mhurhangee/ep-ind-claims huggingface dataset:
An on-board computer of a space launch vehicle implementing a method for guidance along a path, configured to perform the following steps of the method: - determining, during the flight of the launching vehicle, a first flight parameter (Alt') and a second flight parameter (Vlt'); and from guidance tables depending on an atmospheric flight path of the launch vehicle for a given incidence profile for a wind profile known beforehand and at least three propulsion profiles, the guidance tables comprising for several tabulated attitude setpoint values, at least one first tabulated parameter and one second tabulated parameter, the first tabulated parameter representing the same physical quantity as the first flight parameter, the second tabulated parameter representing the same physical quantity as the second flight parameter: - carrying out a double interpolation in the guidance tables: ∘ the first interpolation consisting in interpolating the attitude depending on the first tabulated parameter, ∘ the second interpolation consisting in interpolating the attitude values obtained depending on the second tabulated parameter. - determining, during the flight of the launching vehicle, a first flight parameter (Alt') and a second flight parameter (Vlt'); and from guidance tables depending on an atmospheric flight path of the launch vehicle for a given incidence profile for a wind profile known beforehand and at least three propulsion profiles, the guidance tables comprising for several tabulated attitude setpoint values, at least one first tabulated parameter and one second tabulated parameter, the first tabulated parameter representing the same physical quantity as the first flight parameter, the second tabulated parameter representing the same physical quantity as the second flight parameter: - carrying out a double interpolation in the guidance tables: ∘ the first interpolation consisting in interpolating the attitude depending on the first tabulated parameter, ∘ the second interpolation consisting in interpolating the attitude values obtained depending on the second tabulated parameter. ∘ the first interpolation consisting in interpolating the attitude depending on the first tabulated parameter, ∘ the second interpolation consisting in interpolating the attitude values obtained depending on the second tabulated parameter.
A method of decontamination from the amplifiable residual nucleic acids present on the surface of a consumable, characterized in that it comprises the following steps: i) Treating the surface of said consumable with ethylene oxide in gaseous phase; then ii) Treating said surface with hydrogen peroxide in liquid phase at a concentration between 25% and 60% and wherein the hydrogen peroxide is heated to a temperature between 50°C and 70°C, or in gaseous phase, wherein the hydrogen peroxide is vaporized, then brought to a concentration greater than 30%. i) Treating the surface of said consumable with ethylene oxide in gaseous phase; then ii) Treating said surface with hydrogen peroxide in liquid phase at a concentration between 25% and 60% and wherein the hydrogen peroxide is heated to a temperature between 50°C and 70°C, or in gaseous phase, wherein the hydrogen peroxide is vaporized, then brought to a concentration greater than 30%.
A method for manipulating at least one liquid material (a i) with a microsampler head having at least one liquid material inlet, said method comprising: a) providing at least a first well (w i) with at least a first (1 i) layer of a first liquid material (a i) and a second layer (2 i) of a second liquid material (b i) immiscible with the first liquid material, located over said first layer (1 i), and at least a second well (w j) with at least a first (1 j) layer of a first liquid material (a j) different from the first liquid material (a i) of said first well (w i), b) locating the at least one liquid material inlet of the microsampler head within the first layer (1 i) of the first well (w i), c) sampling into the microsampler head a first volume of the first liquid material (a i) of the first well (w i), d) displacing the at least one liquid material inlet relative to the first well (w i) to locate the at least one liquid material inlet within the second layer (2 j), e) sampling into the microsampler head a second volume of the second liquid material (b i) f) displacing the at least one liquid material inlet relative to the first and second wells (w i, w j) to locate the at least one liquid material inlet within the first layer (1 j) of the second well (w j), g) sampling into the microsampler head a third volume of the first liquid material (a j) of the second well (w j) or dispensing into said second well (w j) a third volume of the first liquid material (ai) of the first well (w i). a) providing at least a first well (w i) with at least a first (1 i) layer of a first liquid material (a i) and a second layer (2 i) of a second liquid material (b i) immiscible with the first liquid material, located over said first layer (1 i), and at least a second well (w j) with at least a first (1 j) layer of a first liquid material (a j) different from the first liquid material (a i) of said first well (w i), b) locating the at least one liquid material inlet of the microsampler head within the first layer (1 i) of the first well (w i), c) sampling into the microsampler head a first volume of the first liquid material (a i) of the first well (w i), d) displacing the at least one liquid material inlet relative to the first well (w i) to locate the at least one liquid material inlet within the second layer (2 j), e) sampling into the microsampler head a second volume of the second liquid material (b i) f) displacing the at least one liquid material inlet relative to the first and second wells (w i, w j) to locate the at least one liquid material inlet within the first layer (1 j) of the second well (w j), g) sampling into the microsampler head a third volume of the first liquid material (a j) of the second well (w j) or dispensing into said second well (w j) a third volume of the first liquid material (ai) of the first well (w i).
