ASE A2 Practice Test.
Free practice exam — 61 verified questions, instant feedback.

Answer: A
When engine rpm climbs above the specified stall figure, the engine is developing power but that power is not being transferred to the output shaft effectively, which happens when a clutch pack or band that should be locked for the selected range is slipping instead of holding. A seized converter one-way clutch or a genuine power loss in the engine would tend to hold rpm at or below the expected reading rather than push it higher, since the load path back to the wheels would still be intact in those cases. Low fluid can contribute to slippage, but the diagnostic pattern of an above-spec stall reading points first to a slipping friction element inside the gear train.

Answer: B
Because every forward range engages properly, the pump, main line pressure, and general hydraulic supply are working correctly, which narrows the fault to the specific friction element used only for Reverse. A worn reverse band or clutch pack needs more fluid volume and travel to take up clearance before it can hold, producing the pause followed by a harsh clunk as it finally grabs. A speed sensor fault or lock-up solenoid issue would typically affect shift quality or lockup behavior across multiple ranges rather than isolate to Reverse alone, and coolant contamination in the fluid produces widespread slipping and overheating symptoms, not a single-range delay.

Answer: D
Because Reverse works, the pump, main pressure, and the clutch or band used for Reverse are all functioning, so the fault must lie in a component that only forward ranges rely on. Most planetary automatic designs route torque through a forward or input clutch that is common to first through the top forward gear, and its failure removes every forward range at once while leaving Reverse untouched. A cooler leak would eventually cause overheating and slippage rather than a clean loss of all forward ranges, a park/neutral switch fault affects starting or backup lights rather than drive engagement, and a blocked governor circuit changes shift timing rather than eliminating movement entirely.

Answer: C
Slipping or a brief rpm flare under load, appearing in multiple gears while fluid level and general shift timing are otherwise normal, is the classic signature of line pressure running below specification, since the clutches and bands do not have enough clamping force to hold torque without a moment of slip. Excess line pressure produces the opposite symptom, harsh, abrupt shifts, not slipping, and a stuck park/neutral switch or a converter clutch stuck applied would cause starting or stalling problems rather than a slip under acceleration in several gears.

Answer: C
A shudder that appears specifically at steady highway speed and light throttle, then vanishes as soon as the driver accelerates or decelerates, matches almost exactly when the torque converter clutch is commanded to apply for fuel economy; if that clutch's friction material or the fluid's frictional properties have degraded, the clutch can slip intermittently instead of locking cleanly, producing the shudder. A stuck-open low-gear solenoid or a dragging reverse band would not correlate with steady-speed cruising specifically, and overfilled fluid tends to cause aeration and general slipping or overheating rather than a speed-specific shudder tied to light throttle cruise.

Answer: A
Lock-up not engaging at all under conditions where it should apply points to a break somewhere in the command-and-apply path for that specific function, the solenoid that directs apply pressure to the converter clutch, its wiring, or the control module logic that commands it. A failed reverse clutch would show up only when backing up, not as a highway fuel economy or lockup issue, a fully blocked filter would starve the whole hydraulic system and cause far more widespread symptoms than just missing lockup, and a speed sensor pegged at maximum would typically cause erratic shift timing rather than a clean absence of lock-up.

Answer: B
When absolutely no range moves the vehicle despite correct fluid level and a freely revving engine, the fault has to be something shared by every range, such as a broken input shaft, a failed pump drive connection, or another component common to the whole gear train, since anything specific to only one range would still leave other ranges working. A lock-up solenoid or speed sensor issue would affect lockup or shift quality rather than eliminate all movement, and a misadjusted shift cable would typically still allow movement once the selector happens to land in a working range, rather than blocking every range at once.

Answer: D
Fluid that has darkened and developed a distinct burnt odor has typically been exposed to excessive heat generated by clutch packs or bands that have been slipping rather than locking up cleanly, since friction material overheating both darkens the fluid and produces that characteristic smell. Coolant contamination usually produces a milky or pink discoloration rather than a burnt smell, converter overfill would cause aeration-related foaming rather than a burnt odor, and high mileage alone does not automatically burn fluid if the transmission has been shifting and holding properly.

