mhurhangee/ep-ind-claims huggingface dataset:
A system for fastening a rivet in a work piece with a rivet driver, the system comprising: a workpiece having a work surface, the rivet having a manufactured head, shank, and a shank end, the installed shank and shank end nominally projecting from the work surface, an anvil having an anvil face; a plunger slidably engaged with said anvil, said plunger having a distal end, the distal end nominally extending beyond said anvil face; a load source that is operative to nominally urge said plunger distal end forward relative to said anvil face to maintain contact with the work surface; characterized in that the system further comprises a sensor that is operative to sense the distance between the plunger distal end, being in contact with the work surface, and the anvil face and produce an input signal related to said distance; a control subsystem comprising a controller, said control subsystem operative to enable and disable the rivet driver; and receive the input signal from the sensor and send an output signal to the controller, and disable the rivet driver when said distance is substantially equal to a desired rivet head height. a workpiece having a work surface, the rivet having a manufactured head, shank, and a shank end, the installed shank and shank end nominally projecting from the work surface, an anvil having an anvil face; a plunger slidably engaged with said anvil, said plunger having a distal end, the distal end nominally extending beyond said anvil face; a load source that is operative to nominally urge said plunger distal end forward relative to said anvil face to maintain contact with the work surface; characterized in that the system further comprises a sensor that is operative to sense the distance between the plunger distal end, being in contact with the work surface, and the anvil face and produce an input signal related to said distance; a control subsystem comprising a controller, said control subsystem operative to enable and disable the rivet driver; and receive the input signal from the sensor and send an output signal to the controller, and disable the rivet driver when said distance is substantially equal to a desired rivet head height. enable and disable the rivet driver; and receive the input signal from the sensor and send an output signal to the controller, and disable the rivet driver when said distance is substantially equal to a desired rivet head height.
A biofilm targeting microcapsule, suitable for deposition onto a biofilm from an aqueous dispersion, comprising a solid microparticle with average diameter from 1 to 100 μm (micron), the microparticle carrying a non-volatile functional material to be delivered to the biofilm after the microparticle has been deposited onto the biofilm, characterised in that the microparticle has attached to its outer surface from 0.5 to 5 wt%, based on the microparticle weight, of nonionic polysaccharide polymer.
A kit, comprising as separately packaged components: (a) a first composition comprising capsaicin for application to a bodily surface; and (b) a second composition for cleansing the bodily surface comprising a substance in which the capsaicin is soluble, wherein the substance comprises polyethylene glycol. (a) a first composition comprising capsaicin for application to a bodily surface; and (b) a second composition for cleansing the bodily surface comprising a substance in which the capsaicin is soluble, wherein the substance comprises polyethylene glycol.
A box nut retainer (100, 300), comprising: a support, wherein the support has a first tab (126, 128) and a second tab (122, 124); a fastener sleeve defining an opening and extending downwardly from the support; and a wing (110, 112, 310, 312) extending from the support and having a top extender (158, 168, 178, 188, 358, 368, 378, 388) extending from the first tab (126, 128), and a descender (160, 170, 180, 190, 360, 370, 380, 390) connected to the top extender (158, 168, 178, 188, 358, 368, 378, 388), the top extender (158, 168, 178, 188, 358, 368, 378, 388) and the descender (160, 170, 180, 190, 360, 370, 380, 390) defining a top corner (198, 204, 210, 216, 398, 404, 410, 416) below the support and between the first tab (126, 128) and the second tab (122,124). a support, wherein the support has a first tab (126, 128) and a second tab (122, 124); a fastener sleeve defining an opening and extending downwardly from the support; and a wing (110, 112, 310, 312) extending from the support and having a top extender (158, 168, 178, 188, 358, 368, 378, 388) extending from the first tab (126, 128), and a descender (160, 170, 180, 190, 360, 370, 380, 390) connected to the top extender (158, 168, 178, 188, 358, 368, 378, 388), the top extender (158, 168, 178, 188, 358, 368, 378, 388) and the descender (160, 170, 180, 190, 360, 370, 380, 390) defining a top corner (198, 204, 210, 216, 398, 404, 410, 416) below the support and between the first tab (126, 128) and the second tab (122,124).
