mhurhangee/ep-ind-claims huggingface dataset:
Process for filling at least one downstream tank with a cryogenic liquid from an upstream storage tank, which upstream storage tank contains, under a storage pressure higher than atmospheric pressure, the cryogenic fluid in liquid phase at the bottom of the storage tank and in gas phase at the top of the storage tank, said upstream storage tank being designed to supply the downstream tank with liquid extracted from the bottom of the storage tank, and to be supplied from the exterior with fluid, in which a pressure difference is created and maintained between the upstream storage tank and the downstream tank, by establishing, in the gas phase in the upstream storage tank, a pressure that is higher than the equilibrium pressure in the storage tank, this being in the following manner: - a control device is provided, able to automatically manage the supply pressure of the cryogenic liquid in the upstream storage tank at the foot of the tank and the temperature of the stored cryogenic liquid, in response to a measurement of the pressure of the gas phase in the upstream storage tank and the position of this measurement relative to the equilibrium pressure in the storage tank; - the pressure of the gas phase in the upstream storage tank is maintained at a pressure that is higher than the equilibrium pressure in the storage tank by acting on the supply pressure of the cryogenic liquid in the upstream storage tank at the foot of the tank and on the temperature of the stored cryogenic liquid, where: - if after a period of use, i.e. during an idle period during the transfer, the temperature difference of the stored cryogenic liquid with respect to a chosen setpoint value is greater than a configured hysteresis, a new pressure setpoint is delivered to the control system in order to reduce the associated gas headspace pressure; - then in anticipation of operational reuse of rapid transfer, the gas headspace is repressurized to an operating pressure. - a control device is provided, able to automatically manage the supply pressure of the cryogenic liquid in the upstream storage tank at the foot of the tank and the temperature of the stored cryogenic liquid, in response to a measurement of the pressure of the gas phase in the upstream storage tank and the position of this measurement relative to the equilibrium pressure in the storage tank; - the pressure of the gas phase in the upstream storage tank is maintained at a pressure that is higher than the equilibrium pressure in the storage tank by acting on the supply pressure of the cryogenic liquid in the upstream storage tank at the foot of the tank and on the temperature of the stored cryogenic liquid, where: - if after a period of use, i.e. during an idle period during the transfer, the temperature difference of the stored cryogenic liquid with respect to a chosen setpoint value is greater than a configured hysteresis, a new pressure setpoint is delivered to the control system in order to reduce the associated gas headspace pressure; - then in anticipation of operational reuse of rapid transfer, the gas headspace is repressurized to an operating pressure.
Arrangement comprising a wind turbine rotor blade and an aerodynamic device, wherein - the wind turbine rotor blade comprises a trailing edge, surrounded by a trailing edge section, - the aerodynamic device comprises a buckling element, - the aerodynamic device comprises a flap, the buckling element comprises a stability limit and an elastic limit, wherein the stability limit is smaller than the elastic limit, - the buckling element is configured to deform elastically if a load, which is smaller than the elastic limit, acts on the buckling element, and - the buckling element abruptly deforms if a load of about the size of the stability limit acts on the buckling element, such that the aerodynamic properties of the arrangement change and strain on the wind turbine rotor blade is passively alleviated - characterized in that the aerodynamic device is attached to the wind turbine rotor blade at the trailing edge section. - the wind turbine rotor blade comprises a trailing edge, surrounded by a trailing edge section, - the aerodynamic device comprises a buckling element, - the aerodynamic device comprises a flap, the buckling element comprises a stability limit and an elastic limit, wherein the stability limit is smaller than the elastic limit, - the buckling element is configured to deform elastically if a load, which is smaller than the elastic limit, acts on the buckling element, and - the buckling element abruptly deforms if a load of about the size of the stability limit acts on the buckling element, such that the aerodynamic properties of the arrangement change and strain on the wind turbine rotor blade is passively alleviated - characterized in that the aerodynamic device is attached to the wind turbine rotor blade at the trailing edge section.
