mhurhangee/patent-ind-claim-en huggingface dataset:
A method for ironmaking by smelting reduction in a stir-generated vortex, comprising the following steps: placing a pig iron in an induction furnace, heating the pig iron to a molten state to form a molten iron, and maintaining a temperature of the molten iron to be greater than or equal to 1,450°C, wherein an amount of the pig iron is 5-20vol% of an induction furnace body; stirring the molten iron to form a vortex with a height-to-diameter ratio of 0.5-2.5, and continuously performing stirring; spraying and blowing a mixture of an iron-containing mineral, a reducing agent and a slag-forming agent to a center of the vortex to cause a reduction reaction, and stopping stirring after the molten iron and molten slags are obtained and a waste gas is produced, wherein a mass ratio of the iron-containing mineral, the reducing agent, and the slag-forming agent is 1 : (0.1-0.15) : (0.25-0.4); and discharging the molten iron and the molten slags respectively, and exhausting a treated waste gas. placing a pig iron in an induction furnace, heating the pig iron to a molten state to form a molten iron, and maintaining a temperature of the molten iron to be greater than or equal to 1,450°C, wherein an amount of the pig iron is 5-20vol% of an induction furnace body; stirring the molten iron to form a vortex with a height-to-diameter ratio of 0.5-2.5, and continuously performing stirring; spraying and blowing a mixture of an iron-containing mineral, a reducing agent and a slag-forming agent to a center of the vortex to cause a reduction reaction, and stopping stirring after the molten iron and molten slags are obtained and a waste gas is produced, wherein a mass ratio of the iron-containing mineral, the reducing agent, and the slag-forming agent is 1 : (0.1-0.15) : (0.25-0.4); and discharging the molten iron and the molten slags respectively, and exhausting a treated waste gas.
A vehicle suspension, comprising a hub carrier , on which a wheel hub is suitable for mounting, at least one suspension arm having an outer end connected to the hub carrier by a spherical hinge and an inner end suitable for attachment to a suspended structure (S) of the vehicle, and a shock absorber wherein at least one load responsive device is arranged on the suspension arm , said load responsive device comprising a sensor able to generate an output signal in response to a load applied to the suspension arm , wherein a control unit is provided configured to receive the output signal generated by the sensor and to adjust the stiffness of the shock absorber through a valve (V) adapted to vary passage cross-sections of the fluid contained in the shock absorber , said suspension being characterized in that said load responsive device is located on the spherical hinge of the outer end of the suspension arm . wherein at least one load responsive device is arranged on the suspension arm , said load responsive device comprising a sensor able to generate an output signal in response to a load applied to the suspension arm , wherein a control unit is provided configured to receive the output signal generated by the sensor and to adjust the stiffness of the shock absorber through a valve (V) adapted to vary passage cross-sections of the fluid contained in the shock absorber , said suspension being characterized in that said load responsive device is located on the spherical hinge of the outer end of the suspension arm .
A vulcanizable rubber composition comprising, based on 100 parts by weight of elastomer (phr), (A) from 80 to 20 phr of a solution polymerized styrene-butadiene rubber having a glass transition temperature (Tg) ranging from -85 °C to -50 °C; (B) from 20 to 80 phr of a natural rubber; (C) from 30 to 70 phr of a process oil; and (D) from 70 to 150 phr of silica; wherein the weight ratio of silica to oil is less than 2.2, characterized in that the solution polymerized styrene-butadiene rubber is functionalized with an alkoxysilane group and at least one functional group selected from the group consisting of primary amines and thiols. (A) from 80 to 20 phr of a solution polymerized styrene-butadiene rubber having a glass transition temperature (Tg) ranging from -85 °C to -50 °C; (B) from 20 to 80 phr of a natural rubber; (C) from 30 to 70 phr of a process oil; and (D) from 70 to 150 phr of silica;
A structure strengthening agent for a food product, comprising: a water-insoluble long-chain cellulose having a diameter of 0.1 μm or more and 3.5 μm or less and an aspect ratio of 2.0 or more; and a water-insoluble short-chain cellulose having a diameter of 5.0 μm or more and 50 μm or less and having an aspect ratio of 32.5 or less, the water-insoluble long-chain cellulose and the water-insoluble short-chain cellulose being contained in a mass ratio of 40:60 to 4:96. a water-insoluble long-chain cellulose having a diameter of 0.1 μm or more and 3.5 μm or less and an aspect ratio of 2.0 or more; and a water-insoluble short-chain cellulose having a diameter of 5.0 μm or more and 50 μm or less and having an aspect ratio of 32.5 or less, the water-insoluble long-chain cellulose and the water-insoluble short-chain cellulose being contained in a mass ratio of 40:60 to 4:96.
