which formula should be entered in cell B6?

  1. =SUM(B2:B5) (correct answer)
  2. =SUM(B2:B6)
  3. =SUM(B2,B5)
  4. =SUM(B1:B5)
Explanation: When working with spreadsheet formulas — even in an AutoCAD exam context where data-driven workflows matter — the key skill is defining the exact range of cells you want to calculate. A range like B2:B5 means "every cell from B2 to B5, inclusive," so you need to match the range precisely to the cells described in the problem. Since the passage tells you costs live in B2 through B5, the formula =SUM(B2:B5) in cell B6 captures exactly those four cells. Spreadsheets automatically recalculate whenever any referenced cell changes, so this formula satisfies both requirements: correct totaling and dynamic updating. That makes A the right answer. Here's why each other option fails: B, =SUM(B2:B6), creates a circular reference — B6 is trying to include itself in its own calculation, which causes an error or infinite loop. C, =SUM(B2,B5), uses a comma instead of a colon, which means it only adds B2 and B5 together, completely skipping B3 and B4. The colon (:) defines a range; the comma defines individual, non-consecutive values. D, =SUM(B1:B5), extends the range one row too high, pulling in B1 — which likely contains a label or unrelated value — and would corrupt the total. A quick tip to remember: always double-check both endpoints of your range. The colon-versus-comma distinction is a classic trap — colon means "everything between," comma means "only these specific cells." Keeping that rule in mind will help you avoid C-style mistakes consistently.

Question 7

A table was created with a table style that sets all header cells to a text height of 3.03.0 units. One header cell was later given a local text-height override of 4.04.0 units. The table style is then modified so that header text height is 3.53.5 units.

After the table style is saved, how will the existing table display its header text?

  1. Every header cell changes to 3.53.5 units because table-style changes replace all cell overrides.
  2. Unmodified header cells change to 3.53.5 units, while the overridden cell remains at 4.04.0 units. (correct answer)
  3. Every header cell remains unchanged until the table is deleted and inserted again using the revised style.
  4. Unmodified header cells remain at 3.03.0 units, while the overridden cell changes to 3.53.5 units.
Explanation: Whenever you see a question about table styles and cell formatting in AutoCAD, the key concept to keep in mind is the local override hierarchy: properties set directly on an individual cell take priority over — and are protected from — changes made at the table style level. Here's how it works. When you apply a property directly to a cell (like setting its text height to 4.04.0 units), AutoCAD stores that as a cell override. When the parent table style is later updated to 3.53.5 units, AutoCAD pushes that new value down to all cells that are still inheriting from the style — but it deliberately leaves overridden cells alone, because those cells have been explicitly told to ignore the style for that property. So unmodified header cells update to 3.53.5 units, while the cell you manually changed stays at 4.04.0 units. That makes B the correct answer. A is wrong because it assumes a style update acts like a hard reset, wiping out all cell-level customization — that's not how AutoCAD's override system works. C describes behavior that doesn't exist; tables in AutoCAD update dynamically when their associated style changes — you don't need to delete and reinsert them. D reverses the logic entirely: it incorrectly protects the unmodified cells (which should update) and incorrectly updates the overridden cell (which should be protected). As a study tip, remember this rule of thumb: local overrides shield individual cells; style changes only affect cells still "listening" to the style. This same principle applies to text styles, colors, and borders — not just text height.

Question 8

An AutoCAD schedule is populated from a range in an Excel workbook by using a data link. A project manager changes several values in Excel, saves the workbook, and asks that the drawing reflect the revisions while preserving the link.

Which workflow most directly updates the table as requested?

  1. Open the table editor, unlock each linked cell, and manually type the revised Excel values.
  2. Use the data-link update operation to download source changes into the linked AutoCAD table. (correct answer)
  3. Detach the data link, erase the existing table, and paste the revised cells as AutoCAD text.
  4. Run a drawing regeneration, which imports all saved workbook changes without a data-link update.
Explanation: When working with linked data in AutoCAD, the key concept to keep in mind is that a data link creates a live connection between an AutoCAD table and an external Excel file — and that connection has dedicated tools for keeping both sides in sync without breaking or rebuilding anything. Because the project manager saved the Excel workbook and wants the drawing to reflect those changes while preserving the link, the correct move is to use AutoCAD's built-in data-link update operation (found via the Data Links manager or the table's right-click menu). This command reads the current state of the source file and pushes those changes into the linked table automatically — no manual retyping, no restructuring required. That's exactly what B describes. A is wrong because unlocking linked cells and typing values manually defeats the entire purpose of the data link. Worse, overwriting linked cells with manual entries can corrupt or sever the connection, which contradicts the requirement to preserve it. C is a destructive workflow — detaching the link and pasting as plain text permanently removes the live connection. The table becomes a static object with no relationship to the Excel file, which again violates the "preserving the link" condition. D describes a drawing regeneration (REGEN), which redraws geometry on screen but has nothing to do with importing external data. REGEN does not trigger any data-link synchronization — that's a common misconception worth remembering. As a study tip: whenever an AutoCAD question mentions an external data source and asks how to sync changes, look for the answer that uses the data-link update pathway specifically — regeneration and manual edits are classic distractors.

