mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel injection device provided with an injection instruction unit that instructs multiple fuel injection valves (107-1, 107-2, 107-3, 107-4) that inject fuel into respective multiple cylinders of an engine to perform fuel injection while the engine is stopped after turning off an ignition of the engine so that fuel is deposited around the nozzle holes (107a-1), the injection instruction unit instructing the multiple fuel injection valves to perform the fuel injection while the engine is stopped after turning off the ignition of the engine on the basis of at least one of an amount of heat from combustion gas with respect to at least one of the multiple fuel injection valves and an amount of heat radiated therefrom, wherein the injection instruction unit refers to an EGR rate which is stored just prior to the engine stop, and reduces the number or injection quantity of the fuel injection after turning off the ignition of the engine , the number or injection quantity being lower as the EGR rate is lower.
Heat pipe with re-entrant grooves, extending in a first longitudinal direction (X), comprising a sealed enclosure extending between a first longitudinal end intended to be heated by a hot source SC to form, within the enclosure, an evaporator and a second longitudinal end intended to be cooled by a cold source SF to form, within the enclosure, a condenser, the sealed enclosure delimiting an adiabatic zone between the evaporator and the condenser, the enclosure comprising a stack of plates in a second direction (Z), orthogonal to the first direction (X), the stack comprising two closing plates, at least a number n of modules on top of each other where n is an integer > 1, each module comprising at least one intermediate plate between the closing plates, the intermediate plate or plates comprising at least one first intermediate plate including at least one window, the edges of which partially delimit a vapour channel extending in the first direction (X) between the evaporator and the condenser, in which the vapour is intended to flow, and on at least one lateral side of the window in a third direction (Y) orthogonal to the first direction (X) and the second direction (Z), at least one structure with edges that partially delimit a liquid channel (21.1 to 21.6) in the evaporator and the condenser, at least the first intermediate plate delimiting a connecting channel connecting the vapour channel and the liquid channel at least in the evaporator and the condenser, the structures and intermediate plates of the n modules defining a single vapour channel and n liquid channels (21.1 to 21.6) on the at least one lateral side of the vapour channel, characterized in that the thickness of the walls between liquid channels increases gradually in the evaporator, from the adiabatic zone.
An ultrasound system for sequentially performing a predetermined procedure for each of at least one region of interest, the system comprising: - an ultrasound probe configured to transmit a first ultrasound signal (SG1) towards the region of interest and receive echo signals from the region of interest; and - a motion sensor configured to detect a motion of the ultrasound probe and generate a motion signal (MS) for indicating the motion of the ultrasound probe ; characterized by - a processor configured to automatically perform the predetermined procedure for the region of interest on the basis of the echo signals received from the region of interest if the motion signal (MS) indicates that the ultrasound probe is stationary, wherein the predetermined procedure for the region of interest comprises a procedure for extracting features of the region of interest from the echo signals received from the region of interest. - an ultrasound probe configured to transmit a first ultrasound signal (SG1) towards the region of interest and receive echo signals from the region of interest; and - a motion sensor configured to detect a motion of the ultrasound probe and generate a motion signal (MS) for indicating the motion of the ultrasound probe ; characterized by - a processor configured to automatically perform the predetermined procedure for the region of interest on the basis of the echo signals received from the region of interest if the motion signal (MS) indicates that the ultrasound probe is stationary, wherein the predetermined procedure for the region of interest comprises a procedure for extracting features of the region of interest from the echo signals received from the region of interest.
An injector comprising: a container including a wall having an interior surface and defining a bore ; a seal assembly comprising a first stopper moveable along the bore, the interior surface of the container and an interior surface of the seal assembly defining a closed sterile reservoir filled with a drug product, the drug product comprising a granulocyte colony-stimulating factor (G-CSF); a fluid delivery system comprising a container needle having a point penetrating at least partially through the first stopper in a storage state, and disposed through the interior surface of the seal assembly into the sterile reservoir in a delivery state the first stopper being disposed in the bore of the container in the storage state; and an actuator that is adapted to move the container needle relative to the container from the storage state to the delivery state. a container including a wall having an interior surface and defining a bore ; a seal assembly comprising a first stopper moveable along the bore, the interior surface of the container and an interior surface of the seal assembly defining a closed sterile reservoir filled with a drug product, the drug product comprising a granulocyte colony-stimulating factor (G-CSF); a fluid delivery system comprising a container needle having a point penetrating at least partially through the first stopper in a storage state, and disposed through the interior surface of the seal assembly into the sterile reservoir in a delivery state the first stopper being disposed in the bore of the container in the storage state; and an actuator that is adapted to move the container needle relative to the container from the storage state to the delivery state.