A chemical compound having a structure represented by Formula below: wherein: Backbone is a molecule which is not a drug moiety and which comprises at least three available binding positions or sites for the conjugation of a first carrier, a second carrier, and a third carrier, said Backbone being selected from a group consisting of glycerol, diamines, triamines, tetraamines, polyamines, aminoalcohols, aminodiols, aminotriols, triols, tetraols, and carboxyl-containing diols; Lipid is a lipophilic first carrier group covalently bonded to Backbone, said Lipid being selected from a group consisting of fatty acids, sterols, stanols, cholecalciferols, ergocalciferol, retinoids, carotenoids, tocopherols, and tocotrienols; mPEG is a polymeric second carrier group covalently bonded to Backbone, said mPEG being a methoxy terminated polyethylene glycol polymer; CD is a cyclodextrin third carrier group covalently bonded to Backbone, said CD being selected from a group consisting of α-cyclodextrin, β-cyclodextrin, and γ-cyclodextrin; and wherein: each said available binding position or site of the Backbone comprises an amino, hydroxyl, acryloyl or carboxylic group; each of said first carrier, said second carrier, and said third carrier is respectively bound to one of said available binding positions or sites of the Backbone comprising an amino, hydroxyl, acryloyl or carboxylic group. Backbone is a molecule which is not a drug moiety and which comprises at least three available binding positions or sites for the conjugation of a first carrier, a second carrier, and a third carrier, said Backbone being selected from a group consisting of glycerol, diamines, triamines, tetraamines, polyamines, aminoalcohols, aminodiols, aminotriols, triols, tetraols, and carboxyl-containing diols; Lipid is a lipophilic first carrier group covalently bonded to Backbone, said Lipid being selected from a group consisting of fatty acids, sterols, stanols, cholecalciferols, ergocalciferol, retinoids, carotenoids, tocopherols, and tocotrienols; mPEG is a polymeric second carrier group covalently bonded to Backbone, said mPEG being a methoxy terminated polyethylene glycol polymer; CD is a cyclodextrin third carrier group covalently bonded to Backbone, said CD being selected from a group consisting of α-cyclodextrin, β-cyclodextrin, and γ-cyclodextrin; and each said available binding position or site of the Backbone comprises an amino, hydroxyl, acryloyl or carboxylic group; each of said first carrier, said second carrier, and said third carrier is respectively bound to one of said available binding positions or sites of the Backbone comprising an amino, hydroxyl, acryloyl or carboxylic group.
Computer-aided method for assigning assemblies (LP1 - LP6) to component fitting lines (BL1 - BL2) for fitting the assemblies (LP1 - LP6) with components (B1 - B6), wherein an expected production time is ascertained for each assembly type of the assemblies (LP1 - LP6) to be fitted with components and each component fitting line (BL1 - BL2) taking into consideration the respective cycle time for the assembly type on the component fitting line (BL1 - BL2), and the expected number of items to be produced per assembly type, wherein the actual number of items to be produced arises according to a previously determinable probability distribution, wherein the possible assignments of assemblies (LP1 - LP6) to component fitting lines (BL1 - BL2) are limited by the existing infracture and/or by user-defined presets, and the assignment of the assemblies (LP1 - LP6) to the component fitting lines (BL1 - BL2) is computed by means of an optimization method, wherein the assignment is computed such that for the probability distributions with respect to the sum of the expected production times per component fitting line (BL1; BL2) that result from the cited probability distributions for the numbers of items, the differences from the respective expected value of these resultant probability distributions are minimized, wherein a difference from the sum of the expected production times of a component fitting line is described as a variance thereof, which can be determined per component fitting line by the sum over all assembly types assigned to the component fitting line, from the product of the squared difference from the expected number of items of an assembly type within a period of time and the associated values of the resultant probability distributions and with multiplication by the squared cycle time.
Gearbox arrangement which is arranged on the drive train of a single-axle or multi-axle: land vehicle, in particular a utility vehicle or similar means of transportation, at least one of said axles being driven, wherein at least one planetary drive is allocated in each case to the axle halves of a driven axle and having at least one sensor device for detecting a steering manipulation on the vehicle, and having a control device, wherein the planetary drives can be controlled by the control device using values calculated from the steering manipulation data, such that each of the relevant wheels arranged on the respective axle half is driven at a rotational speed, at which it rolls without slippage, characterised in that the axle halves are driven synchronously without a differential, and in that the control device comprises a manipulable hydrostatic device, by means of which each of the wheels rolling without slippage maintains its torque.
A cuffed medical tube having a tubular shaft and an inflatable sealing cuff, the opposite ends (7 and 8) of the cuff being attached with the shaft by an adhesive or solvent in respective annular attachment regions (17 and 18) of the shaft, characterised in that the shaft has two annular ribs (22 and 23) projecting above the surface of the shaft at the ends of the regions (17 and 18) closer to one another, that the inflatable portion of the sealing cuff closely embraces the shaft when deflated, and that the ribs are for restricting flow of adhesive or solvent beyond the attachment regions and onto the inflatable portion of the cuff during manufacture.
