mhurhangee/ep-ind-claims huggingface dataset:
A processor (103-S, 103-D, 203, 503, 703, 1000, 1110, 1270, 1410, 1514, 1516) comprising: a decode unit (564, 764, 840) configured to decode an instruction indicating a source encrypted copy of a protected container page that is to be stored in a regular memory, and indicating a destination page that is to be in a first protected container memory; and an execution unit (235, 525, 862), coupled with the decode unit (564, 764, 840), configured, in response to the instruction, to: determine whether the protected container page was live stored out, while able to remain useable in, protected container type memory; and perform a given security check, before a determination to store the protected container page to the destination page, if the determination is that the protected container page was live stored out; or not perform the given security check, if the determination is that the protected container page was not live stored out. a decode unit (564, 764, 840) configured to decode an instruction indicating a source encrypted copy of a protected container page that is to be stored in a regular memory, and indicating a destination page that is to be in a first protected container memory; and an execution unit (235, 525, 862), coupled with the decode unit (564, 764, 840), configured, in response to the instruction, to: determine whether the protected container page was live stored out, while able to remain useable in, protected container type memory; and perform a given security check, before a determination to store the protected container page to the destination page, if the determination is that the protected container page was live stored out; or not perform the given security check, if the determination is that the protected container page was not live stored out. determine whether the protected container page was live stored out, while able to remain useable in, protected container type memory; and perform a given security check, before a determination to store the protected container page to the destination page, if the determination is that the protected container page was live stored out; or not perform the given security check, if the determination is that the protected container page was not live stored out.
Mobile device (100, 500) for eradicating proliferating and/or invasive terrestrial plants, comprising: - a means (105, 505) for introducing the plants to be treated comprising a means for setting up a layer of plants to be treated, and - a means (155, 555) for generating electromagnetic waves emitting microwaves for sterilizing the plants within the layer of plants and which is adapted to heat the seeds of the plants to a temperature above 60°C within the layer of plants and deactivate the seeds and - a means (120, 520) for grinding the plants, which is arranged upstream from the means for generating electromagnetic waves. - a means (105, 505) for introducing the plants to be treated comprising a means for setting up a layer of plants to be treated, and - a means (155, 555) for generating electromagnetic waves emitting microwaves for sterilizing the plants within the layer of plants and which is adapted to heat the seeds of the plants to a temperature above 60°C within the layer of plants and deactivate the seeds and - a means (120, 520) for grinding the plants, which is arranged upstream from the means for generating electromagnetic waves.
Two-component system (2C system) in the form of a two-component dispersion adhesive system, wherein the two-component system comprises two components and separated from one another, i.e. at least a polymer dispersion in amounts of 80 to 99.9 wt.-%, based on the two-component system, on the one hand, and an isocyanate-based crosslinking component (hardening component) in amounts of 0.1 to 20 wt.-%, based on the two-component system for the polymer dispersion on the other, wherein the isocyanate-based crosslinking component comprises a mixture of at least an aliphatic isocyanate selected from aliphatic di- and poly-isocyanates, and at least an aromatic isocyanate selected from aromatic di- and poly-isocyanates, wherein the isocyanate-based crosslinking component contains aliphatic isocyanate(s) on the one hand and aromatic isocyanate(s) on the other, in a weight ratio of aliphatic isocyanate(s)/aromatic isocyanate(s) in the range of 15: 85 to 60: 40. at least a polymer dispersion in amounts of 80 to 99.9 wt.-%, based on the two-component system, on the one hand, and an isocyanate-based crosslinking component (hardening component) in amounts of 0.1 to 20 wt.-%, based on the two-component system for the polymer dispersion on the other,
A hole diameter (d) measuring method for a holey optical fiber that, when manufacturing a holey optical fiber bare wire by heating and melting a holey optical fiber base material which has a plurality of holes that extend and are arranged along a longitudinal direction of the holey optical fiber base material and drawing it, measures a diameter (d) of a hole of the optical fiber bare wire, the method comprising: a step of continuously irradiating parallel light rays from a side of the holey optical fiber bare wire that is obtained by the drawing to the holey optical fiber bare wire; a step of continuously detecting with a detecting portion (32; 32A; 32B) a forward scattering light that is generated by an irradiation of the parallel light rays; a step of generating a forward scattering light by irradiating the parallel light rays from a side of a hole-less optical fiber bare wire to the hole-less optical fiber bare wire and obtaining a scattering intensity pattern of the forward scattering light; a step of generating a forward scattering light by irradiating the parallel light rays from a side of the holey optical fiber bare wire to the holey optical fiber bare wire and obtaining a scattering intensity pattern (43, 44, 45) of the forward scattering light; a step of calculating a difference spectrum between the scattering intensity pattern that is obtained by the hole-less optical fiber bare wire and the scattering intensity pattern (43, 44, 45) that is obtained by the holey optical fiber bare wire; and a step of calculating the hole diameter (d) from the difference spectrum using a predetermined correlation relationship between a difference spectrum and a hole diameter, the predetermined correlation relationship being the correlation between the hole diameter and the width of a central portion of the difference spectrum.
