mhurhangee/ep-ind-claims huggingface dataset:
A macroporous titanium compound monolith having a co-continuous structure of a macropore and a framework that is composed of single-phase oxygen-deficient titanium oxide, the macroporous titanium compound monolith having electron conductivity derived from the oxygen-deficient titanium oxide, wherein the macroporous titanium compound monolith is obtainable by a method comprising: forming a macroporous titanium dioxide monolith having a co-continuous structure of a macropore and a framework that is composed of anatase type titanium dioxide by a sol-gel reaction that involves a phase separation controller, a chelating agent and a salt of a strong acid, and by removal of the chelating agent and aging in water subsequent to the sol-gel reaction; placing the macroporous titanium dioxide monolith and a metal having titanium-reducing ability in a container; creating a vacuum atmosphere or an inert gas atmosphere within the container; and heating the monolith and the metal to cause gas-phase reduction that removes oxygen atom from the titanium dioxide composing the monolith by the metal acting as an oxygen getter. the macroporous titanium compound monolith having electron conductivity derived from the oxygen-deficient titanium oxide, wherein the macroporous titanium compound monolith is obtainable by a method comprising: forming a macroporous titanium dioxide monolith having a co-continuous structure of a macropore and a framework that is composed of anatase type titanium dioxide by a sol-gel reaction that involves a phase separation controller, a chelating agent and a salt of a strong acid, and by removal of the chelating agent and aging in water subsequent to the sol-gel reaction; placing the macroporous titanium dioxide monolith and a metal having titanium-reducing ability in a container; creating a vacuum atmosphere or an inert gas atmosphere within the container; and heating the monolith and the metal to cause gas-phase reduction that removes oxygen atom from the titanium dioxide composing the monolith by the metal acting as an oxygen getter. forming a macroporous titanium dioxide monolith having a co-continuous structure of a macropore and a framework that is composed of anatase type titanium dioxide by a sol-gel reaction that involves a phase separation controller, a chelating agent and a salt of a strong acid, and by removal of the chelating agent and aging in water subsequent to the sol-gel reaction; placing the macroporous titanium dioxide monolith and a metal having titanium-reducing ability in a container; creating a vacuum atmosphere or an inert gas atmosphere within the container; and heating the monolith and the metal to cause gas-phase reduction that removes oxygen atom from the titanium dioxide composing the monolith by the metal acting as an oxygen getter.
An apparatus comprising: an amplifier circuit configured to receive and amplify an input radio frequency signal comprising transmissions sent on multiple carriers at different frequencies to a wireless device and to provide an amplified RF signal; a transformer comprising a primary coil coupled to the amplifier circuit and a plurality of secondary coils (574a, 574b) providing a plurality of output RF signals; and a plurality of downconverters (480a, 480b) configured to downconvert the plurality of output RF signals with a plurality of local oscillator signals at different frequencies. an amplifier circuit configured to receive and amplify an input radio frequency signal comprising transmissions sent on multiple carriers at different frequencies to a wireless device and to provide an amplified RF signal; a transformer comprising a primary coil coupled to the amplifier circuit and a plurality of secondary coils (574a, 574b) providing a plurality of output RF signals; and a plurality of downconverters (480a, 480b) configured to downconvert the plurality of output RF signals with a plurality of local oscillator signals at different frequencies.
A bispecific protein complex having the formula A-X:Y-B wherein: A-X is a first fusion protein; Y-B is a second fusion protein; X:Y is a heterodimeric-tether;: is a binding interaction between X and Y; A is a first protein component of the bispecific protein complex selected from a Fab or Fab' fragment; B is a second protein component of the bispecific protein complex selected from a Fab or Fab' fragment; wherein X is independently selected from a VHH, or a peptide, with the proviso that when X is a peptide Y is a VHH and when X is a VHH then Y is a peptide; wherein X or Y is a VHH specific to the peptide GCN4 represented by SEQ ID NO: 1 or amino acids 1 to 38 of SEQ ID NO: 1; and wherein X or Y is a peptide GCN4 represented by SEQ ID NO: 1 or amino acids 1 to 38 of SEQ ID NO: 1. A-X is a first fusion protein; Y-B is a second fusion protein; X:Y is a heterodimeric-tether;: is a binding interaction between X and Y; A is a first protein component of the bispecific protein complex selected from a Fab or Fab' fragment; B is a second protein component of the bispecific protein complex selected from a Fab or Fab' fragment; wherein X is independently selected from a VHH, or a peptide, with the proviso that when X is a peptide Y is a VHH and when X is a VHH then Y is a peptide; wherein X or Y is a VHH specific to the peptide GCN4 represented by SEQ ID NO: 1 or amino acids 1 to 38 of SEQ ID NO: 1; and wherein X or Y is a peptide GCN4 represented by SEQ ID NO: 1 or amino acids 1 to 38 of SEQ ID NO: 1.