Answer: D
A milky or pink, mayonnaise-like appearance in transmission fluid is a well-known sign of coolant mixing into the fluid, which most often happens when the transmission cooler built into the radiator develops an internal leak between the coolant and fluid sides. Simple oxidation from age darkens fluid and can add a burnt smell but does not create a milky look, aeration produces bubbles and foam rather than a lasting milky color change, and overfilling with the correct fluid does not alter its color or clarity.

Answer: B
An intermittent code paired with an occasional symptom is a strong signal to inspect the wiring harness, connector terminals, and ground connections feeding that circuit before condemning the solenoid itself, because chafed wires, corroded pins, or a loose connector can mimic a solenoid fault only some of the time and would not be fixed by parts replacement. Jumping straight to replacing the whole valve body is an expensive and unnecessary step if the actual fault is external wiring, a coolant flush addresses a completely unrelated contamination concern, and a stall test evaluates converter and engine performance rather than an electrical solenoid circuit.

Answer: B
Because the shifts before and after the affected one work correctly, the general hydraulic supply, pump, and filter are clearly functioning, which narrows the fault to whatever solenoid or circuit is dedicated specifically to commanding that one shift; a fault there would delay the shift and let engine rpm rise briefly before the correct clutch or band finally applies. A total loss of valve body supply or a fully blocked filter would affect every shift, not just one, and a failed torque converter would show up in stall testing or lockup behavior rather than isolating to a single shift point.

Answer: A
A friction element that is worn but not yet completely failed can still hold the lower torque loads present during light or moderate acceleration, but slip briefly when full throttle multiplies the torque demand beyond what the marginal clutch or band can clamp, which produces exactly the load-dependent slip described. A switch fault tied to vibration would be more randomly timed rather than throttle-dependent, a lockup clutch stuck applied at idle would cause stalling at stops rather than a full-throttle acceleration symptom, and a speed sensor stuck at zero would cause dramatic shift scheduling problems rather than a load-specific slip.

Answer: C
A noise tied to vehicle speed rather than engine speed, and one that stops the moment the vehicle stops moving even with the engine still running in gear, points to a component that only rotates when the vehicle is actually traveling, such as an output shaft bearing, a gear in the final drive, or another rotating part in the power path to the wheels. The internal pump and torque converter lock-up clutch are both driven by the engine and would still be active and potentially noisy at a stop, and a fluid leak in the valve body would present as a hydraulic or shifting problem rather than a speed-correlated noise.

Answer: B
A vacuum modulator uses engine vacuum as a signal of load to help regulate line pressure and shift timing, so a leak in the hose, fitting, or the modulator's internal diaphragm reduces that signal in a way that mimics heavy engine load, causing the transmission to build higher pressure and delay shifts longer than it should, producing late and harsh shifts. A stripped governor gear would affect shift points differently and is a separate mechanical component, a failed torque converter would show up in stall testing or lockup performance, and a restricted filter would cause broader hydraulic supply problems rather than a vacuum-signal-specific symptom confirmed by the low gauge reading.

Answer: B
Because shift timing on this type of unit depends on both a vacuum (or throttle) signal and a governor signal that represents vehicle speed, and the vacuum side has already checked out normal, a consistent late-shift pattern points to the governor not delivering an accurate speed signal, causing the transmission to behave as if the vehicle is going slower than it actually is. A lock-up solenoid fault would affect converter clutch engagement rather than shift point timing, coolant contamination produces slipping and fluid discoloration rather than a purely late-shift pattern, and an electronic output speed sensor is not used to schedule shifts on a purely hydraulically controlled unit.

Answer: D
A stored code only points to a symptom or a monitored parameter falling outside expected range; reviewing freeze frame data shows the exact conditions present when the fault was detected, and confirming the fault is still active helps avoid replacing a good part for an intermittent or already-resolved condition. Simply replacing fluid or disconnecting the battery does not address the underlying cause and can mask problems temporarily, and jumping to full transmission removal is an extreme and unnecessary step before basic code verification and diagnosis have been completed.

Answer: D
Shift quality and pressure characteristics are affected by fluid temperature, and many transmissions intentionally use firmer shifts during cold operation or a warm-up cycle, which can be mistaken for a fault if evaluated only on a short cold drive. Bringing the vehicle to full operating temperature and repeating the road test under conditions similar to the customer's complaint gives an accurate basis for diagnosis. Replacing a solenoid, dismissing the complaint outright, or adding fluid without verifying the level is actually low are all premature actions taken before the vehicle has even been tested under proper conditions.

