mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for protecting operating personnel from dangerous contact voltage in a series circuit, wherein the series circuit has a centrally arranged constant-current regulator (11, 12, 13, 14) and a plurality of lamp transformers (15, 31, 41, 51) connected in series on their primary side by series cables (17, 32, 42, 52), wherein the constant-current regulator (11, 12, 13, 14) has a series circuit transformer, to the secondary side of which the lamp transformers (15, 31, 41, 51) are connected, and wherein a lighting means (16, 33, 43, 53) is connected to the respective secondary side of each lamp transformer (15, 31, 41, 51), wherein the arrangement comprises: a) one or more protective circuits, which are each connected between the secondary side of a lamp transformer (15, 31, 41, 51) and the associated lighting means (16, 33, 43, 53), wherein each protective circuit has a closing and openable electrical contact for bridging the lamp transformer (15, 31, 41, 51) by short-circuiting, characterized in that b) each electrical contact can be manually actuated for repair in situ by the operating personnel, and c) each protective circuit further comprises a measurement and display device (MAI, MAU), which is designed to detect and display a closing and an opening of the associated electrical contact by means of a current and/or voltage measurement. a) one or more protective circuits, which are each connected between the secondary side of a lamp transformer (15, 31, 41, 51) and the associated lighting means (16, 33, 43, 53), wherein each protective circuit has a closing and openable electrical contact for bridging the lamp transformer (15, 31, 41, 51) by short-circuiting, b) each electrical contact can be manually actuated for repair in situ by the operating personnel, and c) each protective circuit further comprises a measurement and display device (MAI, MAU), which is designed to detect and display a closing and an opening of the associated electrical contact by means of a current and/or voltage measurement.
A data switch comprising: a crosspoint switch having at least one input port for receiving data and a plurality of output ports, the crosspoint switch being configured to configurably multicast data received at at least one input port of a crosspoint switch to the plurality of output ports; and a logic function device having a plurality of inputs respectively connected to each of the plurality of output ports of the crosspoint switch, the logic function device being configured with at least one logic function to be applied to data received from the plurality of output ports of the crosspoint switch and which outputs processed data to a plurality of respective logic function device output interfaces, wherein the at least one logic function comprises timestamping and wherein each of the plurality of logic function device output interfaces is connected to an input of the crosspoint switch. a crosspoint switch having at least one input port for receiving data and a plurality of output ports, the crosspoint switch being configured to configurably multicast data received at at least one input port of a crosspoint switch to the plurality of output ports; and a logic function device having a plurality of inputs respectively connected to each of the plurality of output ports of the crosspoint switch, the logic function device being configured with at least one logic function to be applied to data received from the plurality of output ports of the crosspoint switch and which outputs processed data to a plurality of respective logic function device output interfaces, wherein the at least one logic function comprises timestamping and wherein each of the plurality of logic function device output interfaces is connected to an input of the crosspoint switch.
System comprising at least two floor processing means (1, 2) of at least one automatically moving floor processing device (3, 4) for the automatically controlled processing of a surface, wherein the system has a database which is jointly assigned to the floor processing means (1, 2) and which is stored in a external memory formed separately from the floor processing device (3, 4) and in which operational activities for the floor processing means (1, 2) are planned in a time-dependent and event-dependent manner according to defined rules, wherein the database comprises a table in which operational activities of each floor processing means (1, 2) are planned according to years, months, days and/or times, and comprising a central computing device which is assigned to the database and plans operational activities according to defined rules, wherein the database contains if-then links which are defined between defined events and operational activities of the floor processing means (1, 2) triggered thereby, wherein an operational activity of a floor processing means (1, 2) is triggered only if a defined event occurs at a specific point in time, and wherein at least two operational activities form a sequence of activities in the database, in which sequence a subsequent operational activity depends on an earlier operational activity, wherein a second operational activity is executed only if a first operational activity was previously executed, wherein the second operational activity is not executed if the planned first operational activity is not executed, and/or wherein a follow-up activity is stored for an operational activity stored in the database, which follow-up activity is defined and executed depending on a failure of the executed operational activity.
