mhurhangee/ep-ind-claims huggingface dataset:
A method for smelting saprolite ore, in which a pellet is formed from the saprolite ore, and the pellet is heat-reduced to obtain an iron-nickel alloy with a nickel grade of 16% or more, the method comprising: a pellet production step of producing a pellet from the saprolite ore, and a reduction step of heat-reducing the resulting pellet in a smelting furnace, the pellet production step comprising mixing the saprolite ore with at least a carbonaceous reducing agent, the mixed amount of the carbonaceous reducing agent being adjusted so that the amount of carbon is 0.1% or more and 25% or less when the total value of a chemical equivalent required for reducing nickel oxide contained in the resulting pellet into nickel metal and a chemical equivalent required for reducing iron oxide contained in said pellet into iron metal is taken as 100%, and agglomerating the resulting mixture to form a pellet, and the reduction step comprising pre-covering the furnace floor of the smelting furnace with a furnace floor carbonaceous reducing agent in an amount that enables a metal shell formed in the process of the reduction step to be melted before charging the resulting pellet into the smelting furnace, loading the pellet onto the furnace floor carbonaceous reducing agent, and heat-reducing the pellet loaded onto the furnace floor carbonaceous reducing agent at a heating temperature of 1350°C or more and 1550°C or less, wherein the time from the start of the heat reduction treatment until the pellet is taken out from the smelting furnace in the reduction step is less than 40 minutes. a pellet production step of producing a pellet from the saprolite ore, and a reduction step of heat-reducing the resulting pellet in a smelting furnace, the pellet production step comprising mixing the saprolite ore with at least a carbonaceous reducing agent, the mixed amount of the carbonaceous reducing agent being adjusted so that the amount of carbon is 0.1% or more and 25% or less when the total value of a chemical equivalent required for reducing nickel oxide contained in the resulting pellet into nickel metal and a chemical equivalent required for reducing iron oxide contained in said pellet into iron metal is taken as 100%, and agglomerating the resulting mixture to form a pellet, and the reduction step comprising pre-covering the furnace floor of the smelting furnace with a furnace floor carbonaceous reducing agent in an amount that enables a metal shell formed in the process of the reduction step to be melted before charging the resulting pellet into the smelting furnace, loading the pellet onto the furnace floor carbonaceous reducing agent, and heat-reducing the pellet loaded onto the furnace floor carbonaceous reducing agent at a heating temperature of 1350°C or more and 1550°C or less, wherein the time from the start of the heat reduction treatment until the pellet is taken out from the smelting furnace in the reduction step is less than 40 minutes.
Watch comprising a case housing a watch movement, and an element articulated to the case by means of an indexed-positioned hinge, the said hinge defining an axis of rotation and comprising: - a first part secured to the case, and - a second part secured to the element, the said parts being rotationally mobile relative to one another about the axis of rotation of the hinge, characterized in that the one of the parts comprises a shaft positioned along the said axis and in that the other part is engaged on the said shaft, and characterized in that, in order to define the said indexed positions, the hinge further comprises an elastic member interposed between the said parts and borne by one of them, the first part comprising first cavities and the second part comprising second cavities, the said first and second cavities being formed in such a way as to be able to collaborate with one another so as together to form a housing when they are positioned facing one another, and in that the elastic member is arranged in such a way as to - be in a position of rest in a housing formed by the collaboration of the cavities of the first and second parts when the hinge is in an indexed position, - be under stress in a housing formed by the cavities of just one of the first and second parts, when the hinge is between two indexed positions. - a first part secured to the case, and - a second part secured to the element, the said parts being rotationally mobile relative to one another about the axis of rotation of the hinge, - be in a position of rest in a housing formed by the collaboration of the cavities of the first and second parts when the hinge is in an indexed position, - be under stress in a housing formed by the cavities of just one of the first and second parts, when the hinge is between two indexed positions.
System for unlocking, from the inside, a lockable compartment of the sanitary facility type that has previously been locked, which compartment is provided with two complementary parts formed by a frame and a movable access means of the door type, which system comprises a locking device for preventing access to said lockable compartment and means for controlling the locking device from the outside of the compartment, which are configured to actuate the locking device at least between a use position and a locking position, and which system comprises a releasing device that is able to be manipulated by a user from the inside of the compartment into a position releasing the locking device in order to allow the user to leave the previously locked compartment, wherein the locking device comprises a latch that is actuable between positions referred to as a closed position, an intermediate position and a freeing position, an actuable sleeve and a means for actuating the movement in translation of said sleeve between the locking position, in which the sleeve is fitted around the latch, in particular if the latch is in its intermediate position, and the use position, in which the latch is able to be released from the sleeve, and wherein the releasing device comprises the latch, which is actuable between its intermediate position, in which the sleeve, in the locking position, is fitted around the latch, the locking device then being in its locking position, and its freeing position, which is actuable by the user from the inside of the compartment, in which the latch is released from the sleeve in the locking position, the locking device then being in its releasing position.