Answer: D
Comparing a commanded state to actual measured behavior is a key diagnostic technique: since the module is successfully commanding lock-up, the electrical command path, module logic, wiring, solenoid drive, is confirmed to be functioning, which shifts suspicion to whatever comes after that command, the solenoid's hydraulic output, the apply circuit, or the converter clutch's ability to actually hold once pressure is applied. It would be incorrect to dismiss the scan data as inaccurate just because it reveals a fault, fluid level is a separate check with its own procedure, and a speed sensor fault would more likely produce inconsistent or missing speed data rather than this specific commanded-versus-actual mismatch pattern.

Answer: C
Technician A describes the well-documented cause of this specific symptom: worn internal check valves or seals allow the hydraulic circuit and torque converter to drain down while the vehicle sits, so the pump needs extra time to refill the circuit and rebuild apply pressure before the vehicle moves normally. Technician B is not correct because a restricted filter is a constant condition, not one tied to parking time, so it would produce slow or weak engagement and sluggish pressure buildup on every start and often broader slipping or erratic shifting on the road, rather than a delay that shows up specifically after extended parking and then drives normally the rest of the day.

Answer: A
A fluid and filter service can remove some contaminated fluid and improve the smell somewhat, but it does not repair whatever mechanical wear is producing metal filings in the pan, so Technician A's claim that a fluid service alone resolves the situation overstates what that service can do. Technician B is closer to correct that filings indicate a real mechanical concern, but stating flatly that fluid service accomplishes nothing is also an overstatement, since it still has value as part of an overall repair; the accurate position is that neither statement alone captures the full picture, and further diagnosis of the metal source is required before the repair is complete.

Answer: C
Because the shifts immediately before and after the affected one are firm and immediate, the general hydraulic supply and pressure regulation are clearly adequate, which points to the specific friction element responsible for the 2-3 shift not applying fully or promptly, allowing engine speed to flare briefly before it catches. A converter lock-up problem would show up during steady cruising rather than during a specific shift event, a regulator stuck fully open would tend to cause harshness across all shifts rather than a flare in just one, and a fully clogged filter would starve the whole system and affect every shift, not just one.

Answer: C
Automatic transmission fluids are engineered with specific frictional modifiers and additive packages that match the friction material used in that transmission's clutch packs, bands, and torque converter clutch; using an incompatible fluid can change how smoothly those elements engage and can directly cause symptoms like shudder, slipping, or harsh shifts even though the fluid otherwise looks and performs similarly. This is a functional engineering requirement, not merely a warranty formality, and the wrong fluid is not simply an interchangeable substitute regardless of price.

Answer: A
A small amount of fine, dark friction material in the pan is a normal byproduct of clutch packs and bands wearing gradually during normal operation, and by itself it is not necessarily a sign of impending failure, unlike large metal chips or shavings, which would point to a much more serious mechanical failure such as a broken gear tooth, a cracked case, or converter damage. The absence of larger metal debris supports interpreting this finding as routine wear rather than a developing catastrophic failure.

Answer: A
A torque converter failure, especially involving the lock-up clutch, sheds friction material and sometimes fine metal particles into the fluid, and much of that debris can lodge in the narrow passages of the transmission cooler and its lines; if that debris is not flushed out, it will circulate back into the freshly repaired transmission and contaminate or damage the new converter and internal components almost immediately. This step provides a real functional benefit rather than being an unnecessary charge, and it applies to radiator-integrated coolers just as much as external ones, since either type can trap the same debris.

Answer: B
The extension housing seal sits where the output shaft exits the rear of the transmission case, and on a rear-wheel-drive vehicle that location is where the driveshaft connects, so the driveshaft has to be disconnected and removed before the seal is exposed and accessible for replacement. Full transmission removal is unnecessary for this specific repair since the seal can be reached with the unit still installed, and neither the torque converter nor the valve body relates directly to accessing the extension housing at the rear of the case.

