Abstract: In culture vessels for producing biological samples, it is possible to prevent decrease in a temperature at the time of taking out the culture vessels from an automatic culture apparatus and during delivery of the culture vessels which have been taken out from the automatic culture apparatus. This invention includes a culture vessel 201 holding a biological sample therein, a heat storage portion 701 holding the culture vessel, and a heat insulation portion 601 surrounding the heat storage portion. The whole circumference or a part of 609, 610, and 611 of the heat insulation portion 601 is removable depending on an arrangement environment.

Abstract: A culture apparatus that cultivates a culture, which includes an outer case, an inner case configured with metal plates inside the outer case, a heater outside the inner case, and a door, which opens/closes an opening formed in front faces of the inner cases, includes: shelf rests on which side parts of a bottom plate of a shelf are to be placed, the shelf rests formed by pressing on side plates of the inner case; and a heat transfer sheet attached to an outer surface of at least one of the side plates and configured to transfer heat of the heater to the inner case, the heat transfer sheet including slits, intermittently formed, to bend the sheet to depressions of the outer surface of the side plate at positions corresponding to the shelf rests, after the heat transfer sheet is attached to the outer surface.

Abstract: A certain material irregularly expressed in an observation area is effectively observed. An observing apparatus includes a first observing unit performing a time lapse shooting of a predetermined observation area, a first discriminating unit discriminating whether or not a first material is expressed in the observation area based on an image obtained by the first observing unit, and a second observing unit starting a time lapse shooting relating to a part where the first material is expressed at a timing when the first material is expressed in the observation area, in which a shooting frequency of the time lapse shooting by the second observing unit is higher than a shooting frequency of the time lapse shooting by the first observing unit.

Abstract: An incubator 1 includes a cultivating chamber 4 for cultivating culture in a plurality of containers 3 and a supply device 5 provided outside the cultivating chamber 4 and supplying steam into the cultivating chamber 4 for humidification. The supply device 5 includes a supply chamber 5A in which a tray 42 for reserving water is accommodated and an ultrasonic atomizing device 43 for atomizing water. The water in the tray 42 is easily made into steam by the ultrasonic atomizing device 43, passes through an HEPA filter 45 provided in an opening portion 5B and is supplied into the circulation passage 37 of the cultivating chamber 4.

Abstract: A nucleic acid amplification reaction vessel includes a first inner wall, and a second inner wall that is arranged opposite to the first inner wall, in which a distance between the first inner wall and the second inner wall is a length in which a nucleic acid amplification reaction solution comes into contact with both the first inner wall and the second inner wall when the nucleic acid amplification reaction solution is poured.

Abstract: The present invention relates to a cell culture flask for culturing a cell using a culture solution, particularly to a cell culture flask for culturing a cell without any contamination, to automatically introduce and discharge the culture solution or gases and to be stacked in turn, and a cell culture device having the same. The present invention provides a cell culture flask comprising a culture space; one or more culture solution inlet ports; one or more culture solution outlet ports; and one or more gas inlet ports, wherein the cell culture flask is made airtight and formed of a transparent material so that a user can see an internal portion of the cell culture flask, and a cell culture device having the same.

Abstract: A culture container includes a first transparent member being capable of keeping a predetermined temperature; a second transparent member facing to the first transparent member; a housing member to which the first transparent member and the second transparent member are adhered forming a culture space being capable of housing a well plate together with the first transparent member and the second transparent member; and a sealing member for sealing a liquid injected into the culture space between the first transparent member and the housing member.

Abstract: The present disclosure provides apparatus, systems, and methods for conducting rapid, accurate, and consistent heated amplifications and/or thermal melt analyses.

Abstract: This disclosure provides a thermocycler system for performing polymerase chain reaction. The thermocycler system can comprise a plurality of bus bars, a microplate, a clamp and a current application device in electrical communication with the bus bars. The clamp is suitable for forming a low resistance electrical connection between the microplate and an individual bus bar of the plurality of bus bars. In some instances, the clamp includes a spring-loaded pivot and a ram. Operation of the clamp forces the microplate into contact with the bus bar, or vice versa, to provide an electrical contact between the microplate and the bus bar. The microplate can comprise a substrate having a metallic material for heating samples, and a barrier layer disposed adjacent to the substrate.

