Abstract: In an embodiment, the semiconductor laser (1) comprises a semiconductor layer sequence (2) in which an active zone (22) for generating laser radiation (L) is located. Several electrical contact surfaces (5) serve for external electrical contacting of the semiconductor layer sequence (2). Several parallel ridge waveguides (3) are formed from the semiconductor layer sequence (2) and configured to guide the laser radiation (L) along a resonator axis, so that there is a separating trench (6) between adjacent ridge waveguides. At least one electrical feed (4) serves from at least one of the electrical contact surfaces (5) to guide the current to at least one of the ridge waveguides (3). A distance (A4) between the ridge waveguides is at most 50 ?m. The ridge waveguides (3) are electrically controllable individually or in groups independently of one another and/or configured for single-mode operation.

Abstract: A detergent product containing one or more active agents is provided.

Abstract: The invention relates to a line element (100) having an inner element (IE), an outer element (AE) surrounding the inner element, and a sliding layer (131, 132) in the form of an anti-friction lacquer, which is arranged in the contact region on the inner element (IE) and/or on the outer element (AE).

Abstract: Non-fungible tokens (NFTs) can be generated and stored on a digital ledger for use in controlling ownership of well log data in some examples described herein. In one such example, a system can encrypt well log data to generate encrypted well-log data. The system can then generate a new record that associates a non-fungible token with the encrypted well-log data, where the non-fungible token is usable to track ownership of the well log data. The system can then publish the new record to a digital ledger that is distributed among a plurality of computer nodes of a ledger network. The new record can be published to the digital ledger in response to at least a subset of the computer nodes reaching a consensus decision to add the new record to the digital ledger.

Abstract: A line element includes an inner element, an outer element surrounding the inner element, and a damping element arranged between the inner element and the outer element. The damping element can be made, for example, of knitted wire fabric or a stripwound hose. The damping element can be made in particular of a more easily wearing material than the outer element and/or the inner element, for example of copper.

Abstract: Real-time data from one or more sensors can be received about one or more active wellbore operations. A blended data set can be generated that includes the real-time data combined with historical data about previously completed wellbore drilling operations, and associated with performance attributes. Additionally, identification of a criteria of focus, types of parameters for optimization, and operation groupings for the blended data set can be received. Further, the criteria of focus, types of parameters for optimization and operation groupings for the data can be applied to the blended data set to determine an adjustment for an active wellbore drilling operation of interest. The adjustment for the active wellbore drilling operation of interest can be outputted.

Abstract: The invention relates to a line element (100) having an inner element (IE), an outer element (AE) surrounding the inner element, and a sliding layer (131, 132) in the form of an anti-friction lacquer, which is arranged in the contact region on the inner element (1E) and/or on the outer element (AE).

Abstract: A scope turret including a dial assembly that is configured to adjust point of aim optics of a scope is disclosed. The turret may include an adjustable stop assembly that prevents the dial assembly from rotating in one direction. The adjustable stop assembly may include a traveler, a nut assembly, and a bolt. The adjustable stop assembly may be internally-adjustable or externally-adjustable. The dial assembly may include an engagement mechanism. The engagement mechanism may include a button that is slidable between an engaged position and a disengaged position of the engagement mechanism. The turret may further include a locking mechanism that selectively prevents the dial assembly from rotating in any direction.

Abstract: A line element includes an inner element, an outer element surrounding the inner element, and a damping element arranged between the inner element and the outer element. The damping element can be made, for example, of knitted wire fabric or a stripwound hose. The damping element can be made in particular of a more easily wearing material than the outer element and/or the inner element, for example of copper.

Abstract: A method and a device for producing strip wound tube products are disclosed. According to the method, a winding machine winds a strip to produce a strip wound tube and a finishing machine cuts off pieces of desired length from the strip wound tube and connects strip layers in the end sections of the strip wound tube product by way of a joining operation. The finishing machine has a mobile operating head and/or a force decoupling unit.

Abstract: A scope turret including a dial assembly that is configured to adjust point of aim optics of a scope is disclosed. The turret may include an adjustable stop assembly that prevents the dial assembly from rotating in one direction. The adjustable stop assembly may include a traveler, a nut assembly, and a bolt. The adjustable stop assembly may be internally-adjustable or externally-adjustable. The dial assembly may include an engagement mechanism. The engagement mechanism may include a button that is slidable between an engaged position and a disengaged position of the engagement mechanism. The turret may further include a locking mechanism that selectively prevents the dial assembly from rotating in any direction.

