mhurhangee/ep-ind-claims huggingface dataset:
A carbon nanotube composite in which a conjugated polymer is attached to at least a part of the surface of a carbon nanotube, characterized in that the conjugated polymer comprises repeating units containing a benzothiadiazole unit and a thiophene unit and has a structure represented by the general formula: (wherein R 1 to R 6 may be the same or different, and each R 1 to R 6 represents hydrogen, an alkyl group, a cycloalkyl group, a heterocyclic group, an alkenyl group, a cycloalkenyl group, an alkynyl group, an alkoxy group, an alkylthio group, an arylether group, an arylthioether group, an aryl group, a heteroaryl group, a halogen atom, a cyano group, a formyl group, a carbamoyl group, an amino group, an alkylcarbonyl group, an arylcarbonyl group, a carboxyl group, an alkoxycarbonyl group, an aryloxycarbonyl group, an alkylcarbonyloxy group, an arylcarbonyloxy group, or a silyl group, adjacent groups of R 1 to R 6 may form a ring structure, A is selected from a single bond, an arylene group, a heteroarylene group except for a thienylene group, an ethenylene group and an ethynylene group, 1 and m represent an integer of 0 to 10, and 1+m≥1, n represents a range of 2 to 1000, when 1, m and n are 2 or more, and each R 1 to R 6 and A may be the same or different).
A method, performed by a first radio node (10, 20) operative in a wireless communication network, of adapting the spectrum flatness of a transmitted signal, the method comprising: receiving, from a network node (10, 20, 30), information about a spectrum flatness configuration comprising a maximum variation of power with which the first radio node (10, 20) may transmit a signal to a second radio node (10, 20) within a transmission bandwidth; adapting one or more coefficients of a transmission filter such that a transmission to the second radio node (10, 20) will be in accordance with the received spectrum flatness configuration; and transmitting a signal to the second radio node (10, 20) using the transmission filter with the adapted coefficients. receiving, from a network node (10, 20, 30), information about a spectrum flatness configuration comprising a maximum variation of power with which the first radio node (10, 20) may transmit a signal to a second radio node (10, 20) within a transmission bandwidth; adapting one or more coefficients of a transmission filter such that a transmission to the second radio node (10, 20) will be in accordance with the received spectrum flatness configuration; and transmitting a signal to the second radio node (10, 20) using the transmission filter with the adapted coefficients.
A wireless communication device, comprising: a sensing antenna for sensing communication by a primary user; a first transmission antenna; a second transmission antenna; a first transmitting unit configured to generate a transmission signal to be transmitted from the first transmission antenna; a second transmitting unit configured to generate a transmission signal to be transmitted from the second transmission antenna and to cancel, in the sensing antenna, a transmission signal from the first transmission antenna; a digital signal processing unit configured to suppress the transmission signal from the first transmission antenna, from a received signal of the sensing antenna; and a sensing unit configured to detect communication by a primary user on the basis of the received signal of the sensing antenna that has been processed by the digital signal processing unit, characterized in that the digital signal processing unit is configured to suppress the transmission signal from the first transmission antenna by minimum mean square error estimation in which a recursive least squares algorithm is used. a sensing antenna for sensing communication by a primary user; a first transmission antenna; a second transmission antenna; a first transmitting unit configured to generate a transmission signal to be transmitted from the first transmission antenna; a second transmitting unit configured to generate a transmission signal to be transmitted from the second transmission antenna and to cancel, in the sensing antenna, a transmission signal from the first transmission antenna; a digital signal processing unit configured to suppress the transmission signal from the first transmission antenna, from a received signal of the sensing antenna; and a sensing unit configured to detect communication by a primary user on the basis of the received signal of the sensing antenna that has been processed by the digital signal processing unit, characterized in that the digital signal processing unit is configured to suppress the transmission signal from the first transmission antenna by minimum mean square error estimation in which a recursive least squares algorithm is used.