Abstract: The present invention aims at providing an ion milling apparatus for emitting an ion beam to a sample to process the sample and capable of controlling the temperature of the sample with high accuracy regardless of deformation or the like of the sample being irradiated with the ion beam, and proposes an ion milling apparatus including at least one of a shield holding member for supporting a shield for shielding the sample from the ion beam while exposing a part of the sample to the ion beam; a shifting mechanism for shifting a surface of the sample stand in contact with the sample following deformation of the sample during irradiation with the ion beam, the shifting mechanism having a temperature control mechanism for controlling temperature of at least one of the shield holding member and the sample stand; and a sample holding member disposed between the shield and the sample, the sample holding member deforming following deformation of the sample during irradiation with the ion beam, for example.

Abstract: Method of detection for droplet-based assays. In an exemplary method, an open end of a channel network may be placed into an emulsion. Droplets of the emulsion may be driven along a flow path from the open end, through a confluence region where a dilution fluid is introduced into the flow path from at least one dilution inlet channel to increase an average distance between droplets, and through an examination region disposed downstream of the confluence region. Light may be detected from the examination region as droplets pass through. The channel network may include a droplet inlet channel that meets the at least one dilution inlet channel at the confluence region. The droplet inlet channel may form a tapered region that is sized such that droplets leave the tapered region in single file.

Abstract: In order to enable the inside of a constant-temperature device to be sterilized using sterilization gas and prevent contamination during incubation, even when provided with an atmosphere measuring means having a CO2 sensor and an oxygen concentration sensor, a sensor unit (100) is arranged inside or close to an incubation chamber, and the internal atmosphere is measured by sucking-in the atmosphere of the incubation chamber (2) by means of an air-flow generation means (20). Furthermore, high-precision filters (23, 24) are arranged in the flow channel through which the atmosphere within the incubation chamber (2) is taken-in/discharged, preventing bacteria and/or cells from flowing in, and also preventing the diffusion of sterilization gas to the inside of a sensor unit (100) during sterilization.

Abstract: Described are methods, cell growth substrates, and devices that are useful in preparing cell-containing graft materials for administration to patients. Tubular passages can be defined in cell growth substrates to promote distribution of cells into the substrates. Also described are methods and devices for preparing cell-seeded graft compositions, methods and devices for preconditioning cell growth substrates prior to application of cells, and cell seeded grafts having novel substrates, and uses thereof.

Abstract: Provided is constant-temperature equipment wherein maintenance is facilitated with the least failure, and highly reliable culturing and testing can be carried out. Mechanical and electrical structures are eliminated from the inside of a temperature-controlled chamber (15) by using a non-contact magnetic arrangement as a drive transmission for a sample table (5) and a sample table drive (6), thus reducing failure and enhancing maintainability. In addition, a conveyor (11) is provided with a pass box to minimize change in atmosphere during conveying. The sample table drive (6) and the conveyor (11) can be attached removably to the temperature-controlled chamber (15) to permit sterilization at high temperature.

Abstract: This patent application describes an integrated apparatus for processing polynucleotide-containing samples, and for providing a diagnostic result thereon. The apparatus is configured to receive a microfluidic cartridge that contains reagents and a network for processing a sample. Also described are methods of using the apparatus.

Abstract: Constant-temperature equipment wherein mechanical and electrical structures are eliminated from the inside of a temperature-controlled chamber (15) by using a non-contact magnetic arrangement as a drive transmission for a sample table (5) and a sample table drive mechanism (6), thus reducing failure and enhancing maintainability. In addition, a conveyance mechanism (11) is provided with a pass box adjacent which sliding shielding plates (9) are stacked vertically, and the shielding plates (9) are linked with the conveyance mechanism (11) by an engaging mechanism provided in the conveyance mechanism (11) to allow the plates to be opened and closed by a travel mechanism (12), thus simplifying the structure and minimizing change in atmosphere during conveying. The sample table drive mechanism (6) and the conveyance mechanism (11) can be attached removably to the temperature-controlled chamber (15) to permit sterilization at high temperature.

Abstract: An incubator including a container having an interior chamber capable of receiving a sample holder having samples, a lower heated surface disposed within the interior chamber of the container, and a movement mechanism coupled to the container and the lower heated surface. In one embodiment, the movement mechanism is configured to move the lower heated surface to a position in which the lower heated surface essentially contacts the sample holder. A method of rapidly heating and incubating a sample for biochemical or immunological testing is further disclosed.

