mhurhangee/ep-ind-claims huggingface dataset:
A loop heat pipe comprising: an evaporator configured to absorb heat from outside by a wall to evaporate a working fluid from a liquid phase to a gas phase; a condenser configured to condense a gas phase working fluid introduced from the evaporator into a liquid phase; an elastic wick configured to contact an inner wall of the evaporator by an elastic force from the elastic wick; and characterised by a wick deformation member (9, 90, 91) configured to preload an outer circumferential portion of the elastic wick towards the inner wall of the evaporator by the elasticity of the elastic wick itself to deform the elastic wick, to thereby increase a contact pressure of the elastic wick against the inner wall of the evaporator. an evaporator configured to absorb heat from outside by a wall to evaporate a working fluid from a liquid phase to a gas phase; a condenser configured to condense a gas phase working fluid introduced from the evaporator into a liquid phase; an elastic wick configured to contact an inner wall of the evaporator by an elastic force from the elastic wick; and characterised by a wick deformation member (9, 90, 91) configured to preload an outer circumferential portion of the elastic wick towards the inner wall of the evaporator by the elasticity of the elastic wick itself to deform the elastic wick, to thereby increase a contact pressure of the elastic wick against the inner wall of the evaporator.
A rectifier, comprising: a diode (122, 124, 126, 128, 130, 132) with opposed anode and cathode faces angled relative to a rotation axis; a first diode plate (144, 146, 148, 150, 152, 154, 155, 156) overlaying the anode face of the diode (122... 132); and a second diode plate (144... 156) overlaying the cathode face of the diode (122... 132), wherein the first diode plate (144... 156) and second diode plate (144... 156) are nested within one another such that portions of the first and second diode plates (144... 156) axially overlap along the rotation axis; characterised in that each of the diode plates (144... 156) further comprises an axially stacked body with an axially extending key segment, the key segment having an axial length that is greater than an axial height of the diode (122... 132). a diode (122, 124, 126, 128, 130, 132) with opposed anode and cathode faces angled relative to a rotation axis; a first diode plate (144, 146, 148, 150, 152, 154, 155, 156) overlaying the anode face of the diode (122... 132); and a second diode plate (144... 156) overlaying the cathode face of the diode (122... 132), wherein the first diode plate (144... 156) and second diode plate (144... 156) are nested within one another such that portions of the first and second diode plates (144... 156) axially overlap along the rotation axis; characterised in that each of the diode plates (144... 156) further comprises an axially stacked body with an axially extending key segment, the key segment having an axial length that is greater than an axial height of the diode (122... 132).
Planet carrier for a speed reduction gear with epicyclic gearing, comprising a torque transmission member of a longitudinal axis and an annular cage extending about the axis and connected to a longitudinal end of the member, said cage comprising two sides (28, 30) extending radially with respect to the axis and connected by bridges having a general X shape, seats extending axially between the sides (28, 30) and being intended to support planetary gears mounted to be rotational around the seats, each bridge comprises at least two corresponding bars (33, 34), each of which being inclined with respect to a longitudinal plane passing both through the axis and via the corresponding bar (33, 34), each bars (33a, 33b) comprising a front part (33b, 34b) and a rear part (33a, 34a) joining each other at the intersection of the X formed by each bridge, characterized in that the front parts (33b, 34b) and rear parts (33a, 34a) of each bar of each bridge do not extend in the same plane and form an angle different than 0 with one another.
A recombinant host cell, wherein the cell is modified to comprise an exogenous polynucleotide sequence encoding Ero1 comprising the polypeptide sequence given in SEQ ID NO: 3 or a variant thereof which substantially retains the function of Ero1; and an exogenous polynucleotide sequence encoding XBP1 comprising the polypeptide sequence given in SEQ ID NO:1 or a variant thereof which substantially retains the function of XBP1 and said modified host cell has increased expression levels of Ero1 and XBP1 relative to the expression levels of Ero1 and XBP1 in an unmodified cell.
