mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method to estimate severity of downhole vibration for a wellbore drill tool assembly, comprising the steps: a. Identifying a dataset comprising selected drill tool assembly parameters; b. Selecting a reference level of downhole vibration index for the drill tool assembly; c. Identifying a surface drilling parameter; d. Determining a surface parameter vibration attribute derived from at least one surface measurement or observation obtained in a drilling operation, the determined surface parameter vibration attribute corresponding to the identified surface drilling parameter (step c); and e. Estimating a downhole vibration index severity indicator; CHARACTERISED BY: calculating a reference surface vibration attribute for the selected reference level of downhole vibration index; AND IN THAT: the downhole vibration index severity indicator is estimated by evaluating the determined surface parameter vibration attribute with respect to the identified reference surface vibration attribute. a. Identifying a dataset comprising selected drill tool assembly parameters; b. Selecting a reference level of downhole vibration index for the drill tool assembly; c. Identifying a surface drilling parameter; d. Determining a surface parameter vibration attribute derived from at least one surface measurement or observation obtained in a drilling operation, the determined surface parameter vibration attribute corresponding to the identified surface drilling parameter (step c); and e. Estimating a downhole vibration index severity indicator; calculating a reference surface vibration attribute for the selected reference level of downhole vibration index; AND IN THAT: the downhole vibration index severity indicator is estimated by evaluating the determined surface parameter vibration attribute with respect to the identified reference surface vibration attribute.
A method (400, 500) comprising: collecting a loose feed scrap (402, 502) in the form of bonded and cured batt insulation of virtually any size or in the form of unbonded loose fill wool; twisting the feed scrap (404, 508); compressing the feed scrap (406, 506); forming the compressed feed scrap and the twisted feed scrap into a rope; and feeding the rope into a submerged combustion melter system (414, 520). collecting a loose feed scrap (402, 502) in the form of bonded and cured batt insulation of virtually any size or in the form of unbonded loose fill wool; twisting the feed scrap (404, 508); compressing the feed scrap (406, 506); forming the compressed feed scrap and the twisted feed scrap into a rope; and feeding the rope into a submerged combustion melter system (414, 520).
A polymer of Formula II or Formula I: wherein X is O, S, or NR a wherein R a is H, alkyl, or aryl; preferably X is O; R 1 is H, alkyl, aryl, methylene (=CH 2), or substituted methylene (=CR 2 where each R is independently H, alkyl, aryl, substituted alkyl, or substituted aryl); R 2 is H, alkyl, or aryl; R 3 is H, alkyl, or aryl; n of Formula I is about 5 to about 1,000, preferably about 50 to about 300; n of Formula II is about 50 to about 300; Nu is HO-, RO-, RS-, R 2 N-, or a diol, polyol, or sugar moiety, where each R is independently alkyl, aryl, substituted alkyl, or substituted aryl; and when the polymer is a polymer of Formula I, at least one of R 1, R 2, and R 3 is not H. X is O, S, or NR a wherein R a is H, alkyl, or aryl; preferably X is O; R 1 is H, alkyl, aryl, methylene (=CH 2), or substituted methylene (=CR 2 where each R is independently H, alkyl, aryl, substituted alkyl, or substituted aryl); R 2 is H, alkyl, or aryl; R 3 is H, alkyl, or aryl; n of Formula I is about 5 to about 1,000, preferably about 50 to about 300; n of Formula II is about 50 to about 300; Nu is HO-, RO-, RS-, R 2 N-, or a diol, polyol, or sugar moiety, where each R is independently alkyl, aryl, substituted alkyl, or substituted aryl; and
A monitor for maintaining a mold cycle count, the monitor comprising: a housing; a processor positioned with respect to the housing; an actuator positioned with respect to the housing, the actuator sending a count signal to the processor following a mold operation; an electronic display positioned with respect to the housing, the electronic display configured to display a plurality of data categories containing different information about a mold; a timer electronically connected with the processor; a function button positioned with respect to the housing and electronically connected with the display and the processor to generate on the display a total count and an average cycle time as one of the data categories, characterized in the timer configured to activate an active mode during an active time of the mold and to activate a sleep mode during an idle time of the mold, and the processor configured to calculate an activity percentage of the mold as the active time divided by a sum of the active time plus the idle time, and configured to display the activity percentage on the electronic display as one of the data categories.
