mhurhangee/patent-ind-claim-en huggingface dataset:
Full automatic coffee machine, comprising a housing , a water tank, a brewing unit, a heating unit, a drip tray , a milk chamber with a bottom , disposed in the housing , for receiving a container containing milk, and a means for determining the weight of the container which is disposed in the region of the bottom of the milk chamber on which the container is placeable, characterized in that the means for determining the weight of the container comprises a weight sensor , and a cover that is attachable and detachable mounted with the weight sensor , and in that the bottom is provided with a drainage system that surrounds the weight sensor , and in that the cover is sized to cover the weight sensor and at least a portion of the drainage system .
A computer-implemented method executed by a processor of a management facility to detect operational deviations by an air cycle machine of an aircraft from expected operations, wherein a detection device of the aircraft is incorporated in the air cycle machine and the management facility is connected to the detection device , wherein the detection device comprises an accelerometer coupled to a transceiver that communicates a sampled input to the processor of the management facility, comprising: initiating, by the management facility to the detection device , a request for the sampled input in response to a request event; operating the detection device in sleep mode until the request is received from the management facility; sensing, by the accelerometer of the detection device, a plurality of environmental conditions of the air cycle machine while the detection device is in the sleep mode; receiving, by the management facility from the detection device , a sampled input, the sampled input being a result of the detection device sensing the plurality of environmental conditions; processing, by the management facility , the sampled input to detect whether the plurality of environmental conditions includes a deviation from the expected operations, wherein the deviation is a surge vibration by the air cycle machine; and generating a notification output and causing the air cycle machine to operate at a reduced rate, by the control unit, in response to the plurality of environmental conditions including the deviation from the expected operations of the air cycle machine. initiating, by the management facility to the detection device , a request for the sampled input in response to a request event; operating the detection device in sleep mode until the request is received from the management facility; sensing, by the accelerometer of the detection device, a plurality of environmental conditions of the air cycle machine while the detection device is in the sleep mode; receiving, by the management facility from the detection device , a sampled input, the sampled input being a result of the detection device sensing the plurality of environmental conditions; processing, by the management facility , the sampled input to detect whether the plurality of environmental conditions includes a deviation from the expected operations, wherein the deviation is a surge vibration by the air cycle machine; and generating a notification output and causing the air cycle machine to operate at a reduced rate, by the control unit, in response to the plurality of environmental conditions including the deviation from the expected operations of the air cycle machine.
A binder composition comprising a cross-linkable polymer matrix and a cross-linking agent, wherein the cross-linkable polymer matrix comprises one or more of monomer units represented by formula (I), and the cross-linking agent comprises a compound represented by formula (II): in which R 1 , R 2 and R 3 are each independently selected from H and straight-chain or branched-chain alkyl groups with 1 to 8 carbon atoms; R 4 is selected from and -(R 8 ) a -X in which R 7 is selected from H, and substituted or unsubstituted alkyl groups with 1 to 6 carbon atoms, preferably R 7 is selected from H, and substituted or unsubstituted alkyl groups with 1 to 4 carbon atoms; and a is 0 or 1; the R 8 is selected from phenylene, and substituted or unsubstituted alkylene groups with 1 to 6 carbon atoms, and X is selected from -COOH, -SO 3 H, -SO 2 H, hydroxyl, sulfhydryl, and amino, preferably R 8 is selected from phenylene, and substituted or unsubstituted alkylene groups with 1 to 4 carbon atoms, and X is selected from -COOH, and hydroxyl; R 5 is a reactive group to R 4 ; R 6 is selected from H and substituted or unsubstituted hydrocarbon groups with 1 to 8 carbon atoms; and n is an even number greater than 4, 2≤m≤n, preferably m≥3. R 1 , R 2 and R 3 are each independently selected from H and straight-chain or branched-chain alkyl groups with 1 to 8 carbon atoms; R 4 is selected from and -(R 8 ) a -X in which R 7 is selected from H, and substituted or unsubstituted alkyl groups with 1 to 6 carbon atoms, preferably R 7 is selected from H, and substituted or unsubstituted alkyl groups with 1 to 4 carbon atoms; and a is 0 or 1; the R 8 is selected from phenylene, and substituted or unsubstituted alkylene groups with 1 to 6 carbon atoms, and X is selected from -COOH, -SO 3 H, -SO 2 H, hydroxyl, sulfhydryl, and amino, preferably R 8 is selected from phenylene, and substituted or unsubstituted alkylene groups with 1 to 4 carbon atoms, and X is selected from -COOH, and hydroxyl; R 5 is a reactive group to R 4 ; R 6 is selected from H and substituted or unsubstituted hydrocarbon groups with 1 to 8 carbon atoms; and n is an even number greater than 4, 2≤m≤n, preferably m≥3. R 7 is selected from H, and substituted or unsubstituted alkyl groups with 1 to 6 carbon atoms, preferably R 7 is selected from H, and substituted or unsubstituted alkyl groups with 1 to 4 carbon atoms; and a is 0 or 1; the R 8 is selected from phenylene, and substituted or unsubstituted alkylene groups with 1 to 6 carbon atoms, and X is selected from -COOH, -SO 3 H, -SO 2 H, hydroxyl, sulfhydryl, and amino, preferably R 8 is selected from phenylene, and substituted or unsubstituted alkylene groups with 1 to 4 carbon atoms, and X is selected from -COOH, and hydroxyl; R 5 is a reactive group to R 4 ; R 6 is selected from H and substituted or unsubstituted hydrocarbon groups with 1 to 8 carbon atoms; and n is an even number greater than 4, 2≤m≤n, preferably m≥3.
