The present invention provides an organoid culture device, comprising at least one first chamber for storing a culture medium; at least one second chamber for culturing an organoid; and a channel that interconnects adjacent chambers.

An intravaginal culture device includes an outer housing configured for vaginal insertion. The outer housing includes an upper portion that removably couples with a lower portion. A first inner vessel is located at the upper portion and is configured to house a first plurality of embryos. A second inner vessel is located at the lower portion and is configured to house a second plurality of embryos.

A microfluidic cell culture device is described. The device comprises a microfluidic network comprising a base, a microfluidic channel, and a cover, and at least one perfusion compartment and at least one support compartment inside the microfluidic channel The base and cover each comprise an aperture, thereby defining a conduit through the microfluidic channel. The aperture is in fluidic contact with the at least one support compartment, and with the at least one perfusion compartment through the at least one support compartment. Methods for creating a fluid-fluid interface and for investigating a cellular response to a stimulant using the device are also described.

An anaerobic digestion system is provided. The system includes a biomass storage container and a cover positioned over the biomass storage container, where the cover is sealed at an outer edge of the anaerobic digester. Weights may be arranged on the surface of the cover, and the sealed edges may form a water collection region. Additional systems, including thermal management, gas processing, energy storage and recovery, and sensing can also be included.

A culture container transportation set suitable for cultured state-maintaining transportation is provided. A culture container transportation set A1 includes: a culture container 13 including a vessel 13 made up of a bottom wall 11 and a tubular side wall 12 rising from the bottom wall 11; a flexible cover 2 covering an upper edge portion 121 of the side wall 12; a hard pressing member 3 provided on the cover 2; a cushioning material 4 of shape restorability; and a housing container 6 that houses the culture container 1, the cover 2, the pressing member 3 and the cushioning material 4 in an assembled state in which these components are stacked while pressing these components from above and below. The cushioning material 4 is provided between the housing container 6 and the culture container 1 or between the pressing member 3 and the housing container 6.

The present invention discloses a piezoelectric ultrasonic microinjection device based on a flexible hinge mechanism. The device includes: a cover, a flexible hinge mechanism, a base, a screw cap and an end cap fixedly assembled together, the base being provided with a pump interface; and a micropipette fixedly mounted in the base, the screw cap and the end cap and extending outward, the micropipette being in communication with the pump interface; wherein the flexible hinge mechanism comprises a housing, a piezoelectric ceramic package module encapsulated in the housing, a central shaft fixedly mounted with the piezoelectric ceramic package module and the base, and a vibration output shaft extending from the piezoelectric ceramic package module into the central shaft, a plurality of flexible hinge beams being disposed between the central shaft and the housing.

Incubators including an enclosure with an internal chamber configured to support a cell culture plate comprising a plurality of wells are disclosed. The enclosure includes a plurality of openings configured to allow access to the wells. The incubators include a sealing element configured to seal the plurality of openings in the enclosure. The sealing element comprises a plurality of openings corresponding to at least a subset of the plurality of openings in the enclosure. Access to the internal chamber can be provided by aligning the plurality of openings in the sealing element with the plurality of openings in the enclosure. Methods for using the incubators are also provided.

A cell culture device is provided. A cell culture device according to an exemplary embodiment of the present invention includes: a body including a culture space having an upper surface and lower surface that are open; a planar culture plate that is fixed to the body so as to cover the open lower surface of the culture space and forms a culture surface on which cells are cultured, the surface forming the culture surface being modified to allow the cells to easily attach to the culture surface; and a cover member that is fixed to the body so as to cover the open upper surface of the culture space.

Systems, devices, and methods for producing a tissue specimen and performing subsequent biomechanical testing thereof to quantify various biological/physiological properties and characteristics. The system may include a bioreactor device for producing the tissue specimen which includes a packaged/sealed seeding cup containing a scaffold in a sterile environment amenable to seeding with cells. After seeding, the cup may be stored in a standard laboratory culture tray for incubation. The produced tissue specimen may next be transferred to a testing instrument under control of a microcontroller which automatically performs a series of tests on the tissue and generates testing data communicated to an external electronic device which can operably interact with and control operation in part of the testing instrument via software. Tissue integrity in the instrument may be maintained by sterile fluid circulation and heating systems. The system advantageously provides efficient and reproducible tissue growth and analysis.

A reactor module includes a lower body, an upper body, a top cover and a culture vessel. The lower body defines and surrounds a bottom space that has an upper opening. The upper body is detachably connected atop the lower body. The top cover is disposed atop the upper body, and cooperatives with the upper body to define a receiving space that is disposed above the bottom space. The culture vessel is removably received in the receiving space, defines a culture reservoir, and includes a film member that is disposed under the culture reservoir, and that blocks the upper opening of the bottom space.