A manufacturing method for a three-dimensional object using photo-curing inks for forming a layer, comprising: a modeling material discharging step of discharging an ink (1,2) that forms a layer of the modeling material; and use of at least two types of the photo-curing inks (1,2) as an ink that forms at least a part of the modeling material, the at least two types of the photo-curing inks (1,2) being curable by being irradiated with light and having degrees of hardness that mutually differ in eight hours after being irradiated with light, characterized in that the modeling material discharging step performs the ink discharge toward a target of the ink that forms the modeling material in a manner that dots of the at least two types of the photo-curing inks (1,2) are mixedly present, and wherein in a layer the ink discharge is randomly performed based on a specific computational formula so as to uniformly distribute the dots. a modeling material discharging step of discharging an ink (1,2) that forms a layer of the modeling material; and use of at least two types of the photo-curing inks (1,2) as an ink that forms at least a part of the modeling material, the at least two types of the photo-curing inks (1,2) being curable by being irradiated with light and having degrees of hardness that mutually differ in eight hours after being irradiated with light, characterized in that the modeling material discharging step performs the ink discharge toward a target of the ink that forms the modeling material in a manner that dots of the at least two types of the photo-curing inks (1,2) are mixedly present, and wherein in a layer the ink discharge is randomly performed based on a specific computational formula so as to uniformly distribute the dots.
A method of integrated environmental control for shared locations, the method comprising: determining, by a processor of an indoor environment planning system, an occupancy schedule for a plurality of users scheduled to be at a shared location; identifying a plurality of scheduled meetings at the shared location; determining, by the processor of the indoor environment planning system, a plurality of occupant indoor environmental setting preferences for the users scheduled to be at the shared location based on the occupancy schedule; determining, by the processor of the indoor environment planning system, a weighted set point for a building system operable to adjust an indoor environment at the shared location based on the occupant indoor environmental setting preferences for the users scheduled to be at the shared location; determining, by the processor of the indoor environment planning system, an adjusted set point schedule for the shared location to transition between a previously planned set point and the weighted set point, wherein the adjusted set point schedule is set based on differences in the weighted set point for each of the scheduled meetings; and operating a control device of the building system based on the adjusted set point schedule. determining, by a processor of an indoor environment planning system, an occupancy schedule for a plurality of users scheduled to be at a shared location; identifying a plurality of scheduled meetings at the shared location; determining, by the processor of the indoor environment planning system, a plurality of occupant indoor environmental setting preferences for the users scheduled to be at the shared location based on the occupancy schedule; determining, by the processor of the indoor environment planning system, a weighted set point for a building system operable to adjust an indoor environment at the shared location based on the occupant indoor environmental setting preferences for the users scheduled to be at the shared location; determining, by the processor of the indoor environment planning system, an adjusted set point schedule for the shared location to transition between a previously planned set point and the weighted set point, wherein the adjusted set point schedule is set based on differences in the weighted set point for each of the scheduled meetings; and operating a control device of the building system based on the adjusted set point schedule.
A secondary battery, comprising: a plurality of first electrodes each including a first electrode core body and a first electrode active material disposed on the first electrode core body; a plurality of second electrodes each including a second electrode core body and a second electrode active material disposed on the second electrode core body; at least one separator; and an adhesive disposed between at least one side surface in a thickness direction of the separator and the first electrode, wherein the plurality of the first electrodes and the plurality of the second electrodes are alternately stacked via the separator, at least ten first electrodes are included in a stacked body (11A,11B) including the plurality of the first electrodes and the plurality of the second electrodes, and when an adhesive strength between the outermost first electrode and the separator is A0 [N/m], and an adhesive strength between the first electrode located in a center in a stacking direction of the stacked body (11A,11B) and the separator is A1 [N/m], A1/A0 is at least 0.1 and less than 0.9. a plurality of first electrodes each including a first electrode core body and a first electrode active material disposed on the first electrode core body; a plurality of second electrodes each including a second electrode core body and a second electrode active material disposed on the second electrode core body; at least one separator; and an adhesive disposed between at least one side surface in a thickness direction of the separator and the first electrode, wherein the plurality of the first electrodes and the plurality of the second electrodes are alternately stacked via the separator, at least ten first electrodes are included in a stacked body (11A,11B) including the plurality of the first electrodes and the plurality of the second electrodes, and when an adhesive strength between the outermost first electrode and the separator is A0 [N/m], and an adhesive strength between the first electrode located in a center in a stacking direction of the stacked body (11A,11B) and the separator is A1 [N/m], A1/A0 is at least 0.1 and less than 0.9.
