mhurhangee/ep-ind-claims huggingface dataset:
Process for producing LPG from a heavy hydrocarbon feed comprising polyaromatics, the process comprising contacting the feed in the presence of hydrogen with a M/A/zeolite catalyst under process conditions comprising a pressure of 40-150 bara, a temperature of 350-500 °C, a WHSV of 0.1-10 h -1 and a H 2 /HC ratio of 1-20, wherein said M/A/zeolite catalyst comprises: 0.05-2.5 wt-% of element M, wherein said element M is one or more elements selected from Group 10 of the Periodic Table of Elements; 0.05-1 wt-% of element A, wherein said element A is one or more elements selected from Group 1 and 2 of the Periodic Table of Elements; and an aluminosilicate zeolite having a pore size of 6-8 Å and a SiO 2 /Al 2 O 3 ratio of 1-45. 0.05-2.5 wt-% of element M, wherein said element M is one or more elements selected from Group 10 of the Periodic Table of Elements; 0.05-1 wt-% of element A, wherein said element A is one or more elements selected from Group 1 and 2 of the Periodic Table of Elements; and an aluminosilicate zeolite having a pore size of 6-8 Å and a SiO 2 /Al 2 O 3 ratio of 1-45.
Method for changing a mould of a moulding apparatus for manufacturing receptacles, in particular bottles, made of thermoplastic material by shaping a pre-heated preform, the moulding apparatus comprising two mould carriers which are mounted so as to be able to move with respect to one another about an axis of rotation, between an open position and a closed position, and two half-moulds which are each removably secured to an associated mould carrier by securing means, characterized in that said method for changing a mould comprises, for removing a mould, at least the steps of: (a) controlling the securing means so as to free each half-mould while the mould carriers are in the closed position; (b) joining together the half-moulds using assembling means so as to form a transportable unitary subassembly while the mould carriers are in the closed position; (c) opening the mould carriers from the closed position to the open position in order to remove said unitary subassembly therefrom, following a translatory motion, and such that said unitary subassembly remains in a reference position; (d) removing the unitary subassembly from between the mould carriers, starting at its reference position, by means of a robot comprising at least one arm provided with gripping means. (a) controlling the securing means so as to free each half-mould while the mould carriers are in the closed position; (b) joining together the half-moulds using assembling means so as to form a transportable unitary subassembly while the mould carriers are in the closed position; (c) opening the mould carriers from the closed position to the open position in order to remove said unitary subassembly therefrom, following a translatory motion, and such that said unitary subassembly remains in a reference position; (d) removing the unitary subassembly from between the mould carriers, starting at its reference position, by means of a robot comprising at least one arm provided with gripping means.
A defoaming method comprising: condensing a pulsed laser beam and generating pulsed sound waves from an illumination point as a sound source, so as to perform defoaming in use of the pulsed sound waves, characterized in that the pulsed laser beam is irradiated into an internal space of an acoustic waveguide (4, 21, 31, 41, 51, 61); and foam outside an open end of the acoustic waveguide (4, 21, 31, 41, 51, 61) is destoroyed by the pulsed sound waves propagating through the acoustic waveguide (4, 21, 31, 41, 51, 61), wherein the acoustic waveguide (4, 21, 31, 41, 51, 61) has a laser beam entrance hole (14, 63) through which the pulsed laser beam irradiated via the condensing optical system passes, and is disposed in such a way that the illumination point is located in the space inside the acoustic waveguide(4, 21, 31, 41, 51, 61), wherein the open end of the acoustic waveguide (4, 21, 31, 41, 51, 61) is located to face up in a direction perpendicular to the liquid surface of a defoaming object. condensing a pulsed laser beam and generating pulsed sound waves from an illumination point as a sound source, so as to perform defoaming in use of the pulsed sound waves, characterized in that the pulsed laser beam is irradiated into an internal space of an acoustic waveguide (4, 21, 31, 41, 51, 61); and foam outside an open end of the acoustic waveguide (4, 21, 31, 41, 51, 61) is destoroyed by the pulsed sound waves propagating through the acoustic waveguide (4, 21, 31, 41, 51, 61), wherein the acoustic waveguide (4, 21, 31, 41, 51, 61) has a laser beam entrance hole (14, 63) through which the pulsed laser beam irradiated via the condensing optical system passes, and is disposed in such a way that the illumination point is located in the space inside the acoustic waveguide(4, 21, 31, 41, 51, 61), wherein the open end of the acoustic waveguide (4, 21, 31, 41, 51, 61) is located to face up in a direction perpendicular to the liquid surface of a defoaming object.
