mhurhangee/ep-ind-claims huggingface dataset:
Arrangement of support elements for holding electronic functional modules (133-1, 133-2, 133-x), comprising: a first support element, wherein the first support element has an upper side and a lower side, wherein a first bridge receptacle is formed in the upper side, and wherein a second bridge receptacle is formed in the lower side; and a second support element, wherein the second support element has a first side bridge and a second side bridge, wherein the first side bridge is insertable in the first bridge receptacle, and wherein the second side bridge is insertable in the second bridge receptacle, wherein in an upper side (101-1, 101-2, 101-3, 101 -x) of the first, second, third or further support element (100-1, 100-2, 100-3, 100-x) a first cable receptacle (125-1, 125-2, 125-3, 125-x) for receiving a first electrical cable or a second cable receptacle (127-1, 127-2, 127-3, 127-x) for receiving a second electrical cable is formed. a first support element, wherein the first support element has an upper side and a lower side, wherein a first bridge receptacle is formed in the upper side, and wherein a second bridge receptacle is formed in the lower side; and a second support element, wherein the second support element has a first side bridge and a second side bridge, wherein the first side bridge is insertable in the first bridge receptacle, and wherein the second side bridge is insertable in the second bridge receptacle, wherein in an upper side (101-1, 101-2, 101-3, 101 -x) of the first, second, third or further support element (100-1, 100-2, 100-3, 100-x) a first cable receptacle (125-1, 125-2, 125-3, 125-x) for receiving a first electrical cable or a second cable receptacle (127-1, 127-2, 127-3, 127-x) for receiving a second electrical cable is formed.
Plant for packing PET bottles in packs comprising a plurality of bottles or other similar containers, by means of straps characterized in that it consists of: - a conveyor feeding the bottles, moved by a motor; - devices (D1, D2) for assembling and prearranging a flow of bottles along said conveyor such to form groups of bottles with a number of bottles and with a relative position of the bottles of the group identical to that of the final pack; a station laying down the bottles of the bottle groups that turns over the bottles of each group from a position where the bottles are upright to a position where the bottles are laid down, that is with their axes parallel to the feed direction, while maintaining together without changing the relative position of the bottles of each group with respect to each other when laying down them; a strapping station where to the groups of a sequence of bottle groups in the laid down position at least one preferably two straps are applied extending on planes perpendicular to the axes of the bottles and substantially vertical and/or transverse to the feed direction of the bottle groups; a station turning over the bottle groups to which said at least one strap has been applied from the laid down position to the upright position. - a conveyor feeding the bottles, moved by a motor; - devices (D1, D2) for assembling and prearranging a flow of bottles along said conveyor such to form groups of bottles with a number of bottles and with a relative position of the bottles of the group identical to that of the final pack;
A method of fractionating a shea extract, comprising at least the following steps: a) mixing and homogenization of shea butter using a solvent system comprising at least one oxoester of formula I, in which - R 1 is selected from the group consisting of linear or branched alkyls comprising from 1 to 8 carbon atoms; - R 2, R 3 and R 4, which are identical or different are selected from the group consisting of the hydrogen atom or linear or branched alkyls comprising from 1 to 4 carbon atoms; and - and n is a natural number between 1 and 4. b) obtaining a homogeneous mixture, c) cooling of the mixture, d) filtration and removal of the solvent system in order to recover the olein and stearin fractions. a) mixing and homogenization of shea butter using a solvent system comprising at least one oxoester of formula I, in which - R 1 is selected from the group consisting of linear or branched alkyls comprising from 1 to 8 carbon atoms; - R 2, R 3 and R 4, which are identical or different are selected from the group consisting of the hydrogen atom or linear or branched alkyls comprising from 1 to 4 carbon atoms; and - and n is a natural number between 1 and 4. - R 1 is selected from the group consisting of linear or branched alkyls comprising from 1 to 8 carbon atoms; - R 2, R 3 and R 4, which are identical or different are selected from the group consisting of the hydrogen atom or linear or branched alkyls comprising from 1 to 4 carbon atoms; and - and n is a natural number between 1 and 4. b) obtaining a homogeneous mixture, c) cooling of the mixture, d) filtration and removal of the solvent system in order to recover the olein and stearin fractions.