A method of joining two rubber tyre portions, the method comprising applying a water-based adhesive compound to at least one surface of one of the two portions; and joining said two rubber portions; said water-based adhesive compound comprising water as a solvent, a cross-linkable, unsaturated-chain polymer base, and an emulsifier with a CMC value of 0.1 to 12 mmol/L, and an HLB value of 1 to 45; said method being characterized in that said emulsifier is of general formula or general formula: (R 1 COO) n n- X n+ where: R 1 is a straight or branched aliphatic hydrocarbon chain containing 10 to 25 carbon atoms and at least one unsaturation; n is 1 or 2; and X is a metal cation; (R 1 SO 3) n n- X n+ where: R 1 is a straight or branched aliphatic hydrocarbon chain containing 10 to 25 carbon atoms and at least one unsaturation; n is 1 or 2; and X is a metal cation. R 1 is a straight or branched aliphatic hydrocarbon chain containing 10 to 25 carbon atoms and at least one unsaturation; n is 1 or 2; and X is a metal cation; R 1 is a straight or branched aliphatic hydrocarbon chain containing 10 to 25 carbon atoms and at least one unsaturation; n is 1 or 2; and X is a metal cation.
A system comprising: a Bluetooth-enabled peripheral device comprising at least a radio transceiver, a baseband unit and a software stack, the Bluetooth-enabled peripheral device is configured to advertise a non-connectable undirected packet in all three Bluetooth Low Energy, BLE advertising channels; a Bluetooth-enabled host device comprising at least a processor, a memory and an antenna, the memory comprising a Bluetooth Low Energy, BLE proximity pairing process; The Bluetooth-enabled host device comprising means for detecting advertising packets broadcast by the Bluetooth-enabled peripheral device on one or more of the three advertising channels, the BLE pairing process comprising: saving a numeric indicator of one or more of the three separately detected advertising packets; determining an average numeric indicator from the saved numeric indicators of one or more of the three separately detected advertising packets; if the average numeric indicator exceeds a proximity threshold, determining whether a set of conditions are met; and initiating a Bluetooth pairing sequence between the Bluetooth-enabled host device and the Bluetooth-enabled peripheral device if the set of conditions are met. a Bluetooth-enabled peripheral device comprising at least a radio transceiver, a baseband unit and a software stack, the Bluetooth-enabled peripheral device is configured to advertise a non-connectable undirected packet in all three Bluetooth Low Energy, BLE advertising channels; a Bluetooth-enabled host device comprising at least a processor, a memory and an antenna, the memory comprising a Bluetooth Low Energy, BLE proximity pairing process; The Bluetooth-enabled host device comprising means for detecting advertising packets broadcast by the Bluetooth-enabled peripheral device on one or more of the three advertising channels, the BLE pairing process comprising: saving a numeric indicator of one or more of the three separately detected advertising packets; determining an average numeric indicator from the saved numeric indicators of one or more of the three separately detected advertising packets; if the average numeric indicator exceeds a proximity threshold, determining whether a set of conditions are met; and initiating a Bluetooth pairing sequence between the Bluetooth-enabled host device and the Bluetooth-enabled peripheral device if the set of conditions are met. saving a numeric indicator of one or more of the three separately detected advertising packets; determining an average numeric indicator from the saved numeric indicators of one or more of the three separately detected advertising packets; if the average numeric indicator exceeds a proximity threshold, determining whether a set of conditions are met; and initiating a Bluetooth pairing sequence between the Bluetooth-enabled host device and the Bluetooth-enabled peripheral device if the set of conditions are met.
A plasma reactor (20, 30, 60) for producing nanopowders, comprising: a torch body (22, 32, 62) comprising a plasma torch (23, 34, 63) for generating a plasma; a reactor section (26, 36, 64) in fluid communication with said torch body (22, 32, 62) for receiving said plasma; a quench section (40, 76) in fluid communication with said reactor section (26, 36, 64), said quench section (40, 76) comprising a frusto-conical quench chamber (44, 78) including an inner wall (42,80); and at least one heating element (28, 38, 66) in thermal communication with said reactor section (26, 36, 64), wherein said at least one heating element (28, 38, 66) is configured for providing selective modulation of the temperature within said reactor section (26, 36, 64); characterized in that said inner wall (42, 80) has a saw-like configuration for avoiding particle deposition on said inner wall (42, 80) of said quench section (40, 76). a torch body (22, 32, 62) comprising a plasma torch (23, 34, 63) for generating a plasma; a reactor section (26, 36, 64) in fluid communication with said torch body (22, 32, 62) for receiving said plasma; a quench section (40, 76) in fluid communication with said reactor section (26, 36, 64), said quench section (40, 76) comprising a frusto-conical quench chamber (44, 78) including an inner wall (42,80); and at least one heating element (28, 38, 66) in thermal communication with said reactor section (26, 36, 64), wherein said at least one heating element (28, 38, 66) is configured for providing selective modulation of the temperature within said reactor section (26, 36, 64);