Fluid channel of a container processing system for processing containers, such as bottles, the container processing system comprising a blow molding machine and a container processing machine arranged downstream of the blow molding machine in process direction, wherein the fluid channel is adapted to being arranged downstream of the blow molding machine and upstream of the downstream container processing machine in the process direction and comprising at least one component, through which the fluid can flow and which comprises at least one outlet opening through which the fluid can exit from the fluid channel in direction of a bottom of a container transported in the process direction, wherein the outlet opening is designed as one or more nozzles (242, 243, 244), characterized in that the component is a component manufactured by a generative manufacturing method, wherein the generative manufacturing method is a method in which the component is manufactured directly from a formless or neutrally formed material by means of chemical and/or physical processes.
A closure comprising a) a cap base including a barrier to egress of liquid from a package and including i) an opening, and ii) a fastener for fastening the cap base to the package, b) a closing flap movably attached to the cap base and when it is in a closed position suitable for preventing egress of a liquid in the package through the opening and together with the cap base suitable for preventing egress of the liquid from the package, c) The closing flap having a locking flap extending from an end thereof and movably attached to the closing flap, d) The closing flap including a closing flap fastener for releasably securing the closing flap to the cap base; e) The closing flap having a bottom surface contacting the cap base when the closing flap is in the closed position, f) the locking flap having a locking flap fastener for releasably fastening the locking flap to one or both of the package or the cap base, g) The locking flap having at least first and a second alternative positions when the closing flap is in the closed position, position being below the closing flap bottom surface and internal to the closing flap, and position being external to the closing flap whereby the locking flap can be fastened to the package or the cap base, and the closing flap includes a platform from which depend side walls on each side thereof and the locking flap is tucked within the closing flap side walls in position. a) a cap base including a barrier to egress of liquid from a package and including i) an opening, and ii) a fastener for fastening the cap base to the package, i) an opening, and ii) a fastener for fastening the cap base to the package, b) a closing flap movably attached to the cap base and when it is in a closed position suitable for preventing egress of a liquid in the package through the opening and together with the cap base suitable for preventing egress of the liquid from the package, c) The closing flap having a locking flap extending from an end thereof and movably attached to the closing flap, d) The closing flap including a closing flap fastener for releasably securing the closing flap to the cap base; e) The closing flap having a bottom surface contacting the cap base when the closing flap is in the closed position, f) the locking flap having a locking flap fastener for releasably fastening the locking flap to one or both of the package or the cap base, g) The locking flap having at least first and a second alternative positions when the closing flap is in the closed position, position being below the closing flap bottom surface and internal to the closing flap, and position being external to the closing flap whereby the locking flap can be fastened to the package or the cap base, and the closing flap includes a platform from which depend side walls on each side thereof and the locking flap is tucked within the closing flap side walls in position.
A sensor system comprising: a sensor operatively connected to a liquid storage vessel; an electronics unit operatively connected to the sensor, wherein the electronics unit includes a power source configured to provide electrical excitation to the sensor; an antenna operatively connected to the electronics unit to receive data there from and to provide power to the power source, wherein the antenna is wirelessly connected to a remote processing unit outside of the liquid storage vessel to transmit data thereto and to receive power there from via RF signals outside of the liquid storage vessel; an excitation module operatively connected to the sensor between the sensor and an optical cable; characterised by the optical cable within the interior of the liquid storage vessel connecting the electronics unit to the sensor to transmit power to the sensor and data from the sensor to the electronics unit via the excitation module; and wherein the antenna is configured to be at least partially outside of the liquid storage vessel. a sensor operatively connected to a liquid storage vessel; an electronics unit operatively connected to the sensor, wherein the electronics unit includes a power source configured to provide electrical excitation to the sensor; an antenna operatively connected to the electronics unit to receive data there from and to provide power to the power source, wherein the antenna is wirelessly connected to a remote processing unit outside of the liquid storage vessel to transmit data thereto and to receive power there from via RF signals outside of the liquid storage vessel; an excitation module operatively connected to the sensor between the sensor and an optical cable; characterised by the optical cable within the interior of the liquid storage vessel connecting the electronics unit to the sensor to transmit power to the sensor and data from the sensor to the electronics unit via the excitation module; and wherein the antenna is configured to be at least partially outside of the liquid storage vessel.
