mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a composite laminate for providing sealing, baffling or reinforcement to a structure, the method comprising: providing a reinforcement layer having a surface tension of at least 35 dynes/cm; locating an epoxy-based expandable structural foam material onto the reinforcement layer to form the composite laminate characterized in that the surface tensions of the structural foam and reinforcement layer are within 15 dynes/cm of one another; and the reinforcement layer includes a carboxylic acid or amine chemical functional group and the structural foam material includes a component that forms a covalent bond with the carboxylic acid or amine functional group of the reinforcement layer upon exposure to temperatures greater than 150°C. providing a reinforcement layer having a surface tension of at least 35 dynes/cm; locating an epoxy-based expandable structural foam material onto the reinforcement layer to form the composite laminate characterized in that the surface tensions of the structural foam and reinforcement layer are within 15 dynes/cm of one another; and the reinforcement layer includes a carboxylic acid or amine chemical functional group and the structural foam material includes a component that forms a covalent bond with the carboxylic acid or amine functional group of the reinforcement layer upon exposure to temperatures greater than 150°C.
An oral dosage form comprising: an opioid-antagonist formulation, wherein the opioid-antagonist formulation comprises a therapeutically effective amount of an opioid antagonist; and a non-releasing membrane coated on the opioid-antagonist formulation, wherein the non-releasing membrane comprises at least one water-retardant polymer that is a non-ionic poly(ethyl acrylate-co-methyl methacrylate), wherein the at least one water-retardant polymer constitutes about 30% to about 50% by weight of the solids content of the oral dosage form. an opioid-antagonist formulation, wherein the opioid-antagonist formulation comprises a therapeutically effective amount of an opioid antagonist; and a non-releasing membrane coated on the opioid-antagonist formulation, wherein the non-releasing membrane comprises at least one water-retardant polymer that is a non-ionic poly(ethyl acrylate-co-methyl methacrylate), wherein the at least one water-retardant polymer constitutes about 30% to about 50% by weight of the solids content of the oral dosage form.
Use of a multilayered protective coating comprising a passive layer on the implant surface, an inner silane layer and an outer parylene layer, for protecting metallic surfaces of implant materials from corrosion processes and release of heavy metal ions from implant into the patient's organism.
A turbine housing assembly comprising: a turbine housing (262, 800) that defines a rotational axis for a turbine wheel; and a cartridge receivable by the turbine housing, wherein the cartridge comprises a nozzle wall component with an upper nozzle surface and a plate component with a lower nozzle surface, wherein the upper nozzle surface and the lower nozzle surface define a nozzle space, and vanes positioned in the nozzle space, wherein the vanes are pivotable between a closed vanes position of 0 percent open and a fully open vanes position of 100 percent open, and wherein, for a vanes position of at least 50 percent open and less than 75 percent open, an axial dimension of the nozzle space increases with respect to decreasing radius as measured from the rotational axis, and wherein, for a vanes position of less than 50 percent open, the axial dimension of the nozzle space is constant with respect to decreasing radius as measured from the rotational axis. a turbine housing (262, 800) that defines a rotational axis for a turbine wheel; and a cartridge receivable by the turbine housing, wherein the cartridge comprises a nozzle wall component with an upper nozzle surface and a plate component with a lower nozzle surface, wherein the upper nozzle surface and the lower nozzle surface define a nozzle space, and vanes positioned in the nozzle space, wherein the vanes are pivotable between a closed vanes position of 0 percent open and a fully open vanes position of 100 percent open, and wherein, for a vanes position of at least 50 percent open and less than 75 percent open, an axial dimension of the nozzle space increases with respect to decreasing radius as measured from the rotational axis, and
A method for making a magnetic core (20; 40; 70) with an integrated liquid cooling channel (30; 42; 75), characterized in that the method comprises the steps of: - inserting a part of a soluble material (10; 60) that has a shape that corresponds to a liquid cooling channel in a mold, the part of the soluble material having an inner channel (15; 67), - pouring a mix of magnetic powder, binder and additives in the mold, - pressing the mix of magnetic powder, binder and additives, - curing the pressed mix of magnetic powder, binder and additives, - injecting a solvent in the inner channel in order to dissolve the soluble material. - inserting a part of a soluble material (10; 60) that has a shape that corresponds to a liquid cooling channel in a mold, the part of the soluble material having an inner channel (15; 67), - pouring a mix of magnetic powder, binder and additives in the mold, - pressing the mix of magnetic powder, binder and additives, - curing the pressed mix of magnetic powder, binder and additives, - injecting a solvent in the inner channel in order to dissolve the soluble material.