Process for preparing isomeric hexanoic acids comprising 2-methylpentanoic acid from the secondary streams obtained in the preparation of pentanals, characterized in that a) a mixture comprising linear butenes is reacted in the presence of transition metal compounds of group VIII of the Periodic Table of the Elements with carbon monoxide and hydrogen at elevated temperature and elevated pressure to give a pentanal mixture; b) the mixture obtained in step a) is separated into a stream enriched with 2-methylbutanal and 3-methyl-butanal, and a stream enriched with n-pentanal; c) the stream enriched with 2-methylbutanal and 3-methylbutanal of step b) is reacted with formaldehyde; d) the reaction mixture obtained after step c) is selectively reacted in the presence of a hydrogenation catalyst with hydrogen at elevated temperature and elevated pressure to give a mixture comprising 2-methylbutanal and isomeric hexanals; e) the reaction mixture obtained in step d) is separated into a stream enriched with 2-methylbutanal and a stream enriched with a mixture of isomeric hexanals; and f) the mixture of isomeric hexanals obtained in step e) is oxidized to a mixture of isomeric hexanoic acids comprising 2-methylpentanoic acid. a) a mixture comprising linear butenes is reacted in the presence of transition metal compounds of group VIII of the Periodic Table of the Elements with carbon monoxide and hydrogen at elevated temperature and elevated pressure to give a pentanal mixture; b) the mixture obtained in step a) is separated into a stream enriched with 2-methylbutanal and 3-methyl-butanal, and a stream enriched with n-pentanal; c) the stream enriched with 2-methylbutanal and 3-methylbutanal of step b) is reacted with formaldehyde; d) the reaction mixture obtained after step c) is selectively reacted in the presence of a hydrogenation catalyst with hydrogen at elevated temperature and elevated pressure to give a mixture comprising 2-methylbutanal and isomeric hexanals; e) the reaction mixture obtained in step d) is separated into a stream enriched with 2-methylbutanal and a stream enriched with a mixture of isomeric hexanals; and f) the mixture of isomeric hexanals obtained in step e) is oxidized to a mixture of isomeric hexanoic acids comprising 2-methylpentanoic acid.
A fuel composition containing a blend of a non-Fischer-Tropsch derived diesel base fuel having an initial boiling point in the range 150 °C to 230 °C and a final boiling point in the range 290 °C to 400 °C, a density from 0.75 to 0.9 g/cm 3 at 15°C as measured by either ASTM D4502 or IP365, and a cetane number of from 35 to 80 as measured by either ASTM D613 or IP 498, and a Fischer-Tropsch derived kerosene fuel product having an initial boiling point in the range 140 °C to 160 °C and a final boiling point in the range 190 to 260 °C, a density from 0.73 to 0.76 g/cm 3 at 15°C as measured by either ASTM D4502 or IP365, and a cetane number of from 63 to 75 as measured by either ASTM D613 or IP 498, wherein the non-Fischer-Tropsch derived base fuel is present in the range from 50 to 99% v/v based on the overall composition and the Fischer-Tropsch derived kerosene fuel product in the range from 0.2 to 3% v/v based on the overall composition.
A method performed by a remote cabinet, the remote cabinet comprising a DSLAM and a power unit, the method for providing power to the remote cabinet connected to a network comprises: providing broadband service from the remote cabinet to a plurality of subscriber's customer premises equipment, CPE, via respective wirelines, wherein each of the plurality of CPEs receives power from respective subscriber premises power main and is configured to connect electrical power, in each of the plurality of subscriber's premises, from the subscriber premises power main to a respective wireline, wherein the electrical power is converted from AC power to DC power and the DC power is regulated by a DC/DC power supply of the subscriber's customer premises equipment; determining, by the power unit, load represented by the DSLAM and drawing power from each CPE according to the number of CPEs able to provide power; regulating an amount of power drawn from a subscriber's customer premises equipment based on a number of connected subscriber's customer premises equipment able to provide power; and receiving the regulated DC power via the respective wireline, wherein the remote cabinet includes DC voltage regulation circuits to match electrical power requirements for the remote cabinet and to distribute the power required by the DSLAM load equally among the subscribers. providing broadband service from the remote cabinet to a plurality of subscriber's customer premises equipment, CPE, via respective wirelines, wherein each of the plurality of CPEs receives power from respective subscriber premises power main and is configured to connect electrical power, in each of the plurality of subscriber's premises, from the subscriber premises power main to a respective wireline, wherein the electrical power is converted from AC power to DC power and the DC power is regulated by a DC/DC power supply of the subscriber's customer premises equipment; determining, by the power unit, load represented by the DSLAM and drawing power from each CPE according to the number of CPEs able to provide power; regulating an amount of power drawn from a subscriber's customer premises equipment based on a number of connected subscriber's customer premises equipment able to provide power; and receiving the regulated DC power via the respective wireline, wherein the remote cabinet includes DC voltage regulation circuits to match electrical power requirements for the remote cabinet and to distribute the power required by the DSLAM load equally among the subscribers.