A mobile device comprising a USB interface circuit, wherein the USB interface circuit comprising a power supply circuit including an output, a USB interface including an ID contact , a trigger detection circuit including an input, and an isolation circuit located between the power supply circuit and the ID contact and including a first end and a second end, the first end of the isolation circuit and the output of the power supply circuit connected with the input of the trigger detection circuit , the second end of the isolation circuit connected with the ID contact , and the isolation circuit configured to control a voltage at the ID contact below a preset voltage upon detecting an On-The-Go, OTG, device is not connected with the USB interface ; wherein the preset voltage is an electrolytic voltage threshold of water.
A rotor blade mould for the manufacture of a rotor blade for a wind energy installation, wherein the rotor blade comprises a blade root and a blade tip and wherein the rotor blade extends in a longitudinal direction (R) from the blade root to the blade tip , wherein the rotor blade mould comprises: - a first rotor blade mould segment which is adapted for the manufacture of a portion of the rotor blade which portion of the rotor blade comprises the blade root , - a second rotor blade mould segment which is adapted for the manufacture of a portion of the rotor blade which portion of the rotor blade comprises the blade tip , and - at least a third rotor blade mould segment which is adapted to be integrated in the rotor blade mould between the first rotor blade mould segment and the second rotor blade mould segment , and / or to be removed from the rotor blade mould and thereby to lengthen or shorten the rotor blade mould in the longitudinal direction (R), characterised in that the at least one third rotor blade mould segment has a cross-sectional area extending substantially perpendicular to the longitudinal direction (R), the shape and / or size of which cross-sectional area is substantially constant at different positions of the cross-sectional area along the longitudinal direction (R). - a first rotor blade mould segment which is adapted for the manufacture of a portion of the rotor blade which portion of the rotor blade comprises the blade root , - a second rotor blade mould segment which is adapted for the manufacture of a portion of the rotor blade which portion of the rotor blade comprises the blade tip , and - at least a third rotor blade mould segment which is adapted to be integrated in the rotor blade mould between the first rotor blade mould segment and the second rotor blade mould segment , and / or to be removed from the rotor blade mould and thereby to lengthen or shorten the rotor blade mould in the longitudinal direction (R), characterised in that the at least one third rotor blade mould segment has a cross-sectional area extending substantially perpendicular to the longitudinal direction (R), the shape and / or size of which cross-sectional area is substantially constant at different positions of the cross-sectional area along the longitudinal direction (R).
An information processing apparatus comprising: a transmitting unit configured to transmit an ADDBA Request including first Block Ack size information comprising a first size, to another information processing apparatus ; and a receiving unit configured to receive an ADDBA Response including second Block Ack size information comprising a second size, from the another information processing apparatus , the second size of the second Block Ack size information being the same as or smaller than the first size of the first Block Ack size information requested by the information processing apparatus , wherein the transmitting unit is configured to transmit, after exchanging the ADDBA Request and the ADDBA Response, a data frame to the another information processing apparatus , and wherein the receiving unit is configured to receive a Block Ack frame in response to the data frame, the Block Ack frame including bitmap information of a third size based on the second Block Ack size information. a transmitting unit configured to transmit an ADDBA Request including first Block Ack size information comprising a first size, to another information processing apparatus ; and a receiving unit configured to receive an ADDBA Response including second Block Ack size information comprising a second size, from the another information processing apparatus , the second size of the second Block Ack size information being the same as or smaller than the first size of the first Block Ack size information requested by the information processing apparatus , wherein the transmitting unit is configured to transmit, after exchanging the ADDBA Request and the ADDBA Response, a data frame to the another information processing apparatus , and wherein the receiving unit is configured to receive a Block Ack frame in response to the data frame, the Block Ack frame including bitmap information of a third size based on the second Block Ack size information.