A switching device (100. 200) for medium, high or extremely high voltage, wherein at least one voltaged component of the switching device is enclosed in an enclosure and the enclosure is filled with an electrical insulation medium and/or arc extinction medium, characterised in that the electrical insulation medium and/or arc extinction medium comprises or consists of a fluorinated ketone C5.
A method of assembling a hardscaping unit , the method comprising the steps of: placing a first material into a first mold; while the first material is in the first mold, transitioning the first material from a first state to a second state, wherein the second state is more solid than the first state, and when in the second state the first material forms a first block , wherein the first block includes at least one contacting surface ; removing the first block from the first mold; placing a second material into a second mold ; contacting the at least one contacting surface of the first block with the second material , while the second material is in the second mold ; after the contacting step, maintaining contact of the at least one contacting surface of the first block with the second material while transitioning the second material from a third state to a fourth state, wherein the fourth state is more solid than the third state, and when in the fourth state the second material forms a second block that is secured relative to the first block ; after the maintaining step, removing the second block from the second mold ; characterized in that the first material includes a dry cast concrete, the first material having a water to cement ratio of between about 0.3 to about 0.36, the second material includes a wet cast concrete, the second material having a water to cement ratio of about 0.4 or higher. placing a first material into a first mold; while the first material is in the first mold, transitioning the first material from a first state to a second state, wherein the second state is more solid than the first state, and when in the second state the first material forms a first block , wherein the first block includes at least one contacting surface ; removing the first block from the first mold; placing a second material into a second mold ; contacting the at least one contacting surface of the first block with the second material , while the second material is in the second mold ; after the contacting step, maintaining contact of the at least one contacting surface of the first block with the second material while transitioning the second material from a third state to a fourth state, wherein the fourth state is more solid than the third state, and when in the fourth state the second material forms a second block that is secured relative to the first block ; after the maintaining step, removing the second block from the second mold ; characterized in that the first material includes a dry cast concrete, the first material having a water to cement ratio of between about 0.3 to about 0.36, the second material includes a wet cast concrete, the second material having a water to cement ratio of about 0.4 or higher.
Tube of a heat exchanger intended to allow an exchange of heat between a first fluid and a second fluid circulating in contact with the tube , the said tube comprising an upper plate and a lower plate arranged opposite and defining an internal volume of the tube in which the first fluid is able to circulate, each of the plates comprising a bottom and at least one edge , the said at least one edge of the said bottom extending in distinct planes, the said plates being in contact with one another at the said edge , the said tube comprising a deflection screen secured to the edge , the deflection screen comprising a first wall extending transversely to the bottoms and designed to deflect the second fluid towards the said bottoms , characterized in that the deflection screen comprises a second wall connecting and extending transversely to the first wall , and a third wall connected and extending transversely to the second wall on the one hand, and the edge on the other, in which the bottom of each plate comprises a face facing towards the outside of the tube and referred to as an external face , a height (h) of the tube being defined between the external faces of the lower and upper plates along an axis, referred to as the first axis (A), perpendicular to the bottoms , the first wall extending along the first axis (A) over a distance comprised between the height (h) of the tube and the height (h) of the tube reduced by 0.4 mm, in which the first wall comprises a first end situated at a distance strictly smaller than 0.2 mm from the external face of the lower plate along the first axis (A), in which the first wall comprises a second end (32") situated at a distance strictly less than 0.2 mm from the external face of the upper plate along the first axis (A).
