mhurhangee/ep-ind-claims huggingface dataset:
Process for manufacturing a self-adhesive article comprising at least a substrate and an adhesive layer, said process comprising the steps of: a) conditioning an adhesive composition, comprising at least a silyl-containing polymer, a tackifying resin and a catalyst, at a temperature of between 20 and 160°C; b) coating the adhesive composition onto: b1) at least a part of the substrate; or b2) onto a non-sticking support; c) submitting the article obtained at step b) to a temperature comprised between 20 and 200°C and to a humidity level characterized by an atmosphere in which between 10 and 100% of the molecules are water molecules; and if b2) is chosen, then d) depositing the substrate onto the adhesive composition before step c) or onto the adhesive layer after step c). a) conditioning an adhesive composition, comprising at least a silyl-containing polymer, a tackifying resin and a catalyst, at a temperature of between 20 and 160°C; b) coating the adhesive composition onto: b1) at least a part of the substrate; or b2) onto a non-sticking support; b1) at least a part of the substrate; or b2) onto a non-sticking support; c) submitting the article obtained at step b) to a temperature comprised between 20 and 200°C and to a humidity level characterized by an atmosphere in which between 10 and 100% of the molecules are water molecules; and if b2) is chosen, then d) depositing the substrate onto the adhesive composition before step c) or onto the adhesive layer after step c).
A TEMPEST-grade feed-through for providing electromagnetic shielding where one or more signal leads pass through a cabinet or other enclosure, said feed-through comprising a frame and at least one assembly made from machined parts, said frame having at least one opening, and said at least one assembly comprising two or more joining parts (31, 33, 37), forming one or more elongated waveguides, said joining parts (31, 33, 37) being divisible along the length of said waveguides, thereby being capable of surrounding a signal lead, which may be a fiber-optic cable, said assembly being adapted to be attached to said frame such that one or more signal leads can pass through said at least one opening in the frame and through one of said waveguides, said opening in the frame having a larger maximum transversal extension than the maximum transversal extension of said waveguides.
A compound of structural Formula I: or pharmaceutically acceptable salt thereof, wherein: R 1 is H or -C 1-4 alkyl; R 2 is H or -C 1-4 alkyl, R 3 is -C 1-8 alkyl, cyclopropyl, cyclobutyl, cyclopentyl or cyclohexyl; R A is a geminally di-substituted amino acid ester residue of formula (iv): R 5 and R 6 are each CH 3 and R 9 is -C 1-8 alkyl, cyclopropyl, cyclobutyl, cyclopentyl or cyclohexyl. R 1 is H or -C 1-4 alkyl; R 2 is H or -C 1-4 alkyl, R 3 is -C 1-8 alkyl, cyclopropyl, cyclobutyl, cyclopentyl or cyclohexyl; R A is a geminally di-substituted amino acid ester residue of formula (iv): R 5 and R 6 are each CH 3 and R 9 is -C 1-8 alkyl, cyclopropyl, cyclobutyl, cyclopentyl or cyclohexyl.
Anti-stiction method in an inertial micro-electro-mechanical device comprising: - a mobile mass, suspended to an armature via spring means, said mobile mass comprising at least one mobile electrode; and - at least one fixed electrode rigidly attached to said armature, each fixed electrode cooperating with one of said at least one mobile electrode to form a pair of electrodes; said anti-stiction method comprising a step of detecting, for at least one stuck pair of electrodes, a stiction associated to a stiction force (F s), and - at least one separating step, comprising a step of applying, during a predetermined time period, a predetermined voltage between the electrodes of at least one of said pair or pairs of electrodes, so as to create an electrostatic force, said anti-stiction method being characterized in that said electrostatic force generates a displacement of the mobile mass according to the direction of said stiction force. - a mobile mass, suspended to an armature via spring means, said mobile mass comprising at least one mobile electrode; and - at least one fixed electrode rigidly attached to said armature, each fixed electrode cooperating with one of said at least one mobile electrode to form a pair of electrodes; - at least one separating step, comprising a step of applying, during a predetermined time period, a predetermined voltage between the electrodes of at least one of said pair or pairs of electrodes, so as to create an electrostatic force, said anti-stiction method being characterized in that said electrostatic force generates a displacement of the mobile mass according to the direction of said stiction force.
