Abstract: A method of providing operating parameters of an automation device via a configuration system comprising: detection of a pre-selection of the automation device via a user interface of the configuration system; detection of a target value of a first operating parameter of the automation device via the user interface; calculation of a limit value of a second operating parameter of the automation device in dependence on the target value of the first operating parameter, wherein the dependence of the second operating parameter on the first operating parameter is calculated using a device model of the automation device; and output of the limit value of the second operating parameter via the user interface of the configuration system.

Abstract: A multi-position airflow control assembly includes a valve body fluidly connected to at least three inflation zones of a cushion, a control assembly partially received by the valve body, the control assembly including a seal member, and an actuation assembly operably connected to the seal member and configured to rotate the seal member relative to the valve body between at least a first position and a second position. In the first position, the seal member is configured to fluidly isolate the at least three inflation zones from each other. In the second position, the seal member is configured to group the at least three inflation zones into a first group of inflation zones being fluidly connected, and a second group of inflation zones being fluidly connected, the first group of inflation zones being fluidly isolated from the second group of inflation zones.

Abstract: An air valve assembly includes a housing defining an internal channel configured to receive a first member, the first member is fluidly connected to an air source, a plunger member positioned in the internal channel and configured to slide relative to the housing, a biasing member positioned in the internal channel and configured to apply a biasing force onto the plunger member, and a sealing member positioned in the internal channel and defining a first inflation aperture, the plunger member slidably received by the first inflation aperture. In a first inflation configuration, the first member is configured to form a magnetic connection with the sealing member and contact the plunger member to overcome the biasing force, the plunger member is configured to responsively slide relative to the first inflation aperture to facilitate a flow of air between the sealing member and the plunger member.

Abstract: A multi-position airflow control assembly includes a valve housing, a valve body received by the valve housing, a plurality of connectors coupled to the valve body, each connector configured to fluidly connect to an inflation zone of a cellular cushion, and a control assembly partially received by the valve body. The control assembly includes a seal member, and an actuation assembly operably connected to the seal member and configured to rotate the seal member relative to the valve body. The seal member is configured to rotate between a first position and a second position.

Abstract: An air valve assembly includes a housing defining an internal channel, a plunger member positioned in the internal channel and configured to slide relative to the housing, a biasing member positioned in the internal channel and configured to apply a biasing force onto the plunger member, a sealing member defining a first inflation aperture, the plunger member slidably received by the first inflation aperture, a second deflation aperture defined by the housing and in fluid communication with the internal channel, and a deflation control member slidably connected to the housing, the deflation control member configured to selectively seal the second deflation aperture.

Abstract: An air valve assembly includes a housing defining an internal channel, a plunger member positioned in the internal channel and configured to slide relative to the housing, a biasing member positioned in the internal channel and configured to apply a biasing force onto the plunger member, a sealing member defining a first inflation aperture, the plunger member slidably received by the first inflation aperture, a second deflation aperture defined by the housing and in fluid communication with the internal channel, and a deflation control member slidably connected to the housing, the deflation control member configured to selectively seal the second deflation aperture.

Abstract: A multi-position airflow control assembly includes a valve housing, a valve body received by the valve housing, a plurality of connectors coupled to the valve body, each connector configured to fluidly connect to an inflation zone of a cellular cushion, and a control assembly partially received by the valve body. The control assembly includes a seal member, and an actuation assembly operably connected to the seal member and configured to rotate the seal member relative to the valve body. The seal member is configured to rotate between a first position and a second position.

Abstract: An encoder device for determining a kinematic value of the movement of a first object relative to a second object is provided, wherein the encoder device comprises a standard associated with the first object and at least one scanning unit associated with the second object for producing at least one scanning signal by detection of the standard and a control and evaluation unit that is configured to determine the kinematic value from the scanning signal. The control and evaluation unit is here further configured to determine the kinematic value by an evaluation of the scanning signal using a method of machine learning, with the evaluation being trained with a plurality of scanning signals and associated kinematic values.

Abstract: A rotary encoder (1) is provided, including a shaft (W) connected to and drivable by an external shaft, a first gear unit (G1) and a second gear unit (G2), each following rotations of the shaft (W). Both gear units (G1, G2) (G1 and G2) are drivable independently of one another by the shaft (W), a first gear stage (G1S1) of the first gear unit (G1) has a first detection unit (E1), and a gear stage (G2S2) downstream of a first gear stage (G2S1) of the second gear unit (G2) has a second detection unit (E2). An evaluation unit derives the angular position from signals of the detection units (E1, E2) and compares the rotations of the first gear stage (G1S1) and the downstream gear stage (G2S2) for plausibility, taking into account a known ratio of the rotation of the first gear stage (G1S1) to the rotation of the downstream gear stage (G2S2).

Abstract: The present disclosure generally relates to a manifold valve assembly engaged to an inflatable apparatus, such as a cushion to prevent pressure ulcers, for example. The manifold valve assembly is also in communication with a processing device to determine an optimal immersion level for a user seated on the inflatable apparatus. Additionally the processing device, in communication with the manifold valve assembly may save optimal immersion or air pressure levels for comparison to future checks of cushion pressure and send that to a user interface at the processing device. The assembly and processing device may also save and dis play a history of pressure checks.