A lighting module comprising: a substrate ; a plurality of light emitting devices on the substrate ; a first resin layer for molding the plurality of light emitting devices ; and a first diffusion layer disposed on the first resin layer , a second resin layer disposed on the first diffusion layer, wherein the first diffusion layer comprises a phosphor, wherein the second resin layer comprises ink particles, characterised in that a content of the phosphor in the first diffusion layer is 10 wt% or more, and a content of the ink particles in the second resin layer is in a range of 4 wt% to 12 wt%. a substrate ; a plurality of light emitting devices on the substrate ; a first resin layer for molding the plurality of light emitting devices ; and a first diffusion layer disposed on the first resin layer , a second resin layer disposed on the first diffusion layer, wherein the first diffusion layer comprises a phosphor, wherein the second resin layer comprises ink particles, characterised in that a content of the phosphor in the first diffusion layer is 10 wt% or more, and a content of the ink particles in the second resin layer is in a range of 4 wt% to 12 wt%.
Braking system , in which, in order to actuate first braking means of a vehicle , which has an emergency release circuit , a braking pressure (B) adjusted by a braking arrangement acts on a braking actuator via a braking pressure path (VL6, VL7, VL8, VL9; VL6, VL7, VL8, VL10; VL6, VL7, VL11, VL12; VL6, VL7, VL11, VL13), characterised in that a common emergency release circuit is formed as part of the braking system from the emergency release circuit of the one vehicle , which is a vehicle to be towed of a group of vehicles , and an emergency release circuit of a further vehicle coupled to the one vehicle , which is a towing vehicle of the group of vehicles , such that an emergency release valve facility , which can be switched by means of the common emergency release circuit , is arranged in the course of the braking pressure path of the vehicle to be towed and that the common emergency release circuit can be activated by transferring a first actuation means (S1) of the vehicle to be towed into an ON position (S1.1) and alternatively by transferring a further first actuation means (S1) of the towing vehicle into a second ON position (S1.2), wherein, when the common emergency release circuit is activated in this way, the emergency release valve facility is situated in a first switching position (NL active), in which it causes a release of the first braking means from second braking means .
A combination of a green porphyrin (GP), an anti-VEGF antibody and an anti-inflammatory agent for use in a method for treating choroidal neovasculature (CNV) in a human subject using photodynamic therapy (PDT), said method comprising: (a) administering the GP to an ocular target tissue said subject afflicted with said neovasculature, and irradiating said ocular target tissue and the GP with electromagnetic radiation containing a wavelength absorbable by said GP, (b) within 2 hours after completing step (a), administering to said subject an effective amount of said anti-VEGF antibody, and (c) subsequent administering to said subject an effective amount of the anti-inflammatory agent, wherein closure of CNV in said subject is effected, wherein the irradiation is at a fluence rate that delivers a total light dose of about 25 J/cm 2 at the fluence rate of about 300 mW/cm 2 , or a total light dose of 15 J/cm 2 , at the fluence rate of about 180 mW/cm 2 . (a) administering the GP to an ocular target tissue said subject afflicted with said neovasculature, and irradiating said ocular target tissue and the GP with electromagnetic radiation containing a wavelength absorbable by said GP, (b) within 2 hours after completing step (a), administering to said subject an effective amount of said anti-VEGF antibody, and (c) subsequent administering to said subject an effective amount of the anti-inflammatory agent, wherein closure of CNV in said subject is effected,
A system for controlling the pitch setting of a propeller vane for an aircraft turbine engine, which comprises: - a vane comprising a blade connected to a root , - a cup comprising an annular wall extending around an pitch axis (A) of the vane , this annular wall comprising a lower axial end closed by a bottom wall , and an upper axial end which is open and configured to allow the mounting of the root of the vane inside the cup , the bottom wall comprising a recess having a non-circular cross-section and configured to receive a free end of complementary shape of said root so that the cup is secured in rotation to the root about said axis (A), the system for controlling the pitch setting of a propeller vane being characterized in that : - an immobilisation ring extending around said axis (A) and mounted around the root , this immobilisation ring being mounted within the cup and cooperating respectively with the root and the annular wall of the cup in order to ensure the axial retention of the root in the cup , and in that the system further comprises at least one safety element which ensures the retention of the root from the cup , said at least one safety element having a generally elongated shape and extending transversely to said axis (A), said at least one safety element passing through aligned orifices in the bottom wall of the cup as well as in the free end of the root . - a vane comprising a blade connected to a root , - a cup comprising an annular wall extending around an pitch axis (A) of the vane , this annular wall comprising a lower axial end closed by a bottom wall , and an upper axial end which is open and configured to allow the mounting of the root of the vane inside the cup , the bottom wall comprising a recess having a non-circular cross-section and configured to receive a free end of complementary shape of said root so that the cup is secured in rotation to the root about said axis (A), - an immobilisation ring extending around said axis (A) and mounted around the root , this immobilisation ring being mounted within the cup and cooperating respectively with the root and the annular wall of the cup in order to ensure the axial retention of the root in the cup ,
Labelling machine with a docking station for a labelling unit and with a labelling unit , comprising a device for fixing the labelling unit in a first position from which the labelling unit can then be lifted or lowered to a working position, wherein the device comprises a first part attached to the labelling unit and a second part attached to the docking station , wherein one of the both parts is deflectable by the other part when guiding the labelling unit towards the docking station and one of the both parts comprises a latching device into which the other part can latch, such that the labelling unit in relation to the docking station is fixed in the first position, and wherein the deflectable part comprises a deflectable element at whose side not being attached at the docking station or the labelling unit , a role sticking out downwards or upwards is arranged. wherein the device comprises a first part attached to the labelling unit and a second part attached to the docking station , wherein one of the both parts is deflectable by the other part when guiding the labelling unit towards the docking station and one of the both parts comprises a latching device into which the other part can latch, such that the labelling unit in relation to the docking station is fixed in the first position, and wherein the deflectable part comprises a deflectable element at whose side not being attached at the docking station or the labelling unit , a role sticking out downwards or upwards is arranged.