Abstract: The invention relates to line elements (600) consisting of a multi-layer inner element (IE) and an outer element (AE), wherein the inner element (IE) and the outer element (AE) are in contact with each other at points, at lines, over part of the surfaces thereof, or over the full surfaces thereof. Furthermore, a frictional contact protection means extending over the component length is provided, or a frictional layer (121) is provided in the contact region of the inner element (IE) and the outer element (AE). The wear of the outer element (AE) caused by friction can thereby be minimized.

Abstract: For each event detected during execution of a monitored application comprising a plurality of application components, a determination is made of which of the plurality of application components corresponds to the detected event. Also, a dependency subgroup that includes the application component that corresponds to the detected event is identified, wherein a dependency subgroup indicates dependencies among a subgroup of the plurality of application components. A location within the dependency subgroup of the application component corresponding to the detected event is determined. An order of correction for the application components determined to correspond to detected events are determined based, at least in part, on the determined location. Correction of the application components determined to correspond to detected events are initiated according to the determined order of correction.

Abstract: A scope turret including a dial assembly that is configured to adjust point of aim optics of a scope is disclosed. The turret may include an adjustable stop assembly that prevents the dial assembly from rotating in one direction. The adjustable stop assembly may include a traveler, a nut assembly, and a bolt. The adjustable stop assembly may be internally-adjustable or externally-adjustable. The dial assembly may include an engagement mechanism. The engagement mechanism may include a button that is slidable between an engaged position and a disengaged position of the engagement mechanism. The turret may further include a locking mechanism that selectively prevents the dial assembly from rotating in any direction.

Abstract: The invention relates to line elements (600) consisting of a multi-layer inner element (IE) and an outer element (AE), wherein the inner element (IE) and the outer element (AE) are in contact with each other at points, at lines, over part of the surfaces thereof, or over the full surfaces thereof. Furthermore, a frictional contact protection means extending over the component length is provided, or a frictional layer (121) is provided in the contact region of the inner element (IE) and the outer element (AE). The wear of the outer element (AE) caused by friction can thereby be minimized.

Abstract: Numerous alerts may be received by a management system, potentially making it difficult to determine which alerts indicate events that are potentially more harmful. To identify alerts that indicate harmful events, a damage index for each of the alerts may be determined. Determining an alert damage index facilitates the ranking, sorting, or graphical representation of alerts. The alert damage index can indicate the potential damage or harm an event associated with the alert may cause if left unaddressed. For example, a low memory event has the potential to cause an application or server to respond slowly or not at all. The alert damage index may be determined by processing metrics that indicate the potential harm or severity of the event. For example, the alert damage index may be determined by processing an alert duration factor, an alert threshold breach factor, and a component load factor (damage factors).

Abstract: An apparatus and a method for producing strip wound tube products are disclosed. The apparatus includes a winding machine for winding a strip to a strip wound tube and a finishing machine for cutting off pieces of desired length from the strip wound tube and for connecting strip layers in the end sections of the strip wound tube product by way of an joining operation, the finishing machine having a mobile operating head and/or a force decoupling unit.

Abstract: For each event detected during execution of a monitored application comprising a plurality of application components, a determination is made of which of the plurality of application components corresponds to the detected event. Also, a dependency subgroup that includes the application component that corresponds to the detected event is identified, wherein a dependency subgroup indicates dependencies among a subgroup of the plurality of application components. A location within the dependency subgroup of the application component corresponding to the detected event is determined. An order of correction for the application components determined to correspond to detected events are determined based, at least in part, on the determined location. Correction of the application components determined to correspond to detected events are initiated according to the determined order of correction.

Abstract: Numerous alerts may be received by a management system, potentially making it difficult to determine which alerts indicate events that are potentially more harmful. To identify alerts that indicate harmful events, a damage index for each of the alerts may be determined. Determining an alert damage index facilitates the ranking, sorting, or graphical representation of alerts. The alert damage index can indicate the potential damage or harm an event associated with the alert may cause if left unaddressed. For example, a low memory event has the potential to cause an application or server to respond slowly or not at all. The alert damage index may be determined by processing metrics that indicate the potential harm or severity of the event. For example, the alert damage index may be determined by processing an alert duration factor, an alert threshold breach factor, and a component load factor (damage factors).