mhurhangee/ep-ind-claims huggingface dataset:
An electronic device enclosure, comprising: an outer periphery member defining a side surface for the electronic device enclosure; and a cover assembly placed and secured with respect to the outer periphery member, the cover assembly including at least a glass member that provides an exposed outer surface for the electronic device enclosure; wherein the cover assembly includes at least one attachment protruding therefrom, wherein the outer periphery member is part of a housing part, and wherein the housing part includes at least one receptacle configured to receive the at least one attachment, the at least one receptacle being defined at least partially on a first side by the housing part and on a second side by a bracket mounted on the housing part, the at least one receptacle further being configured to capture the at least one attachment, wherein the cover assembly is interfaced with a second side of the housing part when the at least one attachment is captured in the at least one receptacle. an outer periphery member defining a side surface for the electronic device enclosure; and a cover assembly placed and secured with respect to the outer periphery member, the cover assembly including at least a glass member that provides an exposed outer surface for the electronic device enclosure; wherein the cover assembly includes at least one attachment protruding therefrom, wherein the outer periphery member is part of a housing part, and wherein the housing part includes at least one receptacle configured to receive the at least one attachment, the at least one receptacle being defined at least partially on a first side by the housing part and on a second side by a bracket mounted on the housing part, the at least one receptacle further being configured to capture the at least one attachment, wherein the cover assembly is interfaced with a second side of the housing part when the at least one attachment is captured in the at least one receptacle.
A coated article for an electro-mechanical device, having: - a plurality of conductors carrying a current therewithin, - a heat convection enabling component disposed in operable connection with one or more of the conductors, - wherein the heat convection enabling component is at least one ventilation channel disposed within at least one conductor, - wherein a coating (201A, 201B) is applied at least partially on one or more of the conductors and on the heat convection enabling component, characterized in that - the plurality of conductors carries a direct current therewithin, - the coating (201A, 201B) comprises a Graphene derivative and - the coating formed over the heat convection enabling component is configured to increase the current carrying capacity of the conductors. - a plurality of conductors carrying a current therewithin, - a heat convection enabling component disposed in operable connection with one or more of the conductors, - wherein the heat convection enabling component is at least one ventilation channel disposed within at least one conductor, - wherein a coating (201A, 201B) is applied at least partially on one or more of the conductors and on the heat convection enabling component, characterized in that - the plurality of conductors carries a direct current therewithin, - the coating (201A, 201B) comprises a Graphene derivative and - the coating formed over the heat convection enabling component is configured to increase the current carrying capacity of the conductors.
A method of improving palm oil yields, which method comprises: i. admixing an enzyme composition comprising cellulase activity and mannanase activity with a sludge; ii. incubating the admixture for between 1 to 20 hours at a temperature of between 50 °C to 95 °C; and iii. separating the oil from other components of the admixture. i. admixing an enzyme composition comprising cellulase activity and mannanase activity with a sludge; ii. incubating the admixture for between 1 to 20 hours at a temperature of between 50 °C to 95 °C; and iii. separating the oil from other components of the admixture.
A method for causing presentation of content and supplemental content at a computing device, comprising: receiving (402, 404) a primary content stream comprising a content item and a different closed-captioning stream comprising an identifier indicating that one or more supplemental-content items associated with the content item are available; sending a request for a listing of one or more available supplemental-content items; receiving the listing of the one or more available supplemental-content items, wherein the listing comprises one or more display parameters for each available supplemental-content item in the listing; receiving (410, 412) one or more attributes of a display device; determining (410, 412) one or more available supplemental-content items from the listing that have one or more display parameters that correspond with the one or more attributes of the display device; generating, on the display device, a combined presentation comprising the determined one or more available supplemental-content items (304a, 304b) and the content item; receiving a selection of a supplemental-content item of the determined one or more available supplemental-content items; and generating, on the display device, a second presentation comprising the selected supplemental-content item and the content item. receiving (402, 404) a primary content stream comprising a content item and a different closed-captioning stream comprising an identifier indicating that one or more supplemental-content items associated with the content item are available; sending a request for a listing of one or more available supplemental-content items; receiving the listing of the one or more available supplemental-content items, wherein the listing comprises one or more display parameters for each available supplemental-content item in the listing; receiving (410, 412) one or more attributes of a display device; determining (410, 412) one or more available supplemental-content items from the listing that have one or more display parameters that correspond with the one or more attributes of the display device; generating, on the display device, a combined presentation comprising the determined one or more available supplemental-content items (304a, 304b) and the content item; receiving a selection of a supplemental-content item of the determined one or more available supplemental-content items; and generating, on the display device, a second presentation comprising the selected supplemental-content item and the content item.
