mhurhangee/ep-ind-claims huggingface dataset:
A method of constructing a bottomhole assembly having a casing detection tool for use in one borehole for detecting a casing of a nearby borehole comprising: obtaining formation resistivity measurements of the nearby borehole; determining an expected environmental signal level for the nearby borehole based, at least in part, on the formation resistivity measurements; selecting at least one of a transmitter-receiver spacing and an operating frequency to provide a casing detection signal level for the nearby borehole which is greater than the expected environmental signal level by comparing the casing detection signal level and the expected environmental signal level; and providing a tilted antenna logging tool having the selected transmitter-receiver spacing and/or operating frequency in the bottomhole assembly. obtaining formation resistivity measurements of the nearby borehole; determining an expected environmental signal level for the nearby borehole based, at least in part, on the formation resistivity measurements; selecting at least one of a transmitter-receiver spacing and an operating frequency to provide a casing detection signal level for the nearby borehole which is greater than the expected environmental signal level by comparing the casing detection signal level and the expected environmental signal level; and providing a tilted antenna logging tool having the selected transmitter-receiver spacing and/or operating frequency in the bottomhole assembly.
Vacuum cleaner (300, 400, 600, 701) couplable to an accessory (500, 702, 703, 704, 800), which accessory comprises a light guide connecting an accessory light inlet and an accessory light outlet, the vacuum cleaner comprising: - a spout having a cleaner dust inlet opening configured to suck in dust during operation of the vacuum cleaner, - a light source configured to generate light, - a cleaner light outlet configured to emit light generated by the light source, wherein the cleaner light outlet is arranged at or above a top surface of the outer diameter of the spout and displaced with respect to the cleaner dust inlet opening in axial direction of the spout, and - a cleaner mechanical coupling portion configured to mechanically couple the accessory to the vacuum cleaner in a defined orientation and with rotation of the accessory, relative to the vacuum cleaner, about the axial direction of the spout being restricted, characterized in that said defined orientation enables the cleaner light outlet to be coupled to or arranged next to the accessory light inlet when the accessory is coupled to the vacuum cleaner. - a spout having a cleaner dust inlet opening configured to suck in dust during operation of the vacuum cleaner, - a light source configured to generate light, - a cleaner light outlet configured to emit light generated by the light source, wherein the cleaner light outlet is arranged at or above a top surface of the outer diameter of the spout and displaced with respect to the cleaner dust inlet opening in axial direction of the spout, and - a cleaner mechanical coupling portion configured to mechanically couple the accessory to the vacuum cleaner in a defined orientation and with rotation of the accessory, relative to the vacuum cleaner, about the axial direction of the spout being restricted,
Procedure for establishing a connection between two surfaces or surface sections of two ceramic parts, comprising: the provision of a first ceramic part and a second ceramic part; the provision of an active brazing solder material on at least one surface section of at least one of the ceramic parts, wherein the active brazing solder features a Zr-Ni-Ti alloy; and heating of the active brazing solder in a vacuum solder process, wherein the entire active brazing solder material to connect the first and the second ceramic part is provided by a sputtering process, characterized in that at least one surface section of at least one of the ceramic parts, preferably of both ceramic parts, is coated with a series of layers (131, 132, 133) of the individual components of the active brazing solder, wherein Zr, Ni and Ti each form one of the individual components, wherein the average thickness of the layers of the individual components of the active brazing solder is not more than 0.5 %, particularly not more than 0.2 %, preferably not more than 0.1 % and particularly preferably not more than 0.05 % of the thickness of the joint. the provision of a first ceramic part and a second ceramic part; the provision of an active brazing solder material on at least one surface section of at least one of the ceramic parts, wherein the active brazing solder features a Zr-Ni-Ti alloy; and heating of the active brazing solder in a vacuum solder process, wherein the entire active brazing solder material to connect the first and the second ceramic part is provided by a sputtering process,
A computer-implemented method of processing a signal representing a physiological rhythm of a subject, the method comprising the steps of: a) receiving the signal from the subject, b) filtering the signal with a band pass filter, c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising at least three analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length of the physiological rhythm from the sum of the outputs of the plurality of interval length estimation methods, g) detecting a peak in the filtered signal in consecutive analysis windows corresponding to an end of the determined interval length, and h) calculating a median determined interval length from the set of matching peaks of the same amplitude. a) receiving the signal from the subject, b) filtering the signal with a band pass filter, c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising at least three analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length of the physiological rhythm from the sum of the outputs of the plurality of interval length estimation methods, g) detecting a peak in the filtered signal in consecutive analysis windows corresponding to an end of the determined interval length, and h) calculating a median determined interval length from the set of matching peaks of the same amplitude.
