mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a horseshoe, wherein the following steps are carried out: a) at least partially visualizing the hoof to be shod in order to determine the measurements necessary to produce a shoe adapted to this hoof, b) processing said measurements in order to deduce therefrom a provisional form of the horseshoe, c) recording the definitive parameters for said horseshoe, and d) producing the horseshoe from said definitive parameters, characterized in that - before step b), the potential existence of at least one area of inflammation and/or at least one area of reduced blood circulation of the horse's foot, the hoof of which is intended to receive said shoe, is determined by means of an infrared detector, and - the existence of at least one such zone is taken into account in step b) in order to determine said provisional form and/or said structure of said horseshoe. a) at least partially visualizing the hoof to be shod in order to determine the measurements necessary to produce a shoe adapted to this hoof, b) processing said measurements in order to deduce therefrom a provisional form of the horseshoe, c) recording the definitive parameters for said horseshoe, and d) producing the horseshoe from said definitive parameters, characterized in that - before step b), the potential existence of at least one area of inflammation and/or at least one area of reduced blood circulation of the horse's foot, the hoof of which is intended to receive said shoe, is determined by means of an infrared detector, and - the existence of at least one such zone is taken into account in step b) in order to determine said provisional form and/or said structure of said horseshoe. - before step b), the potential existence of at least one area of inflammation and/or at least one area of reduced blood circulation of the horse's foot, the hoof of which is intended to receive said shoe, is determined by means of an infrared detector, and - the existence of at least one such zone is taken into account in step b) in order to determine said provisional form and/or said structure of said horseshoe.
A complexing agent of formula: wherein: - Chrom 1, Chrom 2 and Chrom 3, independently of one another, represent a group of formula: provided that the compound of formula comprises (i) one or two groups selected from the groups (Ia) and (Ib) and (ii) at least one L 1 -CO-R group; - R is a ―OR 2 or -NH-E group; - R 1 is a ―CO 2 H or ―P R 3 group; - R 2 is H or a (C 1 -C 4)alkyl; - R 3 is a (C 1 -C 4)alkyl, preferably methyl; phenyl optionally substituted by a ―SO 3 - group, the latter preferably in the meta or para position; or benzyl; - L 1 is a direct bond; a ―(CH 2) r ― group optionally interrupted by at least one atom selected from an oxygen atom, a nitrogen atom and a sulphur atom; a -CH=CH- group; a -CH=CH-CH 2 - group; a ―CH 2 -CH=CH- group; or a PEG group; - L 2 is a divalent linking group; - G is a reactive group selected from an amine optionally protected in -NHBoc form, a succinimidyl ester, a haloacetamide, a hydrazine, an isothiocyanate, a maleimide group, or a carboxylic acid optionally protected as a ―CO 2 Me, -CO 2 tBu group.; E is a ―CH 2 -(CH 2) s -CH 2 -SO 3 - or ―(CH 2) s -N + Alk 1 Alk 2 Alk 3 group, or a sulfobetaine, wherein said sulfobetaine has one of the following formulae: with R 4 which represents a (C 1 -C 6)alkyl, and t which is equal to 1, 2, 3, 4, 5 or 6; - r is an integer from 1 to 6, preferably from 1 to 3; - s is 0, 1 or 2; - Alk 1, Alk 2, Alk 3, which may be identical or different, represent a (C 1 -C 6)alkyl. - Chrom 1, Chrom 2 and Chrom 3, independently of one another, represent a group of formula: provided that the compound of formula comprises (i) one or two groups selected from the groups (Ia) and (Ib) and (ii) at least one L 1 -CO-R group; - R is a ―OR 2 or -NH-E group; - R 1 is a ―CO 2 H or ―P R 3 group; - R 2 is H or a (C 1 -C 4)alkyl; - R 3 is a (C 1 -C 4)alkyl, preferably methyl; phenyl optionally substituted by a ―SO 3 - group, the latter preferably in the meta or para position; or benzyl; - L 1 is a direct bond; a ―(CH 2) r ― group optionally interrupted by at least one atom selected from an oxygen atom, a nitrogen atom and a sulphur atom; a -CH=CH- group; a -CH=CH-CH 2 - group; a ―CH 2 -CH=CH- group; or a PEG group; - L 2 is a divalent linking group; - G is a reactive group selected from an amine optionally protected in -NHBoc form, a succinimidyl ester, a haloacetamide, a hydrazine, an isothiocyanate, a maleimide group, or a carboxylic acid optionally protected as a ―CO 2 Me, -CO 2 tBu group.; - r is an integer from 1 to 6, preferably from 1 to 3; - s is 0, 1 or 2; - Alk 1, Alk 2, Alk 3, which may be identical or different, represent a (C 1 -C 6)alkyl.
