Abstract: A method of authenticating a passcode entered by a user on an unstable electronic computing device. The method includes receiving an indication that an input is unstable, impacting the ability of a user to provide the input; generating a dynamic keyboard including at least one alphanumeric key, the dynamic keyboard being configured to address the unstable input; presenting the dynamic keyboard to the user; receiving the input from the user, the input comprising a selection of at least one alphanumeric character of a passcode on the dynamic keyboard; and authenticating the input received from the user by comparing the at least one alphanumeric character and a stored passcode.

Abstract: An apparatus includes a strength member including a core formed of a composite material, and an encapsulation layer disposed around the core. A conductor layer is disposed around the strength member. A coating is disposed on the conductor layer. The coating is formulated to have a solar absorptivity of less than 0.5 at a wavelength of less than 2.5 microns, and a radiative emissivity of greater than 0.5 at a wavelength in a range of 2.5 microns to 15 microns, at an operating temperature in a range of 60 degrees Celsius to 250 degrees Celsius. The coating may have an erosion resistance that is at least 5% greater than an erosion resistance of aluminum or aluminum alloys.

Abstract: A method may include retrieving, from a data store, an environment template data file; parsing the environment template data file to identify: path data; an amount of events; and display location information with respect to each event in the amount of events; accessing a user profile identifying scheduled events for a user; for a first event in the scheduled events for the user, predicting using at least one processor, a set of decisions associated with the first event, and a set of impact determinations for each respective decision in the set of decisions; generating, using the processing device, a user interface based on the path data, the amount of events, the display location information, the set of decisions associated with the first event, and the set of impact determinations for each respective decision in the set of decisions; and presenting the user interface on a computing device of the user.

Abstract: A method for representing a visualization of assets includes receiving a request for a transfer of assets from an electronic computing device having augmented reality (AR) capabilities or virtual reality (VR) capabilities. The request includes a source account, a destination account, and a transfer amount. An image data is generated, which is representative of the transfer amount being transferred from the source account to the destination account. The image data is sent to an image generator of the electronic computing device to be displayed.

Abstract: An apparatus includes a strength member including a core formed of a composite material, and an encapsulation layer disposed around the core. A conductor layer is disposed around the strength member. A coating is disposed on the conductor layer. The coating is formulated to have a solar absorptivity of less than 0.5 at a wavelength of less than 2.5 microns, and a radiative emissivity of greater than 0.5 at a wavelength in a range of 2.5 microns to 15 microns, at an operating temperature in a range of 60 degrees Celsius to 250 degrees Celsius. The coating may have an erosion resistance that is at least 5% greater than an erosion resistance of aluminum or aluminum alloys.

Abstract: A method may include retrieving, from a data store, an environment template data file; parsing the environment template data file to identify: path data; an amount of events; and display location information with respect to each event in the amount of events; accessing a user profile identifying scheduled events for a user; for a first event in the scheduled events for the user, predicting using at least one processor, a set of decisions associated with the first event, and a set of impact determinations for each respective decision in the set of decisions; generating, using the processing device, a user interface based on the path data, the amount of events, the display location information, the set of decisions associated with the first event, and the set of impact determinations for each respective decision in the set of decisions; and presenting the user interface on a computing device of the user.

Abstract: A power electronics module for an industrial or vehicle battery charger system or the like is provided. The power electronics module utilizes a chassis housing including a heatsink surface and a plurality of sidewalls. A main power section printed circuit board is disposed adjacent to the heatsink surface of the chassis housing a. A low voltage, low power printed circuit board is disposed adjacent to the main power section printed circuit board opposite the heatsink surface of the chassis housing. An alternating current input filter portion printed circuit board including electromagnetics is disposed along one of the plurality of sidewalls of the chassis housing and separated from the low voltage, low power printed circuit board within the chassis housing.

Abstract: A custom roof top cargo carrier kit is disclosed that enables an end user to assemble and mount a cargo carrier demonstrating a desired custom length suitable for a variety of roof top mounting. The carrier utilizes multiple side rail segments in a wide range of predetermined lengths. The custom roof top cargo carrier utilizes tubular shaped side rail segments joined via centrally placed assembly studs aligned with the longitudinal axis of each segment so as to form complete side rails. This means of affixation provides a solid butt joint yielding increased resistance to forces that ordinarily cause failure of prior art side rails. In an alternate preferred embodiment, the side rail segment and side rails formed thereby is also disclosed as an independent component for integration in other roof top cargo carriers utilizing side rails.

Abstract: An example method includes receiving information related to a transaction with a financial account initiated by a customer at a financial terminal, the financial account including a transaction limit. Based on the information related to the transaction exceeding the transaction limit for the financial account, the method includes identifying a mobile device associated with the financial account and receiving location information of the mobile device via one or both of a passive location response or an active location response. Based on the location information of the mobile device, the method includes determining that the mobile device is located within a predetermined distance from a location of the financial terminal and temporarily changing the transaction limit for the financial account by a variable amount based on whether the location information of the mobile device was received via the one or both of the passive or the active location response.

Abstract: Various disclosed embodiments include a switching module for a charger includes a support member, a first busbar coupled to the support member, the first busbar being configured to conduct electrical current, and a second busbar coupled to the support member, the second busbar being configured to conduct electrical current. The switching module also includes a first switch coupled to the first busbar and configured to move a first contactor. The switching module further includes a second switch coupled to the second busbar and configured to move a second contactor. The switching module also includes a third switch coupled to the first busbar and configured to move a third contactor. Further, the switching module includes a fourth switch coupled to the second busbar and configured to move a fourth contactor, the third and fourth switches being configured to electrically connect and disconnect the first and second busbar with at least a second power dispenser.