A method of adaptive anti-windup protection for a control system with cascaded inner and outer control loops (120, 140), the method including: receiving an inner control loop feedback signal indicative of a response of a control device controlled by an inner control loop, the control device being configured to operate according to minimum and maximum electrical current limits; calculating an inner control loop request such that, it would cause saturation of the control device controlled by the inner control loop, the saturation occurring when an electrical current controlling the control device reaches the minimum electrical current limit or the maximum electrical current limit; converting the inner control loop request to outer loop anti-windup request limits using kinematic relationships between the control device and a plant responsive to the control device; modifying the outer loop anti-windup request limits if the control device controlled by the inner control loop operates at saturation; and transmitting the outer loop anti-windup request limits to a controller of the outer control loop. receiving an inner control loop feedback signal indicative of a response of a control device controlled by an inner control loop, the control device being configured to operate according to minimum and maximum electrical current limits; calculating an inner control loop request such that, it would cause saturation of the control device controlled by the inner control loop, the saturation occurring when an electrical current controlling the control device reaches the minimum electrical current limit or the maximum electrical current limit; converting the inner control loop request to outer loop anti-windup request limits using kinematic relationships between the control device and a plant responsive to the control device; modifying the outer loop anti-windup request limits if the control device controlled by the inner control loop operates at saturation; and transmitting the outer loop anti-windup request limits to a controller of the outer control loop.
An access point of a first access subnetwork for providing a temporary identifier to a mobile node in order to permit routing of data packets to the mobile node via a network infrastructure, for use in a wireless communication system having a mobile node operable to communicate by way of the network infrastructure with another communication node, the mobile node movable between a first position and at least a second position, and when positioned at the first position, the mobile node is operable to communicate by way of the first subnetwork of the network infrastructure, said access point comprising: a detector coupled to detect indications of a decision to handover communications of the mobile node between the first subnetwork of the network infrastructure, accessed by the access point and a second subnetwork of the network infrastructure; a receiver for receiving, at the access point acting as target access point, a handover request; a first cache for caching a plurality of temporary identifiers; and an assignor coupled to said detector, said assignor for assigning, by the access point, acting as target access point, from the first cache, one unused temporary identifier of the plurality of cached temporary identifiers to the mobile node subsequent to detection by said detector of when the handover is to be effectuated and prior to effectuation of the handover. a detector coupled to detect indications of a decision to handover communications of the mobile node between the first subnetwork of the network infrastructure, accessed by the access point and a second subnetwork of the network infrastructure; a receiver for receiving, at the access point acting as target access point, a handover request; a first cache for caching a plurality of temporary identifiers; and an assignor coupled to said detector, said assignor for assigning, by the access point, acting as target access point, from the first cache, one unused temporary identifier of the plurality of cached temporary identifiers to the mobile node subsequent to detection by said detector of when the handover is to be effectuated and prior to effectuation of the handover.
A tray for use in a freeze drying plant, comprising a carrier plate at whose upper side a placement area is formed on which the vials containing frozen product can be placed, wherein a first boundary member that laterally bounds the placement area is provided at the right margin of the carrier plate, and wherein a second boundary member that laterally bounds the placement area is provided at the left margin of the carrier plate, characterized in that the first boundary member is held pivotably at the carrier plate in a plane in parallel with the placement area by means of a first pivot joint; and in that means for pivoting the first boundary member in a plane in parallel with the placement area are provided; and/or in that the second boundary member is held pivotably at the carrier plate in a plane in parallel with the placement area by means of a second pivot joint; and in that means for pivoting the second boundary member in a plane in parallel with the placement area are provided. comprising a carrier plate at whose upper side a placement area is formed on which the vials containing frozen product can be placed, wherein a first boundary member that laterally bounds the placement area is provided at the right margin of the carrier plate, and wherein a second boundary member that laterally bounds the placement area is provided at the left margin of the carrier plate, characterized in that the first boundary member is held pivotably at the carrier plate in a plane in parallel with the placement area by means of a first pivot joint; and in that means for pivoting the first boundary member in a plane in parallel with the placement area are provided; and/or in that the second boundary member is held pivotably at the carrier plate in a plane in parallel with the placement area by means of a second pivot joint; and in that means for pivoting the second boundary member in a plane in parallel with the placement area are provided.