A screen, preferably for use in the wood-working industry, at which the screening is implemented by means of meshes having different mesh sizes and comprising a number of mesh levels one above another, with which screen wood-based raw material is screened into different-sized fractions, preferably after chipping and drying, which screen comprises a frame part and a moving part, wherein the moving part of the screen comprises at least two screen modules and at least one frame module, characterized in that the pressure of a dust explosion possibly occurring in a screen module is conducted in the frame module via at least one flame extinguisher of the screen and/or that the walls facing towards the frame module of the screen modules are provided with explosion hatches and/or burst discs for directing the pressure of a dust explosion into the space of the frame module and/or between the screen modules and from there either upwards or downwards into a free space. the pressure of a dust explosion possibly occurring in a screen module is conducted in the frame module via at least one flame extinguisher of the screen and/or that the walls facing towards the frame module of the screen modules are provided with explosion hatches and/or burst discs for directing the pressure of a dust explosion into the space of the frame module and/or between the screen modules and from there either upwards or downwards into a free space.
A polypropylene modified material, characterized in that, it comprises components of following percentage by weight: homo-polypropylene 10-40wt%, polypropylene copolymer 35-60wt%, polyolefin elastomer 5-15wt%, polyethylene 10-20wt%, nucleating agent 0.03-0.08wt%, antioxidant 0.03-0.06wt%, and fluidity modifier 2-6wt%.
A liner assembly (60, 62) for a combustor of a gas turbine engine having a central longitudinal axis, comprising: a grommet and with a multiple of grommet cooling passages (122, 124); wherein said multiple of grommet cooling passages (122, 124) include a multiple of leading edge grommet cooling passages directed generally downstream and a multiple of trailing edge grommet cooling passages directed generally upstream, wherein said multiple of grommet cooling passages (122, 124) include an inlet in a sidewall of said grommet and an outlet in a hot surface of said grommet. characterized in that; said multiple of grommet cooling passages (122, 124) are generally perpendicular with respect to a line drawn through a ninety and a two-hundred seventy degree position with respect to said grommet and wherein a zero degree position is parallel to the engine central longitudinal axis, wherein said multiple of leading edge grommet cooling passages are opposed to said multiple of trailing edge grommet cooling passages and wherein the zero degree position is arranged with respect to a local combustion gas flow. a grommet and with a multiple of grommet cooling passages (122, 124); wherein said multiple of grommet cooling passages (122, 124) include a multiple of leading edge grommet cooling passages directed generally downstream and a multiple of trailing edge grommet cooling passages directed generally upstream, wherein said multiple of grommet cooling passages (122, 124) include an inlet in a sidewall of said grommet and an outlet in a hot surface of said grommet. characterized in that; said multiple of grommet cooling passages (122, 124) are generally perpendicular with respect to a line drawn through a ninety and a two-hundred seventy degree position with respect to said grommet and wherein a zero degree position is parallel to the engine central longitudinal axis, wherein said multiple of leading edge grommet cooling passages are opposed to said multiple of trailing edge grommet cooling passages and wherein the zero degree position is arranged with respect to a local combustion gas flow.
