mhurhangee/ep-ind-claims huggingface dataset:
A method for mapping remaining hydrocarbon resources in a subsurface reservoir, comprising: obtaining a map of seismic amplitude difference over a time period based on a survey of the subsurface reservoir, wherein the map of seismic amplitude difference represents changes in the seismic response as a result of production of reservoir fluids over the time period; generating an expected trend dataset for the reservoir based on one or more non-water saturation effects detected over the time period by one or more wellbore surveillance techniques at one or more locations in the reservoir, wherein the expected trend dataset is generated by cross plotting measurements of the one or more non-water saturation effects versus seismic amplitude difference to establish a trend of expected impact on seismic amplitude difference of the one or more non-water saturation effects; correcting the map of seismic amplitude difference based, at least in part, on the expected trend dataset to generate a corrected seismic amplitude map; and using the corrected seismic amplitude difference map to generate a map representative of remaining hydrocarbon resources in the reservoir. obtaining a map of seismic amplitude difference over a time period based on a survey of the subsurface reservoir, wherein the map of seismic amplitude difference represents changes in the seismic response as a result of production of reservoir fluids over the time period; generating an expected trend dataset for the reservoir based on one or more non-water saturation effects detected over the time period by one or more wellbore surveillance techniques at one or more locations in the reservoir, wherein the expected trend dataset is generated by cross plotting measurements of the one or more non-water saturation effects versus seismic amplitude difference to establish a trend of expected impact on seismic amplitude difference of the one or more non-water saturation effects; correcting the map of seismic amplitude difference based, at least in part, on the expected trend dataset to generate a corrected seismic amplitude map; and using the corrected seismic amplitude difference map to generate a map representative of remaining hydrocarbon resources in the reservoir.
A transfer station adapted for use in association with an MR scanner and an incubator for neonatal infants, said transfer station comprising: a transfer station base; a transfer station surface supported on said transfer station base wherein said transfer station surface is disposed at substantially the same height as the height of a corresponding patient surface in said incubator; a transfer station bed movably positioned atop said transfer station surface; a releasable attachment mechanism configured to align and releasably attach said transfer station to at least one of an incubator and an MR scanner; a transfer station cover adapted to be releasably attached to said transfer station base; and a drive system adapted to move said transfer station bed into and out of said MR scanner. a transfer station base; a transfer station surface supported on said transfer station base wherein said transfer station surface is disposed at substantially the same height as the height of a corresponding patient surface in said incubator; a transfer station bed movably positioned atop said transfer station surface; a releasable attachment mechanism configured to align and releasably attach said transfer station to at least one of an incubator and an MR scanner; a transfer station cover adapted to be releasably attached to said transfer station base; and a drive system adapted to move said transfer station bed into and out of said MR scanner.
Optical device for detecting and quantifying volatile compounds, comprising: - a sensitive reflective element with a reflection rate which varies as a function of the ethanol content contained in an atmosphere to be tested, the sensitive reflective element comprising: ∘ a substrate, ∘ a sensitive layer comprising microporous hydrophobic sol-gel silica having a thickness of greater than 250 nm, notably of between 400 nm and 1200 nm, a mean pore size of less than 2 nm and a porosity of less than 25%, the sensitive layer being intended to be placed in the presence of an atmosphere to be tested, notably which may or may not be charged with ethanol, and more particularly the breath exhaled from an individual, - a monochromatic or quasi-monochromatic light source arranged to illuminate the sensitive layer under an incident angle, - a light detector for measuring the intensity reflected by the reflective element under an angle of detection, and - a processing and calculation unit configured to deduce from the intensity reflected by the reflective element a parameter corresponding to a blood alcohol content. - a sensitive reflective element with a reflection rate which varies as a function of the ethanol content contained in an atmosphere to be tested, the sensitive reflective element comprising: ∘ a substrate, ∘ a sensitive layer comprising microporous hydrophobic sol-gel silica having a thickness of greater than 250 nm, notably of between 400 nm and 1200 nm, a mean pore size of less than 2 nm and a porosity of less than 25%, the sensitive layer being intended to be placed in the presence of an atmosphere to be tested, notably which may or may not be charged with ethanol, and more particularly the breath exhaled from an individual, ∘ a substrate, ∘ a sensitive layer comprising microporous hydrophobic sol-gel silica having a thickness of greater than 250 nm, notably of between 400 nm and 1200 nm, a mean pore size of less than 2 nm and a porosity of less than 25%, the sensitive layer being intended to be placed in the presence of an atmosphere to be tested, notably which may or may not be charged with ethanol, and more particularly the breath exhaled from an individual, - a monochromatic or quasi-monochromatic light source arranged to illuminate the sensitive layer under an incident angle, - a light detector for measuring the intensity reflected by the reflective element under an angle of detection, and - a processing and calculation unit configured to deduce from the intensity reflected by the reflective element a parameter corresponding to a blood alcohol content.
