mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at a node in a blockchain network, a first transaction to validate, the first transaction including a first script that includes at least: a first value, at least a portion of the first value including data that is unconstrained by a second script; and a second value; obtaining a second transaction, the second transaction having been validated and including the second script that, as a result of being executed, causes the node to at least: obtain the first value and the second value as a result of execution of the first script; and validate, based at least in part on first value and the second value, that the data is associated with a particular source; and validating the first transaction by executing the first script and the second script. receiving, at a node in a blockchain network, a first transaction to validate, the first transaction including a first script that includes at least: a first value, at least a portion of the first value including data that is unconstrained by a second script; and a second value; a first value, at least a portion of the first value including data that is unconstrained by a second script; and a second value; obtaining a second transaction, the second transaction having been validated and including the second script that, as a result of being executed, causes the node to at least: obtain the first value and the second value as a result of execution of the first script; and validate, based at least in part on first value and the second value, that the data is associated with a particular source; and obtain the first value and the second value as a result of execution of the first script; and validate, based at least in part on first value and the second value, that the data is associated with a particular source; and validating the first transaction by executing the first script and the second script.
A pack for a group of elongated tobacco products, in particular cigarettes, wrapped in a inner blank that forms an inner pack, said pack comprising a box part for accommodating the inner pack as the pack contents, and a lid joined to the box part by means of a line joint, wherein the inner pack or the inner blank thereof comprises a tab or a closure label which serves in the open position as pull means for raising the inner pack into an oblique position as a removal position for the cigarettes inside the box part and wherein, in addition, the inner pack is joined to an upright cross wall of the box part on the inner bottom wall located opposite the tab or the closure label, characterized in that the inner pack is joined to the box cross wall or to a cross web of a frame in a top region, namely in a region facing a top wall of the inner pack, by means of an articulated joint in such a manner that during the pivoting movement the inner pack is pivotable into the oblique position about an imaginary axis approximately in the region of a cross edge of the top wall so as to form a substantially wedge-shaped gap between the inner pack and the box cross wall or the cross web of the frame, and in that the inner pack is joined to the box cross wall or to the cross web of the frame by means of at least one defined glue field having a plurality of glue points (44, 45) on the inner bottom wall in a top region which faces the top wall, and in that the glue points (44, 45) consist of elastically deformable permanent adhesive.
A composition comprising: a) a refrigerant selected from the group consisting of a hydrofluoroolefin and blends thereof; b) a solubilizing agent comprising at least one siloxane; and c) a refrigeration system lubricant. a) a refrigerant selected from the group consisting of a hydrofluoroolefin and blends thereof; b) a solubilizing agent comprising at least one siloxane; and c) a refrigeration system lubricant.
A dielectric filter, comprising at least two dielectric resonators, wherein the dielectric filter has a first surface and a second surface that are respectively side surfaces on two sides of an arrangement direction of the at least two resonators; the dielectric filter further comprising a first through-hole disposed between the at least one pair of adj acent dielectric resonators, wherein one opening of the first through-hole is located on the first surface, and the other opening is located on the second surface to penetrate the dielectric filter; the first through-hole is connected to a through-hole group, and the through-hole group comprises one or more second through-holes connected to the first through-hole with openings of all second through-holes located on a side surface close to the top or the bottom of the at least two dielectric resonators in the dielectric filter such that the first through-hole and one or more second through-holes are configured to cut a magnetic field between the at least one pair of adjacent dielectric resonators; characterised in that at least one non-through hole is connected to the first through-hole, and the at least one non-through hole is in communication with one second through-hole. the dielectric filter further comprising a first through-hole disposed between the at least one pair of adj acent dielectric resonators, wherein one opening of the first through-hole is located on the first surface, and the other opening is located on the second surface to penetrate the dielectric filter; the first through-hole is connected to a through-hole group, and the through-hole group comprises one or more second through-holes connected to the first through-hole with openings of all second through-holes located on a side surface close to the top or the bottom of the at least two dielectric resonators in the dielectric filter such that the first through-hole and one or more second through-holes are configured to cut a magnetic field between the at least one pair of adjacent dielectric resonators; characterised in that at least one non-through hole is connected to the first through-hole, and the at least one non-through hole is in communication with one second through-hole.
