mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a metallization layer of an integrated circuit device, the metallization layer comprising a via level and a trench level on top of the via level, the via level comprising a first porous dielectric layer with a pattern of one or more metal-filled vias embedded therein, and the trench level comprising a second porous dielectric layer with a pattern of one or more metal conductors embedded therein, the method comprising the steps of: • depositing the first porous dielectric layer, • depositing a layer of a template material directly on the first porous dielectric layer, • subjecting said layers to an annealing step and subsequent cooling step, so that the template material diffuses into the pores of the first porous layer, thereby filling the pores over the complete thickness of the porous layer, thus forming a pore-filled dielectric layer, and so that a template layer remains on top of the pore-filled dielectric layer, • performing a dual damascene process for: • producing via openings in the pore-filled layer and trenches in the template layer, according to the via pattern and the conductor pattern respectively, • filling the via openings and trenches with a barrier layer and a metal, thereby creating metal-filled vias and metal conductors, • removing the remaining template layer on top of the pore-filled layer and removing the template material from the pores of the pore-filled layer, • depositing the second porous dielectric layer directly on top of the first porous layer, thereby embedding the metal conductors in the material of the second porous layer, • planarizing the second porous dielectric layer and the metal conductors. • depositing the first porous dielectric layer, • depositing a layer of a template material directly on the first porous dielectric layer, • subjecting said layers to an annealing step and subsequent cooling step, so that the template material diffuses into the pores of the first porous layer, thereby filling the pores over the complete thickness of the porous layer, thus forming a pore-filled dielectric layer, and so that a template layer remains on top of the pore-filled dielectric layer, • performing a dual damascene process for: • producing via openings in the pore-filled layer and trenches in the template layer, according to the via pattern and the conductor pattern respectively, • filling the via openings and trenches with a barrier layer and a metal, thereby creating metal-filled vias and metal conductors, • producing via openings in the pore-filled layer and trenches in the template layer, according to the via pattern and the conductor pattern respectively, • filling the via openings and trenches with a barrier layer and a metal, thereby creating metal-filled vias and metal conductors, • removing the remaining template layer on top of the pore-filled layer and removing the template material from the pores of the pore-filled layer, • depositing the second porous dielectric layer directly on top of the first porous layer, thereby embedding the metal conductors in the material of the second porous layer, • planarizing the second porous dielectric layer and the metal conductors.
Mobile transmitting device for transmitting a network key used for communicating between a first network device and a second network device based on a first communication carrier, wherein the first communication carrier is a wired communication carrier, the device comprising a storage unit configured to store the network key; and an interface configured to transmit the network key to at least one of the first network device and the second network device based on a second communication carrier, wherein the second communication carrier is a wireless communication carrier.
A method of wireless communication of a non-simultaneous-transmit-and-receive access point multi-link device, NSTR AP MLD, comprising: establishing, at the NSTR AP MLD, a primary link on a first channel and a non-primary link on a second channel; determining to perform a channel switch operation to switch a first link of the primary link and the non-primary link to operating on a different channel; transmitting, on the primary link and prior to the switching of the first link, a first management frame including a first element indicating a target switching time for the switching of the first link; and transmitting, on the primary link after the switching of the first link, a second management frame indicating that a NSTR AP on the first link is in operation, characterized in that the first link is the non-primary link, and the second management frame further includes a second element indicating that the non-primary link is resumed. establishing, at the NSTR AP MLD, a primary link on a first channel and a non-primary link on a second channel; determining to perform a channel switch operation to switch a first link of the primary link and the non-primary link to operating on a different channel; transmitting, on the primary link and prior to the switching of the first link, a first management frame including a first element indicating a target switching time for the switching of the first link; and transmitting, on the primary link after the switching of the first link, a second management frame indicating that a NSTR AP on the first link is in operation, characterized in that the first link is the non-primary link, and the second management frame further includes a second element indicating that the non-primary link is resumed.