A genetically modified mouse, whose genome comprises a replacement at an endogenous mouse IL-15 locus, of a mouse genomic fragment coding for a mature mouse IL-15 polypeptide, with a human genomic segment coding for a mature human IL-15 polypeptide wherein the human IL-15 exons in said human genomic segment consist of human IL-15 protein-coding exons 3, 4, 5 and 6, to form a humanized IL-15 gene, wherein the IL-15 exons are numbered with the first coding exon as exon 1, and wherein the humanized IL-15 gene is under control of all endogenous mouse IL-15 upstream regulatory elements at the endogenous mouse IL-15 locus.
A system for dosed dispensing of a fluid, comprising a container for the fluid and a dispensing device connected therewith, wherein the container comprises a form-retaining outer container and a flexible inner container connected therewith, wherein the inner and outer container (4, 5) are mutually connected at or near a neck of the container, and wherein a space to be brought into fluid communication with the ambient atmosphere can be developed between the inner and outer containers (4, 5), characterized in that the dispensing device includes a housing and/or frame of which at least a part is integrally formed with the container, wherein at least one of the inner or outer containers (4, 5) extends beyond the neck to form the integrated part of the dispensing device housing and/or frame.
A hydrogenated block copolymer comprising a polymer block containing a constitutional unit derived from an aromatic vinyl compound and a polymer block containing from 1 to 100% by mass of a constitutional unit derived from farnesene and from 99 to 0% by mass of a constitutional unit derived from a conjugated diene other than the farnesene, in which from 70 to 100 mol% of carbon-carbon double bonds in the polymer block are hydrogenated.
A method for in vitro transcription and translation, comprising: contacting a double-stranded concatemeric DNA with a eukaryotic cell-free expression system, wherein the double-stranded concatemeric DNA comprises a plurality of tandem repeat sequences, and wherein each of the tandem repeat sequences comprises an expression sequence comprising a promoter, a cap-independent translation element (CITE), and an open reading frame; and expressing a protein in vitro from the double-stranded concatemeric DNA in the eukaryotic cell-free expression system, wherein a final concentration of the double-stranded concatemeric DNA in the eukaryotic cell-free expression system is in a range from 0.1 ng/μL to 35 ng/μL contacting a double-stranded concatemeric DNA with a eukaryotic cell-free expression system, wherein the double-stranded concatemeric DNA comprises a plurality of tandem repeat sequences, and wherein each of the tandem repeat sequences comprises an expression sequence comprising a promoter, a cap-independent translation element (CITE), and an open reading frame; and expressing a protein in vitro from the double-stranded concatemeric DNA in the eukaryotic cell-free expression system, wherein a final concentration of the double-stranded concatemeric DNA in the eukaryotic cell-free expression system is in a range from 0.1 ng/μL to 35 ng/μL
A method for sharing network status data between an element management system server and at least one of a plurality of other EMS servers in a network, said method comprising: providing a data structure in said EMS server, characterised in that: said data structure includes network status data associated with multiple said EMS servers in said network; and in that the method further comprises: receiving at least one message in said EMS server, said received message being sent by at least one of said other EMS servers and said received message including network status data associated with multiple said EMS servers in said network; updating said data structure in said EMS server with updated network status data from said received message; updating said data structure in said EMS server with updated network status data obtained by said EMS server when performing EMS functions; transmitting at least one message to at least one of said other EMS servers at a predetermined time, said at least one transmitted message including said updated data structure; providing a list of said other EMS servers in said EMS server, wherein transmitting said at least one message includes transmitting said message to a neighboring one of said EMS servers as defined by said list of EMS servers; determining if a predetermined time for receiving said message from a neighboring server has expired; broadcasting an availability status request message to said other EMS servers if said predetermined time for receiving said message has expired to determine which of said other EMS servers are available EMS servers; and transmitting said message to a least one of said available EMS servers. providing a data structure in said EMS server, characterised in that: said data structure includes network status data associated with multiple said EMS servers in said network; updating said data structure in said EMS server with updated network status data from said received message; updating said data structure in said EMS server with updated network status data obtained by said EMS server when performing EMS functions; transmitting at least one message to at least one of said other EMS servers at a predetermined time, said at least one transmitted message including said updated data structure; providing a list of said other EMS servers in said EMS server, wherein transmitting said at least one message includes transmitting said message to a neighboring one of said EMS servers as defined by said list of EMS servers; determining if a predetermined time for receiving said message from a neighboring server has expired; broadcasting an availability status request message to said other EMS servers if said predetermined time for receiving said message has expired to determine which of said other EMS servers are available EMS servers; and transmitting said message to a least one of said available EMS servers.