An interchangeable servicing cassette sized to be removably received by a servicing portion of a service station for servicing a handheld jet dispensing apparatus comprising a fluid jet cartridge carrying a composition and a camera for capturing an image of a surface, the servicing cassette comprising: a moveable actuation member configured to be moved by an actuator of the docking station relative to the fluid jet cartridge of the jet dispensing apparatus, wherein the moveable actuation member is rotatable, the rotatable actuation member being rotated by the actuator relative to the jet dispensing apparatus; and at least one of a wiping element, a calibration element and a composition receiving element carried by the moveable actuation member and wherein the moveable actuation member comprises each of the wiping element, calibration element and composition receiving element. a moveable actuation member configured to be moved by an actuator of the docking station relative to the fluid jet cartridge of the jet dispensing apparatus, wherein the moveable actuation member is rotatable, the rotatable actuation member being rotated by the actuator relative to the jet dispensing apparatus; and at least one of a wiping element, a calibration element and a composition receiving element carried by the moveable actuation member and wherein the moveable actuation member comprises each of the wiping element, calibration element and composition receiving element.
An ultrasound imaging apparatus (100, 101) comprising: a probe configured to emit an ultrasonic signal to an object and receive a reflected ultrasonic signal; a processor configured to generate an ultrasound image based on the ultrasonic signal received by the probe; and a touch screen configured to output the ultrasound image generated by the processor and a user interface "UI" button along with the ultrasound image and receive a pressure of a touch of a user, wherein the processor controls the ultrasound image and the touch screen based on the pressure of the touch after outputting the generated ultrasound image, characterized in that in response to the touch screen receiving the touch having a first pressure on the UI button, the processor is configured to remove a portion of the ultrasound image having a predetermined intensity range corresponding to a first depth, and in response to the touch screen receiving the touch having a second pressure on the UI button, the processor is configured to sequentially remove a region of the ultrasound image having a predetermined intensity range corresponding to a second depth, wherein the second pressure is greater than the first pressure and the second depth is deeper than the first depth. a probe configured to emit an ultrasonic signal to an object and receive a reflected ultrasonic signal; a processor configured to generate an ultrasound image based on the ultrasonic signal received by the probe; and a touch screen configured to output the ultrasound image generated by the processor and a user interface "UI" button along with the ultrasound image and receive a pressure of a touch of a user, wherein the processor controls the ultrasound image and the touch screen based on the pressure of the touch after outputting the generated ultrasound image, characterized in that in response to the touch screen receiving the touch having a first pressure on the UI button, the processor is configured to remove a portion of the ultrasound image having a predetermined intensity range corresponding to a first depth, and in response to the touch screen receiving the touch having a second pressure on the UI button, the processor is configured to sequentially remove a region of the ultrasound image having a predetermined intensity range corresponding to a second depth, wherein the second pressure is greater than the first pressure and the second depth is deeper than the first depth.
A method of detecting an object, in which - pulses of transmitted light are repeatedly transmitted into a detection zone by means of a light source; - received light received from the detection zone is detected by means of a detection apparatus which has a plurality of detectors; and - an evaluation zone is defined which comprises a plurality of detectors and within which received light is incident onto the detectors, with the position and/or the size of the evaluation zone being fixed by means of the intensity of the received light, characterized in that - a plurality of part regions are fixed within the evaluation zone; - in that at least some of the part regions are evaluated sequentially using a plurality of consecutive pulses of transmitted light; and - in that the evaluations of the part regions are combined to determine the presence of an object in the detection zone. - pulses of transmitted light are repeatedly transmitted into a detection zone by means of a light source; - received light received from the detection zone is detected by means of a detection apparatus which has a plurality of detectors; and - an evaluation zone is defined which comprises a plurality of detectors and within which received light is incident onto the detectors, with the position and/or the size of the evaluation zone being fixed by means of the intensity of the received light, - a plurality of part regions are fixed within the evaluation zone; - in that at least some of the part regions are evaluated sequentially using a plurality of consecutive pulses of transmitted light; and - in that the evaluations of the part regions are combined to determine the presence of an object in the detection zone.