Surfboard comprising: a surfboard body extending along a longitudinal direction and having an upper surface and a bottom surface, an electrical battery pack removably positioned in an upper compartment accessible from the upper surface, and an electrically driven water-jet configured to propel the surfboard and provided with electrical power from the electrical battery pack, wherein the electrically driven water-jet is provided in a jet-propulsion module removably positioned in a lower compartment accessible from the lower surface, wherein the upper compartment and the lower compartment partly overlap each other a distance (d) as seen along the longitudinal direction, and wherein the jet-propulsion module comprises a jet-box forming circumferential walls of a water channel, a directly attachable electric motor and a directly mountable electronic drive module comprising circuitry for controlling the electric motor, wherein a drive shaft from the electric motor extends in rearward direction through a wall of the water channel and along and inside a rear portion of the water channel. a surfboard body extending along a longitudinal direction and having an upper surface and a bottom surface, an electrical battery pack removably positioned in an upper compartment accessible from the upper surface, and an electrically driven water-jet configured to propel the surfboard and provided with electrical power from the electrical battery pack, wherein the electrically driven water-jet is provided in a jet-propulsion module removably positioned in a lower compartment accessible from the lower surface, wherein the upper compartment and the lower compartment partly overlap each other a distance (d) as seen along the longitudinal direction, and wherein the jet-propulsion module comprises a jet-box forming circumferential walls of a water channel, a directly attachable electric motor and a directly mountable electronic drive module comprising circuitry for controlling the electric motor, wherein a drive shaft from the electric motor extends in rearward direction through a wall of the water channel and along and inside a rear portion of the water channel.
An elastic wave filter device comprising: a package substrate; an elastic wave filter chip mounted on the package substrate, the elastic wave filter chip forming a ladder circuit including a plurality of series arm resonators (S1-S4) and a plurality of parallel arm resonators (P1-P3); a first inductance connected in parallel with at least one of the series arm resonators; and a second inductance connected between at least one (P1/P2/P3) of the parallel arm resonators and a ground potential, wherein the first inductance and the second inductance are provided in the package substrate, and the first inductance is magnetically coupled to the second inductance to shift a frequency position of an attenuation pole relative to an attenuation pole in a case where there is no magnetic coupling between the first inductance and the second inductance; characterized in that the first inductance and the second inductance are separated from each other in a thickness direction of the package substrate and at least partially overlap each other in the thickness direction of the package substrate. a package substrate; an elastic wave filter chip mounted on the package substrate, the elastic wave filter chip forming a ladder circuit including a plurality of series arm resonators (S1-S4) and a plurality of parallel arm resonators (P1-P3); a first inductance connected in parallel with at least one of the series arm resonators; and a second inductance connected between at least one (P1/P2/P3) of the parallel arm resonators and a ground potential, wherein the first inductance and the second inductance are provided in the package substrate, and the first inductance is magnetically coupled to the second inductance to shift a frequency position of an attenuation pole relative to an attenuation pole in a case where there is no magnetic coupling between the first inductance and the second inductance; characterized in that the first inductance and the second inductance are separated from each other in a thickness direction of the package substrate and at least partially overlap each other in the thickness direction of the package substrate.