Method for processing a crushed vegetal material, which has a solid part and liquid part and is placed inside a container (10; 10p), comprising the steps of (i) increasing the gas pressure inside the container so that the gas dissolves or diffuses in interstitial liquid, i.e. the liquid that humidifies and/or permeates and/or wets the solid part, thereby saturating themust; (ii) decreasing the gas pressure inside the container, through a vent placed on the lower part of the container and near a draining septum, such decreasing causing the transition from liquid to gaseous state of the gas dissolved in the interstitial liquid, and such transition allowing extraction of liquid from the solid part. the liquid expelled from the solid part together with the gas being collected in an auxiliary container while retaining the solid part along a connection between said container and the auxiliary container by means of filters, e.g. grids or sieves. (i) increasing the gas pressure inside the container so that the gas dissolves or diffuses in interstitial liquid, i.e. the liquid that humidifies and/or permeates and/or wets the solid part, thereby saturating themust; (ii) decreasing the gas pressure inside the container,
A method carried out by a local device, the method comprising: receiving at the local device a plurality of remote data rates at which a remote device is configured to operate; receiving at the local device a plurality of local data rates at which the local device is configured to operate, a greatest one of the plurality of local data rates being a cable data rate, wherein the cable data rate is a greatest rate supported by a cable connecting the local device and the remote device; wherein the method is characterised in that it further comprises: determining at the local device an operating data rate, wherein the operating data rate is the greatest one of the plurality of local data rates that has an equivalent within the plurality of remote data rates; and operating the local device at the operating data rate. receiving at the local device a plurality of remote data rates at which a remote device is configured to operate; receiving at the local device a plurality of local data rates at which the local device is configured to operate, a greatest one of the plurality of local data rates being a cable data rate, wherein the cable data rate is a greatest rate supported by a cable connecting the local device and the remote device; wherein the method is characterised in that it further comprises: determining at the local device an operating data rate, wherein the operating data rate is the greatest one of the plurality of local data rates that has an equivalent within the plurality of remote data rates; and operating the local device at the operating data rate. determining at the local device an operating data rate, wherein the operating data rate is the greatest one of the plurality of local data rates that has an equivalent within the plurality of remote data rates; and operating the local device at the operating data rate.
A surgical instrument for occluding tubular organic body parts, the surgical instrument comprising: an instrument shaft extending about a first axis including: a first branch; a second branch; and a joint system between a proximal end and a distal end of the surgical instrument, wherein the instrument shaft is pivotable about the joint system about a second axis that is perpendicular to the first axis; a gripping device located at the distal end of the surgical instrument for selectively occluding tubular organic body parts, the gripping device comprising: a first gripping element arranged on the first branch; and a second gripping element arranged on the second branch; an actuating device located at the proximal end of the surgical instrument, the actuating device in mechanical connection with the gripping device via at least the instrument shaft, the actuating device configured to open and close the gripping device; a locking system extending along at least a portion of the instrument shaft; wherein when the locking system is in a first position, the locking system prevents the instrument shaft from being pivotable around the j oint system; and wherein when the locking system is in a second position, the instrument shaft is pivotable around the joint system, characterized in that when the locking system is in the second position, the actuating device is unable to open or close the gripping device. an instrument shaft extending about a first axis including: a first branch; a second branch; and a joint system between a proximal end and a distal end of the surgical instrument, wherein the instrument shaft is pivotable about the joint system about a second axis that is perpendicular to the first axis; a first branch; a second branch; and a joint system between a proximal end and a distal end of the surgical instrument, wherein the instrument shaft is pivotable about the joint system about a second axis that is perpendicular to the first axis; a gripping device located at the distal end of the surgical instrument for selectively occluding tubular organic body parts, the gripping device comprising: a first gripping element arranged on the first branch; and a second gripping element arranged on the second branch; a first gripping element arranged on the first branch; and a second gripping element arranged on the second branch; an actuating device located at the proximal end of the surgical instrument, the actuating device in mechanical connection with the gripping device via at least the instrument shaft, the actuating device configured to open and close the gripping device; a locking system extending along at least a portion of the instrument shaft; wherein when the locking system is in a first position, the locking system prevents the instrument shaft from being pivotable around the j oint system; and wherein when the locking system is in a second position, the instrument shaft is pivotable around the joint system, characterized in that when the locking system is in the second position, the actuating device is unable to open or close the gripping device.