An ultrasound imaging system (10;800) comprising: an ultrasound probe configured to receive ultrasound echoes from a subject to image a volume of the subject; a scan converter configured to generate a three dimensional data set from the ultrasound echoes; a volume renderer configured to calculate surface shading information of a surface of the 3D data set based, at least in part, on a location of a simulated light source (405;405a-e;705;915a-c;1015;1115) relative to the 3D data set and render a two dimensional projection image of the 3D data set, the 2D projection image including the shading information; and a user interface (24;805) comprising: a display (38;810;905;1005) configured to display the 2D projection image; and an input device comprising a user input element configured to receive user input to position the simulated light source (405;405a-e;705;915a-c;1015;1115) at a location within the 3D data set, wherein the simulated light source (405;405a-e;705;915a-c;1015;1115) comprises a plurality of simulated light sources including a first light source at a shallow depth near the image plane and a second light source at a deeper depth within the 3D data set relative to the first light source. an ultrasound probe configured to receive ultrasound echoes from a subject to image a volume of the subject; a scan converter configured to generate a three dimensional data set from the ultrasound echoes; a volume renderer configured to calculate surface shading information of a surface of the 3D data set based, at least in part, on a location of a simulated light source (405;405a-e;705;915a-c;1015;1115) relative to the 3D data set and render a two dimensional projection image of the 3D data set, the 2D projection image including the shading information; and a user interface (24;805) comprising: a display (38;810;905;1005) configured to display the 2D projection image; and an input device comprising a user input element configured to receive user input to position the simulated light source (405;405a-e;705;915a-c;1015;1115) at a location within the 3D data set, wherein the simulated light source (405;405a-e;705;915a-c;1015;1115) comprises a plurality of simulated light sources including a first light source at a shallow depth near the image plane and a second light source at a deeper depth within the 3D data set relative to the first light source. a display (38;810;905;1005) configured to display the 2D projection image; and an input device comprising a user input element configured to receive user input to position the simulated light source (405;405a-e;705;915a-c;1015;1115) at a location within the 3D data set, wherein the simulated light source (405;405a-e;705;915a-c;1015;1115) comprises a plurality of simulated light sources including a first light source at a shallow depth near the image plane and a second light source at a deeper depth within the 3D data set relative to the first light source.
Handheld power tool comprising a torque coupling and a transmission for transmitting a torque, which is generated by a drive motor, to a drive shaft; wherein the torque coupling is constructed in such a way that a coupling component covers a displacement distance in the event of the torque coupling slipping; a control unit and a sensor, wherein the sensor monitors the coupling component for a displacement and sends corresponding sensor signals to the control unit; wherein the control unit is designed to control the drive motor depending on the sensor signals received; wherein the control unit is further designed to subject the sensor signals received to a plausibility check in order to establish whether the torque coupling is actually slipping; characterized in that the control unit assigns a first control signal, which represents a lack of movement of the coupling component, or a second control signal, which represents a movement of the coupling component, to the sensor signals; wherein the control unit is configured in such a way that it establishes a first condition for actual slipping of the torque coupling given an n-times change between the first control signal and the second control signal within a predefined maximum permissible time (tmax), where n is ≥ 2, in particular n is ≥ 3, and/or the control unit establishes a second condition for actual slipping of the torque coupling given an n-times change between the first control signal and the second control signal within a predefined minimum permissible time (tmin), where n is ≥ 2, in particular n is ≥ 3. a control unit and a sensor, wherein the sensor monitors the coupling component for a displacement and sends corresponding sensor signals to the control unit; wherein the control unit is designed to control the drive motor depending on the sensor signals received; wherein the control unit is further designed to subject the sensor signals received to a plausibility check in order to establish whether the torque coupling is actually slipping; characterized in that the control unit assigns a first control signal, which represents a lack of movement of the coupling component, or a second control signal, which represents a movement of the coupling component, to the sensor signals; wherein the control unit is configured in such a way that it establishes a first condition for actual slipping of the torque coupling given an n-times change between the first control signal and the second control signal within a predefined maximum permissible time (tmax), where n is ≥ 2, in particular n is ≥ 3, and/or the control unit establishes a second condition for actual slipping of the torque coupling given an n-times change between the first control signal and the second control signal within a predefined minimum permissible time (tmin), where n is ≥ 2, in particular n is ≥ 3.