Question 9

Four adjacent cells are selected for use as one schedule heading. The upper-left cell contains FINISH SCHEDULE; the other three cells contain temporary notes that are no longer needed.

What will occur if the selected cells are merged into one cell?

  1. The upper-left content is retained, and the contents of the other selected cells are discarded. (correct answer)
  2. All four contents are retained and automatically joined as separate lines in the merged cell.
  3. The temporary contents are retained, while the upper-left content becomes the cell tooltip.
  4. All contents are discarded because AutoCAD requires the selected cells to be empty before merging.
Explanation: When working with tables in AutoCAD, merging cells is a straightforward operation — but it has a specific, non-obvious rule about what happens to existing content that frequently appears on exams. When you merge a group of cells, AutoCAD consolidates them into a single cell and uses the upper-left cell as the survivor. Its content is preserved and becomes the content of the merged cell. Any content in the remaining selected cells is permanently discarded. This makes A the correct answer: FINISH SCHEDULE is retained, and the temporary notes in the other three cells are deleted. B is tempting if you assume AutoCAD behaves like a word processor that concatenates text during a merge, but that's not how it works — no automatic joining or line-stacking occurs. C introduces a fictional concept; AutoCAD doesn't demote cell content into a tooltip during a merge. D is the most misleading distractor because it implies cells must be empty before merging, which is completely false — merging works on populated cells all the time, and that's precisely why the content rule matters. A useful study tip: think of cell merging in AutoCAD like a "winner takes all" operation where the upper-left cell always wins. Whenever you see a question about merging table cells, ask yourself which cell's content survives — the answer is always the upper-left. If you remember that one rule, you can eliminate every distractor that suggests content is combined, hidden, or requires pre-clearing.

Question 10

Cell A2 stores the numeric value 1.2341.234 but is formatted to display two decimal places, so it appears as 1.231.23. Cell B2 contains a formula that multiplies A2 by 33, and B2 is also formatted to display two decimal places.

What value should B2 display if the formula uses the stored numeric value?

  1. 3.693.69, because the displayed value 1.231.23 is used in all subsequent calculations.
  2. 3.7023.702, because a formula cell always ignores the cell's assigned decimal-place format.
  3. 3.703.70, because 1.234×3=3.7021.234 \times 3 = 3.702 and B2 rounds the display to two decimals. (correct answer)
  4. 3.713.71, because both the source value and the calculated result are rounded upward.
Explanation: When working with spreadsheet formulas, it's essential to distinguish between a cell's stored value and its displayed value. Formatting only changes what you see — it never changes the underlying number used in calculations. Here, A2 stores 1.2341.234 but displays 1.231.23 due to two-decimal formatting. When B2 multiplies A2 by 33, it uses the stored value: 1.234×3=3.7021.234 \times 3 = 3.702. Since B2 is also formatted to two decimal places, it displays 3.703.70 — making C the correct answer. Choice A reflects a common misconception: that the displayed value (1.231.23) is what gets passed into formulas. If that were true, you'd get 1.23×3=3.691.23 \times 3 = 3.69, but spreadsheets never work this way. The display format is purely cosmetic. Choice B correctly identifies that the stored value is used, but it claims the result shows three decimal places (3.7023.702) — ignoring that B2 itself has two-decimal formatting applied. Choice D suggests both values are rounded upward, which misunderstands how display formatting works. Formatting truncates or rounds for display purposes following standard rounding rules — 3.7023.702 rounded to two decimals is 3.703.70, not 3.713.71, because the third decimal (22) is less than 55. As a study tip, always ask yourself two separate questions: What value is stored? and How is it displayed? These are independent. Formulas always reference stored values, and formatting only affects the visual output — a distinction that appears frequently in spreadsheet-related exam questions.