An agent comprising a lactic acid bacterium as an active ingredient for use in reducing the risk of developing an eye disease selected from the group consisting of age-related macular degeneration, fundus hemorrhage, and vitreous floater, or dizziness syndrome as an equilibrium dysfunction; wherein the agent inhibits a decrease in a disease-free rate, and wherein the lactic acid bacterium is Lactobacillus casei YIT 9029 (FERM BP-1366). wherein the agent inhibits a decrease in a disease-free rate, and wherein the lactic acid bacterium is Lactobacillus casei YIT 9029 (FERM BP-1366).
A silicon lump crushing apparatus comprising: a support base (2, 202) for supporting a approximately rod-like polycrystalline silicon lump (104, 256) to be crushed; and a plurality of crushers (12a-12c, 16a-16c, 250a-250c) which are opposed to the rod-like polycrystalline silicon lump (104, 256) supported on the support base (2, 202) and spaced apart from one another, wherein each of the crushers (12a-12c, 16a-16c, 250a-250c) has a hammer head to be collided with the silicon lump (104, 256) supported on the support base (2, 202) and the apparatus includes a first crusher (12a, 16a, 250a) positioned right above the silicon lump (104, 256) supported on the support base (2, 202) and second and third crushers (12b, 12c, 16b, 16c, 250b, 250c) positioned on both sides of the first crusher (12a, 16a, 250a) and away from the first crusher (12a, 16a, 250a) at an equal angle when seen in the front view of the main part of the lump crushing apparatus. a support base (2, 202) for supporting a approximately rod-like polycrystalline silicon lump (104, 256) to be crushed; and a plurality of crushers (12a-12c, 16a-16c, 250a-250c) which are opposed to the rod-like polycrystalline silicon lump (104, 256) supported on the support base (2, 202) and spaced apart from one another, wherein each of the crushers (12a-12c, 16a-16c, 250a-250c) has a hammer head to be collided with the silicon lump (104, 256) supported on the support base (2, 202) and the apparatus includes a first crusher (12a, 16a, 250a) positioned right above the silicon lump (104, 256) supported on the support base (2, 202) and second and third crushers (12b, 12c, 16b, 16c, 250b, 250c) positioned on both sides of the first crusher (12a, 16a, 250a) and away from the first crusher (12a, 16a, 250a) at an equal angle when seen in the front view of the main part of the lump crushing apparatus.
Electronic handle for a vehicle door, the handle comprising: - a bracket; - a grip movably mounted on the bracket between a first position and a second position, the grip being configured to be moved from the first position to the second position when a pulling force is applied on the grip by a user; - a magnetic retainer configured to hold the grip in the first position; - an electronic system configured to electronically cooperate with a latch for opening the vehicle door when activated in a first configuration corresponding to a normal use, - a back-up system configured to cooperate with the latch for opening the vehicle door when activated in a second configuration corresponding to an emergency or a lack of electrical power, wherein the electronic system is configured to activate in response to a detection of a pulling force applied on the grip that is lower than a predetermined force; and wherein the magnetic retainer is configured to hold the grip in the first position if a pulling force applied on the grip that is lower than the predetermined force and to release the grip and allow a movement from the first position to the second position to activate the back-up system in response to a pulling force applied on the grip that is higher than the predetermined force. - a bracket; - a grip movably mounted on the bracket between a first position and a second position, the grip being configured to be moved from the first position to the second position when a pulling force is applied on the grip by a user; - a magnetic retainer configured to hold the grip in the first position; - an electronic system configured to electronically cooperate with a latch for opening the vehicle door when activated in a first configuration corresponding to a normal use, - a back-up system configured to cooperate with the latch for opening the vehicle door when activated in a second configuration corresponding to an emergency or a lack of electrical power, wherein the electronic system is configured to activate in response to a detection of a pulling force applied on the grip that is lower than a predetermined force; and wherein the magnetic retainer is configured to hold the grip in the first position if a pulling force applied on the grip that is lower than the predetermined force and to release the grip and allow a movement from the first position to the second position to activate the back-up system in response to a pulling force applied on the grip that is higher than the predetermined force.