Abstract: A thermocycler apparatus and method for rapidly performing the PCR process employs at least two thermoelectric modules which are in substantial spatial opposition with an interior space present between opposing modules. One or multiple sample vessels are placed in between the modules such that the vessels are subjected to temperature cycling by the modules. The sample vessels have a minimal internal dimension that is substantially perpendicular to the modules that facilitates rapid temperature cycling. In embodiments of the invention the sample vessels may be deformable between: a) a shape having a wide mouth to facilitate filling and removing of sample fluids from the vessel, and b) a shape which is thinner for conforming to the sample cavity or interior space between the thermoelectric modules of the thermocycler for more rapid heat transfer.

Abstract: A cell culture system having a cell culture vessel, a composition controlling fluid storage vessel, a culture fluid composition controlling means having an inlet and an outlet for a cell culture fluid, an inlet-connected fluid feeding circuit from the cell culture vessel to the inlet of the culture fluid composition controlling means, an outlet-connected fluid feeding circuit from the cell culture vessel to the outlet of the culture fluid composition controlling means, a means which perfuses the cell culture fluid from the inlet-connected fluid feeding circuit to the outlet-connected fluid feeding circuit through the culture fluid composition controlling means, and a means which controls the amount of fluid in the cell culture vessel, in which compositions of the cell culture fluid in the cell culture vessel and compositions of the composition controlling fluid in the composition controlling fluid storage vessel can be controlled in a continuous manner.

Abstract: A self-contained apparatus for isolating nucleic acid, cell lysates and cell suspensions from unprocessed samples apparatus, to be used with an instrument, includes at least one input, and: (i) a macrofluidic component, including a chamber for receiving an unprocessed sample from a collection device and at least one filled liquid purification reagent storage reservoir; and (ii) a microfluidic component in communication with the macrofluidic component through at least one microfluidic element, the microfluidic component further comprising at least one nucleic acid purification matrix; and (iii) at least one interface port to a drive mechanism on the instrument for driving said liquid purification reagent, through the microfluidic element and the nucleic acid purification matrix, wherein the only inputs to the apparatus are through the chamber and the interface port to the drive mechanism.

Abstract: A harvested sample preparation system includes an operation isolator 3 in which aseptic manipulation is executed, a harvested sample preparation personal box 4 which can be connected with the operation isolator 3 and a storage 5 that stores a plurality of harvested sample preparation personal boxes 4. The harvested sample preparation personal box 4 includes a first housing chamber 4Aa and a second housing chamber 4Ab, and a fluid appropriate for cell culturing is supplied to the first housing chamber 4Aa from a fluid supply pipe 16 included by the storage 5 while cooling fluid is supplied to the second housing chamber 4Ab from a cooling fluid supply pipe 18. The harvested sample preparation system that prevents mix-up and cross-contamination with a simple configuration can be provided.

Abstract: A system for fast, accurate and inexpensive thermal cycling is disclosed including a set of thermally conductive plates that are maintained in a fixed spatial relationship to each other, and separated from each other by a thermal insulating space. A hole having a size approximately equal to a size of a desired test sample is formed through the set of thermally conductive plates. The test sample is placed in the hole and moved back and forth between the different temperature plates, to the desired temperature locations for desired time periods, in a pattern that is determined by the user, and repeated as many times as needed for the specific process.

Abstract: A thermal cycling device for performing nucleic acid amplification on a plurality of biological samples positioned in a sample well tray. The thermal cycling device includes a sample block assembly, an optical detection system, and a sample well tray holder configured to hold the sample well tray. The sample block assembly is adapted for translation between a first position permitting the movement of the sample well tray into alignment with sample block assembly, and a second position, upward relative to the first position, where the sample block assembly contacts the sample well tray. A method of performing nucleic acid amplification on a plurality of biological samples positioned in a sample well tray in a thermal cycling device is also provided.

Abstract: A thermal cycle system and method suitable for mass production of DNA comprising a temperature control body having at least two sectors. Each sector has at least one heater, cooler, or other means for changing temperature. A path traverses the sectors in a cyclical fashion. In use, a piece of tubing or other means for conveying is placed along the path and a reaction mixture is pumped or otherwise moved along the path such that the reaction mixture is repetitively heated or cooled to varying temperatures as the reaction mixture cyclically traverses the sectors. The reaction mixture thereby reacts to form a product. In particular, polymerase chain reaction reactants may continuously be pumped through the tubing to amplify DNA. The temperature control body is preferably a single aluminum cylinder with a grooved channel circling around its exterior surface, and preferably has wedge-shaped or pie-shaped sectors separated by a thermal barrier.