Method of measuring a movable object, comprising the following steps: - activating at least one light source for emitting parallel light rays covering a three-dimensional region; - moving the object, by at least one movement component transverse to the direction of the light rays, into the three-dimensional region covered by the light rays so that individual ones of the emitted light rays are influenced by the object on their path to a receiving device; - receiving the light rays, which have been influenced and/or not influenced by the object, with the help of a sensor field of the receiving device, wherein the resolution of the sensor field in at least one spatial direction transverse to the direction of the light rays is known; and - generating an image of the sensor field by the positions of the sensors, which are associated with light rays not influenced by the object, of the sensor field and by the positions of the sensors, which are associated with the emitted light rays influenced by the moved-in object, of the sensor field, wherein spacings (d i d j) between the individual positions of the sensors are similarly known by virtue of the known resolution of the sensor field; characterised in that the object is a lateral guide at a transport path for a slab in a casting or rolling plant; the light source is installed in such a way that the light rays run perpendicularly to the direction of movement of the lateral guide; and the image is evaluated with respect to the depth (s) of penetration of the lateral guide into the three-dimensional region covered by the light rays. - activating at least one light source for emitting parallel light rays covering a three-dimensional region; - moving the object, by at least one movement component transverse to the direction of the light rays, into the three-dimensional region covered by the light rays so that individual ones of the emitted light rays are influenced by the object on their path to a receiving device; - receiving the light rays, which have been influenced and/or not influenced by the object, with the help of a sensor field of the receiving device, wherein the resolution of the sensor field in at least one spatial direction transverse to the direction of the light rays is known; and - generating an image of the sensor field by the positions of the sensors, which are associated with light rays not influenced by the object, of the sensor field and by the positions of the sensors, which are associated with the emitted light rays influenced by the moved-in object, of the sensor field, wherein spacings (d i d j) between the individual positions of the sensors are similarly known by virtue of the known resolution of the sensor field;
A CO2 capture system comprised of the following features: - an intake for CO2-rich exhaust gas from a first source to a compressor and one or more outlets for a compressed, first CO2-rich gas under pressure to a manifold to a shell enclosing at least parts of a combustion chamber with a wall, - where compressed air is led only to burners without mixing with the first CO2-rich gas from the compressor, - where the combustion chamber is comprised of the burners arranged to burn fuel and the compressed air supplied under pressure from a fuel line and a compressed air line respectively, to form a second CO2-rich gas in burners, - where slits are provided in the wall in the combustion chamber to let in the compressed, first CO2-rich gas to mix with and cool the second CO2-rich gas formed in the burners, to a third CO2-rich exhaust gas; - a heat exchanger arranged to operate under pressure and heat exchange the hot third CO2-rich exhaust gas from the combustion chamber, and from there out via a pipe to a CO2 extraction plant, with returning CO2-poor exhaust gas from the CO2 extraction plant via a line under pressure, - where the returned, now heated CO2-poor exhaust gas is led via a manifold back to an expander which drives the compressor and the CO2 extraction plant, and out via an outlet. - an intake for CO2-rich exhaust gas from a first source to a compressor and one or more outlets for a compressed, first CO2-rich gas under pressure to a manifold to a shell enclosing at least parts of a combustion chamber with a wall, - where compressed air is led only to burners without mixing with the first CO2-rich gas from the compressor, - where the combustion chamber is comprised of the burners arranged to burn fuel and the compressed air supplied under pressure from a fuel line and a compressed air line respectively, to form a second CO2-rich gas in burners, - where slits are provided in the wall in the combustion chamber to let in the compressed, first CO2-rich gas to mix with and cool the second CO2-rich gas formed in the burners, to a third CO2-rich exhaust gas; - a heat exchanger arranged to operate under pressure and heat exchange the hot third CO2-rich exhaust gas from the combustion chamber, and from there out via a pipe to a CO2 extraction plant, with returning CO2-poor exhaust gas from the CO2 extraction plant via a line under pressure, - where the returned, now heated CO2-poor exhaust gas is led via a manifold back to an expander which drives the compressor and the CO2 extraction plant, and out via an outlet.