An electronic device comprising: a first display (110f, 210f, 310, 610f, 810f, 1010f, 1210f) disposed on a first surface of the electronic device, the first display comprising: a display panel configured to display a specified object; a touch panel (312, 1452) configured to receive a touch input for the specified object; and a pressure sensor configured to sense a pressure of the touch input, a second display (110r, 210r, 320, 610r, 810r, 1010r, 1210r) disposed on a second surface opposite to the first surface of the electronic device; a sensor module configured to measure a physical quantity or detect an operation state of the electronic device; and a processor (350, 1320, 1410) configured to output content associated with the touched specified object on the first display or the second display based on the pressure of the touch input, and to determine the electronic device being turned over using the sensor module; wherein, when the pressure of the touch input is less than or equal to a specified value, the processor is configured to output the content on the first display; and when the pressure of the touch input is greater than the specified value and the processor determines the electronic device being turned over, the processor is configured to output the content on the second display. a first display (110f, 210f, 310, 610f, 810f, 1010f, 1210f) disposed on a first surface of the electronic device, the first display comprising: a display panel configured to display a specified object; a touch panel (312, 1452) configured to receive a touch input for the specified object; and a pressure sensor configured to sense a pressure of the touch input, a display panel configured to display a specified object; a touch panel (312, 1452) configured to receive a touch input for the specified object; and a pressure sensor configured to sense a pressure of the touch input, a second display (110r, 210r, 320, 610r, 810r, 1010r, 1210r) disposed on a second surface opposite to the first surface of the electronic device; a sensor module configured to measure a physical quantity or detect an operation state of the electronic device; and a processor (350, 1320, 1410) configured to output content associated with the touched specified object on the first display or the second display based on the pressure of the touch input, and to determine the electronic device being turned over using the sensor module; wherein, when the pressure of the touch input is less than or equal to a specified value, the processor is configured to output the content on the first display; and when the pressure of the touch input is greater than the specified value and the processor determines the electronic device being turned over, the processor is configured to output the content on the second display.
A fusion protein for preparing an induced pluripotent stem cell by transporting of the fusion protein into a human dental pulp-derived stem cell, in which a reprogramming inducing factor and a cell permeable peptide are fused, wherein said cell permeable peptide is low molecular weight protamine (LMWP) represented as SEQ ID NO: 2 and wherein said reprogramming inducing factor is one or more protein selected from the group consisting of c-Myc, Lin28, Sox2, Klf4 and Oct4.
A method of processing a non-magnetic austenitic stainless steel alloy workpiece, comprising: annealing the workpiece; heating the workpiece to a warm working temperature, wherein the warm working temperature is in a range from 510°C to 621°C (950°F to 1150°F); open die press forging the workpiece at a temperature in the warm working temperature range to impart a desired strain to a central region of the workpiece; and radial forging the workpiece at a temperature in the warm working temperature range to impart a desired strain to a surface region of the workpiece; wherein after the steps of open die press forging and radial forging, the strain imparted to the central region and the strain imparted to the surface region are each in a range of from 0.3 cm/cm (inch/inch) to 1.0 cm/cm (inch/inch); wherein a difference in strain from the central region to the surface region is not more than 0.5 cm/cm (inch/inch), wherein a "surface region" of a workpiece includes a volume of material between the surface of the workpiece to a depth of up to about 50% of the distance from the surface to the workpiece center, and a "central region" of a workpiece includes a centrally located volume of material that makes up to about 70% by volume of material of the workpiece; and wherein the forged workpiece has a circular cross-section with a diameter greater than 13.34 cm (5.25 inches). annealing the workpiece; heating the workpiece to a warm working temperature, wherein the warm working temperature is in a range from 510°C to 621°C (950°F to 1150°F); open die press forging the workpiece at a temperature in the warm working temperature range to impart a desired strain to a central region of the workpiece; and radial forging the workpiece at a temperature in the warm working temperature range to impart a desired strain to a surface region of the workpiece; wherein after the steps of open die press forging and radial forging, the strain imparted to the central region and the strain imparted to the surface region are each in a range of from 0.3 cm/cm (inch/inch) to 1.0 cm/cm (inch/inch); wherein a difference in strain from the central region to the surface region is not more than 0.5 cm/cm (inch/inch), wherein a "surface region" of a workpiece includes a volume of material between the surface of the workpiece to a depth of up to about 50% of the distance from the surface to the workpiece center, and a "central region" of a workpiece includes a centrally located volume of material that makes up to about 70% by volume of material of the workpiece; and wherein the forged workpiece has a circular cross-section with a diameter greater than 13.34 cm (5.25 inches).
A fusion protein comprising: the amino acid sequence encoded by the sequence set forth in SEQ ID NO: 4. the amino acid sequence encoded by the sequence set forth in SEQ ID NO: 4.