Abstract: A system for fermentation of biomass is disclosed. The system comprises a method for producing a fermentation product in a fermentation system from biomass that has been pre-treated and separated into a first component and a second component. The method comprises the steps of supplying the first component to the fermentation system; providing an ethanologen to the fermentation system; maintaining the first component and ethanologen in the fermentation system; and recovering the fermentation product from the fermentation system. A fermentation system configured to produce a fermentation product from biomass that has been pre-treated and separated into a first component and a second component is disclosed. The system comprises a first vessel configured to receive the first component and an ethanologen and a second vessel configured to propagate the ethanologen for supply to the first vessel. A biorefinery for producing a fermentation product from biomass is also disclosed.

Abstract: In a closed system culture vessel to be used in an automated culture apparatus, some of the ports perform both liquid supply and gas supply functions. Culture medium is thereby made to flow always in one direction. The culture vessel is also configured so that, in the complete culture medium exchange process and the effluent recovery process for analyzing culture medium components, waste liquid medium does not get mixed into fresh culture medium.

Abstract: A random access, high-throughput system and method for preparing a biological sample for polymerase chain reaction (PCR) testing are disclosed. The system includes a nucleic acid isolation/purification apparatus and a PCR apparatus. The nucleic acid isolation/purification apparatus magnetically captures nucleic acid (NA) solids from the biological sample and then suspends the NA in elution buffer solution. The PCR testing apparatus provides multiple cycles of the denaturing, annealing, and elongating thermal cycles. More particularly, the PCR testing apparatus includes a multi-vessel thermal cycler array that has a plurality of single-vessel thermal cyclers that is each individually-thermally-controllable so that adjacent single-vessel thermal cyclers can be heated or cooled to different temperatures corresponding to the different thermal cycles of the respective PCR testing process.

Abstract: Methods of producing renewable materials may include consuming a fermentation feedstock with a fermentation organism to produce a renewable material in fermentation broth; water may then be separated from the feedstock or broth using one or more phase separations, or the renewable material may be concentrated from the feedstock or broth using one or more phase separations. Methods of producing biofuel components may include consuming a lignocellulosic or sugar fermentation feedstock with a fermentation organism to produce either ethanol or butanol in fermentation broth; cooling the feedstock or broth to solidify at least some water therein; and separating the solidified water from the feedstock or broth using a solid-liquid phase separation.

Abstract: The invention describes a novel spouted bed bioreactor system (SBBS) for the removal of Benzene, Toluene, Ethyl-benzene, o-,m-,p-Xylene (BTEX) from a contaminated air stream. Organic-degrading bacteria, Pseudomonas Putida, were immobilized in Polyvinyl Alcohol (PVA) matrices and utilized to degrade the BTEX in a specially-designed bioreactor system. The performance of the reactor system for the continuous biodegradation of BTEX in a contaminated air stream at different conditions was optimized.

Abstract: The invention relates to an apparatus for the conversion into biogas of fermentation stillage arising as a waste product of ethanol production. This apparatus comprises a separation unit for the separation of the fermentation stillage into a thin fraction and a thick fraction, at least one biogas reactor for fermenting the thin fraction and/or the thick fraction, and a storage tank. According to a first aspect of the present invention, two biogas reactors are provided, to separate the thin fraction and the thick fraction independently of one another. According to a second aspect of the present invention, a nitrogen sink is provided downstream of the storage tank to provide, from the reactor effluent, process water with low or no nitrogen content which may then be fed to the reactor and/or the bioethanol plant. According to a third aspect the invention is characterized by a combination of a single-stage separation unit and a heavy-duty biogas reactor with a pore-free flow path.

Abstract: The invention relates to a device for thermal cycling of biological samples, a heat sink used in such a device and a method. The heat sink comprises a base plate designed to fit in a good thermal contact against a generally planar thermoelectric element included in the device, and a plurality of heat transfer elements projecting away from the base plate. According to the invention the heat transfer elements of the heat sink and arranged in a non-parallel configuration with respect to each other for keeping the temperature of the base plate of the heat sink spatially uniform during thermal cycling.

Abstract: Systems and methods for processing and analyzing samples are disclosed. The system may process samples, such as biological fluids, using assay cartridges which can be processed at different processing locations. In some cases, the system can be used for PCR processing. The different processing locations may include a preparation location where samples can be prepared and an analysis location where samples can be analyzed. To assist with the preparation of samples, the system may also include a number of processing stations which may include processing lanes. During the analysis of samples, in some cases, thermal cycler modules and an appropriate optical detection system can be used to detect the presence or absence of certain nucleic acid sequences in the samples. The system can be used to accurately and rapidly process samples.