A connection device comprising: a male connector comprising a body with a distal end and a proximal end, and a projection from the body having an external conical surface and an opening located at a distal end of the projection, the opening in fluid communication with a fluid passageway located within the male connector body, the projection having a length L1; and a female connector comprising a body with a distal end and a proximal end and an internal fluid passageway having an internal conical surface configured to sealingly mate with the external conical surface of the male connector and a member within the fluid passageway, characterized in that the member is a bar horizontally positioned a length L2 from the proximal end of the female connector and blocking insertion of the projection past the member, with L1 = L2, such that only a male connector with a projection having the length L1 is fully insertable into the female connector such that the male connector is sealingly mated with the female connector. a male connector comprising a body with a distal end and a proximal end, and a projection from the body having an external conical surface and an opening located at a distal end of the projection, the opening in fluid communication with a fluid passageway located within the male connector body, the projection having a length L1; and a female connector comprising a body with a distal end and a proximal end and an internal fluid passageway having an internal conical surface configured to sealingly mate with the external conical surface of the male connector and a member within the fluid passageway, characterized in that the member is a bar horizontally positioned a length L2 from the proximal end of the female connector and blocking insertion of the projection past the member, with L1 = L2, such that only a male connector with a projection having the length L1 is fully insertable into the female connector such that the male connector is sealingly mated with the female connector.
An atomization assembly comprising: a housing tube; and at least one atomization core disposed in the housing tube; characterized in that: the atomization core comprises a heating element for heating and atomizing tobacco liquid, a first liquid conducting layer wrapped around the heating element and a supporter disposed between the housing tube and the atomization core, configured for fixing the atomization core; wherein the supporter comprises an accommodation chamber for receiving the atomization core, and at least one gap formed on a side wall of the supporter; a second liquid conducting layer wrapped around outside of the supporter; the second liquid conducting layer is in communication with the first liquid conducting layer by the gap to convey the tobacco liquid to the first liquid conducting layer. a housing tube; and at least one atomization core disposed in the housing tube; characterized in that: the atomization core comprises a heating element for heating and atomizing tobacco liquid, a first liquid conducting layer wrapped around the heating element and a supporter disposed between the housing tube and the atomization core, configured for fixing the atomization core; wherein the supporter comprises an accommodation chamber for receiving the atomization core, and at least one gap formed on a side wall of the supporter; a second liquid conducting layer wrapped around outside of the supporter; the second liquid conducting layer is in communication with the first liquid conducting layer by the gap to convey the tobacco liquid to the first liquid conducting layer. the atomization core comprises a heating element for heating and atomizing tobacco liquid, a first liquid conducting layer wrapped around the heating element and a supporter disposed between the housing tube and the atomization core, configured for fixing the atomization core; wherein the supporter comprises an accommodation chamber for receiving the atomization core, and at least one gap formed on a side wall of the supporter; a second liquid conducting layer wrapped around outside of the supporter; the second liquid conducting layer is in communication with the first liquid conducting layer by the gap to convey the tobacco liquid to the first liquid conducting layer.