Abstract: A custom roof top cargo carrier kit is disclosed that enables an end user to assemble and mount a cargo carrier demonstrating a desired custom length suitable for a variety of roof top mounting. The carrier utilizes multiple side rail segments in a wide range of predetermined lengths enabling assembly of cargo carriers having a wide range of fore/aft length while, at the same time, enabling the kit to be packaged in a relatively compact form. The custom roof top cargo carrier utilizes tubular shaped side rail segments joined via centrally placed assembly studs aligned with the longitudinal axis of each segment so as to form complete side rails. This means of affixation provides a solid butt joint yielding increased resistance to forces that ordinarily cause failure of prior art side rails.

Abstract: The present disclosure describes an interconnect structure and a method forming the same. The interconnect structure can include a substrate, a layer of conductive material over the substrate, a metallic capping layer over the layer of conductive material, a layer of insulating material over top and side surfaces of the metallic capping layer, and a layer of trench conductor formed in the layer of insulating material and the metallic capping layer.

Abstract: The present disclosure describes an interconnect structure and a method forming the same. The interconnect structure can include a substrate, a layer of conductive material over the substrate, a metallic capping layer over the layer of conductive material, a layer of insulating material over top and side surfaces of the metallic capping layer, and a layer of trench conductor formed in the layer of insulating material and the metallic capping layer.

Abstract: A power electronics module for an industrial or vehicle battery charger system or the like, including: a chassis housing including a heatsink surface and a plurality of sidewalls; a main power section printed circuit board disposed adjacent to the heatsink surface of the chassis housing; a low voltage, low power printed circuit board disposed adjacent to the main power section printed circuit board opposite the heatsink surface of the chassis housing; and an alternating current input filter portion printed circuit board including electromagnetics disposed along one of the plurality of sidewalls of the chassis housing and separated from the low voltage, low power printed circuit board within the chassis housing.

Abstract: The invention relates to a method for automatedly aligning a stand (12) for a microscope (14), wherein the stand (12) for the microscope (14) comprises controllable positioning means (16) for positioning the microscope (14) and controllable orienting means (18) for orienting the microscope (14). The method comprises defining a target point (24) to be observed by the microscope (14), wherein the target point (24) is located within a coordinate range accessible by the stand (12), stabilizing the microscope (14) at a user determined position in an automated manner by means of the controllable positioning means (16) of the stand, and adjusting an orientation of the microscope (14) at the user determined position to the target point (24) in an automated manner using the controllable orienting means (18) of the stand. The invention further relates to a stand, a microscope assembly (10), a control unit, a computer program and a computer-readable data storage.

Abstract: The present disclosure describes an interconnect structure and a method forming the same. The interconnect structure can include a substrate, a layer of conductive material over the substrate, a metallic capping layer over the layer of conductive material, a layer of insulating material over top and side surfaces of the metallic capping layer, and a layer of trench conductor formed in the layer of insulating material and the metallic capping layer.

Abstract: The invention relates to a balancing device (14) for balancing a microscope (12) with respect to a rotation axis (1000), the balancing device (14) comprising a balancing weight (16) arranged around and assigned to the rotation axis (1000), such that the balancing weight (16) is rotatable around the rotation axis (1000), wherein a center of mass of the balancing weight (16) is arranged apart from the rotation axis (1000). The balancing device (14) further comprises a lever (18) for indicating a torque acting on the balancing device (14) and/or on the balancing weight (16), wherein the lever (18) is arranged around and assigned to the rotation axis (1000) to be rotatable around the rotation axis (1000), wherein the lever (18) extends within the balancing weight (16) and is movable by the torque within a predetermined range with respect to the balancing weight (16), and wherein an electrical potential of the lever (18) is set to a predetermined first potential value.

Abstract: In an example implementation, a method of controlling activity of a device includes concurrently detecting multiple unique device identifier (UDIDs) within proximity of a primary device, and determining that the multiple UDIDs are associated with a primary device activity. The method includes performing the activity while the concurrent detection of the multiple UDIDs persists, and stopping the activity when the concurrent detection of the multiple UDIDs stops.

Abstract: The invention relates to a balancing device (14) for balancing a microscope (12) with respect to a rotation axis (1000), the balancing device (14) comprising a balancing weight (16) arranged around and assigned to the rotation axis (1000), such that the balancing weight (16) is rotatable around the rotation axis (1000), wherein a center of mass of the balancing weight (16) is arranged apart from the rotation axis (1000). The balancing device (14) further comprises a lever (18) for indicating a torque acting on the balancing device (14) and/or on the balancing weight (16), wherein the lever (18) is arranged around and assigned to the rotation axis (1000) to be rotatable around the rotation axis (1000), wherein the lever (18) extends within the balancing weight (16) and is movable by the torque within a predetermined range with respect to the balancing weight (16), and wherein an electrical potential of the lever (18) is set to a predetermined first potential value.

Abstract: The invention relates to a method for automatedly aligning a stand (12) for a microscope (14), wherein the stand (12) for the microscope (14) comprises controllable positioning means (16) for positioning the microscope (14) and controllable orienting means (18) for orienting the microscope (14). The method comprises defining a target point (24) to be observed by the microscope (14), wherein the target point (24) is located within a coordinate range accessible by the stand (12), stabilizing the microscope (14) at a user determined position in an automated manner by means of the controllable positioning means (16) of the stand, and adjusting an orientation of the microscope (14) at the user determined position to the target point (24) in an automated manner using the controllable orienting means (18) of the stand. The invention further relates to a stand, a microscope assembly (10), a control unit, a computer program and a computer-readable data storage.