Adapter for arranging a displacement measuring device on a pivot drive of a fitting, comprising: - a first adapter element which is rotatable about an axis of rotation and has a first connection for a shaft of the pivot drive, and a control cam which interconnects two theoretical points (P1, P2) which are located in mutually spaced vertical planes (x1-y1, x2-y2) of the axis of rotation; - a stationary second adapter element having a guide portion for a third adapter element; and - the third adapter element having a contact portion which contacts the control cam, having a further guide portion, which, together with the guide portion of the second adapter element, limits a movement of the third adapter element to a movement along the axis of rotation, and having a second connection for a lifting rod of the displacement measuring device. - a first adapter element which is rotatable about an axis of rotation and has a first connection for a shaft of the pivot drive, and a control cam which interconnects two theoretical points (P1, P2) which are located in mutually spaced vertical planes (x1-y1, x2-y2) of the axis of rotation; - a stationary second adapter element having a guide portion for a third adapter element; and - the third adapter element having a contact portion which contacts the control cam, having a further guide portion, which, together with the guide portion of the second adapter element, limits a movement of the third adapter element to a movement along the axis of rotation, and having a second connection for a lifting rod of the displacement measuring device.
A secondary battery comprising: a bare cell (no) comprising a case and a cap plate arranged to seal the case; a temperature sensitive element over the cap plate; a protective circuit module coupled to the cap plate and electrically connected to the bare cell and the temperature sensitive element; and an electrical connection member comprising a first portion arranged on a lower side of the temperature sensitive element and a second portion connecting the first portion to the bare cell, wherein the electrical connection member electrically connects the temperature sensitive element to the bare cell, and wherein the first portion has a height corresponding to that of an electrode terminal protruding from the cap plate, wherein the first portion is arranged between the cap plate and the temperature sensitive element, wherein the first portion comprises a printed circuit board. a bare cell (no) comprising a case and a cap plate arranged to seal the case; a temperature sensitive element over the cap plate; a protective circuit module coupled to the cap plate and electrically connected to the bare cell and the temperature sensitive element; and an electrical connection member comprising a first portion arranged on a lower side of the temperature sensitive element and a second portion connecting the first portion to the bare cell, wherein the electrical connection member electrically connects the temperature sensitive element to the bare cell, and wherein the first portion has a height corresponding to that of an electrode terminal protruding from the cap plate, wherein the first portion is arranged between the cap plate and the temperature sensitive element, wherein the first portion comprises a printed circuit board.
A method for artificially ageing stone blocks, in particular concrete blocks, clinker bricks and natural stone blocks, said method having the following features: according to which the stone blocks are conveyed through an ageing duct and the stone blocks are placed in this case in such a manner on a base of the ageing duct that a stone block surface (200, 203) of the stone blocks to be treated is aligned transversely with respect to the feed direction of the stone blocks through the ageing duct; according to which several stone blocks placed one behind another are combined to form a stone block row (10, 11, 12) and at least two stone block rows (10, 11, 12) arranged side by side with reference to the feed direction are pushed together through the ageing duct; and according to which the stone blocks, whilst they are being pushed through the ageing duct, are made to vibrate such that the stone blocks strike against an upper boundary of the ageing duct, characterized in that the ageing duct comprises a width or an extension between the two lateral boundaries (6, 7) of at least 45 cm, and in that in top view the stone blocks comprise the form of a trapezium, wherein the stone blocks are aligned in such a manner prior to being pushed through the ageing duct that the basic surfaces (200, 203) of the trapezoidal stone blocks extending parallel to one another are aligned transversely with respect to the feed direction. according to which the stone blocks are conveyed through an ageing duct and the stone blocks are placed in this case in such a manner on a base of the ageing duct that a stone block surface (200, 203) of the stone blocks to be treated is aligned transversely with respect to the feed direction of the stone blocks through the ageing duct; according to which several stone blocks placed one behind another are combined to form a stone block row (10, 11, 12) and at least two stone block rows (10, 11, 12) arranged side by side with reference to the feed direction are pushed together through the ageing duct; and according to which the stone blocks, whilst they are being pushed through the ageing duct, are made to vibrate such that the stone blocks strike against an upper boundary of the ageing duct, characterized in that the ageing duct comprises a width or an extension between the two lateral boundaries (6, 7) of at least 45 cm, and in that in top view the stone blocks comprise the form of a trapezium, wherein the stone blocks are aligned in such a manner prior to being pushed through the ageing duct that the basic surfaces (200, 203) of the trapezoidal stone blocks extending parallel to one another are aligned transversely with respect to the feed direction.