A method for operating an acetylene hydrogenation unit in an integrated steam cracking-fluidized catalytic dehydrogenation (FCDh) system, the method comprising: cracking at least a portion of a first hydrocarbon feed in a steam cracking system to produce a cracked gas comprising at least hydrogen, carbon monoxide, and acetylene; dehydrogenating at least a portion of a second hydrocarbon feed in an FCDh system to produce an FCDh effluent comprising at least hydrogen and CO; separating the cracked gas and at least a portion of the FCDh effluent into a hydrogenation feed and an acetylene-depleted stream, the hydrogenation feed comprising at least hydrogen, CO, and acetylene, wherein the hydrogenation feed comprises at least 95% of the CO from the cracked gas and the FCDh effluent, and wherein during normal operating conditions at least 20% of the CO in the hydrogenation feed is from the cracked gas; and contacting the hydrogenation feed with an acetylene hydrogenation catalyst in an acetylene hydrogenation unit, the contacting causing hydrogenation of at least a portion of the acetylene in the hydrogenation feed to produce a hydrogenated effluent; wherein the steam cracking system is operated under conditions that increase CO production such that a concentration of CO in the cracked gas is great enough that when a flowrate of the FCDh effluent is zero, a CO concentration in the hydrogenation feed is at least 100 ppmv; wherein the term 'normal operating conditions' refers to high temperature, steady state conditions such as temperatures suitable for catalytic reaction of a given reaction. cracking at least a portion of a first hydrocarbon feed in a steam cracking system to produce a cracked gas comprising at least hydrogen, carbon monoxide, and acetylene; dehydrogenating at least a portion of a second hydrocarbon feed in an FCDh system to produce an FCDh effluent comprising at least hydrogen and CO; separating the cracked gas and at least a portion of the FCDh effluent into a hydrogenation feed and an acetylene-depleted stream, the hydrogenation feed comprising at least hydrogen, CO, and acetylene, wherein the hydrogenation feed comprises at least 95% of the CO from the cracked gas and the FCDh effluent, and wherein during normal operating conditions at least 20% of the CO in the hydrogenation feed is from the cracked gas; and contacting the hydrogenation feed with an acetylene hydrogenation catalyst in an acetylene hydrogenation unit, the contacting causing hydrogenation of at least a portion of the acetylene in the hydrogenation feed to produce a hydrogenated effluent; wherein the steam cracking system is operated under conditions that increase CO production such that a concentration of CO in the cracked gas is great enough that when a flowrate of the FCDh effluent is zero, a CO concentration in the hydrogenation feed is at least 100 ppmv; wherein the term 'normal operating conditions' refers to high temperature, steady state conditions such as temperatures suitable for catalytic reaction of a given reaction.
A window sensing device for securing to a window sash comprising: a housing, an accelerometer configured to sense movement of a window sash in a given direction of travel, a magnetic sensor configured to sense presence of a magnet (34; 96), a wireless transmitter circuit and an electronic controller configured to receive an input from the accelerometer and an input from the magnetic sensor, the electronic controller configured to control the wireless transmitter circuit to output a normal state wireless signal when the magnetic sensor senses the presence of the magnet (34; 96) and to output an alarm state wireless signal when the magnetic sensor does not sense the presence of the magnet (34; 96), and when the electronic controller is controlling the wireless transmitter circuit to output an alarm state wireless signal and the accelerometer senses movement of a window sash, the electronic controller is configured to output an indication of movement of a window sash; and wherein the indication of movement provided by the electronic controller when the electronic controller is controlling the wireless transmitter circuit to output an alarm state wireless signal includes changing the output of the wireless transmitter circuit to a normal state wireless signal for a predetermined time and then changing the output to an alarm state wireless signal. a housing, an accelerometer configured to sense movement of a window sash in a given direction of travel, a magnetic sensor configured to sense presence of a magnet (34; 96), a wireless transmitter circuit and an electronic controller configured to receive an input from the accelerometer and an input from the magnetic sensor, the electronic controller configured to control the wireless transmitter circuit to output a normal state wireless signal when the magnetic sensor senses the presence of the magnet (34; 96) and to output an alarm state wireless signal when the magnetic sensor does not sense the presence of the magnet (34; 96), and when the electronic controller is controlling the wireless transmitter circuit to output an alarm state wireless signal and the accelerometer senses movement of a window sash, the electronic controller is configured to output an indication of movement of a window sash; and
