Abstract: A coating apparatus and a method are disclosed for coating tablets in a rotating drilled container at the outlet of which a rotating annular element operates that is coaxial with the container, in which in an initial transition phase the annular element rotates in a direction that is opposite the rotation direction of the container to retain the tablets inside the container, forming a bed of tablets until a desired level is reached, and in a stationary phase the annular element rotates in a direction that is the same as the rotation of the container to permit the exit of the tablets, until the quantity of tablets entering the container is the same that the quantity exiting.

Abstract: A coating apparatus and method are disclosed for coating tablets with a film, in which the tables transit through a drilled first container where they are coated, then exit the first container and are removed from a rotating element provided on the periphery of a plurality of removal members that are spaced angularly apart from one another, in which each removal member removes a quantity of tablets, raises the removed tables as far as a certain height and then discharges the tablets into a chute that conveys the tablets into a second rotating drilled container, with delicate transfer of the coated tablets from one container to the next.

Abstract: A method for coating bulk material uses a coating apparatus to produce a continuous flow of coated material having a predetermined stationary coating weight gain. Coating material is sprayed on the bulk material in two phases within respective first and second rotatable tubular containers of the coating apparatus. In the first rotatable container, the bulk material is partially coated with a pre-set weight gain. In the second rotatable container, the bulk material is sprayed with a coating material to obtain a bulk material coated with the predetermined stational coating weight gain. A transition phase is provided between the two spray periods during which a load of coated bulk material from the first container is transferred at a transfer flow rate to the second container while a new load of bulk material is fed to the first container at the same flow rate as the transfer flow rate.

Abstract: A coating apparatus (1) and method are disclosed for coating tablets in a rotating drilled container (2) at the outlet of which a rotating annular element (11) operates that is coaxial with the container, in which in an initial transition phase the annular element rotates in a direction that is opposite the rotation direction of the container to retain the tablets inside the container, forming a bed of tablets until a desired level is reached, and in a stationary phase the annular element rotates in a direction that is the same as the rotation of the container to permit the exit of the tablets, until the quantity of tablets entering the container is the same that the quantity exiting.

Abstract: A coating apparatus and method are disclosed for coating tablets with a film, in which the tables transit through a drilled first container where they are coated, then exit the first container and are removed from a rotating element provided on the periphery of a plurality of removal members that are spaced angularly apart from one another, in which each removal member removes a quantity of tablets, raises the removed tables as far as a certain height and then discharges the tablets into a chute that conveys the tablets into a second rotating drilled container, with delicate transfer of the coated tablets from one container to the next.

Abstract: Method for coating bulk material comprises: starting a coating apparatus (1; 101) according to a start procedure on a discrete load of bulk material to be coated; operating the coating apparatus (1; 101) in stationary mode, by introducing a continuous flow of uncoated bulk material into the coating apparatus (1; 101) and obtaining at the outlet of said coating apparatus (1; 101) a continuous flow of coated bulk material having a predetermined stationary coating weight gain (W %); in which the coating apparatus (1; 101) comprises a first rotatable tubular container (2; 102) provided with a first dispensing device (5; 105) for dispensing coating material on the bulk material (M) in a plurality of internal successive adjacent spray zones between a first inlet and a first outlet of the first container (2; 102); a second rotatable tubular container (6; 106) arranged to receive bulk material (M) coming from the first container (2), the second rotatable tubular container (6; 106) being provided with a second dispens

Abstract: Described is a rotary pan (1) of the type comprising a central hollow cylindrical body (3) with end portions (4, 4?) shaped substantially like truncated cones, and mixing/deflecting means (7) attached to at least one inside surface of the pan (1) itself; the peripheral inside cylindrical surface (5) of the hollow body (3) comprises an extended zone (A) defined by a uniform distribution of through holes (6) and at least one zone (B) within the zone (A) forming an area by which the mixing/deflecting means (7) are attached or fixed to the peripheral surface (5).

Abstract: Described is a rotary pan (1) of the type comprising a central hollow cylindrical body (3) with end portions (4, 4?) shaped substantially like truncated cones, and mixing/deflecting means (7) attached to at least one inside surface of the pan (1) itself; the peripheral inside cylindrical surface (5) of the hollow body (3) comprises an extended zone (A) defined by a uniform distribution of through holes (6) and at least one zone (B) within the zone (A) forming an area by which the mixing/deflecting means (7) are attached or fixed to the peripheral surface (5).

Abstract: Described is a rotary pan (1) of the type comprising a central hollow cylindrical body (3) with end portions (4, 4?) shaped substantially like truncated cones, and mixing/deflecting means (7) attached to at least one inside surface of the pan (1) itself; the peripheral inside cylindrical surface (5) of the hollow body (3) comprises an extended zone (A) defined by a uniform distribution of through holes (6) and at least one zone (B) within the zone (A) forming an area by which the mixing/deflecting means (7) are attached or fixed to the peripheral surface (5).

Abstract: A unit (6) for checking the dosing of pharmaceutical material (M) in a capsule filling machine (1) for the production of capsules (CF) of the type with a capsule lid (C) and a capsule body (F), the machine (1) comprising a fixed structure (15) fitted with a rotary drum (2) for supporting a plurality of capsules (CF) on its edge, opening each capsule (CF) by separating the capsule lid (C) from the capsule body (F), filling the capsule body (F) with a dose of material (M), then closing the capsule body (F) again with the relative capsule lid (C); the rotary drum (2) having a tank (5) containing the pharmaceutical material (M) and supporting a plurality of doser elements (3), each comprising at least one piston (8) sliding inside a hollow cylinder (4) to pick up and compress a dose (DS) of material (M) from the tank (5) and discharge it into a capsule body (F) of a capsule (CF).

Abstract: A unit (6) for checking the dosing of pharmaceutical material (M) in a capsule filling machine (1) for the production of capsules (CF) of the type with a capsule lid (C) and a capsule body (F), the machine (1) comprising a fixed structure (15) fitted with a rotary drum (2) for supporting a plurality of capsules (CF) on its edge, opening each capsule (CF) by separating the capsule lid (C) from the capsule body (F), filling the capsule body (F) with a dose of material (M), then closing the capsule body (F) again with the relative capsule lid (C); the rotary drum (2) having a tank (5) containing the pharmaceutical material (M) and supporting a plurality of doser elements (3), each comprising at least one piston (8) sliding inside a hollow cylinder (4) to pick up and compress a dose (DS) of material (M) from the tank (5) and discharge it into a capsule body (F) of a capsule (CF).