An apparatus for initiating data transfers, comprising: - a main processing unit ; - a plurality of processing units coupled to the main processing unit , wherein the main processing unit and each of the plurality of processing units is coupled to a local memory , a decryption unit , and a memory flow controller , wherein the memory flow controller is connected to the respective local memory via the decryption unit; and wherein at least one of the plurality of processing units is adapted to enter a normal mode of operation or a secure mode of operation; and - a shared memory , wherein the apparatus is configured to: - prohibit to initiate, by the main processing unit , data transfers from a given one of the processing units to the shared memory when the given processing unit is in the secure mode; - allow to initiate, by a unit external of the given processing unit , data transfers from the shared memory to the given processing unit when the given processing unit is in the secure mode, wherein the data transfers pass through the decryption unit , which decrypts the data transfer; and - initiate, by the main processing unit , data transfers between the shared memory and the given one of the processing units without the decryption processing in the decryption unit when the given processing unit is in the normal mode. - a main processing unit ; - a plurality of processing units coupled to the main processing unit , - a shared memory , wherein the apparatus is configured to: - prohibit to initiate, by the main processing unit , data transfers from a given one of the processing units to the shared memory when the given processing unit is in the secure mode; - allow to initiate, by a unit external of the given processing unit , data transfers from the shared memory to the given processing unit when the given processing unit is in the secure mode, wherein the data transfers pass through the decryption unit , which decrypts the data transfer; and - initiate, by the main processing unit , data transfers between the shared memory and the given one of the processing units without the decryption processing in the decryption unit when the given processing unit is in the normal mode.
A heat exchanger comprising: at least one refrigerant tube configured to comprise a plurality of sections arranged in a first direction; and a plurality of heat exchanger fins arranged on the plurality of sections, wherein each of the plurality of heat exchanger fins comprises a plurality of flat surfaces arranged in a second direction perpendicular to the first direction, and wherein each of the plurality of flat surfaces comprises: at least one through hole configured to allow at least one refrigerant tube to be inserted thereinto in the second direction; and at least one contact member configured to protrude from only one side of the flat surface around at least one through hole and surround an outer circumferential surface of the refrigerant tube; wherein the plurality of flat surfaces are arranged in adjacent pairs along the refrigerant tube; characterized in that said adjacent pairs of flat surfaces have their contact members protruding from opposite sides so as to protrude towards each other. at least one refrigerant tube configured to comprise a plurality of sections arranged in a first direction; and a plurality of heat exchanger fins arranged on the plurality of sections, wherein each of the plurality of heat exchanger fins comprises a plurality of flat surfaces arranged in a second direction perpendicular to the first direction, and wherein each of the plurality of flat surfaces comprises: at least one through hole configured to allow at least one refrigerant tube to be inserted thereinto in the second direction; and at least one contact member configured to protrude from only one side of the flat surface around at least one through hole and surround an outer circumferential surface of the refrigerant tube; wherein the plurality of flat surfaces are arranged in adjacent pairs along the refrigerant tube; characterized in that said adjacent pairs of flat surfaces have their contact members protruding from opposite sides so as to protrude towards each other. at least one through hole configured to allow at least one refrigerant tube to be inserted thereinto in the second direction; and at least one contact member configured to protrude from only one side of the flat surface around at least one through hole and surround an outer circumferential surface of the refrigerant tube; wherein the plurality of flat surfaces are arranged in adjacent pairs along the refrigerant tube; characterized in that said adjacent pairs of flat surfaces have their contact members protruding from opposite sides so as to protrude towards each other.