A method of making a proppant or anti-flowback additive comprising sintering a rod-shaped article made from a composition comprising at least 80% by weight alumina and between 0.15% and 3.5% by weight TiO 2, wherein the sintered article comprises between 0.2% by weight and 4% by weight aluminum titanate, for example between 1% by weight and 2.5% by weight aluminum titanate, and wherein the sintering occurs at 1,300 degrees Celsius to 1,700 degrees Celsius.
A sports garment (10, 110) comprising a pocket (50, 150), wherein: the pocket (50, 150) comprises an opening (60, 160) for bottom loading of the pocket (50, 150); and wherein a first border (80, 180) of the pocket (50, 150) is arranged with an at least partial overlap with a first cut line (30, 130) of the sports garment (10, 110); characterized in that: a second border (90, 190) of the pocket (50, 150) is arranged with an at least partial overlap with a second cut line (40, 140) of the sports garment (10, 110). the pocket (50, 150) comprises an opening (60, 160) for bottom loading of the pocket (50, 150); and wherein a first border (80, 180) of the pocket (50, 150) is arranged with an at least partial overlap with a first cut line (30, 130) of the sports garment (10, 110); characterized in that: a second border (90, 190) of the pocket (50, 150) is arranged with an at least partial overlap with a second cut line (40, 140) of the sports garment (10, 110). a second border (90, 190) of the pocket (50, 150) is arranged with an at least partial overlap with a second cut line (40, 140) of the sports garment (10, 110).
A nematic liquid crystal composition comprising: as a first component, at least one compound represented by general formula: (where R 1 represents a linear or branched alkyl group having 1 to 22 carbon atoms and one CH 2 group in the alkyl group may be substituted with -O-; and M 1 represents a trans-1,4-cyclohexylene group or a single bond); and, as a second component, at least one compound selected from the group consisting of compounds represented by general formula: (where R 21 and R 22 each independently represent an alkyl group having 1 to 10 carbon atoms or an alkenyl group having 2 to 10 carbon atoms and X 21 to X 24 each independently represent a hydrogen atom or a fluorine atom), wherein a dielectric anisotropy (Δε) at 25°C is - 2.0 or less. as a first component, at least one compound represented by general formula: (where R 1 represents a linear or branched alkyl group having 1 to 22 carbon atoms and one CH 2 group in the alkyl group may be substituted with -O-; and M 1 represents a trans-1,4-cyclohexylene group or a single bond); and, as a second component, at least one compound selected from the group consisting of compounds represented by general formula: (where R 21 and R 22 each independently represent an alkyl group having 1 to 10 carbon atoms or an alkenyl group having 2 to 10 carbon atoms and X 21 to X 24 each independently represent a hydrogen atom or a fluorine atom), wherein a dielectric anisotropy (Δε) at 25°C is - 2.0 or less.
Composite reinforcer comprising: - one or more reinforcing thread(s); - covering said thread, individually each thread or collectively several threads, a layer of a thermoplastic polymer composition comprising at least one thermoplastic polymer, the glass transition temperature of which is positive, an unsaturated thermoplastic styrene elastomer, the glass transition temperature of which is negative, and a poly( p -phenylene ether) ("PPE"). - one or more reinforcing thread(s); - covering said thread, individually each thread or collectively several threads, a layer of a thermoplastic polymer composition comprising at least one thermoplastic polymer, the glass transition temperature of which is positive, an unsaturated thermoplastic styrene elastomer, the glass transition temperature of which is negative, and a poly( p -phenylene ether) ("PPE").
Process for extracting materials from a biological material, wherein the said biological material is based on plants, insects, animals or micro-organisms, and wherein the naturally occurring biological material is treated with an extractant consisting of a deep eutectic solvent of natural origin to produce a biological extract of natural origin dissolved in said extractant, characterized in that the deep eutectic solvent is based on a combination of at least one naturally occurring organic acid or at least one inorganic compound and at least one naturally occurring mono- or dimeric sugar, sugar alcohol, amino acid, or di or tri alkanol, or based on fructose, glucose, sucrose and water, or lactose, glucose and water; and wherein the extracted material is a non-polymeric compound.
