mhurhangee/ep-ind-claims huggingface dataset:
A memory access device for accessing a memory line stored in a memory in a processor-based system, comprising: a control port configured to receive a read access request comprising a first logical memory address; and a memory access port configured to access the memory; the memory access device configured to: determine a priority of the read access request among a higher priority read access request and a lower priority read access request; characterised in that: in response to determining that the read access request is a higher priority read access request, retrieve through the memory access port, a first compressed higher priority memory line from the memory at the first logical memory address of the read access request; and in response to determining that the read access request is a lower priority read access request, retrieve through the memory access port, a first compressed lower priority memory line from the memory at a plurality of contiguous physical memory addresses derived from the first logical memory address of the read access request. a control port configured to receive a read access request comprising a first logical memory address; and a memory access port configured to access the memory; the memory access device configured to: determine a priority of the read access request among a higher priority read access request and a lower priority read access request; characterised in that: in response to determining that the read access request is a higher priority read access request, retrieve through the memory access port, a first compressed higher priority memory line from the memory at the first logical memory address of the read access request; and in response to determining that the read access request is a lower priority read access request, retrieve through the memory access port, a first compressed lower priority memory line from the memory at a plurality of contiguous physical memory addresses derived from the first logical memory address of the read access request. in response to determining that the read access request is a higher priority read access request, retrieve through the memory access port, a first compressed higher priority memory line from the memory at the first logical memory address of the read access request; and in response to determining that the read access request is a lower priority read access request, retrieve through the memory access port, a first compressed lower priority memory line from the memory at a plurality of contiguous physical memory addresses derived from the first logical memory address of the read access request.
Use of compounds of the formula W X Y Z R G H CH 3 H CH 3 OCH 3 H H CH 3 H CH 3 OCH 3 CO 2 -C 2 H 5 in the form of their isomer mixtures or their pure isomers for controlling animal pests, where the active substance is applied by drip application onto the soil.
A transistor comprising: an active region formed in a substrate, the active region being bounded by an outer periphery, the active region including a set of input fingers, a set of output fingers, and a set of common fingers disposed within the substrate and oriented substantially parallel to one another; an input port; an output port; a first via connection disposed at the outer periphery of the active region proximate the input port; and a second via connection disposed at the outer periphery of the active region proximate the output port, the second via connection having a noncircular cross-section with a second major axis and a second minor axis, the second major axis having a second major axis length, the second minor axis having a second minor axis length that is less than the second major axis length, wherein the second major axis is oriented parallel to a longitudinal dimension of the sets of input, output, and common fingers, wherein the first via connection has the noncircular cross-section with a first major axis and a first minor axis, the first major axis having a first major axis length, and the first minor axis having a first minor axis length that is less than the first major axis length, and wherein the second major axis of the second via connection is oriented non-parallel to the first major axis of the first via connection; and wherein the first and second via connections extend through the substrate and connect to a common node of the transistor. an active region formed in a substrate, the active region being bounded by an outer periphery, the active region including a set of input fingers, a set of output fingers, and a set of common fingers disposed within the substrate and oriented substantially parallel to one another; an input port; an output port; a first via connection disposed at the outer periphery of the active region proximate the input port; and a second via connection disposed at the outer periphery of the active region proximate the output port, the second via connection having a noncircular cross-section with a second major axis and a second minor axis, the second major axis having a second major axis length, the second minor axis having a second minor axis length that is less than the second major axis length, wherein the second major axis is oriented parallel to a longitudinal dimension of the sets of input, output, and common fingers, wherein the first via connection has the noncircular cross-section with a first major axis and a first minor axis, the first major axis having a first major axis length, and the first minor axis having a first minor axis length that is less than the first major axis length, and wherein the second major axis of the second via connection is oriented non-parallel to the first major axis of the first via connection; and wherein the first and second via connections extend through the substrate and connect to a common node of the transistor.
