mhurhangee/ep-ind-claims huggingface dataset:
An igniter for propulsion unit, wherein said igniter has a slapper comprising an ignition carrier, a receptacle having at least one opening through which passes a conducting line connected to said ignition carrier of said slapper, said slapper being contained within the receptacle, the igniter being characterised in that at least one elastomer material is disposed between the ignition carrier and the opening such that the pressure of the gases generated by the propulsion unit which is ignited pushes the elastomer material at the vicinity of the opening of the receptacle so that this elastomer material blocks the opening and avoids any gas leak through this opening.
Method of generating data relative to the writing of a pattern by electronic radiation, the method being performed by a computer, the method being characterized in that it successively comprises: - S1) Providing a pattern to be formed on a substrate, - S2) Forming a work pattern, advantageously exactly corresponding to the pattern to be formed, from the pattern to be formed, the work pattern comprising a single external envelope, - S3) Breaking down the work pattern into a set of elementary outlines comprising a plurality of elementary outlines each having a single external envelope, and defining a set of insolation conditions for each elementary outline, - S4) Comparing the pattern to be formed with a simulation pattern representing the sets of insolation conditions for the elementary outlines to discriminate a simulation pattern representative of the pattern to be formed from a simulation pattern which is not representative of the pattern to be formed, method wherein, if the simulation pattern is not representative of the pattern to be formed, the method comprises: - S7) Determining at least one shift vector between at least a portion of the external envelope of the pattern to be formed and a corresponding portion of the external envelope of the simulation pattern, - S8) Displacing at least a portion of the external envelope of the work pattern or of the pattern to be formed according to a displacement vector determined at least from the corresponding shift vector to form a new work pattern, - Carrying out a new iteration of steps S3) and S4). - S1) Providing a pattern to be formed on a substrate, - S2) Forming a work pattern, advantageously exactly corresponding to the pattern to be formed, from the pattern to be formed, the work pattern comprising a single external envelope, - S3) Breaking down the work pattern into a set of elementary outlines comprising a plurality of elementary outlines each having a single external envelope, and defining a set of insolation conditions for each elementary outline, - S4) Comparing the pattern to be formed with a simulation pattern representing the sets of insolation conditions for the elementary outlines to discriminate a simulation pattern representative of the pattern to be formed from a simulation pattern which is not representative of the pattern to be formed, - S7) Determining at least one shift vector between at least a portion of the external envelope of the pattern to be formed and a corresponding portion of the external envelope of the simulation pattern, - S8) Displacing at least a portion of the external envelope of the work pattern or of the pattern to be formed according to a displacement vector determined at least from the corresponding shift vector to form a new work pattern, - Carrying out a new iteration of steps S3) and S4).
A manifold component for a droplet ejection head, the manifold component comprising: a mount for receiving an actuator component that provides one or more rows of fluid chambers, each chamber being provided with a respective at least one actuating element and a respective at least one nozzle, the at least one actuating element for each chamber being actuable to eject a droplet of fluid in an ejection direction through the corresponding at least one nozzle, each row extending in a row direction; a manifold chamber, which extends from a first end to a second end, and widens from said first end to said second end, the second end providing fluidic connection, in parallel, to at least a group of chambers within said one or more rows and being located adjacent said mount; and at least one port, each port opening into the manifold chamber at the first end thereof; wherein at least one portion between the first end and second end of the manifold chamber is shaped as a hyperbolic acoustic horn. a mount for receiving an actuator component that provides one or more rows of fluid chambers, each chamber being provided with a respective at least one actuating element and a respective at least one nozzle, the at least one actuating element for each chamber being actuable to eject a droplet of fluid in an ejection direction through the corresponding at least one nozzle, each row extending in a row direction; a manifold chamber, which extends from a first end to a second end, and widens from said first end to said second end, the second end providing fluidic connection, in parallel, to at least a group of chambers within said one or more rows and being located adjacent said mount; and at least one port, each port opening into the manifold chamber at the first end thereof; wherein at least one portion between the first end and second end of the manifold chamber is shaped as a hyperbolic acoustic horn.