A connector (10, 10') connectable with a mating connector having a mating contact, the connector (10, 10') having a current sensor function and comprising: a contact (20, 30) extending along a front-rear direction to have a front end portion (22, 32) which is connectable to the mating contact; a protection member made of an insulating material, the protection member surrounding the contact (20, 30) in a plane perpendicular to the front-rear direction; a core having a gap and surrounding the protection member in a plane perpendicular to the front-rear direction; a current detection member arranged, at least in part, within the gap, and a holder (50, 50') formed with a holding hole, wherein the core and the current detection member are held in the holding hole; the contact (20, 30) pierces the holding hole along the front-rear direction; and the protection member is received in the holding hole, characterized in that the holding hole is formed with a holding ditch; the holding ditch is formed with a plurality of terminal holes; the current detection member includes a body portion and a plurality of terminals; the body portion of the current detecting member is held by the holding ditch; and the terminals of the current detecting member are inserted in the terminal holes. a contact (20, 30) extending along a front-rear direction to have a front end portion (22, 32) which is connectable to the mating contact; a protection member made of an insulating material, the protection member surrounding the contact (20, 30) in a plane perpendicular to the front-rear direction; a core having a gap and surrounding the protection member in a plane perpendicular to the front-rear direction; a current detection member arranged, at least in part, within the gap, and a holder (50, 50') formed with a holding hole, wherein
A process for producing ethylene polymers in at least two cascaded polymerization reactors comprising the steps of: - polymerizing ethylene in the presence of a polymerization catalyst, hydrogen and optionally one or more alpha-olefin comonomers in a diluent in a first polymerization reactor to produce a first slurry comprising a first ethylene polymer and fluid phase comprising said diluent; - withdrawing a first stream of said slurry from said first polymerization reactor; - directing said slurry stream into a second polymerization reactor; - polymerizing ethylene in the presence of the first ethylene polymer, the polymerization catalyst, hydrogen and optionally one or more alpha-olefin comonomers in a diluent in a second polymerization reactor to produce a second slurry comprising an ethylene polymer mixture and a fluid phase comprising said diluent; - withdrawing from said second polymerization reactor a second slurry stream having a solids concentration which is higher than the average solids concentration of the second slurry within the second polymerization reactor; - withdrawing from said second polymerization reactor a third slurry stream having a solids concentration which is lower than the average solids concentration of the second slurry within the second polymerization reactor; characterized in that the process further comprises the following step: - directing at least a part of said second slurry stream into one of said first and second polymerization reactor. - polymerizing ethylene in the presence of a polymerization catalyst, hydrogen and optionally one or more alpha-olefin comonomers in a diluent in a first polymerization reactor to produce a first slurry comprising a first ethylene polymer and fluid phase comprising said diluent; - withdrawing a first stream of said slurry from said first polymerization reactor; - directing said slurry stream into a second polymerization reactor; - polymerizing ethylene in the presence of the first ethylene polymer, the polymerization catalyst, hydrogen and optionally one or more alpha-olefin comonomers in a diluent in a second polymerization reactor to produce a second slurry comprising an ethylene polymer mixture and a fluid phase comprising said diluent; - withdrawing from said second polymerization reactor a second slurry stream having a solids concentration which is higher than the average solids concentration of the second slurry within the second polymerization reactor; - withdrawing from said second polymerization reactor a third slurry stream having a solids concentration which is lower than the average solids concentration of the second slurry within the second polymerization reactor; - directing at least a part of said second slurry stream into one of said first and second polymerization reactor.
Metal injection nozzle with a nozzle pipe that forms a melt channel, and with a nozzle head that has at least one nozzle opening for the melt outlet, the nozzle head being attached to the nozzle pipe in a manner exchangeable at least in sections and having a base part, in which a passage channel connected to the melt channel is formed, and having a distributor element arranged downstream of the base part, a multiplicity of branch channels, each of which ends in a nozzle opening, being formed in the distributor element and the distributor element being held in an exchangeable manner on the base part, characterized in that the nozzle pipe can be heated by means of at least one nozzle pipe heating unit, in that at least one heating element is integrated into the base part and in that at least one cooling element is arranged in the distributor element.