Assembly for an aircraft turbine engine, comprising: - a rolling bearing bracket delimiting, on either side thereof, a radially inner space and a radially outer space; - at least one rolling bearing (74a, 74b) housed in said radially inner space and carried by said bearing bracket; - a rotary assembly (58, 60, 38) intended to be rotated by a gas generator of the turbine engine, said assembly rotating on a longitudinal axis of the turbine engine and comprising a first gear and being carried by said at least one rolling bearing (74a, 74b), said first gear being arranged in said radially inner space; - a mechanical power takeoff box housed in the radially inner space and comprising a second gear meshing with the first gear, the mechanical power takeoff box comprising a body rotationally housing said second gear arranged in said radially inner space; - a mechanical power takeoff shaft inserted in the mechanical power takeoff box and rotated by said second gear, the takeoff shaft passing through a first opening in the bearing bracket and being intended to drive an accessory box or one or more items of equipment of the turbine engine, said first opening emerging on either side in said radially inner space and in said radially outer space, characterised in that it further comprises means for mounting the mechanical power takeoff box on the bearing bracket, said mounting means passing through a second opening through the bearing bracket, said second opening, distinct from the first opening, emerging on either side in said radially inner space and in said radially outer space, and being configured so as to allow the introduction of said takeoff box in said radially inner space. - a rolling bearing bracket delimiting, on either side thereof, a radially inner space and a radially outer space; - at least one rolling bearing (74a, 74b) housed in said radially inner space and carried by said bearing bracket; - a rotary assembly (58, 60, 38) intended to be rotated by a gas generator of the turbine engine, said assembly rotating on a longitudinal axis of the turbine engine and comprising a first gear and being carried by said at least one rolling bearing (74a, 74b), said first gear being arranged in said radially inner space; - a mechanical power takeoff box housed in the radially inner space and comprising a second gear meshing with the first gear, the mechanical power takeoff box comprising a body rotationally housing said second gear arranged in said radially inner space; - a mechanical power takeoff shaft inserted in the mechanical power takeoff box and rotated by said second gear, the takeoff shaft passing through a first opening in the bearing bracket and being intended to drive an accessory box or one or more items of equipment of the turbine engine, said first opening emerging on either side in said radially inner space and in said radially outer space,
System of electrochemical cells for producing a battery module for an electric or hybrid vehicle comprising a stack of flexible electrochemical cells, comprising at least one support strip on the surface of which are arranged a plurality of electrochemical cells (7, 8), the support strip being able to be folded so as to be able to allow the electrochemical cells (7, 8) to be attached together and produce a stacking of the cells (7, 8), one on top of the other, the support strip having an alternation of first zones on the surface of each of which is arranged at least one electrochemical cell (7, 8), and of second zones without any electrochemical cells (7, 8), the support strip being able to be folded in these second zones, characterized in that the support strip comprises, on at least one of its faces on the side of an electrochemical cell (7, 8), a heating ply (14, 15) bearing with surface contact against the support strip, said heating ply (14, 15) being thus sandwiched between a cell (7, 8) and the corresponding first zone of the support strip.
A method for generating an output audio signal of expressive synthesized speech, the method comprising: receiving, at data processing hardware, a current input text from a text source, the current input text to be synthesized into expressive speech by a text-to-speech model; generating, by the data processing hardware, using a context model, a context embedding associated with current input text, based on one or more context features derived from the text source; predicting, by the data processing hardware, using a text-prediction network, a style embedding for the current input text by processing the current input text and the context embedding associated with the current input text, the style embedding specifying a specific prosody and/or style for synthesizing the current input text into expressive speech; and generating, by the data processing hardware, using the TTS model, the output audio signal of expressive speech of the current input text by processing the style embedding and the current input text, the output audio signal having the specific prosody and/or style specified by the style embedding. receiving, at data processing hardware, a current input text from a text source, the current input text to be synthesized into expressive speech by a text-to-speech model; generating, by the data processing hardware, using a context model, a context embedding associated with current input text, based on one or more context features derived from the text source; predicting, by the data processing hardware, using a text-prediction network, a style embedding for the current input text by processing the current input text and the context embedding associated with the current input text, the style embedding specifying a specific prosody and/or style for synthesizing the current input text into expressive speech; and generating, by the data processing hardware, using the TTS model, the output audio signal of expressive speech of the current input text by processing the style embedding and the current input text, the output audio signal having the specific prosody and/or style specified by the style embedding.
