mhurhangee/ep-ind-claims huggingface dataset:
Method for decalcifying process water, having the following steps: - aerating the process water by injecting gas into the process water by means of a nozzle, comprising a continuous duct (21, 22, 23) for transporting process water, into which a gas duct laterally feeds, through which gas can be fed into the process water, wherein gas bubbles form in the process water, wherein the typical diameter of the gas bubbles is approx. 1000 μm, thus making them significantly larger than the gas bubbles having a typical size of between 10 and 100 μm which arise during dissolved air flotation; - transporting calcium carbonate which precipitates in the process water because of a change in the dissociation equilibrium of the carbonic acid occurring as a result of the aeration, wherein particles of the precipitated calcium carbonate adsorb on the gas bubbles, on a surface of the process water with the assistance of the gas bubbles; and - discharging foam arising at the surface of the process water. - aerating the process water by injecting gas into the process water by means of a nozzle, comprising a continuous duct (21, 22, 23) for transporting process water, into which a gas duct laterally feeds, through which gas can be fed into the process water, wherein gas bubbles form in the process water, wherein the typical diameter of the gas bubbles is approx. 1000 μm, thus making them significantly larger than the gas bubbles having a typical size of between 10 and 100 μm which arise during dissolved air flotation; - transporting calcium carbonate which precipitates in the process water because of a change in the dissociation equilibrium of the carbonic acid occurring as a result of the aeration, wherein particles of the precipitated calcium carbonate adsorb on the gas bubbles, on a surface of the process water with the assistance of the gas bubbles; and - discharging foam arising at the surface of the process water.
A container handling plant (1; 2; 3), comprising at least one container handling machine (10, 20, 30, 40) for handling containers, wherein at least one container handling machine (10, 30, 40) comprises a type preselection memory (11, 31, 41) in which different types (111, 112; 311, 312 313; 411, 412) are preselectable for a handling to be performed by the container handling machine (10, 30, 40), at least one output device (15, 35, 45; 16, 36, 46) positioned at the at least one container handling machine (10, 30, 40) for outputting an audio signal (TS1, TS2, TS3) and / or an optical signal (OS1, OS2, OS3), and a control device characterized in that the control device is configured to control the at least one output device (15, 35, 45;16, 36, 46) such that the output device acoustically outputs a predetermined audio signal (TS1, TS2, TS3) made of tone sequences comprising at least two different tones and / or optically outputs an optical signal (OS1, OS2, OS 3), if due to the type (111, 112; 311, 312, 313; 411, 412) preselected in the type preselection memory (11, 31, 41) a change of a type (111, 112; 311, 312, 313; 411, 412) or a refill for the preselected type (111, 112; 311, 312, 313; 411, 412) is scheduled at the container handling machine (10, 20, 30, 40) in the future at the end of a predetermined time period. at least one container handling machine (10, 20, 30, 40) for handling containers, wherein at least one container handling machine (10, 30, 40) comprises a type preselection memory (11, 31, 41) in which different types (111, 112; 311, 312 313; 411, 412) are preselectable for a handling to be performed by the container handling machine (10, 30, 40), at least one output device (15, 35, 45; 16, 36, 46) positioned at the at least one container handling machine (10, 30, 40) for outputting an audio signal (TS1, TS2, TS3) and / or an optical signal (OS1, OS2, OS3), and a control device characterized in that the control device is configured to control the at least one output device (15, 35, 45;16, 36, 46) such that the output device acoustically outputs a predetermined audio signal (TS1, TS2, TS3) made of tone sequences comprising at least two different tones and / or optically outputs an optical signal (OS1, OS2, OS 3), if due to the type (111, 112; 311, 312, 313; 411, 412) preselected in the type preselection memory (11, 31, 41) a change of a type (111, 112; 311, 312, 313; 411, 412) or a refill for the preselected type (111, 112; 311, 312, 313; 411, 412) is scheduled at the container handling machine (10, 20, 30, 40) in the future at the end of a predetermined time period.
