mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of providing, graphically displaying, compiling and executing a block diagram model for simulation of a technical system, comprising: - providing and displaying on a display a block diagram model of the technical system, where the block diagram model includes an element representing a technical module and having a plurality of execution implementations; - receiving an indication of a user selection of a first execution implementation of the element among the plurality of execution implementations; and being further characterized by further comprising - displaying on the display blocks presenting the plurality of execution implementations of said element and a variant section block to select between the plurality of execution implementations; - compiling the block diagram model into a compiled model to execute the block diagram model using the first execution implementation of the element in accordance to the indication of said user selection, wherein the compiling comprises compiling the block diagram model to generate code for the first execution implementations of the element and to include in the compiled model code constituting the first execution implementation of the element and when a user chooses a minimal code generation mode, not to generate code for the other execution implementations of the element and excluding from the compiled model code constituting the other execution implementations of the element. - providing and displaying on a display a block diagram model of the technical system, where the block diagram model includes an element representing a technical module and having a plurality of execution implementations; - receiving an indication of a user selection of a first execution implementation of the element among the plurality of execution implementations; and being further characterized by further comprising - displaying on the display blocks presenting the plurality of execution implementations of said element and a variant section block to select between the plurality of execution implementations; - compiling the block diagram model into a compiled model to execute the block diagram model using the first execution implementation of the element in accordance to the indication of said user selection,
A chimeric (poly-)peptide comprising a JNK inhibitor (poly-)peptide for use in the treatment of intraocular inflammation after eye surgery or eye trauma, wherein the chimeric (poly-)peptide consists of or comprises the all D amino acid sequence of SEQ ID NO: 11, or a fragment, or variant thereof sharing a sequence identity of at least 90% with the all D amino acid sequence of SEQ ID NO: 11.
A communication circuit comprising: at least one receive amplifier configured to: connect to an antenna; and low-noise amplify at least a part of a multi-band signal; and a transceiver configured to process a signal output from the at least one receive amplifier;a transmit amplifier configured to amplify a signal output from the transceiver; a front-end switching circuit configured to connect to the antenna; at least one duplexer or quadplexer configured to be disposed between the front-end switching circuit and the transmit amplifier; and at least one back-end switching circuit configured to be disposed between the at least one duplexer or quadplexer and the transceiver; wherein the at least one receive amplifier is disposed between the at least one back-end switching circuit and the transceiver; and wherein the transceiver is implemented as an integrated circuit, the integrated circuit excluding the receive amplifier. connect to an antenna; and low-noise amplify at least a part of a multi-band signal; and a transceiver configured to process a signal output from the at least one receive amplifier;a transmit amplifier configured to amplify a signal output from the transceiver; a front-end switching circuit configured to connect to the antenna; at least one duplexer or quadplexer configured to be disposed between the front-end switching circuit and the transmit amplifier; and at least one back-end switching circuit configured to be disposed between the at least one duplexer or quadplexer and the transceiver; wherein the at least one receive amplifier is disposed between the at least one back-end switching circuit and the transceiver; and wherein the transceiver is implemented as an integrated circuit, the integrated circuit excluding the receive amplifier.
A separating agent characterized in that a group represented by a chemical formula of: or a group represented by a chemical formula of: is introduced on a surface thereof.
A method of sending a transmission configuration indication, TCI, state, applied to a network-side device, comprising: based on a channel, a Reference Signal, RS, type, or a Control Resource Set, CORESET, selecting at least one TCI state from a plurality of candidate TCI states configured in advance; and establishing a TCI state table according to the at least one TCI state, wherein, the TCI state table comprises correspondence relationship between the TCI state and an RS set, correspondence relationship among the TCI state, the RS set, and a Quasi-Co-Location, QCL, type, or correspondence relationship between the TCI state and a channel type; sending the TCI state table and an identifier of the channel, the RS type or the CORESET corresponding to the TCI state table; wherein after sending the TCI state table and the identifier of the channel, the RS type or the CORESET corresponding to the TCI state table, the method further comprises: sending TCI state indication information, wherein the TCI state indication information carries a target TCI state in the TCI state table; wherein the target TCI state is used to indicate the TCI state of a data channel, the TCI state indication information is sent through a Downlink Control Information, DCI, message; wherein, before sending the DCI message, the methods further comprises: indicating, through sending an RRC message or a MAC CE message, a signaling field for sending the TCI state to be enabled in the DCI message. based on a channel, a Reference Signal, RS, type, or a Control Resource Set, CORESET, selecting at least one TCI state from a plurality of candidate TCI states configured in advance; and establishing a TCI state table according to the at least one TCI state, wherein, the TCI state table comprises correspondence relationship between the TCI state and an RS set, correspondence relationship among the TCI state, the RS set, and a Quasi-Co-Location, QCL, type, or correspondence relationship between the TCI state and a channel type; sending the TCI state table and an identifier of the channel, the RS type or the CORESET corresponding to the TCI state table; wherein after sending the TCI state table and the identifier of the channel, the RS type or the CORESET corresponding to the TCI state table, the method further comprises: sending TCI state indication information, wherein the TCI state indication information carries a target TCI state in the TCI state table; wherein the target TCI state is used to indicate the TCI state of a data channel, the TCI state indication information is sent through a Downlink Control Information, DCI, message; wherein, before sending the DCI message, the methods further comprises: indicating, through sending an RRC message or a MAC CE message, a signaling field for sending the TCI state to be enabled in the DCI message.