A process for preparation of a 17α-alkynyl-androst-5-ene-3β,7β,17β-triol essentially free of steroid side-product lacking an oxygen substituent at position 7 comprising the steps of (a) contacting a suitably protected 3β-hydroxy-adrost-5-ene-17-one with an oxidizing agent to directly introduce the =O (ketone) functional group at position 7; (b) contacting a suitably protected androst-5-en-7,17-dione-3β-ol with a reducing agent to convert the =O (ketone) functional group at position 7 to hydroxyl predominately in the β-configuration; and (c) contacting an optionally protected alkynyl anion with suitably protected androst-5-en-17-one-3β,7β-diol to introduce an alkynyl substituent at position 17 predominantly in the α-configuration by addition of the alkynyl anion to the =O (ketone) functional group at position 17. (a) contacting a suitably protected 3β-hydroxy-adrost-5-ene-17-one with an oxidizing agent to directly introduce the =O (ketone) functional group at position 7; (b) contacting a suitably protected androst-5-en-7,17-dione-3β-ol with a reducing agent to convert the =O (ketone) functional group at position 7 to hydroxyl predominately in the β-configuration; and (c) contacting an optionally protected alkynyl anion with suitably protected androst-5-en-17-one-3β,7β-diol to introduce an alkynyl substituent at position 17 predominantly in the α-configuration by addition of the alkynyl anion to the =O (ketone) functional group at position 17.
A method of processing a waste plastic feedstock, the method comprising: pyrolyzing a supply of the waste plastic feedstock within a primary pyrolysis reactor to generate a primary hydrocarbon gas stream and a primary solids residue stream; condensing out a tars product from the primary hydrocarbon gas stream output from the primary pyrolysis reactor with a primary quenching apparatus; discharging a primary altered hydrocarbon gas stream from the primary quenching apparatus; pyrolyzing the tars product within a secondary pyrolysis reactor to generate a secondary hydrocarbon gas stream and a secondary solids residue stream; condensing out a supplemental hydrocarbon product from the secondary hydrocarbon gas stream output from the secondary pyrolysis reactor with a secondary quenching apparatus; discharging a supplemental altered hydrocarbon gas stream from the secondary quenching apparatus; combining the supplemental altered hydrocarbon gas stream from the secondary quenching apparatus with the primary altered hydrocarbon gas stream from the primary quenching apparatus to form a combined altered hydrocarbon gas stream; and condensing out a hydrocarbon oil product from the combined altered hydrocarbon gas stream with one or more condensers (140, 141). pyrolyzing a supply of the waste plastic feedstock within a primary pyrolysis reactor to generate a primary hydrocarbon gas stream and a primary solids residue stream; condensing out a tars product from the primary hydrocarbon gas stream output from the primary pyrolysis reactor with a primary quenching apparatus; discharging a primary altered hydrocarbon gas stream from the primary quenching apparatus; pyrolyzing the tars product within a secondary pyrolysis reactor to generate a secondary hydrocarbon gas stream and a secondary solids residue stream; condensing out a supplemental hydrocarbon product from the secondary hydrocarbon gas stream output from the secondary pyrolysis reactor with a secondary quenching apparatus; discharging a supplemental altered hydrocarbon gas stream from the secondary quenching apparatus; combining the supplemental altered hydrocarbon gas stream from the secondary quenching apparatus with the primary altered hydrocarbon gas stream from the primary quenching apparatus to form a combined altered hydrocarbon gas stream; and condensing out a hydrocarbon oil product from the combined altered hydrocarbon gas stream with one or more condensers (140, 141).