A security element for safeguarding value documents which has a magnetic coding with at least one first magnetic coding element (2, 2a-d), wherein the first magnetic coding element (2, 2a-d) has a grid-shaped magnetic region which is formed by a plurality of mutually parallel grid strips (3, 33, 34, 83, 84) made of magnetic material, the grid strips of the first magnetic coding element (2, 2a-d) respectively having a magnetic anisotropy, the width (b) and thickness (d) of the grid strips (3, 33, 34, 83, 84) being chosen so small that the grid strips (3, 33, 34, 83, 84) respectively have a magnetic shape anisotropy whose preferential magnetic direction extends along the grid strips, the width of the grid strips being between 100 nm and 5 μm, wherein - the magnetic coding has two or a plurality of first coding elements (2, 2a-d) which are arranged along a coding direction (y) on or in the security element and which have a grid-shaped magnetic region which is formed from a plurality of mutually parallel grid strips (3, 33, 34, 83, 84) made of magnetic material, which respectively have a magnetic anisotropy, the grid strips of each first coding element extend substantially parallel to the grid strips of the one or more other first coding element/s, and wherein - the distance between respectively two neighboring coding elements is at least 2 mm. - the magnetic coding has two or a plurality of first coding elements (2, 2a-d) which are arranged along a coding direction (y) on or in the security element and which have a grid-shaped magnetic region which is formed from a plurality of mutually parallel grid strips (3, 33, 34, 83, 84) made of magnetic material, which respectively have a magnetic anisotropy, the grid strips of each first coding element extend substantially parallel to the grid strips of the one or more other first coding element/s, and wherein - the distance between respectively two neighboring coding elements is at least 2 mm.
A high-voltage power source (501, 502, 503) comprising: a switching unit (Q101; Q201; Q301, Q351; Q401, Q404) configured to be driven according to a frequency signal; a voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400) configured to generate a voltage according to driving of the switching unit (Q101; Q201; Q301, Q351; Q401, Q404); and a rectification unit (107; 207; 307, 357; 407) configured to rectify and amplify the voltage generated by the voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400); characterized by: a separation capacitor connected between the voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400) and the rectification unit (107; 207; 307, 357; 407) so as to separate a flow of an alternating current to the voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400) and a flow of a direct current to the rectification unit (107; 207; 307, 357; 407) from each other; and a current detection unit (106; Q102, R102, R103, R101, C107; 206; 306; 406) configured to detect the direct current separated by the separation capacitor. a switching unit (Q101; Q201; Q301, Q351; Q401, Q404) configured to be driven according to a frequency signal; a voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400) configured to generate a voltage according to driving of the switching unit (Q101; Q201; Q301, Q351; Q401, Q404); and a rectification unit (107; 207; 307, 357; 407) configured to rectify and amplify the voltage generated by the voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400); characterized by: a separation capacitor connected between the voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400) and the rectification unit (107; 207; 307, 357; 407) so as to separate a flow of an alternating current to the voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400) and a flow of a direct current to the rectification unit (107; 207; 307, 357; 407) from each other; and a current detection unit (106; Q102, R102, R103, R101, C107; 206; 306; 406) configured to detect the direct current separated by the separation capacitor. a separation capacitor connected between the voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400) and the rectification unit (107; 207; 307, 357; 407) so as to separate a flow of an alternating current to the voltage resonance unit (L100, C100; L200, C200; L300, C300, L350, C350; C400, L400) and a flow of a direct current to the rectification unit (107; 207; 307, 357; 407) from each other; and a current detection unit (106; Q102, R102, R103, R101, C107; 206; 306; 406) configured to detect the direct current separated by the separation capacitor.
A Device for observing a sample, including: ▪ a holder, able to hold the sample; ▪ a light source able to emit an incident light wave that propagates towards the holder; ▪ an image sensor configured to detect a light wave transmitted by the sample when the sample is placed on the holder, between the light source and the image sensor, the distance between the light source and the sample being larger than 1 cm; the device being characterized in that the light source includes a micron-sized light-emitting diode (11 i, 11 ii), a light-emission surface of which has a diameter or a largest diagonal smaller than 500 μm, the micron-sized light emitting diode having an optical emission power higher than 50 μW. and in that no magnifying optics are placed between the sample, when placed on the holder, and the image sensor. ▪ a holder, able to hold the sample; ▪ a light source able to emit an incident light wave that propagates towards the holder; ▪ an image sensor configured to detect a light wave transmitted by the sample when the sample is placed on the holder, between the light source and the image sensor, the distance between the light source and the sample being larger than 1 cm; the device being characterized in that the light source includes a micron-sized light-emitting diode (11 i, 11 ii), a light-emission surface of which has a diameter or a largest diagonal smaller than 500 μm, the micron-sized light emitting diode having an optical emission power higher than 50 μW. and in that no magnifying optics are placed between the sample, when placed on the holder, and the image sensor.
