217results about "Hazardous material storage" patented technology

In one embodiment, a cold storage system for biological samples has one or more freezers, each freezer having one or racks, each rack receiving one or more boxes, each box receiving one or more sample containers. In addition to the biological sample, each sample container has a unique passive RFID tag. Control electronics in each box energize reader coils to query individual RFID tags. Control electronics in each rack communicate with and provide power to the control electronics of each corresponding box, and control electronics in each freezer communicate with and provide power to the control electronics of each corresponding rack, and a host computer communicates with the control electronics in each freezer. In each instance, communication and power provisioning is implemented using magnetic inductive coupling. The system is able to determine the identity of each sample container in the system and maintain that information in a database.

An automated (robotic) floor cleaner (100) is adapted to allow sterile cleaning of sensitive environments, such as hospital room. In particular, the floor-cleaner chassis (124) is redesigned to be mounted on a deck (102) containing cleaning devices that contact the floor. The cleaning devices mounted on the deck (102) include vacuum head (132), brushes (120), cleaning fluid sprays (128), and conceivably sanitizing devices such as UV germicidal light, are provided pre-sterilized. As such, the adapted floor-cleaner chassis (124) allows the deck (102) to be mounted to the bottom of the chassis (124), the floor-cleaner (100) is then used to clean a floor, after which, the deck (102) is removed from the chassis (124) and disposed. The robotic-floor cleaner (100) and sterilization system cleans floor between or even during cases. Further, the robotic floor cleaner (100) reduces the “turnover time” required between cases, as it operates simultaneously while the staff prepares the room for the next case.

A environmental containment system (16) for a flow cytometer (21) which provides a adjustably controllable environment in which biological particles can be differentiated and droplets separated into collection containers (15).

The invention relates to a chemical intelligent management method and a chemical intelligent management system. The system comprises a chemical intelligent cabinet, a cloud server, and intelligent terminal software. The chemical intelligent cabinet is connected to the cloud server in a wired or wireless manner. The intelligent terminal is connected to the cloud server in a wired or wireless manner. The chemical intelligent cabinet is used for storing a variety of chemicals with label information and sending corresponding chemical information to the cloud server. The cloud server is used for receiving and storing chemical information and processing data. The intelligent terminal software is used for issuing a receiving or returning request to the chemical intelligent cabinet via the cloud server, and implementing orderly reception or return of chemicals after the cloud server responds to the request and sends out an authorization signal. According to the chemical intelligent management system of the invention, the communication and Internet-of-things technologies are utilized and the intelligent security cabinet is taken as a carrier to make a chemical storage step, a chemical reception step and a chemical return step implemented in an intelligent, remote and informationized manner.

The present invention relates to a reagent refrigerator which comprises a reagent refrigerator compartment including reagent storing trays; an upper housing a cooling equipment compartment and a cooling purification compartment; a side duct defined by a side partition having a through hole at the side of the reagent refrigerator; one each of a second side duct, separately defined by a side partition having a through hole at the other side thereof, and a rear duct, separately defined by a rear partition having a through hole at the rear side thereof; and an upper duct having one end communication with the upper portion of the second side or rear side, and the other end communicating with the cooling purification compartment. Accordingly, refrigeration temperature of the reagent refrigerator can be controlled, and circulation flow in the reagent refrigerator is improved, to thereby purify the air therein and minimize deviations from refrigerator temperature values. In addition, since the reagent refrigerator is based on a closed circulation type structure, impurities are prevented from being introduced to the reagent refrigerator to thereby increase the service life of the filter and reduce energy consumption. Moreover, even when the door of the reagent refrigerator is opened, negative pressure distribution in the reagent refrigerator is relatively even, thereby preventing the emission of noxious gas and an offensive smell from the reagent refrigerator compartment to the indoor space. More particularly, the reagent refrigerator may be modified to have a partial opening circulation structure without a heater to thereby prevent explosions and to perform a defrosting/dehumidifying operation so that safety and economic feasibility can be improved. In addition, the reagent refrigerator can be automatically controlled and the internal condition of the reagent refrigerator compartment can be monitored in real time. Furthermore, not only can on-site/real-time control be executed, but remote control as well.

An enclosure for handling hazardous material includes a sealable housing which is configured with a first air inlet connected to a bubble gauge and a second air inlet disposed inside the housing for air evacuation from the housing is connected to a pump for maintaining subatmospheric pressure in the enclosure and for drawing a stream of air inwardly through the first air inlet via the bubble gauge into the housing and out the second air inlet. A filter interposed in the stream of air leading to the second inlet. At least one glove port is formed in the housing and has a flexible relatively gas impermeable glove connected thereto. An air exchange port in the housing is operably connected to a sealed bellows which provides for changes in air volume within the enclosure which occurs from moving the glove within the enclosure under subatmospheric pressure.

A reverse oblique air curtain exhaust cabinet comprises a cabinet that has a bottom plate and an elongate air blow slot is provided in front of the bottom plate. Through the elongate air blow slot, air is blown upward at an oblique angle toward the rear plate of the cabinet. An air-extraction hood is provided in a space defined above the bottom plate in a way of being vertically movable relative to the cabinet. The air-extraction hood has an elongate air-extraction part that is parallel to the elongate air blow slot in a way that the elongate air-extraction part is above and spaced from the elongate air blow slot toward the rear plate of the cabinet. Thereby, an oblique air curtain that flows upward is formed to remove the pollutants between the oblique air curtain and rear plate and left and right lateral plates in a more energy-saving way.

This invention relates to a safe air exhausting device. It includes air outlet opening casing, air exhausting filter, air absorbing filter, scanning device and cover for anti-poisoning. The said air exhausting filter is arranged in the air outlet opening casing. Its end face has double-faced sealing adhesive tape. Positive pressure cavity is formed between the said air outlet opening casing and air exhausting filter. The air outlet opening casing is arranged with positive pressure tap. The said air absorbing filter is arranged at the external side of the air inlet opening of ventilation system. Its outlet opening communicates to the said air inlet opening. The outlet opening of air absorbing filter connects to the said positive pressure tap and communicates to the positive cavity through air absorbing hose. The scanning device is at the posterior wall of air outlet opening casing and detects the air exhausting filter. Thus, this invention fulfills non-leaking air exhaustion and detection through air exhaustion.

The invention discloses a laboratory wastewater collecting device comprising a collecting device body, wherein the collecting device body is a hollow rectangular parallelepiped structure, an opening is arranged at the top end of the collecting device body, a liquid inlet tank is connected with the opening, the liquid inlet tank is a hollow structure, and the inside of the liquid inlet tank is provided with a material unloading plate; the bottom end of the material unloading plate is provided with a material unloading port, the bottom end of the liquid inlet tank is provided with two symmetrically-arranged vertical rods, and the vertical rods are located below the material unloading plate; the bottom ends of the vertical rods pass through the bottom end of the liquid inlet tank and are connected with horizontal plates, and a stopper is connected between the two horizontal plates; the stopper is slidably connected with the material unloading port, and the vertical rods are sleeved with second springs. The laboratory wastewater collecting device has a novel structure, can effectively prevent volatile substances in waste liquids from volatilizing into the air to endanger people's health, and can filter waste water to prevent solid residues in the waste water from directly flowing into a sewage channel and polluting people's domestic water and living environment.

A method and apparatus for controlling a fume hood. A containment condition, i.e., a condition that may affect containment of potentially harmful substances in the hood, may be detected, and information regarding the detected condition sent by wireless signal. A fume hood controller may control at least airflow in the hood based on the information contained in the wireless signal.