Answer: A
A throttle valve cable that is adjusted too tight pulls on the linkage as if the throttle were open further than it actually is, which the transmission interprets as a higher load or throttle signal and responds to by raising line pressure. Because that pressure signal opposes the governor signal that calls for an upshift, the shift points get pushed higher and later than normal, and the higher pressure also makes the shifts themselves feel harsher when they finally occur. A too-tight cable would not cause weak, slipping shifts, since that pattern matches low pressure rather than excess pressure, and this linkage has no direct connection to Reverse-only function or torque converter lock-up engagement.

Answer: C
When a solenoid is mounted on the valve body and that valve body is accessible after removing the transmission pan, the correct and efficient repair is to drop the pan, access the valve body in place, and replace only the specific solenoid without removing the transmission, engine, or torque converter, since none of those larger and more time-consuming steps are needed to reach a pan-accessible component. Removing the entire transmission or engine for a component reachable through the pan would be an unnecessary and costly approach, and the torque converter is not in the way of accessing a valve-body-mounted solenoid from below.

Answer: B
A valve body assembly typically sandwiches thin separator plates and gaskets between machined surfaces, and tightening the bolts unevenly or out of the specified sequence can warp those thin components or leave gaps, allowing fluid to cross-leak between passages that are supposed to remain isolated, which directly causes shifting and pressure problems even though the valve body looks correctly assembled. This risk is why torque sequence matters for this type of layered assembly, not just for cylinder heads, and simply overtightening in a random order does not substitute for following the correct pattern and specification.

Answer: C
Many transmission control modules use adaptive learning to fine-tune shift pressure and timing based on the specific wear and characteristics of the installed components, and after replacing solenoids or the valve body, that learned data may no longer match the new hardware; performing the manufacturer's specified relearn or adaptive reset procedure allows the module to recalibrate to the new parts and typically resolves shift feel differences without indicating a defect. Assuming the parts are bad without first attempting the proper relearn procedure risks unnecessary part replacement, permanently disconnecting the battery is not the correct or complete relearn method on most systems, and adding excess fluid does not address an adaptive learning mismatch and can cause its own problems.

Answer: A
Because a pressure control solenoid directly determines line pressure in response to the module's commands, verifying the repair means confirming that line pressure now tracks commanded values appropriately across varying conditions, which can be checked with a scan tool's live data and, where applicable, a mechanical pressure gauge at a test port; this confirms the actual root cause was addressed rather than just assuming success because the part was replaced. Torque converter draining and reverse band adjustment are unrelated to this specific solenoid's function, and fluid color would not change meaningfully from a solenoid replacement alone.

Answer: D
A torque converter holds a significant volume of fluid internally, and failing to drain it before removal typically results in fluid spilling out during removal, tilting, or transport, creating a mess and a slip hazard, so the accepted practice is to rotate the converter to a drain orientation or remove a drain plug where equipped so the fluid empties in a controlled way beforehand. Adding more fluid or introducing solvent before removal serves no purpose and only increases the volume of fluid that could spill.

Answer: D
A mount that shows visible cracking, separation between its rubber and metal bonding surfaces, or has collapsed or sagged excessively no longer controls powertrain movement the way it should, which can cause the clunks, vibration, or noise problems that this kind of inspection is meant to catch, and replacing it while the transmission is already out is efficient since access is easier at this time. Simply being original equipment, being dusty, or coming from a different manufacturer are not signs of an actual functional problem and do not by themselves justify replacement.

Answer: A
Dowel pins or alignment sleeves at the bell housing mounting surface ensure the transmission case seats in precisely the same position relative to the engine block every time, which is essential because the input shaft, pilot bushing or bearing, and converter or clutch alignment all depend on the two cases being square and correctly positioned relative to each other; without correct alignment, the input shaft can bind, the pilot bushing can wear prematurely, or vibration and noise can result. These pins serve no electrical or fluid-passage function, and they are a functional precision-fit feature, not a cosmetic one.

Answer: A
A subframe or crossmember often carries structural loads and may support suspension components, engine or transmission mounts, or the body itself, so before removing it the technician must ensure the engine and vehicle body are properly and independently supported, such as with a suitable stand, hoist, or fixture, to prevent components from shifting, dropping, or causing injury once that structural support is taken away. Fluid draining, converter bolt removal, and wheel alignment are each separate procedural steps that do not address the structural support concern created by removing a subframe or crossmember.