A security component configured to be communicatively coupled between a trusted element and a distributed sensor system, the security component comprising: a configuration table configured to store sensor configurations for the distributed sensor system; a security controller configured to secure the configuration table by limiting access to the configuration table according to a selected security protocol; and a feedback controller configured to receive signals from the distributed sensor system and send feedback instructions to one or more of a power management component and the trusted element based at least on a comparison of the signals received from the distributed sensor system with values in the configuration table, wherein the feedback controller is further configured to detect an unauthorized modification event based on a comparison of values stored in the configuration table to values stored in registers of the sensors of the distributed sensor system, and send a shutdown instruction to the power management component of the distributed sensor system responsive to detecting the unauthorized modification event comprising unauthorized modification of the configuration table. a configuration table configured to store sensor configurations for the distributed sensor system; a security controller configured to secure the configuration table by limiting access to the configuration table according to a selected security protocol; and a feedback controller configured to receive signals from the distributed sensor system and send feedback instructions to one or more of a power management component and the trusted element based at least on a comparison of the signals received from the distributed sensor system with values in the configuration table, wherein the feedback controller is further configured to detect an unauthorized modification event based on a comparison of values stored in the configuration table to values stored in registers of the sensors of the distributed sensor system, and send a shutdown instruction to the power management component of the distributed sensor system responsive to detecting the unauthorized modification event comprising unauthorized modification of the configuration table.
A tissue reshaping apparatus for creating a pattern of distributed localized regions of thermal damage in the tissue, the apparatus comprising: a plurality of needles (350, 410, 415) attached to a base, wherein the base is attached to a housing or part of the housing; an energy source in communication with the plurality of needles; and a control module, wherein the control module permits variation of the characteristics of energy supplied by the energy source, wherein the control module is configured to control the energy source to create the pattern of distributed localized regions of thermal damage by adjusting intensity and duration of power transmitted to single needles or pairs of needles; wherein the energy source is configured to deliver 1-100mJ to the single needles or the pairs of needles; wherein an average spacing of needles is between 1 mm and 2 cm a plurality of needles (350, 410, 415) attached to a base, wherein the base is attached to a housing or part of the housing; an energy source in communication with the plurality of needles; and a control module, wherein the control module permits variation of the characteristics of energy supplied by the energy source, wherein the control module is configured to control the energy source to create the pattern of distributed localized regions of thermal damage by adjusting intensity and duration of power transmitted to single needles or pairs of needles; wherein the energy source is configured to deliver 1-100mJ to the single needles or the pairs of needles; wherein an average spacing of needles is between 1 mm and 2 cm
A rewinding method employed in a pot spinning machine following yarn breakage, the rewinding method comprising: a cake forming step of forming a cake by rotating a pot having an opening and winding yarn drawn out to a predetermined thickness around an inner wall of the pot; characterized by an end of the cake detecting step of detecting a lower end of the cake on the opening side when yarn breakage is detected by a yarn breakage detection unit before completion of the cake forming step; a bobbin disposing step of disposing a bobbin inside the pot through the opening after yarn breakage is detected; and a contact step of bringing an elongated member into contact with the inner wall of the pot through the opening, closer to the opening than the lower end of the cake detected in the end of the cake detecting step. a cake forming step of forming a cake by rotating a pot having an opening and winding yarn drawn out to a predetermined thickness around an inner wall of the pot; characterized by an end of the cake detecting step of detecting a lower end of the cake on the opening side when yarn breakage is detected by a yarn breakage detection unit before completion of the cake forming step; a bobbin disposing step of disposing a bobbin inside the pot through the opening after yarn breakage is detected; and a contact step of bringing an elongated member into contact with the inner wall of the pot through the opening, closer to the opening than the lower end of the cake detected in the end of the cake detecting step.
A method for performing contextual molecular diagnostics in a tissue sample, the method comprising: contacting the tissue sample with a probe comprising a photo-reactive moiety, a specific binding moiety to a target, and a detection tag using conditions sufficient to facilitate binding of the specific binding moiety to a target in the sample; removing probe that does not bind to the sample; adding a template sequence to the tissue sample, wherein the template sequence is configured to specifically hybridize with the detection tag; selecting a region of the sample for irradiation based on contextual information; irradiating the selected region of the tissue sample with light of a wavelength and an intensity sufficient to cause the photo-reactive moiety to react, thereby freeing the detection tag from the selected region of the tissue sample for further reaction; exposing the tissue sample to an enzyme that acts on the detection tag to effect a change; and detecting the change, wherein the detection tag is an extendable primer, the photo-reactive moiety is a photo-cleavable blocking group, the enzyme is a polymerase, and the change is an extension of a primer sequence in the presence of dATP, dCTP, dTTP, and dGTP on the template sequence. contacting the tissue sample with a probe comprising a photo-reactive moiety, a specific binding moiety to a target, and a detection tag using conditions sufficient to facilitate binding of the specific binding moiety to a target in the sample; removing probe that does not bind to the sample; adding a template sequence to the tissue sample, wherein the template sequence is configured to specifically hybridize with the detection tag; selecting a region of the sample for irradiation based on contextual information; irradiating the selected region of the tissue sample with light of a wavelength and an intensity sufficient to cause the photo-reactive moiety to react, thereby freeing the detection tag from the selected region of the tissue sample for further reaction; exposing the tissue sample to an enzyme that acts on the detection tag to effect a change; and detecting the change, wherein the detection tag is an extendable primer, the photo-reactive moiety is a photo-cleavable blocking group, the enzyme is a polymerase, and the change is an extension of a primer sequence in the presence of dATP, dCTP, dTTP, and dGTP on the template sequence.