A method for treating an aqueous feed stream (100, 200) comprising hydrocarbons, the method comprising: a) pre-treating a plurality of media composite particles with non-oily water until the particles have a specific gravity greater than water, thereby producing a plurality of pre-treated media composite particles, each pre-treated media composite particle comprising a mixture of a cellulose-based material and a polymer, each pre-treated media composite particle comprising a concentration of cellulose-based material of 55% by weight and a concentration of polymer of 45% by weight, and the pre-treated media composite particles comprising a shape that provides gaps in an interstitial area between the particles; b) introducing the feed stream (100, 200) comprising hydrocarbons to an inlet of a vessel (202, 204) containing the plurality of pre-treated media composite particles; and c) contacting the feed stream (100, 200) with the plurality of pre-treated media composite particles at a flux rate of 24.44 m 3 /(m 2 h) ( 10 gpm/ft 2) or less, the pre-treated media composite particles adsorbing the hydrocarbons from the feed stream (100, 200) to produce a treated stream, the treated stream having a target concentration of hydrocarbons less than a concentration of hydrocarbons in the feed stream (100, 200), wherein the cellulose-based material comprises maple wood and the polymer comprises high density polyethylene (HDPE). a) pre-treating a plurality of media composite particles with non-oily water until the particles have a specific gravity greater than water, thereby producing a plurality of pre-treated media composite particles, each pre-treated media composite particle comprising a mixture of a cellulose-based material and a polymer, each pre-treated media composite particle comprising a concentration of cellulose-based material of 55% by weight and a concentration of polymer of 45% by weight, and the pre-treated media composite particles comprising a shape that provides gaps in an interstitial area between the particles; b) introducing the feed stream (100, 200) comprising hydrocarbons to an inlet of a vessel (202, 204) containing the plurality of pre-treated media composite particles; and c) contacting the feed stream (100, 200) with the plurality of pre-treated media composite particles at a flux rate of 24.44 m 3 /(m 2 h) ( 10 gpm/ft 2) or less, the pre-treated media composite particles adsorbing the hydrocarbons from the feed stream (100, 200) to produce a treated stream, the treated stream having a target concentration of hydrocarbons less than a concentration of hydrocarbons in the feed stream (100, 200), wherein the cellulose-based material comprises maple wood and the polymer comprises high density polyethylene (HDPE).
A process for manufacturing a laminated glazing unit comprising at least two glass substrates (10, 11) and at least one plastic interlayer arranged over the largest dimensions of the substrates, and provided with at least one hole through the thickness of the glazing, the process comprising a step of superposing the substrates and the interlayer, the substrates and the interlayer having been cut beforehand so as to have respective apertures of which the superposition corresponds to said hole in the glazing unit, and a degassing step, characterized in that it comprises, before the degassing step, a step of affixing a removable seal, around the periphery of said hole, to the edge face of the glazing unit and to the general external faces (13, 14) of the glass substrates, the seal comprising a web and, connected to this web, two opposed flanges (42, 43) extending in parallel in the same direction and spaced so as to house the thickness of the glazing, the flanges having respective mutually facing internal faces (45, 46), which are each provided with at least one protruding fastening element and respectively pressed against the general external faces (13, 14) of the substrates, whereas the web is provided, on its internal face connecting the internal faces of the flanges, with at least one groove arranged opposite the edge face of the glazing unit.
A method for removing gas and/or gas bubbles from a liquid medicament stored in a reservoir for an infusion pump device, wherein the reservoir comprises a displacing member (15, 13) which is at least partly displaceable relative to the reservoir thereby enabling receiving mechanical oscillations in order to generate mechanical waves in the liquid medicament, the method comprising: providing the reservoir; and transmitting a mechanical oscillation to the displacing member (15, 13) of the reservoir thereby generating a mechanical wave in the liquid medicament for removing gas and/or gas bubbles from the liquid medicament. providing the reservoir; and transmitting a mechanical oscillation to the displacing member (15, 13) of the reservoir thereby generating a mechanical wave in the liquid medicament for removing gas and/or gas bubbles from the liquid medicament.