A method for producing an alkaline aggregate, which method comprises the steps of: - providing a granular alkaline material which comprises a granular steel-making slag material, excluding blast furnace slags, and which contains free oxides of calcium and/or magnesium, and - ageing at least a portion of the granular alkaline material, which portion has a predetermined swelling percentage as determined according to standard NBN EN 1744-1 article 19.3, to reduce this swelling percentage to a value which is smaller than 1.5%, preferably smaller than 1.0%, during which ageing step said portion of said granular alkaline material is treated with water to hydrate at least part of said free oxides, characterised in that at least said portion of the granular alkaline material is treated with an aqueous medium which contains at least one antiscalant to accelerate said ageing of the granular alkaline material. - providing a granular alkaline material which comprises a granular steel-making slag material, excluding blast furnace slags, and which contains free oxides of calcium and/or magnesium, and - ageing at least a portion of the granular alkaline material, which portion has a predetermined swelling percentage as determined according to standard NBN EN 1744-1 article 19.3, to reduce this swelling percentage to a value which is smaller than 1.5%, preferably smaller than 1.0%, during which ageing step said portion of said granular alkaline material is treated with water to hydrate at least part of said free oxides,
A container-type data center cluster assembled by at least two container-type data centers side by side, each container-type data center comprises a container, at least three rows of cabinets, and data processing devices, wherein the data processing devices are disposed in the cabinets, the at least three rows of the cabinets are disposed in parallel and perpendicular to a long edge of the container, two neighboring rows of the cabinets of the at least three rows of the cabinets are back-against-back disposed or disposed at intervals, and when the two neighboring rows of the cabinets are disposed at intervals, a maintenance channel is formed from the space between the two neighboring rows of the cabinets, characterised in that the at least three rows of the cabinets are arranged from one long edge of the container to the other long edge, two ends of the maintenance channel being the long edges of the container, and wherein the maintenance channels of the container-type data centers are butt-jointed.
An apparatus comprising: at least one single photon avalanche diode pixel configured to operate in a first mode to output a digital single photon detection event, the pixel comprising: a single photon avalanche diode; and at least one output transistor configured to provide an analogue output current from the single photon avalanche diode, such that the at least one single photon avalanche diode pixel is further configured to operate in a second mode to output the analogue output current indicating a level of illumination of the pixel, characterized by the at least one output transistor comprising at least one quench transistor coupled to an anode of the single photon avalanche diode, wherein the at least one single photon avalanche diode pixel is configured to operate in the first mode and second mode at substantially the same time. a single photon avalanche diode; and at least one output transistor configured to provide an analogue output current from the single photon avalanche diode, such that the at least one single photon avalanche diode pixel is further configured to operate in a second mode to output the analogue output current indicating a level of illumination of the pixel, characterized by the at least one output transistor comprising at least one quench transistor coupled to an anode of the single photon avalanche diode, wherein the at least one single photon avalanche diode pixel is configured to operate in the first mode and second mode at substantially the same time.
A solid-state imaging element comprising: a photodiode that photoelectrically converts incident light and generates photocurrent, wherein a cathode of the photodiode is connected to a source of a conversion transistor via an input signal line; the conversion transistor that converts the photocurrent to a voltage signal and outputs the voltage signal through a gate of the conversion transistor; a current source transistor that supplies predetermined constant current to an output signal line connected to the gate of the conversion transistor; a voltage supply transistor that supplies a certain voltage corresponding to the predetermined constant current from the output signal line to the source of the conversion transistor via the input signal line; and a capacitor that is connected between the gate of the conversion transistor and the source of the conversion transistor, wherein a gate of the voltage supply transistor is connected to the source of the conversion transistor via the input signal line the solid-state imaging element further comprising: a buffer that corrects the voltage signal; a subtractor that reduces a level of the corrected voltage signal; and a quantizer that quantizes the reduced voltage signal, wherein the photodiode is provided on a light receiving chip stacked on a detection chip, and the quantizer is provided on the detection chip stacked on the light receiving chip. a photodiode that photoelectrically converts incident light and generates photocurrent, wherein a cathode of the photodiode is connected to a source of a conversion transistor via an input signal line; the conversion transistor that converts the photocurrent to a voltage signal and outputs the voltage signal through a gate of the conversion transistor; a current source transistor that supplies predetermined constant current to an output signal line connected to the gate of the conversion transistor; a voltage supply transistor that supplies a certain voltage corresponding to the predetermined constant current from the output signal line to the source of the conversion transistor via the input signal line; and a capacitor that is connected between the gate of the conversion transistor and the source of the conversion transistor, wherein a gate of the voltage supply transistor is connected to the source of the conversion transistor via the input signal line the solid-state imaging element further comprising: a buffer that corrects the voltage signal; a subtractor that reduces a level of the corrected voltage signal; and a quantizer that quantizes the reduced voltage signal, wherein the photodiode is provided on a light receiving chip stacked on a detection chip, and the quantizer is provided on the detection chip stacked on the light receiving chip. a buffer that corrects the voltage signal; a subtractor that reduces a level of the corrected voltage signal; and a quantizer that quantizes the reduced voltage signal, wherein the photodiode is provided on a light receiving chip stacked on a detection chip, and the quantizer is provided on the detection chip stacked on the light receiving chip.