A method for manufacturing decorative surfaces including the steps of: - inkjet printing a colour pattern with one or more aqueous inkjet inks including a polyurethane based latex binder; - impregnating a paper substrate with a thermosetting resin; and - heat pressing the thermosetting resin impregnated paper substrate carrying the inkjet printed colour pattern into a decorative surface. - inkjet printing a colour pattern with one or more aqueous inkjet inks including a polyurethane based latex binder; - impregnating a paper substrate with a thermosetting resin; and - heat pressing the thermosetting resin impregnated paper substrate carrying the inkjet printed colour pattern into a decorative surface.
MEMS device (100, 200, 400, 500, 600) comprising: - at least one resonating element (101, 401, 501, 601), and - a vibration-insulating plate (102, 402, 502, 602) centrally housing said at least one resonating element (101, 401, 501, 601); wherein said vibration-insulating plate (102, 402, 502, 602) comprises a planar periodic structure (103, 403, 503, 603) surrounding said at least one resonating element (101, 401, 501, 601), wherein said planar periodic structure (103, 403, 503, 603) comprises a plurality of adjacent unit cells (104, 404, 504, 604; 300), each unit cell (104, 404, 504, 604; 300) comprising a respective movable mass element suspended by spring elements, characterised in that the said spring elements comprise folded-beam springs. - at least one resonating element (101, 401, 501, 601), and - a vibration-insulating plate (102, 402, 502, 602) centrally housing said at least one resonating element (101, 401, 501, 601); wherein said vibration-insulating plate (102, 402, 502, 602) comprises a planar periodic structure (103, 403, 503, 603) surrounding said at least one resonating element (101, 401, 501, 601), wherein said planar periodic structure (103, 403, 503, 603) comprises a plurality of adjacent unit cells (104, 404, 504, 604; 300), each unit cell (104, 404, 504, 604; 300) comprising a respective movable mass element suspended by spring elements, characterised in that the said spring elements comprise folded-beam springs.
Method, implemented by a switch of a communication network, said switch being designed to transmit, for routing in an IMS subsystem, operating in packet-switched mode, of said communication network, translations into packet-switched mode of signalling messages in circuit-switched mode relating to IMS communication services of said IMS subsystem and received via a mobile access network for accessing said communication network, operating in circuit-switched mode, and vice versa, the method being characterized in that it comprises: - receiving at least one first signalling message in packet-switched mode relating to a first communication service of said IMS subsystem provided to a client equipment connected to said communication network via a mobile access network operating in packet-switched mode, - modifying said first signalling message, comprising a replacement step, in which: when said first signalling message is received from the client equipment via said mobile access network in packet-switched mode, in a source address field of the first signalling message, an address of the client equipment is replaced with an address of the switch; and when said first signalling message is received from said IMS subsystem, in a recipient address field, the address of the switch is replaced with the address of the client equipment; - sending said modified first signalling message. - receiving at least one first signalling message in packet-switched mode relating to a first communication service of said IMS subsystem provided to a client equipment connected to said communication network via a mobile access network operating in packet-switched mode, - modifying said first signalling message, comprising a replacement step, in which: when said first signalling message is received from the client equipment via said mobile access network in packet-switched mode, in a source address field of the first signalling message, an address of the client equipment is replaced with an address of the switch; and when said first signalling message is received from said IMS subsystem, in a recipient address field, the address of the switch is replaced with the address of the client equipment; when said first signalling message is received from the client equipment via said mobile access network in packet-switched mode, in a source address field of the first signalling message, an address of the client equipment is replaced with an address of the switch; and when said first signalling message is received from said IMS subsystem, in a recipient address field, the address of the switch is replaced with the address of the client equipment; - sending said modified first signalling message.