Answer: D
This switch typically requires a mechanical alignment step so its internal contact positions correctly correspond to when the selector shaft is actually in Park or Neutral, and after installation the technician should verify the starter only engages in those two ranges and that dependent functions such as backup lights operate correctly in the appropriate range, since a misaligned switch can allow starting in an unintended range or block starting altogether. This switch does not have its mechanical adjustment step skipped by design, its function extends beyond just backup lights to include the starting interlock, and fluid condition has no bearing on this electrical or mechanical alignment.

Answer: D
A stall test loads the engine against the transmission in gear to check whether the engine and torque converter can develop expected rpm before the vehicle would start to move. When the reading comes in below specification, the restriction is upstream of the gear train, either the engine cannot make full power or the converter itself, such as a seized one-way clutch, is limiting how high the engine can spin. A slipping clutch pack instead lets engine speed climb well above the normal stall figure because the connection to the drive wheels is broken, not restricted, so it would raise the reading rather than lower it. Overfilled fluid or a stuck solenoid would not produce a stall speed reading below the specified figure.

Answer: B
A delay in engagement that shows up specifically after the vehicle has been parked for many hours is a classic symptom of fluid draining back out of the torque converter and hydraulic circuit through worn internal seals or a check valve that no longer holds pressure, so the pump has to refill the circuit before clutch apply pressure can build. A stuck torque converter clutch would affect highway cruising rather than initial engagement, a failed forward shift solenoid would cause a missing gear rather than a startup delay, and a misadjusted park/neutral switch affects starting the engine or backup lights rather than shift feel.

Answer: A
Since every forward range works and shifts firmly, the pump, filter, main line pressure, and general hydraulic circuits are clearly functioning, which points the diagnosis directly at whatever clutch or band is dedicated to Reverse and unused in any forward range. A stuck-low pressure regulator or a converter one-way clutch problem would show up as weak or slipping performance across multiple or all ranges, not as a clean loss limited to a single range, and a failed speed sensor affects shift timing and quality rather than eliminating one range outright.

Answer: C
Harsh shifts without slippage indicate the friction elements are applying with too much force and too quickly rather than failing to hold, which points to excessive hydraulic line pressure or a pressure-control solenoid commanding higher-than-needed pressure. Low fluid or a failed one-way clutch inside the converter tend to produce slipping, delayed engagement, or stall-speed problems rather than an abrupt bang with no slip, and a converter that fails to build stall speed would show up as a stall test abnormality, not universally harsh shifting.

Answer: D
A converter clutch that is stuck mechanically or hydraulically applied keeps the engine locked directly to the drivetrain even after the vehicle slows to a stop, which loads the idling engine the same way a manual transmission would if the clutch pedal were released in gear, producing the lugging or stalling sensation specifically at stops. A stuck high-gear solenoid would affect only that one shift point rather than idle behavior, underfilled fluid tends to cause slipping and delayed engagement rather than a stuck-applied lockup feel, and an intermittent park/neutral switch affects starting or backup lights, not stall-at-stop symptoms.

Answer: C
Foamy, bubbly fluid points to air being whipped into the fluid, which commonly happens when the fluid level is overfilled so that the rotating components churn air into it, or when an internal leak allows the pump to draw in air along with fluid; aerated fluid compresses instead of transmitting hydraulic pressure cleanly, producing hesitant or inconsistent shifts. Coolant contamination produces a milky color rather than foam, a solenoid stuck open would cause a specific missing or always-on gear rather than general foaminess, and completely worn friction material would show up as slipping rather than a change in the fluid's appearance.

Answer: D
Starting is intentionally restricted to Park and Neutral by a range sensor or switch that reports selector position to the starting circuit, so being able to start in another range points directly to that sensor or switch reporting an incorrect position or having failed in a way that always allows starting. A lock-up clutch, speed sensor, or line pressure regulator have no role in the starter interlock circuit and would not cause this specific safety-related symptom.

Answer: C
Because the control module relies on accurate speed sensor data to decide when to command each shift, a sensor providing an erratic or inaccurate signal directly causes shift points that appear inconsistent and unpredictable, matching the scan tool's mismatched reported speed. A converter that lost lock-up capability would affect cruise behavior and fuel economy rather than shift timing, coolant contamination affects friction and fluid condition rather than sensor data, and a failed park/neutral switch affects starting rather than in-motion shift scheduling.