Abstract: The present invention relates to a laboratory incubator, more particularly, a gassing incubator, comprising an outer housing incorporating a door and an inner housing surrounding an internal chamber, which comprises a floor, a ceiling, three side walls and a lateral surface that is capable of being closed by said door or by an additional, inner door, and in which a flow channel is present, which comprises at least one air inlet opening in an end region and at least one air outlet opening in a different end region, wherein said at least one air outlet opening is formed such that effluent air is guided along at least one of the side walls and/or the lateral surface in the peripheral region of the internal chamber, and wherein a water reservoir capable of being heated is disposed within the flow channel such that air flowing in the flow channel is passed across or through said water reservoir.

Abstract: The present disclosure is related to a device for controlling thermal convection velocity of a biochemical reaction. The thermal convection velocity controlling device includes a base body for disposing a tube which is movable, wherein the tube is filled with a buffer of the biochemical reaction; a heating source located at a bottom of the tube or at a side of the tube to heat the buffer; and a flow rate adjusting apparatus for controlling a thermal convection flow direction of the buffer in the tube, whereby the flow rate adjusting apparatus changes a flow velocity and a flow time of the buffer. The present disclosure is also related to a method for controlling thermal convection velocity of a biochemical reaction using the device.

Abstract: A thermal cycler includes a holder to which a biotip having a longitudinal direction is attached in such a manner that one end portion of the biotip is at a higher level than the other end portion, and that the distance between one end portion of the biotip and the rotational axis is shorter than the distance between the other end portion of the biotip and the rotational axis, a heating unit heats a first end portion of the biotip, a rotating unit rotates the holder, and a controller that controls the rotation speed of the rotating unit. The controller has a first mode a rotation speed at which the magnitude of the centrifugal force acting on the reaction mixture becomes smaller than the gravity, and a second mode a rotation speed at which the magnitude of the centrifugal force acting on the reaction mixture becomes greater than the gravity.

Abstract: A microwell device is provided. The device includes a plate having a upper surface. The upper surface has first and second recesses formed therein. Each recess has an outer periphery. First and second portions of microwells are formed in upper surface of the plate. The first portion of microwells are spaced about the outer periphery of the first recess and the second portion of microwells spaced about the outer periphery of the first recess. A first barrier is about a first portions of the microwells for fluidicly isolating the first portion of the microwells and a second barrier about a second portions of microwells for fluidicly isolating the second portion of the microwells.

Abstract: Devices, containers, and methods are provided for performing biological analysis in a closed environment. Illustrative biological analyzes include nucleic acid amplification and detection and immuno-PCR.

Abstract: The present invention relates to a thermal cycler device for carrying reaction slides for assays with thermal cycling reactions. The thermal cycler device includes a conveyer with a plurality of slide holders for conveying slide plates through more than one temperature zones for thermal cycling reactions.

Abstract: An apparatus and method for rapid thermal cycling including a thermal diffusivity plate. The thermal diffusivity plate can provide substantial temperature uniformity throughout the thermal block assembly during thermal cycling by a thermoelectric module. An edge heater can provide substantial temperature uniformity throughout the thermal block assembly during thermal cycling.

Abstract: A bioreactor assembly, including: a housing internally defining a plurality of reaction chambers; a medium flow supply line associated with each of the plurality of reaction chambers, wherein the medium flow supply line associated with each of the plurality of reaction chambers is operable for delivering a medium flow to each of the plurality of reaction chambers; and one or more framed membrane cartridges selectively disposed within each of the plurality of reaction chambers, wherein each of the one or more framed membrane cartridges disposed within each of the plurality of reaction chambers is operable for holding a biochemically active material that is reacted when exposed to the medium flow.

Abstract: Provided is a small-scale cell culture apparatus having a culture medium replacement function for culturing cells in a small number of Petri dishes, the cell culture apparatus being capable of performing automatic replacement of the culture medium and cell culture within the same cavity and significantly reducing the apparatus cost. At least one set of upper and lower discs is arranged inside an incubator chamber 1. Petri dishes 4, 6 in each of which cells and a culture medium are put are held on lower discs 18, 19, and top lids 5, 7 are held on upper discs 19, 30. The lower side of each of the top lids is open.

Abstract: The invention relates to an arrangement (a measurement device) for on-line measurements on cells, in particular for measuring soluble analytes and dissolved gases on samples in a sample area.

