Abstract: Methods, systems, and devices are disclosed for providing selective and non-selective cooling and warming of a patient. Multiple embodiments of devices are disclosed for performing rapid induction and maintenance of therapeutic hypothermia either in a hospital setting or in the field so that hypothermic treatment can be quickly instituted before significant tissue damage occurs. Methods are also disclosed for targeting brain cooling by irrigating the upper airway, aerodigestive tract, and/or more generalized cooling by irrigating the esophagus and/or stomach.

Abstract: Techniques for content delivery are disclosed. In accordance with one embodiment, the techniques may be realized as a method of content delivery comprising determining a slot of a webpage, determining a display area of a web browser displaying the webpage, determining a distance from the slot to a location of the display area, and comparing the distance to a first threshold, wherein the distance may be measured in pixels.

Abstract: Methods, systems, and devices are disclosed for providing selective and non-selective cooling and warming of a patient. Multiple embodiments of devices are disclosed for performing rapid induction and maintenance of therapeutic hypothermia either in a hospital setting or in the field so that hypothermic treatment can be quickly instituted before significant tissue damage occurs. Methods are also disclosed for targeting brain cooling by irrigating the upper airway, aerodigestive tract, and/or more generalized cooling by irrigating the esophagus and/or stomach.

Abstract: Cooling devices and method, such as those, for example, configured to cool the brain of a subject.

Abstract: Methods, systems, and devices are disclosed for providing selective and non-selective cooling and warming of a patient. Multiple embodiments of devices are disclosed for performing rapid induction and maintenance of therapeutic hypothermia either in a hospital setting or in the field so that hypothermic treatment can be quickly instituted before significant tissue damage occurs. Methods are also disclosed for targeting brain cooling by irrigating the upper airway, aerodigestive tract, and/or more generalized cooling by irrigating the esophagus and/or stomach.

Abstract: Methods, systems, and devices are disclosed for providing selective and non-selective cooling and warming of a patient. Multiple embodiments of devices are disclosed for performing rapid induction and maintenance of therapeutic hypothermia either in a hospital setting or in the field so that hypothermic treatment can be quickly instituted before significant tissue damage occurs. Methods are also disclosed for targeting brain cooling by irrigating the upper airway, aerodigestive tract, and/or more generalized cooling by irrigating the esophagus and/or stomach.

Abstract: Disclosed are systems and methods for manipulating chemical, biological, and/or biochemical samples, optionally supported on substrates and/or within chambers, for example biological samples contained on chips, within biological chambers, etc. In certain embodiments, an apparatus configured to be able to position a chamber or other substrate in one or more modules surrounding the apparatus is disclosed. The apparatus may be configured to be able to move the chamber or substrate in any set of directions, such as radially, vertically, and/or rotationally, with respect to the apparatus. The apparatus may be manually operated and/or automatically controlled. Examples of modules include, but are not limited to, stacking or holding modules, barcode readers, filling modules, sampling modules, incubation modules, sensor modules (e.g., for determining cell density, cell viability, pH, oxygen concentration, nutrient concentration, fluorescence measurements, etc.), assay modules (e.g.

Abstract: Various aspects of the present invention relate to light-interacting components suitable for use in chips and other reactor systems. These components may include waveguides, optical fibers, light sources, photodetectors, optical elements, and the like. If waveguides are used, they may be fashioned out of any material able to transmit light to or from the reaction site. The chip may contain a reaction site having a volume of less than about 1 ml. In some embodiments, the chip may be constructed in such a way as to be able to support a living cell. The chip may be used for imaging or analysis, or the chip may be used to facilitate a chemical or biological reaction, which may be light-sensitive or light-activated in certain cases. Other facilitated reactions may include the production or consumption of a chemical or biological species. In some embodiments, the chip may include more than one component or component type, or more than one reaction site.