A cross-linked polypeptide comprising a stabilized alpha helix of human immunodeficiency virus gp41 heptad repeat domain, wherein the stabilized HIV gp41 HR domain is stabilized with two hydrocarbon staples, and wherein said hydrocarbon staples are positioned so as to link amino acid residues i and i+4.
A process for converting a feed stream to C 2 to C 5 hydrocarbons, comprising: introducing a feed stream comprising hydrogen and at least one carbon-containing component selected from the group consisting of CO, CO 2, and mixtures thereof into a reaction zone at an initial reactor pressure and an initial reactor temperature; contacting the feed stream to a hybrid catalyst positioned in the reaction zone, wherein the hybrid catalyst comprises a methanol synthesis component and a solid microporous acid material; wherein: the methanol synthesis component comprises one or more of Cu, Zn, Cr, and Al in any possible compositional combination and in either metallic or oxidic form, and the solid microporous acid material is selected from molecular sieves having 8-MR access and having a framework type selected from the group consisting of framework types CHA, AEI, AFX, ERI, LTA, UFI, RTH, and combinations thereof, the framework types corresponding to the naming convention of the International Zeolite Association; and increasing a pressure within the reaction zone during the contacting of the feed stream to the hybrid catalyst from the initial reactor pressure to a final reactor pressure, wherein a temperature within the reaction zone at any time during the contacting of the feed stream to the hybrid catalyst is within ± 20 °C of the initial reactor temperature. introducing a feed stream comprising hydrogen and at least one carbon-containing component selected from the group consisting of CO, CO 2, and mixtures thereof into a reaction zone at an initial reactor pressure and an initial reactor temperature; contacting the feed stream to a hybrid catalyst positioned in the reaction zone, wherein the hybrid catalyst comprises a methanol synthesis component and a solid microporous acid material; wherein: the methanol synthesis component comprises one or more of Cu, Zn, Cr, and Al in any possible compositional combination and in either metallic or oxidic form, and the solid microporous acid material is selected from molecular sieves having 8-MR access and having a framework type selected from the group consisting of framework types CHA, AEI, AFX, ERI, LTA, UFI, RTH, and combinations thereof, the framework types corresponding to the naming convention of the International Zeolite Association; and increasing a pressure within the reaction zone during the contacting of the feed stream to the hybrid catalyst from the initial reactor pressure to a final reactor pressure, wherein a temperature within the reaction zone at any time during the contacting of the feed stream to the hybrid catalyst is within ± 20 °C of the initial reactor temperature.
Device for guiding the syringe of a user so as to enable the injection of an analgesic solution as close to the mandibular foramen as possible during local-regional mandibular analgesia which comprises an intermediate element for connecting to one of its ends an ear mould and at its other end a curvilinear element extended by a guide groove and a rectilinear element.
A method for enabling fault tolerance in a client process executing in a distributed computing system, the method comprising: (a) instantiating an execution environment in response to a call from a client process, the execution environment relating to the client process executing on a distributed computing system; (b) executing instructions within said execution environment said instructions causing said execution environment to issue further instructions to said distributed computing system, said further instructions relating to actions to be performed with respect to data stored on said distributed computing system; and (c) receiving said further instructions by an object interface proxy, wherein at least one of said further instructions is a save-state instruction, which causes said object interface proxy to save a current state of said execution environment in a data store. (a) instantiating an execution environment in response to a call from a client process, the execution environment relating to the client process executing on a distributed computing system; (b) executing instructions within said execution environment said instructions causing said execution environment to issue further instructions to said distributed computing system, said further instructions relating to actions to be performed with respect to data stored on said distributed computing system; and (c) receiving said further instructions by an object interface proxy, wherein at least one of said further instructions is a save-state instruction, which causes said object interface proxy to save a current state of said execution environment in a data store.
Radiation-curable inkjet ink composition comprising a gellant, wherein the gellant is a compound according to formula I, wherein R 1, R 2 and R 3 are each independently selected from an alkyl, an arylalkyl, an alkenyl group and a R'(OCH 2 CHR") x (OCH 2 CHR'") y (OCH 2 CHR"") z - group, wherein R' is an alkyl group having 1-4 carbon atoms, R", R'" and R"" are each independently selected from a hydrogen atom, a methyl group or an ethyl group and x, y, z are integers in the range of 0-20, wherein x+y+z is in the range of 4-30 and wherein R 4, R 5 and R 6 are each independently selected from a hydrogen atom and an alkyl group having 1 - 4 carbon atoms.