A microfluidic system for causing perturbations in a cell membrane of an anucleate cell for delivering a payload intracellularly, the system comprising: at least one microfluidic channel defining a lumen allowing the anucleate cell suspended in a buffer to pass therethrough, wherein the microfluidic channel comprises at least one cell-deforming constriction causing said perturbations, wherein the constriction comprises a length, a depth, and a width, wherein the width of the constriction is less than 4 micrometers, wherein the constriction induces perturbations in the cell membrane large enough for a payload to pass through, and wherein the anucleate cell is one or more of an erythrocyte or a reticulocyte.
A hand carryable surface cleaning apparatus comprising: (a) a body housing a suction motor and comprising a dirty air inlet (b) a cyclone bin assembly removably mounted to the body, the cyclone bin assembly is removable as a sealed unit other than the cyclone bin assembly air inlet and the cyclone bin assembly air outlet, the cyclone bin assembly comprising a cyclone bin assembly air inlet in air flow communication with the dirty air inlet when the cyclone bin assembly is mounted to the body, a cyclone chamber and a dirt collection chamber; and, (c) an air flow path extending from the dirty air inlet to a clean air outlet and including the suction motor and the cyclone chamber, wherein the cyclone bin assembly is at least partially nested in the body when the cyclone bin assembly is mounted to the body, characterized in that a recess is provided in a lower side of the body in which the cyclone bin assembly is received. (a) a body housing a suction motor and comprising a dirty air inlet (b) a cyclone bin assembly removably mounted to the body, the cyclone bin assembly is removable as a sealed unit other than the cyclone bin assembly air inlet and the cyclone bin assembly air outlet, the cyclone bin assembly comprising a cyclone bin assembly air inlet in air flow communication with the dirty air inlet when the cyclone bin assembly is mounted to the body, a cyclone chamber and a dirt collection chamber; and, (c) an air flow path extending from the dirty air inlet to a clean air outlet and including the suction motor and the cyclone chamber,
Use of Mycobacterium avium non-serovar specific GPL (nonserovar Glycopeptidolipid, nsGPL) antigen of Formula wherein R 1 is wherein R 3 is an alkyl or alkenyl chain having from 1 to 34 carbon atoms; wherein R 4 is -OH or -OCH 3; and wherein R 5 is -OH or -OCH 3; for the in vitro diagnosis or detection of infections caused not only by Mycobacterium avium but caused by any non-tuberculous mycobacteria selected from the group consisting of: Mycobacterium abcessus, Mycobacterium chimaera, Mycobacterium intracellulare, Mycobacterium malmoense and Mycobacterium xenopi. wherein R 1 is wherein R 3 is an alkyl or alkenyl chain having from 1 to 34 carbon atoms; wherein R 4 is -OH or -OCH 3; and wherein R 5 is -OH or -OCH 3; for the in vitro diagnosis or detection of infections caused not only by Mycobacterium avium but caused by any non-tuberculous mycobacteria selected from the group consisting of: Mycobacterium abcessus, Mycobacterium chimaera, Mycobacterium intracellulare, Mycobacterium malmoense and Mycobacterium xenopi.
A compound according to formula I: CH 2 =CR 1 -CHR 2 -S-R 3 -S-CHR 4 -CR 5 =CH 2 wherein R 1, R 2, R 4 and R 5 are independently selected from -H, -CH 3 or -C 2 H 5, and wherein R 3 is selected from divalent groups comprising 2-12 carbon atoms, 0-5 ether oxygen atoms and 0-5 thioether sulfur atoms, which may be straight, branched or cyclic; wherein R 3 is a divalent group according to formula II: -((CH 2) n -X) m -(CH 2) n - wherein m is 2, wherein each n is independently selected from 2-6, and wherein each X is independently selected from O or S. wherein R 1, R 2, R 4 and R 5 are independently selected from -H, -CH 3 or -C 2 H 5, and wherein R 3 is selected from divalent groups comprising 2-12 carbon atoms, 0-5 ether oxygen atoms and 0-5 thioether sulfur atoms, which may be straight, branched or cyclic; wherein m is 2, wherein each n is independently selected from 2-6, and wherein each X is independently selected from O or S.
