mhurhangee/ep-ind-claims huggingface dataset:
An ink stamp comprising a porous material, the porous material comprising: at least one thermoplastic resin selected from the group consisting of low-density polyethylene, linear low-density polyethylene, high-density polyethylene, ethylene-alpha-olefin copolymer, ethylene-vinyl acetate copolymer, and ethylene-acrylic copolymer; at least one thermoplastic elastomer selected from a plurality of different hydrogenated styrene based thermoplastic elastomers; and at least one filler selected from a plurality of different silicates, wherein the thermoplastic resin and/or the thermoplastic elastomer are cross-linked, and formed in a continuous pore structure. at least one thermoplastic resin selected from the group consisting of low-density polyethylene, linear low-density polyethylene, high-density polyethylene, ethylene-alpha-olefin copolymer, ethylene-vinyl acetate copolymer, and ethylene-acrylic copolymer; at least one thermoplastic elastomer selected from a plurality of different hydrogenated styrene based thermoplastic elastomers; and at least one filler selected from a plurality of different silicates, wherein the thermoplastic resin and/or the thermoplastic elastomer are cross-linked, and formed in a continuous pore structure.
Photograph album with a square spine, comprising a cover having a first sheet, a second sheet, and a central square spine which connects the first sheet to the second sheet, and a plurality of pages (13, 14, 15) bound reciprocally in correspondence to a first side to define a book body, characterized in that the last of said pages is partly connected to the internal surface of said second sheet, having a first surface portion solidly associated to the internal surface of said second sheet, to define the only connection between said cover and said book body, and a second surface portion free and not connected to the internal surface of said second sheet, said first surface portion being a part of the last of said pages disposed in proximity to a second side of said last page, opposite said first side.
Method for manufacturing a hopper of a distribution machine for producing a hopper by forming at least one flat steel sheet trimmed into shape, in order to form a hopper or partial hopper, characterized by the following steps: - trimming an upper hopper part or partial hopper part composed of stainless steel sheet, - trimming a lower hopper part or partial hopper part composed of non-stainless steel sheet, - welding the upper hopper part or partial hopper part composed of stainless steel sheet to the lower hopper part or partial hopper part composed of non-stainless steel sheet by means of a laser welding method, - deforming the hopper parts or partial hopper parts (2, 3) welded to one another, to form the hopper or partial hopper by a forming method. - trimming an upper hopper part or partial hopper part composed of stainless steel sheet, - trimming a lower hopper part or partial hopper part composed of non-stainless steel sheet, - welding the upper hopper part or partial hopper part composed of stainless steel sheet to the lower hopper part or partial hopper part composed of non-stainless steel sheet by means of a laser welding method, - deforming the hopper parts or partial hopper parts (2, 3) welded to one another, to form the hopper or partial hopper by a forming method.
A semiconductor device, comprising: a substrate including a first region and a second region; a first gate structure on the first region of the substrate, a first source/drain layer on a portion of the substrate adjacent to the first gate structure; a second gate structure on the second region of the substrate; a second source/drain layer on a portion of the substrate adjacent to the second gate structure; a first contact plug including: a first metal silicide pattern on the first source/drain layer, the first metal silicide pattern including a silicide of a first metal and a silicide of a second metal different from the first metal; and a first conductive pattern on the first metal silicide pattern; and a second contact plug including: a second metal silicide pattern on the second source/drain layer, the second metal silicide pattern including a silicide of the first metal and a silicide of the second metal; and a second conductive pattern on the second metal silicide pattern, wherein a first ratio of the first metal to the second metal included in the first metal silicide pattern is different from a second ratio of the first metal to the second metal included in the second metal silicide pattern. a substrate including a first region and a second region; a first gate structure on the first region of the substrate, a first source/drain layer on a portion of the substrate adjacent to the first gate structure; a second gate structure on the second region of the substrate; a second source/drain layer on a portion of the substrate adjacent to the second gate structure; a first contact plug including: a first metal silicide pattern on the first source/drain layer, the first metal silicide pattern including a silicide of a first metal and a silicide of a second metal different from the first metal; and a first conductive pattern on the first metal silicide pattern; and a first metal silicide pattern on the first source/drain layer, the first metal silicide pattern including a silicide of a first metal and a silicide of a second metal different from the first metal; and a first conductive pattern on the first metal silicide pattern; and a second contact plug including: a second metal silicide pattern on the second source/drain layer, the second metal silicide pattern including a silicide of the first metal and a silicide of the second metal; and a second conductive pattern on the second metal silicide pattern, a second metal silicide pattern on the second source/drain layer, the second metal silicide pattern including a silicide of the first metal and a silicide of the second metal; and a second conductive pattern on the second metal silicide pattern, wherein a first ratio of the first metal to the second metal included in the first metal silicide pattern is different from a second ratio of the first metal to the second metal included in the second metal silicide pattern.
