mhurhangee/patent-ind-claim-en huggingface dataset:
A process for obtaining a carbon black composition, comprising or consisting of the following steps: (A) subjecting a hydrocarbon raw material into a high temperature combustion gas stream in order to achieve thermochemical decomposition, (B) cooling the reaction gases and (C) recovering of the carbon black thus obtained, wherein said combustion gas stream consists of at least one oxidant and at least one fuel component, (i) at least a part of said oxidant and/or said fuel component is subjected to an electrical pre-heating step before it is introduced into the pre-combustion chamber to form a high temperature combustion gas stream; (ii) said high-temperature combustion gas stream of step (i) is transferred into a choke area for combustion; and (iii) and the combustion products obtained in step (ii) are transferred into a reaction tunnel including a terminating zone to form carbon black particles to be recovered, and wherein the process is conducted in the furnace reactor according to Claim 11. (A) subjecting a hydrocarbon raw material into a high temperature combustion gas stream in order to achieve thermochemical decomposition, (B) cooling the reaction gases and (C) recovering of the carbon black thus obtained, said combustion gas stream consists of at least one oxidant and at least one fuel component, (i) at least a part of said oxidant and/or said fuel component is subjected to an electrical pre-heating step before it is introduced into the pre-combustion chamber to form a high temperature combustion gas stream; (ii) said high-temperature combustion gas stream of step (i) is transferred into a choke area for combustion; and (iii) and the combustion products obtained in step (ii) are transferred into a reaction tunnel including a terminating zone to form carbon black particles to be recovered, (i) at least a part of said oxidant and/or said fuel component is subjected to an electrical pre-heating step before it is introduced into the pre-combustion chamber to form a high temperature combustion gas stream; (ii) said high-temperature combustion gas stream of step (i) is transferred into a choke area for combustion; and (iii) and the combustion products obtained in step (ii) are transferred into a reaction tunnel including a terminating zone to form carbon black particles to be recovered, and wherein the process is conducted in the furnace reactor according to Claim 11.
A wire grid polarizer (WGP) comprising: ribs located over a surface of a transparent substrate, wherein the ribs are elongated and arranged in an array; gaps between at least a portion of the ribs; and a conformal-coating located over the ribs, wherein the conformal-coating includes a barrier layer, the barrier layer including at least one of aluminum oxide, silicon oxide, silicon nitride, silicon oxynitride, silicon carbide, hafnium oxide, zirconium oxide, and a rare earth oxide. ribs located over a surface of a transparent substrate, wherein the ribs are elongated and arranged in an array; gaps between at least a portion of the ribs; and a conformal-coating located over the ribs, wherein the conformal-coating includes a barrier layer, the barrier layer including at least one of aluminum oxide, silicon oxide, silicon nitride, silicon oxynitride, silicon carbide, hafnium oxide, zirconium oxide, and a rare earth oxide.
An image processing device for a decoder apparatus comprising: a control section configured to set, based on a first scaling list of a first layer, a second scaling list for a second layer decoded with reference to the first layer; and an inverse quantization section configured to inversely quantize transform coefficient data of the second layer using the second scaling list set by the control section; and wherein the control section duplicates or predicts the second scaling list from the first scaling list; wherein the control section selects a setting technique for setting the second scaling list according to a setting technique flag decoded from an encoded stream; wherein, if a quantization matrix reuse flag decoded from an encoded stream specifies that the second scaling list is set based on the first scaling list, the control section sets the second scaling list based on the first scaling list. a control section configured to set, based on a first scaling list of a first layer, a second scaling list for a second layer decoded with reference to the first layer; and an inverse quantization section configured to inversely quantize transform coefficient data of the second layer using the second scaling list set by the control section; and wherein the control section duplicates or predicts the second scaling list from the first scaling list; wherein the control section selects a setting technique for setting the second scaling list according to a setting technique flag decoded from an encoded stream; wherein, if a quantization matrix reuse flag decoded from an encoded stream specifies that the second scaling list is set based on the first scaling list, the control section sets the second scaling list based on the first scaling list.