A method of receiving a signal on an anchor carrier from a base station by a user equipment in a wireless communication system, the method comprising: receiving, from the base station, a Master Information Block-Narrow Band, MIB-NB, which comprises (i) scheduling information regarding a transmission of System Information Block1-Narrow Band, SIB1-NB, and (ii) information indicating whether an additional transmission of the SIB1-NB, in addition to the transmission of the SIB1-NB, is present; receiving, from the base station, the transmission of the SIB1-NB based on the scheduling information in the MIB-NB, wherein the transmission of the SIB1-NB is configured to be received in a subframe #4 within a frame of a plurality of frames, with the frame defined by 10 subframes indexed from subframe #0 to subframe #9; and based on the additional transmission of the SIB1-NB being present according to the information in the MIB-NB, receiving, from the base station, the additional transmission of the SIB 1-NB in a subframe #3 within the - frame in which the transmission of the SIB 1-NB is received, wherein one of subframes #0, #1, #3, and #4, and subframe #9 not carrying a narrowband secondary synchronization signal, NSSS, within the frame includes a Narrowband Reference Signal, NRS. receiving, from the base station, a Master Information Block-Narrow Band, MIB-NB, which comprises (i) scheduling information regarding a transmission of System Information Block1-Narrow Band, SIB1-NB, and (ii) information indicating whether an additional transmission of the SIB1-NB, in addition to the transmission of the SIB1-NB, is present; receiving, from the base station, the transmission of the SIB1-NB based on the scheduling information in the MIB-NB, wherein the transmission of the SIB1-NB is configured to be received in a subframe #4 within a frame of a plurality of frames, with the frame defined by 10 subframes indexed from subframe #0 to subframe #9; and based on the additional transmission of the SIB1-NB being present according to the information in the MIB-NB, receiving, from the base station, the additional transmission of the SIB 1-NB in a subframe #3 within the - frame in which the transmission of the SIB 1-NB is received, wherein one of subframes #0, #1, #3, and #4, and subframe #9 not carrying a narrowband secondary synchronization signal, NSSS, within the frame includes a Narrowband Reference Signal, NRS.
A surgical drill comprising: a body mounting a motorized shaft (25,26) with a connected driver bit (42,44)for driving a surgical screw; and control circuitry configured to: monitor a torque level output of the surgical drill; determine that the surgical drill is in a thread insertion stage of operation (200, 300, 400, 500) prior to a first spike (213, 313) in output torque acceleration; determine that the surgical drill is in a surgical screw head to plate contact stage of operation (202, 302) subsequent to the first spike in output torque level acceleration and prior to a second spike (215, 315) in output torque acceleration; and determine whether the surgical drill is in a compression stage of operation (204, 304) subsequent to the second spike (215, 315) in output torque acceleration; and shut off the surgical drill to prevent strip out of the surgical screw head in response to determining that the surgical drill is in the compression stage of operation (204, 304) subsequent to the second spike (215, 315) in output torque level acceleration. a body mounting a motorized shaft (25,26) with a connected driver bit (42,44)for driving a surgical screw; and control circuitry configured to: monitor a torque level output of the surgical drill; determine that the surgical drill is in a thread insertion stage of operation (200, 300, 400, 500) prior to a first spike (213, 313) in output torque acceleration; determine that the surgical drill is in a surgical screw head to plate contact stage of operation (202, 302) subsequent to the first spike in output torque level acceleration and prior to a second spike (215, 315) in output torque acceleration; and determine whether the surgical drill is in a compression stage of operation (204, 304) subsequent to the second spike (215, 315) in output torque acceleration; and monitor a torque level output of the surgical drill; determine that the surgical drill is in a thread insertion stage of operation (200, 300, 400, 500) prior to a first spike (213, 313) in output torque acceleration; determine that the surgical drill is in a surgical screw head to plate contact stage of operation (202, 302) subsequent to the first spike in output torque level acceleration and prior to a second spike (215, 315) in output torque acceleration; and determine whether the surgical drill is in a compression stage of operation (204, 304) subsequent to the second spike (215, 315) in output torque acceleration; and shut off the surgical drill to prevent strip out of the surgical screw head in response to determining that the surgical drill is in the compression stage of operation (204, 304) subsequent to the second spike (215, 315) in output torque level acceleration.
A cleaner comprising: a dust separation unit separating dust in the air from air; a suction flow path supplying outside air to the dust separation unit; a fan module (50, 50') moving the air in the suction flow path; and a dust sensor (110, 110A) measuring concentration of dust in the suction flow path, wherein the suction flow path includes: a first suction flow path extending in a first direction; and a second suction flow path connecting the first suction flow path to the dust separation unit and extending in a second direction that forms an obtuse angle with the first direction, and the dust sensor (110, 110A) is disposed in the second suction flow path. a dust separation unit separating dust in the air from air; a suction flow path supplying outside air to the dust separation unit; a fan module (50, 50') moving the air in the suction flow path; and a dust sensor (110, 110A) measuring concentration of dust in the suction flow path, wherein the suction flow path includes: a first suction flow path extending in a first direction; and a second suction flow path connecting the first suction flow path to the dust separation unit and extending in a second direction that forms an obtuse angle with the first direction, and the dust sensor (110, 110A) is disposed in the second suction flow path. a first suction flow path extending in a first direction; and a second suction flow path connecting the first suction flow path to the dust separation unit and extending in a second direction that forms an obtuse angle with the first direction, and the dust sensor (110, 110A) is disposed in the second suction flow path.