mhurhangee/patent-ind-claim-en huggingface dataset:
A mattress structure, comprising: a top layer , a sponge layer and a bottom layer that are connected successively, wherein a plurality of first grooves are longitudinally and uniformly provided in the sponge layer , a plurality of second grooves are uniformly distributed along a transverse direction of the sponge layer , wherein the first grooves and the second grooves are in a dovetail-like shape, each of the first grooves and the second grooves in the dovetail-like shape has a diameter gradually reducing in a direction from a groove bottom to a groove opening, and the first grooves and the second grooves have uniform size and uniform distance therebetween, characterized in that an adhesive layer is arranged between the top layer and the sponge layer , and between the bottom layer and the sponge layer respectively.
Three-dimensional printing system comprising a light beam radiating unit; a scanning mechanism which redirects and focuses the light beam in a three-dimensional space; a cover, moving integrally with said scanning mechanism of the light beam and involves a space above an area of the powder layer that is smaller than the object construction area, surrounding the light beam radiating zone, wherein an inlet nozzle and an exhaust manifold are installed; a powder delivery unit that supplies powder over an object construction area; a powder leveling device, wherein the powder delivery unit and the powder leveling device move independently of the light beam radiating unit; a powder supply unit responsible for storing and metering material for the delivery unit; characterized in that it comprises an interchangeable modular system comprised of a powder storage structure, a motorized delivering member, a motorized metering member, and a chassis comprising all other members; and in that the inlet nozzle and the exhaust manifold ensure an inert atmosphere in an open chamber through a gas circulation system wherein the nozzle allows a tangential flow to avoid disturbances into the powder layer. a light beam radiating unit; a scanning mechanism which redirects and focuses the light beam in a three-dimensional space; a cover, moving integrally with said scanning mechanism of the light beam and involves a space above an area of the powder layer that is smaller than the object construction area, surrounding the light beam radiating zone, wherein an inlet nozzle and an exhaust manifold are installed; a powder delivery unit that supplies powder over an object construction area; a powder leveling device, wherein the powder delivery unit and the powder leveling device move independently of the light beam radiating unit; a powder supply unit responsible for storing and metering material for the delivery unit; characterized in that it comprises an interchangeable modular system comprised of a powder storage structure, a motorized delivering member, a motorized metering member, and a chassis comprising all other members; and in that the inlet nozzle and the exhaust manifold ensure an inert atmosphere in an open chamber through a gas circulation system wherein the nozzle allows a tangential flow to avoid disturbances into the powder layer. a powder storage structure, a motorized delivering member, a motorized metering member, and a chassis comprising all other members; and in that the inlet nozzle and the exhaust manifold ensure an inert atmosphere in an open chamber through a gas circulation system wherein the nozzle allows a tangential flow to avoid disturbances into the powder layer.
An apparatus (105/155/217/303/501/701) for removing a target metal from an aqueous matrix , the apparatus comprising an inlet (707/771); a chamber (735/761) to receive the aqueous matrix from the inlet; a first electrode (223/709/757) and a second electrode (711/759), within the chamber, the first electrode comprising metal tin; wherein the apparatus comprises an electrode module (703/755) comprising at least the first electrode, and wherein the metal tin is to dissolve over time into the aqueous matrix as a function of applied electrical stimulus; a power source (207/219/309-310/354/517) coupled to the first electrode and the second electrode, the power source being configured to cause current flow between the first electrode and the second electrode and thereby electrolyze the metal tin which thus dissolves over time into the aqueous matrix to form soluble stannous material in the aqueous matrix, said stannous material reacting with the target metal so as to remove it from the aqueous matrix; an outlet (717/775) to remove the aqueous matrix from the chamber; said apparatus being characterized in that at least the first electrode is made to be a replaceable electrode module and in that it comprises: an ultrasound system (254/321/727/729) to deliver ultrasound energy to the first electrode, to clean the first electrode; and means (219/319-320/349-350) for signaling a condition to a human operator that it is time to replace the electrode module wherein the target metal comprises at least one of selenium, mercury, cadmium, lead, copper, arsenic, chromium, beryllium, aluminum, nickel, uranium or zinc. an inlet (707/771); a chamber (735/761) to receive the aqueous matrix from the inlet; a first electrode (223/709/757) and a second electrode (711/759), within the chamber, the first electrode comprising