mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine component (200, 400, 600, 700) for a wind turbine, in particular for a wind turbine tower and/or a rotor blade, comprising - a first wall element (210, 410, 610) with a first inner surface and a first outer surface arranged opposite the latter, - a corrugated structural element (230, 300, 430, 630, 730), - wherein the structural element (230, 300, 430, 630, 730) is arranged on the first inner surface or on the first outer surface, - wherein the first wall element (210, 410, 610) is connected to the structural element (230, 300, 430, 630, 730), further comprising - a second wall element (220, 420, 710) with a second inner surface and a second outer surface arranged opposite the latter, wherein the structural element (230, 300, 430, 630, 730) is arranged between the first wall element (210, 410, 610) and the second wall element (220, 420, 710), and the structural element is connected to the first wall element and the second wall element, and wherein - the first wall element (210, 220, 410, 420) and the second wall element (220, 420, 710) are composed of or comprise steel, aluminum and/or titanium, and - the first wall element and the second wall element have a ring-shaped cross section orthogonally with respect to the axis of rotation. - a first wall element (210, 410, 610) with a first inner surface and a first outer surface arranged opposite the latter, - a corrugated structural element (230, 300, 430, 630, 730), - wherein the structural element (230, 300, 430, 630, 730) is arranged on the first inner surface or on the first outer surface, - wherein the first wall element (210, 410, 610) is connected to the structural element (230, 300, 430, 630, 730), further comprising - a second wall element (220, 420, 710) with a second inner surface and a second outer surface arranged opposite the latter, wherein the structural element (230, 300, 430, 630, 730) is arranged between the first wall element (210, 410, 610) and the second wall element (220, 420, 710), and the structural element is connected to the first wall element and the second wall element, and wherein - the first wall element (210, 220, 410, 420) and the second wall element (220, 420, 710) are composed of or comprise steel, aluminum and/or titanium, and - the first wall element and the second wall element have a ring-shaped cross section orthogonally with respect to the axis of rotation.
A drainage control method of a multi-drum washing machine which at least comprises a first washing drum and a second washing drum, whereby when the first washing drum reaches a drainage process, it is determined whether or not the second washing drum is draining or in a dehydration process at this time, if the second washing drum is draining or in the dehydration process, the first washing drum waits until the dehydration process of the second washing drum is completed, and then drains; if the second washing drum is not in a drainage process or in the dehydration process at this time, it is determined whether or not the first washing drum waits until the dehydration process of the second washing drum is completed, and then drains, the process to determine whether or not the first washing drum waits until the dehydration process of the second washing drum is completed and then drains includes: determining a time T 32 for reaching the dehydration process of the second washing drum and a time T 33 taken for the second washing drum to dehydrate, and setting an allowable waiting time T 3, if T 32 +T 33 <T 3, the first washing drum waits until the dehydration process of the second washing drum is completed, and then drains, otherwise, water in the first washing drum is drained directly. when the first washing drum reaches a drainage process, it is determined whether or not the second washing drum is draining or in a dehydration process at this time, if the second washing drum is draining or in the dehydration process, the first washing drum waits until the dehydration process of the second washing drum is completed, and then drains; if the second washing drum is not in a drainage process or in the dehydration process at this time, it is determined whether or not the first washing drum waits until the dehydration process of the second washing drum is completed, and then drains, the process to determine whether or not the first washing drum waits until the dehydration process of the second washing drum is completed and then drains includes: determining a time T 32 for reaching the dehydration process of the second washing drum and a time T 33 taken for the second washing drum to dehydrate, and setting an allowable waiting time T 3, if T 32 +T 33 <T 3, the first washing drum waits until the dehydration process of the second washing drum is completed, and then drains, otherwise, water in the first washing drum is drained directly. determining a time T 32 for reaching the dehydration process of the second washing drum and a time T 33 taken for the second washing drum to dehydrate, and setting an allowable waiting time T 3, if T 32 +T 33 <T 3, the first washing drum waits until the dehydration process of the second washing drum is completed, and then drains, otherwise, water in the first washing drum is drained directly.