A terminal apparatus comprising: a higher layer processing unit configured to receive first information and second information; and a reception unit configured to receive a synchronization signal block, SSB, and a physical downlink shared channel, PDSCH, wherein the SSB includes a first synchronization signal, a second synchronization signal, and a physical broadcast channel, PBCH, the first information indicates a periodicity of one or more of the SSBs, the second information indicates time positions of the one or more SSBs within a burst, in case that the first information is received, the PDSCH is not mapped to resource elements corresponding to the time position indicated by the second information based on the periodicity of the one or more SSBs indicated by the first information, and in case that the periodicity of the one or more SSBs is not configured, a predefined periodicity is used, the terminal apparatus is further configured to receive a measurement object from a base station apparatus, the measurement object comprising information indicating whether measurement resources for SSBs of a neighbor cell are the same or not as those in a serving cell, and to perform a measurement on the SSBs of the neighbor cell according to the received measurement object, wherein in case that a periodicity of the SSBs of the neighbor cell is configured to be different from the periodicity of the one or more SSBs in the serving cell, the terminal apparatus is configured to assume a default periodicity and to perform the measurement on the SSBs of the neighbor cell. a higher layer processing unit configured to receive first information and second information; and a reception unit configured to receive a synchronization signal block, SSB, and a physical downlink shared channel, PDSCH, wherein the SSB includes a first synchronization signal, a second synchronization signal, and a physical broadcast channel, PBCH, the first information indicates a periodicity of one or more of the SSBs, the second information indicates time positions of the one or more SSBs within a burst, in case that the first information is received, the PDSCH is not mapped to resource elements corresponding to the time position indicated by the second information based on the periodicity of the one or more SSBs indicated by the first information, and in case that the periodicity of the one or more SSBs is not configured, a predefined periodicity is used, the terminal apparatus is further configured to receive a measurement object from a base station apparatus, the measurement object comprising information indicating whether measurement resources for SSBs of a neighbor cell are the same or not as those in a serving cell, and to perform a measurement on the SSBs of the neighbor cell according to the received measurement object, wherein in case that a periodicity of the SSBs of the neighbor cell is configured to be different from the periodicity of the one or more SSBs in the serving cell, the terminal apparatus is configured to assume a default periodicity and to perform the measurement on the SSBs of the neighbor cell.
A transponder comprising: an IC module including an IC chip (22, 114) and a terminal section; and an antenna sheet (1, 112) said IC module being fixed to said antenna sheet, said antenna sheet comprising a flexible substrate; an antenna coil (4, 113) connected to said terminal section of said IC module, the antenna coil (4, 113) being arranged on said substrate; and a storing section adapted to receive at least a part of said IC module, the storing section being formed on said substrate, characterised in that: said antenna coil (4, 113) is formed as a film, said antenna coil (4, 113) being formed on said substrate, and said antenna sheet (1, 112) further comprises a pair of connection sections (8, 9) arranged opposing each other along the sides (7a, 7b) of said storing section, one of said pair of connection sections (8, 9) being at each end of said antenna coil (4, 113), said connection sections (8, 9) being connectable to said terminal section, and a chloride ion-resistant layer formed such as to cover said antenna coil. an IC module including an IC chip (22, 114) and a terminal section; and an antenna sheet (1, 112) said IC module being fixed to said antenna sheet, said antenna sheet comprising a flexible substrate; an antenna coil (4, 113) connected to said terminal section of said IC module, the antenna coil (4, 113) being arranged on said substrate; and a storing section adapted to receive at least a part of said IC module, the storing section being formed on said substrate, characterised in that: said antenna coil (4, 113) is formed as a film, said antenna coil (4, 113) being formed on said substrate, and said antenna sheet (1, 112) further comprises a pair of connection sections (8, 9) arranged opposing each other along the sides (7a, 7b) of said storing section, one of said pair of connection sections (8, 9) being at each end of said antenna coil (4, 113), said connection sections (8, 9) being connectable to said terminal section, and a chloride ion-resistant layer formed such as to cover said antenna coil. said antenna coil (4, 113) is formed as a film, said antenna coil (4, 113) being formed on said substrate, and said antenna sheet (1, 112) further comprises a pair of connection sections (8, 9) arranged opposing each other along the sides (7a, 7b) of said storing section, one of said pair of connection sections (8, 9) being at each end of said antenna coil (4, 113), said connection sections (8, 9) being connectable to said terminal section, and a chloride ion-resistant layer formed such as to cover said antenna coil.
A method implemented using one or more processors of a first electronic device (106, 206A, 206B, 206C), comprising: detecting, at a microphone of the first electronic device, a spoken utterance provided by a user; detecting one or more sounds emitted by one or more additional electronic devices (106, 206A, 206B, 206C) at the microphone, wherein each of the one or more sounds encodes a timestamp corresponding to detection of the spoken utterance at a respective electronic device of the one or more additional electronic devices; extracting, from the one or more sounds emitted by the one or more additional electronic devices, the one or more timestamps; comparing the one or more timestamps to a local timestamp corresponding to detection of the spoken utterance at the first electronic device; and based on the comparing, causing the first electronic device to either invoke an automated assistant locally or defer to one of the additional electronic devices. detecting, at a microphone of the first electronic device, a spoken utterance provided by a user; detecting one or more sounds emitted by one or more additional electronic devices (106, 206A, 206B, 206C) at the microphone, wherein each of the one or more sounds encodes a timestamp corresponding to detection of the spoken utterance at a respective electronic device of the one or more additional electronic devices; extracting, from the one or more sounds emitted by the one or more additional electronic devices, the one or more timestamps; comparing the one or more timestamps to a local timestamp corresponding to detection of the spoken utterance at the first electronic device; and based on the comparing, causing the first electronic device to either invoke an automated assistant locally or defer to one of the additional electronic devices.