A method for producing a material comprising a perforated low density web polyolefin material having a thickness of at least 0.20 mm, comprising the step of: - providing a layer of low density material comprising a polyolefin material having a maximum total weight per square meter of 75 g/m^2 or lower; and - processing the low density material between two rollers (3, 4) pressing onto each other to obtain a perforated low density web material, wherein a first roller has protrusions to perforate the low density material, and a second roller rotates at a different speed from that of the first roller and has projecting parts with contact areas arranged to perforate the material with the protrusions, the contact areas being spaced by recesses to receive the material and having larger dimensions than contact faces of the protrusions, the recesses leaving an impression in relief on the low density polymer material and in that the thickness of the material fed into the rollers (3, 4) is equal to or greater than the thickness of the output material and in that the recesses have a first maximum height and the protrusions have a second maximum height and in that the thickness of the material fed out from the first and second rollers (3, 4) is greater than or equal to at least one of the first or second maximum height (h1, h2). - providing a layer of low density material comprising a polyolefin material having a maximum total weight per square meter of 75 g/m^2 or lower; and - processing the low density material between two rollers (3, 4) pressing onto each other to obtain a perforated low density web material, wherein a first roller has protrusions to perforate the low density material, and a second roller rotates at a different speed from that of the first roller and has projecting parts with contact areas arranged to perforate the material with the protrusions, the contact areas being spaced by recesses to receive the material and having larger dimensions than contact faces of the protrusions, the recesses leaving an impression in relief on the low density polymer material and in that the thickness of the material fed into the rollers (3, 4) is equal to or greater than the thickness of the output material and in that the recesses have a first maximum height and the protrusions have a second maximum height and in that the thickness of the material fed out from the first and second rollers (3, 4) is greater than or equal to at least one of the first or second maximum height (h1, h2).
A horticultural lighting assembly, comprising: one or more optical components mounted on a substrate and each optically coupled to at least one optical fiber that delivers laser radiation to the optical component; a linear or elliptical holographic diffuser located to diffuse light emanating from said optical components, characterized by a further linear or elliptical holographic diffuser that diffuses light in a direction that is orthogonal to a direction in which the linear or elliptical holographic diffuser diffuses light. one or more optical components mounted on a substrate and each optically coupled to at least one optical fiber that delivers laser radiation to the optical component; a linear or elliptical holographic diffuser located to diffuse light emanating from said optical components, characterized by a further linear or elliptical holographic diffuser that diffuses light in a direction that is orthogonal to a direction in which the linear or elliptical holographic diffuser diffuses light.
A vehicle having an elongate track (20B; 220) extending longitudinally along a side of the motor vehicle, a sliding door manually slideable between closed and open positions and a sliding door brake mechanism for selectively applying a braking force to the sliding door, the sliding door brake mechanism comprising a brake member pivotally connected to the sliding door of the vehicle for rotation about a pivot axis (X-X), the brake member having an actuator (43, 43") and a pair of spaced apart brake surfaces (44A, 44B), each brake surface (44A, 44B) being located between the pivot axis (X-X) of the brake member and the adjacent elongate track, characterised in that:- the pair of spaced apart brake surfaces (44A, 44B) are located on opposite sides of a plane aligned with and extending from the pivot axis (X-X) to the elongate track and that; the actuator (43, 43") has a captive moveable component (43C, 43C") and that the position of the moveable component (43C, 43C") is dependant upon the front to rear orientation of the vehicle and is spaced away from the pivot axis (X-X) of the brake member on an opposite side of the pivot axis (X-X) to the position of the pair of spaced apart brake surfaces (44A, 44B) so that movement of the moveable component (43C, 43C") provides a force to the brake member to cause the brake member to rotate about the pivot axis (X-X) in a direction corresponding to the front to rear orientation of the vehicle on the slope and that; the moveable component is one of a ball and a roller (43C") and that; the pivot axis (X-X) of the brake member is arranged substantially vertically when the vehicle rests upon a level horizontal surface and the direction in which the brake member rotates when the vehicle is on the slope is directly related to the direction in which the pivot axis (X-X) is displaced from the vertical due to the vehicle resting on the slope so that, when the vehicle is on a slope, the non-horizontal orientation of the vehicle due to its location on the slope causes a respective one of the pair of spaced apart brake surfaces (44a, 44B) of the brake member to contact the adjacent elongate track thereby providing the braking force to the sliding door.