Method for securing a data flow between a communication device and a remote terminal, said communication device comprising a first communication interface (118, 119) for a connection to a first local network of the LAN type, and a second communication interface for a connection to a second network, said device being configurable from the remote terminal, the method comprising the steps of: - recording, by said communication device, a first key in a memory of said device, - generating and recording, by said device, a second encryption key, referred to as a private key, and a third encryption key, referred to as a public key, the public key being inserted in an authenticity certificate signed by the first key, the public key being able to be used for the encryption of a data flow that can be deciphered by means of the private key, - receiving, from the remote terminal, a request with a view to securing data flows between said communication device and the remote terminal, - checking that said request is received via said first interface (118, 119) for a connection to a first local network of the LAN type, and - if said request is received via said first interface (118, 119) for a connection to a first local network of the LAN type, sending, by said communication device, the public key to the remote terminal, in response to the request, and enabling remote configuration of said communication device via at least said second interface from the data flow encrypted by means of said public key. - recording, by said communication device, a first key in a memory of said device, - generating and recording, by said device, a second encryption key, referred to as a private key, and a third encryption key, referred to as a public key, the public key being inserted in an authenticity certificate signed by the first key, the public key being able to be used for the encryption of a data flow that can be deciphered by means of the private key, - receiving, from the remote terminal, a request with a view to securing data flows between said communication device and the remote terminal, - checking that said request is received via said first interface (118, 119) for a connection to a first local network of the LAN type, and - if said request is received via said first interface (118, 119) for a connection to a first local network of the LAN type, sending, by said communication device, the public key to the remote terminal, in response to the request, and enabling remote configuration of said communication device via at least said second interface from the data flow encrypted by means of said public key.
A method of operating a laser radar, LADAR, system supporting a doublet waveform for sequential in-phase and quadrature processing comprising the steps of: a) generating (702, 704) a first optical signal containing doublet pulses, each doublet pulse comprising a first pulse and a second pulse, the second pulses of the doublet pulses in quadrature with the first pulses of the doublet pulses; b) transmitting the first optical signal towards a target; c) receiving a second optical signal containing reflected doublet pulses from the target, each reflected doublet pulse comprising a first reflected pulse and a second reflected pulse; d) performing in-phase and quadrature processing of the first and second reflected pulses, the processing comprising the sub-steps of: d-1) separating the first and second reflected pulses into two signals; d-2) performing spectral analyses of the two signals to generate two frequency spectra; and d-3) combining the two frequency spectra to create a complex single-sided spectrum of the second optical signal; and e) identifying one or more parameters of the target based on the complex single-sided spectrum of the second optical signal, wherein the one or more parameters comprise at least one of a speed or a distance. a) generating (702, 704) a first optical signal containing doublet pulses, each doublet pulse comprising a first pulse and a second pulse, the second pulses of the doublet pulses in quadrature with the first pulses of the doublet pulses; b) transmitting the first optical signal towards a target; c) receiving a second optical signal containing reflected doublet pulses from the target, each reflected doublet pulse comprising a first reflected pulse and a second reflected pulse; d) performing in-phase and quadrature processing of the first and second reflected pulses, the processing comprising the sub-steps of: d-1) separating the first and second reflected pulses into two signals; d-2) performing spectral analyses of the two signals to generate two frequency spectra; and d-3) combining the two frequency spectra to create a complex single-sided spectrum of the second optical signal; and d-1) separating the first and second reflected pulses into two signals; d-2) performing spectral analyses of the two signals to generate two frequency spectra; and d-3) combining the two frequency spectra to create a complex single-sided spectrum of the second optical signal; and e) identifying one or more parameters of the target based on the complex single-sided spectrum of the second optical signal, wherein the one or more parameters comprise at least one of a speed or a distance.
Knife sharpening angle guide, comprising a body of rigid material, which is removably attachable through a central hole of the body on a sharpening rod and is movable in both directions along the length of the sharpening rod, and inclined guiding cutouts (3, 3') are formed in the body at its opposite sides for receiving a knife blade to be sharpened and to position the knife blade at a predetermined angle with respect to the sharpening rod during sharpening process of different sides of the blade, characterized in that the pair of guiding cutouts (3, 3'), each having an inclined narrowing cavity, wherein the guiding cutouts are located at opposite ends of the body and directed to opposite directions so that pointed ends of the inclined narrowing cavities of the guiding cutouts and of the pair are directed towards the central hole of the body, allowing the blade of the knife to have contact with the sharpening rod at the predetermined angle during the sharpening process, and wider open ends of the inclined narrowing cavities of the guiding cutouts and of the pair are directed to outside in the opposite ends of the body.