Medical equipment for High Frequency Chest Wall Oscillation (HFCWO) treatment configured to be worn on a thorax and arranged to apply repetitive compressions to the thorax, the medical equipment comprising a plurality of pressure devices to apply the repetitive compressions and comprising each a deformable chamber and at least a port (305, 306) in communication with the chamber configured to let a pressurized fluid flowing alternatively in and out the chamber so that the pressure device alternatively passes from an inflated configuration to a deflated configuration, wherein the pressure device comprises a body forming at least a part of the chamber, a head configured to stroke the thorax during usage, and a base, the body extending between the base and the head, and wherein the head of the pressure device comprises an impact face configured to apply the repetitive compressions against the thorax, characterized by the body comprising elastic means formed by bellows arranged for automatically decreasing the length of the body and bringing the pressure device back to its deflated configuration when the chamber is not supplied with pressurized fluid, wherein the impact face presents at least an elongation that extends along one main direction, the medical equipment being configured so that in use said one main direction is parallel to the spinal column, the dimension of the impact face along the main direction being comprised between 3 centimeters (cm = 10 -2 meters) and 8cm and being greater than 1,5 times the dimension of the impact face according to a direction perpendicular to said main direction, and wherein the dimension of the impact face according to the direction perpendicular said main direction is comprised between 1cm and 4cm.
Distribution device for coloring products, comprising a collector for dispensing nozzles and corresponding nozzles mounted thereon, wherein said collector comprises a containing body provided with through cavities, each suitable to contain one of said dispensing nozzles, which, in correspondence with one of its dispensing end associated, during use, to an external surface of said containing body, is provided with at least one positioning element of the snap-in type, wherein said containing body is provided with a seating, inside said external surface, disposed at the end of each of said through cavities, defining a wider portion with respect to the cross section of the corresponding through cavity, and in which said snap-in positioning element of the corresponding dispensing nozzle is suitable to be housed, wherein each of said dispensing nozzles has a tubular shape having a determinate transverse size and each of said through cavities comprises a hole with shape and transverse size mating with those of said dispensing nozzles, wherein said seating comprises a notch having a transverse size greater than that of the corresponding through cavity, characterised in that, each of said dispensing nozzles has a substantially cylindrical tubular shape and is provided at one end with a pair of snap-in positioning elements disposed in diametrically opposite positions, and wherein each of said through cavities comprises a substantially cylindrical hole, wherein said notch has a substantially cylindrical or truncated cone shape, so as to accommodate said pair of positioning elements, wherein each of said positioning elements comprises a flexible tongue, elastically movable between an extended position and a compressed position, wherein the transverse size of said notch is substantially equal to the maximum bulk of said pair of positioning elements in the extended position.