A wall for a building, comprising a framed wall structure including a top support, a bottom support, and opposing side supports connected together, and at least one intermediate support attached to said top support and said bottom support, the wall comprising: a blast protection panel made of a cement-gypsum binder including alkali-resistant fiberglass fibers attached to said framed wall structure, said blast protection panel including a first surface that is attached to said framed wall structure and a second, opposing surface that is explosed to the blast, wherein said blast protection panel is configured to withstand forces generated by explosive blasts up to 10 psi (68.95 kPa). a blast protection panel made of a cement-gypsum binder including alkali-resistant fiberglass fibers attached to said framed wall structure, said blast protection panel including a first surface that is attached to said framed wall structure and a second, opposing surface that is explosed to the blast, wherein said blast protection panel is configured to withstand forces generated by explosive blasts up to 10 psi (68.95 kPa).
A surgical instrument (20, 22, 120, 122) for use in resecting a bone (5, 6) having a surface topography comprising: a resection guide defining a slot, and a resection guide locator including a bone engagement portion having a surface (36, 40, 86, 90) that is complementary to said surface topography of said bone to be resected; characterised in that the resection guide locator also includes a socket sized to receive the resection guide so as to maintain said guide in position while said surface of said bone engagement portion is arranged in contacting relation with the bone, the resection guide locator defining an elongated slot, wherein the elongated slot is sized and shaped to allow a typical surgical saw to pass through from the correspondingly positioned and sized slot in resection guide without contact with resection guide locator when the resection guide is received within the socket. a resection guide defining a slot, and a resection guide locator including a bone engagement portion having a surface (36, 40, 86, 90) that is complementary to said surface topography of said bone to be resected;
Method for processing a liquid medium, in which the medium to be processed is conducted through a liquid circuit and the medium to be processed is heated in the liquid circuit with the aid of a heat exchanger, wherein a liquid-steam separation is carried out in a separation device, and a liquid which is produced during the liquid-steam separation is introduced into the heat exchanger as heating medium, characterized in that a gaseous carrier medium, especially air, is conducted through an evaporator and a condenser in a cooling circuit, the medium to be processed is dispersed in the evaporator by means of an atomizing device, at least some of the dispersed medium to be processed is evaporated and picked up by the gaseous carrier medium, and at least some of the evaporated medium to be processed, which is picked up by the carrier medium, condenses in the condenser.
A spinning reel comprising: a reel body; a housing part including an opening part; a driving member including a pinion that is rotatably supported by the reel body and extends through the opening part of the housing part; and a magnetic seal device affixed to the housing part and including a central opening through which the pinion extends, wherein the magnetic seal device includes: a magnet, first and second magnetic plates (9a, 9b) securing the magnet therebetween, and a magnetic fluid that is maintained at a gap between the driving member and at least one of the first and second magnetic plates (9a, 9b), wherein an external diameter of the first magnetic plate is larger than an external diameter of the second magnetic plate, characterized in that the first magnetic plate is located adjacent the housing part and the second magnetic plate is located on an opposite side of the magnet with respect to the housing part. a reel body; a housing part including an opening part; a driving member including a pinion that is rotatably supported by the reel body and extends through the opening part of the housing part; and a magnetic seal device affixed to the housing part and including a central opening through which the pinion extends, wherein the magnetic seal device includes: a magnet, first and second magnetic plates (9a, 9b) securing the magnet therebetween, and a magnetic fluid that is maintained at a gap between the driving member and at least one of the first and second magnetic plates (9a, 9b), wherein an external diameter of the first magnetic plate is larger than an external diameter of the second magnetic plate, characterized in that the first magnetic plate is located adjacent the housing part and the second magnetic plate is located on an opposite side of the magnet with respect to the housing part. a magnet, first and second magnetic plates (9a, 9b) securing the magnet therebetween, and a magnetic fluid that is maintained at a gap between the driving member and at least one of the first and second magnetic plates (9a, 9b), wherein an external diameter of the first magnetic plate is larger than an external diameter of the second magnetic plate, characterized in that the first magnetic plate is located adjacent the housing part and the second magnetic plate is located on an opposite side of the magnet with respect to the housing part.
