Tecan Trading Ag

Ortho Diagnostic Systems Inc.

Uster Technologies Ag

Tecan Genomics, Inc.

Toyota Industries Corporation

Martin Kuster

Marco Forster

Rosemary K Chachowski

Karl Puchegger

Walter Imfeld

Hansjoerg Kunz

Mykola Yaremko

Norbert Ziganek

Roger Volkart

Marcel Frischknecht

Gregor Batliner

Linus Flueler

Martin Gander

Beat Gretener

Philipp Ott

Nicolas Cors

Theo Meier

John Allan Sinclair

Patrik Scheiber

Matthias Dzung

Rafael Storz

Jürg Fenner

Carsten Meder

Arnold Spiess

Reagent cartridge

The invention concerns pipette tips for connecting to a pipette tube of a pipetting device are used for taking up and discharging fluids. The pipette tip is in the shape of an elongated tube forming a pipette body that has an opening at one end and is designed for connecting to the pipette tube at the other end. The pipette tip has a first electrode as a volume measuring electrode of a measuring capacitor and a second electrode as an immersion detector electrode. The first electrode is located on an outer surface of the pipette body or is embedded in the pipette body, and the second electrode is located at least partially on an inner surface of the pipette body.

Pipette tip for an automated pipetting device

A gripper having a mechanical coupling that can be connected to a pipetting tube, at least one fluid channel extends from the coupling and a negative pressure can be transmitted, the gripper having at least one suction cup that is connected to the coupling through the at least one fluid channel as a result of which the negative pressure can be transmitted from the coupling to the at least one suction cup, and the at least one suction cup in the intended use position of the gripper is aligned such that a rim of a suction cup of the at least one suction cup is aligned in a substantially vertical plane.

Gripper

A tube guidance means () for a laboratory automation system () comprises a plate () with a guide opening (); wherein the guide opening () has two partial openings () which are separated by a land () and which are connected by a slot (); and wherein the partial openings () have cutouts () for guiding a tube (), the cutouts () being located opposite each other on edges () which face away from each other.

Tube guidance means for a laboratory automation system

Eight channel pipetting arm

Four channel pipetting arm

A worktable for a laboratory automation system can include a worktop with a level surface and a support profile for supporting the worktop, bent from a metal sheet The support profile can include a facing edge, and an underside of the worktop can lie directly on the facing edge. The support profile can include at least one reception lug. The worktable can include a bolt-shaped fastener for attaching the worktop on the support profile. The bolt-shaped fastener can project through the worktop and be received in the reception lug.

Support profile for laboratory automation system

A connecting element with a screw-in element and a contact element. The screw-in element is pin-shaped and extends along a longitudinal axis, has a thread on its first free end, a drive profile and a reception on its second free end, wherein the contact element is arranged in the reception with its first free end and has a connecting pin on its second free end that extends beyond the screw-in element in the direction of the longitudinal axis, wherein the contact element has a spring that is arranged between the screw-in element and the connecting pin.

Connecting element

Yarn testing apparatus

A transport system for instruments utilized in the analysis of fluids and, more particularly, a transport system which is adapted to be employed in the automated analysis of blood samples. The transport system including cassette transporting and filling structure is provided to extend over and operatively interconnect various stations of a blood analysis apparatus consisting of a blood sample and reagent supply holder, a storage unit for empty cassettes, a carousel or rotor containing an incubator chamber and a chamber at room-temperature for the receipt and filling with blood samples of cassettes, a centrifuge and an automated optical readout rotor.

Transport system for fluid analysis instrument

A blood analysis system or instrument, generally, including an incubator station, a sample and reagent holding station, a pipette assembly, a centrifuge, an analysis station, and a transport assembly. Generally, the incubation station holds containers while reagents and fluids are being dispensed in those containers, and, if desired, for incubating the containers. The sample and reagent holding station holds samples and a plurality of reagents, and the pipette assembly transfers fluids from that sample and reagent holding station to containers in the incubation station. The centrifuge is provided for centrifuging the container, and the analysis station is provided to analyze the containers optically to identify reactions therein. The transport assembly carries the containers between the incubator station, the centrifuge, and the analysis station. Preferably, the pipette assembly is automatically operated to draw fluids and preselected reagents from the sample and reagent holding station, and to dispense fluids into the containers held in the incubation station to produce predetermined solutions therein. Also, the transport subassembly is automatically operated to carry containers from the incubator station to the centrifuge after the predetermined solutions have been produced in the containers, and then to carry the containers from the centrifuge to the analysis station.

Automated blood analysis system

Automated blood analysis system with an integral centrifuge

Growing community of inventors

Eschenbach, Switzerland

Martin Kuster