Medical device comprising three pathways (3, 4, 5), wherein each pathway (3, 4, 5) of said three pathways is extending between a first zone intended to receive a sample in the liquid form and an end zone having an absorbent portion, wherein each of said pathways (3, 4, 5) comprises the following zones, all extending between said first zone and said end zone: an intermediate zone or catch zone loaded with a predetermined quantity of a predetermined protein, said protein being constituted by TNF-alpha, Lactoferrin and Lipocalin-1 in said pathways (3, 4, 5), respectively; a conjugate zone arranged upstream of said intermediate zone and loaded with a respective antibody bounded to an indicator means, wherein said antibody is specific for the TNF-alpha, Lactoferrin and Lipocalin-1 proteins in said pathways (3, 4, 5), respectively; a control zone arranged downstream of said intermediate zone and loaded with an anti-immunoglobulin species-specific antibody. an intermediate zone or catch zone loaded with a predetermined quantity of a predetermined protein, said protein being constituted by TNF-alpha, Lactoferrin and Lipocalin-1 in said pathways (3, 4, 5), respectively; a conjugate zone arranged upstream of said intermediate zone and loaded with a respective antibody bounded to an indicator means, wherein said antibody is specific for the TNF-alpha, Lactoferrin and Lipocalin-1 proteins in said pathways (3, 4, 5), respectively; a control zone arranged downstream of said intermediate zone and loaded with an anti-immunoglobulin species-specific antibody.
A method, comprising: receiving, by a particular node in a computer network, electrical power from a grid source; determining routing metrics to a plurality of neighbor nodes of the particular node in the computer network; determining power grid connectivity of the plurality of neighbor nodes; routing traffic from the particular node to one or more select neighbor nodes having preferred routing metrics; detecting a power outage condition at the particular node; and in response to the power outage condition, routing traffic from the particular node to one or more select neighbor nodes having diverse power grid connectivity from the particular node. receiving, by a particular node in a computer network, electrical power from a grid source; determining routing metrics to a plurality of neighbor nodes of the particular node in the computer network; determining power grid connectivity of the plurality of neighbor nodes; routing traffic from the particular node to one or more select neighbor nodes having preferred routing metrics; detecting a power outage condition at the particular node; and in response to the power outage condition, routing traffic from the particular node to one or more select neighbor nodes having diverse power grid connectivity from the particular node.
A high electron mobility transistor (HEMT) suitable for use in a switch mode power amplifier comprising: a) a compound semiconductor substrate, b) a channel layer on the compound semiconductor substrate, c) a barrier layer on the channel layer, d) a first, second and third dielectric layers over the barrier layer, wherein the first dielectric layer comprises silicon dioxide and is arranged on the barrier layer, the second dielectric layer comprises silicon nitride and is arranged on the first dielectric layer and the third dielectric layer comprises silicon dioxide and is arranged on the second dielectric layer and, in a via that extends through the first and second dielectric layers, on the first and second dielectric layers and the barrier layer, e) source and drain electrodes extending through the first and second dielectric layers and contacting the barrier layer, f) a gate electrode positioned on dielectric material between the source and drain electrodes, wherein the gate contact is in the via that extends through the first and second dielectric layers and is isolated from the first and second dielectric layers and from the barrier layer by the third dielectric layer, and g) a field plate extension from the gate electrode over the first, second and third dielectric layers towards the drain electrode. a) a compound semiconductor substrate, b) a channel layer on the compound semiconductor substrate, c) a barrier layer on the channel layer, d) a first, second and third dielectric layers over the barrier layer, wherein the first dielectric layer comprises silicon dioxide and is arranged on the barrier layer, the second dielectric layer comprises silicon nitride and is arranged on the first dielectric layer and the third dielectric layer comprises silicon dioxide and is arranged on the second dielectric layer and, in a via that extends through the first and second dielectric layers, on the first and second dielectric layers and the barrier layer, e) source and drain electrodes extending through the first and second dielectric layers and contacting the barrier layer, f) a gate electrode positioned on dielectric material between the source and drain electrodes, wherein the gate contact is in the via that extends through the first and second dielectric layers and is isolated from the first and second dielectric layers and from the barrier layer by the third dielectric layer, and g) a field plate extension from the gate electrode over the first, second and third dielectric layers towards the drain electrode.