Floating installation, wherein the installation comprises; - a bag with water impermeable walls for establishing a first water reservoir where the walls are attached to a first floating collar (20, 22), - at least one inlet pipeline for the supply of water, - at least one outlet pipeline (18,19) for discharge of water and waste from the bag, - one or more additional floating collars (22,24) arranged inside or outside the first floating collar (20, 22), wherein an additional wall is arranged between two neighboring floating collars (20-24 or 22-24) to form a U-shape when viewed in cross-section during use so that at least one further water reservoir (B, C, D) is established, wherein said additional wall is water impermeable, - wherein the bag is a cage bag, the first water reservoir is adapted for farming of marine organisms, and the at least one further water reservoir and possible additional further water reservoirs (C, D) are configured for treatment of water to be supplied to the first water reservoir, - wherein a number of openings are arranged in a section of the first floating collar so that water can flow from the at least one further water reservoir to the first water reservoir, and preferably wherein the installation comprises more than one further water reservoirs (B C, D) coupled together with hoses so that one can easily choose the order of the further water reservoirs (B, C, D) through which the water shall flow on its way through the installation. - a bag with water impermeable walls for establishing a first water reservoir where the walls are attached to a first floating collar (20, 22), - at least one inlet pipeline for the supply of water, - at least one outlet pipeline (18,19) for discharge of water and waste from the bag, - one or more additional floating collars (22,24) arranged inside or outside the first floating collar (20, 22), - wherein the bag is a cage bag, the first water reservoir is adapted for farming of marine organisms, and the at least one further water reservoir and possible additional further water reservoirs (C, D) are configured for treatment of water to be supplied to the first water reservoir, - wherein a number of openings are arranged in a section of the first floating collar so that water can flow from the at least one further water reservoir to the first water reservoir, and preferably wherein the installation comprises more than one further water reservoirs (B C, D) coupled together with hoses so that one can easily choose the order of the further water reservoirs (B, C, D) through which the water shall flow on its way through the installation.
A Rubisco protein selected from: a Rubisco protein comprising a Rubisco large subunit polypeptide comprising the sequence as set forth in one of SEQ ID NOS: 74, 76, 26, 30, 32, 34, 36, 38, 40, 42, 44, 46, 48, 50, 52, 62, 64, or a fusion protein comprising said Rubisco protein, or a fragment of said Rubisco protein possessing at least 90% of the activity of the corresponding full-length protein; or a Rubisco protein comprising a Rubisco large subunit polypeptide encoded by a polynucleotide comprising the sequence set forth in one of SEQ ID NOS: 73, 75, 25, 29, 31, 33, 35, 37, 39, 41, 43, 45, 47, 49, 51, 61, 63, or a fusion protein comprising said Rubisco protein, or a fragment of said Rubisco protein possessing at least 90% of the activity of the corresponding full-length protein. a Rubisco protein comprising a Rubisco large subunit polypeptide comprising the sequence as set forth in one of SEQ ID NOS: 74, 76, 26, 30, 32, 34, 36, 38, 40, 42, 44, 46, 48, 50, 52, 62, 64, or a fusion protein comprising said Rubisco protein, or a fragment of said Rubisco protein possessing at least 90% of the activity of the corresponding full-length protein; or a Rubisco protein comprising a Rubisco large subunit polypeptide encoded by a polynucleotide comprising the sequence set forth in one of SEQ ID NOS: 73, 75, 25, 29, 31, 33, 35, 37, 39, 41, 43, 45, 47, 49, 51, 61, 63, or a fusion protein comprising said Rubisco protein, or a fragment of said Rubisco protein possessing at least 90% of the activity of the corresponding full-length protein.
