mhurhangee/ep-ind-claims huggingface dataset:
Inflatable element for use internally in a holder, the holder being suitable for storing or transporting a liquid load, the inflatable element is provided with stretchable or elastically foldable wall or walls (7, 11, 20), which fold in or out by supplying or discharging inflating gas into or from the inflatable element, in that in the inflated use position the inflatable element is provided with such a size that the volume of the liquid load plus the volume of the inflatable element essentially is equal to the internal volume of the holder, characterized in that the inflatable element comprises at least two compartments (5, 6), wherein a first compartment is positioned upon the upper side of a second compartment such that in use in the holder the first compartment essentially is contacting the interior wall of the holder and the second compartment essentially is contacting the upper surface of the liquid load, and in that the absolute pressure in the inflatable element is essentially not higher than ambient pressure plus the static pressure exerted by the static liquid height in a completely filled holder, so that as a result said pressure remains below the design pressure of the holder and/or below the set pressure of the safety valve of the holder.
A method of making an article, the method comprising: obtaining a first composition comprising water; a base; and surface-modified zirconia nanoparticles dispersed in the water, the surface-modified zirconia nanoparticles functionalized with an alpha-hydroxy acid or salt thereof, wherein the alpha-hydroxy acid or salt is of Formula I: wherein Ri is selected from a polyether or a polyalcohol; and R 2 is selected from a linear or branched alkyl or aryl group; a hydroxyl group; or H; or wherein R 1 is selected from a linear or branched alkylene or arylene group; or a covalent bond; and R 2 is selected from a carboxylic acid group, a sulfuric acid group, a sulfinic acid group, a sulfonic acid group, a hydroxamic acid, or a salt thereof; obtaining a second composition comprising a polycationic polymer or a dispersion of inorganic oxide nanoparticles; and disposing onto a substrate a plurality of layers by layer-by-layer self-assembly of the first composition and the second composition. obtaining a first composition comprising water; a base; and surface-modified zirconia nanoparticles dispersed in the water, the surface-modified zirconia nanoparticles functionalized with an alpha-hydroxy acid or salt thereof, wherein the alpha-hydroxy acid or salt is of Formula I: wherein Ri is selected from a polyether or a polyalcohol; and R 2 is selected from a linear or branched alkyl or aryl group; a hydroxyl group; or H; or wherein R 1 is selected from a linear or branched alkylene or arylene group; or a covalent bond; and R 2 is selected from a carboxylic acid group, a sulfuric acid group, a sulfinic acid group, a sulfonic acid group, a hydroxamic acid, or a salt thereof; obtaining a second composition comprising a polycationic polymer or a dispersion of inorganic oxide nanoparticles; and disposing onto a substrate a plurality of layers by layer-by-layer self-assembly of the first composition and the second composition.
A combustion chamber louver assembly, comprising: an aft louver having a forward panel that extends axially aft from a louver leading edge to a corner; and a forward louver joined to the forward panel of the aft louver and having a lip defined by a portion of the forward louver that extends axially aft past the corner of the forward panel of the aft louver to a forward louver trailing edge, the lip having a length and including circumferentially distributed trailing edge slots; characterised in that: the slots are keyhole slots which extend forwardly from the forward louver trailing edge a nominal distance equal (L 95) to about 88% to 95% of the length of the lip. an aft louver having a forward panel that extends axially aft from a louver leading edge to a corner; and a forward louver joined to the forward panel of the aft louver and having a lip defined by a portion of the forward louver that extends axially aft past the corner of the forward panel of the aft louver to a forward louver trailing edge, the lip having a length and including circumferentially distributed trailing edge slots; the slots are keyhole slots which extend forwardly from the forward louver trailing edge a nominal distance equal (L 95) to about 88% to 95% of the length of the lip.
Apparatus for providing bi-directional fluid flow, the apparatus comprising: a culture apparatus for culturing cells and/or a tissue or portion thereof and comprising a holder body, the holder body comprising a plurality of chambers for containing a tissue culture media and at least one fluid communication pathway extending between at least two respective chambers of the plurality of chambers, a holder body support; and at least one drive element arranged to rock a holder body supported via the support to thereby repeatedly raise and lower spaced apart ends of the holder body, wherein the apparatus is configured to repeatedly rock the holder body; characterised in that each fluid communication pathway permits bi-directional fluid flow between said at least two chambers, and wherein the apparatus further comprises a platform element supported by the holder body support, said platform element being configured to retain the holder body in a fixed location during rocking and further wherein the drive element is configured to rock the holder body at a speed of approximately 1 to 20 minutes per complete rocking motion. a culture apparatus for culturing cells and/or a tissue or portion thereof and comprising a holder body, the holder body comprising a plurality of chambers for containing a tissue culture media and at least one fluid communication pathway extending between at least two respective chambers of the plurality of chambers, a holder body support; and at least one drive element arranged to rock a holder body supported via the support to thereby repeatedly raise and lower spaced apart ends of the holder body, wherein the apparatus is configured to repeatedly rock the holder body; characterised in that each fluid communication pathway permits bi-directional fluid flow between said at least two chambers, and wherein the apparatus further comprises a platform element supported by the holder body support, said platform element being configured to retain the holder body in a fixed location during rocking and further wherein the drive element is configured to rock the holder body at a speed of approximately 1 to 20 minutes per complete rocking motion.
