Abstract: A conveyor system for displacing passenger/goods formed by a moving endless belt comprising a plurality of pallet assemblies and drive means to transmit a drive movement to the pallet belt. The pallets have a functional surface opposite to the support surface and having first meshing means. The drive means comprise second meshing means designed to interact with the first meshing means, so that the drive pallets, are driven by the drive means by means of a meshing between the first meshing means and the second meshing means and to drive said pallet belt in the movement direction D. The drive means have a linear motor aligned with the movement direction D.

Abstract: An example drive system for a transportation system may include an actuator for transmitting an actuation motion from a motor, a first pulling device configured to transmit a pulling motion from the actuator to moving parts of the transportation system in a transition speed section situated between an embarking/disembarking zone and a middle zone, a second pulling device configured to transmit a pulling motion from the first pulling device to the moving parts of the transportation system in a high-speed section in a middle zone of the transportation system. In some examples, the first pulling device may be a carriage.

Abstract: Example drive systems for handrails of walkways and moving stairs may comprise a plurality of carriages. In some examples, each carriage may comprise a body with several leading rollers that roll along a guide that defines a handrail path. The carriage may further comprise a locking/release mechanism for selectively coupling the carriage to a drive chain of the handrail. The locking/release mechanism may comprise a hook configured to move between an engagement position wherein the carriage is coupled to the drive chain and a disengagement position wherein the carriage is uncoupled from the drive chain. In some cases, a position of the hook may be controlled by a wheel that travels along a cam profile.

Abstract: Example drive systems for handrails of walkways and moving stairs may comprise a plurality of carriages. In some examples, each carriage may comprise a body with several leading rollers that roll along a guide that defines a handrail path. The carriage may further comprise a locking/release mechanism for selectively coupling the carriage to a drive chain of the handrail. The locking/release mechanism may comprise a hook configured to move between an engagement position wherein the carriage is coupled to the drive chain and a disengagement position wherein the carriage is uncoupled from the drive chain. In some cases, a position of the hook may be controlled by a wheel that travels along a cam profile.

Abstract: An example drive system for a transportation system may include an actuator for transmitting an actuation motion from a motor, a first pulling device configured to transmit a pulling motion from the actuator to moving parts of the transportation system in a transition speed section situated between an embarking/disembarking zone and a middle zone, a second pulling device configured to transmit a pulling motion from the first pulling device to the moving parts of the transportation system in a high-speed section in a middle zone of the transportation system. In some examples, the first pulling device may be a carriage.

Abstract: A conveyor system for displacing passenger/goods formed by a moving endless belt comprising a plurality of pallet assemblies and drive means to transmit a drive movement to the pallet belt. The pallets have a functional surface opposite to the support surface and having first meshing means. The drive means comprise second meshing means designed to interact with the first meshing means, so that the drive pallets, are driven by the drive means by means of a meshing between the first meshing means and the second meshing means and to drive said pallet belt in the movement direction D. The drive means have a linear motor aligned with the movement direction D.

Abstract: Conveyor system for the transportation of passengers (21)/goods (22) formed by a bearing structure (1a), a loading/unloading area (1b) and a traction equipment (4a, 19, 20), which also comprises mobile platforms (3, 6, 7, 8, 16, 26) dragged by the traction equipment (4a, 19, 20), for the reception and transport of passengers (21)/goods (22) from a loading area to an unloading area. The mobile platforms (3, 6, 7, 8, 16, 26) have side walls (25) to define a compartment and prevent passengers (21)/goods (22) from interfering with the guiding device (4b) thereof in a carryway, from a loading area (1b) to an unloading area (1b), and in a return way, from an unloading area (1b) to a loading area (1b).

Abstract: Conveyor system for the transportation of passengers (21)/goods (22) formed by a bearing structure (1a), a loading/unloading area (1b) and a traction equipment (4a, 19, 20), which also comprises mobile platforms (3, 6, 7, 8, 16, 26) dragged by the traction equipment (4a, 19, 20), for the reception and transport of passengers (21)/goods (22) from a loading area to an unloading area. The mobile platforms (3, 6, 7, 8, 16, 26) have side walls (25) to define a compartment and prevent passengers (21)/goods (22) from interfering with the guiding device (4b) thereof in a carryway, from a loading area (1b) to an unloading area (1b), and in a return way, from an unloading area (1b) to a loading area (1b).

Abstract: A high speed and low power method to control and switch the magnetization direction and/or helicity of a magnetic region in a magnetic device for memory cells using spin polarized electrical current. The magnetic device comprises a reference magnetic layer with a fixed magnetic helicity and/or magnetization direction and a free magnetic layer with a changeable magnetic helicity. The fixed magnetic layer and the free magnetic layer are preferably separated by a non-magnetic layer, and the reference layer includes an easy axis perpendicular to the reference layer. A current can be applied to the device to induce a torque that alters the magnetic state of the device so that it can act as a magnetic memory for writing information. The resistance, which depends on the magnetic state of the device, is measured to thereby read out the information stored in the device.

Abstract: The present invention provides compositions and methods for identifying persons at an increased risk of infection by, transmission of, or accelerated progression of a disease caused by an HIV-1 virus. Diagnostic and therapeutic kits are also provided.