A transcatheter valve prosthesis and comprising: a stent having a compressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve, wherein the stent is self-expanding to return to the expanded configuration from the compressed configuration; a prosthetic valve component disposed within and secured to the stent; and an anti-paravalvular leakage component coupled to and encircling an outer surface of the tubular stent, the anti-paravalvular leakage component including a plurality of self-expanding segments and an annular sealing element attached to the segments, the ends of the segments being attached to the outer surface of the tubular stent at attachment points, wherein the anti-paravalvular leakage component has an expanded configuration in which the segments curve radially away from the outer surface of the tubular stent, wherein the attachment points of the segments are positioned on peaks of diamond-shaped openings formed within the tubular stent. a stent having a compressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve, wherein the stent is self-expanding to return to the expanded configuration from the compressed configuration; a prosthetic valve component disposed within and secured to the stent; and an anti-paravalvular leakage component coupled to and encircling an outer surface of the tubular stent, the anti-paravalvular leakage component including a plurality of self-expanding segments and an annular sealing element attached to the segments, the ends of the segments being attached to the outer surface of the tubular stent at attachment points, wherein the anti-paravalvular leakage component has an expanded configuration in which the segments curve radially away from the outer surface of the tubular stent, wherein the attachment points of the segments are positioned on peaks of diamond-shaped openings formed within the tubular stent.
An apparatus adapted to combine write transactions comprising: a processor including at least a first die and a second die; a link coupling the first die and the second die; and a link interface on the first die configured to transmit packets over the link, wherein the link interface is further configured to: identify, as candidates for combination, at least two write transactions in a queue based on the at least two write transactions being associated with data compressed using a same data compression scheme; combine the at least two candidate write transactions, including to add control information to a command of the combined write transaction that indicates a type of data compression scheme; and transmit the command for the combined write transactions a processor including at least a first die and a second die; a link coupling the first die and the second die; and a link interface on the first die configured to transmit packets over the link, wherein the link interface is further configured to: identify, as candidates for combination, at least two write transactions in a queue based on the at least two write transactions being associated with data compressed using a same data compression scheme; combine the at least two candidate write transactions, including to add control information to a command of the combined write transaction that indicates a type of data compression scheme; and transmit the command for the combined write transactions identify, as candidates for combination, at least two write transactions in a queue based on the at least two write transactions being associated with data compressed using a same data compression scheme; combine the at least two candidate write transactions, including to add control information to a command of the combined write transaction that indicates a type of data compression scheme; and transmit the command for the combined write transactions
Augmented reality contact lens (100; 100') comprising: - a transparent body designed to be placed on an eye; - at least one augmented reality module comprising: • an optical source attached to the transparent body and designed to emit light into the transparent body; • an optical element attached to the transparent body and designed to receive the light from the optical source and send it in the direction of the eye; wherein the optical source is designed to emit light, received by the optical element and containing no image, and in that the optical element is a hologram designed to diffract the received light in order to create a holographic image in the direction of the eye, characterized in that the contact lens has a central area formed solely by the transparent body, the central area being on the optical axis of the eye, in front of the pupil, when the transparent body is placed on the eye in its preferred position. - a transparent body designed to be placed on an eye; - at least one augmented reality module comprising: • an optical source attached to the transparent body and designed to emit light into the transparent body; • an optical element attached to the transparent body and designed to receive the light from the optical source and send it in the direction of the eye; wherein the optical source is designed to emit light, received by the optical element and containing no image, and in that the optical element is a hologram designed to diffract the received light in order to create a holographic image in the direction of the eye, characterized in that the contact lens has a central area formed solely by the transparent body, the central area being on the optical axis of the eye, in front of the pupil, when the transparent body is placed on the eye in its preferred position. • an optical source attached to the transparent body and designed to emit light into the transparent body; • an optical element attached to the transparent body and designed to receive the light from the optical source and send it in the direction of the eye;
A method of clock recovery between a master clock node and a client clock node operatively connected thereto via a packet-compatible network implementing a time-transfer protocol, the method comprising: a. by the master clock node or by the client clock node, generating a first flow of time-stamped packets bearing indication of high priority of delivery and, in parallel, generating a second flow of time-stamped packets bearing indication of lower priority of delivery; characterized by b. by the client clock node, processing the packets from the first flow separately from the packets from the second flow to define, separately for each flow, a function informative of changes of packets' delays in the respective flow over time; c. by the client clock node, using the defined functions informative of changes of packets' delays in the first and the second flows over the same time intervals to assess a cause of the packets' delays changes; and d. by the client clock node, applying a clock recovery algorithm in a manner differentiated in accordance with the assessed cause. a. by the master clock node or by the client clock node, generating a first flow of time-stamped packets bearing indication of high priority of delivery and, in parallel, generating a second flow of time-stamped packets bearing indication of lower priority of delivery; characterized by b. by the client clock node, processing the packets from the first flow separately from the packets from the second flow to define, separately for each flow, a function informative of changes of packets' delays in the respective flow over time; c. by the client clock node, using the defined functions informative of changes of packets' delays in the first and the second flows over the same time intervals to assess a cause of the packets' delays changes; and d. by the client clock node, applying a clock recovery algorithm in a manner differentiated in accordance with the assessed cause.