A positive electrode-active material comprising a composite oxide, the composite oxide having the general formula Li x Mn y Ni z Co u Al w O n, where 0 < x ≤ 2, the sum of y + z + u + w is 1 to 2, y, z, u and w are each greater than 0, 0.7 ≤ z / (y + z + u + w) < 1.0, and 2≤n≤4 characterized in that the composite oxide is in a single-phase morphology in which the distribution of each metal element is ideally defined by unit cells of the crystal structure.
A method of cleaning the bottom interstitial space and/or wall interstitial space of a storage tank (100; 200) in the event of a sealing failure in the bottom interstitial space and/or wall interstitial space of a storage tank (100; 200), consisting in that the emptied storage space of a storage tank (100; 200) is supplied in a continuous manner with fresh air through at least one inspection hatch thus ventilating the storage space of the storage tank (100; 200) by means of ventilators, and consisting in the continuous monitoring of the storage space of the storage tank (100; 200) by means of sensors measuring the level of an explosive atmosphere and determining the concentration of carbohydrates as percentage with respect to the lower and upper explosive limit of gases and oxygen content in the storage space of the storage tank (100; 200), as well as the minimum admissible concentration of toxic gases in the storage space of the storage tank (100; 200), wherein a fluid is sucked in, in the case of low-pressure function of bottom interstitial space and/or wall interstitial space, or forced in, in the case of high-pressure function of bottom interstitial space and/or wall interstitial space, into the bottom interstitial space and/or wall interstitial space, and subsequently, after filling the bottom interstitial space and/or wall interstitial space of a storage tank (100; 200) with the fluid, the sucked-in or forced-in fluid, respectively, which has been mixed with the product remaining in the bottom interstitial space and/or wall interstitial space, which product previously penetrated into the bottom interstitial space and/or wall interstitial space of the storage tank (100; 200) due to sealing failure, is respectively sucked off or drained from the bottom interstitial space and/or wall interstitial space, wherein in the course of, respectively, sucking off or draining the fluid that was mixed with the product remaining in the bottom interstitial space and/or wall interstitial space a neutral gas is forced into the bottom interstitial space and/or wall interstitial space of the storage tank (100; 200), and the concentration of explosive gases in the bottom interstitial space and/or wall interstitial space of the storage tank (110; 200) is measured in a continuous manner, and in the case the measurement is beyond the admissible range, the process of cleaning the bottom interstitial space and/or wall interstitial space of the storage tank (110; 200) is repeated until the concentration of explosive gases reaches the lower explosive limit.
Modular roof element, comprising: - a first plate for forming a support structure; - a second plate of a plastic material arranged above the first plate; - a first and a second longitudinal profile, wherein a first longitudinal side (11, 21) and second longitudinal side (12, 22) of the first and second plate are supported in respectively the first and second longitudinal profile; - a first and a second transverse profile which each connect the first longitudinal profile to the second longitudinal profile, said first and second transverse profile each extending above the first plate; wherein said first transverse profile is close to a first transverse side of the second plate; and said second transverse profile is close to a second transverse side of the second plate; and that the first transverse profile is provided with a first coupling profile for coupling the first transverse side of the second plate to a second transverse profile of an adjacent modular roof element. - a first plate for forming a support structure; - a second plate of a plastic material arranged above the first plate; - a first and a second longitudinal profile, wherein a first longitudinal side (11, 21) and second longitudinal side (12, 22) of the first and second plate are supported in respectively the first and second longitudinal profile; - a first and a second transverse profile which each connect the first longitudinal profile to the second longitudinal profile, said first and second transverse profile each extending above the first plate;
Multilayer structure for making a rollable floor covering comprising an upper wear layer bonded to a polymer backing layer whose lower face is intended to be in contact with the floor, said backing layer comprising successively a first reinforced layer with a first reinforcement and a second reinforced layer with a second reinforcement, characterized in that the first reinforcement is located in the first 40% of the thickness of the backing layer from the upper face of said backing layer and the second reinforcement is a reinforcing grid and is located in the lower half of the thickness of the backing layer, and in that the second reinforced layer is a foamed, gelled plastisol layer, and in that the second reinforcement is a reinforcing grid impregnated into the second reinforced layer.