A gas turbine engine article comprising: a substrate; and an environmental barrier coating disposed on the substrate, the environmental barrier coating including oxygen-scavenging particles (70, 170), each said oxygen-scavenging particle (70, 170) including a silicon-containing core particle encased in an oxygen barrier shell (76, 176); wherein the environmental barrier coating includes a matrix, the matrix comprises silica, and the oxygen-scavenging particles (70, 170) are dispersed through the matrix; and wherein the silicon-containing core particle is a silicide of a metal selected from the group consisting of Mo, Nb, Zr, Hf, Ti, W, Y, Yb, Cr, V, Ta, Zn, Al-Si alloys and combinations thereof, and the oxygen barrier shell (76, 176) is a compound of the metal with an element selected from the group consisting of Si, B, C, O, Al, and combinations thereof. a substrate; and an environmental barrier coating disposed on the substrate, the environmental barrier coating including oxygen-scavenging particles (70, 170), each said oxygen-scavenging particle (70, 170) including a silicon-containing core particle encased in an oxygen barrier shell (76, 176); wherein the environmental barrier coating includes a matrix, the matrix comprises silica, and the oxygen-scavenging particles (70, 170) are dispersed through the matrix; and wherein the silicon-containing core particle is a silicide of a metal selected from the group consisting of Mo, Nb, Zr, Hf, Ti, W, Y, Yb, Cr, V, Ta, Zn, Al-Si alloys and combinations thereof, and the oxygen barrier shell (76, 176) is a compound of the metal with an element selected from the group consisting of Si, B, C, O, Al, and combinations thereof.
A materials handling vehicle comprising: a frame comprising an operator's compartment; wheels (58, 74) supported on said frame; a traction motor coupled to one of said wheels to effect rotation of said one wheel; and a system associated with a steerable wheel to effect angular movement of said steerable wheel about a first axis, said system comprising a control handle capable of being moved by an operator to define a desired angular position of said steerable wheel; characterised in that the materials handling vehicle further comprises: control apparatus (200, 96) varying a drive signal to said traction motor based on a steerable wheel error; wherein said steerable wheel error is determined by comparing said current desired angular position of said steerable wheel to a current calculated actual position of said steerable wheel. a frame comprising an operator's compartment; wheels (58, 74) supported on said frame; a traction motor coupled to one of said wheels to effect rotation of said one wheel; and a system associated with a steerable wheel to effect angular movement of said steerable wheel about a first axis, said system comprising a control handle capable of being moved by an operator to define a desired angular position of said steerable wheel; characterised in that the materials handling vehicle further comprises: control apparatus (200, 96) varying a drive signal to said traction motor based on a steerable wheel error; wherein said steerable wheel error is determined by comparing said current desired angular position of said steerable wheel to a current calculated actual position of said steerable wheel. control apparatus (200, 96) varying a drive signal to said traction motor based on a steerable wheel error; wherein said steerable wheel error is determined by comparing said current desired angular position of said steerable wheel to a current calculated actual position of said steerable wheel.
Boric acid purification process by ion exchange method comprising following steps: - dissolving boric acid in demineralized water at a temperature in the range of 60 to 70 ° C, - pressure-filtering, - passing through strong cation exchange resin column, - passing through weak anion exchange resin column, - crystallizing precipitation, - separation of the settled wet crystals from the waste solution, - separation of the crystals from the aqueous solution, - drying wet crystals, - sieving the dried crystals and feeding the coarse crystal grains obtained in this step back to step A, - combining the waste solution and the filtrate and feeding the combined stream obtained in this step back to step A. - dissolving boric acid in demineralized water at a temperature in the range of 60 to 70 ° C, - pressure-filtering, - passing through strong cation exchange resin column, - passing through weak anion exchange resin column, - crystallizing precipitation, - separation of the settled wet crystals from the waste solution, - separation of the crystals from the aqueous solution, - drying wet crystals, - sieving the dried crystals and feeding the coarse crystal grains obtained in this step back to step A, - combining the waste solution and the filtrate and feeding the combined stream obtained in this step back to step A.