A wind turbine , comprising: a tower , a nacelle supported on the tower and configured for rotation relative to the tower about a yaw axis ; a first brake disc (60 or 94 or 112 or 136 or 166 or 190) fixed to the tower and disposed about the yaw axis characterized by : a second brake disc (62 or 96 or 114 or 138 or 168 or 192) fixed to the nacelle and disposed about the yaw axis , the second brake disc (62 or 96 or 114 or 138 or 168 or 192) aligned with the first brake disc (60 or 94 or 112 or 136 or 166 or 190); and, a first yaw brake (66 or 100 or 118 or 140 or 172 or 196) configured for movement between a first position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a first braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192) and a second position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a second braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192), the second braking force greater than the first braking force. a tower , a nacelle supported on the tower and configured for rotation relative to the tower about a yaw axis ; a first brake disc (60 or 94 or 112 or 136 or 166 or 190) fixed to the tower and disposed about the yaw axis characterized by : a second brake disc (62 or 96 or 114 or 138 or 168 or 192) fixed to the nacelle and disposed about the yaw axis , the second brake disc (62 or 96 or 114 or 138 or 168 or 192) aligned with the first brake disc (60 or 94 or 112 or 136 or 166 or 190); and, a first yaw brake (66 or 100 or 118 or 140 or 172 or 196) configured for movement between a first position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a first braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192) and a second position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a second braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192), the second braking force greater than the first braking force. a second brake disc (62 or 96 or 114 or 138 or 168 or 192) fixed to the nacelle and disposed about the yaw axis , the second brake disc (62 or 96 or 114 or 138 or 168 or 192) aligned with the first brake disc (60 or 94 or 112 or 136 or 166 or 190); and, a first yaw brake (66 or 100 or 118 or 140 or 172 or 196) configured for movement between a first position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a first braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192) and a second position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a second braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192), the second braking force greater than the first braking force.
Energy supply device for underwater use, wherein the energy supply device comprises at least one first housing , wherein the energy supply device comprises a multiplicity of electrochemical cells, wherein the energy supply device comprises at least one first electrical jack connection on the outer side of the first housing , wherein the first housing of the energy supply device is filled bubble-free with a low-compressibility fluid, wherein the first housing comprises a filling device for filling with the low-compressibility fluid and a discharge device for discharging the low-compressibility fluid, wherein the first housing comprises a pressure compensation device , characterized in that the pressure compensation device is formed by at least one cylindrical pressure equilibration vessel, wherein the pressure equilibration vessel contains a device which maintains an elevated pressure relative to the environment inside the first housing .
System for the analysis of analytes through mechanical resonance transduction, suitable for its use in the identification of cells, bacteria, virus, protein or nanoparticles in the range of frequency between 1 MHz and 300 GHz, wherein said system comprises: a) at least one mechanical resonator sensor comprising means for receiving at least one analyte disposed thereon, wherein said analyte possesses at least one mechanical vibration mode and said mechanical resonator sensor possesses at least one mechanical vibration mode selectable in one or more working frequencies; b) means for monitoring the mechanical spectra of the coupled system conformed by the analyte and the mechanical resonator sensor ; c) means for selecting a working frequency of the mechanical vibration mode of the mechanical resonator sensor , such that the coupling constant κ between the mechanical vibration mode of the mechanical resonator sensor and the mechanical vibration mode of the analyte is greater than 1/(3 Q ), where Q is the quality factor of the mechanical resonator sensor . a) at least one mechanical resonator sensor comprising means for receiving at least one analyte disposed thereon, wherein said analyte possesses at least one mechanical vibration mode and said mechanical resonator sensor possesses at least one mechanical vibration mode selectable in one or more working frequencies; b) means for monitoring the mechanical spectra of the coupled system conformed by the analyte and the mechanical resonator sensor ; c) means for selecting a working frequency of the mechanical vibration mode of the mechanical resonator sensor , such that the coupling constant κ between the mechanical vibration mode of the mechanical resonator sensor and the mechanical vibration mode of the analyte is greater than 1/(3 Q ), where Q is the quality factor of the mechanical resonator sensor .