An apparatus comprising: a controller configured to identify a position of a disc relative to a plate with coils physically associated with the plate and control a current sent to the coils based on the position of the disc, wherein the disc is configured to move such that a closest point between the disc and the plate changes along a periphery of the disc, characterized in that the controller comprises: a normal vector calculator configured to identify a disc normal vector for the disc from inductance information and coil position information for the coils; a cross product generator configured to identify a vector from a cross product of the disc normal vector and a plate normal vector; and a closest point identifier configured to identify an angle for the closest point from vector information received from the cross product generator, wherein the vector information is based on the vector. a controller configured to identify a position of a disc relative to a plate with coils physically associated with the plate and control a current sent to the coils based on the position of the disc, wherein the disc is configured to move such that a closest point between the disc and the plate changes along a periphery of the disc, characterized in that a normal vector calculator configured to identify a disc normal vector for the disc from inductance information and coil position information for the coils; a cross product generator configured to identify a vector from a cross product of the disc normal vector and a plate normal vector; and a closest point identifier configured to identify an angle for the closest point from vector information received from the cross product generator, wherein the vector information is based on the vector.
Method for security inspection of baggage and/or personal items (500, 501), the method comprising the steps of: a. providing an X-ray tray having a deposition area; b. attaching an single-use inlay to said X-ray tray to cover said deposition area, said single-use inlay comprising a paper and/or polymer layer having an outer side and an inner side,; c. putting the baggage and/or personal items (500, 501) onto the single-use inlay; d. X-ray scanning said baggage and/or personal items (500, 501) disposed in said X-ray tray; e. removing the baggage and/or personal items (500, 501) from said single-use inlay; and f. detaching said single-use inlay from said X-ray tray, characterized in that the inlay comprises metal organic framework material, wherein said metal organic framework material is selected from the group consisting of [Zn 2 (bpdc) 2 (bpee)], [Zn(dcbpy)]·DMF, [Zn 4 O(cpi) 2 (H 2 0) 3] 3DMA·3EtOH·6H 2 0, Zn 3 (ccmpb) 2 (bib), [Zn 3 (tdpat)(H 2 0) 3], Zn 3 (btc) 2, [Zn 2 (fdc) 2 (bpee) 2 (H 2 0)] n ·2H 2 0, [Zn 3 (bpdc) 3 (bpy)] 4DMF·H 2 0, [Zn 2 (hfdc) 2 (bpy)xDMA], [(CH 3)NH 2] 4 [Cd 3 (H 2 phhc)], [Cd 2 (tipb) 2 (btc)Cl], [Cd(tipb)(tdc)], [Cd(tipb)(fdc)], [Cd 3 (ttpb) 2 (H 2 0) 6] 6DMF, [Tb(1,3,5-btc)] n, [Tb(hbttc)(H 2 0) 4] H 2 0, [Eu 2 (mfda) 2 (HCOO) 2 (H 2 0)e·H 2 0], Eu 3 (mfda) 4 (NO 3) 3, Fe-MIL-88B-NH 2, [Cu(adp) H 2 0] n, MIL-53-Cr, [Co(pbda)(bpy) 2H 2 0] n and mixtures thereof. a. providing an X-ray tray having a deposition area; b. attaching an single-use inlay to said X-ray tray to cover said deposition area, said single-use inlay comprising a paper and/or polymer layer having an outer side and an inner side,; c. putting the baggage and/or personal items (500, 501) onto the single-use inlay; d. X-ray scanning said baggage and/or personal items (500, 501) disposed in said X-ray tray; e. removing the baggage and/or personal items (500, 501) from said single-use inlay; and f. detaching said single-use inlay from said X-ray tray, the inlay comprises metal organic framework material, wherein said metal organic framework material is selected from the group consisting of [Zn 2 (bpdc) 2 (bpee)], [Zn(dcbpy)]·DMF, [Zn 4 O(cpi) 2 (H 2 0) 3] 3DMA·3EtOH·6H 2 0, Zn 3 (ccmpb) 2 (bib), [Zn 3 (tdpat)(H 2 0) 3], Zn 3 (btc) 2, [Zn 2 (fdc) 2 (bpee) 2 (H 2 0)] n ·2H 2 0, [Zn 3 (bpdc) 3 (bpy)] 4DMF·H 2 0, [Zn 2 (hfdc) 2 (bpy)xDMA], [(CH 3)NH 2] 4 [Cd 3 (H 2 phhc)], [Cd 2 (tipb) 2 (btc)Cl], [Cd(tipb)(tdc)], [Cd(tipb)(fdc)], [Cd 3 (ttpb) 2 (H 2 0) 6] 6DMF, [Tb(1,3,5-btc)] n, [Tb(hbttc)(H 2 0) 4] H 2 0, [Eu 2 (mfda) 2 (HCOO) 2 (H 2 0)e·H 2 0], Eu 3 (mfda) 4 (NO 3) 3, Fe-MIL-88B-NH 2, [Cu(adp) H 2 0] n, MIL-53-Cr, [Co(pbda)(bpy) 2H 2 0] n and mixtures thereof.