A tuck-in head for an air-injection type tuck-in device, wherein the tuck-in head has a slit and the air-injection type tuck-in device is configured to tuck-in an end portion of a weft introduced between opposing upper and lower slit surfaces (4a, 4b) of the slit, by air injected from a tuck-in nozzle, the tuck-in head comprising: a first member constituting a part including the upper slit surface; and a second member formed separately from the first member and constituting a part including the lower slit surface, wherein the tuck-in head is constructed by combining at least the first member and the second member with each other, wherein at least one of the first member and the second member has a part forming a bottom surface of the slit, characterized in that a convex portion is formed on at least one of the first member and the second member and a concave portion is formed on the other, wherein the convex portion is fitted in the concave portion, wherein the first member and the second member are combined with each other in a state where the convex portion is fitted in the concave portion. a first member constituting a part including the upper slit surface; and a second member formed separately from the first member and constituting a part including the lower slit surface, wherein the tuck-in head is constructed by combining at least the first member and the second member with each other,
A tissue supporting device comprising: an anchor element having a plate-like element and first and second side walls extending away therefrom, wherein the plate-like element is defined by front and rear edges, and first and second side edges, and a length of the rear edge is longer than a length of the front edge, and wherein the first and second side walls are aligned substantially along at least a portion of the first and second side edges of the plate-like element such that a distance between the first and second side walls at a front side of the plate-like element is less than a distance between the first and second side walls at a rear side of the plate-like element; and a soft tissue supporting element adapted for engaging and supporting soft tissue, the soft tissue supporting element being coupled to the flat plate, and extending outwardly from the anchor element; characterized in that the soft tissue supporting element is a looped filamentary element. an anchor element having a plate-like element and first and second side walls extending away therefrom, wherein the plate-like element is defined by front and rear edges, and first and second side edges, and a length of the rear edge is longer than a length of the front edge, and wherein the first and second side walls are aligned substantially along at least a portion of the first and second side edges of the plate-like element such that a distance between the first and second side walls at a front side of the plate-like element is less than a distance between the first and second side walls at a rear side of the plate-like element; and a soft tissue supporting element adapted for engaging and supporting soft tissue, the soft tissue supporting element being coupled to the flat plate, and extending outwardly from the anchor element;
A catheter assembly comprising: a lock and release connector for a trans-catheter implantable device, the lock and release connector comprising a body and at least one door engaged with the body, wherein the door is moveable from a first position to a second position; an outer tube having a distal opening; and an inner tube disposed in the outer tube; wherein the lock and release connector is fixedly connected to the inner tube. a lock and release connector for a trans-catheter implantable device, the lock and release connector comprising a body and at least one door engaged with the body, wherein the door is moveable from a first position to a second position; an outer tube having a distal opening; and an inner tube disposed in the outer tube; wherein the lock and release connector is fixedly connected to the inner tube.
A method for accessing single port memory devices as pseudo two port memory devices, comprising: generating an access table (300, 400) for mapping a single port memory device to a pseudo two port memory device including a single port even bank and a single port odd bank; sequentially retrieving entries from the access table (300, 400); reading from addresses in the single port memory device corresponding to n entries of the retrieved entries, where n corresponds to pipeline delay measured in CPU clock cycles; conducting simultaneous operations for reading from addresses in the single port memory device corresponding to remaining entries from the access table (300, 400) and for writing to addresses in the single port memory device corresponding to the remaining entries from the access table (300, 400) delayed by n clock cycles, until all addresses in the single port memory device corresponding to the retrieved entries have been read; and writing to addresses in the single port memory device corresponding to any remaining entries from the access table (300, 400); wherein each entry of the access table (300, 400) specifies, in part, alternating k ∗ odd/k ∗ even row addresses to be accessed in the single port memory device, where: 1 ≤ k ≤ M/2 k is an integer, and M is the total number of entries in the access table (300, 400). generating an access table (300, 400) for mapping a single port memory device to a pseudo two port memory device including a single port even bank and a single port odd bank; sequentially retrieving entries from the access table (300, 400); reading from addresses in the single port memory device corresponding to n entries of the retrieved entries, where n corresponds to pipeline delay measured in CPU clock cycles; conducting simultaneous operations for reading from addresses in the single port memory device corresponding to remaining entries from the access table (300, 400) and for writing to addresses in the single port memory device corresponding to the remaining entries from the access table (300, 400) delayed by n clock cycles, until all addresses in the single port memory device corresponding to the retrieved entries have been read; and writing to addresses in the single port memory device corresponding to any remaining entries from the access table (300, 400); wherein each entry of the access table (300, 400) specifies, in part, alternating k ∗ odd/k ∗ even row addresses to be accessed in the single port memory device, where: 1 ≤ k ≤ M/2 k is an integer, and M is the total number of entries in the access table (300, 400).
A method for feeding back channel state information through a codeword, comprising: determining, by a terminal, a precoding type used for downlink signal transmission, wherein the precoding type is linear precoding or non-linear precoding, or receiving, by the terminal, codebook indication signaling which is transmitted by a base station and indicates whether a linear precoding codebook or a non-linear precoding codebook should be selected by the terminal; selecting, by the terminal, a codebook from a linear precoding codebook and a non-linear precoding codebook according to the precoding type, or selecting a codebook from a linear precoding codebook and a non-linear precoding codebook according to the codebook indication signaling; and selecting (203, 303), by the terminal, a codeword that best matches channel state information from the codebook, and feeding back (204, 304) the codeword to the base station to enable the base station to acquire the codeword from the linear precoding codebook and the non-linear precoding codebook. determining, by a terminal, a precoding type used for downlink signal transmission, wherein the precoding type is linear precoding or non-linear precoding, or receiving, by the terminal, codebook indication signaling which is transmitted by a base station and indicates whether a linear precoding codebook or a non-linear precoding codebook should be selected by the terminal; selecting, by the terminal, a codebook from a linear precoding codebook and a non-linear precoding codebook according to the precoding type, or selecting a codebook from a linear precoding codebook and a non-linear precoding codebook according to the codebook indication signaling; and selecting (203, 303), by the terminal, a codeword that best matches channel state information from the codebook, and feeding back (204, 304) the codeword to the base station to enable the base station to acquire the codeword from the linear precoding codebook and the non-linear precoding codebook.