Abstract: Computer-facilitated design of large-scale, multi-factorial cell culture experiments and the like, and control of reaction sites and/or arrays of reaction sites to perform such experiments using automated devices. In certain cases, the invention is directed to controlling a plurality of cell culture experiments, e.g., using an automated cell culture device. In one set of embodiments, a data structure or a “descriptor” for use with cell culture experiments is provided. The descriptor may be used, for instance, to control one or more cell culture experiments, to identify one or more cell culture experiments, and/or to identify or “tag” data arising from one or more cell culture experiments, e.g., for further analysis or recall.

Abstract: The present invention is directed to materials and reactor systems having humidity and/or gas control. The material may have high oxygen permeability and/or low water vapor permeability. In some cases, the material may have sufficient permeance and/or permeability to allow cell culture to occur in a chip or other reactor system using the material. In certain embodiments, the material may be positioned adjacent to or abut a reaction site within a chip or reactor; in other embodiments, the material may be positioned such that it is in fluidic communication with the reaction site. The material may also be porous and/or transparent in some cases. In one set of embodiments, the material include a polymer that is branched, and/or contains bulky side groups that allow the polymer to have a more open structure. In some cases, the material may include two or more layers.

Abstract: The present invention is directed to materials and reactor systems having humidity and/or gas control. The material may have high oxygen permeability and/or low water vapor permeability. In some cases, the material may have sufficient permeance and/or permeability to allow cell culture to occur in a chip or other reactor system using the material. In certain embodiments, the material may be positioned adjacent to or abut a reaction site within a chip or reactor; in other embodiments, the material may be positioned such that it is in fluidic communication with the reaction site. The material may also be porous and/or transparent in some cases. In one set of embodiments, the material include a polymer that is branched, and/or contains bulky side groups that allow the polymer to have a more open structure. In some cases, the material may include two or more layers.

Abstract: Fluid transfer devices described herein can include a body portion and a tip portion. A fluid pathway extends through the body and tip portions through which fluid may be transferred, for example, from a fluid-dispensing apparatus to a fluidic chamber of a microreactor. In some embodiments, the fluid transfer device is connected to the fluid-dispensing apparatus with an engaging element. The engaging element may be part of the body, and can enable the dispensing apparatus to repeatedly engage the body at one predetermined position. The body is capable of storing the fluid received from the dispensing apparatus. The tip portion may be formed of a rigid material (e.g., a metal), and/or may be configured to repeatedly pierce a septum without damaging either the tip or the body. Advantageously, in certain embodiments, the fluid transfer device can controllably transfer small volumes of fluid (e.g., 1 ?L) with a high degree of accuracy.

Abstract: The present disclosure generally relates to chemical, biological, and/or biochemical reactor chips and/or reaction systems such as microreactor systems, as well as methods for constructing and using such systems. In some cases, humidity control materials are utilized to provide beneficially high rates of gas exchange. The humidity control materials may be used, in certain instances, to provide at least adequate, and in certain embodiments superior, gas exchange for systems having small volumes. In some cases, the currently disclosed materials include certain polymers, e.g., poly(acetylene)s such as poly(alkylacetylene)s. The polymers may be at least partially halogenated (for example, fluorinated) in some instances. In certain embodiments, a chip and/or a reaction system may be constructed so as to promote cell growth within it. In some embodiments, the chips may include one or more reaction sites. The reaction sites can be very small, for example, with a volume of less than about 1 ml.

Abstract: Immiscible substances, such as gases, solids or liquids may be included within a reaction site container as a mixer of a liquid sample. Movement of the mixer within the container may help suspend or re-suspend cells or other species. Movement of the mixer also may generate shear forces that can affect cellular activity. In some embodiments, movement of the container brings about movement of the mixer. Containers may be mounted to a rotating apparatus in various orientations to achieve different travel paths of the mixer. Varying the rotation rate and/or the relative densities of the mixer and the liquid sample also may affect the mixer travel path.