metal tin; wherein the apparatus comprises an electrode module (703/755) comprising at least the first electrode, and wherein the metal tin is to dissolve over time into the aqueous matrix as a function of applied electrical stimulus; a power source (207/219/309-310/354/517) coupled to the first electrode and the second electrode, the power source being configured to cause current flow between the first electrode and the second electrode and thereby electrolyze the metal tin which thus dissolves over time into the aqueous matrix to form soluble stannous material in the aqueous matrix, said stannous material reacting with the target metal so as to remove it from the aqueous matrix; an outlet (717/775) to remove the aqueous matrix from the chamber; said apparatus being characterized in that at least the first electrode is made to be a replaceable electrode module and in that it comprises: an ultrasound system (254/321/727/729) to deliver ultrasound energy to the first electrode, to clean the first electrode; and means (219/319-320/349-350) for signaling a condition to a human operator that it is time to replace the electrode module wherein the target metal comprises at least one of selenium, mercury, cadmium, lead, copper, arsenic, chromium, beryllium, aluminum, nickel, uranium or zinc.
Method for determining the state of charge of a battery comprising the steps: connecting a recharge prediction unit to the battery before charging the battery, charging the battery, measuring battery parameters during the charging of the battery, disconnecting the recharge prediction unit from the battery before discharging the battery, discharging the battery, predicting the state of charge of the battery using the recharge prediction unit and using the battery parameters measured during charging of the battery, the prediction being without carrying out any measurements during the discharging of the battery, wherein the recharge prediction unit is disconnected from the battery during the discharging of the battery. connecting a recharge prediction unit to the battery before charging the battery, charging the battery, measuring battery parameters during the charging of the battery, disconnecting the recharge prediction unit from the battery before discharging the battery, discharging the battery, predicting the state of charge of the battery using the recharge prediction unit and using the battery parameters measured during charging of the battery, the prediction being without carrying out any measurements during the discharging of the battery, wherein the recharge prediction unit is disconnected from the battery during the discharging of the battery.
An electronic device comprising: a display ; an actuator physically coupled to the display and configured to cause vibration of the display in response to an audio signal that is an input to the actuator and that is generated by an audio amplifier ; a vibration sensor physically coupled to the display and configured to sense the vibration of the display due to the actuator and to output a vibration sensor signal proportional to the vibration of the display due to the actuator ; and a second actuator physically coupled to a portion of the electronic device different from the display , the second actuator configured to cause vibration of the portion in response to a second audio signal provided as an input to the second actuator . a display ; an actuator physically coupled to the display and configured to cause vibration of the display in response to an audio signal that is an input to the actuator and that is generated by an audio amplifier ; a vibration sensor physically coupled to the display and configured to sense the vibration of the display due to the actuator and to output a vibration sensor signal proportional to the vibration of the display due to the actuator ; and a second actuator physically coupled to a portion of the electronic device different from the display , the second actuator configured to cause vibration of the portion in response to a second audio signal provided as an input to the second actuator .
A method for deleting indexes in an internal memory, applied to a storage manager, wherein the storage manager comprises the internal memory and communicates with a first storage, wherein the first storage records a plurality of storage units, each storage unit comprises a plurality of data blocks and an index corresponding to each of the plurality of data blocks, the internal memory stores an index table, and the index table records indexes corresponding to data blocks of the plurality of storage units; and the method comprises: selecting a to-be-evicted target storage unit from the plurality of storage units; reading all indexes in the target storage unit through one I/O request; deleting all the read indexes from the index table in the internal memory; and marking the target storage unit as empty; wherein all the indexes in the target storage unit are consecutively stored in the target storage unit. selecting a to-be-evicted target storage unit from the plurality of storage units; reading all indexes in the target storage unit through one I/O request; deleting all the read indexes from the index table in the internal memory; and marking the target storage unit as empty; wherein all the indexes in the target storage unit are consecutively stored in the target storage unit.
