There are provided a vacuum transfer system installed in an microscope to prevent oxidation of a sample and a sample measurement method using the vacuum transfer system. The vacuum transfer system according to an embodiment is a vacuum transfer system installed in an microscope to prevent oxidation of a sample, and includes a housing having an open surface, wherein the surface has a coupling element for attaching or detaching to/from the microscope, and an inside of the housing is kept closed from outside as the housing is coupled with the microscope through the coupling element, a gas inlet through which an inert gas is introduced into the housing, a gas outlet through which an active gas in the housing exits with the introduction of the inert gas into the housing, and at least one glove formed to be connected with the inside of the housing.

Humidified sample preparation station for serial crystallography according to one embodiment is a humidified enclosure that delivers relative humidities above 95% and preferably above 97% in standard operation, and that can allow microscope observation of samples within. Humidified sample preparation station for serial crystallography can be used for preparation of protein crystal samples for examination using X-rays and for protein structure determination by X-ray crystallography, involving addition of liquid to the sample and removal of liquid from the sample using vacuum or suction.

According to embodiments of the present invention, a material transfer station provides a base frame equipped with a table member, a container tipper, an operator interface, and a connection to a power source. In operation, a destination container is positioned beneath the table member, and the container tipper holds a supply container. Solid matter may be conveyed from the supply container into the destination container through an opening in the table member. Modules may be attached to provide additional functionality, such as a receiving module, a containment module, a vibratory screener, a flexible film isolator, and a nitrogen purge system.

According to embodiments of the present invention, a material transfer station provides a base frame equipped with a table member, a container tipper, an operator interface, and a connection to a power source. In operation, a destination container is positioned beneath the table member, and the container tipper holds a supply container. Solid matter may be conveyed from the supply container into the destination container through an opening in the table member. Modules may be attached to provide additional functionality, such as a receiving module, a containment module, a vibratory screener, a flexible film isolator, and a nitrogen purge system.

The invention relates to a connection system for connecting an inside environment of a compartment to an environment outside said compartment, said compartment being isolated relative to the outside environment and said connection system, said connection system comprising a blocking device.

A test system and a corresponding method for testing the seal of a glove which is installed in a port of an isolator, including a test disc which can be connected in a hermetically sealed fashion to the port. The glove and test disc define a sealed glove volume which can be placed under excess pressure. The test disc has a pressure-measuring device with a microprocessor and a memory for recording and storing a pressure profile in the glove volume and a data interface. The glove and port have identification elements which are read by a reading device of the test disc and information concerning the pressure profile along with the identities of the glove and port are transmitted wirelessly to an evaluation unit which estimates and records a residual period of use of the glove. A plurality of gloves in ports can be tested simultaneously.

A test system and a corresponding method for testing the seal of a glove which is installed in a port of an isolator, including a test disc which can be connected in a hermetically sealed fashion to the port. The glove and test disc define a sealed glove volume which can be placed under excess pressure. The test disc has a pressure-measuring device with a microprocessor and a memory for recording and storing a pressure profile in the glove volume and a data interface. The glove and port have identification elements which are read by a reading device of the test disc and information concerning the pressure profile along with the identities of the glove and port are transmitted wirelessly to an evaluation unit which estimates and records a residual period of use of the glove. A plurality of gloves in ports can be tested simultaneously.

An isolator system including: a box-shaped body case having, in an interior thereof, a work space for operation in a sterile environment and also having, in a front surface thereof, an insertion portion into which a worker's arm is inserted; and an air-conditioning portion configured to supply gas in the work space of the body case or to discharge gas in the work space, a bottom of the work space being configured with a work plate, a discharge path configured to discharge gas in the work space being formed below the work plate, the work plate being configured with first and second work plates obtained by dividing the work plate into right and left parts, a receiving portion being located below the first work plate, the receiving portion being arranged extending towards the second work plate on a side edge of the first work plate, the side edge of the first work plate being in contact with the second work plate, a side edge of the second work plate for being in contact with the first work plate being placed detachably on the receiving portion.

An isolator system including: a box-shaped body case having, in an interior thereof, a work space for operation in a sterile environment and also having, in a front surface thereof, an insertion portion into which a worker's arm is inserted; and an air-conditioning portion configured to supply gas in the work space of the body case or to discharge gas in the work space, a bottom of the work space being configured with a work plate, a discharge path configured to discharge gas in the work space being formed below the work plate, the work plate being configured with first and second work plates obtained by dividing the work plate into right and left parts, a receiving portion being located below the first work plate, the receiving portion being arranged extending towards the second work plate on a side edge of the first work plate, the side edge of the first work plate being in contact with the second work plate, a side edge of the second work plate for being in contact with the first work plate being placed detachably on the receiving portion.

Disclosed is a repair unit (10) for a pod (11), especially a laser designation pod, including: a transportable casing (14); a bubble (18) attached to the casing (14), having a retracted state and a deployed state, the bubble (18) including an opening (46) for inserting part of a pod (11) and at least two projections forming tubes (50) for the hands of an operator, each tube (50) opening up in the bubble (18); and a gas supply device (22) for switching the bubble (18) front the retracted state to the deployed state. The casing (14) and the bubble (18) define an inner space sealed from outside pollutants in both the retracted state and in the deployed state.