Abstract: An apparatus for performing a biological or biochemical reaction that, in certain embodiments, has the ability to apply shear stress to a component of a liquid sample and includes a biological or biochemical reactor comprising a container having a volume of less than about 2 mL and containing a liquid sample, and a shear-generating element, the shear-generating element being contained within the apparatus and constructed and arranged so that the entire shear-generating element moves along a selected path of motion intersecting a first location within the apparatus and a second location within the apparatus, with or without rotational movement is described. A method of applying shear stress to a component of a liquid sample that includes moving a liquid or gaseous shear-generating element within an apparatus along a selected path of motion to create a reproducible and controllable level of shear stress at a selected location within the liquid sample is also disclosed.

Abstract: Chemical, biological, and/or biochemical reaction systems, including chips or reactors, may be configured so as to restrain immiscible materials such as gas bubbles from interfering with the determination of environmental factors associated with the chip according to one aspect of the invention. In another aspect, a chip or other reaction system may be configured to maintain a gas headspace in the chip or other reaction system. In certain embodiments, impediments such as physical barriers may be used to contain gas bubbles within a gas containing region, or otherwise away from a detection region. In other embodiments, surface tension properties may be used to control the location of gas bubbles. The chip or other reaction systems may include reaction site containers that can be very small, for example, having a volume of less than about 2 ml.

Abstract: The present invention generally relates to chips, particularly microfluidic chips, that are rotatable and/or have a generally circular or rotationally symmetric geometry. The chips may be substantially planar in certain instances. In some cases, the chips of the invention can have more than one reaction site, which can, for example, contain cells. The reaction site can be very small, in some cases with a volume of less than about 1 ml. Reactions, transport, and/or other manipulations within the chip can be facilitated by rotating the chip, for example, at tens, hundreds or thousands of revolutions per minute (RPM). In some cases, data may also be written to and/or read from the chip. The chips of the invention can be used, for example, to move fluid from one portion of a chip to another, to concentrate and/or separate a mixture (e.g., a cell suspension), to lyse or fractionate a cell, or the like.

Abstract: Disclosed are systems and methods for manipulating chemical, biological, and/or biochemical samples, optionally supported on substrates and/or within chambers, for example biological samples contained on chips, within biological chambers, etc. In certain embodiments, an apparatus configured to be able to position a chamber or other substrate in one or more modules surrounding the apparatus is disclosed. The apparatus may be configured to be able to move the chamber or substrate in any set of directions, such as radially, vertically, and/or rotationally, with respect to the apparatus. The apparatus may be manually operated and/or automatically controlled. Examples of modules include, but are not limited to, stacking or holding modules, barcode readers, filling modules, sampling modules, incubation modules, sensor modules (e.g., for determining cell density, cell viability, pH, oxygen concentration, nutrient concentration, fluorescence measurements, etc.), assay modules (e.g.

Abstract: The present invention generally relates to chemical, biological, and/or biochemical reactor chips and other reaction systems such as microreactor systems, as well as systems and methods for constructing and using such devices. In one aspect, a chip or other reaction system may be constructed so as to promote cell growth within it. In certain embodiments, the chips or other reaction systems of the invention include one or more reaction sites. The reaction sites can be very small, for example, with a volume of less than about 1 ml. In one aspect of the invention, a chip is able to detect, measure and/or control an environmental factor such as the temperature, pressure, CO2 concentration, O2 concentration, relative humidity, pH, etc. associated with one or more reaction sites, by using one or more sensors, actuators, processors, and/or control systems. In another aspect, the present invention is directed to materials and systems having humidity and/or gas control, for example, for use with a chip.

Abstract: The present invention generally relates to chemical, biological, and/or biochemical reactor chips and other reaction systems such as microreactor systems, as well as systems and methods for constructing and using such devices. In one aspect, a chip or other reaction system may be constructed so as to promote cell growth within it. In certain embodiments, the chips or other reaction systems of the invention include one or more reaction sites. The reaction sites can be very small, for example, with a volume of less than about 1 ml. In one aspect of the invention, a chip is able to detect, measure and/or control an environmental factor such as the temperature, pressure, CO2 concentration, O2 concentration, relative humidity, pH, etc. associated with one or more reaction sites, by using one or more sensors, actuators, processors, and/or control systems. In another aspect, the present invention is directed to materials and systems having humidity and/or gas control, for example, for use with a chip.