A secondary battery, comprising an electrode element in which a cathode and an anode are oppositely disposed, an electrolytic solution, and an outer packaging body which encloses the electrode element and the electrolytic solution inside; wherein the anode is formed by binding an anode active material, which comprises carbon material (a) that can absorb and desorb a lithium ion, metal (b) that can be alloyed with lithium, and metal oxide (c) that can absorb and desorb a lithium ion, to an anode collector with an anode binder; and wherein the electrolytic solution comprises a fluorinated chain ether compound at a concentration of 10 to 75 vol%.
Package comprising nutritionally balanced animal food containing a Probiotic, wherein the package comprises an outer layer comprising a barrier having a permeability coefficient of no more than 75 grams/day/m 2 /bar (10 -5 grams/day/cm 2 /mmHg) for water vapor and oxygen permeation, wherein the animal food has a water activity of less than 0.3 when packed, wherein the package is effective at preventing the Probiotic from losing more than two logs after 6 months of packing, wherein the Probiotic is coated on the animal food, wherein the package comprises a desiccant, and wherein the animal food is a kibble.
An immunogen-encoding self-replicating RNA for use in a prophylatectic or therapeutic methods of raising an immune response in a large mammal by non-viral delivery of said RNA, comprising: (i) administering to the mammal a dose of between 2μg and 100μg of said immunogen-encoding RNA, wherein the large mammal is a human, horse, cattle, or pig and the RNA is administered in combination with a delivery system comprising: (i) liposomes; (ii) non-toxic and biodegradable polymer microparticles; and/or (iii) a submicron cationic oil-in-water emulsion.
A brass-plated steel wire for reinforcing a rubber article, wherein: when measured with X-ray photoelectron spectroscopy, abbreviated XPS, an outermost surface contains zinc at an amount of 4.93 to 14 atom%, and contains oxygen at an amount of 50 atom% or less; and in the outermost surface, an atomic ratio of copper to zinc is more than 2.33 and 6 or less. when measured with X-ray photoelectron spectroscopy, abbreviated XPS, an outermost surface contains zinc at an amount of 4.93 to 14 atom%, and contains oxygen at an amount of 50 atom% or less; and in the outermost surface, an atomic ratio of copper to zinc is more than 2.33 and 6 or less.
An attenuated virus which comprises a viral genome comprising a modified protein encoding sequence having a codon pair bias less than the codon pair bias of a parent protein encoding sequence from which it is derived and having existing synonymous codons from the parent in a rearranged order, wherein the codon pair bias is calculated by the following formula CPB = ∑ i = 1 k CPSi k − 1 for a sequence k amino acids in length, with CPS representing the codon pair score; wherein the rearranged codons in the modified protein encoding sequence provide a codon pair bias which is reduced by at least 0.05 compared to the codon pair bias of the parent protein encoding sequence.
A method of enhancing ion transport in an electrochemical cell having a first electrode and a second electrode and electrolyte between the first and second electrodes, the first and second electrodes defining a current flow path, the method comprising providing, external to the electrochemical cell, a magnetic field generator for providing a changing magnetic field through the cell, wherein the magnetic field generator comprises an array of electromagnets and the changing magnetic field is a rotating magnetic field, the method further comprising sequentially activating the electromagnets to provide the rotating magnetic field.
Vehicle seat (1, 2), comprising a seat part, a backrest and a height-adjustable armrest, in which the height-adjustable armrest comprises an arm support part and a lever mechanism for lifting or lowering the arm support part and comprising a stationary base component that comprises one or two pivot lever parts (17, 18) articulated to the base component, and a height-adjustable lower component that is articulated to the pivot lever part(s) (17, 18) for carrying the arm support part, characterised by a locking device for locking the lever mechanism by means of a first locking part that is arranged on the side of the base component and comprises first locking teeth, comprising a second locking part that is arranged on the side of the lower component and comprises further locking teeth, the two locking parts (32, 33) being mounted so as to rotate relative to one another about a common rotary shaft, and comprising locking means, which are arranged so as to be displaceable relative to the two locking parts (32, 33) by means of an actuating element in such a way that counter locking teeth (44, 45) of the locking means can engage in or disengage from the locking teeth (35, 36) of the locking parts (32, 33) in order to lock or unlock the lever mechanism.