Straightening device (15; 15a) for aligning a line, in particular an electrical or optical along a delivery route, comprising a straightening stand (20; 20a-20d), with a first row of rollers and with a second row of rollers which are movable relative to each other and between which the delivery route of the line passes, wherein at least one of the two rows of rollers (21, 31) has multiple rotatable rollers (25, 35), characterized in that a braking apparatus is provided for braking at least one of the rotatable rollers (25, 35) from at least one of the two rows of rollers (21, 31) in the straightening stand (20; 20a-20d), in particular for braking multiple rotatable rollers (25, 35) from at least one of the two rows of rollers (21, 31) in the straightening stand (20; 20a-20d), and a control device is provided for controlling the braking apparatus for at least partially moving the braking apparatus from a first position, in which the braking apparatus is in an inactive state, at least into a second position, in which the braking apparatus is in an activated state.
A chemical-mechanical polishing composition for polishing a substrate comprising: (a) a liquid carrier, (b) an abrasive suspended in the liquid carrier, wherein the abrasive comprises colloidal silica particles, wherein the colloidal silica particles have a surface which has been treated with an aminosilane compound, wherein the aminosilane compound is present in an amount of 50 ppm to 500 ppm and the colloidal silica particles having a surface which has been treated with the aminosilane compound have a zeta potential of 5 mV or greater, (c) at least one acidic component having a pKa of 1 to 4 wherein the at least one acidic component is present in an amount of 500 ppm to 3000 ppm, and (d) a cationic polymer, wherein optionally the cationic polymer is a homopolymer of methacryloyloxyethyltrimethylammonium or diallyldimethylammonium, wherein the cationic polymer is present in an amount of 10 ppm to 100 ppm; wherein the polishing composition has a pH of 1 to 3.5 and the polishing composition has 5 ppm or more polymer free in solution. (a) a liquid carrier, (b) an abrasive suspended in the liquid carrier, wherein the abrasive comprises colloidal silica particles, wherein the colloidal silica particles have a surface which has been treated with an aminosilane compound, wherein the aminosilane compound is present in an amount of 50 ppm to 500 ppm and the colloidal silica particles having a surface which has been treated with the aminosilane compound have a zeta potential of 5 mV or greater, (c) at least one acidic component having a pKa of 1 to 4 wherein the at least one acidic component is present in an amount of 500 ppm to 3000 ppm, and (d) a cationic polymer, wherein optionally the cationic polymer is a homopolymer of methacryloyloxyethyltrimethylammonium or diallyldimethylammonium, wherein the cationic polymer is present in an amount of 10 ppm to 100 ppm;
A method of forming an integrated circuit package comprising an insulating structure and at least one electrical or electronic signal conveying component, the method comprising: forming an insulating region comprising the at least one electrical or electronic signal conveying component or part thereof embedded within the insulating region by: forming over a substrate a first part of the signal conveying component; depositing M layers of insulator (82, 90, 92) over the first part of the signal conveying component, where M is an integer greater than or equal to one; forming over the Mth layer of insulator a second part of the signal conveying component, wherein the first part of the signal conveying component and the second part of the signal conveying component are arranged to enable the conveying of electrical signals between the first part of the signal conveying component and the second part of the signal conveying component; depositing N layers of insulator (112, 114) over the Mth layer of insulator and the second signal conveying component, where N is an integer greater than or equal to one; and selectively etching an uppermost surface of the N layers of insulator so as to form a plurality of trenches thereon, wherein the uppermost surface of the N layers of insulator comprises polyimide; and embedding the insulating region in a mould compound within the package, wherein the mould compound mechanically engages with the plurality of trenches formed on the uppermost surface of the N layers of insulator. forming over a substrate a first part of the signal conveying component; depositing M layers of insulator (82, 90, 92) over the first part of the signal conveying component, where M is an integer greater than or equal to one; forming over the Mth layer of insulator a second part of the signal conveying component, wherein the first part of the signal conveying component and the second part of the signal conveying component are arranged to enable the conveying of electrical signals between the first part of the signal conveying component and the second part of the signal conveying component; depositing N layers of insulator (112, 114) over the Mth layer of insulator and the second signal conveying component, where N is an integer greater than or equal to one; and selectively etching an uppermost surface of the N layers of insulator so as to form a plurality of trenches thereon, wherein the uppermost surface of the N layers of insulator comprises polyimide; and embedding the insulating region in a mould compound within the package, wherein the mould compound mechanically engages with the plurality of trenches formed on the uppermost surface of the N layers of insulator.