A solar cell panel comprising: a solar cell; a sealing member for sealing the solar cell; a first cover member disposed on the sealing member at one side of the solar cell; and a second cover member disposed on the sealing member at another side of the solar cell, wherein the first cover member includes a base member and a colored portion having a light transmittance lower than a light transmittance of the base member and constituting a colored area, characterized in that the colored portion is fused to the base member, the colored portion includes at least two layers each formed of an oxide ceramic composition and having different colors or different light transmittances, the oxide ceramic composition of the colored portion has a glass structure of an amorphous state, and the colored portion includes voids. a solar cell; a sealing member for sealing the solar cell; a first cover member disposed on the sealing member at one side of the solar cell; and a second cover member disposed on the sealing member at another side of the solar cell, wherein the first cover member includes a base member and a colored portion having a light transmittance lower than a light transmittance of the base member and constituting a colored area, characterized in that the colored portion is fused to the base member, the colored portion includes at least two layers each formed of an oxide ceramic composition and having different colors or different light transmittances, the oxide ceramic composition of the colored portion has a glass structure of an amorphous state, and the colored portion includes voids.
A composition comprising, consisting or consisting essentially of an antibody that binds to a cell surface antigen of a tumor, which antigen is subject to receptor mediated endocytosis, and a dynamin-dependent inhibitor of receptor-mediated endocytosis.
A method for manufacturing a powder magnetic core with a metallic soft magnetic material powder, wherein the soft magnetic material powder is an Fe-Cr-Al or Fe-Cr-Al-Si alloy powder, the method comprising: a first step comprising mixing a soft magnetic material powder and an organic binder; a second step comprising compression molding the mixture obtained after the first step; a third step comprising performing at least one of grinding and cutting on a compact obtained after the second step; and a fourth step comprising heat-treating the compact after the third step, wherein in the fourth step, the compact is heat-treated so that an oxide layer containing an element constituting the soft magnetic material powder is formed on a surface of the soft magnetic material powder, the method further comprising a preheating step between the second step and the third step, wherein the preheating step comprises heating the compact at a temperature lower than the heat treatment temperature in the fourth step, wherein the compact subjected to the third step has a space factor of 78 to 90%, the space factor being a relative density calculated by dividing the density of the compact by the true density of the soft magnetic material powder, the weight of the binder and any lubricant being subtracted from the weight of the compact, and the true density being the density of an ingot prepared by melting a material with the same composition as the soft magnetic material. a first step comprising mixing a soft magnetic material powder and an organic binder; a second step comprising compression molding the mixture obtained after the first step; a third step comprising performing at least one of grinding and cutting on a compact obtained after the second step; and a fourth step comprising heat-treating the compact after the third step, wherein in the fourth step, the compact is heat-treated so that an oxide layer containing an element constituting the soft magnetic material powder is formed on a surface of the soft magnetic material powder, the method further comprising a preheating step between the second step and the third step, wherein the preheating step comprises heating the compact at a temperature lower than the heat treatment temperature in the fourth step, wherein the compact subjected to the third step has a space factor of 78 to 90%, the space factor being a relative density calculated by dividing the density of the compact by the true density of the soft magnetic material powder, the weight of the binder and any lubricant being subtracted from the weight of the compact, and the true density being the density of an ingot prepared by melting a material with the same composition as the soft magnetic material.
A cell culture chamber comprising a plurality of microchambers formed on a surface thereof, wherein convex portions that partition the microchambers adjacent to each other are formed such that when cells are contained in the microchambers, the convex portions prevent cells from being adhered to upper surfaces of the convex portions, wherein each of the upper surfaces of the convex portions has a short side width b of 10 to 15 μm, and each of the convex portions has a height c equal to or more than three times the short side width b, and wherein an area having the microchambers formed therein is subjected to surface treatment.
