Temperature regulating apparatus for a laboratory reaction vessel arrangement

Claim 1

An apparatus for regulating the temperature of a laboratory reaction vessel arrangement, comprising: means defining a thermal chamber surrounding the laboratory reaction vessel and through which a liquid heat exchange medium for transporting thermal energy can be conducted; said thermal chamber having a lower portion, means defining at least one inlet port located in said lower portion and means defining at least one outlet port located diagonally oppositely above said at least one inlet port; means for providing a thermally homogeneous flow of liquid heat exchange medium at a predetermined temperature and a predeterminate flow rate; means defining a nozzle assembly for introducing said thermally homogeneous flow of said liquid heat exchange medium into said lower portion of said thermal chamber through said at least one inlet port; said nozzle assembly including means for directing said thermally homogeneous flow substantially tangentially at means defining a containment wall of the laboratory reaction vessel at an upward inclination of at most 10° such that a substantially helical upward current is induced about the exterior of the laboratory reaction vessel; said directing means of said nozzle assembly including means for introducing said thermally homogeneous flow as a finely turbulent unidirectional flow such that the formation of a temperature gradient transverse to said substantially upward helical current is substantially prevented, such that a temperature-regulationally optimum temperature difference between said at least one inlet port and said at least one outlet port is permitted and such that microscopic thermal inhomogeneities are substantially prevented; means for measuring said temperature-regulationally optimum temperature difference and comprising a first temperature sensor at said at least one inlet port and a second temperature sensor at said at least one outlet port; and means for longitudinally translatably adjusting said nozzle assembly such that said temperature-regulationally optimum temperature difference is maximized at a constant value of said predeterminate flow rate for maintaining said turbulent unidirectional flow for as long a path as possible along said substantially upward helical current.

Claim 2

An apparatus for regulating the temperature of a laboratory reaction vessel arrangement, comprising: means defining a thermal chamber surrounding the laboratory reaction vessel and through which a liquid heat exchange medium for transporting thermal energy can be conducted; said thermal chamber having a lower portion, means defining at least one inlet port located in said lower portion and means defining at least one outlet port located diagonally oppositely above said at least one inlet port; means for providing a thermally homogeneous flow of liquid heat exchange medium at a predetermined temperature and a predeterminate flow rate; means defining a nozzle assembly for introducing said thermally homogeneous flow of said liquid heat exchange medium into said lower portion of said thermal chamber through said at least one inlet port; said nozzle assembly including means for directing said thermally homogeneous flow substantially tangentially at means defining a containment wall of the laboratory reaction vessel at an upward inclination of at most 10° such that a substantially helical upward current is induced about the exterior of the laboratory reaction vessel; said directing means of said nozzle assembly including means for introducing said thermally homogeneous flow as a finely turbulent unidirectional flow such that the formation of a temperature gradient transverse to said substantially upward helical current is substantially prevented, such that a temperature-regulationally optimum temperature difference between said at least one inlet port and said at least one outlet port is permitted and such that microscopic thermal inhomogeneities are substantially prevented; means for measuring said temperature-regulationally optimum temperature difference and comprising a first temperature sensor at said at least one inlet port and a second temperature sensor at said at least one outlet port; and means for longitudinally translatably adjusting said nozzle assembly such that said temperature-regulationally optimum temperature difference is maximized at a constant value of said predeterminate flow rate for maintaining said turbulent unidirectional flow for as long a path as possible along said substantially upward helical current.