A silicoaluminophosphate represented by the following formula and having a powder X-ray diffraction pattern shown in Table 1 below: (Si x AlyP z )O 2 wherein x is a molar fraction of Si and 0.05<x≤0.15; y is a molar fraction of Al and 0.47≤y≤0.52; z is a molar fraction of P and 0.40≤z≤0.46; and x+y+z=1; [Table 1] Interplanar Spacing Å Relative Intensity I/I 0 9.30±0.15 1000 6.85±0.10 from 100 to 300 6.60±0.10 from 10 to 100 B 5.50±0.10 from 50 to 300 5.24±0.10 from 10 to 100 B 4.64±0.10 from 10 to 100 4.29±0.05 from 100 to 500 4.17±0.05 from 10 to 150 B 3.82±0.05 from 10 to 100 3.42±0.05 from 20 to 150 2.87±0.02 from 20 to 200 I/I 0 is a relative intensity when the peak of 9.30±0.15Å is taken as 1,000; and B indicates a broad peak which is an XRD peak having a half-width value of 0.3 degrees or more. wherein x is a molar fraction of Si and 0.05<x≤0.15; y is a molar fraction of Al and 0.47≤y≤0.52; z is a molar fraction of P and 0.40≤z≤0.46; and x+y+z=1;
A stress measurement device comprising: a first obtaining unit obtaining thermal data including information indicating a temperature of a measuring region (R1, R2, R3) of a measuring object ; a second obtaining unit obtaining data related to stress occurring in one part of the measuring region (R1, R2, R3); and a controller finding stress occurring in the measuring region (R1, R2, R3) of the measuring object from the thermal data and the data related to the stress, wherein the controller finds first chronological data respectively on the one part of the measuring region (R1, R2, R3) and a part other than the one part of the measuring region (R1, R2, R3) based on a change with time of the thermal data, finds second chronological data based on a change with time of the data related to the stress, also finds differential data through a deduction of the second chronological data from the first chronological data, wherein both the first chronological data and the second chronological data are measured on the one part of the measuring region (R1, R2, R3), and finds stress data indicating stress occurring in the part other than the one part of the measuring region (R1, R2, R3) through a deduction of the differential data from the first chronological data on the part other than the one part of the measuring region (R1, R2. R3). a first obtaining unit obtaining thermal data including information indicating a temperature of a measuring region (R1, R2, R3) of a measuring object ; a second obtaining unit obtaining data related to stress occurring in one part of the measuring region (R1, R2, R3); and a controller finding stress occurring in the measuring region (R1, R2, R3) of the measuring object from the thermal data and the data related to the stress, wherein the controller finds first chronological data respectively on the one part of the measuring region (R1, R2, R3) and a part other than the one part of the measuring region (R1, R2, R3) based on a change with time of the thermal data, finds second chronological data based on a change with time of the data related to the stress, also finds differential data through a deduction of the second chronological data from the first chronological data, wherein both the first chronological data and the second chronological data are measured on the one part of the measuring region (R1, R2, R3), and finds stress data indicating stress occurring in the part other than the one part of the measuring region (R1, R2, R3) through a deduction of the differential data from the first chronological data on the part other than the one part of the measuring region (R1, R2. R3).
A neighboring cell relationship configuration method for a mobile satellite communications system, wherein the method comprises: receiving, by a communications device of the mobile satellite communications system from a first satellite of the mobile satellite communications system, neighboring cell relationship configuration information, wherein the neighboring cell relationship configuration information comprises a neighboring cell status function identifier, and the neighboring cell status function identifier is used to indicate an inactive state of at least one neighboring cell of a first satellite cel, wherein the satellite cell is a cell covered by a beam of the first satellite at a specific moment or in a specific state; and determining, by the communications device, a configuration status of the neighboring cell based on the neighboring cell relationship configuration information. receiving, by a communications device of the mobile satellite communications system from a first satellite of the mobile satellite communications system, neighboring cell relationship configuration information, wherein the neighboring cell relationship configuration information comprises a neighboring cell status function identifier, and the neighboring cell status function identifier is used to indicate an inactive state of at least one neighboring cell of a first satellite cel, wherein the satellite cell is a cell covered by a beam of the first satellite at a specific moment or in a specific state; and determining, by the communications device, a configuration status of the neighboring cell based on the neighboring cell relationship configuration information.