A method for allocating a radio access network-base notification area, RNA, to a terminal in an inactive state, the method comprising: receiving (S101, S201), by a first base station, a first message from a second base station, and determining (S102, S202), by the first base station based on the first message, whether to allocate a radio access network-based notification area, RNA, to a terminal in an inactive state; and characterized in that the first message comprises RNA information sent by a second base station to the first base station, wherein the RNA information is used to indicate an RNA in which the terminal in the inactive state is currently located. receiving (S101, S201), by a first base station, a first message from a second base station, and determining (S102, S202), by the first base station based on the first message, whether to allocate a radio access network-based notification area, RNA, to a terminal in an inactive state; and characterized in that the first message comprises RNA information sent by a second base station to the first base station, wherein the RNA information is used to indicate an RNA in which the terminal in the inactive state is currently located.
A luminaire with a light source from which a beam of light is projected comprising: a gobo carrier (301; 401) adapted to support a plurality of gobo segments (302; 402) for placing gobos into the light beam and adapted to hold a plurality of gobo carrier guide pins (313; 413); and gobo segments (302; 402) adapted to hold gobos on one section and engage the gobo carrier guide pins (313; 413) on an elongated section; wherein the elongated section has slot(s) forming a fork (314; 414) with which to engage one of the plurality of gobo carrier guide pins (313; 413); characterized in that the elongated section is an elongated spring section, that the gobo carrier guide pin (313; 413) has a slot into which the elongated spring section of the gobo segment (302; 402) is engaged and that the elongated spring section has a preformed bend towards the gobo carrier. a gobo carrier (301; 401) adapted to support a plurality of gobo segments (302; 402) for placing gobos into the light beam and adapted to hold a plurality of gobo carrier guide pins (313; 413); and gobo segments (302; 402) adapted to hold gobos on one section and engage the gobo carrier guide pins (313; 413) on an elongated section; wherein the elongated section has slot(s) forming a fork (314; 414) with which to engage one of the plurality of gobo carrier guide pins (313; 413); characterized in that the elongated section is an elongated spring section, that the gobo carrier guide pin (313; 413) has a slot into which the elongated spring section of the gobo segment (302; 402) is engaged and that the elongated spring section has a preformed bend towards the gobo carrier.
Method to prepare a filler with a hyaluronic acid base comprising the following steps: A) crosslinking the hyaluronic acid by mixing the following components in a reaction chamber: water, hyaluronic acid, a crosslinking agent chosen from the class of polyethylene glycols (PEGs), a solution of alkali metal hydroxide, the mixing time being comprised between 10 and 40 minutes; B) a chemical neutralization step of the gel of crosslinked HA obtained in step A), comprising: B 1) preparing a neutralization solution by mixing the following components: water, hydrochloric acid HCl, a buffer agent, optionally lidocaine or derivatives thereof; B 2) dividing the neutralizing solution thus obtained into a number n of partial portions and transferring said partial portions inside n containers comprising the gel of crosslinked HA divided in the number n of partial portions, where n is a number comprised between 4 and 32; B 3) subjecting to mixing the n containers by means of a rotary device, making them rotate around the axis of the rotary device so as to promote a penetration of the neutralizing solution inside the gel of hyaluronic acid, and obtain a filler of crosslinked hyaluronic acid in the form of hydrogel. A) crosslinking the hyaluronic acid by mixing the following components in a reaction chamber: water, hyaluronic acid, a crosslinking agent chosen from the class of polyethylene glycols (PEGs), a solution of alkali metal hydroxide, the mixing time being comprised between 10 and 40 minutes; B) a chemical neutralization step of the gel of crosslinked HA obtained in step A), comprising: B 1) preparing a neutralization solution by mixing the following components: water, hydrochloric acid HCl, a buffer agent, optionally lidocaine or derivatives thereof; B 2) dividing the neutralizing solution thus obtained into a number n of partial portions and transferring said partial portions inside n containers comprising the gel of crosslinked HA divided in the number n of partial portions, where n is a number comprised between 4 and 32; B 3) subjecting to mixing the n containers by means of a rotary device, making them rotate around the axis of the rotary device so as to promote a penetration of the neutralizing solution inside the gel of hyaluronic acid, and obtain a filler of crosslinked hyaluronic acid in the form of hydrogel. B 1) preparing a neutralization solution by mixing the following components: water, hydrochloric acid HCl, a buffer agent, optionally lidocaine or derivatives thereof; B 2) dividing the neutralizing solution thus obtained into a number n of partial portions and transferring said partial portions inside n containers comprising the gel of crosslinked HA divided in the number n of partial portions, where n is a number comprised between 4 and 32; B 3) subjecting to mixing the n containers by means of a rotary device, making them rotate around the axis of the rotary device so as to promote a penetration of the neutralizing solution inside the gel of hyaluronic acid, and obtain a filler of crosslinked hyaluronic acid in the form of hydrogel.
