referring to the figures of the accompanying drawings , reference numeral 1 denotes a rectangular tank , for example of stainless steel , having its bottom slightly convergent to the central portion where a valve fitted outlet is provided ( not shown ). the tank is mounted on any conventional load bearing framework , of which the supporting legs 2 are shown . the longitudinal walls 3 of the tank have at some reduced height from the bottom , guiding structural shapes 4 , secured in any known manner to said walls and made of plastics material of low friction coefficient , resistant to wear and associated with metal . these guide elements hve slidably mounted therein the side edges of elements 5 , made of stainless steel sheets , having a transverse profile formed by a plurality of saw teeth . said elements 5 are removably interconnected , as shown in fig3 particularly provided with at one end thereof two or more downwardly facing pins 6 , and at the other end , with the same number of correspondingly arranged holes 7 , in which said pins will be inserted . of course , it is within the scope of the invention that the use of only one element , or different means for removable coupling of the various elements to one another may be provided . the elements , as coupled and arranged in said guides , make up an inertial table on which the whole cheeses are laid . the first element of the table , that is the element nearest the loading location for the hot whole cheeses and which is at the right end of fig1 has at its end two vertical lugs 8 provided with transverse or horizontal pins 9 . each of such pins extend within a longitudinal slot 10 of an arm 11 . the two arms 11 are integral with a shaft 12 , which is rotatably carried by supports 13 integral with the tank 1 or framework supporting the latter . a lever 14 is integral with a projecting end of said shaft 12 and provided at the bottom with a longitudinal slot in which transversely extends a pin mounted between the arms of a fork 15 , the latter being integral with the stem or rod of a double - acting cylinder 17 . the cylinder is horizontally arranged and is secured to the tank or supporting framework . the two chambers of varying volume , in which the piston divides said cylinder 17 , are alternately connectable by lines 20 , 21 with a compressed air supply s or with the atmosphere a through the electromagnetic three - way valves 18 , 19 , which are interlocked , so that when one valve communicates with the atmosphere , the other communicated with said compressed air supply s and vice versa . an adjustable reducing valve 22 is placed in line 21 , so that the piston will move in the two directions at different speeds , and particularly at a lower speed when said line 21 is connected with supply s . owing to the described mechanical connection , this means that the inertial table ( formed of the assembly of elements 5 ) moves to and fro along the guides and such a movement is slow in the direction of arrow f and fast in the opposite direction . during the slow movement the whole cheeses advance with the table , on which they bear , in the direction of arrow f , while owing to the rapid movement in the opposite direction of the table said whole cheeses remain substantially still ( by inertia ) at the position taken with said slow movement . substantially , the movement of the whole cheeses is characterized by steps of advancement for a predetermined length alternated by dwelling steps . the hot whole cheeses are manually or by any known supply means introduced at the right end ( as seen in fig1 and 2 ) of the apparatus , compacted by contact with cold water moving in countercurrent , that is in opposite direction to arrow f , and are removed at the other end . reference numerals 23 and 24 respectively denote the inlet and outlet pipe unions for the cooling water . the saw tooth pattern of the table is provided in order to ensure the whole cheese advancement notwithstanding the countercurrent water circulation . thus , the whole cheeses will bear against the steepest corners or edges of the saw teeth . in order to remove the compacted whole cheeses from the tank , a device is provided on the left side of latter and comprises ( particularly see fig2 and 5 ) a short length of saw tooth sheet 30 which is a continuation of the inertial table ( formed of said elements 5 ) forming part of the movements of the latter . this end length 30 has coaxial pins 31 at one end , which are arranged in corresponding holes 32 of side tabs or fins 32a projecting from the last of said elements 5 . therefore , this end length can rotate about the axis of such pins . two heavy metal bars 33 are connected on the sides to said end length 30 adjacent said pins 31 , which bars are provided with additional weights 34 and tend to rotate the end length to the position of fig2 at which said bars will bear either on stops , or the guides , or inertial table . except that during unloading operations , to be discussed in the following said end length 30 is maintained at a horizontal attitude , that is in alignment with the inertial table , by the slotted lower side 35 of a blade 36 making up the basic portion of the device removing the compacted whole cheeses from the tank . the blade is made to occupy the end portion of the tank , to which it may be considered as conjugated and has a back wall 37 , which could also be slotted or perforated and two side frames 38 . said back wall is integral with a horizontal axis 39 , which is rotatably mounted on bearings 40 integral with the tank or supporting framework thereof . one projecting end of the axis of shaft 39 has secured thereto a crank 41 pivoted to the stem 42 of a pneumatic double - acting jack 43 , the cylinder of which is pivoted at 44 to one of the uprights 2 of the tank . the inertial table is operating . cooling water circulates within the tank from inlet 23 to outlet 24 . manually or by a feeder , the operator places the hot whole cheeses on the inertial table at the left side of the apparatus . the blade 36 and end length 30 are at the position shown in fig1 . owing to the alternative rhythmical movements at different speeds , the whole cheeses move leftward . the most advanced whole cheeses arrive at and move on the bottom wall 35 of said blade 36 . then , the operator operates said jack 43 , so that the blade rotates to the position of fig2 and by gravity unloads the compacted whole cheeses from the tank , while owing to the blade permeability the water falls down into the tank . during the blade rotation , the end length 30 rotates in opposite direction and for some length of its path adheres to said blade ( see fig2 ). the blade leaves said length 30 when the latter has reached its position of end of stroke . the rotation of length 30 performs the function of preventing further whole cheeses from arriving at the zone of said blade 36 . upon unloading of the compacted whole cheeses , the jack 43 is operated in reverse direction , so as to move the blade back to the position of fig1 . during this movement , the blade interferes with the end length 30 and also causes the latter to move back to the position of fig1 where the end of such a length is confined under the blade wall 35 . under these conditions , the whole cheeses can move along said length 30 and move back in the blade 36 . fig6 schematically shows a solution comprising three tanks 1a , b , c superimposed to one another and carried by a metal framework 50 . the hot whole cheeses to be compacted are loaded by a chute at one end of the upper tank 1a at r . sail whole cheeses fall down on the inertial table in the tank and made as previously described . at the tank end said blade s provides by means of chute t for transferring the partially compacted whole cheeses to the underlying tank 1b . the whole cheeses are transferred to the other end of this tank by means of an inertial table and therefrom transferred to the lower tank 1c by the usual blade u and a chute v . the inertial table of tank 1c carries the whole cheeses to the final unloading blade z . the reduced height of the inertial table and hence of the containing tank allows to provision of such structures as that of fig6 occupying a reduced horizontal space , which is particularly advantageous in dairies where the horizontal surfaces are particularly important . the stroke c of the table is advantageously selected to be 1 / 2 of the length of a saw tooth .
the compacting apparatus for whole cheeses comprises at least a tank containing cooling water , an inertial table carrying the whole cheeses from one end to the other end of said tank , and a balancing blade receiving the whole cheeses supplied from the table and unloading such whole cheeses from said tank .