Answer: D
A transmission or transaxle is connected to the rest of the vehicle through multiple systems that must each be addressed before removal: the driveline connection, driveshaft or CV axles, electrical connectors for sensors and solenoids, the cooler lines carrying fluid to and from the radiator or auxiliary cooler, shift and/or throttle linkage, and structural mounts or crossmembers that may block clearance for lowering the unit. Leaving any of these connected while attempting to lower the transmission risks damaging components, tearing wiring, or being physically unable to remove the unit, so all of them need to be addressed, not just one category.

Answer: B
Since the lower forward gears all shift correctly, the pump, main hydraulic supply, and general control system are functioning, which points specifically at the friction element or solenoid circuit dedicated to the overdrive gear. A failed reverse clutch would only affect backing up, an out-of-specification stall speed would show up as a stall test abnormality rather than a missing single gear, and critically low fluid tends to cause slipping or delayed engagement across multiple gears rather than a clean absence of just the top gear.

Answer: C
A noise that tracks engine rpm and persists even in Park, where the vehicle is not moving and the gear train downstream of the pump is not turning with the wheels, points to a component that spins with the engine at all times regardless of vehicle motion, which is exactly how the transmission's internal fluid pump operates, since it is driven directly off the engine or converter. An output shaft bearing, ring and pinion set, or wheel bearing would only make noise while the vehicle is actually moving and gears or wheels are turning, not while stationary in Park.

Answer: B
A clunk that occurs specifically at the moment of engagement into gear, rather than during shift quality once moving, is commonly caused by worn or broken engine or transmission mounts that allow the powertrain to shift or rock as torque is suddenly applied, combined with any slack in the driveline taking up before the vehicle moves. Since shift quality on the road is described as smooth, a line pressure, filter, or band adjustment problem is unlikely, as those would typically show up as shifting quality issues rather than a one-time clunk at initial engagement.

Answer: D
Retrieving and documenting all stored and pending codes first establishes a clear starting point and prevents the technician from missing related fault information that could explain both the warning light and the shift complaint together, since transmission and engine control systems often share related codes. Replacing an expensive component like the valve body before any diagnosis is performed, changing fluid before checking codes and other basics, or restricting the road test to only highway speeds all skip essential early diagnostic information that could point to a much simpler and less costly cause.

Answer: B
Significantly low fluid did not happen without a reason, and simply adding fluid without finding and correcting an external leak, an internal seal failure, or another loss path leaves the underlying problem in place, allowing the fluid to run low again and potentially strand the customer or cause further internal damage from the earlier low-fluid operation. Topping off alone, as the second technician suggests, ignores the root cause and is an incomplete repair, since a proper diagnosis needs to identify why the fluid was low before returning the vehicle to the customer.

Answer: D
Intermittent electrical faults are frequently related to vibration, heat cycling, or movement that only occurs while the vehicle is actually being driven, so a road test that includes deliberately flexing or wiggling suspect wiring and connectors while monitoring scan data or symptoms is a legitimate and commonly used technique to reproduce and isolate this kind of complaint. Dismissing the complaint simply because it cannot be duplicated on a stationary vehicle ignores how vibration-related intermittent faults typically behave and risks sending the vehicle back to the customer with the underlying problem unresolved.

Answer: A
A front pump seal only works correctly if its lip makes clean, even contact with a smooth, undamaged sealing surface; installing it dry risks tearing the lip on initial rotation, a damaged or scored bore will cause the new seal to leak almost immediately regardless of how new it is, and substituting an incorrect seal design can result in a poor fit or an inadequate seal under pressure. Proper lubrication during installation and inspection of the sealing surface for damage are both necessary steps to ensure a long-lasting, leak-free repair.

Answer: C
A shift cable adjustment directly affects whether the internal valve body detents line up with where the driver's selector and dash indicator show the transmission to be, so verifying that every position matches correctly, and that the starter interlock still only allows starting in Park and Neutral, confirms the adjustment was done correctly and safely. A cable that feels loose is actually a sign of incorrect adjustment rather than success, torque converter lock-up timing is unrelated to selector cable adjustment, and a fluid change is a separate maintenance item with no direct connection to verifying cable adjustment.