A method of forming a cutting element for an earth-boring tool, the method comprising: directing at least one energy beam emitted from a pulsed laser at a surface of a volume of polycrystalline superabrasive material including interstitial material disposed in regions between inter-bonded grains of polycrystalline superabrasive material and ablating the interstitial material with the at least one energy beam such that at least a portion of the interstitial material is removed from a first region of the volume of polycrystalline superabrasive material without any substantial degradation of the inter-bonded grains of the polycrystalline superabrasive material or of bonds thereof in the first region; wherein the at least one energy beam has a fluence between about 0.25 J/cm 2 and about 25 J/cm 2, a wavelength between about 120 nm and about 3000 nm, a pulse width between about 2 ns and about 300 ns, a pulse rate between about 1 Hz and about 200 Hz and wherein the laser delivers between about 25 and 1000 or more laser pulses and between about 100 and 900 laser shots to the first region of the volume of superabrasive material. directing at least one energy beam emitted from a pulsed laser at a surface of a volume of polycrystalline superabrasive material including interstitial material disposed in regions between inter-bonded grains of polycrystalline superabrasive material and ablating the interstitial material with the at least one energy beam such that at least a portion of the interstitial material is removed from a first region of the volume of polycrystalline superabrasive material without any substantial degradation of the inter-bonded grains of the polycrystalline superabrasive material or of bonds thereof in the first region; wherein the at least one energy beam has a fluence between about 0.25 J/cm 2 and about 25 J/cm 2, a wavelength between about 120 nm and about 3000 nm, a pulse width between about 2 ns and about 300 ns, a pulse rate between about 1 Hz and about 200 Hz and wherein the laser delivers between about 25 and 1000 or more laser pulses and between about 100 and 900 laser shots to the first region of the volume of superabrasive material.
A computer-implemented method for transmitting control and status updates via dual tone multi-frequency "DTMF" tones over a wireless voice channel to a mobile device over a network, from a Private Branch Exchange comprising: indicating by a DTMF tone, to the mobile device, to start, at a start time, a cyclic ring tone comprising ring and pause periods; estimating (302,305,305) a delay incurred to send, from the Private Branch Exchange, over the network, a DTMF tone for reception at the mobile device; scheduling the transmission of the DTMF tone to be received at the mobile device during a pause period of the cyclic ring tone based on the start time and the estimated delay; and transmitting (306, 308), over the network, the DTMF tone as scheduled. indicating by a DTMF tone, to the mobile device, to start, at a start time, a cyclic ring tone comprising ring and pause periods; estimating (302,305,305) a delay incurred to send, from the Private Branch Exchange, over the network, a DTMF tone for reception at the mobile device; scheduling the transmission of the DTMF tone to be received at the mobile device during a pause period of the cyclic ring tone based on the start time and the estimated delay; and transmitting (306, 308), over the network, the DTMF tone as scheduled.
A device for monitoring a Transmission Control Protocol, TCP, session, the device comprising: one or more memories; and one or more processors, communicatively coupled to the one or more memories, to: receive, from a first device and a second device, a plurality of data packets of a TCP session, wherein the device is separate from both the first device and the second device; determine that a particular TCP segment of the TCP session that includes a synchronization acknowledgment, SYN-ACK, flag, has been received from the first device before a corresponding TCP segment of the TCP session that includes a synchronization, SYN, flag has been received from the second device; store a sequence number of the particular TCP segment as an initial sequence number for a stream of the TCP session; and reassemble or rearrange a set of data packets of the TCP session based on the initial sequence number for the stream and based on one or more sequence numbers of the set of data packets of the TCP session. one or more memories; and one or more processors, communicatively coupled to the one or more memories, to: receive, from a first device and a second device, a plurality of data packets of a TCP session, wherein the device is separate from both the first device and the second device; determine that a particular TCP segment of the TCP session that includes a synchronization acknowledgment, SYN-ACK, flag, has been received from the first device before a corresponding TCP segment of the TCP session that includes a synchronization, SYN, flag has been received from the second device; store a sequence number of the particular TCP segment as an initial sequence number for a stream of the TCP session; and reassemble or rearrange a set of data packets of the TCP session based on the initial sequence number for the stream and based on one or more sequence numbers of the set of data packets of the TCP session. receive, from a first device and a second device, a plurality of data packets of a TCP session, wherein the device is separate from both the first device and the second device; determine that a particular TCP segment of the TCP session that includes a synchronization acknowledgment, SYN-ACK, flag, has been received from the first device before a corresponding TCP segment of the TCP session that includes a synchronization, SYN, flag has been received from the second device; store a sequence number of the particular TCP segment as an initial sequence number for a stream of the TCP session; and reassemble or rearrange a set of data packets of the TCP session based on the initial sequence number for the stream and based on one or more sequence numbers of the set of data packets of the TCP session.
A pneumatic release actuator for an evacuation slide, comprising: a housing; a cylinder disposed within the housing; a plunger disposed within the cylinder; a seal disposed within the cylinder; and a spring disposed within the housing and configured to apply a force to the plunger, and characterized in that the pneumatic release actuator is configured to pull a pin of said evacuation slide and release the slide from a soft cover. a housing; a cylinder disposed within the housing; a plunger disposed within the cylinder; a seal disposed within the cylinder; and a spring disposed within the housing and configured to apply a force to the plunger, and characterized in that the pneumatic release actuator is configured to pull a pin of said evacuation slide and release the slide from a soft cover.