A method of communication at a wireless device, the method comprising: identifying a first redundancy version of a first code block cluster, CBC, for transmission during a transmission time interval, TTI, wherein the redundancy version represents a number of times a version of a given CBC has been transmitted; identifying a second redundancy version of a second CBC for transmission during the TTI, wherein identifying the second redundancy version of the second CBC is based on a received negative-acknowledgement, NACK, for a previously transmitted first redundancy version for the second CBC; and transmitting a control message and a transport block, wherein the transport block comprising the first CBC having the first redundancy version and the second CBC having the second redundancy version during the TTI and the control message comprising an indication of which redundancy version segments are included in the transport block. identifying a first redundancy version of a first code block cluster, CBC, for transmission during a transmission time interval, TTI, wherein the redundancy version represents a number of times a version of a given CBC has been transmitted; identifying a second redundancy version of a second CBC for transmission during the TTI, wherein identifying the second redundancy version of the second CBC is based on a received negative-acknowledgement, NACK, for a previously transmitted first redundancy version for the second CBC; and transmitting a control message and a transport block, wherein the transport block comprising the first CBC having the first redundancy version and the second CBC having the second redundancy version during the TTI and the control message comprising an indication of which redundancy version segments are included in the transport block.
A rotor wing aircraft capable of vertical take off, the aircraft being provided with a propulsion apparatus , wherein said aircraft comprises a rotating mast configured to rotate a rotor wing of the aircraft, said apparatus comprising a pole mechanically connected to the rotating mast of the aircraft at a point of attachment placed above the aircraft's collective swash plate and oscillating system , said pole being shaped in such a way as to avoid creating lift when put into rotation, wherein at one of the ends of said pole there is placed an electric turbine , powered by a battery, and configured to rotate the pole around an axis of the rotating mast in such a way that the rotation of the pole can be used to rotate the rotor wing , characterized in that the rotation of the pole takes place in a different plane with respect to the plane of rotation of the rotor wing .
A system for controlling the pitch of fan blades of a turbine engine propeller, the system comprising: an actuator capable of being secured to a casing of the turbine engine, having a movable portion that is movable in translation relative to said casing , the movable portion being capable of being mechanically coupled to a load transfer bearing (LTB) having an outer ring that is coupled to fan blade pivots so that a movement in translation of the movable portion of the actuator leads to a change in the pitch angle of said fan blade, characterized by at least one locking peg capable of being secured to the casing of the turbine engine and suitable, in the event of the actuator malfunctioning, for mechanically locking the load transfer bearing in a position in which the fan blades are feathered. an actuator capable of being secured to a casing of the turbine engine, having a movable portion that is movable in translation relative to said casing , the movable portion being capable of being mechanically coupled to a load transfer bearing (LTB) having an outer ring that is coupled to fan blade pivots so that a movement in translation of the movable portion of the actuator leads to a change in the pitch angle of said fan blade, characterized by at least one locking peg capable of being secured to the casing of the turbine engine and suitable, in the event of the actuator malfunctioning, for mechanically locking the load transfer bearing in a position in which the fan blades are feathered.
A coding method comprising: determining a coding mode of an input signal, based on characteristics of the input signal; extracting a linear prediction coefficient, LPC, from a low-frequency signal of the input signal; quantizing the LPC; performing code excited linear prediction, CELP, coding on an LPC excitation signal of the low-frequency signal of the input signal, when the coding mode of the input signal is a CELP coding mode, the LPC excitation signal being extracted using the quantized LPC; performing time-domain, TD, extension coding on a high-frequency signal of the input signal, when the CELP coding is performed on the LPC excitation signal; performing audio coding on the LPC excitation signal, when the coding mode of the input signal is an audio coding mode; and performing frequency-domain, FD, extension coding on the high-frequency signal of the input signal, when the audio coding is performed on the LPC excitation signal. determining a coding mode of an input signal, based on characteristics of the input signal; extracting a linear prediction coefficient, LPC, from a low-frequency signal of the input signal; quantizing the LPC; performing code excited linear prediction, CELP, coding on an LPC excitation signal of the low-frequency signal of the input signal, when the coding mode of the input signal is a CELP coding mode, the LPC excitation signal being extracted using the quantized LPC; performing time-domain, TD, extension coding on a high-frequency signal of the input signal, when the CELP coding is performed on the LPC excitation signal; performing audio coding on the LPC excitation signal, when the coding mode of the input signal is an audio coding mode; and performing frequency-domain, FD, extension coding on the high-frequency signal of the input signal, when the audio coding is performed on the LPC excitation signal.