A method of laminated object additive manufacturing for veneer applications, comprising: loading at least one veneer into a laminated object additive manufacturing device, the at least one veneer being fabricated from a mixture including wood product and a binder; feeding a first layer of the at least one veneer over a working surface of the laminated object additive manufacturing device; cutting the first layer of the at least one veneer to form a first portion of the veneer product; actuating the working surface; feeding an additional layer of the at least one veneer over the first layer of the at least one veneer; cutting the additional layer of the at least one veneer to form an additional portion of the veneer product; adjusting one or more operational parameters of the laminated object additive manufacturing device via a controller; characterized by forming at least one of a veneer log; slicing the veneer log, wherein slicing the veneer log generates a secondary veneer. loading at least one veneer into a laminated object additive manufacturing device, the at least one veneer being fabricated from a mixture including wood product and a binder; feeding a first layer of the at least one veneer over a working surface of the laminated object additive manufacturing device; cutting the first layer of the at least one veneer to form a first portion of the veneer product; actuating the working surface; feeding an additional layer of the at least one veneer over the first layer of the at least one veneer; cutting the additional layer of the at least one veneer to form an additional portion of the veneer product; adjusting one or more operational parameters of the laminated object additive manufacturing device via a controller; characterized by forming at least one of a veneer log; slicing the veneer log, wherein slicing the veneer log generates a secondary veneer.
A method of producing a glycoprotein comprising a truncated von Willebrand Factor and comprising N-glycans with increased sialylation, wherein the truncated VWF is capable of binding to a Factor VIII (FVIII), - wherein the truncated VWF consists of (a) amino acids 764 to 1242 of SEQ ID NO:9 or (b) an amino acid sequence having a sequence identity of at least 90% to amino acids 764 to 1242 of SEQ ID NO:9, which method comprises (i) providing cells comprising a nucleic acid encoding a polypeptide comprising the truncated VWF, and (ii) culturing said cells at a temperature of less than 36.0°C. - wherein the truncated VWF consists of (a) amino acids 764 to 1242 of SEQ ID NO:9 or (b) an amino acid sequence having a sequence identity of at least 90% to amino acids 764 to 1242 of SEQ ID NO:9,
A method for operating a multi-access edge computing, MEC, system in which applications are provided by MEC tenants for deployment on MEC hosts of the MEC system and in which various levels of privileges are provided to the MEC tenants, the method comprising: assigning, by an MEC broker, privileges to MEC tenants, wherein the privileges refer to a set of allowed actions the respective MEC tenants are authorized to perform with respect to administering and managing how their respective MEC applications are deployed, configured and executed; exposing, by the MEC broker, interfaces and functions of the MEC system to the MEC tenants based on the privileges assigned to the MEC tenants; initiating, by the MEC broker via interactions with one or more of an MEC Orchestrator, an MEC platform manager, and a user app LCM proxy, operations including one or more selected from the group consisting of: application package on-boarding, application instance installation on selected MEC hosts, application provisioning, through configuration of appropriate parameters, and application life-cycle management operations including one or more of bootstrapping, termination, migration, scaling; and pre-validating, using the privileges provided to the MEC tenants, operation requests issued by the MEC tenants by the MEC broker to detect conflicts on the resources of MEC hosts. assigning, by an MEC broker, privileges to MEC tenants, wherein the privileges refer to a set of allowed actions the respective MEC tenants are authorized to perform with respect to administering and managing how their respective MEC applications are deployed, configured and executed; exposing, by the MEC broker, interfaces and functions of the MEC system to the MEC tenants based on the privileges assigned to the MEC tenants; initiating, by the MEC broker via interactions with one or more of an MEC Orchestrator, an MEC platform manager, and a user app LCM proxy, operations including one or more selected from the group consisting of: application package on-boarding, application instance installation on selected MEC hosts, application provisioning, through configuration of appropriate parameters, and application life-cycle management operations including one or more of bootstrapping, termination, migration, scaling; and application package on-boarding, application instance installation on selected MEC hosts, application provisioning, through configuration of appropriate parameters, and application life-cycle management operations including one or more of bootstrapping, termination, migration, scaling; and pre-validating, using the privileges provided to the MEC tenants, operation requests issued by the MEC tenants by the MEC broker to detect conflicts on the resources of MEC hosts.