A method of operating an access point (100, 210), the method comprising: receiving from an airlink, a first packet communicated from an access terminal (116, 122, 250), the first packet including information to be communicated and a short airlink address indicating the device to which said information is directed, said airlink address including an address type indicator field including an address type indicator value which indicates one of a plurality of supported address types to which said address corresponds, wherein the plurality of supported address types includes at least a pilot code based address type and a reserved access type, wherein pilot code based addresses indicate pilot codes used by at least some access points, and wherein reserved addresses indicate the device dependent on the access terminal sending the packet; and determining, as a function of the type of address indicated by the address type indicator value included in the received airlink address, an IP address corresponding to the device to which said information is to be communicated. receiving from an airlink, a first packet communicated from an access terminal (116, 122, 250), the first packet including information to be communicated and a short airlink address indicating the device to which said information is directed, said airlink address including an address type indicator field including an address type indicator value which indicates one of a plurality of supported address types to which said address corresponds, wherein the plurality of supported address types includes at least a pilot code based address type and a reserved access type, wherein pilot code based addresses indicate pilot codes used by at least some access points, and wherein reserved addresses indicate the device dependent on the access terminal sending the packet; and determining, as a function of the type of address indicated by the address type indicator value included in the received airlink address, an IP address corresponding to the device to which said information is to be communicated.
A method for growing silicon single crystals, the method comprising: while setting a hydrogen concentration in a hydrogen-containing inert gas atmosphere within a range of 3% to 20% relative to a pressure in a furnace of 4.0 to 9.33 kPa, pulling a silicon single crystal by the CZ method in the hydrogen-containing inert gas atmosphere so as to expand the range of the pull rate for the PI region at which a single crystal containing no COPs or dislocation clusters throughout the crystal in the radial direction thereof and having an interstitial rich region can be pulled, wherein the pulling of the silicon single crystal is conducted at a pull rate within this expanded range of the pull rate for the PI region so as to grow a grown-in defect-free silicon single crystal having a body portion that is an interstitial rich region, and wherein when the hydrogen concentration VH (vol %), air concentration VAir (vol %) and argon concentration VAr (vol %) in the composition of the hydrogen-containing inert gas atmosphere are plotted as a point (VH, VAr, VAir) in a triangular composition diagram of VH, VAr, and VAir, the composition of the hydrogen-containing inert gas atmosphere is set so that the plotted point lies within a non-combustion range bounded by a line from point A (100, 0, 0) to point B (0, 100, 0), a line from the point B to point C (0, 0, 100), a line from the point C to point D (4, 0, 96), a line from the point D to point E (4, 84, 12), a line from the point E to point F (75, 0, 25), and a line from the point F to point A. while setting a hydrogen concentration in a hydrogen-containing inert gas atmosphere within a range of 3% to 20% relative to a pressure in a furnace of 4.0 to 9.33 kPa, pulling a silicon single crystal by the CZ method in the hydrogen-containing inert gas atmosphere so as to expand the range of the pull rate for the PI region at which a single crystal containing no COPs or dislocation clusters throughout the crystal in the radial direction thereof and having an interstitial rich region can be pulled, wherein the pulling of the silicon single crystal is conducted at a pull rate within this expanded range of the pull rate for the PI region so as to grow a grown-in defect-free silicon single crystal having a body portion that is an interstitial rich region, and wherein when the hydrogen concentration VH (vol %), air concentration VAir (vol %) and argon concentration VAr (vol %) in the composition of the hydrogen-containing inert gas atmosphere are plotted as a point (VH, VAr, VAir) in a triangular composition diagram of VH, VAr, and VAir, the composition of the hydrogen-containing inert gas atmosphere is set so that the plotted point lies within a non-combustion range bounded by a line from point A (100, 0, 0) to point B (0, 100, 0), a line from the point B to point C (0, 0, 100), a line from the point C to point D (4, 0, 96), a line from the point D to point E (4, 84, 12), a line from the point E to point F (75, 0, 25), and a line from the point F to point A.