Fuel cell element, comprising: - an assembly of a membrane, a first and a second electrode (201, 203), - and means (21, 23, 25, 27) for holding this assembly together, which form peripheral support thereof and which comprise electrical connection means (30, 31, 30', 31', 32, 33, 32', 33', 34, 35, 34', 35', 36, 37, 36', 37', 72) and means (40, 42, 44, 46, 40', 42', 44', 46', 400, 400, 400', 420, 420', 440, 440', 460, 460') for the circulation of fluid and for the supply of this fluid into said assembly, said means for holding together applying a strain (F, F') to the membrane such that, on each side of maintaining membrane element assembly, it cannot deform beyond a plane (P, P') that lies on the outer surface (21', 21") of the support and which is substantially parallel to the membrane. - an assembly of a membrane, a first and a second electrode (201, 203), - and means (21, 23, 25, 27) for holding this assembly together, which form peripheral support thereof and which comprise electrical connection means (30, 31, 30', 31', 32, 33, 32', 33', 34, 35, 34', 35', 36, 37, 36', 37', 72) and means (40, 42, 44, 46, 40', 42', 44', 46', 400, 400, 400', 420, 420', 440, 440', 460, 460') for the circulation of fluid and for the supply of this fluid into said assembly, said means for holding together applying a strain (F, F') to the membrane such that, on each side of maintaining membrane element assembly, it cannot deform beyond a plane (P, P') that lies on the outer surface (21', 21") of the support and which is substantially parallel to the membrane.
A method of pulling a fiber optic cable through a duct so that fibers of the cable are ready for splicing to other fibers at a far end of the duct, comprising: providing a fiber optic cable having an outer jacket and containing a number of fibers; prior to pulling a leading end of the cable through a given duct, removing a determined length of the outer jacket at the leading end, thereby exposing a number of cable elements including at least one of strength members, ripcords, blocking tape, and a central core that surround the fibers; followed by removing the exposed cable elements to expose the fibers, and preparing the exposed fibers by (a) removing coatings on the ends of the fibers, (b) cleaving each of the ends of the fibers, and (c) placing the cleaved ends of the fibers into one or more protective covers; fixing a grip or sock over the leading end of the cable including the protective covers, up to and including the outer jacket of the cable; pulling the grip together with the cable through the duct to exit at the far end of the duct; and removing the grip and the protective covers at the far end of the duct, thereby exposing the cleaved ends of the cable fibers for splicing to other fibers at the far end of the duct. providing a fiber optic cable having an outer jacket and containing a number of fibers; prior to pulling a leading end of the cable through a given duct, removing a determined length of the outer jacket at the leading end, thereby exposing a number of cable elements including at least one of strength members, ripcords, blocking tape, and a central core that surround the fibers; followed by removing the exposed cable elements to expose the fibers, and preparing the exposed fibers by (a) removing coatings on the ends of the fibers, (b) cleaving each of the ends of the fibers, and (c) placing the cleaved ends of the fibers into one or more protective covers; fixing a grip or sock over the leading end of the cable including the protective covers, up to and including the outer jacket of the cable; pulling the grip together with the cable through the duct to exit at the far end of the duct; and removing the grip and the protective covers at the far end of the duct, thereby exposing the cleaved ends of the cable fibers for splicing to other fibers at the far end of the duct.
A construction machine, in particular a crane and preferably a mobile crane, wherein the construction machine has at least one maintenance and/or diagnosis apparatus, by means of which maintenance and/or diagnosis processes can be performed and/or error messages can be output, wherein the maintenance and/or diagnosis apparatus is arranged internally, i.e. in the construction machine itself, characterized in that the maintenance and/or diagnosis apparatus is configured in such a way that it is formed as a handheld device being detachable from the construction machine or that it includes a detachable handheld device.
A decorative laminate film including at least an inner film and an outer film and having a character and/or a figure at least a part of which is formed as a protruded portion protruding toward the outer film, wherein: the inner film of the laminate film includes polyethylene or polypropylene, and the outer film includes stretched nylon or stretched polyethylene terephthalate; between the inner film and the outer film, the decorative laminate film has a print layer including a high-brightness ink and/or a foamed film having a pearly luster; at least a part of the character and/or the figure has a metallic luster derived from the print layer including the high-brightness ink or a pearly luster derived from the foamed film, the character and/or the figure is different from at least a part of a remaining region in at least one of hue, brightness, chroma and gloss, and the protruded portion is formed along at least a part of the character and/or the figure. the inner film of the laminate film includes polyethylene or polypropylene, and the outer film includes stretched nylon or stretched polyethylene terephthalate; between the inner film and the outer film, the decorative laminate film has a print layer including a high-brightness ink and/or a foamed film having a pearly luster; at least a part of the character and/or the figure has a metallic luster derived from the print layer including the high-brightness ink or a pearly luster derived from the foamed film, the character and/or the figure is different from at least a part of a remaining region in at least one of hue, brightness, chroma and gloss, and the protruded portion is formed along at least a part of the character and/or the figure.
