mhurhangee/ep-ind-claims huggingface dataset:
Press machine for compacting solid waste comprising a conduct in which a rotationally driven screw conveyor is arranged centrally, said conduct being provided with a material intake mouth and a material discharge mouth, wherein said conduct is divided into two zones (12, 13), of which a transfer zone of the material provided with the intake mouth and the screw conveyor, which screw conveyor has a fixed pitch, and a compression zone of the material provided with the discharge mouth, which compression zone presents a progressive variation of the cross-section of the conduct from circular to square in the direction of the discharge mouth wherein the screw conveyor is housed exclusively in the transfer zone, characterized in that the conduct wall in the transfer zone has one or more longitudinally arranged raised ribs, wherein the conduct wall in the transfer zone has one or more through slots, in which slots elongated elements corresponding in shape to the slots are at least partially inserted, so that the portions of elements protruding inside the conduct constitute the said ribs, wherein means for fixing the elongated elements inside the slots are provided, which fixing means are adjustable to modify the depth of insertion of the elongated elements inside the slots. wherein said conduct is divided into two zones (12, 13), of which a transfer zone of the material provided with the intake mouth and the screw conveyor, which screw conveyor has a fixed pitch, and a compression zone of the material provided with the discharge mouth, which compression zone presents a progressive variation of the cross-section of the conduct from circular to square in the direction of the discharge mouth wherein the screw conveyor is housed exclusively in the transfer zone, characterized in that the conduct wall in the transfer zone has one or more longitudinally arranged raised ribs, wherein the conduct wall in the transfer zone has one or more through slots, in which slots elongated elements corresponding in shape to the slots are at least partially inserted, so that the portions of elements protruding inside the conduct constitute the said ribs, wherein means for fixing the elongated elements inside the slots are provided, which fixing means are adjustable to modify the depth of insertion of the elongated elements inside the slots.
A handle of a manual operation mechanism of a circuit breaker, comprising an operating handle, a padlock device, and a locking shaft, a middle of the padlock device is pivotally arranged on the operating handle, a front end of the padlock device is connected with the locking shaft, the padlock device is connected with the operating handle through a first driving member, a rear end of the padlock device is in limit fit with a locking mechanism, a padlock hole is arranged in the rear end of the padlock device, and the padlock hole is shielded by the operating handle; when the circuit breaker is in a switch-off state, the locking mechanism is unlocked, the first driving member makes the front end of the padlock device sink to drive the locking shaft to lock the operating handle, and meanwhile, the rear end of the padlock device is raised up to expose the padlock hole from an inside of the operating handle; characterised in that the locking mechanism comprises a locking member, a rear-end torsion spring, and an operating button, a middle of the locking member is pivotally arranged on the operating handle through a second pivot, the rear-end torsion spring is sleeved on the second pivot, one end of the rear-end torsion spring is connected with the operating handle, the other end of the rear-end torsion spring is connected with the locking member, one end of the locking member is in limit fit with the rear end of the padlock device, the other end of the locking member fits with the operating button, and when the operating button is pressed, the locking member releases the rear end of the padlock device, the front end of the padlock device sinks, and the rear end of the padlock device is raised up. when the circuit breaker is in a switch-off state, the locking mechanism is unlocked, the first driving member makes the front end of the padlock device sink to drive the locking shaft to lock the operating handle, and meanwhile, the rear end of the padlock device is raised up to expose the padlock hole from an inside of the operating handle; characterised in that the locking mechanism comprises a locking member, a rear-end torsion spring, and an operating button, a middle of the locking member is pivotally arranged on the operating handle through a second pivot, the rear-end torsion spring is sleeved on the second pivot, one end of the rear-end torsion spring is connected with the operating handle, the other end of the rear-end torsion spring is connected with the locking member, one end of the locking member is in limit fit with the rear end of the padlock device, the other end of the locking member fits with the operating button, and when the operating button is pressed, the locking member releases the rear end of the padlock device, the front end of the padlock device sinks, and the rear end of the padlock device is raised up.
A pharmaceutical preparation for use in increasing muscle mass in disease conditions that are in need of muscle growth, wherein the pharmaceutical preparation comprises a myostatin inhibitor that is a fusion protein comprising i) a ligand binding domain of an ALK7 receptor that selectively binds to myostatin relative to BMP-3 and competes with the binding of an ALK7 receptor and ii) an immunoglobulin Fc domain.