A liquid crystal composition comprising a compound represented by Chemical Formula 1: wherein, in Chemical Formula 1, n is 1, or 2, and a substituent represented by X is F, Cl, CF 3, CF 2 CF 3, CHF 2, CH 2 F, OCF 3, CN, NCS, or a C1 to C5 alkyl including 1 to 3 fluoro substituents and a CH 2 group is optionally independently substituted with one or more oxygen atoms; (R 1) is hydrogen or a C1 to C15 alkyl, in which at least one CH 2 group is optionally independently replaced with -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O-, -O-CO-, or -O-CO-O- in a way that oxygen atoms are directly connected to each other, and 1 to 3 hydrogen atoms of the C1 to C15 alkyl are optionally replaced with halogen; indicates that a fluoro is optionally substituted in place of hydrogen; is and is wherein indicates that a fluoro is optionally substituted in place of a hydrogen. wherein, in Chemical Formula 1, n is 1, or 2, and a substituent represented by X is F, Cl, CF 3, CF 2 CF 3, CHF 2, CH 2 F, OCF 3, CN, NCS, or a C1 to C5 alkyl including 1 to 3 fluoro substituents and a CH 2 group is optionally independently substituted with one or more oxygen atoms; (R 1) is hydrogen or a C1 to C15 alkyl, in which at least one CH 2 group is optionally independently replaced with -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O-, -O-CO-, or -O-CO-O- in a way that oxygen atoms are directly connected to each other, and 1 to 3 hydrogen atoms of the C1 to C15 alkyl are optionally replaced with halogen; indicates that a fluoro is optionally substituted in place of hydrogen; is and is wherein indicates that a fluoro is optionally substituted in place of a hydrogen.
System for mounting a rail on a sleeper, comprising - a rail, - at least one angle guide plate and/or at least one sleeper screw, - an intermediate layer, in particular a soft intermediate layer, and - a sliding layer, wherein the sliding layer is formed separately from the intermediate layer and in the assembled state is arranged along a stacking direction between the intermediate layer and the rail, characterized in that the sliding layer in the assembled state is fixed to the at least one angle guide plate and/or to the at least one sleeper screw, preferably fixed between the two angle guide plates and/or the sleeper screws. - a rail, - at least one angle guide plate and/or at least one sleeper screw, - an intermediate layer, in particular a soft intermediate layer, and - a sliding layer,
A radio wave jamming system comprising: a plurality of radio transmitters configured to transmit a plurality of jamming signals, each jamming signal containing substantially same frequency, wherein the plurality of radio transmitters change a transmission phase of at least one of the plurality of jamming signals each moment in accordance with lapse of time such that there comes the timing that the plurality of jamming signals produce constructive interference by superposition at a particular spot, wherein the plurality of radio transmitters include: a first radio transmitter configured to transmit a first jamming signal containing the frequency, and temporally change a transmission phase of the first jamming signal; and a second radio transmitter configured to transmit a second jamming signal containing the frequency, and temporally change a transmission phase of the second jamming signal independently without synchronization with change of the transmission phase of the first jamming signal by the first radio transmitter. a plurality of radio transmitters configured to transmit a plurality of jamming signals, each jamming signal containing substantially same frequency, wherein the plurality of radio transmitters change a transmission phase of at least one of the plurality of jamming signals each moment in accordance with lapse of time such that there comes the timing that the plurality of jamming signals produce constructive interference by superposition at a particular spot, wherein the plurality of radio transmitters include: a first radio transmitter configured to transmit a first jamming signal containing the frequency, and temporally change a transmission phase of the first jamming signal; and a second radio transmitter configured to transmit a second jamming signal containing the frequency, and temporally change a transmission phase of the second jamming signal independently without synchronization with change of the transmission phase of the first jamming signal by the first radio transmitter. a first radio transmitter configured to transmit a first jamming signal containing the frequency, and temporally change a transmission phase of the first jamming signal; and a second radio transmitter configured to transmit a second jamming signal containing the frequency, and temporally change a transmission phase of the second jamming signal independently without synchronization with change of the transmission phase of the first jamming signal by the first radio transmitter.
A method for implementing a knitted Quick Response - QR - code, comprising the steps of: a) generating a sample QR code comprising a plurality of modules having at least two different colours; characterized in that the method further includes: b) receiving data representative of a weft knitted fabric having interlooped stitches arranged in a matrix comprising a plurality of rows and a plurality of columns, wherein the stitches of each row define a course and the stitches of each column define a wale; c) receiving data representative of a base element (1-2.1a; 2-2.1a) comprising a group of stitches having a defined number of courses different from a defined number of wales; d) implementing each module (1-2.1; 2-2.1) of the plurality of modules of the sample QR code with a respective base element (1-2.1a; 2-2.1a) of a QR code in the weft knitted fabric, thereby implementing the sample QR code with the QR code in the weft knitted fabric with a combination of a plurality of said base elements. a) generating a sample QR code comprising a plurality of modules having at least two different colours; b) receiving data representative of a weft knitted fabric having interlooped stitches arranged in a matrix comprising a plurality of rows and a plurality of columns, wherein the stitches of each row define a course and the stitches of each column define a wale; c) receiving data representative of a base element (1-2.1a; 2-2.1a) comprising a group of stitches having a defined number of courses different from a defined number of wales; d) implementing each module (1-2.1; 2-2.1) of the plurality of modules of the sample QR code with a respective base element (1-2.1a; 2-2.1a) of a QR code in the weft knitted fabric, thereby implementing the sample QR code with the QR code in the weft knitted fabric with a combination of a plurality of said base elements.