A process for preparing a flavourant comprising: (i) providing a composition comprising a fruit syrup and one or more components selected from the group consisting of hydrolysed vegetable protein, autolysed yeast and fermented soy and/or wheat; (ii) heating the composition to promote a Maillard reaction; and (iii) drying the composition. (i) providing a composition comprising a fruit syrup and one or more components selected from the group consisting of hydrolysed vegetable protein, autolysed yeast and fermented soy and/or wheat; (ii) heating the composition to promote a Maillard reaction; and (iii) drying the composition.
A system for characterizing an impact to a user comprising: a sensor assembly configured to measure (144, 146, 148, 150) at least one of the linear acceleration and angular acceleration of the sensor assembly; a data transform component operatively connected to the sensor assembly and configured to represent a location of interest in the head of the user relative to a position of the sensor assembly as a time-varying function according to a model of movement of a brain when exposed to various kinematics and kinetics and to calculate an acceleration at the location of interest from the measured at least one of the linear acceleration and angular acceleration of the sensor assembly and the time-varying function representing the location of interest; and a system interface configured to provide the calculated acceleration at the location of interest to a user in a human-perceptible form. a sensor assembly configured to measure (144, 146, 148, 150) at least one of the linear acceleration and angular acceleration of the sensor assembly; a data transform component operatively connected to the sensor assembly and configured to represent a location of interest in the head of the user relative to a position of the sensor assembly as a time-varying function according to a model of movement of a brain when exposed to various kinematics and kinetics and to calculate an acceleration at the location of interest from the measured at least one of the linear acceleration and angular acceleration of the sensor assembly and the time-varying function representing the location of interest; and a system interface configured to provide the calculated acceleration at the location of interest to a user in a human-perceptible form.
A cooling device comprising a body, having two opposite side walls, at least one shelf whereon the items are placed, at least one adaptor that has at least one channel, that is detachably mounted onto the side wall and that enables the height of the shelf to be adjusted, at least one retainer that is mounted onto a respective adaptor in such a manner as to enable the retainer to move in the vertical direction with respect to the respective adaptor, by one protrusion being disposed on each of the opposite lateral faces of the adaptor and one slide being provided wherein the protrusion is seated, that is disposed on each of the portions of the retainer surrounding the lateral face of the adaptor and that provides the retainer to be movably fastened onto the adaptor, and wherein the retainer has a shelf support disposed on the face thereof facing the interior volume of the body, wherein one edge of the shelf is placed with a sliding movement, and said cooling device characterized by a pin that is disposed on the face of the retainer facing the side wall and that is placed into the channel, thus providing the shelf to move in the vertical direction and further characterized by at least one aligning means placed below the protrusion so as to be spaced from the protrusion and an opening that is formed at the portion of the slide coinciding with the aligning means and that enables the retainer to be mounted to the adaptor so that the pin enters into the channel from the lowermost point.
A system comprising: an x-ray scanner gantry comprising a housing, a gantry gear formed as part of or connected to the housing, a rotor, a generator mounted on the rotor, and a first generator gear and a second generator gear connected to or configured to engage with one or more axles of the generator, wherein the second generator gear is engaged with the gantry gear; an intermediate gear; a first actuator connected to the intermediate gear; a motor gear coupled to and configured to rotate the intermediate gear; a motor configured to rotate the motor gear; a second actuator configured to actuate the motor gear to engage the motor with the rotor; and a control module configured to operate in a first mode and a second mode, wherein the control module is configured to while in the first mode, engage the intermediate gear to the first generator gear via the first actuator to rotate, via the motor gear, the intermediate gear and as a result the first generator gear to generate power, and while in the second mode, engage the motor to the rotor via the second actuator to rotate, via the motor gear, the rotor and as a result the second generator gear to generate power. an x-ray scanner gantry comprising a housing, a gantry gear formed as part of or connected to the housing, a rotor, a generator mounted on the rotor, and a first generator gear and a second generator gear connected to or configured to engage with one or more axles of the generator, wherein the second generator gear is engaged with the gantry gear; a housing, a gantry gear formed as part of or connected to the housing, a rotor, a generator mounted on the rotor, and a first generator gear and a second generator gear connected to or configured to engage with one or more axles of the generator, wherein the second generator gear is engaged with the gantry gear; an intermediate gear; a first actuator connected to the intermediate gear; a motor gear coupled to and configured to rotate the intermediate gear; a motor configured to rotate the motor gear; a second actuator configured to actuate the motor gear to engage the motor with the rotor; and a control module configured to operate in a first mode and a second mode, wherein the control module is configured to while in the first mode, engage the intermediate gear to the first generator gear via the first actuator to rotate, via the motor gear, the intermediate gear and as a result the first generator gear to generate power, and while in the second mode, engage the motor to the rotor via the second actuator to rotate, via the motor gear, the rotor and as a result the second generator gear to generate power. while in the first mode, engage the intermediate gear to the first generator gear via the first actuator to rotate, via the motor gear, the intermediate gear and as a result the first generator gear to generate power, and while in the second mode, engage the motor to the rotor via the second actuator to rotate, via the motor gear, the rotor and as a result the second generator gear to generate power.
