Abstract: Provided are methods and apparatus including an injector system adapted for injecting a microchip comprising: an inserter comprising a rod or tube having a proximal and distal end and having a point at the distal end that defines a skin-piercing side of the inserter; a means for engaging the microchip near the distal end of the inserter, but removed in the proximal direction from the distal tip of the inserter, which means prevents rotation of an engaged microchip in two or three axes of rotation; and means for releasing the microchip from the inserter once the inserter has been inserted into a perforatable substrate.

Abstract: Provided are methods and apparatus including an injector system adapted for injecting a microchip comprising: an inserter comprising a rod or tube having a proximal and distal end and having a point at the distal end that defines a skin-piercing side of the inserter; a means for engaging the microchip near the distal end of the inserter, but removed in the proximal direction from the distal tip of the inserter, which means prevents rotation of an engaged microchip in two or three axes of rotation; and means for releasing the microchip from the inserter once the inserter has been inserted into a perforatable substrate.

Abstract: Multiple samples are prepared in slurry form and deposited through a funnel plate by a multiprobe liquid handler into an array of inserts situated in openings in a housing. Each insert has a recess that extends through the insert body and a filter disc situated in the recess to support the sample. The filter is held in place by an annular part which defines a channel providing access to the filter through the lower portion of the recess. A pressure differential is created across each of the filters by attaching a vacuum manifold to the bottom of the housing to simultaneously remove the liquid from each of the samples, leaving the samples in powder form. The housing is then placed in the X-ray diffractometer for sequential analysis of each of the samples, while the samples are situated in the inserts.

Abstract: The base of the modular reactor includes a frame which defines an opening into which one of a plurality of interchangeable reaction vessel carrying inserts can be removeably received. Each insert has an array of recesses adapted to receive a different number of reaction vessels of different sizes. The recesses are positioned such that all arrays are suitable for use with a standard automated liquid handier. The frame has fluid flow channels for regulating the temperature of the lower portions of the vessels. A temperature control module can be received over the base to regulate the temperature of the upper portions of the vessels for reflux reactions. The corner radii of the insert and frame opening cooperate to permit the insert to be received in the frame in only one orientation. The walls of the insert are inclined to facilitate removal by a friction fit tool.

Abstract: Multiple parallel chemical reactions are performed under pressure in a reactor including a multi-row array of reaction vessels situated between a temperature control base and a fluid flow manifold. The manifold consists of an input portion connected to the fluid supply by a five-way valve and a distribution portion which includes separate parallel distribution channels, one for each row of reaction vessels. A control valve for each distribution channel is interposed between the manifold portions such that the fluid flow to each row of reaction vessels can be independently controlled. An explosion proof transparent shield can be situated between the base and manifold, surrounding the reaction vessels. The interior of the shield can be flooded with inert gas.

Abstract: Multiple samples are prepared in slurry form and deposited through a funnel plate by a multiprobe liquid handler into an array of inserts situated in openings in a housing. Each insert has a recess that extends through the insert body and a filter disc situated in the recess to support the sample. The filter is held in place by an annular part which defines a channel providing access to the filter through the lower portion of the recess. A pressure differential is created across each of the filters by attaching a vacuum manifold to the bottom of the housing to simultaneously remove the liquid from each of the samples, leaving the samples in powder form. The housing is then placed in the X-ray diffractometer for sequential analysis of each of the samples, while the samples are situated in the inserts.

Abstract: The base of the modular reactor includes a frame which defines an opening into which one of a plurality of interchangeable reaction vessel carrying inserts can be removeably received. Each insert has an array of recesses adapted to receive a different number of reaction vessels of different sizes. The recesses are positioned such that all arrays are suitable for use with a standard automated liquid handier. The frame has fluid flow channels for regulating the temperature of the lower portions of the vessels. A temperature control module can be received over the base to regulate the temperature of the upper portions of the vessels for reflux reactions. The corner radii of the insert and frame opening cooperate to permit the insert to be received in the frame in only one orientation. The walls of the insert are inclined to facilitate removal by a friction fit tool.

Abstract: Multiple parallel chemical reactions are performed under pressure in a reactor including a multi-row array of reaction vessels situated between a temperature control base and a fluid flow manifold. The manifold consists of an input portion connected to the fluid supply by a five-way valve and a distribution portion which includes separate parallel distribution channels, one for each row of reaction vessels. A control valve for each distribution channel is interposed between the manifold portions such that the fluid flow to each row of reaction vessels can be independently controlled. An explosion proof transparent shield can be situated between the base and manifold, surrounding the reaction vessels. The interior of the shield can be flooded with inert gas.