Abstract: Apparatus, systems, and/or methods for filtering, recapture, and/or recirculation of coolant are disclosed. In some examples, coolant (e.g., coolant fluid) is used to cool and/or clean a machine, such as a material removal machine, for example. In some examples, a recirculation tank may be in fluid communication with an inlet and/or outlet of a cabinet (and/or housing) of the machine. The recirculation tank may include a recapture reservoir having a filtering surface configured to prevent particulates, debris, and/or swarf from being recirculated with the coolant. A vibration device (e.g., a vibration motor and/or vibrating actuator), may be in contact with and/or configured to vibrate (and/or shake, rattle, oscillate, etc.) the filtering surface, recapture reservoir, and/or recirculation tank so as to keep the filter free from obstruction and/or help settle and/or compact filtered particulates in a bottom of the recapture reservoir and/or recirculation tank.

Abstract: Described herein are examples of material removal machines with work tables separated by an air gap. In some examples. the air gap may provide space for a material removal tool of the material removal machine to extend between and substantially below the work tables to effect a deep cut on a workpiece that extends across the air gap. In some examples. a table actuator may be configured to move the work tables in tandem, allowing for the work tables and/or work piece to be moved to the material removal tool, rather than vice versa. Efficient design of the work tables and material removal machine ensures that the air gap between the work tables remains unobstructed all the way to a floor of the material removal machine. and ensures that the space underneath the work tables is sufficient for fluid/debris drainage and operator access.

Abstract: Apparatus, systems, and/or methods for filtering, recapture, and/or recirculation of coolant are disclosed. In some examples, coolant (e.g., coolant fluid) is used to cool and/or clean a machine, such as a material removal machine, for example. In some examples, a recirculation tank may be in fluid communication with an inlet and/or outlet of a cabinet (and/or housing) of the machine. The recirculation tank may include a recapture reservoir having a filtering surface configured to prevent particulates, debris, and/or swarf from being recirculated with the coolant. A vibration device (e.g., a vibration motor and/or vibrating actuator), may be in contact with and/or configured to vibrate (and/or shake, rattle, oscillate, etc.) the filtering surface, recapture reservoir, and/or recirculation tank so as to keep the filter free from obstruction and/or help settle and/or compact filtered particulates in a bottom of the recapture reservoir and/or recirculation tank.

Abstract: Example electrochemical machining systems and methods for machining a surface of a sample. In particular, the system includes a nozzle configured to dispense a jet of an electrolyte solution towards the surface of the sample. A position or orientation of the nozzle can be controlled to direct the jet of the electrolyte solution from the nozzle towards an area of the surface of the sample (e.g., an area for electrochemical etching or other surface treatment). The electrochemical machining is performed by application of a charge to the nozzle and apply a charge to the sample (e.g., grounding or other charge return path), such that the nozzle and the sample define first and second electrodes of an electrolytic cell, electrically connected by the jet of electrolyte solution.

Abstract: In a method for parameterising at least one device (30), at least one environmental value (31) of the device is determined via at least one sensor and/or an automation component. It is checked whether parameters are allocated to the at least one environmental value in a parameter database (32). If parameters are allocated to the at least one environmental value (31) in the parameter database (32), the device (30) is parameterised with parameters from the parameter database (32). If no parameters are allocated to the at least one environmental value (31) in the parameter database (32), the device (30) is parameterised with new parameters. The new parameters are then allocated (54) to the at least one environmental value (31) in the parameter database (32).

Abstract: Example networked material testing systems include: a database system storing a shared database, the shared database storing a material test procedure and material test result data; a first material test system communicatively coupled to the database system and configured to perform a first type of material test; and a second material test system communicatively coupled to the database system and configured to perform the first type of material test; wherein the database system comprises a computing device configured to execute machine readable instructions which cause the computing device to: transmit a first test program to the first material test system for performance of the first type of material test on a first specimen according to the first test program; store, in the shared database, first test result data received from the first material test system based on execution of the first test program; transmit a second test program to the second material test system for performance of the first type of mat

Abstract: Hardness testers having a pivoting body and capable of providing power to accessories on the pivoting body are disclosed. An example hardness testing device includes: a rotating carriage configured to: hold at least one of an indenter or an objective and at least one accessory; and rotate to selectively place the at least one indenter or objective or the at least one accessory in an operative position to operate the at least one indenter or objective or the at least one accessory; a carriage mount configured to support the rotating carriage; and an electrical contact block mounted stationary with respect to the carriage mount, the electrical contact block comprising a plurality of electrical contacts configured to make electrical contact with a counterpart electrical contact block of the at least one accessory coupled to the rotating carriage when the at least one accessory is positioned in the operative position.

Abstract: An example grinder/polisher system includes: a specimen holder configured to secure a specimen; a platen; an actuator configured to move at least one of the specimen holder and the platen; a sensor configured to detect objects within a field of view of the sensor; and a controller configured to control movement of the actuator and to stop the actuator in response to detection of an object by the sensor while the actuator is moving.

Abstract: Sensor apparatus (14) is provided, comprising a receiving device (20) by way of which the sensor apparatus (14) is wirelessly suppliable with electrical energy, a transmission device (44) by way of which data are wirelessly transmittable, a sensitive device (26), at least one data processing device (30) which is signal-operatively coupled to the sensitive device (26) and the transmission device (44) and which processes data of the sensitive device (26) and provides edited data as transmission data to the transmission device (44), and a device (52) for an interruption-tolerant operation of the sensor apparatus (14) with respect to the electrical energy supply, wherein the device (52) for an interruption-tolerant operation is realized by hardware and/or software of the sensor apparatus (14).