A method for making an isocyanurate or polyurethane-isocyanurate polymer, comprising a) curing an aromatic polyisocyanate or a mixture of at least one aromatic polyisocyanate and at least one polyol having a hydroxyl equivalent weight of up to 200 in which the isocyanate index is at least 2.00, by heating to a temperature of from 50 °C to 180 °C in the presence of at least one isocyanate trimerization catalyst, to form a polyisocyanurate or polyurethane-isocyanurate polymer having a glass transition temperature of at least 100°C, as measured by dynamic mechanical thermal analysis at an oscillation frequency of 1 Hertz and a heating scan rate at 3 °C/second from 20 °C to 200 °C, and b) exposing the polyisocyanurate or polyurethane-isocyanurate polymer formed step a) to water under superatmospheric pressure at a temperature of at least 70°C. a) curing an aromatic polyisocyanate or a mixture of at least one aromatic polyisocyanate and at least one polyol having a hydroxyl equivalent weight of up to 200 in which the isocyanate index is at least 2.00, by heating to a temperature of from 50 °C to 180 °C in the presence of at least one isocyanate trimerization catalyst, to form a polyisocyanurate or polyurethane-isocyanurate polymer having a glass transition temperature of at least 100°C, as measured by dynamic mechanical thermal analysis at an oscillation frequency of 1 Hertz and a heating scan rate at 3 °C/second from 20 °C to 200 °C, and b) exposing the polyisocyanurate or polyurethane-isocyanurate polymer formed step a) to water under superatmospheric pressure at a temperature of at least 70°C.
A method to restore the functional state of at least part of an automatic machine for the production of tobacco industry articles; the automatic machine comprises a plurality of actuators (8, 9), each capable of assuming a plurality of different positions; the method comprises the steps of: determining, once, an interference matrix, which indicates, for each position of an actuator (8, 9), the presence or absence of interferences relative to all the possible positions of the other actuators (9, 8); using the interference matrix to restore the automatic machine from a non-functional state to a functional state; and processing a set of movements which are executable by the actuators (8, 9) to guide the automatic machine from a non-functional state to a functional state so that none of actuators (8, 9), in any moment, goes through an interference position; wherein a set of movements is obtained through a path defined on the interference matrix from a current position of the actuators (8, 9), belonging to the non-functional state, to a final desired position of the actuators (8, 9), belonging to the functional state. the automatic machine comprises a plurality of actuators (8, 9), each capable of assuming a plurality of different positions; the method comprises the steps of: determining, once, an interference matrix, which indicates, for each position of an actuator (8, 9), the presence or absence of interferences relative to all the possible positions of the other actuators (9, 8); using the interference matrix to restore the automatic machine from a non-functional state to a functional state; and processing a set of movements which are executable by the actuators (8, 9) to guide the automatic machine from a non-functional state to a functional state so that none of actuators (8, 9), in any moment, goes through an interference position; wherein a set of movements is obtained through a path defined on the interference matrix from a current position of the actuators (8, 9), belonging to the non-functional state, to a final desired position of the actuators (8, 9), belonging to the functional state. determining, once, an interference matrix, which indicates, for each position of an actuator (8, 9), the presence or absence of interferences relative to all the possible positions of the other actuators (9, 8); using the interference matrix to restore the automatic machine from a non-functional state to a functional state; and processing a set of movements which are executable by the actuators (8, 9) to guide the automatic machine from a non-functional state to a functional state so that none of actuators (8, 9), in any moment, goes through an interference position; wherein a set of movements is obtained through a path defined on the interference matrix from a current position of the actuators (8, 9), belonging to the non-functional state, to a final desired position of the actuators (8, 9), belonging to the functional state.
