Lorenz Seidler Gossel Part. mbB

Die vorliegende Erfindung betrifft einen Teleskopausleger mit einem Wippelement zum Wippen des Teleskopauslegers, einem Anlenkschuss und einem Tragelement, wobei das Tragelement mindestens an der Unterseite des Anlenkschusses angeordnet ist und eine Aufnahme, die zur Befestigung des Wippelements ausgebildet ist, aufweist, wobei der Teleskopausleger ein oder mehrere, insbesondere zwei, Bügelelemente aufweist, die mindestens an der Oberseite des Anlenkschusses angeordnet sind und mit dem Tragelement verbunden sind, sodass das Tragelement und das Bügelelement oder die Bügelelemente den Anlenkschuss umschließen.

Die vorliegende Erfindung zeigt ein Verfahren zur Verzahnbearbeitung, insbesondere zur Hartfeinbearbeitung, eines oder mehrerer Werkstücke (30) mittels eines verzahnten Feinbearbeitungswerkzeuges (20) mit unbestimmter Schneide, welches eine tonnenförmige Grundform aufweist, wobei das Feinbearbeitungswerkzeug (20) und das Werkstück (30) wälzgekoppelt miteinander rotieren, während das Feinbearbeitungswerkzeug (20) in mindestens einem Verzahn-Schnitt in einer Vorschub-Richtung parallel zur Rotationsachse des Werkstücks verfahren wird, um das Werkstück (30) über die Werkstückbreite zu bearbeiten. Dabei ist vorgesehen, dass zwischen der Bearbeitung zweier Werkstücke und/oder zwei Verzahn-Schnitten an einem Werkstück und/oder während eines Verzahn-Schnitts die Berührlinie zwischen Feinbearbeitungswerkzeug und Werkstück auf dem Feinbearbeitungswerkzeug gezielt verlagert wird, um einen anderen Bereich der Werkzeugoberfläche zum Einsatz zu bringen, indem der Neigungswinkel zwischen dem Feinbearbeitungswerkzeug (20) und dem Werkstück (30) verändert wird.

Mehrschalengreifer (10), umfassend mindestens drei doppelwirkende Plungerzylinder (12) mit jeweils einem Zylinder und einer darin verschiebbar gelagerten Kolbenstange (16), einen Kopfabschnitt (20) mit einem Verteiler, über welchen die Plungerzylinder mit Hydrauliköl versorgbar sind, einen Bodenabschnitt (20, 22), an welchem mindestens drei durch die Plungerzylinder bewegbare Greiferschalen (1) anbringbar sind wobei die Plungerzylinder zwischen Kopf- und Bodenabschnitt angeordnet sind, wobei Kopf- und Bodenabschnitt über parallel zu den Plungerzylindern verlaufende Schrauben (24) miteinander verbunden sind.

A stator coil is configured with a plurality of segment coils. A plurality of joining portions which are formed by electrically joining end portions of the plurality of segment coils include a plurality of first joining portions included in a first layer L1 and a plurality of second joining portions included in a plurality of second layers L2. A first end portion as the end portion of the segment coil to serve as an end portion of the stator coil is included in the first layer L1. The conductive member extends in a radial direction and is electrically joined to the first end portion. When seen from an outer side in the radial direction, a joining portion of the first end portion and the conductive member is positioned, in a circumferential direction, between the second joining portions included in the second layer L2, which is positioned on the outer side in the radial direction relative to the first layer L1, among the plurality of second joining portions.

The present invention comprises a transducer protector for an extracorporeal circuit, comprising: a main body comprising a fluid path; a first connector for fluidly coupling a first end of the fluid path to a pipe of the extracorporeal circuit; a second connector for fluidly coupling a second end of the fluid path to a pressure transducer interface; and a hydrophobic membrane arranged in the fluid path for separating the first end of the fluid path from the second end; wherein the second connector is a bayonet connector.

The present invention provides a first and a second a system for connecting a pipe of an extracorporeal circuit to a pressure transducer interface, the system comprising a transducer protector and an adapter, the transducer protector comprising a first main body comprising a first fluid path, a first connector for fluidly coupling a first end of the first fluid path to the pipe of the extracorporeal circuit, a second connector for releasably coupling a second end of the first fluid path to the adapter, and a hydrophobic gas-permeable membrane arranged in the first fluid path for separating the first end of the first fluid path from the second end; the adapter comprising a second main body comprising a second fluid path, a third connector for releasably coupling a first end of the second fluid path to the first fluid path of the transducer protector, and a fourth connector for releasably coupling a second end of the second fluid path to the pressure transducer interface. The second connector is a snap-fit connector and the third connector comprises a snap-fit counter-element for the second connector, or the fourth connector is a snap-fit connector configured to be connected to a counter-element of the pressure transducer interface.

Tubing connector having an inlet for a liquid and an outlet for the liquid as well a first tubing connector element and a second tubing connector element, wherein the inlet and the outlet. The connector comprises at least one first pressure measurement chamber for measuring the pressure of the liquid which is present in said first wherein the first chamber is fluidly arranged between the inlet and the first tubing connector element or between the outlet and the second tubing connector element. The measuring surface is arranged in an angled orientation w.r.t to pumping plane. Further, a blood treatment device is adapted to accommodate the tubing connector.

To enable efficient charging to be performed on a battery in low-temperature state a thermal management system S is described including a first circuit 100 that includes an electric heater 101 and performs temperature adjustment of a battery B, a second circuit 200 that performs temperature adjustment of a drive device E, and a control unit 600. The control unit 600 determines whether the temperature of the battery B is equal to or lower than a first temperature, executes first heating control that heats a heating medium in the first circuit using the electric heater 101 when it is determined that the temperature of the battery B is equal to or lower than the first temperature, and subsequently, when the temperature of the battery B becomes higher than the first temperature, connects the first circuit 100 and the second circuit 200 and executes second heating control that heats the heating medium using waste heat of the drive device E.

A thermal management system S includes oil coolers FC, RC of a drive device E, a refrigerant circuit 20, a chiller 30, a first circuit 100 that performs temperature adjustment of a battery B, a second circuit 200 that performs temperature adjustment of oil, a third circuit 300 including a radiator 301, and a fourth circuit 400 connected to the chiller 30. When the oil temperature is low, the first circuit 100 and the fourth circuit 400 are connected, and the second circuit 200 is disconnected. When the oil temperature is high, the first circuit 100, the second circuit 200, the third circuit 300, and the fourth circuit 400 are connected. To prevent waste heat of a battery from being absorbed by a drive device when the temperature of the drive device is low and enable the waste heat of the battery to be effectively used for heating.

A thermal management system S includes a refrigerant circuit 20, a chiller 30, a first circuit 100 that performs temperature adjustment of a battery B, a second circuit 200 that performs temperature adjustment of a drive device E, a third circuit 300 including a radiator 301, and a fourth circuit 400 connected to the chiller 30. A control unit 600 causes battery cooling in which the first circuit 100 and the fourth circuit 400 are connected and drive device cooling in which the second circuit 200 and the third circuit 300 are connected to be executed. During the execution of the battery cooling and the drive device cooling, the control unit 600 executes heat absorption inhibition control that inhibits heat dissipated from the outdoor condenser 23 from being absorbed by the radiator 301.