Housing for electrical sub-assemblies for assembly on a carrier rail, wherein the housing is constructed from at least two housing portions (22, 23), wherein the housing has a side - assembly side - facing the carrier rail and a front side, wherein both/two of the housing portions (22, 23) are joined together in a positive-locking manner and so as to be able to be separated from each other along an abutment edge which extends at least partially along the front side, wherein a region for fitting a securing element - securing region - is constructed at the front side at the abutment edge, wherein the securing region extends over at least two of the housing portions (22, 23), characterised in that at least one of the housing portions (22, 23) in the securing region has a flap (13, 14) which engages in a corresponding recess (15, 16) in the surface of the adjacent housing portion and which changes the visible path of the abutment edge at the surface of the housing, whereby, when the housing is opened by pivoting the housing portions (22, 23) relative to each other and along the abutment edge at the front side, the flap (13, 14) and the recess (15, 16) pivot relative to each other and shearing forces are thereby produced on a securing element which is fitted in the securing region.
An oligonucleotide which targets a Down Syndrome Gene natural antisense transcript for use as a therapeutic compound, wherein the oligonucleotide modulates the expression of the Down Syndrome Gene and wherein the natural antisense transcript has the nucleic acid sequence as set forth in one of SEQ ID NOs: 3-6.
A cross-layer path establishment method, comprising: determining by an upper-layer path computation element, PCE, upper-layer path information of a to-be-established label switched path, LSP, an identifier of a first node of a lower-layer path, and an identifier of a last node of the lower-layer path according to an identifier of an upper-layer first node, an identifier of an upper-layer last node, and a bandwidth requirement of the to-be-established LSP, wherein the upper-layer path information comprises an identifier of an upper-layer node that the to-be-established LSP passes through, and the lower-layer path is used as a bottom-layer path of the to-be-established LSP, to carry upper-layer service data; acquiring an identifier of an established lower-layer path that matches the identifier of the first node of the lower-layer path, the identifier of the last node of the lower-layer path, and the bandwidth requirement; and sending to the upper-layer first node, a path establishment indication that comprises the upper-layer path information and the identifier of the lower-layer path, so that the upper-layer first node establishes the to-be-established LSP according to the upper-layer path information and the identifier of the lower-layer path. determining by an upper-layer path computation element, PCE, upper-layer path information of a to-be-established label switched path, LSP, an identifier of a first node of a lower-layer path, and an identifier of a last node of the lower-layer path according to an identifier of an upper-layer first node, an identifier of an upper-layer last node, and a bandwidth requirement of the to-be-established LSP, wherein the upper-layer path information comprises an identifier of an upper-layer node that the to-be-established LSP passes through, and the lower-layer path is used as a bottom-layer path of the to-be-established LSP, to carry upper-layer service data; acquiring an identifier of an established lower-layer path that matches the identifier of the first node of the lower-layer path, the identifier of the last node of the lower-layer path, and the bandwidth requirement; and sending to the upper-layer first node, a path establishment indication that comprises the upper-layer path information and the identifier of the lower-layer path, so that the upper-layer first node establishes the to-be-established LSP according to the upper-layer path information and the identifier of the lower-layer path.