Conductive pattern sheet for use in a glazing, comprising: a substrate and a conductive pattern arranged on the substrate; wherein the conductive pattern comprises: first and second busbars (4a, 4b) arranged at opposing edges of the conductive pattern for connecting a power supply to the conductive pattern, and a plurality of conductive lines each conductive line arranged between the first and second busbars; wherein the substrate is a polymer sheet; and wherein at least a portion of the plurality of conductive lines is configured to have a transition region wherein a change from a first resistance per unit length R1 at a first end of the transition region to a second resistance per unit length R2 at a second end of the transition region occurs over a predetermined length L of the transition region; the conductive pattern sheet being characterised in that a rate of change of resistance per unit length (R1-R2)/L is from 1 to 16,000 ohms per centimetre squared. a substrate and a conductive pattern arranged on the substrate; wherein the conductive pattern comprises: first and second busbars (4a, 4b) arranged at opposing edges of the conductive pattern for connecting a power supply to the conductive pattern, and a plurality of conductive lines each conductive line arranged between the first and second busbars; wherein the substrate is a polymer sheet; and first and second busbars (4a, 4b) arranged at opposing edges of the conductive pattern for connecting a power supply to the conductive pattern, and a plurality of conductive lines each conductive line arranged between the first and second busbars; wherein the substrate is a polymer sheet; and
A variable stator vane mechanism for adjusting a mounting angle of a stator vane of an axial flow compressor, the variable stator vane mechanism comprising: an arm configured to be coupled to the stator vane; a rotation ring coupled to one end portion of the arm and configured to be located at an outer surface of a casing of the axial flow compressor; a driving machine configured to rotate the rotation ring to cause the stator vane to pivot via the arm; and a friction pad detachably mountable on the casing by the use of a fastening member, wherein the rotation ring is in frictional contact with the friction pad, and wherein in the friction pad a plurality of grooves are formed, the grooves are extending parallel to each other so as to extend from one side on an anterior side of the friction pad to a center thereof and the fastening member is inserted in the grooves, so that the friction pad can be inserted under the rotation ring and pulled out therefrom in a direction parallel to the grooves when the fastening member is loosened. an arm configured to be coupled to the stator vane; a rotation ring coupled to one end portion of the arm and configured to be located at an outer surface of a casing of the axial flow compressor; a driving machine configured to rotate the rotation ring to cause the stator vane to pivot via the arm; and a friction pad detachably mountable on the casing by the use of a fastening member, wherein the rotation ring is in frictional contact with the friction pad, and wherein in the friction pad a plurality of grooves are formed, the grooves are extending parallel to each other so as to extend from one side on an anterior side of the friction pad to a center thereof and the fastening member is inserted in the grooves, so that the friction pad can be inserted under the rotation ring and pulled out therefrom in a direction parallel to the grooves when the fastening member is loosened.
A composition comprising a conjugate of an LLP2A peptidomimetic ligand and a bisphosphonate drug for use in a method of treating inflammation or promoting an anti-inflammatory or immunomodulatory effect in a subject having a primary inflammatory disease or disorder selected from arthritis, inflammatory arthritis, rheumatoid arthritis, synovitis, juvenile rheumatoid arthritis, ankylosing spondylitis, psoriatic arthritis, spondylarthritis, and osteoarthritis, the method comprising administering to the subject said composition, wherein the composition comprising the conjugate enhances the delivery of mesenchymal stem cells to a site of inflammation.
A coaxial transseptal device comprising a piercing device comprising a shaft having a proximal end, a distal end, and a sharpened portion on the distal end, anda coaxial member having a proximal end, a distal end, and a lumen extending between the proximal and distal ends of the member, the lumen of the member configured to receive the piercing device and to move relative thereto; characterized in that the coaxial member is a guide-wire having a flexibility that increases distally, and in that a flexibility of the shaft of the piercing device increases distally, the shaft of the piercing device including a helical cut section on a distal end thereof for increasing the flexibility.
An optical element, which is transparent at a wavelength of use A, and which has a super-hydrophobic nanostructured surface that has an anti-reflection property, said surface having an array of pads, characterized in that the pads have a nanoscale width, a height h, an aspect ratio of less than 1/2, in that the pitch p of the array is such that p < h and in that the element has a top layer made of alumina having a thickness less than h / 5 which covers said nanostructured surface without discontinuity and conformally, said top layer being obtained via a step of annealing at a temperature comprised between 500°C and 1 200°C and being in a material of a hardness greater than the hardness of the material of said nanostructured surface.
