Abstract: An indication is received from a user to rack or unrack a digital weight. A motor is signaled to apply or remove tension to a cable couple to the motor based at least in part on the indication. The actuator is connected to the cable and is physically arranged to deliver a force to the user. The motor selectively tensions a cable in accordance with an exercise program.

Abstract: Load data is received from a first exercise machine. An updated resistance for a second exercise machine is determined based on the load data received from the first exercise machine. A request to update a resistance associated with the second exercise machine is provided to the second exercise machine. The second exercise machine updates the resistance associated with the second exercise machine based on the request.

Abstract: A report of a state of a local exercise device based at least in part on a user response to an electromagnetic resistance unit in the local exercise device is sent. An update based on a state of a remote exercise device is received. The electromagnetic resistance unit is caused to change state in reaction to the received update.

Abstract: An indication is received from a user to rack or unrack a digital weight. A motor is signaled to apply or remove tension to a cable couple to the motor based at least in part on the indication. The actuator is connected to the cable and is physically arranged to deliver a force to the user. The motor selectively tensions a cable in accordance with an exercise program.

Abstract: An indication is received from a user to rack or unrack a digital weight. A motor is signaled to apply or remove tension to a cable couple to the motor based at least in part on the indication. The actuator is connected to the cable and is physically arranged to deliver a force to the user. The motor selectively tensions a cable in accordance with an exercise program.

Abstract: An indication is received from a user to rack or unrack a digital weight. A motor is signaled to apply or remove tension to a cable couple to the motor based at least in part on the indication. The actuator is connected to the cable and is physically arranged to deliver a force to the user. The motor selectively tensions a cable in accordance with an exercise program.

Abstract: A report of a state of a local exercise device based at least in part on a user response to an electromagnetic resistance unit in the local exercise device is sent. An update based on a state of a remote exercise device is received. The electromagnetic resistance unit is caused to change state in reaction to the received update.

Abstract: A report of a state of a local exercise device based at least in part on a user response to an electromagnetic resistance unit in the local exercise device is sent. An update based on a state of a remote exercise device is received. The electromagnetic resistance unit is caused to change state in reaction to the received update.

Abstract: An indication is received from a user to rack or unrack a digital weight. A motor is signaled to apply or remove tension to a cable couple to the motor based at least in part on the indication. The actuator is connected to the cable and is physically arranged to deliver a force to the user. The motor selectively tensions a cable in accordance with an exercise program.

Abstract: A report of a state of a local exercise device based at least in part on a user response to an electromagnetic resistance unit in the local exercise device is sent. An update based on a state of a remote exercise device is received. The electromagnetic resistance unit is caused to change state in reaction to the received update.

Abstract: An indication is received from a user to rack or unrack a digital weight. A motor is signaled to apply or remove tension to a cable couple to the motor based at least in part on the indication. The actuator is connected to the cable and is physically arranged to deliver a force to the user. The motor selectively tensions a cable in accordance with an exercise program.

Abstract: The invention is directed at a method of manufacturing a stacked organic light emitting diode—OLED—device. The method comprises the steps of providing a carrier and thrilling a first organic light emitting diode on the carrier by means of solution based depositing of consecutive diode layers of said first organic light emitting diode. The method further comprises forming one or more charge injection layers on the first organic light emitting diode and forming a second organic light emitting diode on the carrier by means of solution based depositing of consecutive diode layers of said second organic light emitting diode. The step of forming of the one or more charge injection layers comprises a step of performing atomic layer deposition for depositing at least one of the one or more charge injection layers. The invention further relates to an apparatus for manufacturing a stacked OLED and to a stacked OLED device.

Abstract: An opto-electric device includes an opto-electric layer structure having an anode and a cathode layer and an opto-electric layer arranged between the anode and cathode layers, and having a light-transmission side. A dual electrically conductive layer structure is arranged at a side of the opto-electric layer structure opposite the light-transmission side, the dual electrically conductive layer structure having a first and a second electrically conductive layer mutually insulated by a first electrically insulating layer. A second electrically insulating layer is arranged between the light emitting layer structure and the dual electrically conductive layer structure, wherein the first electrically conductive layer is electrically connected by at least a first transverse electrical conductor with the anode layer and the second electrically conductive layer is electrically connected by at least a second transverse electrical conductor with the cathode layer.

Abstract: A thin-film optoelectric device is disclosed comprising a functional layer structure (30) enclosed between a first barrier layer structure (20) and a second barrier layer structure (40), the device having an open, electrically interconnected conductive structure (10) that is embedded within the first barrier layer structure (20), that comprises at least one elongated element (12a, 12b, 12c) of a metal that laterally extends within the barrier layer structure (20), and that is arranged against the functional layer structure (30), the electrically interconnected conductive structure (10) having a laterally facing, processed surface embedded in the first barrier layer (20).

Abstract: A light-emitting device is disclosed comprising an organic light-emitting diode structure and an encapsulation comprising a light-transmitting window with at least a first inorganic layer, an organic layer and a second inorganic layer, the organic layer comprising domains of a dispersed first organic component embedded by a second component, the first and the second component having a mutually different refractive index, the organic layer being sandwiched between the first and the second inorganic layer.

Abstract: A curved foil-shaped electro-optical product (1) is provided having at least a first region with a basis substrate layer (10) of a shrunken organic substance, having a convex side and a concave side and comprising at the convex side (12) of the basis substrate layer at least a further layer (20), the electro-optical product further comprising at least a second region with an electro-optical structure (20).

Abstract: A method of manufacturing an opto-electric device is disclosed, comprising the steps of providing a substrate (10), overlying a first main side of the substrate with an electrically interconnected open shunting structure (20), embedding the electrically interconnected open shunting structure in a transparent layer (30), removing the substrate from the embedded electrically interconnected open shunting structure, depositing a functional layer structure (40) over a free surface (31) formed after removal of the substrate.

Abstract: The present invention relates to an opto-electric device having a stack of layers subsequently comprising a first electrode layer (20) of a material having a first work function, deposited on a substrate (10) or forming a substrate (20), an organic opto-electric layer (30) on the first electrode layer (20), a patterned electrically conductive layer (40) printed on the opto-electric layer (30), a transparent, second electrode layer (50) of a material having a second work function on the opto-electric layer (30) provided with the patterned electrically conductive layer (40), the second work function having a value lower than the first work function.

Abstract: An opto-electric device includes an opto-electric layer structure having an anode and a cathode layer and an opto-electric layer arranged between the anode and cathode layers, and having a light-transmission side. A dual electrically conductive layer structure is arranged at a side of the opto-electric layer structure opposite the light-transmission side, the dual electrically conductive layer structure having a first and a second electrically conductive layer mutually insulated by a first electrically insulating layer. A second electrically insulating layer is arranged between the light emitting layer structure and the dual electrically conductive layer structure, wherein the first electrically conductive layer is electrically connected by at least a first transverse electrical conductor with the anode layer and the second electrically conductive layer is electrically connected by at least a second transverse electrical conductor with the cathode layer.

Abstract: The invention relates to a top-emissive organic light-emitting diode (OLED) (10) arranged to emit light having different emission colors, comprising a multi-layered structure provided with a first electrode, a second electrode and a functional layer enabling light emission disposed between the first electrode and the second electrode, wherein thickness (H1, H2) of the functional layer is modulated by allowing at least a portion of the functional layer to interact with a thickness modulator (5a, 5b, 5c), wherein the functional layer comprises a hole injection layer or the electron injection layer.