Abstract: The present invention provides a microfluidic biochip, which comprises: a fluid transportation unit having a fluid transportation reservoir and a fluid transportation air chamber; a first fluid storage reservoir; a second fluid storage reservoir; a first valve unit having a first valve and a first valve control air chamber; and a second valve unit having a second valve and a second valve control air chamber; wherein the first valve unit is located between the first fluid storage reservoir and the fluid transportation unit, the second valve unit is located between the second fluid storage reservoir and the fluid transportation unit, and the top portion of the fluid transportation reservoir and the valves are made of a flexible material. The structure of the present microfluidic biochip allows fluids to be transported and/or mixed therein.

Abstract: The present invention comprises a waste-bio-fermenter device based on temperature control by means of heating and cooling an added liquid or gaseous solution, for energy-use optimization. The device makes it possible to utilize, for energy purposes, biomass and gases that result from anaerobic biodigestion in the thermophilic phase, said device differing from biodigesters currently offered in the market in that its temperature control is monitored, resulting in a shorter fermentation time, better quality, for energy-use purposes, of the produced dry material, and a high yield. The waste bio-fermenter has an elongate form and is built in a metallic structure comprising double partition lateral walls, sloping bottom to allow the solution runoff, and a ceiling with a hatchway. In the space between the partition walls heating of the liquid or gaseous solution placed therein occurs and then the heat present in the solution is transmitted to the internal cell.

Abstract: A thermocycling device includes a sample holder, a thermal reference and a heating and cooling device which is arranged between the sample holder and thermal reference. The heating and cooling device is in thermally conductive contact with the sample holder and with the thermal reference. The thermocycling device further includes a reference heating and cooling device for maintaining the temperature of the thermal reference at a predetermined temperature level during cycling, and a heat sink which is in thermally conductive contact with the reference heating and/or cooling device.

Abstract: A nucleic acid amplification reaction vessel has a substrate, a cavity formed in the substrate, a cover plate for sealing the cavity, and a sample-injection inlet formed in the cover plate. The cavity includes a columnar structure connected to the cover plate or the substrate. The nucleic acid amplification reaction vessel allows fast temperature increase or decrease of sample liquid.

Abstract: A cell culture kit for cultivating cells in a closed system that comprises at least one or more of each of: a culture container for cultivating cells; a culture medium storage container for storing a culture medium or the like; a cell injection container for injecting cells; and a cell collecting container for collecting a suspension of cells after cultivation; wherein the culture medium storage container is also used as a waste liquid container for collecting a culture medium after cultivation, and the culture container, the culture medium storage container, the cell injection container and the cell collecting container are linked to one another through a conduit. Also provided is a cell culture kit including at least one or more of a sampling container that is capable of sampling part of a suspension of cells during cultivation, wherein the sampling container is linked to the culture container through a conduit.

Abstract: Methods and devices for conducting chemical or biochemical reactions that require multiple reaction temperatures are described. The methods involve moving one or more reaction droplets or reaction volumes through various reaction zones having different temperatures on a microfluidics apparatus. The devices comprise a microfluidics apparatus comprising appropriate actuators capable of moving reaction droplets or reaction volumes through the various reaction zones.

Abstract: In one embodiment, a system includes a bioreactor coupled to a substrate. The bioreactor includes: a plurality of walls defining a reservoir; a plurality of fluidic channels in at least some of the walls; a fluidic inlet in fluidic communication with the reservoir via, the fluidic channels; a fluidic outlet in fluidic communication with the reservoir via the fluidic channels; and one or more sensors coupled to the reservoir, each sensor being configured to detect one or more of: environmental conditions in the reservoir; and physiological conditions of one or more cells optionally present in the reservoir. In another embodiment, a method includes delivering media to a reservoir of a bioreactor; delivering a, plurality of cells to the reservoir, controlling a reservoir temperature and a reservoir gas composition; using one or more of the sensors to monitor environmental and physiological conditions; and reporting the environmental and/or physiological conditions.

Abstract: The present invention pertains to an apparatus for holding cells. The apparatus comprises a mechanism for incubating cells having a dynamically controlled environment in which the cells are grown, which are maintained in a desired condition and in which cells can be examined while the environment is dynamically controlled and maintained in the desired condition. The apparatus also comprises a mechanism for determining the state of the cells. The determining mechanism is in communication with the incubating mechanism. The present invention pertains to a method for holding cells. The method comprises the steps of incubating the cells in a dynamically controlled environment which is maintained in a desired condition and in which the cells can be examined while the environment is dynamically controlled and maintained in the desired condition. Additionally, there is the step of determining the state of the cells.