An organic/inorganic composite separator, which includes a polyolefin porous substrate having a plurality of pores; and a porous coating layer formed on at least one surface of the polyolefin porous substrate with a plurality of inorganic particles and a binder polymer, wherein the binder polymer is a copolymer including: (a) a first monomer unit having a contact angle to a water drop, as measured according to the method described in the description, in the range from 0° to 49°; and (b) a second monomer unit having a contact angle to a water drop, as measured according to the method described in the description, in the range from 50° to 130° characterised in that the first monomer unit has a molar ratio in the range from 1 to 20 mol% based on the entire copolymer. wherein the binder polymer is a copolymer including: (a) a first monomer unit having a contact angle to a water drop, as measured according to the method described in the description, in the range from 0° to 49°; and (b) a second monomer unit having a contact angle to a water drop, as measured according to the method described in the description, in the range from 50° to 130° (a) a first monomer unit having a contact angle to a water drop, as measured according to the method described in the description, in the range from 0° to 49°; and (b) a second monomer unit having a contact angle to a water drop, as measured according to the method described in the description, in the range from 50° to 130° characterised in that the first monomer unit has a molar ratio in the range from 1 to 20 mol% based on the entire copolymer.
A method comprising: a. culturing plant cells of the species Veratrum californicum in a nutrient medium to form a cell culture of undifferentiated cells that produces a Veratrum alkaloid; and b. recovering the alkaloid, wherein the alkaloid contains a C-nor-D-homo-[14(13->12)-abeo] ring. a. culturing plant cells of the species Veratrum californicum in a nutrient medium to form a cell culture of undifferentiated cells that produces a Veratrum alkaloid; and b. recovering the alkaloid, wherein the alkaloid contains a C-nor-D-homo-[14(13->12)-abeo] ring.
A human monoclonal anti-interleukin-32 (IL-32) antibody or an IL-32 binding fragment thereof comprising in its heavy (VH) chain and variable light (VL) chain the complementarity determining regions (CDRs) VH-CDR1, VH-CDR2, VH-CDR3 and VL-CDR1, VL-CDR2 and VL-CDR3 selected from (a) VH-CDR1: positions 31-37 of SEQ ID NO: 2 VH-CDR2: positions 52-67 of SEQ ID NO: 2 VH-CDR3: positions 100-107 of SEQ ID NO: 2 VL-CDR1: positions 23-35 of SEQ ID NO: 4 VL-CDR2: positions 51-57 of SEQ ID NO: 4 VL-CDR3: positions 90-101 of SEQ ID NO: 4; and (b) VH-CDR1: positions 31-35 of SEQ ID NO: 18 VH-CDR2: positions 50-66 of SEQ ID NO: 18 VH-CDR3: positions 99-105 of SEQ ID NO: 18 VL-CDR1: positions 23-33 of SEQ ID NO: 20 VL-CDR2: positions 49-55 of SEQ ID NO: 20 VL-CDR3: positions 88-97 of SEQ ID NO: 20, wherein the antibody or IL-32 binding fragment is capable of (i) binding recombinant human IL-32 gamma (IL-32γ); and (ii) neutralizing a biological activity of IL-32γ, wherein the biological activity is human IL-32γ induced inflammation which is determined in an ear inflammation assay. (a) VH-CDR1: positions 31-37 of SEQ ID NO: 2 VH-CDR2: positions 52-67 of SEQ ID NO: 2 VH-CDR3: positions 100-107 of SEQ ID NO: 2 VL-CDR1: positions 23-35 of SEQ ID NO: 4 VL-CDR2: positions 51-57 of SEQ ID NO: 4 VL-CDR3: positions 90-101 of SEQ ID NO: 4; and VH-CDR1: positions 31-37 of SEQ ID NO: 2 VH-CDR2: positions 52-67 of SEQ ID NO: 2 VH-CDR3: positions 100-107 of SEQ ID NO: 2 VL-CDR1: positions 23-35 of SEQ ID NO: 4 VL-CDR2: positions 51-57 of SEQ ID NO: 4 VL-CDR3: positions 90-101 of SEQ ID NO: 4; and (b) VH-CDR1: positions 31-35 of SEQ ID NO: 18 VH-CDR2: positions 50-66 of SEQ ID NO: 18 VH-CDR3: positions 99-105 of