Use, for the decarbonation of natural gas, of at least one zeolitic absorbent material comprising: a) from 70% to 99% by weight, preferably from 70% to 95% by weight, preferably again from 70% to 90% by weight, more preferably from 75% to 90% and very particularly from 80% to 90% of at least one zeolite A, with respect to the total weight of the zeolitic absorbent material, and b) from 1% to 30% by weight, preferably from 5% to 30% by weight, preferably again from 10% to 30% by weight, more preferably from 10% to 25% and very particularly from 10% to 20%, with respect to the total weight of the zeolitic absorbent material, of at least one agglomeration binder comprising at least one clay chosen from fibrous magnesium clays, and in which c) the zeolite A comprises calcium ions; d) the zeolitic absorbent material comprises calcium, the content of which, expressed as calcium oxide (CaO), is between 9.0% and 21.0%; e) the zeolite A is chosen from the zeolites 5A and the zeolites 5APH; f) the Si/Al atomic ratio of the zeolitic absorbent material is between 0.5 and 2.5. a) from 70% to 99% by weight, preferably from 70% to 95% by weight, preferably again from 70% to 90% by weight, more preferably from 75% to 90% and very particularly from 80% to 90% of at least one zeolite A, with respect to the total weight of the zeolitic absorbent material, and b) from 1% to 30% by weight, preferably from 5% to 30% by weight, preferably again from 10% to 30% by weight, more preferably from 10% to 25% and very particularly from 10% to 20%, with respect to the total weight of the zeolitic absorbent material, of at least one agglomeration binder comprising at least one clay chosen from fibrous magnesium clays, and in which c) the zeolite A comprises calcium ions; d) the zeolitic absorbent material comprises calcium, the content of which, expressed as calcium oxide (CaO), is between 9.0% and 21.0%; e) the zeolite A is chosen from the zeolites 5A and the zeolites 5APH; f) the Si/Al atomic ratio of the zeolitic absorbent material is between 0.5 and 2.5.
Injector assembly with an injector , which has a plunger and a cannula and is configured to move an intraocular lens through the cannula by means of a translational movement of the plunger, a magnetic coupling and a drive unit , which has a first coupling half of the magnetic coupling , a motor , which is configured to drive the first coupling half into a first rotational movement, and a housing , within which the first coupling half and the motor are encapsulated and which has an annular housing portion which delimits a channel which has a circular cross section, wherein the injector has a second coupling half of the magnetic coupling , and the injector and the second coupling half are arranged in the channel , wherein the first coupling half is arranged around the annular housing portion and is thus configured to carry out the first rotational movement around the annular housing portion and therefore to drive the second coupling half into a second rotational movement by means of a magnetic field of the magnetic coupling penetrating the annular housing portion , wherein the injector is configured to convert the second rotational movement into the translational movement of the plunger, wherein the first coupling half has at least one permanent magnet and the second coupling half has a soft magnetic material.
An optical device , comprising a crossover component comprising a first 2x2 splitter, the first 2x2 splitter comprising a first input port, a second input port, a first output port, and a second output port; a non-quadrature component comprises a second 2x2 splitter, the second 2x2 splitter comprising a first input port, a second input port, a first output port, and a second output port; a first optical waveguide having a first optical path length, a first end that is optically coupled to the first output port or first input port of the crossover component, and a second end that is optically coupled to the first input port or first output port of the non-quadrature component; and a second optical waveguide having a second optical path length that is different from the first optical path length, a first end that is optically coupled to the second output port or second input port of the crossover component, and a second end that is optically coupled to the second input port or the second output port of the non-quadrature component; and wherein the optical device is a primary four-port optical mixer capable of distributing optical power presented at either or both of two input ports to a given ratio in two output ports , and wherein one of the crossover component and the non-quadrature component comprises a first component (A 1 ) having a splitting ratio that is less than 1dB through a first continuous range of wavelengths that includes a wavelength λ 0 and the other comprises a second component (A 2 ) having a splitting ratio of dB-magnitude greater than 16-dB at said wavelength λ 0 . a crossover component comprising a first 2x2 splitter, the first 2x2 splitter comprising a first input port, a second input port, a first output port, and a second output port; a non-quadrature component comprises a second 2x2 splitter, the second 2x2 splitter comprising a first input port, a second input port, a first output port, and a second output port; a first optical waveguide having a first optical path length, a first end that is optically coupled to the first output port or first input port of the crossover component, and a second end that is optically coupled to the first input port or first output port of the non-quadrature component; and a second optical waveguide having a second optical path length that is different from the first optical path length, a first end that is optically coupled to the second output port or second input port of the crossover component, and a second end that is optically coupled to the second input port or the second output port of the non-quadrature component; and