A positive electrode consisting of a positive electrode current collector, a first active material layer comprising a first positive electrode active material arranged on the positive electrode current collector, a buffer layer consisting of a carbon material and a binder, and a second active material layer comprising a second positive electrode active material, wherein the buffer layer is arranged between the first active material layer and the second active material layer, characterized in that the first positive electrode active material is one or more selected from a group consisting of lithium phosphate salt, lithium silicate salt, lithium spinel salt and a positive electrode material formed after the lithium phosphate salt, lithium silicate salt or lithium spinel salt being doped and/or coated; the second positive electrode active material is one or more selected from a group consisting of lithium cobalt dioxide, lithium nickelate, a ternary lithium compound containing Ni, Co and Mn, a ternary lithium compound containing Ni, Co and Al, and a positive electrode material formed after the lithium cobalt dioxide, the lithium nickelate, the ternary lithium compound containing Ni, Co and Mn, or the ternary lithium compound containing Ni, Co and Al being doped and/or coated.
A method of accepting a notification, the method comprising: receiving the notification, the notification containing a message, a counter value, a signature, and an indication of a signer, wherein the indication further comprises an indication counter value and a certificate authority identity; processing the indication to obtain a signer identity corresponding to the signer; obtaining, based on the signer identity, a previously stored current counter value associated with the signer; obtaining, based on the signer identity and the certificate authority identity, a previously stored current indication counter value associated with the signer identity and the certificate authority identity; comparing the counter value with the current counter value and the indication counter value with the current indication counter value; and accepting the received notification based upon the comparison. receiving the notification, the notification containing a message, a counter value, a signature, and an indication of a signer, wherein the indication further comprises an indication counter value and a certificate authority identity; processing the indication to obtain a signer identity corresponding to the signer; obtaining, based on the signer identity, a previously stored current counter value associated with the signer; obtaining, based on the signer identity and the certificate authority identity, a previously stored current indication counter value associated with the signer identity and the certificate authority identity; comparing the counter value with the current counter value and the indication counter value with the current indication counter value; and accepting the received notification based upon the comparison.
A method of forming a memory cell, comprising: depositing multiple layers (20, 22, 52) of different composition relative to one another over a first electrode; merging the layers to form a switching region having a combined composition from the layers throughout the switching region; and forming a second electrode over the switching region, wherein the multiple layers comprise hafnium oxide layers and silicon oxide layers and the combined composition comprises hafnium silicate throughout the switching region, or wherein the multiple layers comprise hafnium oxide layers and aluminum oxide layers and the combined composition comprises hafnium aluminum oxide throughout the switching region, or wherein the multiple layers comprise aluminum oxide layers and silicon dioxide layers and the combined composition comprises aluminum oxygen and silicon throughout the switching region. depositing multiple layers (20, 22, 52) of different composition relative to one another over a first electrode; merging the layers to form a switching region having a combined composition from the layers throughout the switching region; and forming a second electrode over the switching region, wherein the multiple layers comprise hafnium oxide layers and silicon oxide layers and the combined composition comprises hafnium silicate throughout the switching region, or wherein the multiple layers comprise hafnium oxide layers and aluminum oxide layers and the combined composition comprises hafnium aluminum oxide throughout the switching region, or wherein the multiple layers comprise aluminum oxide layers and silicon dioxide layers and the combined composition comprises aluminum oxygen and silicon throughout the switching region.