An apparatus (1; 2) for stimulating neurons, comprising - a stimulation unit which is implantable into a patient's body, said stimulation unit having a plurality of stimulation elements for stimulating neurons in the patient's brain and/or spinal cord with stimuli, and - a control unit operating the stimulation unit in different stimulation modes during a first time interval and a second time interval following the first time interval, wherein - the control unit controls the stimulation unit in a first stimulation mode during at least 75% of the length of the first time interval such that the stimulation elements repetitively generate stimulus sequences, and that the order in which the stimulation elements generate the stimuli within a sequence remains constant for at least 5 successively generated sequences and is then being varied, - the control unit controls the stimulation unit in a second stimulation mode during at least 75% of the length of the second time interval such that the stimulation elements repetitively generate stimulus sequences, and that the order in which the stimulation elements generate the stimuli within a sequence remains constant for at least 25 successively generated sequences and is then being varied, - wherein the intensity of the stimuli in the first stimulation mode is smaller than or equal to a predetermined stimulus intensity and the intensity of the stimuli in the second stimulation mode is at least 1.3 times higher than the predetermined stimulus intensity. - a stimulation unit which is implantable into a patient's body, said stimulation unit having a plurality of stimulation elements for stimulating neurons in the patient's brain and/or spinal cord with stimuli, and - a control unit operating the stimulation unit in different stimulation modes during a first time interval and a second time interval following the first time interval, wherein - the control unit controls the stimulation unit in a first stimulation mode during at least 75% of the length of the first time interval such that the stimulation elements repetitively generate stimulus sequences, and that the order in which the stimulation elements generate the stimuli within a sequence remains constant for at least 5 successively generated sequences and is then being varied, - the control unit controls the stimulation unit in a second stimulation mode during at least 75% of the length of the second time interval such that the stimulation elements repetitively generate stimulus sequences, and that the order in which the stimulation elements generate the stimuli within a sequence remains constant for at least 25 successively generated sequences and is then being varied, - wherein the intensity of the stimuli in the first stimulation mode is smaller than or equal to a predetermined stimulus intensity and the intensity of the stimuli in the second stimulation mode is at least 1.3 times higher than the predetermined stimulus intensity.
A polymer composition comprising: (a) a conjugated diene monovinylarene block copolymer; and (b) a styrenic thermoplastic elastomer; wherein • a weight ratio of the conjugated diene monovinylarene block copolymer to the styrenic thermoplastic elastomer is in a range from 5:95 to 20:80, • the conjugated diene monovinylarene block copolymer has from 55 to 85 wt. % monovinylarene monomer content, based on the total weight of the copolymer, and • the styrenic thermoplastic elastomer has from 15 to 35 wt. % styrene content, based on the total weight of the styrenic thermoplastic elastomer, and wherein a kink resistance of tubing produced from the composition and tested in accordance with DIN EN 13868 is less than or equal to 32 mm. (a) a conjugated diene monovinylarene block copolymer; and (b) a styrenic thermoplastic elastomer; wherein • a weight ratio of the conjugated diene monovinylarene block copolymer to the styrenic thermoplastic elastomer is in a range from 5:95 to 20:80, • the conjugated diene monovinylarene block copolymer has from 55 to 85 wt. % monovinylarene monomer content, based on the total weight of the copolymer, and • the styrenic thermoplastic elastomer has from 15 to 35 wt. % styrene content, based on the total weight of the styrenic thermoplastic elastomer, and • a weight ratio of the conjugated diene monovinylarene block copolymer to the styrenic thermoplastic elastomer is in a range from 5:95 to 20:80, • the conjugated diene monovinylarene block copolymer has from 55 to 85 wt. % monovinylarene monomer content, based on the total weight of the copolymer, and • the styrenic thermoplastic elastomer has from 15 to 35 wt. % styrene content, based on the total weight of the styrenic thermoplastic elastomer, and
A method for organizing and/or commissioning a network for communication with network nodes, the network nodes of the network being synchronized and data transmission taking place between the synchronized network nodes according to a timing scheme, in which the times are determined at which data transmission between which network nodes in which transmission direction can take place, the network, after set up during commissioning, having a hierarchical network topology with a central master network node and network nodes connected to the same in a tree-like manner over one or more hierarchy levels, non-synchronized network nodes sending out support data packets at predetermined support transmission intervals and, subsequent to the sending out of a support data packet, switching to receive for a response receiving interval and the master network node and/or synchronized network nodes switching to continuous reception for a support receiving interval for the synchronization of a non-synchronized network node and sending out a response data packet, which contains synchronization information, after receiving a support data packet, characterized in that the synchronization of non-synchronized network nodes starting from the master network node, which forms the network node of the lowest hierarchy level, takes place in such a manner in terms of hierarchy level that first, in a first synchronization pass, the master network node switches to continuous reception for a support receiving interval and sends out response data packets for the received support data packets and subsequently, in each case already synchronized network nodes of the respectively next-highest hierarchy level switch to continuous reception for a support receiving interval and send out response data packets for the received support data packets, until all of the network nodes to be synchronized are synchronized or no further support data packet is received through network nodes already synchronized in the network over a predetermined number of support receiving intervals.