Abstract: A high speed and low power method to control and switch the magnetization direction and/or helicity of a magnetic region in a magnetic device for memory cells using spin polarized electrical current. The magnetic device comprises a reference magnetic layer with a fixed magnetic helicity and/or magnetization direction and a free magnetic layer with a changeable magnetic helicity. The fixed magnetic layer and the free magnetic layer are preferably separated by a non-magnetic layer, and the reference layer includes an easy axis perpendicular to the reference layer. A current can be applied to the device to induce a torque that alters the magnetic state of the device so that it can act as a magnetic memory for writing information. The resistance, which depends on the magnetic state of the device, is measured to thereby read out the information stored in the device.

Abstract: A high speed and low power method to control and switch the magnetization direction and/or helicity of a magnetic region in a magnetic device for memory cells using spin polarized electrical current. The magnetic device comprises a reference magnetic layer with a fixed magnetic helicity and/or magnetization direction and a free magnetic layer with a changeable magnetic helicity. The fixed magnetic layer and the free magnetic layer are preferably separated by a non-magnetic layer, and the reference layer includes an easy axis perpendicular to the reference layer. A current can be applied to the device to induce a torque that alters the magnetic state of the device so that it can act as a magnetic memory for writing information. The resistance, which depends on the magnetic state of the device, is measured to thereby read out the information stored in the device.

Abstract: A handheld device for determining trajectory of a golf ball from its current position to a hole for a putt or chip shot includes a generally planar base member and a pair of elongated members each having a first end thereof secured to and extending outwardly from a peripheral edge of the base member in a V-shaped arrangement. A concave portion is formed in a bottom of the V-shaped arrangement for operable alignment with the golf ball when the pair of elongated members are positioned in a vertical plane. The user squats or kneels behind the golf ball in line with the hole and positions the device so that the golf ball is aligned with the concave portion and is disposed intermediate the pair of elongated members in order to determine the condition of the green and desired ball trajectory.

Abstract: The present invention generally relates to the field of magnetic devices for memory cells that can serve as non-volatile memory. More specifically, the present invention describes a high speed and low power method by which a spin polarized electrical current can be used to control and switch the magnetization direction of a magnetic region in such a device. The magnetic device comprises a pinned magnetic layer with a fixed magnetization direction, a free magnetic layer with a free magnetization direction, and a read-out magnetic layer with a fixed magnetization direction. The pinned magnetic layer and the free magnetic layer are separated by a non-magnetic layer, and the free magnetic layer and the read-out magnetic layer are separated by another non-magnetic layer. The magnetization directions of the pinned and free layers generally do not point along the same axis. The non-magnetic layers minimize the magnetic interaction between the magnetic layers.

Abstract: A heavy floating devise with one or multiple billows, accordions or balloons, attached on top, that are large enough and strong enough to cover all or most of the floating device's surface and can expand and contract as much as the floating devise lifts them and brings them.

Abstract: The present invention generally relates to the field of magnetic devices for memory cells that can serve as non-volatile memory. More specifically, the present invention describes a high speed and low power method by which a spin polarized electrical current can be used to control and switch the magnetization direction of a magnetic region in such a device. The magnetic device comprises a pinned magnetic layer with a fixed magnetization direction, a free magnetic layer with a free magnetization direction, and a read-out magnetic layer with a fixed magnetization direction. The pinned magnetic layer and the free magnetic layer are separated by a non-magnetic layer, and the free magnetic layer and the read-out magnetic layer are separated by another non-magnetic layer. The magnetization directions of the pinned and free layers generally do not point along the same axis. The non-magnetic layers minimize the magnetic interaction between the magnetic layers.

Abstract: The present invention generally relates to the field of magnetic devices for memory cells that can serve as non-volatile memory. More specifically, the present invention describes a high speed and low power method by which a spin polarized electrical current can be used to control and switch the magnetization direction of a magnetic region in such a device. The magnetic device comprises a pinned magnetic layer with a fixed magnetization direction, a free magnetic layer with a free magnetization direction, and a read-out magnetic layer with a fixed magnetization direction. The pinned magnetic layer and the free magnetic layer are separated by a non-magnetic layer, and the free magnetic layer and the read-out magnetic layer are separated by another non-magnetic layer. The magnetization directions of the pinned and free layers generally do not point along the same axis. The non-magnetic layers minimize the magnetic interaction between the magnetic layers.

Abstract: The present invention generally relates to the field of magnetic devices for memory cells that can serve as non-volatile memory. More specifically, the present invention describes a high speed and low power method by which a spin polarized electrical current can be used to control and switch the magnetization direction of a magnetic region in such a device. The magnetic device comprises a pinned magnetic layer with a fixed magnetization direction, a free magnetic layer with a free magnetization direction, and a read-out magnetic layer with a fixed magnetization direction. The pinned magnetic layer and the free magnetic layer are separated by a non-magnetic layer, and the free magnetic layer and the read-out magnetic layer are separated by another non-magnetic layer. The magnetization directions of the pinned and free layers generally do not point along the same axis. The non-magnetic layers minimize the magnetic interaction between the magnetic layers.