Emergency start-up method for an energy generator set, characterised in that, if an emergency start-up situation for the set is detected, at least one pyrotechnic gas combustion generator is triggered, pressurised gases then being generated by this combustion and injected directly into a positive displacement motor with gear wheels (1, 100, 101, 102), in that a portion of these gases rotate (Ra, Rb) the gear wheels (3a, 3b) of the motor and, simultaneously, the remaining portion of the gases projects a coupling connection (8a to 8c; 18, 19, 7, 170) between the motor (1, 100, 101, 102) and the set, against a restoring force, the connection (8a to 8c; 18, 19, 7, 170) bringing about the transmission of energy by rotating a gear shaft (4b, 40b; 500) of the positive displacement motor (1, 100, 101, 102) on a driven shaft (61, 82) of the set, and in that, when the thrust (F1, F6) falls below the restoring force, said force automatically repels the connection (8a to 8c; 18, 19, 7, 170) and the set is disconnected from the positive displacement motor (1, 100, 101, 102).
A method of obtaining location services, LCS, comprising: receiving a first message sent by a first network entity to a User Equipment, UE), the first message comprising a session identifier, ID, associated with a location session between the first network entity and a second network entity to provide location services, LCS, for the UE; and sending a second message comprising the session ID from the UE to the first network entity, the session ID being included in the second message by the UE and used by the first network entity to associate the second message with the location session between the first and second network entities; wherein the first network entity comprises a Mobility Management Entity, MME, and the second network entity comprises an Evolved Serving Mobile Location Center, E-SMLC. receiving a first message sent by a first network entity to a User Equipment, UE), the first message comprising a session identifier, ID, associated with a location session between the first network entity and a second network entity to provide location services, LCS, for the UE; and sending a second message comprising the session ID from the UE to the first network entity, the session ID being included in the second message by the UE and used by the first network entity to associate the second message with the location session between the first and second network entities; wherein the first network entity comprises a Mobility Management Entity, MME, and the second network entity comprises an Evolved Serving Mobile Location Center, E-SMLC.
Welding control for a welding tool, with a memory module, and with a force control module for controlling a progression of a holding and/or pressing force (F S (t); F S_ACT), which at least one electrode (22, 23) of a welding tool exerts on at least one component (5, 6) when producing a welded connection, characterized in that the force control module is designed to calculate a difference ΔF = F S-S - F S_ACT when carrying out a welding operation or a servicing operation, where F S-S is a setpoint variable for the holding and/or pressing force (F S (t)), which is stored in the memory module as a time-dependent setpoint variable, and F S_ACT is an actual force of the holding and/or pressing force (F S (t)) detected by a detecting device during the welding operation or servicing operation carried out, the force control module being configured as a PD controller, and the force control module being designed to output at least one rotational-speed setpoint value (n_S) to a driving device of the welding tool in order to control the drive of the welding tool for applying the holding and/or pressing force (F S (t); F S_ACT) by a speed controller of the driving device, a welding operation being an operation with a welding current being applied, and a servicing operation being an operation without a welding current being applied. characterized in that the force control module is designed to calculate a difference ΔF = F S-S - F S_ACT when carrying out a welding operation or a servicing operation, where F S-S is a setpoint variable for the holding and/or pressing force (F S (t)), which is stored in the memory module as a time-dependent setpoint variable, and F S_ACT is an actual force of the holding and/or pressing force (F S (t)) detected by a detecting device during the welding operation or servicing operation carried out, the force control module being configured as a PD controller, and the force control module being designed to output at least one rotational-speed setpoint value (n_S) to a driving device of the welding tool in order to control the drive of the welding tool for applying the holding and/or pressing force (F S (t); F S_ACT) by a speed controller of the driving device, a welding operation being an operation with a welding current being applied, and a servicing operation being an operation without a welding current being applied.
Channel processing device for arranging within a channel, having a main body and a processing unit, which is arranged on the main body, for processing a channel section, wherein the processing unit has at least one holding unit for a cover provided for attaching to the inner side of the channel, and the holding unit is movable outwards away from the main body in order to press the cover against an inner wall of the channel, wherein the processing unit is connected to a rotation axle of the main body via at least one motor-rotatable holding arm in order to move the processing unit, characterized in that the processing unit comprises a plurality of holding plates (11a; 11b; 11c) which are connected in an articulated manner to one another and are mounted rotatably about the rotation axle of the main body by means of guides on the main body.