An optical communication terminal comprising: a beam splitter configured to transmit light of a first wavelength and to reflect light of a second wavelength; a first light source configured to emit light of the first wavelength from a first emission location and a second light source configured to emit light of the second wavelength from a second emission location; a first detector configured to detect, at a first detection location, light of the first wavelength, and a second detector configured to detect, at a second detection location, light of the second wavelength; a steering mirror; and wherein the steering mirror and the beam splitter are arranged such that, while the steering mirror has a first orientation, light of the first wavelength that is emitted from the first emission location is directed for transmission toward a remote terminal, and light of the second wavelength that is received from the remote terminal is directed toward the second detection location, and wherein the steering mirror and the beam splitter are further arranged such that, while the steering mirror has a second orientation, light of the second wavelength that is emitted from the second emission location is directed for transmission toward the remote terminal, and light of the first wavelength received from the remote terminal is directed toward the first detection location. a beam splitter configured to transmit light of a first wavelength and to reflect light of a second wavelength; a first light source configured to emit light of the first wavelength from a first emission location and a second light source configured to emit light of the second wavelength from a second emission location; a first detector configured to detect, at a first detection location, light of the first wavelength, and a second detector configured to detect, at a second detection location, light of the second wavelength; a steering mirror; and wherein the steering mirror and the beam splitter are arranged such that, while the steering mirror has a first orientation, light of the first wavelength that is emitted from the first emission location is directed for transmission toward a remote terminal, and light of the second wavelength that is received from the remote terminal is directed toward the second detection location, and wherein the steering mirror and the beam splitter are further arranged such that, while the steering mirror has a second orientation, light of the second wavelength that is emitted from the second emission location is directed for transmission toward the remote terminal, and light of the first wavelength received from the remote terminal is directed toward the first detection location.
A fitting assembly for a flat-bottomed port, the fitting assembly comprising: a tube (75, 94) having a second passageway therethrough and adapted to fit in a first passageway (11, 1030) extending through a nut (2, 70, 71, 1001) having a first end and a second end, wherein said tube (75, 94) has an end; a transfer tube (72, 92) having a third passageway therethrough, wherein at least a portion of said tube (75, 94) is located within the passageway of said transfer tube (72, 92) and is secured relative to said transfer tube (72, 92); and a tip (73, 93) adjacent to and in contact with the end of the tube (75, 94), wherein at least a portion of one end of the tip (73, 93) is adapted to form a seal in a port adapted to engage with a portion of the nut (2, 70, 71, 1001), wherein the tip (73, 93) forms an interference seal with the end of said tube (75, 94), wherein a portion of the tip (73, 93) is located between said tube (75, 94) and said transfer tube (72, 92), and wherein the transfer tube (72, 92) has a largest outer diameter that is greater than a largest outer diameter of the tip (73, 93). a tube (75, 94) having a second passageway therethrough and adapted to fit in a first passageway (11, 1030) extending through a nut (2, 70, 71, 1001) having a first end and a second end, wherein said tube (75, 94) has an end; a transfer tube (72, 92) having a third passageway therethrough, wherein at least a portion of said tube (75, 94) is located within the passageway of said transfer tube (72, 92) and is secured relative to said transfer tube (72, 92); and a tip (73, 93) adjacent to and in contact with the end of the tube (75, 94), wherein at least a portion of one end of the tip (73, 93) is adapted to form a seal in a port adapted to engage with a portion of the nut (2, 70, 71, 1001), wherein the tip (73, 93) forms an interference seal with the end of said tube (75, 94), wherein a portion of the tip (73, 93) is located between said tube (75, 94) and said transfer tube (72, 92), and wherein the transfer tube (72, 92) has a largest outer diameter that is greater than a largest outer diameter of the tip (73, 93).