An estrogen receptor beta agonist for use in a method of slowing cerebral cortex gray matter atrophy in a human multiple sclerosis patient, wherein the estrogen receptor beta agonist is administered conjointly with an immunotherapeutic agent.
A closing system (10, 10') to close in an automated way at least one package provided with a reversibly closeable interlocking element comprising a first complementary element and a second complementary element and having a length that extends between two extremities (111, 112), said closing system comprising a pressing element (20; 20') and a counteracting element (30; 30'), wherein said pressing element (20; 20') is configured to press said first complementary element against said second complementary element, in a progressive way starting from a first extremity to a second extremity, and is configured to translate along said entire length both along one direction and along the opposite direction, and wherein said counteracting element (30; 30') is configured to counteract the pressure of said first complementary element against said second complementary element, by stopping said second complementary element when said pressing element (20; 20') presses said first complementary element against said second complementary element, in such a way that said first complementary element and said second complementary element interlock the one with the other along their entire length, characterized in that: said counteracting element (30, 30') comprises a counteracting bar which is at least as long as the length of said reversibly closeable interlocking element. wherein said pressing element (20; 20') is configured to press said first complementary element against said second complementary element, in a progressive way starting from a first extremity to a second extremity, and is configured to translate along said entire length both along one direction and along the opposite direction, and wherein said counteracting element (30; 30') is configured to counteract the pressure of said first complementary element against said second complementary element, by stopping said second complementary element when said pressing element (20; 20') presses said first complementary element against said second complementary element, in such a way that said first complementary element and said second complementary element interlock the one with the other along their entire length, characterized in that: said counteracting element (30, 30') comprises a counteracting bar which is at least as long as the length of said reversibly closeable interlocking element.
A system, comprising: an armature configured to move a first contact between a first position that electrically couples the armature to the first contact and a second position that electrically couples the armature to a second contact; a coil configured receive a voltage output by a voltage source, wherein the voltage is configured to magnetize the coil, thereby causing an armature to move between the first position to the second position; and a controller configured to: receive an indication of a presence of an external event that corresponds to physically disrupting a position of the armature; determine an expected position of the armature prior to the external event; and adjust power provided to the coil based on the expected position and the indication. an armature configured to move a first contact between a first position that electrically couples the armature to the first contact and a second position that electrically couples the armature to a second contact; a coil configured receive a voltage output by a voltage source, wherein the voltage is configured to magnetize the coil, thereby causing an armature to move between the first position to the second position; and a controller configured to: receive an indication of a presence of an external event that corresponds to physically disrupting a position of the armature; determine an expected position of the armature prior to the external event; and adjust power provided to the coil based on the expected position and the indication. receive an indication of a presence of an external event that corresponds to physically disrupting a position of the armature; determine an expected position of the armature prior to the external event; and adjust power provided to the coil based on the expected position and the indication.
A compound of formula or a pharmaceutically acceptable salt, solvate or polymorph thereof, including all tautomers and stereoisomers thereof wherein: R 1 represents optionally substituted alkyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkoxy); optionally substituted carbocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C 1-6 haloalkoxy and halo); or -alkylaryl; R 2 represents H; or alkyl; R 3 represents H; or alkyl; U, V and W represent -(CH 2)-; or U and V together represent -CH=CH- and W represents C=O; Y represents aryl; heteroaryl; optionally substituted carbocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C 1-6 haloalkoxy and halo); or optionally substituted heterocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, -C OC 1-6 alkyl, -C C 1-6 alkyl and-C NHC 1-6 alkyl); and Z represents aryl; heteroaryl; optionally substituted carbocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C 1-6 haloalkoxy and halo); or optionally substituted heterocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, -C OC 1-6 alkyl, -C C 1-6 alkyl and -C NHC 1-6 alkyl). R 1 represents optionally substituted alkyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkoxy); optionally substituted carbocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C 1-6 haloalkoxy and halo); or -alkylaryl; R 2 represents H; or alkyl; R 3 represents H; or alkyl; U, V and W represent -(CH 2)-; or U and V together represent -CH=CH- and W represents C=O; Y represents aryl; heteroaryl; optionally substituted carbocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C 1-6 haloalkoxy and halo); or optionally substituted heterocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, -C OC 1-6 alkyl, -C C 1-6 alkyl and-C NHC 1-6 alkyl); and Z represents aryl; heteroaryl; optionally substituted carbocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C 1-6 haloalkoxy and halo); or optionally substituted heterocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, -C OC 1-6 alkyl, -C C 1-6 alkyl and -C NHC 1-6 alkyl).