A hinge apparatus configured to move between a closed position and an open position, the hinge apparatus comprising: a hinge body including a first portion and a second portion , the first portion having a first knuckle portion and the second portion having a second knuckle portion , the first knuckle portion and the second knuckle portion defining a tubular opening when aligned, and one of the first portion and the second portion including a recess ; and a hinge pin including an axial portion and a gripping portion , the gripping portion being offset from an axis of the hinge pin ; the axial portion of the hinge pin being received by the tubular opening; the hinge apparatus characterised in that : the gripping portion of the hinge pin is received by the recess to inhibit access to the gripping portion when the hinge apparatus is in the closed position and to prevent axial movement of the hinge pin out of the tubular opening ; and an internal side of the other of the one of the first portion and the second portion of the hinge body contacts the gripping portion to remove the gripping portion of the hinge pin from the recess by rotation relative to the one of the first portion and the second portion as the hinge apparatus is moved to the open position. a hinge body including a first portion and a second portion , the first portion having a first knuckle portion and the second portion having a second knuckle portion , the first knuckle portion and the second knuckle portion defining a tubular opening when aligned, and one of the first portion and the second portion including a recess ; and a hinge pin including an axial portion and a gripping portion , the gripping portion being offset from an axis of the hinge pin ; the axial portion of the hinge pin being received by the tubular opening; the hinge apparatus characterised in that : the gripping portion of the hinge pin is received by the recess to inhibit access to the gripping portion when the hinge apparatus is in the closed position and to prevent axial movement of the hinge pin out of the tubular opening ; and an internal side of the other of the one of the first portion and the second portion of the hinge body contacts the gripping portion to remove the gripping portion of the hinge pin from the recess by rotation relative to the one of the first portion and the second portion as the hinge apparatus is moved to the open position. the gripping portion of the hinge pin is received by the recess to inhibit access to the gripping portion when the hinge apparatus is in the closed position and to prevent axial movement of the hinge pin out of the tubular opening ; and an internal side of the other of the one of the first portion and the second portion of the hinge body contacts the gripping portion to remove the gripping portion of the hinge pin from the recess by rotation relative to the one of the first portion and the second portion as the hinge apparatus is moved to the open position.
Piston compressor comprising at least one cylinder for compressing air with a piston , which is arranged movably therein, in a compression chamber arranged above the piston in the cylinder , wherein the compression chamber has an air inlet and an air outlet and is connected at the air inlet to an inlet arrangement for air to be compressed and is connected at the air outlet to an outlet arrangement for compressed air, wherein the piston compressor is drivable by a first drive device , characterized in that the inlet arrangement has a pre-compression device , which is drivable with variable power by a second drive device , for increasing the intake pressure, and a cooling device for cooling the air to be compressed, and wherein the piston compressor comprises a crankcase in which a crankshaft is arranged, on which at least one connecting rod which is connected to a piston is rotatably mounted, wherein the intake air of the at least one cylinder is guided through the crankcase .
A temperature sensor comprising: an insulating substrate made of ceramics and comprising a first surface and a second surface ; an electrode comprising a cathode electrode and an anode electrode on the first surface of the insulating substrate , the cathode electrode and the anode electrode to be connected to an external measuring circuit ; a resistance wire portion comprising two or more meander-shaped resistance wires which are disposed inside and in a thickness direction of the insulating substrate and connected to each other in series between the cathode electrode and the anode electrode , the two or more resistance wires being connected and having a low potential as being close to the second surface from the first surface ; and one or more metal layers which are connected to a position having a potential identical with that of the resistance wire portion or a potential lower than that of the resistance wire portion inside the insulating substrate , and are wider than the resistance wire , the metal layer being disposed between the resistance wire which is the closest to the second surface and the resistance wire which is the second closest to the second surface . an insulating substrate made of ceramics and comprising a first surface and a second surface ; an electrode comprising a cathode electrode and an anode electrode on the first surface of the insulating substrate , the cathode electrode and the anode electrode to be connected to an external measuring circuit ; a resistance wire portion comprising two or more meander-shaped resistance wires which are disposed inside and in a thickness direction of the insulating substrate and connected to each other in series between the cathode electrode and the anode electrode , the two or more resistance wires being connected and having a low potential as being close to the second surface from the first surface ; and one or more metal layers which are connected to a position having a potential identical with that of the resistance wire portion or a potential lower than that of the resistance wire portion inside the insulating substrate , and are wider than the resistance wire , the metal layer being disposed between the resistance wire which is the closest to the second surface and the resistance wire which is the second closest to the second surface .