An agricultural distribution machine for distributing a distribution material, preferably a seeding machine, having: - a reservoir for the distribution material, wherein the reservoir comprises a roof section, a floor section, a front wall section and preferably two side wall sections, - a metering device for metering the distribution material, and - a flow generating device, wherein - a suction opening structure for the flow generating device is formed in an outer wall section of the reservoir, wherein the flow generating device is connected to the suction opening structure by means of a suction channel, characterized in that the suction opening structure has an opening cross section and the flow generating device has an inlet region (5.1) with an opening cross section, and the opening cross section of the suction opening structure is larger than the opening cross section of the inlet region (5.1) by at least the factor 1.5, by at least the factor 2, or by at least the factor 3. - a reservoir for the distribution material, wherein the reservoir comprises a roof section, a floor section, a front wall section and preferably two side wall sections, - a metering device for metering the distribution material, and - a flow generating device, wherein - a suction opening structure for the flow generating device is formed in an outer wall section of the reservoir, wherein
A composite expandable medical balloon, comprising: a base balloon comprising a coextrusion, the coextrusion comprising an inner layer formed from an elastomeric polymer and an outer layer formed from a thermoplastic polymer; and a fiber braid disposed along the base balloon, the fiber braid comprising at least one polymeric fiber disposed over the base balloon; wherein the base balloon is designed to exhibit minimal delamination between the inner layer and the outer layer of the base balloon. a base balloon comprising a coextrusion, the coextrusion comprising an inner layer formed from an elastomeric polymer and an outer layer formed from a thermoplastic polymer; and a fiber braid disposed along the base balloon, the fiber braid comprising at least one polymeric fiber disposed over the base balloon; wherein the base balloon is designed to exhibit minimal delamination between the inner layer and the outer layer of the base balloon.
An expandable intravertebral implant system comprising an intravertebral implant comprising an anterior part expandable in a vertebral body and a posterior part; and a pedicle fixation comprising an inner posterior portion and an inner anterior portion defining a hollow portion receiving the posterior part, in which the posterior part of the intravertebral implant is movable according to two degrees of freedom, characterized in that the pedicle fixation has a main axis and the posterior part of the intravertebral implant is movable in translation and in rotation, along the main axis of the pedicle fixation, in the inner anterior portion of the pedicle fixation; so that the direction of expansion of the anterior part of the intravertebral implant is independent from the position of the pedicle fixation in the vertebral pedicle.
A printer and an apparatus to measure an optical density of a fluid, namely an ink, traveling through a gap having a width, the apparatus comprising: the gap; a light source configured to transmit light across the gap; a detector, opposite the light source, configured to detect light transmitted from the light source across the gap; and a control unit configured to determine the optical density of the fluid; whereby the fluid is an ink; the apparatus is linked to an ink reservoir of the printer; and the apparatus further comprises at least one transparent member, means configured to move the transparent member into and out of the gap between the light source and the detector so as to modify an effective sampling width of the gap; wherein the control unit is configured to instruct the means to move the transparent member not to insert the transparent member into the gap based on data indicative of a low optical density of the fluid to be measured which is provided to the control unit. the gap; a light source configured to transmit light across the gap; a detector, opposite the light source, configured to detect light transmitted from the light source across the gap; and a control unit configured to determine the optical density of the fluid; whereby the fluid is an ink; the apparatus is linked to an ink reservoir of the printer; and the apparatus further comprises at least one transparent member, means configured to move the transparent member into and out of the gap between the light source and the detector so as to modify an effective sampling width of the gap; wherein the control unit is configured to instruct the means to move the transparent member not to insert the transparent member into the gap based on data indicative of a low optical density of the fluid to be measured which is provided to the control unit.
Method for manufacturing a bulkhead component, which comprises at least one lock extending across the entire length of the bulkhead component with a consistent cross-section for hanging the lock of another bulkhead component, wherein, in the case of the method: an intermediate product is manufactured by means of forming and the lock viewed in the cross-section is manufactured at least in sections by means of machining on the section of the intermediate product to be provided with the lock, wherein the section is measured in the cross-section sufficiently enough that the measurement deviations arising due to the forming performed on the intermediate product are taken into account when machining the lock, characterized in that the bulkhead component is a lobe support with a cross-sectional form expanding in a V-shaped manner towards the free end of the T-beam as a lock for hanging the lock of another bulkhead component, and, in a cross-sectional view, the lock is manufactured at least in sections from an intermediate product by means of machining with the aid of a mobile machining station. an intermediate product is manufactured by means of forming and the lock viewed in the cross-section is manufactured at least in sections by means of machining on the section of the intermediate product to be provided with the lock, wherein the section is measured in the cross-section sufficiently enough that the measurement deviations arising due to the forming performed on the intermediate product are taken into account when machining the lock, characterized in that the bulkhead component is a lobe support with a cross-sectional form expanding in a V-shaped manner towards the free end of the T-beam as a lock for hanging the lock of another bulkhead component, and, in a cross-sectional view, the lock is manufactured at least in sections from an intermediate product by means of machining with the aid of a mobile machining station.