A zoom lens system comprising:- a negative first lens group and a positive second lens group in that order from the object side; wherein during zooming from the short focal length extremity to the long focal length extremity, the distance between said first lens group and said second lens group decreases; wherein said second lens group comprises a positive first sub-lens group (G2A), an aperture diaphragm, and a positive second sub-lens group (G2B) in that order from the object side; wherein said first sub-lens group (G2A) comprises one or two positive lens elements (21, 21', 22'), and a cemented lens having a positive lens element (22, 23') and a negative lens element (23, 24'); characterised in that said second sub-lens group (G2B) is consisting of one or two positive lens elements (25, 26' 27), and one negative lens element which are uncemented and satisfy the following condition:- 0.65 < f 2 A / f 2 B < 1.0 wherein f2A designates the focal length of said first sub-lens group (G2A), and f2B designates the focal length of said second sub-lens group (G2B). a negative first lens group and a positive second lens group in that order from the object side; wherein during zooming from the short focal length extremity to the long focal length extremity, the distance between said first lens group and said second lens group decreases; wherein said second lens group comprises a positive first sub-lens group (G2A), an aperture diaphragm, and a positive second sub-lens group (G2B) in that order from the object side; wherein said first sub-lens group (G2A) comprises one or two positive lens elements (21, 21', 22'), and a cemented lens having a positive lens element (22, 23') and a negative lens element (23, 24'); characterised in that said second sub-lens group (G2B) is consisting of one or two positive lens elements (25, 26' 27), and one negative lens element which are uncemented and satisfy the following condition:- 0.65 < f 2 A / f 2 B < 1.0 wherein f2A designates the focal length of said first sub-lens group (G2A), and f2B designates the focal length of said second sub-lens group (G2B). wherein f2A designates the focal length of said first sub-lens group (G2A), and f2B designates the focal length of said second sub-lens group (G2B).
A method for enabling resource partitioning in a wireless communication system, comprising: receiving a vectorized channel quality indicator (VCQI) report from at least one terminal within the wireless communication system; determining which resource to allocate based on the VCQI report; and wherein the VCQI report is received by a non-serving base station via a backhaul interface. receiving a vectorized channel quality indicator (VCQI) report from at least one terminal within the wireless communication system; determining which resource to allocate based on the VCQI report; and wherein the VCQI report is received by a non-serving base station via a backhaul interface.
Process for the preparation of a catalyst being in the form of solid particles comprising the steps of preparing a solution of a complex of a metal which is selected from one of the groups 1 to 3 of the periodic table (IUPAC) and an electron donor by reacting a compound of said metal with said electron donor or a precursor thereof in an organic liquid reaction medium; adding to said solution solid material obtaining a suspension, said solid material (i) does not comprise catalytically active sites, (ii) has a specific surface area below 500 m 2 /g, and (iii) has a mean particle size below 200 nm; combining said suspension at a temperature of at least 50 °C with at least one transition metal compound resulting in a precipitation of said catalyst being in the form of a solid particle, wherein said transition metal compound is selected from one of the groups 4 to 10 of the periodic table (IUPAC) or a compound of actinide or lanthanide; and optionally separating said catalyst; said catalyst being in the form of solid particles, which (i) have a specific surface area of less than 20 m 2 /g, and (ii) contain said solid material. preparing a solution of a complex of a metal which is selected from one of the groups 1 to 3 of the periodic table (IUPAC) and an electron donor by reacting a compound of said metal with said electron donor or a precursor thereof in an organic liquid reaction medium; adding to said solution solid material obtaining a suspension, said solid material (i) does not comprise catalytically active sites, (ii) has a specific surface area below 500 m 2 /g, and (iii) has a mean particle size below 200 nm; (i) does not comprise catalytically active sites, (ii) has a specific surface area below 500 m 2 /g, and (iii) has a mean particle size below 200 nm; combining said suspension at a temperature of at least 50 °C with at least one transition metal compound resulting in a precipitation of said catalyst being in the form of a solid particle, wherein said transition metal compound is selected from one of the groups 4 to 10 of the periodic table (IUPAC) or a compound of actinide or lanthanide; and optionally separating said catalyst; said catalyst being in the form of solid particles, which (i) have a specific surface area of less than 20 m 2 /g, and (ii) contain said solid material. (i) have a specific surface area of less than 20 m 2 /g, and (ii) contain said solid material.