A triketone compound having a structure shown in Formula: wherein, Z is O or S; R 1 is one of H, C 1 -C 6 alkyl, halogen, nitro, C 1 -C 6 alkoxy and cyano; R 2 is one of substituted or unsubstituted phenyl, benzyl, diaromatic group and triaromatic group; R 3 is one of H, C 1 -C 6 alkyl, C 2 -C 6 unsaturated chain alkyl, substituted or unsubstituted phenyl, and substituted or unsubstituted benzyl; R 4, R 5, R 6, R 7, R 8 and R 9 are respectively one of H, C 1 -C 6 alkyl, C 1 -C 6 alkoxy and halogen, the substitutent groups of R 2 and R 3 are respectively one of halogen, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, C 1 -C 6 halogenated alkyl, nitro and C 1 -C 6 halogenated alkoxy. Z is O or S; R 1 is one of H, C 1 -C 6 alkyl, halogen, nitro, C 1 -C 6 alkoxy and cyano; R 2 is one of substituted or unsubstituted phenyl, benzyl, diaromatic group and triaromatic group; R 3 is one of H, C 1 -C 6 alkyl, C 2 -C 6 unsaturated chain alkyl, substituted or unsubstituted phenyl, and substituted or unsubstituted benzyl; R 4, R 5, R 6, R 7, R 8 and R 9 are respectively one of H, C 1 -C 6 alkyl, C 1 -C 6 alkoxy and halogen, the substitutent groups of R 2 and R 3 are respectively one of halogen, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, C 1 -C 6 halogenated alkyl, nitro and C 1 -C 6 halogenated alkoxy.
A load cell comprising an elastic body where the elastic body comprises a first beam and a second beam that is positioned opposite to the first beam, a base end and a load receiving end that is positioned opposite the base end where the first and the second beams are connected to the base end and to the load receiving end via flexure points that provide sections adapted to be elastically deformed and a cavity comprising sensor means for measuring the elastic deformation of the elastic body in response to the load to be measured and a flexible wall and wherein the cavity is placed in the first beam and/or the second beam with the flexible wall and sensor means placed in the body of the beam between the flexure points of the beam and the load cell further comprises a lever having a first end and a second end, where the first end is connected to a flexible wall of the cavity and the second end is connected to one or more of the opposite beam, the base end or the load receiving end, in order to transform any relative movement of the second end of the lever into deformations of the flexible wall in response to the load to be measured, characterized in that the cavity comprises solid side walls adapted to absorb longitudinal forces in the beams on each side of the cavity, wherein the flexible wall is adapted to seal the cavity and to protect the sensor means from humidity and corrosion, and wherein the lever which is connected to the flexible wall of the sealed cavity is adapted to activate the sensor means in the sealed cavity by deforming the flexible walls.
A system for tracking an ingestible device and detecting a counterfeit as the ingestible device travels from origin to destination, the system comprising: an interrogating unit comprising: a power source configured to produce an oscillating voltage; a processor coupled to the power source and configured to receive and send information and control the output of the power source; a first plate coupled to the processor and configured to be communicably coupled to a first capacitive element of the ingestible device; and a second plate coupled to the processor and configured to be communicably coupled to a second capacitive element of the ingestible device; wherein the power source is controlled by the processor to produce the oscillating voltage at the first plate and the second plate; wherein the first and second plates are configured together to power on the ingestible device by transferring energy to the first and second capacitive elements, respectively, using the oscillating voltage; and wherein the processor is further configured to receive information from the ingestible device through the first and second plates by a transfer of energy during a time when the power source does not produce the oscillating voltage. an interrogating unit comprising: a power source configured to produce an oscillating voltage; a processor coupled to the power source and configured to receive and send information and control the output of the power source; a first plate coupled to the processor and configured to be communicably coupled to a first capacitive element of the ingestible device; and a second plate coupled to the processor and configured to be communicably coupled to a second capacitive element of the ingestible device; a power source configured to produce an oscillating voltage; a processor coupled to the power source and configured to receive and send information and control the output of the power source; a first plate coupled to the processor and configured to be communicably coupled to a first capacitive element of the ingestible device; and a second plate coupled to the processor and configured to be communicably coupled to a second capacitive element of the ingestible device; wherein the power source is controlled by the processor to produce the oscillating voltage at the first plate and the second plate; wherein the first and second plates are configured together to power on the ingestible device by transferring energy to the first and second capacitive elements, respectively, using the oscillating voltage; and wherein the processor is further configured to receive information from the ingestible device through the first and second plates by a transfer of energy during a time when the power source does not produce the oscillating voltage.
A method for controlling polymer chain scission and reducing gels in an extrusion system, comprising: melting a polyolefin resin in extruder at a first melt temperature to form a first melt; passing the first melt through a screen pack; forming the first melt into a first polyolefin product; melting additional polyolefin resin of the same grade in the extruder at a second melt temperature to form a second melt, wherein the second melt temperature differs from the first melt temperature by 5°C or more to control chain scission in the extruder; passing the second melt through the screen pack; and forming the second melt into a second polyolefin product, characterised in that the screen pack comprises a plurality of screens (114a - 114d) arranged in series including an inlet screen having a size from 20 mesh to 80 mesh and an outlet screen having a size from 20 mesh to 80 mesh, wherein the screen pack further comprises one or more intermediate screens (114b, 114c) including a screen having a size from 20 to 80 mesh sandwiched between screens of 100 mesh or larger. melting a polyolefin resin in extruder at a first melt temperature to form a first melt; passing the first melt through a screen pack; forming the first melt into a first polyolefin product; melting additional polyolefin resin of the same grade in the extruder at a second melt temperature to form a second melt, wherein the second melt temperature differs from the first melt temperature by 5°C or more to control chain scission in the extruder; passing the second melt through the screen pack; and forming the second melt into a second polyolefin product, characterised in that the screen pack comprises a plurality of screens (114a - 114d) arranged in series including an inlet screen having a size from 20 mesh to 80 mesh and an outlet screen having a size from 20 mesh to 80 mesh, wherein the screen pack further comprises one or more intermediate screens (114b, 114c) including a screen having a size from 20 to 80 mesh sandwiched between screens of 100 mesh or larger.