A device for connection of a tool to a robot arm, wherein said tool has electrical and/or service-fluid connections with said robot arm, said device comprising: - an annular body having a first face designed to be mounted on the wrist of a robot arm, a second face opposite to said first face , outer side walls , and inner side walls ; and - an apparatus for fixing said annular body to a connection body coupled to said tool; wherein said second face of said annular body is designed to be coupled to a face of said connection body ; and wherein said annular body comprises two or more bores or cavities that constitute passages or portions of said connections, and wherein said bores or cavities are designed to set themselves in a condition of mutual connection with corresponding bores or cavities made within said connection body ; wherein: associated to said two or more bores or cavities of said annular body is at least one opening that opens out on said first face and optionally at least one opening that opens out on at least one of the inner side walls of said annular body , at least one of the bores or cavities of said annular body and its associated opening that opens out on said first face houses an electrical connector, and at least one of the bores or cavities of said annular body and its associated opening that opens out on said first face is configured for supplying fluid to the connection body . - an annular body having a first face designed to be mounted on the wrist of a robot arm, a second face opposite to said first face , outer side walls , and inner side walls ; and - an apparatus for fixing said annular body to a connection body coupled to said tool; associated to said two or more bores or cavities of said annular body is at least one opening that opens out on said first face and optionally at least one opening that opens out on at least one of the inner side walls of said annular body , at least one of the bores or cavities of said annular body and its associated opening that opens out on said first face houses an electrical connector, and at least one of the bores or cavities of said annular body and its associated opening that opens out on said first face is configured for supplying fluid to the connection body .
Loop for extracting water from an air conditioning system of a cabin of an air or rail transport vehicle comprising an air cycle turbine engine , said loop comprising: - a condenser comprising a first air circuit, called a moist air circuit , extending between a moist air inlet mouth and a moist air outlet box , intended to convey a stream of moist air loaded with water vapor, and a second circuit, called a dry air circuit, extending between a dry air inlet and a dry air outlet , in thermal interaction with said moist air circuit and intended to convey a stream of air coming from a turbine of said air cycle turbine engine to allow condensation of said stream of moist air, characterized in that it further comprises: - a three-dimensional mesh grid housed in said outlet box of said condenser and configured to be able to capture the water droplets from said stream of moist air condensed by said condenser , - a water recovery unit opening on said outlet box of said condenser and arranged under said three-dimensional mesh grid in order to be able to recover, by force of gravity, the water collected by said three-dimensional mesh grid , said recovery unit further being provided with a discharge port for the recovered water, - an air return pipe linking said outlet box of said condenser to a supply interface for directly or indirectly supplying said turbine of said air cycle turbine engine of said air conditioning system. - a condenser comprising a first air circuit, called a moist air circuit , extending between a moist air inlet mouth and a moist air outlet box , intended to convey a stream of moist air loaded with water vapor, and a second circuit, called a dry air circuit, extending between a dry air inlet and a dry air outlet , in thermal interaction with said moist air circuit and intended to convey a stream of air coming from a turbine of said air cycle turbine engine to allow condensation of said stream of moist air, - a three-dimensional mesh grid housed in said outlet box of said condenser and configured to be able to capture the water droplets from said stream of moist air condensed by said condenser , - a water recovery unit opening on said outlet box of said condenser and arranged under said three-dimensional mesh grid in order to be able to recover, by force of gravity, the water collected by said three-dimensional mesh grid , said recovery unit further being provided with a discharge port for the recovered water, - an air return pipe linking said outlet box of said condenser to a supply interface for directly or indirectly supplying said turbine of said air cycle turbine engine of said air conditioning system.
A fiber-optic acoustic sensing device , comprising a jacket delineating a cavity and a fiber-optic sensor , said fiber-optic sensor comprising an optical fiber and a holding device integral with the optical fiber , the holding device constituting a rigid body passed through by the optical fiber and fixed to the jacket at connection points , the jacket being passed through by the optical fiber between two points, the cavity comprising a mixed fluid comprising a liquid-based fluid and microspheres, characterized in that each microsphere is a micron or submicron sphere filled with gas and the rate of microspheres in the cavity relative to the volume of liquid is predetermined and a function of the target compressibility of the mixed fluid and the volume of the cavity delineated by the jacket , the target compressibility being less than a maximum compressibility of the mixed fluid, the maximum compressibility of the mixed fluid for a maximum target immersion of the device being a function of the total volume of the mixed fluid inside the jacket, of the volume of mixed fluid contained in the jacket and outside the cavity, and the pressure at said maximum target immersion.