A medical device, comprising: a flexible electrode array having a bend radius of no more than about 2mm; and a fluidic component, wherein the fluidic component is fluidically actuatable to cause the fluidic component to change configuration; wherein the fluidic component and the flexible electrode array are configured such that a change in configuration of the fluidic component causes a change in configuration of the flexible electrode array. a flexible electrode array having a bend radius of no more than about 2mm; and a fluidic component, wherein the fluidic component is fluidically actuatable to cause the fluidic component to change configuration; wherein the fluidic component and the flexible electrode array are configured such that a change in configuration of the fluidic component causes a change in configuration of the flexible electrode array.
A band saw for dividing logs into wood products, comprising a band saw blade and a guiding for the band saw blade, in which at least two magnetic guiding elements (20a, 20b) encompass the band saw blade within a space between them, and further comprising wipers arranged each on the guiding elements (20a, 20b) and lying against the band saw blade, characterized in that the wipers are configured as sealing rails (28a, 28b) arranged movably on the guiding elements (20a, 20b) in a direction (30a, 30b) transversely to the running direction and transversely to the conveying direction of a sawing item to be sawn by the band saw.
A system for capturing aerial images of the ground, with camera modules having optical fields of view of the ground in the form of two strips (650a, 650b) of finite length substantially at right angles to each other, the system characterized by: a) two steerable detail camera modules (610, 614a, 614b), each steerable detail camera module (610, 614a, 614b) comprising a detail camera (110, 600) and a beam-steering mechanism, b) a pointing direction of the detail camera (110, 600) being time-multiplexed by being varied over time by the beam-steering mechanism in order to sweep out a wider effective field of view (160, 612) of the ground in the form of a strip of finite length oriented along a steering axis, c) the beam-steering mechanism comprising a first steerable mirror mounted in an optical path of the detail camera (110, 600), the first steerable mirror creating the steering of the effective field of view (160, 612) by being spun about the optical axis of the optical path of the detail camera (110, 600), d) the steering axes of each detail camera module (610, 614a, 614b) being angularly distributed substantially 90 degrees apart from each other and angled at substantially 45 degrees to a line of flight. a) two steerable detail camera modules (610, 614a, 614b), each steerable detail camera module (610, 614a, 614b) comprising a detail camera (110, 600) and a beam-steering mechanism, b) a pointing direction of the detail camera (110, 600) being time-multiplexed by being varied over time by the beam-steering mechanism in order to sweep out a wider effective field of view (160, 612) of the ground in the form of a strip of finite length oriented along a steering axis, c) the beam-steering mechanism comprising a first steerable mirror mounted in an optical path of the detail camera (110, 600), the first steerable mirror creating the steering of the effective field of view (160, 612) by being spun about the optical axis of the optical path of the detail camera (110, 600), d) the steering axes of each detail camera module (610, 614a, 614b) being angularly distributed substantially 90 degrees apart from each other and angled at substantially 45 degrees to a line of flight.