A crane controller for the semi-automatic control of a rotary crane, the crane comprising at least a slewing actuator for creating a slewing motion of the crane and/or a luffing actuator for creating a luffing motion of the crane, the crane controller comprising an input unit which can be operated by a operator to provide a desired slewing speed and/or a desired luffing speed as an operator input and a model-predictive reference trajectory planning module comprising an optimization unit for calculating a reference trajectory that obeys the system dynamics and follows the operator input, and a feedforward-controller using the reference trajectory for controlling the slewing actuator and/or the luffing actuator, whereby the optimization unit takes into account the deflection of the rope in the tangential and/or radial direction when solving the optimization problem that provides the reference trajectory, characterized in a fallback trajectory planning module, wherein the output of the fallback trajectory planning module is used by the feedforward controller if the optimization unit of the model-predictive reference trajectory planning module does not provide a reference trajectory within a predefined time-frame.
An adaptive ergonomic positioning device comprising: a. an insert assembly wherein said insert assembly comprises connection means to a surgical table existing head end table segment attachment means or a surgical chair existing head end chair segment attachment means; b. a main support assembly connected to said insert assembly, wherein said main support assembly further comprises a main support frame; c. a head support assembly connected to said main support frame; and d. two patient arm support assemblies connected to said main support frame; wherein said adaptive ergonomic positioning device can be removably connected to said surgical table existing head end table segment attachment means or said surgical chair existing head end chair segment attachment means. a. an insert assembly wherein said insert assembly comprises connection means to a surgical table existing head end table segment attachment means or a surgical chair existing head end chair segment attachment means; b. a main support assembly connected to said insert assembly, wherein said main support assembly further comprises a main support frame; c. a head support assembly connected to said main support frame; and d. two patient arm support assemblies connected to said main support frame; wherein said adaptive ergonomic positioning device can be removably connected to said surgical table existing head end table segment attachment means or said surgical chair existing head end chair segment attachment means.
A method, comprising: receiving, from a communication network and by a user equipment, a measurement configuration; determining, by the user equipment and based on at least one condition, to adapt the measurement configuration, wherein: the adapted measurement configuration identifies mobility measurements for use by the user equipment, and the at least one condition comprises a synchronization signal block signal quality condition; and performing, by the user equipment, the adapted measurement configuration instead of the measurement configuration received from the communication network; wherein performing the adapted measurement configuration comprises applying, for the measurement configuration, an adapted configuration associated with at least one of: a time location or a periodicity associated with measurements of at least one synchronization signal block; wherein the adapted configuration comprises frequency level information; and wherein performing the adapted measurement configuration further comprises using the frequency level information to adapt at least one of: a time location or a periodicity associated with a list configuration for measurement of at least one synchronization signal block having different center frequencies. receiving, from a communication network and by a user equipment, a measurement configuration; determining, by the user equipment and based on at least one condition, to adapt the measurement configuration, wherein: the adapted measurement configuration identifies mobility measurements for use by the user equipment, and the at least one condition comprises a synchronization signal block signal quality condition; and the adapted measurement configuration identifies mobility measurements for use by the user equipment, and the at least one condition comprises a synchronization signal block signal quality condition; and performing, by the user equipment, the adapted measurement configuration instead of the measurement configuration received from the communication network; wherein performing the adapted measurement configuration comprises applying, for the measurement configuration, an adapted configuration associated with at least one of: a time location or a periodicity associated with measurements of at least one synchronization signal block; wherein the adapted configuration comprises frequency level information; and wherein performing the adapted measurement configuration further comprises using the frequency level information to adapt at least one of: a time location or a periodicity associated with a list configuration for measurement of at least one synchronization signal block having different center frequencies.