A method for transmitting feedback information by a terminal in a wireless communication system employing time division duplex, TDD, the method comprising: receiving data on a secondary cell, SCell; determining at least one subframe which is an uplink subframe in a primary cell, PCell, and the SCell based on a first TDD frame structure configuration of the PCell and a second TDD frame structure configuration of the SCell; identifying a third TDD frame structure configuration among a plurality of TDD frame structure configurations, whose set of uplink subframes consists of the determined at least one subframe; and transmitting ACK/NACK feedback information corresponding to the data received on the SCell, in an uplink subframe associated with the third TDD frame structure configuration on the PCell, by using a timing relationship between the data and the ACK/NACK feedback information according to the third TDD frame structure configuration, wherein the first TDD frame structure configuration and the second TDD frame structure configuration are different, and characterised in that ACK/NACK feedback information corresponding to a specific subframe which is an uplink subframe in the SCell within an ACK/ NACK bundling window according to the third TDD frame structure configuration, is not transmitted in the uplink subframe associated with the third TDD frame structure configuration. receiving data on a secondary cell, SCell; determining at least one subframe which is an uplink subframe in a primary cell, PCell, and the SCell based on a first TDD frame structure configuration of the PCell and a second TDD frame structure configuration of the SCell; identifying a third TDD frame structure configuration among a plurality of TDD frame structure configurations, whose set of uplink subframes consists of the determined at least one subframe; and transmitting ACK/NACK feedback information corresponding to the data received on the SCell, in an uplink subframe associated with the third TDD frame structure configuration on the PCell, by using a timing relationship between the data and the ACK/NACK feedback information according to the third TDD frame structure configuration, wherein the first TDD frame structure configuration and the second TDD frame structure configuration are different, and characterised in that ACK/NACK feedback information corresponding to a specific subframe which is an uplink subframe in the SCell within an ACK/ NACK bundling window according to the third TDD frame structure configuration, is not transmitted in the uplink subframe associated with the third TDD frame structure configuration.
A compound of the formula wherein R and R 1 are independently selected from hydrogen and methyl; the bond between C-3 and C-4 and the bond between C-5 and C-6 are single bonds; or the dotted line together with the bond between C-3 and C-4 and the bond between C-5 and C-6 represent double bonds.
A method practiced by a user equipment device, the user equipment comprising a Device Management "DM" client, the user equipment further comprising a DM tree, the DM tree comprising one or more Management Objects "MOs", the user equipment being in communication with two or more DM servers, each of the two or more DM servers authorized to issue commands to the DM client, said commands containing instructions to modify the DM tree, the method comprising: receiving a command from a first DM server, wherein the command instructs the DM client to apply a change to a MO of the DM tree; recording the change to the DM tree, the recorded change being stored in a data structure separate from the DM tree, wherein the recorded change comprises the new value of the MO, the date and time the change was made, and information related to the entity that requested the change, and sending the recorded change to a second server, the second server being different from the first server. receiving a command from a first DM server, wherein the command instructs the DM client to apply a change to a MO of the DM tree; recording the change to the DM tree, the recorded change being stored in a data structure separate from the DM tree, wherein the recorded change comprises the new value of the MO, the date and time the change was made, and information related to the entity that requested the change, and sending the recorded change to a second server, the second server being different from the first server.
Connection device for connecting a heald frame with a shaft drive, with a bearing support connected to a heald frame and supporting a bearing, wherein the bearing support comprises two tabs (22, 23) held parallel to and spaced apart from each other, between which the bearing is held, wherein the bearing support defines an interchange gate which is formed by two mutually opposing planar surfaces (22a, 22b) of the tabs (22, 23), with a coupling piece which is rotatably held on the bearing and has a polygonal cross-section, wherein the bearing is formed by a bearing ring having a cylindrical outer circumferential face, a central opening and planar end faces (29, 30) which bear against the insides of the tabs (22, 23), wherein the bearing ring has an axial length which is greater than the axial length of the coupling piece, and with a screw connection which is arranged between the bearing support and the bearing for holding the bearing at the bearing support, wherein the tabs (22, 23) are formed flat on their side facing the bearing so that when the screw connection is released, the coupling piece with the bearing can be extracted between the tabs (22, 23).
A catalyst system comprising: a first catalytic composition comprising a homogeneous solid mixture containing at least one catalytic metal, wherein the catalytic metal comprises silver and at least one metal inorganic support; wherein the pores of the solid mixture have an average diameter in a range of 1 nanometer to 15 nanometers; wherein the catalytic metal comprises nanocrystals having at least one dimension less than or equal to 100 nanometers as measured by transmission electron microscopy and have a particle size distribution of less than 20 percent; and wherein the metal inorganic support is a reaction product of a reactive solution, a solvent, a modifier and a templating agent, which are mixed to form a gel and calcining the gel. a first catalytic composition comprising a homogeneous solid mixture containing at least one catalytic metal, wherein the catalytic metal comprises silver and at least one metal inorganic support; wherein the pores of the solid mixture have an average diameter in a range of 1 nanometer to 15 nanometers; wherein the catalytic metal comprises nanocrystals having at least one dimension less than or equal to 100 nanometers as measured by transmission electron microscopy and have a particle size distribution of less than 20 percent; and wherein the metal inorganic support is a reaction product of a reactive solution, a solvent, a modifier and a templating agent, which are mixed to form a gel and calcining the gel.