A touch display device, comprising: a first substrate a display panel formed on the first substrate; wherein the display panel includes an active area and a non-active area positioned outside the active area; a plurality of first pads arranged in the non-active area above the first substrate; at least one dam positioned between the plurality of first pads and the active area on the first substrate; a second substrate positioned above the at least one dam and above the first substrate and overlapping the active area of the display panel as well as partially overlapping the non-active area of the display panel, wherein it only partially overlaps the at least one dam and does not overlap the second pads, a plurality of touch electrodes disposed between the first substrate and the second substrate; and a plurality of second pads positioned above the at least one dam, each of the plurality of second pads is electrically connected with one touch electrode among the plurality of touch electrodes; wherein the second pads are located in an area of the non-active area that does not overlap the area in which the first pads are disposed so as not to overlap the first pads, wherein the plurality of first pads and the plurality of second pads are alternately arranged along an outer periphery of the first substrate. a first substrate a display panel formed on the first substrate; wherein the display panel includes an active area and a non-active area positioned outside the active area; a plurality of first pads arranged in the non-active area above the first substrate; at least one dam positioned between the plurality of first pads and the active area on the first substrate; a second substrate positioned above the at least one dam and above the first substrate and overlapping the active area of the display panel as well as partially overlapping the non-active area of the display panel, wherein it only partially overlaps the at least one dam and does not overlap the second pads, a plurality of touch electrodes disposed between the first substrate and the second substrate; and a plurality of second pads positioned above the at least one dam, each of the plurality of second pads is electrically connected with one touch electrode among the plurality of touch electrodes; wherein the second pads are located in an area of the non-active area that does not overlap the area in which the first pads are disposed so as not to overlap the first pads, wherein the plurality of first pads and the plurality of second pads are alternately arranged along an outer periphery of the first substrate.
A valve comprising a thermal actuator, the valve being arranged so as to be actuated by the thermal actuator, the thermal actuator comprising: at least two containers (102, 104) containing a first fluid, the at least two containers (102, 104) defining interior portions (106, 108) that are interconnected such that the interior portions (106, 108) of the containers (102, 104) are in fluidal communication with each other, the first fluid comprising a first liquid component and a second gaseous component; wherein the thermal actuator is arranged such that a change in a temperature difference between two of the at least two containers (102, 104) within a predetermined range of temperature difference causes a quantity of a fluid contained in the thermal actuator to be transferred from one to another of the at least two containers (102, 104) such that a mass distribution of the fluid contained in the thermal actuator is altered in response to the change in temperature difference so as to cause actuation, characterised in that respective lower regions of the interior portions (106, 108) of the at least two containers (102, 104) of the thermal actuator are interconnected so as to promote a flow of a liquid component of the fluid therebetween. at least two containers (102, 104) containing a first fluid, the at least two containers (102, 104) defining interior portions (106, 108) that are interconnected such that the interior portions (106, 108) of the containers (102, 104) are in fluidal communication with each other, the first fluid comprising a first liquid component and a second gaseous component; wherein the thermal actuator is arranged such that a change in a temperature difference between two of the at least two containers (102, 104) within a predetermined range of temperature difference causes a quantity of a fluid contained in the thermal actuator to be transferred from one to another of the at least two containers (102, 104) such that a mass distribution of the fluid contained in the thermal actuator is altered in response to the change in temperature difference so as to cause actuation, characterised in that respective lower regions of the interior portions (106, 108) of the at least two containers (102, 104) of the thermal actuator are interconnected so as to promote a flow of a liquid component of the fluid therebetween.
A compound of formula I, wherein R is H, halogen; X is alkyl, alkenyl, -(CH 2) v COOR 1 or CH=CH-(CH 2) v COOR 1, where v is 0 to 10; or R and X are linked so as to form a fused benzimidazole system; R 1 is H, alkyl, aralkyl, trityl, halogen, haloalkyl, cycloalkyl, alkenyl, alkynyl, alkoxyalkyl, haloalkoxyalkyl, alkoxy, aryloxy alkoxyalkoxy, cyano, hydroxy, hydroxyalkyl, nitro, tetrazolyl, oxadiazolyl, triazolyl, OCH(CH 3)-OCOO-cyclohexyl, cycloanhydride or methyl-5-methyl-[1,3]-dioxolane; Y is H, CH 2 O-alkyl, CH 2 S-alkyl, CH 2 -halogen, CH 2 OH, CH 2 SH, CHO, COOH or halogen; W 1 and W 2 are each independently -(CH 2) n -K-Z-Z 1, where n is 1 to 5; K is biphenyl or monophenyl; Z is tetrazolyl or COO-; Z 1 is H, trityl, halotrityl, CH 2 Ph, COOH, COO-alkyl or CH(Ph) 2, wherein each Ph group is optionally substituted by one or more halogens; and E is a halo ion; or a pharmaceutically acceptable salt thereof.
Use of ethyl 5,11-dihydroindolo[3,2-b]carbazole-6-carboxylate as a fluorescent ligand probe, preferably in a binding assay for quantitative analysis.