Answer: B
A transmission range sensor has to be mechanically indexed or aligned to the internal shift shaft so that the electrical signal it sends correctly corresponds to the driver's actual selector position; if this alignment step is skipped or done incorrectly, the module may receive wrong range information, which can affect shift scheduling, dash indication, and the starting interlock that should only allow starting in Park and Neutral. Not all range sensors are self-aligning, and neither the torque converter nor fluid viscosity has any bearing on verifying or achieving correct sensor alignment.

Answer: C
Because this sensor is described as externally mounted and accessible with the transmission in the vehicle, the appropriate repair is to remove its retaining bolt and electrical connector, install the replacement sensor, and confirm with a scan tool that it now provides an accurate signal, since speed sensors of this type are designed to be individually serviceable without removing the transmission or valve body. Removing the whole transmission or replacing the entire valve body for an externally accessible sensor would be excessive and unnecessary labor, and simply changing fluid does nothing to address a failed sensor.

Answer: D
The modulator rod physically positions the modulator's internal valve relative to the case, which sets the baseline reference for how the vacuum signal translates into line pressure and shift timing changes; installing a rod that is even slightly the wrong length shifts that baseline so that shift points and pressure will be incorrect throughout the transmission's entire operating range, even if the modulator itself is functioning perfectly. This is a functional calibration requirement rather than a cosmetic fitment detail, and it affects overall shift behavior in every range, not Reverse alone.

Answer: A
A flare fitting seals through precise metal-to-metal contact between the matched flare and fitting surfaces, so tightening it to the specified torque is necessary; overtightening can crack or distort the flare and cause a leak despite being tight, while undertightening leaves the connection prone to leaking or working loose from vibration over time. Substituting a fitting with a different thread type risks cross-threading or an unreliable seal, and heavy thread sealant is not the appropriate sealing method for a flare connection, which relies on the mating flare surfaces rather than sealant to seal properly.

Answer: A
An accurate line pressure test requires connecting a pressure gauge to the specific test port the manufacturer designates for that purpose, then running the engine and operating the transmission through the prescribed test conditions, such as specific ranges and throttle positions, while comparing the actual gauge readings to the specified values, which gives objective data rather than a subjective impression. Estimating pressure from shift feel alone provides no verifiable data, a vacuum gauge on the intake manifold measures an unrelated engine parameter, and running the engine with the pan removed would cause fluid to spray out and is not how this test is performed.

Answer: C
A flywheel or flexplate that shows visible cracking, particularly near bolt holes or converter attachment points, or that has broken, elongated, or significantly worn ring gear teeth, or shows major heat distortion, is no longer structurally sound or functionally reliable and should be replaced before reinstalling the transmission, since these conditions can worsen suddenly and cause serious damage or failure. Minor surface discoloration, light residue, or cosmetic scratches that do not affect the mounting surface, converter attachment, or ring gear function do not by themselves require replacement.

Answer: C
If the torque converter is not fully seated on the transmission's input shaft and pump drive before it is bolted to the flexplate, pulling it forward with the bolts can damage the input shaft, the pump, or the seal, and can also strain the crankshaft's rear thrust bearing; checking that the converter sits at the specified distance from the bell housing or block face confirms it has fully engaged its internal splines and hubs before any bolts are installed. Fluid fill level, driveshaft reinstallation, and starting the engine are all steps that come at different points in the overall procedure and do not verify correct converter seating before this critical bolt-up step.

Answer: D
Manually rotating the engine a full turn after the converter is bolted to the flexplate lets the technician feel for any binding, drag, or contact between the converter and the bell housing, which would indicate the converter and flexplate were not properly aligned or that the converter was not correctly seated before bolt-up; catching this before starting the engine prevents damage that would occur if a misaligned assembly were run under power. This check has nothing to do with starter engagement, fluid level, or shift cable adjustment, which are each verified through separate, unrelated procedures.

Answer: C
On a front-wheel-drive vehicle, the CV axles connect directly into the transaxle case at the inner joints, so before the transaxle can be lowered out, those connections must be separated, which usually involves removing the axle retaining hardware and pulling the inner joint or shaft free of the transaxle case; leaving them connected would prevent the transaxle from being lowered away from the vehicle at all. The axles do not need to be replaced as part of this process, and the inner joints specifically, not just the outer ones, must be separated from the transaxle for it to come free.