Abstract:
A winding arrangement for inductive components includes a first winding section comprising at least one first winding, the at least one first winding comprising at least two electrically isolated parallel flat band conductors being configured as a first flat band stack, a second winding section comprising at least one second winding, the at least one second winding comprising at least two electrically isolated parallel flat band conductors being configured as a second flat band stack. The first ends of the flat band conductors of the first winding section are cross connected in a cross connection to first ends of the flat band conductors of the second winding section such that a first current flow stacking sequence in the first flat band stack is reversed to a second current flow stacking sequence in the second flat band stack.
Abstract:
A multiphase and multipole electrical machine which can be commutated electrically is disclosed. The machine includes a rotor and a stator. The stator has multipole poles divided into zones, each zone corresponding to a respective phase of the machine. A winding conductor is associated with each phase, the conductor being passed in alternating directions around successive stator poles of the corresponding zone. Adjacent stator poles are spaced by a slot width substantially corresponding to the width of the winding conductor, portions of the winding conductor within a slot overlapping one another radially of a longitudinal axis of the stator.
Abstract:
A multi-gap inductor core includes magnetic lamination sheets made of magnetic core material arranged in a stack, and fixing layers made of a fixing material. Each fixing layer is arranged between a corresponding pair of adjacent magnetic lamination sheets. Each fixing layer also includes an embedded mechanical spacer that defines a gap having a predetermined thickness between a corresponding pair of adjacent magnetic lamination sheets.
Abstract:
A driving circuit for at least one voltage controlled power switch device comprises a driver signal generating circuit and a trigger signal generating circuit adapted to generate trigger signals for said voltage controlled power switch device (PT). The trigger signal generating circuit includes a first driving transistor, and at least one energy buffer component coupled between the trigger signal generating circuit and the control electrode of said power switch device (PT).
Abstract:
A driving circuit for driving half bridge connected electrically controlled power switches with a near zero interlock delay time between on-states of the power switches, wherein the driving circuit is configured to receive an input signal and to generate: —a first drive signal being adapted to switch a first power switch between the on and off state, —a second drive signal being adapted to switch a second power switch between the on and off state, wherein the signal curve of the first drive signal generated in response to a rising and falling edge of said input signal is mirrored with respect to the signal curve of the second drive signal along a time axis of a mirroring voltage value within a transition time, wherein the mirroring voltage value is adjusted such to be within the cutoff region of the power switches.
Abstract:
A driving circuit for driving half bridge connected electrically controlled power switches with a near zero interlock delay time between on-states of the power switches, wherein the driving circuit is configured to receive an input signal and to generate: —a first drive signal being adapted to switch a first power switch between the on and off state, —a second drive signal being adapted to switch a second power switch between the on and off state, wherein the signal curve of the first drive signal generated in response to a rising and falling edge of said input signal is mirrored with respect to the signal curve of the second drive signal along a time axis of a mirroring voltage value within a transition time, wherein the mirroring voltage value is adjusted such to be within the cutoff region of the power switches.
Abstract:
A winding arrangement for inductive components includes a first winding section comprising at least one first winding, the at least one first winding comprising at least two electrically isolated parallel flat band conductors being configured as a first flat band stack, a second winding section comprising at least one second winding, the at least one second winding comprising at least two electrically isolated parallel flat band conductors being configured as a second flat band stack. The first ends of the flat band conductors of the first winding section are cross connected in a cross connection to first ends of the flat band conductors of the second winding section such that a first current flow stacking sequence in the first flat band stack is reversed to a second current flow stacking sequence in the second flat band stack.
Abstract:
A driving circuit for at least one voltage controlled power switch device comprises a driver signal generating circuit and a trigger signal generating circuit adapted to generate trigger signals for said voltage controlled power switch device (PT). The trigger signal generating circuit includes a first driving transistor, and at least one energy buffer component coupled between the trigger signal generating circuit and the control electrode of said power switch device (PT).
Abstract:
The invention provides a flat band winding for an inductor core comprising at least one insulated conductive flat band having a first linear region, a second linear region, and a third linear region, wherein the third linear region is substantially orthogonally connected to said first linear region and to said second linear region such that said first linear region and said second linear region are displaced by a distance and run in parallel or anti-parallel, and wherein said first linear region and said second linear region are wound in opposite directions around the inductor core and around said third region.
Abstract:
The invention provides a multi gap inductor core, a multi gap inductor, transformer, and a corresponding manufacturing method and winding. The multi gap inductor core (1; 1′; 1″; 1′″), comprises a first plurality of magnetic lamination sheets (2a-2g; 2a′-2m′; 2a″-2n″) made of magnetic core material arranged in a stack and a second plurality of fixing layers (3a-3f; 3a′-3l′; 3a″-3l″) made of a fixing material. Each fixing layer (3a-3f; 3a′-3l′; 3a″-3l″) is arranged between a corresponding pair of adjacent magnetic lamination sheets (2a-2g; 2a′-2m′; 2a″-2n″) and includes mechanical spacer means (4; 4′) which define a gap (G) having a predetermined thickness (d2) between a corresponding pair of adjacent magnetic lamination sheets (2a-2g; 2a′-2m′; 2a″-2n″).