A magnetic resonance imaging system , comprising: at least one processor configured to: receive diffusion weighted imaging data from a region of interest of a subject, such as a liver, based on a diffusion weighted imaging sequence with magnetic gradient fields applied in three orthogonal directions and with different b-values; detect motion corrupted data present in the received imaging data based on a comparison of data redundant in the received diffusion weighted imaging data, wherein the data redundancy exists in the diffusion weighted imaging data received for the magnetic gradient fields applied in the three orthogonal directions as a consequence of diffusion being isotropic in the region of interest, wherein the motion corrupted data is detected when a difference between the diffusion weighted imaging data from two of the three orthogonal directions and the diffusion weighted imaging data from the remaining third orthogonal direction of the three orthogonal directions exceeds a threshold amount; and substitute alternative data for detected motion corrupted data. receive diffusion weighted imaging data from a region of interest of a subject, such as a liver, based on a diffusion weighted imaging sequence with magnetic gradient fields applied in three orthogonal directions and with different b-values; detect motion corrupted data present in the received imaging data based on a comparison of data redundant in the received diffusion weighted imaging data, wherein the data redundancy exists in the diffusion weighted imaging data received for the magnetic gradient fields applied in the three orthogonal directions as a consequence of diffusion being isotropic in the region of interest, wherein the motion corrupted data is detected when a difference between the diffusion weighted imaging data from two of the three orthogonal directions and the diffusion weighted imaging data from the remaining third orthogonal direction of the three orthogonal directions exceeds a threshold amount; and substitute alternative data for detected motion corrupted data.
Device for conditioning an operating fluid on a test bench , the device comprising an operating line arrangement for the operating fluid that opens into a test object in a feed , the operating fluid fed into the feed being controllable to an inlet temperature (T a ) within an operating temperature range, the device comprising a conditioning line arrangement via which at least one heat transfer fluid is directed to at least one heat exchanger , and the at least one heat exchanger being arranged for heat exchange between the conditioning line arrangement and the operating line arrangement , the conditioning line arrangement comprising at least one first heat transfer medium inlet for supplying a first heat transfer fluid stream having a first heat transfer medium temperature (T l ), characterized in that the conditioning line arrangement comprises at least one second heat transfer medium inlet for supplying a second heat transfer fluid stream having a second heat transfer medium temperature (T h ), the first heat transfer medium temperature (T l ) being adjustable to a value below the operating temperature range and the second heat transfer medium temperature (T h ) being adjustable to a value above the operating temperature range, and the device comprising an adjustment valve arrangement by means of which the inlet temperature (T a ) of the operating fluid can be dynamically controlled within the operating temperature range by controlled mixing of at least two fluids having different temperatures.
A pipe organ reed pipe tuning device , which includes: at least one soundwave oscillation sensor ; a reed pipe tuning mechanism comprising at least an actuator configured to move a tuning wire of a reed pipe; and a microcontroller , configured to control the reed pipe tuning mechanism and connected to the at least one soundwave oscillation sensor, characterized in that the tuning mechanism further comprises an inertial armature , on which the at least one actuator and two anvils are mounted, the two anvils being attached to the tuning wire of the reed pipe , wherein the inertial armature is configured to move the tuning wire for controlling the vibration frequency of the reed pipe by selectively knocking one of the two anvils , the least one actuators are one or several electromagnets . at least one soundwave oscillation sensor ; a reed pipe tuning mechanism comprising at least an actuator configured to move a tuning wire of a reed pipe; and a microcontroller , configured to control the reed pipe tuning mechanism and connected to the at least one soundwave oscillation sensor, characterized in that the tuning mechanism further comprises an inertial armature , on which the at least one actuator and two anvils are mounted, the two anvils being attached to the tuning wire of the reed pipe , wherein the inertial armature is configured to move the tuning wire for controlling the vibration frequency of the reed pipe by selectively knocking one of the two anvils , the least one actuators are one or several electromagnets .