Abstract: Apparatus, systems, and/or methods for filtering, recapture, and/or recirculation of coolant are disclosed. In some examples, coolant (e.g., coolant fluid) is used to cool and/or clean a machine, such as a material removal machine, for example. In some examples, a recirculation tank may be in fluid communication with an inlet and/or outlet of a cabinet (and/or housing) of the machine. The recirculation tank may include a recapture reservoir having a filtering surface configured to prevent particulates, debris, and/or swarf from being recirculated with the coolant. A vibration device (e.g., a vibration motor and/or vibrating actuator), may be in contact with and/or configured to vibrate (and/or shake, rattle, oscillate, etc.) the filtering surface, recapture reservoir, and/or recirculation tank so as to keep the filter free from obstruction and/or help settle and/or compact filtered particulates in a bottom of the recapture reservoir and/or recirculation tank.

Abstract: In an arrangement of an electrically communicative voltage supply for controlled operation of at least one electrically operable IO-Link device using an electrical DC voltage provided by a voltage supply unit as well as an IO-Link communication interface which is provided for the controlled operation of the at least one IO-Link device and formed with at least one channel, the IO-Link communication interface which is formed with at least one channel and the voltage supply unit form a structural unit and the IO-Link communication interface includes an IO-link master providing a gateway function.

Abstract: Hardness testers having a pivoting body and capable of providing power to accessories on the pivoting body are disclosed. An example hardness testing device includes: a rotating carriage configured to: hold at least one of an indenter or an objective and at least one accessory; and rotate to selectively place the at least one indenter or objective or the at least one accessory in an operative position to operate the at least one indenter or objective or the at least one accessory; a carriage mount configured to support the rotating carriage; and an electrical contact block mounted stationary with respect to the carriage mount, the electrical contact block comprising a plurality of electrical contacts configured to make electrical contact with a counterpart electrical contact block of the at least one accessory coupled to the rotating carriage when the at least one accessory is positioned in the operative position.

Abstract: Sensor apparatus (14) is provided, comprising a receiving device (20) by way of which the sensor apparatus (14) is wirelessly suppliable with electrical energy, a transmission device (44) by way of which data are wirelessly transmittable, a sensitive device (26), at least one data processing device (30) which is signal-operatively coupled to the sensitive device (26) and the transmission device (44) and which processes data of the sensitive device (26) and provides edited data as transmission data to the transmission device (44), and a device (52) for an interruption-tolerant operation of the sensor apparatus (14) with respect to the electrical energy supply, wherein the device (52) for an interruption-tolerant operation is realized by hardware and/or software of the sensor apparatus (14).

Abstract: In an arrangement of an electrically communicative voltage supply for controlled operation of at least one electrically operable IO-Link device using an electrical DC voltage provided by a voltage supply unit as well as an IO-Link communication interface which is provided for the controlled operation of the at least one IO-Link device and formed with at least one channel, the IO-Link communication interface which is formed with at least one channel and the voltage supply unit form a structural unit and the IO-Link communication interface includes an IO-link master providing a gateway function.

Abstract: The invention relates to a thickening concentrate for continuously producing a liquid cationic formulation of domestic cleaners or fabric softeners and to a method for continuously producing a liquid cationic formulation of domestic cleaners or fabric softeners, in which method a thickening concentrate according to the invention is used. The invention further relates to a formulation that can be obtained in accordance with the method according to the invention.

Abstract: A method of controlling a vehicle includes providing a vehicle having a brake system configured to operate according to a nominal mode in which applied braking pressure is based on a driver braking request, a first active braking mode in which applied braking pressure is based on maximum ABS braking pressure and decreased in response to a driver brake pedal release, and a second active braking mode in which applied braking pressure is based on maximum braking pressure. In response to a detected collision, the system is controlled according to the first active braking mode. In response to the first active braking mode being active and no driver braking request being anticipated, the system is controlled according to the second active braking mode. In response to the first or second active braking modes being active and a termination criterion being satisfied, the system is controlled according to the nominal mode.

Abstract: The invention relates to a thickening concentrate for continuously producing a liquid cationic formulation of domestic cleaners or fabric softeners and to a method for continuously producing a liquid cationic formulation of domestic cleaners or fabric softeners, in which method a thickening concentrate according to the invention is used. The invention further relates to a formulation that can be obtained in accordance with the method according to the invention.

Abstract: A method of controlling a vehicle includes providing a vehicle having a brake system configured to operate according to a nominal mode in which applied braking pressure is based on a driver braking request, a first active braking mode in which applied braking pressure is based on maximum ABS braking pressure and decreased in response to a driver brake pedal release, and a second active braking mode in which applied braking pressure is based on maximum braking pressure. In response to a detected collision, the system is controlled according to the first active braking mode. In response to the first active braking mode being active and no driver braking request being anticipated, the system is controlled according to the second active braking mode. In response to the first or second active braking modes being active and a termination criterion being satisfied, the system is controlled according to the nominal mode.

Abstract: A method for controlling a vehicle braking system includes commanding vehicle brakes to provide braking torque based on a driver braking request in response to a detected collision and an anticipated application of a driver-actuated brake pedal after the collision. The method additionally includes activating the vehicle brakes in the absence of application of the brake pedal in response to a subsequent application and release of the brake pedal while a motion sensor reading exceeds a predefined threshold.

Abstract: A method for controlling a vehicle braking system includes commanding vehicle brakes to provide braking torque based on a driver braking request in response to a detected collision and an anticipated application of a driver-actuated brake pedal after the collision. The method additionally includes activating the vehicle brakes in the absence of application of the brake pedal in response to a subsequent application and release of the brake pedal while a motion sensor reading exceeds a predefined threshold.