A control method for a heater comprising at least one heating element, at least one fan for blowing the heat generated by said heating element to an environment to be heated and at least one temperature detector of the environment to be heated, said method comprising: - at least one first heating phase active until the detected environment temperature ( t) by said temperature detector is higher than a first control temperature corresponding to a user-set temperature increased by a first predetermined temperature differential, said heating element being active in said first heating phase and said fan being operated at an operating speed at least equal to a predetermined heating speed; - at least one second maintenance phase active when said temperature detector detects a detected environment temperature ( t) higher than said first control temperature, in said second maintenance phase said heating element being active and said fan being driven at a maintenance speed lower than said predetermined heating speed, said method being characterized in comprising a reactivation phase of said heating phase when said temperature detector detects a detected environment temperature ( t) which has fallen below said user-set temperature decreased by a fourth predetermined temperature differential, said reactivation phase of said heating phase being performed by gradually increasing the speed of said fan bringing it to said operating speed in a second predetermined time interval so as to limit the noise differential perceived by users. - at least one first heating phase active until the detected environment temperature ( t) by said temperature detector is higher than a first control temperature corresponding to a user-set temperature increased by a first predetermined temperature differential, said heating element being active in said first heating phase and said fan being operated at an operating speed at least equal to a predetermined heating speed; - at least one second maintenance phase active when said temperature detector detects a detected environment temperature ( t) higher than said first control temperature, in said second maintenance phase said heating element being active and said fan being driven at a maintenance speed lower than said predetermined heating speed, said method being characterized in comprising a reactivation phase of said heating phase when said temperature detector detects a detected environment temperature ( t) which has fallen below said user-set temperature decreased by a fourth predetermined temperature differential, said reactivation phase of said heating phase being performed by gradually increasing the speed of said fan bringing it to said operating speed in a second predetermined time interval so as to limit the noise differential perceived by users.
A cold plate assembly (10, 10a, 110) for an electronic component comprising: a polymer base; a cooling manifold (20, 120) comprising a coolant passage (22, 122) within the polymer base and having an inlet (24, 124) and an outlet (26, 126); a first cooling interface (30, 130) located in the polymer base and fluidly coupled to the coolant passage (22, 122); and at least one metal adapter (14, 14a, 114) having a second cooling interface (38, 138) mating with the first cooling interface (30, 130) and configured to mount the electronic component, the first cooling interface (30, 130) comprising at least one recess (32, 32a, 32b), characterized in that the cold plate assembly further comprises: a first structure formed in the at least one recess (32, 32a, 32b); and a second structure formed on the second cooling interface (38, 138) and received within the at least one recess (32, 32a, 32b), wherein the first and second structures (33, 39) together form interconnected channels. a polymer base; a cooling manifold (20, 120) comprising a coolant passage (22, 122) within the polymer base and having an inlet (24, 124) and an outlet (26, 126); a first cooling interface (30, 130) located in the polymer base and fluidly coupled to the coolant passage (22, 122); and at least one metal adapter (14, 14a, 114) having a second cooling interface (38, 138) mating with the first cooling interface (30, 130) and configured to mount the electronic component, the first cooling interface (30, 130) comprising at least one recess (32, 32a, 32b), characterized in that the cold plate assembly further comprises: a first structure formed in the at least one recess (32, 32a, 32b); and a second structure formed on the second cooling interface (38, 138) and received within the at least one recess (32, 32a, 32b), wherein the first and second structures (33, 39) together form interconnected channels. a first structure formed in the at least one recess (32, 32a, 32b); and a second structure formed on the second cooling interface (38, 138) and received within the at least one recess (32, 32a, 32b), wherein the first and second structures (33, 39) together form interconnected channels.