SEQ ID NO: 18 VL-CDR1: positions 23-33 of SEQ ID NO: 20 VL-CDR2: positions 49-55 of SEQ ID NO: 20 VL-CDR3: positions 88-97 of SEQ ID NO: 20, VH-CDR1: positions 31-35 of SEQ ID NO: 18 VH-CDR2: positions 50-66 of SEQ ID NO: 18 VH-CDR3: positions 99-105 of SEQ ID NO: 18 VL-CDR1: positions 23-33 of SEQ ID NO: 20 VL-CDR2: positions 49-55 of SEQ ID NO: 20 VL-CDR3: positions 88-97 of SEQ ID NO: 20, (i) binding recombinant human IL-32 gamma (IL-32γ); and (ii) neutralizing a biological activity of IL-32γ, wherein the biological activity is human IL-32γ induced inflammation which is determined in an ear inflammation assay.
Rechargeable electrochemical cell comprising a negative electrode and a positive electrode, whereby the positive electrode comprises a product having as overall formula Li p (Ni x Mn y CO z M m Al n A a )O 2±b , whereby M signifies one or more elements from the group Mg, Ti, Cr, V and Fe, whereby A signifies one or more elements from the group F, C, CI, S, Zr, Ba, Y, Ca, B, Sn, Sb, Na and Zn, whereby 0.9 < (x+y+z+m+n+a) < 1.1, whereby b < 0.02 whereby 0.9 < p < 1.1 whereby 0.30 < x < 0.95 whereby (y+z) ≥ 0.09 whereby 0 ≤ m ≤ 0.05 whereby 0 ≤ a ≤ 0.05, whereby 0 ≤ n ≤ 0.15,whereby the negative electrode comprises composite particles, whereby the composite particles comprise silicon-based domains in a matrix material, whereby the individual silicon-based domains are either free silicon-based domains that are not or not completely embedded in the matrix or are fully embedded silicon-based domains that are completely surrounded by the matrix material, whereby the percentage of free silicon-based domains is lower than or equal to 4 weight% of the total amount of Si in metallic or oxidized state in the composite particles.
A desuperheating spray chamber for use in a rocket exhaust recovery system for a nuclear thermal propulsion rocket, comprising: a substantially-cylindrical outer tank with an upper end including an entrance port and at least one exhaust port disposed thereon; a substantially-cylindrical shroud extending downwardly from an inner surface of the upper end of the tank ; an inner spray ring that is disposed within the shroud about a longitudinal center axis of the outer tank ; and an outer spray ring that is disposed between a side wall of the outer tank and the shroud . a substantially-cylindrical outer tank with an upper end including an entrance port and at least one exhaust port disposed thereon; a substantially-cylindrical shroud extending downwardly from an inner surface of the upper end of the tank ; an inner spray ring that is disposed within the shroud about a longitudinal center axis of the outer tank ; and an outer spray ring that is disposed between a side wall of the outer tank and the shroud .
Extrusion head, in particular printing head , for the layer-by-layer application of material for the generative production of a shaped body, comprising an extrusion nozzle with an extrusion channel and a heating device for melting the polymer material fed to the extrusion nozzle , wherein the heating device is designed as an inductive heater which comprises an inductor surrounding the extrusion nozzle , and wherein the extrusion nozzle consists at least in part of an inductively heatable material and the extrusion nozzle , for thermal and, if necessary, electrical insulation, is supported an insulation body surrounding it, which preferably consists of a ceramic material, characterized in that the inductor, such as at least one induction coil , is arranged in or on the insulating body , in that a material feed body is provided which has a feed channel aligned with the extrusion channel of the extrusion nozzle , and in that the extrusion nozzle is detachably connected to the material feed body , the extrusion nozzle being connected to the material feed body via the insulating body .