A method of manufacturing a semiconductor light emitting device including a light extraction layer having a light extraction surface, comprising: forming a mask having an array pattern on the light extraction layer; and etching the mask and the light extraction layer from above the mask, wherein the mask includes a plurality of columns arranged in an array, each of the plurality of columns having a prism or cylinder shape, the etching includes first dry-etching performed until an entirety of the mask is removed such that, a plurality of cone-shaped projections arranged in an array to correspond to the pattern of the mask are formed on the light extraction surface and second dry-etching performed in the absence of the mask and is maskless to further dry-etch the light extraction layer after the mask is removed, such that a plurality of granular parts are formed both on a side part of the plurality of cone-shaped parts and on a flat part located in a space between adjacent cone-shaped parts, further wherein a second etching volume in a direction of depth by which the light extraction layer is etched in the second dry-etching is not less than 10% and not more than 20% of a first etching volume in the direction of depth by which the light extraction layer is etched in the first dry-etching, further wherein the second dry-etching step is performed in continuation of the first dry-etching step while the light emitting device remains housed in the etching process chamber. forming a mask having an array pattern on the light extraction layer; and etching the mask and the light extraction layer from above the mask, wherein the mask includes a plurality of columns arranged in an array, each of the plurality of columns having a prism or cylinder shape, the etching includes first dry-etching performed until an entirety of the mask is removed such that, a plurality of cone-shaped projections arranged in an array to correspond to the pattern of the mask are formed on the light extraction surface and second dry-etching performed in the absence of the mask and is maskless to further dry-etch the light extraction layer after the mask is removed, such that a plurality of granular parts are formed both on a side part of the plurality of cone-shaped parts and on a flat part located in a space between adjacent cone-shaped parts, further wherein a second etching volume in a direction of depth by which the light extraction layer is etched in the second dry-etching is not less than 10% and not more than 20% of a first etching volume in the direction of depth by which the light extraction layer is etched in the first dry-etching, further wherein the second dry-etching step is performed in continuation of the first dry-etching step while the light emitting device remains housed in the etching process chamber.
A composition for styling hair comprising: (a) a first phase comprising: i. at least one alkoxysilane having at least one solubilizing functional group and at least one amino substituent; ii. at least one water-soluble metal salt chosen among inorganic metal salts having a solubility of more than 0.2 grams at 25 degrees Celcius per liter of water; iii. at least one acidifying agent; and iv. at least one cosmetically acceptable carrier comprising water. (b) a second phase comprising: i. at least one silsesquioxane resin; and ii. at least one volatile hydrocarbon oil having from 8 to 16 carbon atoms, the proportion by weight ratio of the first phase to the second phase ranging from 10:90 to 90:10. (a) a first phase comprising: i. at least one alkoxysilane having at least one solubilizing functional group and at least one amino substituent; ii. at least one water-soluble metal salt chosen among inorganic metal salts having a solubility of more than 0.2 grams at 25 degrees Celcius per liter of water; iii. at least one acidifying agent; and iv. at least one cosmetically acceptable carrier comprising water. i. at least one alkoxysilane having at least one solubilizing functional group and at least one amino substituent; ii. at least one water-soluble metal salt chosen among inorganic metal salts having a solubility of more than 0.2 grams at 25 degrees Celcius per liter of water; iii. at least one acidifying agent; and iv. at least one cosmetically acceptable carrier comprising water. (b) a second phase comprising: i. at least one silsesquioxane resin; and ii. at least one volatile hydrocarbon oil having from 8 to 16 carbon atoms, i. at least one silsesquioxane resin; and ii. at least one volatile hydrocarbon oil having from 8 to 16 carbon atoms,