Abstract: A method for carrying out sequential reactions, e.g., sequential biochemical reactions, and a rotary thermocycling apparatus especially adapted for conducting such reactions, for example, polymerase chain reactions, are disclosed. The apparatus comprises a plurality of stations, e.g., four stations, for receiving biochemical samples in flat-bottomed containers. Heating means are provided to independently control the temperature of each station, transport means are provided to move the containers from one station to another in a predetermined sequence, and at least one station has a spray unit to spray liquid reagents into a container at that station. The method includes sequentially cycling a sample through predetermined temperature changes and spraying the sample with at least one reagent.

Abstract: A method for carrying out sequential reactions, e.g., sequential biochemical reactions, and a rotary thermocycling apparatus especially adapted for conducting such reactions, for example, polymerase chain reactions, are disclosed. The apparatus comprises a plurality of stations, e.g., four stations, for receiving biochemical samples in flat-bottomed containers. Heating means are provided to independently control the temperature of each station, transport means are provided to move the containers from one station to another in a predetermined sequence, and at least one station has a spray unit to spray liquid reagents into a container at that station. The method includes sequentially cycling a sample through predetermined temperature changes and spraying the sample with at least one reagent.

Abstract: A rotary thermocycling apparatus, especially for biochemical reactions. The apparatus comprises a plurality of and especially at least four stations for receiving biochemical samples in a flat-bottomed container. Each station has a flat heated plate on which the container is placed and means to independently control the heated plate at a pre-determined temperature.