Finnegan Europe LLP

The disclosure describes systems and methods for parametric multi-channel testing of semiconductor devices. A system provides multiple test channels that include a pulse resource and a measuring resource with high-current (HC) and low-current (LC) switches coupled to a potential node connected to a testing pin. The pulse resource includes a first branch with a pulse generator, programmable-gain amplifier, switches for different branches or operations providing pulse current/voltage monitoring and a high-speed switch. A mode switch can be incorporated to selectively connect the potential node to the pulse resource for pulse testing, to the measuring resource with the HC switch closed for high-potential testing, or to the measuring resource with the LC switch closed for low-potential testing. Channels can further include direct digital synthesizers and processing circuits that generate calibrated test signals, perform analog-to-digital conversion, and execute frequency-domain transforms, with outputs using unique frequency/phase locked for coordinated, low-latency parallel operation.

The disclosure is directed to systems and method with improved coordination for multiple parametric test channels. The system can be configured to receive a testing routine and distribute test operations to a plurality of test channels comprising channel processors, testing circuits coupled to test pins configurable to be connected to the device under test (DUT), and trigger interfaces coupled to the testing circuits. Additionally, some implementations can include a hub device coupled to the processing system and to the trigger interfaces, the hub device includes programmable logic gates configured to define a trigger group including at least two of the trigger interfaces and to generate trigger signals according to the testing routine. Further, at least a portion of the channel processors perform operations according to the testing routine upon receipt of the trigger signals. The disclosure enables synchronized yet autonomous multi-channel testing that improves test throughput and timing accuracy.

A method for pre-fetching and deploying microservices in vehicles is disclosed. The method includes receiving, in vehicle, place details corresponding to each of plurality of places on user-selected route from server; transmitting feature request to server for identification of one or more of plurality of feature IDs and corresponding one or more of plurality of feature details; receiving one or more of plurality of feature IDs and corresponding one or more of plurality of feature details from server in response to feature request; transmitting microservice download request to server for retrieval of set of microservice packages corresponding to user selection of set of feature IDs from one or more of plurality of feature IDs; receiving set of microservice packages corresponding to set of feature IDs from server in response to microservice download request; managing deployment of set of microservices corresponding to set of microservices packages based on predefined criteria.

The present disclosure relates to an artificial plant organ, an artificial plant, and a method for manufacturing the same. The method for manufacturing an artificial plant organ described in the present disclosure includes: preparing a multifunctional biaxially oriented polyester film, and processing the multifunctional biaxially oriented polyester film into an artificial plant organ. The method for manufacturing the artificial plant provided in the present disclosure can improve the production efficiency of artificial plant organs or artificial plants, and improve the simulation degree and durability thereof. Furthermore, the artificial plant organs or artificial plants manufactured by the method are more environmentally friendly and safer, and have multiple practical performances.

The present disclosure relates to a multifunctional artificial plant organ, a multifunctional artificial plant, and a method for manufacturing the same. The method for manufacturing the multifunctional artificial plant organ described in the present disclosure includes: preparing a multifunctional PET material, and processing the multifunctional PET material into the multifunctional artificial plant organ. The method for manufacturing the artificial plant provided in the present disclosure can improve the production efficiency of artificial plant organs or artificial plants, and improve the simulation degree and durability thereof. Furthermore, the artificial plant organs or artificial plants manufactured by the method are more environmentally friendly and safer, and have multiple practical performances.

A disclosed corrugated end cap includes a corrugated frame having one or more corrugations defined by one or more sets of alternating peaks and valleys. The end cap also includes one or more ribs disposed in one or more of the valleys and one or more valley reinforcements disposed in the valleys and running over a top surface of the corrugated frame. For example, the one or more ribs may be configured to increase a resistance of the frame to bending. Additionally or alternatively, the top surface, a front surface, and a rear of the corrugated frame surround a recess configured to receive latch ridges from a stormwater chamber.

Stormwater management systems, methods, and apparatuses for containing and filtering runoff may be provided. In one implementation, a flared end ramp for managing flow of material into a stormwater chamber may be provided. The flared end ramp may include an inlet end configured for connection with a pipe, a side wall of the flared end ramp having a rounded profile at the inlet end; an outlet end configured for placement within the stormwater chamber; and an inclined surface extending between the inlet end and the outlet end of the flared end ramp and configured to deliver material from the pipe into the stormwater chamber. The outlet end of the flared end ramp may have a larger width than the inlet end of the flared end ramp such that the inclined surface is angled laterally outward from the inlet end toward the outlet end.

Landing gear (10) for an aircraft (100), comprising a wheel (20) or a skid, a shock absorber (30) with an absorber connection (32) to connect to a fuselage (110) of the aircraft (100) and at least one attachment lever (40) with a lever connection (42) to connect to the fuselage (110) of the aircraft (100) spaced apart from the absorber connection (32), the wheel (20) or skid being attached to the attachment lever (40) spaced apart from the lever connection (42), wherein the shock absorber (30) is connected to the wheel (20) or skid directly or indirectly via a wheel or skid connection (34) to provide a load path (LP) for vertical load from the wheel (20) or skid to the absorber connection (32), and wherein the shock absorber (30) comprises a fuse pin (36) at the absorber connection (32) and/or the wheel or skid connection (34) having a predetermined breaking load to break and release the connection at the absorber connection (32) and/or the wheel or skid connection (34), and wherein the attachment lever (40) comprises a rotary bearing (41) providing a folding movement for the wheel (20) or skid from an extended landing position (ELP) into a crash position (CP) when the fuse pin (36) breaks.

The present disclosure relates to a continuous blood glucose measurement device and an applicator, wherein the continuous blood glucose measurement device is produced in a state in which a body attachment unit has been assembled inside an applicator, so as to minimize a user's additional work of attaching the body attachment unit to the body, thereby enabling the body attachment unit to be attached to the body only by simply activating the applicator. Particularly, the present invention provides a continuous blood glucose measurement device and an applicator, wherein the applicator comprises a plunger body disposed at a first locating in an inner space of a main case and configured to downwardly move to a second location according to a manipulation of a pressure button. The pressure button is configured to be mode-changeable from a first mode, in which pressurizing movement by pressurizing manipulation is prevented, to a second mode, in which the pressurizing movement by the pressurizing manipulation is allowed.

A method and a system for migrating a source code from a source programming language to a target programming language using a Large Language Model (LLM) is disclosed. A processor receives a set of user instructions comprising a number of iterations and a set of code migration instructions. A preliminary target code is determined in the target programming language based on prompting the LLM using one or more of a set of optimized prompts and the source code. An evaluation report is determined for the preliminary target code based on prompting the LLM using one from the set of optimized prompts, the set of code migration instructions and the preliminary target code of a current iteration. The preliminary target code of the current iteration is rendered as a target code on an output device.