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the claim
A floating object displaces an amount of fluid equal to its own total weight, not more than a fully submerged object.
the verdict
SUPPORTED
the evidence backs this
refutedsupported
the weight of evidence
2 sources for · 0 against
AS REPORTEDno primary record reached; this is what the reporting says

Reference material confirms that a floating object displaces a volume of fluid whose weight equals the object's total weight, and that only the submerged portion displaces water, meaning it does not displace more than when fully submerged.

Evidence for · 2
cited by 0
than the surrounding fluid tends to sink because its weight is greater than the weight of the fluid it displaces. If the object is less dense, buoyancy Buoyancy (), or upthrust, is the force exerted by a fluid opposing the weight of a partially or fully immersed object (which may also be a parcel of fluid). In a column of fluid, pressure increases with depth as a result of the weight of the overlying fluid. Thus, the pressure at the bottom of a column of fluid is greater than at the top of the column. Similarly, the pressure at the bottom of an o Buoyancy (), or upthrust, is the force exerted by a fluid opposing the weight of a… Any… If the buoyancy of an (unrestrained and unpowered) object exceeds its weight, it tends to rise. An object whose weight exceeds its buoyancy tends to sink. Calculation of the upwards force on a submerged object during its accelerating period cannot be done by the Archimedes principle alone; it is necessary to consider dynamics of an object involving buoyancy. Once it fully sinks to the floor of the fluid or rises to the surface and settles, Archimedes principle can be applied alone. For a floating object, only the submerged volume displaces water. For a sunken object, the entire volume displaces water, and there will be an additional force of reaction from the solid floor. In order for Archimedes' principle to be used alone, the object in question must be in equilibrium (the sum of the forces on the object must be zero), therefore; If the weight of an object is less than the weight of the displaced fluid when fully submerged, then the object has an average density that is less than the fluid and when fully submerged will experience a buoyancy force greater than its own weight This is called positive buoyancy. If the fluid has a surface, such as water in a lake or the sea, the object will float and settle at a level where it displaces the same weight of fluid as the weight of the object. If the object is immersed in the fluid, such as a submerged submarine or air in a balloon, it will tend to rise. If the object has exactly the same average density as the fluid, then its buoyancy equals its weight. It will remain submerged in the fluid, but it will neither sink nor float, although a disturbance in either direction will cause it to drift away from its position. This is called neutral buoyancy. An object with a higher average density than the fluid will never experience more buoyancy than weight and it will sink. This is called negative buoyancy. A ship will float even though it may be made of steel (which is much denser than water), because it encloses a volume of air (which is much less dense than water), and the resulting shape has an average density less than that of the water.
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The analysis

rails:sufficiency:supported:single_source:for=1+1p:against=0+0p | v55:sufficiency

More for · 1
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equilibrium of a ship in still water are ( a ) that the weight of the ship must be equal to the displacement, and (b) that its centres of gravity and buoyancy
Everything we examined (2)
This check searched the claim as stated. It did not run a separate search for evidence against it.
  1. Buoyancyreferenceno side taken
  2. 1911 Encyclopædia Britannica/Shipbuildingreferenceno side taken
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