A controlled release pharmaceutical dosage form comprising - a controlled release doxycycline layer, a swellable and/or floating layer, an expandable porous coating, optionally a seal coating, and an immediate release doxycycline overcoat, or - a swellable controlled release doxycycline core, a permeable/expandable porous coating, an optional seal coating, and an immediate release doxycycline overcoat, or - a controlled release doxycycline layer, an inert swellable/bioadhesive layer, and an immediate release doxycycline overcoat. - a controlled release doxycycline layer, a swellable and/or floating layer, an expandable porous coating, optionally a seal coating, and an immediate release doxycycline overcoat, or - a swellable controlled release doxycycline core, a permeable/expandable porous coating, an optional seal coating, and an immediate release doxycycline overcoat, or - a controlled release doxycycline layer, an inert swellable/bioadhesive layer, and an immediate release doxycycline overcoat.
A method comprising: disposing a corrosion detection tool in a plurality of concentric pipes, wherein the corrosion detection tool comprises a transmitter and a plurality of receivers (104a, 104b, 104c, 104d, 104e, 104f); making a log measurement with the corrosion detection tool by measuring a signal to provide a measured response; calibrating the log, wherein the calibrating comprises matching a nominal value of the measured response to a synthetic response to provide calibrated measurements, wherein said synthetic response is computed by modelling the concentric pipes with their nominal thicknesses; running a first inversion, wherein the first inversion comprises the step of using a first subset of the calibrated measurements to compute a first estimate of properties of each of the concentric pipes; identifying pipes with an estimated thickness change from a nominal thickness to provide identified concentric pipes; selecting an innermost concentric pipe from the identified concentric pipes for computing an impulse response of the corrosion detection tool to a small defect on said innermost pipe for deconvolution for improving vertical resolution of the measured response; applying deconvolution to a second subset of the calibrated measurements to provide calibrated and deconvolved measurements; and running a second inversion on the second subset of calibrated and deconvolved measurements, wherein the second inversion comprises at least one property of the plurality of concentric pipes. disposing a corrosion detection tool in a plurality of concentric pipes, wherein the corrosion detection tool comprises a transmitter and a plurality of receivers (104a, 104b, 104c, 104d, 104e, 104f); making a log measurement with the corrosion detection tool by measuring a signal to provide a measured response; calibrating the log, wherein the calibrating comprises matching a nominal value of the measured response to a synthetic response to provide calibrated measurements, wherein said synthetic response is computed by modelling the concentric pipes with their nominal thicknesses; running a first inversion, wherein the first inversion comprises the step of using a first subset of the calibrated measurements to compute a first estimate of properties of each of the concentric pipes; identifying pipes with an estimated thickness change from a nominal thickness to provide identified concentric pipes; selecting an innermost concentric pipe from the identified concentric pipes for computing an impulse response of the corrosion detection tool to a small defect on said innermost pipe for deconvolution for improving vertical resolution of the measured response; applying deconvolution to a second subset of the calibrated measurements to provide calibrated and deconvolved measurements; and running a second inversion on the second subset of calibrated and deconvolved measurements, wherein the second inversion comprises at least one property of the plurality of concentric pipes.
A method for scheduling self coexistence windows, SCWs, wherein SCWs are part of frames transmitted in wireless regional area networks, WRANs, sharing a common channel, the method comprising: monitoring the common channel for a duration of at least a maximum SCW cycle length; checking if at least one coexistence beacon protocol, CBP, packet including at least one of SCWs and quiet periods, QPs, scheduled by neighbor WRANs is detected on the common channel; and establishing a SCW schedule by setting SCW schedule fields in a modified superframe control header, SCH,, wherein the SCW schedule fields include a SCW Cycle Length field, a SCW Cycle Offset field, and a SCW Cycle Frame Bitmap field, wherein the SCW schedule is established for a frame that is not marked as including the at least one of SCWs and QPs scheduled by neighbor WRANs, thereby the newly established SCW schedule does not conflict with any already scheduled SCWs and QPs. monitoring the common channel for a duration of at least a maximum SCW cycle length; checking if at least one coexistence beacon protocol, CBP, packet including at least one of SCWs and quiet periods, QPs, scheduled by neighbor WRANs is detected on the common channel; and establishing a SCW schedule by setting SCW schedule fields in a modified superframe control header, SCH,, wherein the SCW schedule fields include a SCW Cycle Length field, a SCW Cycle Offset field, and a SCW Cycle Frame Bitmap field, wherein the SCW schedule is established for a frame that is not marked as including the at least one of SCWs and QPs scheduled by neighbor WRANs, thereby the newly established SCW schedule does not conflict with any already scheduled SCWs and QPs.