A method for the production of tertiary amine oxides with prevented and/or reduced nitrosamine formation and/or reduced nitrite formation, comprising the steps of: during or after the production of the afore-mentioned tertiary amine oxide, adding of a polyamino methylene phosphonate of formula wherein n=2-1500, M is hydrogen or a cation selected from alkali metals, alkaline earth metals and ammonium, and the R groups are the same or different from one another with at least one R group different from CH 2 PO 3 M 2 and selected from the following classes: 1) CH 2 PO 3 M 2 2) CH 2 R' R'= CH 2 OH; CHOHCH 3; CHOHCH 2 Cl or CHOHCH 2 OH; 3) m SO 3 M wherein m = 3 or 4; 4) CH 2 CH 2 R" wherein R"= CONH 2, CHO, COOR1, COOX or CN; where R1=CH 3 or C 2 H 5; wherein X is hydrogen or an alkali metal or ammonium cation. wherein n=2-1500, M is hydrogen or a cation selected from alkali metals, alkaline earth metals and ammonium, and the R groups are the same or different from one another with at least one R group different from CH 2 PO 3 M 2 and selected from the following classes: 1) CH 2 PO 3 M 2 2) CH 2 R' R'= CH 2 OH; CHOHCH 3; CHOHCH 2 Cl or CHOHCH 2 OH; 3) m SO 3 M wherein m = 3 or 4; 4) CH 2 CH 2 R" wherein R"= CONH 2, CHO, COOR1, COOX or CN; where R1=CH 3 or C 2 H 5; wherein X is hydrogen or an alkali metal or ammonium cation. 1) CH 2 PO 3 M 2 2) CH 2 R' R'= CH 2 OH; CHOHCH 3; CHOHCH 2 Cl or CHOHCH 2 OH; 3) m SO 3 M wherein m = 3 or 4; 4) CH 2 CH 2 R" wherein R"= CONH 2, CHO, COOR1, COOX or CN; where R1=CH 3 or C 2 H 5; wherein X is hydrogen or an alkali metal or ammonium cation.
Soil screening apparatus comprising a forward soil engaging element for engaging soil beneath a surface thereof, and for directing soil onto an elevating conveying means in response to the apparatus being moved in a forward direction, a first screening means configured to receive soil from the conveying means and configured to prevent material of a first predefined size and greater passing therethrough, and to pass material of size less than the first predefined size therethrough, and a second screening means configured to receive the material of size less than the first predefined size from the first screening means, the second screening means being configured to prevent material of a second predefined size and greater passing therethrough, and to pass material of size less than the second predefined size therethrough to the ground, the first predefined size of the material being greater than the second predefined size of the material, characterised in that the second screening means is further configured to discharge the material of the second predefined size and greater to the ground forward of the location at which the material of size less than the second predefined size is deposited on the ground from the second screening means, so that the material of size less than the second predefined size is deposited on top of the material of the second predefined size and greater as the apparatus is being urged forwardly.
A method for blast or impact mitigation, comprising: collectively choosing an elastic layer having an acoustic impedance and a viscoelastic dissipative layer having a critical damping frequency, wherein the elastic layer and the dissipative layer are collectively chosen to tune stress waves resulting from the blast or impact to one or more specific tuned frequencies that match the critical damping frequency of the dissipative layer, wherein the tuning is achieved in that the dissipative layer vibrates with the elastic layer as a mass-spring system; and placing the dissipative layer proximate to the elastic layer and bonding the dissipative layer to the elastic layer. collectively choosing an elastic layer having an acoustic impedance and a viscoelastic dissipative layer having a critical damping frequency, wherein the elastic layer and the dissipative layer are collectively chosen to tune stress waves resulting from the blast or impact to one or more specific tuned frequencies that match the critical damping frequency of the dissipative layer, wherein the tuning is achieved in that the dissipative layer vibrates with the elastic layer as a mass-spring system; and placing the dissipative layer proximate to the elastic layer and bonding the dissipative layer to the elastic layer.
