The present invention relates to an improved water pipe comprising a chamber containing water in its lower portion, its upper compact cylindrical portion serving as a smoke collection reservoir; a bowl for combusting tobacco or medicinal herbs, the smoke directed through a tube to the water chamber below the water; and a mouth piece for applying suction to the interior of the chamber to inhale the smoke.

Systems and devices for the isolation of biological agents that are infused in a solution causing those agents to float. These systems and devices have numerous research, diagnostic, clinical, consumer, and other applications. An aspect of the disclosure provides for an apparatus for isolation or enrichment of biological agents from a sample comprising: a sample container comprising an inner volume to hold a sample and a plurality of micro bubbles, a tapered end and an open end, a plunger inserted into the open end and a tip of the tapered end forming an acute angle relative to the horizontal axis of the sample container, wherein the plurality of micro bubbles float one or more biological agents of the sample and wherein the plunger moves towards the tip to isolate or enrich the one or more biological agents from the sample.

An analytical system and method for detecting volatile organic chemicals in water including a coated SAW detector that provides for improved reduction of moisture at the coating of the SAW detector. A stabilized SAW sensitivity and long lasting calibration is achieved. The analytical system further includes an improved sample vessel and sparger that allow for easy grab sample analysis, while also providing efficient purging of the volatile organic compounds from the water sample. In addition, an improved preconcentrator provides a stabilized sorbent bed.

Disclosed are an apparatus for analyte sampling, and a method of analyte sampling and an analyte sampling analysis system using the same. The apparatus includes a spray unit to receive a trapping solution and an analyte sample, and to mix and spray the analyte sample and the trapping solution of an aerosol state together, a spray chamber to provide a space to primarily trap an analyte material, which is contained in the analyte sample, in the trapping solution of the aerosol state, a trapping tube to secondarily trap the analyte material, which is not trapped in the spray chamber, by receiving the analyte sample and the trapping solution in the aerosol state from the spray chamber and mixing the trapping solution with the analyte sample, a trapping container to receive the trapping solution having the analyte material trapped therein through the trapping tube, and a sample transfer unit to feed purge gas into the trapping container to transfer the trapping solution having the analyte material trapped therein to an analysis unit through a sample transfer line by the purge gas.

The present invention discloses a sampling and detection device for detecting volatile organic content in water, comprising a hollow sampler (3) and a gas detector (2) connected to the sampler (3). A side wall of a lower half of the sampler (3) is provided with more than one water inlet channel (1), and a lower end is provided with a gas bubbler (10). Said detection device ensures measurement accuracy and continuity while facilitating in-situ detection.

The present invention relates to a glass laboratory apparatus that eliminates a pre filter and a provides a simpler vaporizing platform in fluid communication with a fitted disc filter arranged in an exhaust chamber to scrub solids from a gas using water filtration. A preferred embodiment of the present invention includes a main vessel adapted to hold a volume of a liquid such as water and an inlet conduit with an opening above the liquid level in the main vessel. The inlet conduit includes a vaporizing platform with a platform having four ventilated regions surrounding the platform.

Embodiments are generally related to differentiating and/or separating portions of a sample that are of interest from the remainder of the sample. Embodiments may be directed towards separating cells of interest from a cell sample. In some embodiments, acoustic impedances of the cells of interest may be modified. For example, the acoustic properties of the cells of interest may be modified by attaching bubbles to the cells of interest. The cell sample may then be subjected to an acoustic wave. The cells of interest may be differentiated and/or separated from the remainder of the sample based on relative displacements and/or volumetric changes experienced by the cells of interest in response thereto. The cells of interest may be separated using a standing wave and sorted into separate channels of a flow cell. Optionally, the cells may be interrogated by a light source and differentiated by signals generated in response thereto.

Systems and devices for the isolation of biological agents that are infused in a solution causing those agents to float. These systems and devices have numerous research, diagnostic, clinical, consumer, and other applications. An aspect of the disclosure provides for an apparatus for isolation or enrichment of biological agents from a sample comprising: a sample container comprising an inner volume to hold a sample and a plurality of micro bubbles, a tapered end and an open end, a plunger inserted into the open end and a tip of the tapered end forming an acute angle relative to the horizontal axis of the sample container, wherein the plurality of micro bubbles float one or more biological agents of the sample and wherein the plunger moves towards the tip to isolate or enrich the one or more biological agents from the sample.

Systems, methods, and sampling probes for chemically testing a liquid sample are provided. In accordance with one embodiment of the present disclosure, a system generally includes a sample container for containing a liquid, wherein the liquid includes a chemical compound of interest and a reducing agent, and a non-corrosive sampling probe comprising a first channel for delivering a flow of gas to the liquid sample, and a second channel for purging sample fluid from the sample container, wherein at least a portion of the sampling probe is in contact with the liquid.

A debubbling sleeve for a fluid sensor of a sensor system is disclosed. The debubbling sleeve has a receptacle closed circumferentially around a sleeve bottom and a first passageway extending through the sleeve bottom. The receptacle contains the fluid sensor.