A solid dosage form comprising a solid dispersion which comprises a combination of at least three co-processed carbohydrates with different solubilities and/or concentrations, wherein the solid dispersion has a microcrystalline plate structure, wherein the microcrystalline plate structure is crystalline layers and/or eutectic amorphous deposits, wherein the at least three co-processed carbohydrates are polyols comprising a first polyol present in an amount of 70 wt% to 99.5 wt %, wherein the first polyol is mannitol, a second polyol present in an amount of 0.5 wt% to 30 wt%, and a third polyol present an amount of 0.5 wt% to 30 wt%, wherein the polyols are sugar alcohols of the general formula CH 2 OH--(CHOH) n --CH 2 OH, where n is 2 to 6, and preferably 3 to 6, and their dimeric anhydrides or polyols selected from the group consisting of sorbitol, maltitol, lactitol, xylitol, erythritol, isomalt, and mixtures thereof.
Method for enabling charging of packet switched data transfer between an authorised customer and a network whereby the total data volume is transferred via at least two different data paths (2,3) between an equipment related to the customer and a hybrid access aggregation point, which constitutes an access to the network, whereby each of both data paths (2,3) uses a different access technology for transferring its part of the total data volume, characterised by determining the total data volume as a sum of the both parts of total data volume transferred in both paths (2,3) and using this total data volume for charging purposes by a central charging unit, whereby the transferred parts of total data volume are determined separately in each single path (2,3) by a respective separate counter unit. (8,9), whereby an information about the determined part of total data volume is transferred from each separate counter unit (8,9) to the central charging unit which uses the information for building the total data volume as the sum of the both parts of total data volume.
An adaptive card, adapted to a motherboard with a connecting slot, the adaptive card comprising: a main body, including a first surface, a second surface and a plurality of side edges; a first connector, configured on the first surface; a second connector, configured on the second surface; a plurality of first fixing holes, formed on the first surface and arranged along a direction corresponding to an insertion direction of the first connector; a plurality of second fixing holes, formed on the second surface and arranged along a direction corresponding to an insertion direction of the second connector; and a port, configured on a first side edge and configured to be connected to the connecting slot, wherein the first connector and the second connector are M.2 connectors, the first fixing holes and the second fixing holes are M.2 fixing holes for respectively connecting and fixing to a first M.2 device and a second M.2 device, and wherein the main body includes an opening formed on a second side edge which is located opposite to the first side edge; the adaptive card being characterized in that the second connector is arranged closer to the port than the first connector so that the second M.2 device is not exposed by the opening and at least a part of the first M.2 device is exposed by the opening in order for heat of the first M.2 device to be dissipated by an airflow. a main body, including a first surface, a second surface and a plurality of side edges; a first connector, configured on the first surface; a second connector, configured on the second surface; a plurality of first fixing holes, formed on the first surface and arranged along a direction corresponding to an insertion direction of the first connector; a plurality of second fixing holes, formed on the second surface and arranged along a direction corresponding to an insertion direction of the second connector; and a port, configured on a first side edge and configured to be connected to the connecting slot, wherein the first connector and the second connector are M.2 connectors, the first fixing holes and the second fixing holes are M.2 fixing holes for respectively connecting and fixing to a first M.2 device and a second M.2 device, and wherein the main body includes an opening formed on a second side edge which is located opposite to the first side edge; the adaptive card being characterized in that the second connector is arranged closer to the port than the first connector so that the second M.2 device is not exposed by the opening and at least a part of the first M.2 device is exposed by the opening in order for heat of the first M.2 device to be dissipated by an airflow.
Screw spindle pump having a pump housing (2, 3, 7) and having a plurality of conveying screws which are arranged within the pump housing in the conveying region of the latter, the conveying screws having shafts (5, 6) which extend in the axial direction as far as the drive-side end of the pump as far as into a gear region, in which the shafts (5, 6) have gearwheels (8, 9), by means of which the shafts (5, 6) are rotationally coupled, one of the shafts having a coupling piece on the drive side for coupling to an external drive motor, the pump housing (2, 3, 7), furthermore, being configured with a flange on the drive side for interlocking with the drive motor, and the coupling piece of the output shaft of the pump extending in the axial direction as far as into the region of the said flange and being arranged and configured such that it is suitable for the rigid coupling of the drive shaft of the motor to the output shaft of the pump, characterized in that means (26, 40, 41) which damp torsional vibrations are arranged on the conveying side of the said coupling piece between the shaft and the coupling piece, in that the means which damp torsional vibrations are an elastic coupling (22, 26; 27, 40; 41), in that the coupling piece is configured on the conveying side as a coupling part for the elastic coupling for the rigid motor coupling, in that the gearwheel of the output shaft is arranged on a gearwheel carrier which is fastened on the output shaft, and in that the gearwheel carrier is configured on the drive side as a coupling part for the elastic coupling.