A web comprising a continuous fibrous filter structure comprising a continuous fiber phase and an absorptive, adsorptive, or reactive active spacer particulate that can absorb, adsorb, or chemically react with, and remove, a contaminant in a fluid stream, the fiber having a diameter of about 0.001 micron to 2 microns, the structure having a thickness of about 0.0001 cm to 1 cm and a solidity of about 0.1% to 70%, wherein the fibrous structure comprises about 1 g/m 2 to 1000 g/m 2 of the active spacer particulate dispersed in a substantially uniform manner in the fiber phase, and wherein solidity of the fiber phase without the active spacer particulate is greater than the solidity of the fiber phase formed with the active spacer particulate.
A frontal-impact crash barrier for use in automobile or motorcycle racing circuits, comprising a plurality of impact-absorbing units arranged in reciprocal contact, each in turn comprising: a longitudinal body having an external lateral surface, which is hollow and which is arranged vertically; and a plurality of annular elements which are inserted along the longitudinal body so as to externally embrace the longitudinal body and which are stacked on one another so as to enclose the longitudinal body so that the external lateral surface of the longitudinal body is entirely facing the plurality of annular elements; characterised in that: each transversal section of the longitudinal body of each impact-absorbing unit has a thickness forming a polygon having five sides, or six sides or seven sides. each transversal section of the longitudinal body of each impact-absorbing unit has a thickness forming a polygon having five sides, or six sides or seven sides.
A device for an electromechanical valve actuator, characterized in that the valve actuator is provided with a spindle nut surrounding a portion of an actuator spindle and being in engagement with an external threaded portion arranged on the actuator spindle, the spindle nut being axially fixed relative to the actuator spindle; the actuator spindle is in rotation-preventing engagement with an end cap or an actuator housing; the spindle nut is connected via transmission means (4H, 4K, 4N, 5A, 5C) to a driving motor; the spindle nut is provided with an electromagnetic coupling which is in permanent engagement with the transmission means (4H, 4K, 4N) of the driving motor and in engagement with the spindle nut via electromagnetic engagement; and the spindle nut is provided with an electromagnetic brake which is mounted on an actuator attachment and is in rotation-preventing engagement with the spindle nut via electromagnetic engagement; and the actuator spindle is connected to an actuator spring which is arranged to be compressed by the axial displacement of the actuator spindle, the actuator spindle being subjected to a push force in the opposite direction to, via the brake and the coupling, release the spindle nut for rotation; and the valve actuator is provided with a coupling (1N, 2F, 2G, 2H, 2I, 2J, 2K, 2L) for disconnecting the actuator spindle from a valve spindle, which is attached to a salve slide, and a coupling (2A, 2B, 2C, 2D, 2E) for releasing the actuator housing from the valve.
A method of operating a polyolefin reactor system, the method comprising: feeding a chromium oxide catalyst through an inline reduction system to a polymerization reactor where the chromium oxide catalyst includes an inorganic oxide support having a pore volume of about 2.4 to about 3.7 cm 3 /g and a surface area of about 410 to about 620 m 2 /g; adding diethylaluminum ethoxide (DEAlE) to the chromium oxide catalyst in the inline reduction system to reduce an oxidation state of at least a portion of the chromium in the chromium oxide catalyst; and polymerizing an olefin into a polyolefin in presence of the chromium oxide catalyst in the polymerization reactor, wherein the chromium oxide catalyst is not contacted with the DEAlE prior to feeding the chromium oxide catalyst through the inline reduction system. feeding a chromium oxide catalyst through an inline reduction system to a polymerization reactor where the chromium oxide catalyst includes an inorganic oxide support having a pore volume of about 2.4 to about 3.7 cm 3 /g and a surface area of about 410 to about 620 m 2 /g; adding diethylaluminum ethoxide (DEAlE) to the chromium oxide catalyst in the inline reduction system to reduce an oxidation state of at least a portion of the chromium in the chromium oxide catalyst; and polymerizing an olefin into a polyolefin in presence of the chromium oxide catalyst in the polymerization reactor, wherein the chromium oxide catalyst is not contacted with the DEAlE prior to feeding the chromium oxide catalyst through the inline reduction system.