Process for increasing the cooling capacity of an extrusion line, and for the energy efficient extrusion of a plastic profile, in particular a plastic pipe, comprising the steps of a) Fusing plastic inside an extruder, b) Forming a plastic strand and supplying the plastic stand to a die, c) Forming a plastic profile by means of said die, and d) Calibrating and hardening the profile through cooling inside a cooling and/or calibration line, a gaseous medium being sucked through one or several cooling tanks (7, 8, 9) for outer cooling, the temperature and saturation of the gaseous medium increasing between the inlet area and the outlet area for said gaseous medium, a fluid medium being added via spray nozzles between the inlet area and the outlet area, said fluid medium evaporating due to heating, thus increasing the saturation of the gaseous medium, characterized in that the temperature as well as the saturation of the gaseous medium is being influenced, and that due to machine control, the dew point of the gaseous medium is not exceeded when increasing the saturation, that furthermore, the quantity of the gaseous medium and the quantity of the injected fluid medium are controlled as a function of a mathematical model in such a manner that an optimal amount of heat is removed from the profile at its surface. a) Fusing plastic inside an extruder, b) Forming a plastic strand and supplying the plastic stand to a die, c) Forming a plastic profile by means of said die, and d) Calibrating and hardening the profile through cooling inside a cooling and/or calibration line,
A cryogenic cooling system comprising: a gas circulation source that circulates a cooling gas; a cryocooler including a cryocooler stage that cools the cooling gas; an obj ect-to-be-cooled gas flow path provided around or inside an object to be cooled for causing the cooling gas to flow therethrough; a gas supply line that connects the gas circulation source to an inlet of the object-to-be-cooled gas flow path to supply the cooling gas from the gas circulation source via the cryocooler stage to the object-to-be-cooled gas flow path; a gas recovery line that connects an outlet of the obj ect-to-be-cooled gas flow path to the gas circulation source so as to recover the cooling gas from the object-to-be-cooled gas flow path to the gas circulation source; at least one temperature sensor that is installed at a measurement location away from the inlet of the object-to-be-cooled gas flow path along the gas supply line and/or a measurement location installed away from the outlet of the object-to-be-cooled gas flow path along the gas recovery line; and a gas flow rate control unit that controls the gas circulation source so as to adjust a flow rate of the cooling gas flowing through the object-to-be-cooled gas flow path in accordance with a measured temperature at at least one measurement location by the temperature sensor. a gas circulation source that circulates a cooling gas; a cryocooler including a cryocooler stage that cools the cooling gas; an obj ect-to-be-cooled gas flow path provided around or inside an object to be cooled for causing the cooling gas to flow therethrough; a gas supply line that connects the gas circulation source to an inlet of the object-to-be-cooled gas flow path to supply the cooling gas from the gas circulation source via the cryocooler stage to the object-to-be-cooled gas flow path; a gas recovery line that connects an outlet of the obj ect-to-be-cooled gas flow path to the gas circulation source so as to recover the cooling gas from the object-to-be-cooled gas flow path to the gas circulation source; at least one temperature sensor that is installed at a measurement location away from the inlet of the object-to-be-cooled gas flow path along the gas supply line and/or a measurement location installed away from the outlet of the object-to-be-cooled gas flow path along the gas recovery line; and a gas flow rate control unit that controls the gas circulation source so as to adjust a flow rate of the cooling gas flowing through the object-to-be-cooled gas flow path in accordance with a measured temperature at at least one measurement location by the temperature sensor.
A method of producing a steel pipe by shaping a steel plate subjected to edge bending into a cylindrical form through plural times of three-point bending press in widthwise direction and welding a seam thereof to form a non-expanded pipe, inserting a pipe expander provided with plural expander tools into an inside of the non-expanded pipe to perform pipe expanding, characterized in that the expander tools are pushed onto all sites of non-deformation areas in three-point bending press to perform pipe expanding, characterized in that the number of times of the three-point press bending is (aN - 1) wherein a is an integer of 1, 2 or the like when the number of the expander tools is N, wherein the non-expanded pipe comprises arc-like deformation areas and flat non-deformation areas, and the non-deformation areas are deformed while suppressing the deformation of the deformation areas.