A method comprising: receiving, by a cluster node manager, a first request from a client device; generating, by the cluster node manager, a plurality of uniform resource locators, URLs, each of the plurality of URLs comprising an encoded representation of a network address associated with a respective node from a plurality of nodes in a computer cluster; sending, by the cluster node manager, a first response to the client device, the first response comprising the plurality of URLs; receiving, by a cluster load balancer, a second request from the client device, the second request comprising a first URL from the plurality of URLs; determining, by the cluster load balancer, the second request should be routed to a first network address based on decoding the first URL, the first network address associated with a first node from the plurality of nodes; and forwarding, by the cluster load balancer, the second request to the first node in response to the determining. receiving, by a cluster node manager, a first request from a client device; generating, by the cluster node manager, a plurality of uniform resource locators, URLs, each of the plurality of URLs comprising an encoded representation of a network address associated with a respective node from a plurality of nodes in a computer cluster; sending, by the cluster node manager, a first response to the client device, the first response comprising the plurality of URLs; receiving, by a cluster load balancer, a second request from the client device, the second request comprising a first URL from the plurality of URLs; determining, by the cluster load balancer, the second request should be routed to a first network address based on decoding the first URL, the first network address associated with a first node from the plurality of nodes; and forwarding, by the cluster load balancer, the second request to the first node in response to the determining. determining, by the cluster load balancer, the second request should be routed to a first network address based on decoding the first URL, the first network address associated with a first node from the plurality of nodes; and forwarding, by the cluster load balancer, the second request to the first node in response to the determining.
Electrical machine system having an even number of mechanically and electromagnetically coupled sub-machines generating rotating fields, which sub-machines comprise common magnetic portions and common coils, the machine system comprising at least four sub-machines, each sub-machine being electromagnetically coupled to two adjacent sub-machines via magnetically conductive legs, the sub-machines being mechanically coupled via a transmission, characterised in that at least two adjacent sub-machines (2, 3) have the same direction of rotation. the machine system comprising at least four sub-machines, each sub-machine being electromagnetically coupled to two adjacent sub-machines via magnetically conductive legs, the sub-machines being mechanically coupled via a transmission, characterised in that at least two adjacent sub-machines (2, 3) have the same direction of rotation.
A multi-specific binding protein comprising: (a) a first antigen-binding site, comprising a heavy chain variable domain and a light chain variable domain that binds NKG2D; (b) a second antigen-binding site, comprising a heavy chain variable domain and a light chain variable domain that binds HER2; and (c) an antibody Fc domain or a portion thereof sufficient to bind CD16, wherein the first antigen-binding site, the second antigen-binding site, or each of the first and the second antigen-binding sites comprises a heavy chain variable domain and a light chain variable domain present on the same polypeptide, and wherein the multi-specific binding protein is configured to bind HER2 on a cancer cell and bind NKG2D on a natural killer cell to activate the NK cell and bind CD16 on the NK cell to activate the NK cell. (a) a first antigen-binding site, comprising a heavy chain variable domain and a light chain variable domain that binds NKG2D; (b) a second antigen-binding site, comprising a heavy chain variable domain and a light chain variable domain that binds HER2; and (c) an antibody Fc domain or a portion thereof sufficient to bind CD16, wherein the first antigen-binding site, the second antigen-binding site, or each of the first and the second antigen-binding sites comprises a heavy chain variable domain and a light chain variable domain present on the same polypeptide, and wherein the multi-specific binding protein is configured to bind HER2 on a cancer cell and bind NKG2D on a natural killer cell to activate the NK cell and bind CD16 on the NK cell to activate the NK cell.
A method for resetting a valve lift for an integrated engine brake, comprising a process of utilizing a motion of a cam to open an engine exhaust valve through a rocker arm and a valve bridge of an engine, wherein the rocker arm or the valve bridge is provided with a braking piston and a hydraulic flow passage, and the braking piston is connected to the hydraulic flow passage, wherein the process comprises the following steps: placing the braking piston at an extended position by supplying pressure to the hydraulic flow passage, providing a reset valve between the rocker arm and the valve bridge, connecting the reset valve to a reset flow passage located in the rocker arm or the valve bridge, connecting the reset flow passage to the hydraulic flow passage, utilizing a change of a distance between the rocker arm and the valve bridge to open and close the reset valve, opening the reset valve when a valve lift of the engine exhaust valve enters into its top portion, releasing hydraulic pressure in the hydraulic flow passage through the reset flow passage, retracting the braking piston by a gap, eliminating a part of a motion transmission between the cam and the engine exhaust valve, reducing the valve lift of the engine exhaust valve, and during a returning process of the valve lift of the engine exhaust valve after passing its maximum position, closing the reset valve to resume pressure supply in the hydraulic flow passage, placing the braking piston at the extended position, and re-establishing the motion transmission between the cam and the engine exhaust valve.