A hand-held device for electrically powered skin treatment, comprising: a first outer electrode which is in contact with a hand when the device is held in the user's hand for use, a second outer electrode which can be placed on the area of skin to be treated, batteries, the poles of which are electrically connected to the electrodes during operation of the device, a compartment for accommodating the batteries, whereby the compartment is covered by a shell-like housing cover whose outside forms a section of the exterior area of the device housing, wherein a charging circuit is provided and the batteries are rechargeable batteries, characterised in that the compartment is covered by a removable compartment cover whose inner side is directed to the batteries in the compartment and on whose outer side a connector socket with at least two poles is arranged, and the compartment cover is located within the housing cover. a first outer electrode which is in contact with a hand when the device is held in the user's hand for use, a second outer electrode which can be placed on the area of skin to be treated, batteries, the poles of which are electrically connected to the electrodes during operation of the device, a compartment for accommodating the batteries, whereby the compartment is covered by a shell-like housing cover whose outside forms a section of the exterior area of the device housing, wherein a charging circuit is provided and the batteries are rechargeable batteries, characterised in that the compartment is covered by a removable compartment cover whose inner side is directed to the batteries in the compartment and on whose outer side a connector socket with at least two poles is arranged, and
An injector of a propellant combustion member, the injector comprising a plurality of feed chimneys, an igniter tube, an injection chamber, a plurality of feed sheaths: • a first feed adapted to feed a first liquid propellant; and • a second feed adapted to feed a second liquid propellant; • the first feed being connected to the plurality of feed chimneys arranged around the ignition tube presenting a longitudinal axis (Z-Z), said feed chimneys extending along said longitudinal axis (Z-Z); • the second feed being configured so as to deliver a uniform flow of liquid into the injection chamber; and • said injection chamber being connected to the plurality of feed sheaths by means of injection orifices, each feed chimney being surrounded by a coaxial feed sheath so that the feed chimneys and the feed sheaths are fed in parallel respectively with the first and second propellants, the injector being configured to achieve uniform injection of the second propellant via the injection orifices, the injector being characterized in that it further comprises a takeoff chamber connected to a takeoff duct for taking off the second propellant, said takeoff chamber being arranged in such a manner as to take off the second liquid propellant from the injection chamber. • a first feed adapted to feed a first liquid propellant; and • a second feed adapted to feed a second liquid propellant; • the first feed being connected to the plurality of feed chimneys arranged around the ignition tube presenting a longitudinal axis (Z-Z), said feed chimneys extending along said longitudinal axis (Z-Z); • the second feed being configured so as to deliver a uniform flow of liquid into the injection chamber; and • said injection chamber being connected to the plurality of feed sheaths by means of injection orifices, each feed chimney being surrounded by a coaxial feed sheath so that the feed chimneys and the feed sheaths are fed in parallel respectively with the first and second propellants, the injector being configured to achieve uniform injection of the second propellant via the injection orifices,
Sensor arrangement, in which a component in a housing is passivated, wherein the component comprises a substrate and a mounting support, wherein the housing surrounds the substrate substantially completely in a first substrate region, wherein the housing is provided such that it is substantially opened by means of an opening in a second substrate region, wherein a mounting support (die pad) surrounds the substrate substantially completely in a plane parallel to the main plane of extent of the substrate, wherein • the second substrate region has a sensor region, and • the mounting support is provided offset and, as a result of the offsetting, a portion of the mounting support is provided as drawn parallel to the main plane of extent in a central plane of the substrate, characterized in that • the mounting support has a recess in the region of the opening, and • the second substrate region is provided in the region of the recess of the mounting support. • the second substrate region has a sensor region, and • the mounting support is provided offset and, as a result of the offsetting, a portion of the mounting support is provided as drawn parallel to the main plane of extent in a central plane of the substrate, • the mounting support has a recess in the region of the opening, and • the second substrate region is provided in the region of the recess of the mounting support.
An apparatus comprising: a first layer comprising one or more sensors (101a - 101a(i)), wherein each sensor is configured to be able to detect changes in an electric field in the vicinity of the sensor; a second layer comprising a substrate configured to produce one or more charge carriers in response to incident radiation; and a third layer comprising a plurality of electrodes (103a - 103a(j)), wherein the plurality of electrodes (103a - 103a(j)) are configured to be selectively addressed to alter the electric field in the vicinity of the one or more sensors during a readout operation of the one or more sensors (101a - 101a(i)) wherein the second layer is disposed between the first layer and the third layer. a first layer comprising one or more sensors (101a - 101a(i)), wherein each sensor is configured to be able to detect changes in an electric field in the vicinity of the sensor; a second layer comprising a substrate configured to produce one or more charge carriers in response to incident radiation; and a third layer comprising a plurality of electrodes (103a - 103a(j)), wherein the plurality of electrodes (103a - 103a(j)) are configured to be selectively addressed to alter the electric field in the vicinity of the one or more sensors during a readout operation of the one or more sensors (101a - 101a(i)) wherein the second layer is disposed between the first layer and the third layer.