An IgG1 antibody comprising a TNFα-binding domain and an FcRn-binding site, having a high affinity to human FcRn at pH 6, said high affinity being characterized by a dissociation equilibrium constant (K D) determined by surface plasmon resonance of less than 500 nM, and further having no affinity or a low affinity to human FcRn at pH 7.4, said low affinity being characterized by a K D determined by surface plasmon resonance of greater than 10 μM, wherein the amino acid sequence of the antibody comprises the amino acids 380A (EU numbering) and 434A (EU numbering) and wherein the antibody comprises (i) a V L domain having the amino acid sequence as shown in SEQ ID NO:10 and (ii) a V H domain having the amino acid sequence as shown in SEQ ID NO:9.
Method for the creation of a foundation pile that includes the operational stages of: making a hole in the soil with a development axis and its own cross section; once the hole is completed, compacting the soil around the hole by enlarging the cross section of the hole itself; this stage comprising a first stage of inserting a fluid dilator in the hole and a second stage of supplying the fluid dilator with a pressurized working fluid for radial compression of the soil around the hole by radial expansion of the fluid dilator; removing the fluid dilator from the hole; after that, pouring into the hole at least one solidifiable filler; leaving the filler to cure in order to achieve a column structure defining the foundation pile; wherein the stage of supplying the fluid dilator with a pressurized working fluid for radial compression of the soil around the hole is actuated in such a way to obtain a strip of compacted soil around the hole; characterised by the fact that said at least one solidifiable filler is comprised of an expanding resin, and that the stage of pouring is actuated by pouring into the hole the expanding resin so that it adheres to the soil. making a hole in the soil with a development axis and its own cross section; once the hole is completed, compacting the soil around the hole by enlarging the cross section of the hole itself; this stage comprising a first stage of inserting a fluid dilator in the hole and a second stage of supplying the fluid dilator with a pressurized working fluid for radial compression of the soil around the hole by radial expansion of the fluid dilator; removing the fluid dilator from the hole; after that, pouring into the hole at least one solidifiable filler; leaving the filler to cure in order to achieve a column structure defining the foundation pile; wherein the stage of supplying the fluid dilator with a pressurized working fluid for radial compression of the soil around the hole is actuated in such a way to obtain a strip of compacted soil around the hole; characterised by the fact that said at least one solidifiable filler is comprised of an expanding resin, and that the stage of pouring is actuated by pouring into the hole the expanding resin so that it adheres to the soil.
An apparatus for aiding coagulation of fluids in tissue during surgery comprising: a suction tube; a first electrode shaped as a cylindrical section of the suction tube extending from the suction tube; a second electrode shaped as a cylindrical section of the suction tube extending from the suction tube; a first space formed by a first circumferential distance between the first electrode and the second electrode, wherein the first circumferential distance is approximately equal to the distance between a tip of the first electrode and the suction tube; and a second space formed by a second circumferential distance between the first electrode and the second electrode, wherein the second circumferential distance is approximately equal to the distance between a tip of the second electrode and the suction tube. a suction tube; a first electrode shaped as a cylindrical section of the suction tube extending from the suction tube; a second electrode shaped as a cylindrical section of the suction tube extending from the suction tube; a first space formed by a first circumferential distance between the first electrode and the second electrode, wherein the first circumferential distance is approximately equal to the distance between a tip of the first electrode and the suction tube; and a second space formed by a second circumferential distance between the first electrode and the second electrode, wherein the second circumferential distance is approximately equal to the distance between a tip of the second electrode and the suction tube.