A once-through steam generator pressure control system, comprising a once-through steam generator , a steam turbine and a water supply regulating valve group ; the system further comprising a pressure deviation control channel configured to measure an outlet pressure value of the once-through steam generator ; a first control unit configured to compare the outlet pressure value with a target pressure setting value and selectively output a pressure deviation signal; a steam-water flow deviation control channel configured to measure an outlet flow value of the once-through steam generator and an inlet flow value of the water supply regulating valve group ; a second control unit configured to calculate a difference value between the outlet flow value and the inlet flow value, superpose the difference value and the pressure deviation signal, and output a fine adjustment control signal; characterized in that it further comprises a load demand control channel configured to measure a steam inlet pressure value of the steam turbine ; a third control unit configured to compare the steam inlet pressure value with a switching threshold value and selectively output a high-low load signal; wherein the water supply regulating valve group comprises a first valve and a second valve , the first valve is selectively opened or closed in response to the high-low load signal, and the second valve is selectively opened or closed in response to the high-low load signal. a pressure deviation control channel configured to measure an outlet pressure value of the once-through steam generator ; a first control unit configured to compare the outlet pressure value with a target pressure setting value and selectively output a pressure deviation signal; a steam-water flow deviation control channel configured to measure an outlet flow value of the once-through steam generator and an inlet flow value of the water supply regulating valve group ; a second control unit configured to calculate a difference value between the outlet flow value and the inlet flow value, superpose the difference value and the pressure deviation signal, and output a fine adjustment control signal; characterized in that it further comprises a load demand control channel configured to measure a steam inlet pressure value of the steam turbine ; a third control unit configured to compare the steam inlet pressure value with a switching threshold value and selectively output a high-low load signal; wherein the water supply regulating valve group comprises a first valve and a second valve , the first valve is selectively opened or closed in response to the high-low load signal, and the second valve is selectively opened or closed in response to the high-low load signal.
Sliding element with a sliding plate and a sealing device that comprises at least one sealing element (2; 3), which forms a sealing frame that is arranged on a rear side of the sliding plate and that extends peripherally along an edge of the sliding plate , characterised in that the sliding plate comprises a base plate and a flange plate offset thereto, which is connected in one piece to the base plate and which is separated at its edge from the base plate by a circumferential anchor groove , which serves for holding the at least one sealing element (2; 3), which comprises an anchor member (21; 31), which is insertable into the anchor groove , and a compression member (22; 32), which anchor member (21; 31) and compression member (22; 32) are connected with one another by a connection body (20; 30) and wherein the anchor member of the at least one sealing element (2; 3) is held within the anchor groove aligned at least approximately in parallel to the sliding plate .
A flow cytometer , comprising: a capillary comprising a sample channel; at least one vibration producing transducer coupled to the capillary, the at least one vibration producing transducer being configured to produce an acoustic signal inducing acoustic radiation pressure within the sample channel to acoustically concentrate particles flowing within a fluid sample stream in the sample channel; and an interrogation source comprising a laser, the laser being configured to interact with at least some of the acoustically concentrated particles to produce an output signal, wherein the capillary further comprises a sheath flow channel configured to flow a sheath fluid around the fluid sample stream downstream of the acoustic concentration of the particles by the acoustic radiation pressure to hydrodynamically concentrate the acoustically concentrated particles within the fluid sample stream, and comprising a first pump configured to flow a fluid sample comprising particles in the sample channel in the capillary and a second pump configured to flow a sheath fluid in the sheath flow channel at a volumetric ratio between the sheath fluid and the sample fluid between 50 to 1 and 30 to 1, in the capillary, the first and second pumps being configured to maintain a total input rate of sample fluid and sheath fluid flowing in the capillary constant to ensure that an interrogation time of the at least some of the acoustically concentrated particles through the laser remains constant regardless of the sample fluid input rate. a capillary comprising a sample channel; at least one vibration producing transducer coupled to the capillary, the at least one vibration producing transducer being configured to produce an acoustic signal inducing acoustic radiation pressure within the sample channel to acoustically concentrate particles flowing within a fluid sample stream in the sample channel; and an interrogation source comprising a laser, the laser being configured to interact with at least some of the acoustically concentrated particles to produce an output signal, wherein the capillary further comprises a sheath flow channel configured to flow a sheath fluid around the fluid sample stream downstream of the acoustic concentration of the particles by the acoustic radiation pressure to hydrodynamically concentrate the acoustically concentrated particles within the fluid sample stream, and comprising a first pump configured to flow a fluid sample comprising particles in the sample channel in the capillary and a second pump configured to flow a sheath fluid in the sheath flow channel at a volumetric ratio between the sheath fluid and the sample fluid between 50 to 1 and 30 to 1, in the capillary, the first and second pumps being configured to maintain a total input rate of sample fluid and sheath fluid flowing in the capillary constant to ensure that an interrogation time of the at least some of the acoustically concentrated particles through the laser remains constant regardless of the sample fluid input rate.