A prosthesis retaining assembly (2500; 3600) for securing an implantable prosthesis to a catheter assembly, the prosthesis retaining assembly comprising: a first member (2508; 3636) including a prosthesis retaining slot (2504; 3604) configured to retain a portion of the prosthesis, the retaining slot (2504; 3604) having a first portion with a first width and a second portion with a second width, the first portion being distal to the second portion, the second width being larger than the first width, the retaining slot (2504; 3604) having an opening at a first surface of the first member (2508; 3636); a second member (2502; 3702) configured to be moved relative to the first member (2508; 3636), the second member (2502; 3702) being configured to move to a position that obstructs a portion of the opening of the retaining slot (2504; 3604), wherein the first member (2508; 3636) includes a hollow chamber, and wherein the surface of the first member (2508; 3636) is an interior surface defining the hollow chamber, and wherein second member (2502; 3702) comprises a blocking member positioned within the chamber. a first member (2508; 3636) including a prosthesis retaining slot (2504; 3604) configured to retain a portion of the prosthesis, the retaining slot (2504; 3604) having a first portion with a first width and a second portion with a second width, the first portion being distal to the second portion, the second width being larger than the first width, the retaining slot (2504; 3604) having an opening at a first surface of the first member (2508; 3636); a second member (2502; 3702) configured to be moved relative to the first member (2508; 3636), the second member (2502; 3702) being configured to move to a position that obstructs a portion of the opening of the retaining slot (2504; 3604), wherein the first member (2508; 3636) includes a hollow chamber, and wherein the surface of the first member (2508; 3636) is an interior surface defining the hollow chamber, and wherein second member (2502; 3702) comprises a blocking member positioned within the chamber.
A method comprising: establishing, by a processor of a wearable computer, a wireless communication connection with a fitness machine; obtaining, by the processor, machine data from the fitness machine, the machine data specifying a type of the fitness machine and comprising fitness metrics; determining, by the processor, a workout session according to the machine data; initiating the workout session on the wearable computer; during the workout session: obtaining, by the processor, a metabolic equivalent of tasks based at least in part on the machine data comprising the type of fitness machine and the fitness metrics; obtaining, from a sensor of the wearable computer, physiological data of a user of the fitness machine; determining, by the processor, fitness data for the user based at least in part on a combination of the physiological data and the metabolic equivalent of tasks, wherein the fitness data includes calories burned by the user. establishing, by a processor of a wearable computer, a wireless communication connection with a fitness machine; obtaining, by the processor, machine data from the fitness machine, the machine data specifying a type of the fitness machine and comprising fitness metrics; determining, by the processor, a workout session according to the machine data; initiating the workout session on the wearable computer; during the workout session: obtaining, by the processor, a metabolic equivalent of tasks based at least in part on the machine data comprising the type of fitness machine and the fitness metrics; obtaining, from a sensor of the wearable computer, physiological data of a user of the fitness machine; determining, by the processor, fitness data for the user based at least in part on a combination of the physiological data and the metabolic equivalent of tasks, wherein the fitness data includes calories burned by the user. obtaining, by the processor, a metabolic equivalent of tasks based at least in part on the machine data comprising the type of fitness machine and the fitness metrics; obtaining, from a sensor of the wearable computer, physiological data of a user of the fitness machine; determining, by the processor, fitness data for the user based at least in part on a combination of the physiological data and the metabolic equivalent of tasks, wherein the fitness data includes calories burned by the user.
A method for controlling a bank angle ( φ) of an aircraft during flight, the method comprising: receiving a commanded bank angle ( φ cmd) for the aircraft; computing a bank angle error ( φ err) indicative of a difference between the bank angle ( φ) of the aircraft and the commanded bank angle ( φ cmd); computing a target rate of change ( φ̇ des) for the bank angle ( φ) of the aircraft using a sliding mode control technique, an input to the sliding mode control technique including the bank angle error ( φ err); computing a target body roll rate ( P c) for the aircraft using a feedback linearization control technique, an input to the FL control technique including the target rate of change ( φ̇ des) for the bank angle ( φ) of the aircraft; and using the target body roll rate ( P c) to control one or more actuators of the aircraft during flight. receiving a commanded bank angle ( φ cmd) for the aircraft; computing a bank angle error ( φ err) indicative of a difference between the bank angle ( φ) of the aircraft and the commanded bank angle ( φ cmd); computing a target rate of change ( φ̇ des) for the bank angle ( φ) of the aircraft using a sliding mode control technique, an input to the sliding mode control technique including the bank angle error ( φ err); computing a target body roll rate ( P c) for the aircraft using a feedback linearization control technique, an input to the FL control technique including the target rate of change ( φ̇ des) for the bank angle ( φ) of the aircraft; and using the target body roll rate ( P c) to control one or more actuators of the aircraft during flight.
Motor-driven rotary pump, in particular in the form of a submersible pump with a coolant pump which is driven by the electric motor and which circulates the coolant of the electric motor and whose impeller is driven by the electric motor, characterized in that the impeller shaft of the coolant pump is connected to the motor shaft by way of a mechanism.