A vacuum pump comprising at least one ionizing pump stage which comprises: - an inlet for gas entering into the pump stage; - an ionizing section communicating with the inlet in a gas-conductive manner and an ionizing device for ionizing the gas which has entered into the ionizing section; - an acceleration device for accelerating the ionized gas present in the ionizing section in a conveying direction of the gas; - a neutralizing section following the ionizing section in the conveying direction and communicating with the ionizing section in a gas-conductive manner and a neutralizing device for the electrical neutralizing of the ionized gas entering into the neutralizing section; - an inlet flange which forms the inlet of the ionizing pump stage; and - an outlet flange which forms the outlet of the ionizing pump stage, and said vacuum pump comprising a turbomolecular pump stage, wherein the ionizing pump stage is connectable to a vacuum chamber or to a recipient via the inlet flange; and wherein the ionizing pump stage is connected to the turbomolecular pump stage via the outlet flange. - an inlet for gas entering into the pump stage; - an ionizing section communicating with the inlet in a gas-conductive manner and an ionizing device for ionizing the gas which has entered into the ionizing section; - an acceleration device for accelerating the ionized gas present in the ionizing section in a conveying direction of the gas; - a neutralizing section following the ionizing section in the conveying direction and communicating with the ionizing section in a gas-conductive manner and a neutralizing device for the electrical neutralizing of the ionized gas entering into the neutralizing section; - an inlet flange which forms the inlet of the ionizing pump stage; and - an outlet flange which forms the outlet of the ionizing pump stage, and
A compound represented by the structure of formula: or its optical isomer, or a pharmaceutically acceptable salt thereof, or any combination thereof.
An electrical switch comprising: * a housing having a receiving portion; * an actuation member in the form of a pushbutton extending out of the housing and comprising an actuating portion formed by an extension extending into the housing, the pushbutton being arranged, when an external force is applied to the pushbutton, to be moved vertically relative to the housing between a pushbutton upper position and a pushbutton lower position; * at least a first pair of associated contact elements comprising: ** a first fixed contact element (58A, 60A) provided in the receiving portion; ** a first movable contact element (62A, 64A) arranged facing the first fixed contact element (58A, 60A) and that may come into contact with the first fixed contact element for establishing a first conductive switching way between the first movable contact element (62A, 64A) and the first fixed contact element; and * a first elastically deformable conductive blade in the form of a hairpin supported by said receiving portion; characterised in that said first blade comprises a fixed branch, and an active branch, wherein said first movable contact element is a movable portion of said active branch of said first blade, and wherein said actuating portion of the actuation member comprises a first cam which co-operates with a cam follower portion (74A, 76A) of said active branch of said first blade to deform or relax said active branch of said first blade for longitudinally moving the said first movable contact element (62A, 64A) to come into contact, or out of contact, with the said portion of the first fixed contact element (58A, 60A), depending on the vertical position of the actuation member. * a housing having a receiving portion; * an actuation member in the form of a pushbutton extending out of the housing and comprising an actuating portion formed by an extension extending into the housing, the pushbutton being arranged, when an external force is applied to the pushbutton, to be moved vertically relative to the housing between a pushbutton upper position and a pushbutton lower position; * at least a first pair of associated contact elements comprising: ** a first fixed contact element (58A, 60A) provided in the receiving portion; ** a first movable contact element (62A, 64A) arranged facing the first fixed contact element (58A, 60A) and that may come into contact with the first fixed contact element for establishing a first conductive switching way between the first movable contact element (62A, 64A) and the first fixed contact element; and ** a first fixed contact element (58A, 60A) provided in the receiving portion; ** a first movable contact element (62A, 64A) arranged facing the first fixed contact element (58A, 60A) and that may come into contact with the first fixed contact element for establishing a first conductive switching way between the first movable contact element (62A, 64A) and the first fixed contact element; and * a first elastically deformable conductive blade in the form of a hairpin supported by said receiving portion;