A peristaltic pumping device of linear type, comprising: • a section of deformable tube crossed by a fluid whereon at least a peristaltic compression is implemented; and • an actuator, comprising a rotating element provided with one or more helical ribs arranged projecting from the surface thereof so as to interfere, along the rotation of the rotating element, with said deformable tube and, so as to determine thereon at least a localized, movable and continuous squeezing, moving along a predetermined direction, thereby implementing peristaltic compression, said one or more helical ribs being spirally wound along a respective helical axis with respect thereto the position thereof is tied onto the surface of the rotating element, characterised in that at least a portion of helical rib is rotatable with respect to said helical axis, and rotates around thereto at least when said at least a portion of helical rib interferes with said deformable tube, thereby minimizing the friction thereof on the surface of the deformable tube. • a section of deformable tube crossed by a fluid whereon at least a peristaltic compression is implemented; and • an actuator, comprising a rotating element provided with one or more helical ribs arranged projecting from the surface thereof so as to interfere, along the rotation of the rotating element, with said deformable tube and, so as to determine thereon at least a localized, movable and continuous squeezing, moving along a predetermined direction, thereby implementing peristaltic compression, said one or more helical ribs being spirally wound along a respective helical axis with respect thereto the position thereof is tied onto the surface of the rotating element,
A vial assembly comprising: a vial comprising a vial body and a vial neck, the vial neck having a syringe interface; and a vial cap having a central opening including a threaded segment that engages the syringe interface characterised in that the vial assembly further comprises a plug, said plug having a lower stopper portion that fits within the vial neck and an upper portion that attaches to an upper portion of the vial cap. a vial comprising a vial body and a vial neck, the vial neck having a syringe interface; and a vial cap having a central opening including a threaded segment that engages the syringe interface characterised in that the vial assembly further comprises a plug, said plug having a lower stopper portion that fits within the vial neck and an upper portion that attaches to an upper portion of the vial cap.
A stem assembly for a flat bottom glass comprising: a connecting member including a top side and a bottom side spaced from the top side along a longitudinal axis, with the top side of the connecting member having an engagement face perpendicular to the longitudinal axis, with the engagement face being plane and adapted to be coupled to a flat bottom of a flat bottom glass, with the connecting member including a connection groove extending from the bottom side towards the top side along the longitudinal axis; a stem including first and second ends (301, 302), with the first end of the stem detachably mounted to the bottom side of the connecting member, with the first end of the stem including a connecting section detachably engaged in the connection groove of the connecting member, with the stem further including a supporting section between the first and second ends (301, 302), with the supporting section having a diameter perpendicular to the longitudinal axis; and a foot mounted to the second end of the stem, with the foot including an upper end and a lower end opposite to the upper end, with the lower end of the foot having a bottom face, with the bottom face of the foot adapted to rest on a top of a table, with the bottom face of the foot having a diameter perpendicular to the longitudinal axis, with the diameter of the bottom face of the foot larger than the diameter of the supporting section of the stem, characterized in that a groove is defined in the engagement face of the top side of the connecting member, with the groove including the longitudinal axis, with the engagement face surrounding the longitudinal axis, with a plug received in the groove, with the plug having an upper face flush with the engagement face. a connecting member including a top side and a bottom side spaced from the top side along a longitudinal axis, with the top side of the connecting member having an engagement face perpendicular to the longitudinal axis, with the engagement face being plane and adapted to be coupled to a flat bottom of a flat bottom glass, with the connecting member including a connection groove extending from the bottom side towards the top side along the longitudinal axis; a stem including first and second ends (301, 302), with the first end of the stem detachably mounted to the bottom side of the connecting member, with the first end of the stem including a connecting section detachably engaged in the connection groove of the connecting member, with the stem further including a supporting section between the first and second ends (301, 302), with the supporting section having a diameter perpendicular to the longitudinal axis; and a foot mounted to the second end of the stem, with the foot including an upper end and a lower end opposite to the upper end, with the lower end of the foot having a bottom face, with the bottom face of the foot adapted to rest on a top of a table, with the bottom face of the foot having a diameter perpendicular to the longitudinal axis, with the diameter of the bottom face of the foot larger than the diameter of the supporting section of the stem,