A method for treating the surface of a solid material, the surface being a window pane and the method being applied to existing surfaces as a post treatment, the method comprising the steps of: - cleaning said surface using a first cleaning fluid composition, so as to provide a clean and preconditioned surface having a contact angle with water below 15°, wherein the first cleaning fluid composition comprises - water as a solvent - at least one component resulting in a chemical mechanical polishing wherein the at least one component comprises ceria, CeO 2, particles suspended in water, and wherein the pH value of said first cleaning fluid composition is in the range of 2.0 to 6, - coating one or more times said surface by depositing a coating fluid composition comprising a photocatalyst in a suspended form on said clean, preconditioned surface, the coating fluid composition comprises - photocatalytic active nanoparticles of titania, TiO 2, and - water as a solvent, wherein the cleaning and the coating steps are performed at a temperature in the range 5-50° C. - cleaning said surface using a first cleaning fluid composition, so as to provide a clean and preconditioned surface having a contact angle with water below 15°, wherein the first cleaning fluid composition comprises - water as a solvent - at least one component resulting in a chemical mechanical polishing wherein the at least one component comprises ceria, CeO 2, particles suspended in water, and wherein the pH value of said first cleaning fluid composition is in the range of 2.0 to 6, - water as a solvent - at least one component resulting in a chemical mechanical polishing wherein the at least one component comprises ceria, CeO 2, particles suspended in water, - coating one or more times said surface by depositing a coating fluid composition comprising a photocatalyst in a suspended form on said clean, preconditioned surface, the coating fluid composition comprises - photocatalytic active nanoparticles of titania, TiO 2, and - water as a solvent, wherein the cleaning and the coating steps are performed at a temperature in the range 5-50° C. - photocatalytic active nanoparticles of titania, TiO 2, and - water as a solvent,
A method for creating structures on a substrate, having the steps of: providing a decoration which is provided with a structure, scanning the decoration and the structure and storing the decoration and structure in separate files, and subsequently creating structures on a substrate in two steps, wherein, in a first step, the decoration is printed onto a substrate, the three-dimensional structure is printed onto the printing side of a structure-providing film, wherein a structure is applied as an elevation which protrudes beyond the surface of the structure-providing film, the structure is embossed by means of the printing side of the structure-providing film onto a substrate provided with the decoration, if necessary, the structure is optimized and the structure is printed again onto a structure-providing film and the structure is embossed by means of the printing side of the structure-providing film onto a substrate provided with the decoration and wherein, in a second step, the structure which is optimized if necessary is transferred to a pressing plate by using the file having the structure which is optimized if necessary, in order to create a pressing plate, and wherein, after the thus structured pressing plate is inserted into a press, the structure which is optimized if necessary is embossed from the pressing plate onto the decorated substrate by closing the press. providing a decoration which is provided with a structure, scanning the decoration and the structure and storing the decoration and structure in separate files, and subsequently creating structures on a substrate in two steps, wherein, in a first step, the decoration is printed onto a substrate, the three-dimensional structure is printed onto the printing side of a structure-providing film, wherein a structure is applied as an elevation which protrudes beyond the surface of the structure-providing film, the structure is embossed by means of the printing side of the structure-providing film onto a substrate provided with the decoration, if necessary, the structure is optimized and the structure is printed again onto a structure-providing film and the structure is embossed by means of the printing side of the structure-providing film onto a substrate provided with the decoration and wherein, in a second step, the structure which is optimized if necessary is transferred to a pressing plate by using the file having the structure which is optimized if necessary, in order to create a pressing plate, and wherein, after the thus structured pressing plate is inserted into a press, the structure which is optimized if necessary is embossed from the pressing plate onto the decorated substrate by closing the press.