A method for operating a blast furnace in which a solid reducing agent and an inflammable reducing agent are injected from a tuyere through a lance, wherein the lance is a double tube lance, the method comprising: injecting a mixed reducing agent which is made by mixing the solid reducing agent and the inflammable reducing agent into the blast furnace, characterized in that the mixed reducing agent, which is made by mixing the solid reducing agent and the inflammable reducing agent, is injected through an inner tube of the double tube lance; and a combustion improving gas is injected into the blast furnace through an outer tube of the double tube lance, or wherein a combustion improving gas is injected into the blast furnace through an inner tube of the double tube lance; and the mixed reducing agent, which is made by mixing the solid reducing agent and the inflammable reducing agent, is injected through an outer tube of the double tube lance, and a ratio of the inflammable reducing agent to the total amount of all gasses or the inflammable reducing agent and the combustion improvement gas to the total amount of all gasses is from 25 volume% to 95 volume%, the total amount of all gasses being injected through the double tube lance. injecting a mixed reducing agent which is made by mixing the solid reducing agent and the inflammable reducing agent into the blast furnace, characterized in that the mixed reducing agent, which is made by mixing the solid reducing agent and the inflammable reducing agent, is injected through an inner tube of the double tube lance; and a combustion improving gas is injected into the blast furnace through an outer tube of the double tube lance, or wherein a combustion improving gas is injected into the blast furnace through an inner tube of the double tube lance; and the mixed reducing agent, which is made by mixing the solid reducing agent and the inflammable reducing agent, is injected through an outer tube of the double tube lance, and the mixed reducing agent, which is made by mixing the solid reducing agent and the inflammable reducing agent, is injected through an inner tube of the double tube lance; and a combustion improving gas is injected into the blast furnace through an outer tube of the double tube lance, or wherein a combustion improving gas is injected into the blast furnace through an inner tube of the double tube lance; and the mixed reducing agent, which is made by mixing the solid reducing agent and the inflammable reducing agent, is injected through an outer tube of the double tube lance, a ratio of the inflammable reducing agent to the total amount of all gasses or the inflammable reducing agent and the combustion improvement gas to the total amount of all gasses is from 25 volume% to 95 volume%, the total amount of all gasses being injected through the double tube lance.
A wind turbine configured as a multi-rotor wind turbine, comprising: a plurality of energy generating units, each energy generating unit including a rotor having at least one wind turbine blade wherein the rotor is configured to rotate under a primary airflow and a generator configured to convert the rotation of the rotor into electrical energy; a support structure for carrying the energy generating units, the support structure having an aerodynamic portion which is exposed to the primary airflow and/or a secondary airflow resulting from the rotation of the rotor of at least one of the energy generating units, and the aerodynamic portion having an upstream side and a downstream side; the support structure includes a tower generally defining a tower axis and a plurality of support arms, each support arm being coupled to the tower and carrying an energy generating unit at a spaced distance from the tower axis; and a fairing coupled to the support structure and positioned along a downstream side of the aerodynamic portion and defining a trailing edge, wherein the trailing edge has a corrugated profile. a plurality of energy generating units, each energy generating unit including a rotor having at least one wind turbine blade wherein the rotor is configured to rotate under a primary airflow and a generator configured to convert the rotation of the rotor into electrical energy; a support structure for carrying the energy generating units, the support structure having an aerodynamic portion which is exposed to the primary airflow and/or a secondary airflow resulting from the rotation of the rotor of at least one of the energy generating units, and the aerodynamic portion having an upstream side and a downstream side; the support structure includes a tower generally defining a tower axis and a plurality of support arms, each support arm being coupled to the tower and carrying an energy generating unit at a spaced distance from the tower axis; and a fairing coupled to the support structure and positioned along a downstream side of the aerodynamic portion and defining a trailing edge, wherein the trailing edge has a corrugated profile.
A wet wipe for feminine intimate care, characterized by a liquid formulation comprising an effective content of monk's pepper fruit extract (vitex agnus-castus) and an effective content of a cactus extract of the opuntia genus.