A capillary evaporator for a heat transfer system, the evaporator comprising: - a heat energy receiving member comprising a base and a plurality of projections , each projection extending from the base to a top , and whose size decreases with the distance from the base, each projection having lateral flanks , - a primary wick made of a first porous material and having a front face adjacent to the top of the projections, the lateral flanks of the projections delimiting with the primary wick empty spaces forming vapour channels , characterised in that the lateral flanks of the projections are coated with a thin layer of porous material, made of a second material different from the first material. - a heat energy receiving member comprising a base and a plurality of projections , each projection extending from the base to a top , and whose size decreases with the distance from the base, each projection having lateral flanks , - a primary wick made of a first porous material and having a front face adjacent to the top of the projections, the lateral flanks of the projections delimiting with the primary wick empty spaces forming vapour channels ,
A node included in an optical power supply system which includes three or more nodes and a multi-core fiber having a plurality of cores , the multi-core fiber being used in at least a partial segment of the connection between the nodes , the node comprising: a power supply light dropping unit configured to drop a portion or all of a power supply light from one core of the plurality of cores of the multi-core fiber ; a photoelectric conversion unit configured to convert the portion or all of the power supply light dropped by the power supply light dropping unit to an electrical signal; and a power supply target facility configured to operate with the electrical signal converted by the photoelectric conversion unit , characterized in that : the multi-core fiber has a common cladding to the plurality of cores of the multi-core fiber in a cross-sectional view of the multi-core fiber and, each of the plurality of cores of the multi-core fiber does not contain the other of the plurality of cores of the multi-core fiber . a power supply light dropping unit configured to drop a portion or all of a power supply light from one core of the plurality of cores of the multi-core fiber ; a photoelectric conversion unit configured to convert the portion or all of the power supply light dropped by the power supply light dropping unit to an electrical signal; and a power supply target facility configured to operate with the electrical signal converted by the photoelectric conversion unit , characterized in that : the multi-core fiber has a common cladding to the plurality of cores of the multi-core fiber in a cross-sectional view of the multi-core fiber and, each of the plurality of cores of the multi-core fiber does not contain the other of the plurality of cores of the multi-core fiber . the multi-core fiber has a common cladding to the plurality of cores of the multi-core fiber in a cross-sectional view of the multi-core fiber and, each of the plurality of cores of the multi-core fiber does not contain the other of the plurality of cores of the multi-core fiber .
A filter fabric for an actively ventilated air purification system having a filter substrate formed from at least one live moss and provided along a thickness direction (Z) for ventilation, and having a carrier fabric on which the filter substrate is cultivated and arranged, characterized in that the carrier fabric has a honeycomb structure (W) formed from a plurality of honeycomb cells in which the filter substrate is cultivated and arranged and whose honeycomb walls extend parallel to the thickness direction (Z) of the filter substrate and are designed to be absorbent.
A concrete nailer comprising: a housing having a nose ; a drive system configured for driving a nail, the drive system including a drive track configured to guide the nail along a drive axis and a contact trip ; and a magazine connected to the housing ; wherein the magazine has a magazine interface disposed proximate to the drive track and the magazine interface is configured to cooperate with the drive track to guide nails along the drive axis in use to maintain orientation of the nails in the drive track relative to a work surface; wherein the contact trip extends from the nose towards the channel and is configured to be moveable into an actuated position when the contact trip is pressed against the channel characterised in that : the magazine has a bottom portion defining a cutout which is disposed proximate to the drive track and the cutout is configured to accommodate a side wall of a channel having a U-shape; and wherein the cutout is configured so that a reach (R) of the concrete nailer is from 60mm to 70mm when the contact trip is fully actuated and pressed against a base of the channel . a housing having a nose ; a drive system configured for driving a nail, the drive system including a drive track configured to guide the nail along a drive axis and a contact trip ; and a magazine connected to the housing ; wherein the magazine has a magazine interface disposed proximate to the drive track and the magazine interface is configured to cooperate with the drive track to guide nails along the drive axis in use to maintain orientation of the nails in the drive track relative to a work surface; wherein the contact trip extends from the nose towards the channel and is configured to be moveable into an actuated position when the contact trip is pressed against the channel characterised in that : the magazine has a bottom portion defining a cutout which is disposed proximate to the drive track and the cutout is configured to accommodate a side wall of a channel having a U-shape; and wherein the cutout is configured so that a reach (R) of the concrete nailer is from 60mm to 70mm when the contact trip is fully actuated and pressed against a base of the channel . the magazine has a bottom portion defining a cutout which is disposed proximate to the drive track and the cutout is configured to accommodate a side wall of a channel having a U-shape; and wherein the cutout is configured so that a reach (R) of the concrete nailer is from 60mm to 70mm when the contact trip is fully actuated and pressed against a base of the channel .
A binder composition for improved mortars and coatings, comprising a first standard mineral constituent selected from the group consisting of cements, masonry binders, pozzolanic and hydraulic binders, plaster and mixtures thereof and a second constituent based on powdered slaked lime, wherein said second constituent based on powdered slaked lime has a specific surface measured by nitrogen absorption manometry after vacuum degassing at 190°C for at least two hours and calculated according to the BET method which is lower than 12 m 2 /g, advantageously lower than 11 m 2 /g, especially lower than 10 m 2 /g, preferably lower than 9 m 2 /g, and wherein said second constituent is present in an amount equal to or greater than 12% by weight, preferably equal to or greater than 15% by weight, particularly equal to or greater than 20% by weight, in particular equal to or greater than 30% by weight, advantageously equal to or greater than 40% by weight and equal to or lower than 80% by weight, advantageously equal to or lower than 70% by weight, in particular equal to or lower than 60% by weight, based on the total weight of said binder composition.