A system for mobile communication, the system comprising: a signaling gateway arranged to: receive an association message from a subscriber, the association message indicating the subscriber's current country; use a MSIDSN associated with the sender of the association message received to locate all other IMSIs associated with the subscriber, each other IMSI being associated with a distinct VPMN,, wherein each IMSI has a corresponding associated different MSISDN and wherein each of the other IMSIs are not special range IMSIs; and for each associated IMSI and a home IMSI of the subscriber to: issue a location update message to an HLR of the IMSI with a Global Title of the Signaling Gateway as an address of a VMSC/VLR; receive an Insert Subscriber Data message from the HLR; acknowledge the Insert Subscriber Data message; and receive an acknowledgement of the location update from the HLR. a signaling gateway arranged to: receive an association message from a subscriber, the association message indicating the subscriber's current country; use a MSIDSN associated with the sender of the association message received to locate all other IMSIs associated with the subscriber, each other IMSI being associated with a distinct VPMN,, wherein each IMSI has a corresponding associated different MSISDN and wherein each of the other IMSIs are not special range IMSIs; and for each associated IMSI and a home IMSI of the subscriber to: receive an association message from a subscriber, the association message indicating the subscriber's current country; use a MSIDSN associated with the sender of the association message received to locate all other IMSIs associated with the subscriber, each other IMSI being associated with a distinct VPMN,, wherein each IMSI has a corresponding associated different MSISDN and wherein each of the other IMSIs are not special range IMSIs; and for each associated IMSI and a home IMSI of the subscriber to: issue a location update message to an HLR of the IMSI with a Global Title of the Signaling Gateway as an address of a VMSC/VLR; receive an Insert Subscriber Data message from the HLR; acknowledge the Insert Subscriber Data message; and receive an acknowledgement of the location update from the HLR.
A compound of formula: that is: 4-(4-(4-(((3 R,5 R)-5-((1 H -1,2,4-triazol-1-yl)methyl)-5-(2,4-difluorophenyl)tetrahydrofuran-3-yl)methoxy)-3-methylphenyl)piperazin-1-yl)- N -(4-fluorophenyl)benzamide in a crystalline form wherein the crystalline form is polymorphic Form 1, and wherein the crystalline form has: (a) an X-ray powder diffraction pattern containing seven peaks at (± 0.2) 7.0, 7.4, 7.9, 18.2, 19.7, 20.8 and 24.7 degrees 2-theta as measured using Cu Kα radiation; and/or (b) unit cell dimensions of 16.80 Å, 23.58 Å and 25.58 Å, and α, β and γ angles of 90°. (a) an X-ray powder diffraction pattern containing seven peaks at (± 0.2) 7.0, 7.4, 7.9, 18.2, 19.7, 20.8 and 24.7 degrees 2-theta as measured using Cu Kα radiation; and/or (b) unit cell dimensions of 16.80 Å, 23.58 Å and 25.58 Å, and α, β and γ angles of 90°.
Process for preparing a compound A having at least one urethane functional group, comprising a stage 1) which consists in reacting a compound B, having at least one isocyanate functional group, with a compound D, having at least one hydroxyl functional group, in the presence of a catalytically effective amount of at least one catalyst C, characterized in that said catalyst C is a metal complex or salt of following formula: [Zn(L i) l1 x] in which: - l 1 = 2, and x = 1 or 2, - the symbol Y represents an amine or a diamine, and - the symbol L 1 is a β-diketonato anion derived from a β-diketone of formula R 1 COCHR 2 COR 3 and said β-diketone is chosen from the group consisting of the β-diketones: 2,4-hexanedione; 2,4-heptanedione; 3,5-heptanedione; 3-ethyl-2,4-pentanedione; 5-methyl-2,4-hexanedione; 2,4-octanedione; 3,5-octanedione; 5,5-dimethyl-2,4-hexanedione; 6-methyl-2,4-heptanedione; 2,2-dimethyl-3,5-nonanedione; 2,6-dimethyl-3,5-heptanedione; 2-acetylcyclohexanone ( Cy-acac); 2,2,6,6-tetramethyl-3,5-heptanedione ( t-Bu-acac); 2,2,7-trimethyl-3,5-octanedione; 1,1,1,5,5,5-hexafluoro-2,4-pentanedione ( F'-acac); benzoylacetone; dibenzoylmethane; 