Abstract: In order to enable improved correct determination of an angular position of a shaft, a rotary encoder (1) is provided, comprising the shaft (W) connected to and drivable by an external shaft, a first gear unit (G1) and a second gear unit (G2) which each follow rotations of the shaft (W), wherein both gear units (G1 and G2) are drivable independently of one another by the shaft (W), wherein a first gear stage (G1S1) of the first gear unit (G1) has a first detection unit (E1), and a gear stage (G2S2) downstream of a first gear stage (G2S1) of the second gear unit (G2) has a second detection unit (E2), and an evaluation unit for deriving the angular position from signals of the detection units (E1, E2), and wherein the evaluation unit compares the rotations of the first gear stage (G1S1) of the first gear unit (G1) and the downstream gear stage (G2S2) of the second gear unit (G2) for plausibility, taking into account a known ratio of the rotation of the first gear stage (G1S1) of the first gear unit (G1) to the

Abstract: An encoder device for determining a kinematic value of the movement of a first object relative to a second object is provided, wherein the encoder device comprises a standard associated with the first object and at least one scanning unit associated with the second object for producing at least one scanning signal by detection of the standard and a control and evaluation unit that is configured to determine the kinematic value from the scanning signal. The control and evaluation unit is here further configured to determine the kinematic value by an evaluation of the scanning signal using a method of machine learning, with the evaluation being trained with a plurality of scanning signals and associated kinematic values.

Abstract: A method of providing operating parametersof an automation device via a configuration system comprising: detection of a pre-selection of the automation device via a user interface of the configuration system; detection of a target value of a first operating parameter of the automation device via the user interface; calculation of a limit value of a second operating parameter of the automation device in dependence on the target value of the first operating parameter, wherein the dependence of the second operating parameter on the first operating parameter is calculated using a device model of the automation device; and output of the limit value of the second operating parameter via the user interface of the configuration system.

Abstract: The present disclosure generally relates to a manifold valve assembly engaged to an inflatable apparatus, such as a cushion to prevent pressure ulcers, for example. The manifold valve assembly is also in communication with a processing device to determine an optimal immersion level for a user seated on the inflatable apparatus. Additionally the processing device, in communication with the manifold valve assembly may save optimal immersion or air pressure levels for comparison to future checks of cushion pressure and send that to a user interface at the processing device. The assembly and processing device may also save and display a history of pressure checks.

Abstract: Tooth protector devices are disclosed for attachment to the top of a bottle to provide protection against injury, including chipping of teeth that can occur during drinking from a glass bottle. One embodiment comprises a concentric sleeve with top lip for insertion over the end of a bottle. Sleeve inner portion is adapted for engaging the bottle outer surface to hold the sleeve in place. The outer and top portions of the sleeve protect the consumer from the top edge of the bottle. When installed, a tooth protector according to the present invention cushions the teeth and mouth from any blunt force or impact that can occur when a bottle is hit or knocked. Also disclosed is a beverage cap with cushioned outer and upper surfaces that remain in place on the beverage bottle after opening the bottle to protect the consumer, and another bottle enclosure without such cushioned surfaces.

Abstract: The invention relates to a transmission and reception unit for the detection of a rotary angle, having a light transmitter for the transmission of transmitted light to a dimensional scale and having a light receiver which lies on a support, the light receiver having a front side for the reception of reception light influenced by a dimensional scale disposed opposite the front side and having a rear side which is supported on a support transparent for the transmitted light. In order to provide a new assembly concept for the positioning of the light source and of the receiver and in particular to provide an arrangement which is as symmetrical as possible it is suggested that the transparent support is arranged between the light receiver and the light transmitter and that a light deflection apparatus is provided for the deflection of the transmitted light.

Abstract: The invention relates to an angular encoder (10) for monitoring the angular position of a rotating shaft (32), with a modulator (34) which can be positioned on the rotating shaft in order to provide a signal which changes as a function of the angular position of the rotating shaft (32), and with a receiver (22) for the reception of the signal which changes as a function of the angular position of the rotating shaft (32), in which the receiver (22) and the modulator (34) are positioned in such a way as to be thermally insulated from each other, so that the transfer of heat from the modulator (34) to the receiver (22) is impeded, while thermal insulation is achieved at least in part by a thermally insulating separator (35), which is positioned between the modulator (34), on the one hand, and the transmitter (21) and/or the receiver (22), on the other hand. The invention further relates to a drive system (100) with an angular encoder (110) of the type described.

Abstract: The invention relates to an angle of rotation sensor comprising a rotatable first code disc, at least one first image sensor and at least one optics which images an optical code of the code disc onto the first image sensor.

Abstract: Tooth protector devices are disclosed for attachment to the top of a bottle to provide protection against injury, including chipping of teeth that can occur during drinking from a glass bottle. One embodiment comprises a concentric sleeve with top lip for insertion over the end of a bottle. Sleeve inner portion is adapted for engaging the bottle outer surface to hold the sleeve in place. The outer and top portions of the sleeve protect the consumer from the top edge of the bottle. When installed, a tooth protector according to the present invention cushions the teeth and mouth from any blunt force or impact that can occur when a bottle is hit or knocked. Also disclosed is a beverage cap with cushioned outer and upper surfaces that remain in place on the beverage bottle after opening the bottle to protect the consumer, and another bottle enclosure without such cushioned surfaces.

Abstract: A device for measuring the rotating angle of two objects rotating in relation to each other around an axis includes a light source and a polarizer, whereby the light source and the polarizer rotate in relation to each other as function of the rotating angle. The device also includes a receiver measuring the luminous intensity reflected by the polarizer, to produce a signal dependent on the rotating angle. The receiver has at least one initial reception element and the light emitted by the light source is either polarized or becomes polarized. A polarizing filter with an initial direction of polarization is positioned in front of the first reception element. At least one element casting a shadow is positioned in front of the receiver and the receiver has at least one quadrant diode. The position and/or shape of the shadow are varied on the receiver over a rotation of 360°.