A vehicle with a polyphase electrical machine, comprising a first on-board sub-network (BN1'), which has a first nominal DC voltage level, and comprising a second on-board sub-network (BN2'), which has a second nominal DC voltage level, wherein the electrical machine comprises a rotor, a first stator system, and a second stator system, the first on-board sub-network (BN1') comprises a first inverter having a first intermediate circuit capacitor, the first stator system is associated with the first inverter, the second on-board sub-network (BN2') comprises a second inverter having a second intermediate circuit capacitor, the second stator system is associated with the second inverter, the first stator system is configured in a star connection, the second stator system is configured in a star connection, and a transfer circuit connects the star point of the first stator system to the star point of the second stator system, characterised in that - the transfer circuit comprises a first diode and a second diode, and the first diode and the second diode are connected in series in opposite directions, and - the transfer circuit comprises a first switch, which is connected in parallel to the first diode, and/or comprises a second switch, which is connected in parallel to the second diode. - the transfer circuit comprises a first diode and a second diode, and the first diode and the second diode are connected in series in opposite directions, and - the transfer circuit comprises a first switch, which is connected in parallel to the first diode, and/or comprises a second switch, which is connected in parallel to the second diode.
A device which can be converted into a seat or raised stand, comprising a rectangular cuboid formed in the shape of a first frame structure and having at least one surface element, which surface element has a seating surface on one surface element side and a standing surface on the opposite surface element side, which first frame structure has a first base and a second base, which second base is arranged opposite to the first base, wherein the surface element is arranged at a height between the first base and the second base, wherein, in a first position of the first frame structure, which first position is defined by an orientation of the first footprint towards a ground or downwards, the surface element serves as a seating surface and in a second position of the first frame structure, which second position is oriented by an orientation of the second footprint towards a ground or downwards, the surface element serves as a standing surface, characterised in that the device further comprises a second frame structure, the first frame structure being removable or firmly supported with respect to the second frame structure. a rectangular cuboid formed in the shape of a first frame structure and having at least one surface element, which surface element has a seating surface on one surface element side and a standing surface on the opposite surface element side, which first frame structure has a first base and a second base, which second base is arranged opposite to the first base, wherein the surface element is arranged at a height between the first base and the second base, wherein, in a first position of the first frame structure, which first position is defined by an orientation of the first footprint towards a ground or downwards, the surface element serves as a seating surface and in a second position of the first frame structure, which second position is oriented by an orientation of the second footprint towards a ground or downwards, the surface element serves as a standing surface, characterised in that the device further comprises a second frame structure, the first frame structure being removable or firmly supported with respect to the second frame structure.
A kitchen appliance comprising a stand mixer having contactless operating capability, the stand mixer having a plurality of drive outlets including a planetary drive outlet, and comprising: a controller for controlling an operation of the stand mixer; a sensor for capturing data related to a signal comprising a gesture or sound performed by a user; a display unit configured to display an image related to the signal performed by the user, wherein the controller is configured to control the display unit; and a processor for processing the captured data, wherein the processor is configured to: map the signal performed by the user with a known signal using the captured data and a signal database maintaining data related to a plurality of known signals; determine a command associated with the known signal using a commands database maintaining data related to a plurality of commands; and send the associated command to the controller for controlling the operation. a controller for controlling an operation of the stand mixer; a sensor for capturing data related to a signal comprising a gesture or sound performed by a user; a display unit configured to display an image related to the signal performed by the user, wherein the controller is configured to control the display unit; and a processor for processing the captured data, wherein the processor is configured to: map the signal performed by the user with a known signal using the captured data and a signal database maintaining data related to a plurality of known signals; determine a command associated with the known signal using a commands database maintaining data related to a plurality of commands; and send the associated command to the controller for controlling the operation. map the signal performed by the user with a known signal using the captured data and a signal database maintaining data related to a plurality of known signals; determine a command associated with the known signal using a commands database maintaining data related to a plurality of commands; and send the associated command to the controller for controlling the operation.
A photosensitive resin composition comprising: a resin (a) having as a main repeating unit a structure represented by the general formula; a photosensitive agent (b); and a solvent (c): wherein different groups may exist as each of R 1 to R 3 in a plurality of repeating units; R 1 is a tetravalent organic group, where 95 to 100 mol% of R 1 in all the repeating units is a group represented by the following formula; R 2 is a divalent organic group, where 50 to 99 mol% of R 2 in all the repeating units is a group represented by the following formula, and 1 to 50 mol% of R 2 in all the repeating units is a group represented by the following formula; R 3 represents an organic group with a carbon number of 1 to 20; and l and m each represent an integer of 0 to 2, where l + m = 2; and wherein, Z represents a hydroxyl group or a methyl group, and p and q each represent 0 or 1.