A liquid antiseptic composition comprising parahydroxybenzoic acid ester, and water-miscible organic solvent, wherein the parahydroxybenzoic acid ester are two or more esters selected from the group consisting of methyl parahydroxybenzoate, ethyl parahydroxybenzoate, propyl parahydroxybenzoate, isopropyl parahydroxybenzoate, butyl parahydroxybenzoate, isobutyl parahydroxybenzoate and benzyl parahydroxybenzoate; the water-miscible organic solvent contains (B-1) at least one organic solvent selected from the group consisting of propylene glycol, butylene glycol, ethanol and polyethylene glycol, and (B-2) 2-phenoxyethanol; and a weight ratio of and is 1:1 to 1:3, and a weight ratio of (B-1) and (B-2) is 1:1.5 to 1:3. parahydroxybenzoic acid ester, and water-miscible organic solvent,
A header duct for supplying a fluid to one or more components, the header duct comprising: an inlet portion having a planar inlet; an outlet portion having first and second planar outlets (114a,114b) that are non-parallel to the inlet; and a transition portion extending from the inlet portion to the outlet portion and defining a bend, wherein the transition portion is continuous with the inlet and outlet portions, and wherein the transition portion has an internal topography defining a non-monotonic cross-sectional area distribution between the inlet and outlet portions; and characterized by the internal topography comprising a protrusion positioned between two depressions (132d, 132e) and disposed on the inside corner of the bend adjacent to the inlet portion and wherein the internal topography includes a laterally-extending bulbous region that increases an effective radius of the bend within the transition portion.. an inlet portion having a planar inlet; an outlet portion having first and second planar outlets (114a,114b) that are non-parallel to the inlet; and a transition portion extending from the inlet portion to the outlet portion and defining a bend, wherein the transition portion is continuous with the inlet and outlet portions, and wherein the transition portion has an internal topography defining a non-monotonic cross-sectional area distribution between the inlet and outlet portions; and characterized by the internal topography comprising a protrusion positioned between two depressions (132d, 132e) and disposed on the inside corner of the bend adjacent to the inlet portion and
A Staphylococcus aureus strain devoid of prophages and plasmids, characterized in that it is a Staphylococcus aureus 80wphwpl strain deposited in the PCM as B/00072.
A dynamic adaptive streaming over hypertext transfer protocol, HTTP, aware, DASH-aware, network application function, D-NAF, on a server, comprising: a network application function, NAF for authenticating a client; and a DASH proxy for delivering DASH content and authentication information for the client, wherein the D-NAF is further configured to: receive a user authentication policy for the client; receive a DASH-specific authentication policy for DASH content from a DASH service provider to be enforced by a content provider; override a generic authentication architecture-based, GAA-based, authentication procedure via a bootstrapping server function, BSF, or home subscriber subsystem, HSS; authorize the client for access to the DASH content based on the user authentication policy and the DASH-specific authentication policy for DASH content; and indicate the enforced DASH-specific authentication policy in the DASH MPD. a network application function, NAF for authenticating a client; and a DASH proxy for delivering DASH content and authentication information for the client, wherein the D-NAF is further configured to: receive a user authentication policy for the client; receive a DASH-specific authentication policy for DASH content from a DASH service provider to be enforced by a content provider; override a generic authentication architecture-based, GAA-based, authentication procedure via a bootstrapping server function, BSF, or home subscriber subsystem, HSS; authorize the client for access to the DASH content based on the user authentication policy and the DASH-specific authentication policy for DASH content; and indicate the enforced DASH-specific authentication policy in the DASH MPD. receive a user authentication policy for the client; receive a DASH-specific authentication policy for DASH content from a DASH service provider to be enforced by a content provider; override a generic authentication architecture-based, GAA-based, authentication procedure via a bootstrapping server function, BSF, or home subscriber subsystem, HSS; authorize the client for access to the DASH content based on the user authentication policy and the DASH-specific authentication policy for DASH content; and indicate the enforced DASH-specific authentication policy in the DASH MPD.