A method for fabricating an amplification gap of an avalanche particle detector in which two parallel electrodes (6, 8) are spaced apart by dielectric spacer elements, comprising the steps of: forming a foil including a first electrode layer, a bulk layer comprising a dielectric material on said first electrode layer, and a second electrode layer parallel to said first electrode layer on said bulk layer, wherein said second electrode layer comprises a plurality of holes extending through said second electrode layer; and forming a plurality of gaps in said bulk layer in correspondence to said plurality of holes in said second electrode layer by means of etching, wherein said gaps extend through said bulk layer in a vertical direction thereof to said first electrode layer and in a horizontal direction thereof parallel to said second electrode layer so that said second electrode layer is at least partially undercut by said gaps, characterized in that neighbouring holes in said second electrode layer are formed at varying mutual distances, at a first distance (d 1) or at a second distance (d 2) greater than said first distance (d 1), and wherein the bulk material between neighbouring gaps is entirely removed by means of the etching between those gaps that are formed from neighbouring holes at said first distance (d 1), and spacer elements of bulk material are left by the etching between those gaps that are formed from neighbouring holes at said second distance (d 2). forming a foil including a first electrode layer, a bulk layer comprising a dielectric material on said first electrode layer, and a second electrode layer parallel to said first electrode layer on said bulk layer, wherein said second electrode layer comprises a plurality of holes extending through said second electrode layer; and forming a plurality of gaps in said bulk layer in correspondence to said plurality of holes in said second electrode layer by means of etching, wherein said gaps extend through said bulk layer in a vertical direction thereof to said first electrode layer and in a horizontal direction thereof parallel to said second electrode layer so that said second electrode layer is at least partially undercut by said gaps, characterized in that neighbouring holes in said second electrode layer are formed at varying mutual distances, at a first distance (d 1) or at a second distance (d 2) greater than said first distance (d 1), and wherein the bulk material between neighbouring gaps is entirely removed by means of the etching between those gaps that are formed from neighbouring holes at said first distance (d 1), and spacer elements of bulk material are left by the etching between those gaps that are formed from neighbouring holes at said second distance (d 2).
A collapsible insulating device kit comprising a collapsible insulating device and a container, the collapsible insulating device comprising: a base, a flexible inner liner defining an interior cavity, an opening at a top of the flexible inner liner, and a flexible layer covering the flexible inner liner; the base, the flexible inner liner, and the flexible layer are configured to be assembled into the collapsible insulating device, and the base, the flexible inner liner, and the flexible layer are configured to be detached from one another and placed into the container; the interior cavity defines a volumetric capacity in the assembled collapsible insulating device, and the volumetric capacity of the collapsible insulating device is configured to be larger than a volume of the container; and the container defines a length, a height, and a width, wherein the width of the container is less than a diameter of the assembled collapsible insulating device; the collapsible insulating device further comprises a flexible exterior wall, and characterized in that the base comprises an angled rim to allow for assembly of the flexible exterior wall into the collapsible insulating device; the angled rim having an upper surface providing a higher point and a plurality of lower points, the higher point and the plurality of lower points of the upper surface contained in a plane that is intersected by a central axis of the base, wherein the angled rim allows the flexible exterior wall to be placed over the higher point first and then subsequently flexed around the lower points to install the flexible exterior wall. a base, a flexible inner liner defining an interior cavity, an opening at a top of the flexible inner liner, and a flexible layer covering the flexible inner liner; the base, the flexible inner liner, and the flexible layer are configured to be assembled into the collapsible insulating device, and the base, the flexible inner liner, and the flexible layer are configured to be detached from one another and placed into the container; the interior cavity defines a volumetric capacity in the assembled collapsible insulating device, and the volumetric capacity of the collapsible insulating device is configured to be larger than a volume of the container; and the container defines a length, a height, and a width, wherein the width of the container is less than a diameter of the assembled collapsible insulating device; the collapsible insulating device further comprises a flexible exterior wall, and characterized in that the base comprises an angled rim to allow for assembly of the flexible exterior wall into the collapsible insulating device; the angled rim having an upper surface providing a higher point and a plurality of lower points, the higher point and the plurality of lower points of the upper surface contained in a plane that is intersected by a central axis of the base, wherein the angled rim allows the flexible exterior wall to be placed over the higher point first and then subsequently flexed around the lower points to install the flexible exterior wall.