3-methyl-2,4-pentanedione; 3-acetylpentane-2-one; 3-acetyl-2-hexanone; 3-acetyl-2-heptanone; 3-acetyl-5-methyl-2-hexanone; stearoylbenzoylmethane; octanoyl-benzoylmethane; 4-(t-butyl)-4'-methoxydibenzoylmethane; 4,4'-dimethoxydibenzoylmethane; 4,4'-di(tert-butyl)dibenzoylmethane and 2,4-undecanedione. - l 1 = 2, and x = 1 or 2, - the symbol Y represents an amine or a diamine, and - the symbol L 1 is a β-diketonato anion derived from a β-diketone of formula R 1 COCHR 2 COR 3 and said β-diketone is chosen from the group consisting of the β-diketones: 2,4-hexanedione; 2,4-heptanedione; 3,5-heptanedione; 3-ethyl-2,4-pentanedione; 5-methyl-2,4-hexanedione; 2,4-octanedione; 3,5-octanedione; 5,5-dimethyl-2,4-hexanedione; 6-methyl-2,4-heptanedione; 2,2-dimethyl-3,5-nonanedione; 2,6-dimethyl-3,5-heptanedione; 2-acetylcyclohexanone ( Cy-acac); 2,2,6,6-tetramethyl-3,5-heptanedione ( t-Bu-acac); 2,2,7-trimethyl-3,5-octanedione; 1,1,1,5,5,5-hexafluoro-2,4-pentanedione ( F'-acac); benzoylacetone; dibenzoylmethane; 3-methyl-2,4-pentanedione; 3-acetylpentane-2-one; 3-acetyl-2-hexanone; 3-acetyl-2-heptanone; 3-acetyl-5-methyl-2-hexanone; stearoylbenzoylmethane; octanoyl-benzoylmethane; 4-(t-butyl)-4'-methoxydibenzoylmethane; 4,4'-dimethoxydibenzoylmethane; 4,4'-di(tert-butyl)dibenzoylmethane and 2,4-undecanedione.
An apparatus for detecting magnetism, including a self-exciting fluxgate type magnetic oscillation sensor in each of three axes perpendicular to one another, the magnetic oscillation sensor including: a magnetism sensor (4, 13, 22) comprised of a core-coil (5, 14, 23) including a core (6, 15, 24) made of a magnetic material, and a coil wound around the core (6, 15, 24); and an operational amplifier circuit (8, 17, 26) causing an AC excitation current to run through the coil to generate an output in accordance with a strength of an external magnetic field applied to the core (6, 15, 24), characterized in that an air core coil (70, 160, 250) not wound around a core is arranged in the vicinity of and in parallel with the core-coil (5, 14, 23) of each of the magnetic oscillation sensors arranged in each of the axes, a node through which a non-earthed terminal of the core-coil (5, 14, 23) in each of the axes and one of terminals of the air core coil (70, 160, 250) are electrically connected is electrically connected to a non-inverted input terminal of the operational amplifier circuit (8, 17, 26), the other terminal of the air core coil (70, 160, 250) and an output terminal of the operational amplifier circuit (8, 17, 26) are electrically connected to each other through a passive element (P13, P46, P79), in order to cancel leakage magnetic field outwardly leaking and being radiated from the core-coil (5, 14, 23) when the core-coil (5, 14, 23) of the magnetism sensor (4, 13, 22) is excited with an excitation current, the operational amplifier circuit (8, 17, 26) being configured to generate a current by which a magnetic field having the same strength as that of the leakage magnetic field and having a direction opposite to a direction of the leakage magnetic field is generated, and to supply the current to the air core coil (70, 160, 250), an output terminal of the operational amplifier circuit (8, 17, 26) included in the magnetic oscillation sensor in each of the axes and a terminal of the air core coil (160, 250, 70) in the subsequent axis are electrically connected to each other through an electrical connector (2, 3, 1) to thereby construct a loop-type oscillation-synchronization signal circuit network for unifying oscillation frequencies of the magnetic oscillation sensors in each of the axes, in order to avoid beat phenomenon caused by a difference among oscillation frequencies of the magnetic oscillation sensors in the axes, and the apparatus being configured such that a core (6, 15, 24) of the magnetism sensor (4, 13, 22) is compulsorily excited by a unified magnetic oscillation frequency by virtue of an excitation current comprised of a combination of an oscillation-synchronization signal running through the oscillation-synchronization signal circuit network, and an excitation current output from the operational amplifier circuit (8, 17, 26).