A method of communication at a non-prioritized wireless device, comprising: performing a clear channel assessment, CCA, for a shared or unlicensed spectrum, wherein a length of the CCA is based at least in part on a priority status of the non-prioritized device from an ordered set of priority statuses of non-prioritized wireless devices; determining whether the shared or unlicensed spectrum is available for transmitting a signal during a first transmission time period based at least in part on the CCA; transmitting the signal on a carrier in the shared or unlicensed spectrum during the first transmission time period; identifying a medium preemption opportunity for the carrier during a dedicated time interval; receiving an indication of medium preemption during the medium preemption opportunity from a prioritized wireless device; and refraining from transmitting on the carrier during a subsequent transmission time period based at least in part on the indication of medium preemption and the priority status. performing a clear channel assessment, CCA, for a shared or unlicensed spectrum, wherein a length of the CCA is based at least in part on a priority status of the non-prioritized device from an ordered set of priority statuses of non-prioritized wireless devices; determining whether the shared or unlicensed spectrum is available for transmitting a signal during a first transmission time period based at least in part on the CCA; transmitting the signal on a carrier in the shared or unlicensed spectrum during the first transmission time period; identifying a medium preemption opportunity for the carrier during a dedicated time interval; receiving an indication of medium preemption during the medium preemption opportunity from a prioritized wireless device; and refraining from transmitting on the carrier during a subsequent transmission time period based at least in part on the indication of medium preemption and the priority status.
A pharmaceutical composition comprising a digestive enzyme powder blend comprising a digestive enzyme, and a carrier wherein: a) the total amount of digestive enzyme in the composition is from about 4 to about 19% by weightand the carrier comprises particles with a size greater than 100 μm. a) the total amount of digestive enzyme in the composition is from about 4 to about 19% by weightand the carrier comprises particles with a size greater than 100 μm.
System for determining at least one pitch angle of a trailer relative to a towing vehicle to which the trailer is attached, the system comprising a camera mounted on the towing vehicle and capable of acquiring images of the trailer in which lines of the trailer parallel to the axis of the trailer are visible, and a computer, in which the computer is configured to implement the following steps: - implementing a line-detection algorithm on at least one image of the trailer acquired by the camera, - detecting in the image the lines of the trailer parallel to the trailer axis, corresponding to vanishing lines, and deducing from the vanishing lines a position of the vanishing point at the convergence of the vanishing lines, and - from the position of the vanishing point, determining at least one pitch angle of the trailer relative to the towing vehicle. - implementing a line-detection algorithm on at least one image of the trailer acquired by the camera, - detecting in the image the lines of the trailer parallel to the trailer axis, corresponding to vanishing lines, and deducing from the vanishing lines a position of the vanishing point at the convergence of the vanishing lines, and - from the position of the vanishing point, determining at least one pitch angle of the trailer relative to the towing vehicle.
A directional control valve, comprising: a valve body having a bore; a spool movably mounted in said bore; and at least one stopper (9a, 9b) being fixably attachable to said valve body at a plurality of possible axial positions; characterized in that the stopper (9a, 9b) comprises a bore and wherein the stopper (9a, 9b) comprises an expansion pin arranged within the bore such that it can cause radial expansion of the stopper (9a, 9b) to fix its axial position. a valve body having a bore; a spool movably mounted in said bore; and at least one stopper (9a, 9b) being fixably attachable to said valve body at a plurality of possible axial positions; characterized in that the stopper (9a, 9b) comprises a bore and
A method for making the compound of Formula I: which comprises: (a) brominating the compound to yield the compound and (b) nitrating compound 2 to yield the compound and (c) converting the amine group on compound 3 to a methoxy group to yield compound and (d) then converting compound 4 to the compound and (e) converting compound 5 to the compound and (f) forming a bicyclic structure from compound 6 to yield and (g) then chlorinating compound 7 to produce and (h) thereafter adding a triazolyl moiety to the compound 8 to yield and (i) converting compound 9 to the structure and (j) modifying compound 10 to yield the compound and (k) reacting compound 11 to produce the compound and (l) then converting the compound 12 to the compound (m) then converting compound 13 to the compound and (n) then reacting the compound 14 to produce the compound and (o) then converting the compound 15 to the compound of Formula I. (a) brominating the compound to yield the compound and (b) nitrating compound 2 to yield the compound and (c) converting the amine group on compound 3 to a methoxy group to yield compound and (d) then converting compound 4 to the compound and (e) converting compound 5 to the compound and (f) forming a bicyclic structure from compound 6 to yield and (g) then chlorinating compound 7 to produce and (h) thereafter adding a triazolyl moiety to the compound 8 to yield and (i) converting compound 9 to the structure and (j) modifying compound 10 to yield the compound and (k) reacting compound 11 to produce the compound and (l) then converting the compound 12 to the compound (m) then converting compound 13 to the compound and (n) then reacting the compound 14 to produce the compound and (o) then converting the compound 15 to the compound of Formula I.